Compehenie DNA Healh Repo
Welcome o he fe of healh and hman poenial
Name: Sample Paien Repo
DOB: 7/9/82
Bacode: DC0001481
Dae: 10/26/22
1
MACRONUTRIENT
METABOLISM
2
APOE Sa: 3/3
F
Yo ae a Fame
ApoE-e4 ApoE-e3 ApoE-e2
Apolipopoein E (ApoE) i a lipid-binding poein ha anpo iglceide
and choleeol in mliple ie, inclding he bain. The e2 and e3 allele
ae mo common in agiclal commniie, hile he e4 allele i common
in hne-gahee commniie.
ApoE 3/3 i he mo common ApoE genope fond in agiclal
commniie and ha nmeo bene
Eended cogniie ne and enhanced epeion of ani-aging
iin
Impoed HDL and LDL pole
Impoed abili o epai nape and neal poecion
Highe ial poecion
Highe epone o plan bioacie compond
In he bain, e2 and e3 accmlae in neon 2 o 4-fold highe han
e4
Poein Reiemen
Poein
AVERAGE INCREASED HIGH
Tadiional poein inake ange baed on laide fom le han 18% of oal
caloie o appoimael 35% in he fa nohen climae. Recommended
poein inake aie baed on eigh and eecie ineni.
Geneicall, o eiemen fall on he aeage ide of he
pecm, appoimael 18-20% of oal caloic inake
Cabohdae Reiemen
Cabohdae
VERY LOW LOW AVERAGE
Yo cabohdae inake ange i baed on he laide of o anceo
and hehe a hne-gahee die o moden agiclal die made a lage
impin on o gene.
Yo genope combinaion i aociaed ih impoed
cabohdae meabolim, alloing 40% o 55% of oal caloie fom
cabohdae if deied
Fo a 2,000 caloie die, hi come o 200 o 275 gam of
cabohdae pe da
Cabohdae Reiemen
Rened
Cabohdae
LESS RISK SLIGHT RISK HIGH RISK
The dieence beeen epone in indiidal o ened cabohdae
hae been linked o a geneic adapaion occing ding he agiclal
age.
Yo genope i aociaed ih an adapaion fo loeing he
eniii o ened cabohdae
3
Fa Reiemen
Omega-3'
AVERAGE INCREASED HIGH
The NIH ha e he ecommended inake of omega-3' fom 1.1 o 1.6 gam
pe da fom a combinaion of ALA, EPA and DHA. Omega-3 fa acid ae
eenial fo bain, ee, and cadioacla healh.
Yo genope combinaion ae aociaed ih a highe
eiemen of EPA and DHA
ApoE e2 and e3 caie can bene fom non-phopholipid h oil
inake, hoee, e4 caie hold e phopholipid-baed EPA and
DHA a fond in h and h oe
Fo ApoE e4 caie, h oil pplemen do no appea a eecie
a phopholipid-baed EPA and DHA a fond in h and h oe
E4 caie ma hae impaied anpo of fee DHA and eie
phopholipid fo ccefl anpo
Fa Reiemen
Mononaaed
and
Polnaaed
AVERAGE INCREASED HIGH
Tadiional oal fa inake ange baed on laide, ih a lo a 25%
conmed in conie cloe o he eao, and p o 55% of oal caloie
fom fa being conmed in nohen laide.
Geneic eing can ho hich fa o foc on, b oal fa ill
ange baed on o climae and healh goal
Yo genope ae aociaed ih a highe emphai on
mononaaed and polnaaed fa fom olie oil, aocado,
pol, n and eed
Fa Reiemen
Saaed Fa
(Red Mea)
VERY LOW LOW AVERAGE
The 2020 Diea Gideline in he U.S. ecommend limiing caloie fom
aaed fa o le han 10% of he oal caloie o ea and dink each
da. Tha abo 200 caloie fo a 2,000 caloie die. Tadiionall, aaed
fa inake fom animal food anged baed on he eaon and he
geogaphical locaion, ih highe laide and moe monaino egion
conming moe.
Baed on o genope combinaion, o hold aim o ge le
aaed fa in o die fom ed mea
Limi o ed mea conmpion o ice a eek
Fa Reiemen
Saaed Fa
(Dai)
VERY LOW LOW AVERAGE
The 2020 Diea Gideline in he U.S. ecommend limiing caloie fom
aaed fa o le han 10% of he oal caloie o ea and dink each
da. Tha 200 caloie fo a 2,000 caloie die.
Yo genope combinaion ae aociaed ih beneing fom
geing le han 22 gam of aaed fa in o die, epeciall
fom dai
4
Miconien Reiemen
B1 (Thiamine)
AVERAGE ABOVE
AVERAGE
HIGH
The ecommended dail alloance (RDA) fo hiamine i 1.2mg. Thiamine
eiemen ae analed baed on ehanol meabolim, hoee, chonic
inake of alcohol deplee hiamine.
Yo genope i aociaed ih an aeage need fo B1
Miconien Reiemen
B2 (Riboain)
AVERAGE ABOVE
AVERAGE
HIGH
The ecommended dail alloance (RDA) fo iboain i 1.3mg. Riboain i
ed a a co-faco fo nmeo eacion aociaed ih poein, fa, and
cabohdae meabolim. Riboain eiemen ae analed baed on
MTHFR gene fncion.
Yo genope i aociaed ih a highe han aeage need fo B2
B2 i high in lie (2.8mg), lamb (0.4mg), almon (0.8mg), og
(0.6mg) and oe mhoom (0.3mg)
Miconien Reiemen
B3 (Niacin)
AVERAGE ABOVE
AVERAGE
HIGH
The ecommended dail alloance (RDA) fo niacin i 16mg. Niacin age
gene aociaed ih cadioacla and kin healh, hile alo balancing
mehlaion leel.
Yo genope i aociaed ih a highe eniii o lo niacin
inake
Niacin in high in ellon na (37.5mg), canned na (21.9mg), ild
almon (17mg), gond ke (20mg), chicken bea (16mg), lie
(14.2mg), ki eak (9.5mg), hie bon mhoom (6.8mg), and
bon ice (5.2mg)
Miconien Reiemen
B6 (Pidoine)
AVERAGE ABOVE
AVERAGE
HIGH
The ecommended dail alloance (RDA) fo B6 i 1.7mg. B6 decienc can
manife a anoeia, iiabili, anie, depeion, mcle pain, bad
PMS/lo pogeeone, naea, eie, migaine, demaii, age elaed
macla degeneaion (ih lo folae and B12) and lehag.
Yo genope i aociaed ih an aeage need fo B6
5
Miconien Reiemen
B9 (Folae)
AVERAGE ABOVE
AVERAGE
HIGH
The ecommended dail alloance (RDA) fo folae i 400mcg. Folae i one
of he - if no mo - inenial nigenomic miconien. I ha a poefl
inence on gene elaed o pegnanc, homoceine, and cance
peenion.
Yo genope i aociaed ih a highe han aeage need fo
folae
Folae i depleed b poon pmp inhibio, oal conacepie,
NSAID, aniconlan, aniial, anibioic, and anacid
Folae i high in lie (3 o., 215mg), collad geen (1 cp cooked,
177mcg), bee (1 cp a, 148mcg), black-eed pea (1/2 cp,
105mg), a pinach (1 cp 58mg), apaag (4 pea, 89mg),
hmm (1/2 cp, 83mcg), boccoli (1/2 cp cooked, 52mg), omaine
lece (1 cp, 64mg), abeie (1 cp, 40mcg), oange (1 hole,
39mcg), poed lenil (1/2 cp, 38mcg), and pale (1 pig,
15.2mg)
Miconien Reiemen
B12 (Cobalamin)
AVERAGE ABOVE
AVERAGE
HIGH
The ecommended dail alloance (RDA) fo B12 i 2.4mcg. B12 inence
gene elaed o homoceine, bain healh, pegnanc, and eneg. B12
eiemen ae baed on em leel aociaed ih he FUT2 gene.
Yo genope i aociaed ih an aeage eiemen fo B12
Miconien Reiemen
Boon
AVERAGE ABOVE
AVERAGE
HIGH
The ecommended dail alloance (RDA) fo boon ha no been e, b 1-
3mg i conideed adeae. Boon i conneced o bone healh, homone
healh and healh SAMe leel fo bain healh. Men ih lo eoeone
and omen ih oeopooi o oeopenia ill bene fom moe boon.
Yo genope i aociaed ih a highe eniii o lo boon
inake
Boon i highe in pne (10 pne, 1.18mg) aocado (1/2 cp,
1.07mg), aiin (1.5 o, 0.95mg), peach (1 hole, .80mg), apple (1
hole, .66mg), pea (1 hole .50mg), and pean be (2
ablepoon, 0.46mg)
6
Miconien Reiemen
Choline & Beaine
AVERAGE ABOVE
AVERAGE
HIGH
The ecommended dail alloance (RDA) fo choline i 550mg, hile beaine
han' been e. The moe beaine o conme, he le choline o eie.
Choline i ccial fo pegnanc, loe anie, peen fa lie, ai
deoicaion, and impoe memo.
Yo genope i aociaed ih a highe han aeage need fo
choline and beaine
Choline i depleed b nighime pain eliee, anihiamine, leep
aid, anidepean, inconinence dg and nacoic pain eliee
Inene endance eecie deplee choline leel, and inceaing
phophaidlcholine ha been fond o impoe eecie capaci
ding high-ineni ccling and nning, a ell a edce mcle
oene
Choline i highe in lie (3 o., 356mg), paed egg (2 egg,
294mg), beef ond (6 o., 234mg), hea (3 o., 194mg), chicken (6 o.,
144mg), ild cod (6 o., 142mg), bacon (3.5 o., 125mg), and edamame
(1/2 cp, 107mg)
Beaine i highe in pinach (3.5 o., 645mg), himp (3.5 o., 218mg),
bee (3.5 o., 200mg) and hole gain odogh hea bead (2
lice, 201mg)
Miconien Reiemen
Viamin A
AVERAGE ABOVE
AVERAGE
HIGH
The ecommended dail alloance (RDA) fo iamin A i 900 mcg fo men
and 700 mcg pe da fo omen. Viamin A ai digeie lining epai, oal
healh, ee healh, ion mobiliaion, miochondia healh, kin healh, healh
lng fncion, and inceaed immni.
Yo genope i aociaed ih a 32% loe coneion ae of
bea-caoene o iamin A, making i impoan o inclde moe
animal-baed iamin A o hi o dail age
Viamin A i high in lie (3 o., 6,600mcg), paed egg (1 egg,
75mcg), cod lie oil (378mcg), ild almon oil (206mcg), pickled
heing (219mcg) and ockee almon (118mcg)
Miconien Reiemen
Viamin D
AVERAGE ABOVE
AVERAGE
HIGH
The ecommended dail alloance (RDA) fo iamin D i 20mcg. Viamin D
ha a ide ole in immne fncion, bone healh, cadioala healh and
cance peenion.
Yo genope i aociaed ih belo aeage ciclaing leel of
iamin D
Viamin D i depleed b obei, peicide, a high fcoe inake,
aniconlan, babiae, benodiaepine, calcim channel
blocke, coicoeoid, anidepean, and bonchodilao
Viamin D i highe in ockee almon (6 o., 28.4mcg), cod lie oil (1
p., 11mcg), canned na (1 can, 6.7mcg), ild heing (3 o., 5.4mcg),
adine (1 can, 4mcg)
Miconien Reiemen
Viamin C
AVERAGE ABOVE
AVERAGE
HIGH
The ecommended dail alloance (RDA) fo iamin C i 90mg, hoee, he
amon conmed in he Paleolihic ea a 400mg pe da. Sdie ho
he be el occ ih oe 500mg pe da. Eenie eeach ho
ha adeae iamin C edce he ik of cance, hea dieae, cold, ,
caaac, hpeenion and een depeion.
Yo genope i aociaed ih aeage em iamin C leel
7
Miconien Reiemen
Viamin E
AVERAGE ABOVE
AVERAGE
HIGH
The ecommended dail alloance (RDA) fo iamin E i 15mg. Viamin E i
impoan fo anioidan poecion, kin healh, feili, bain healh, and
cadioacla healh.
Yo genope i aociaed ih a highe eniii o lo iamin E
inake
Viamin E i highe in noe eed (1 o., 7.4mg), almond (1 o.
7.3mg), aocado (1 hole, 4.2mg), pinach (1 cp cooked, 3.7mg),
ben ah op (1 cp, 2.6mg) and olie oil (1 ablepoon,
1.9mg)
Miconien Reiemen
Viamin K2
AVERAGE ABOVE
AVERAGE
HIGH
The ecommended dail alloance (RDA) fo iamin K2 ha no been
eablihed, b baed on amon fond in food and eeach, 60-70mcg of
MK-4 and MK-7 i a good age. MK-4 age e homone, he bain,
poee ani-cance and ani-inammao acii, and alo ppo
bone healh. MK-7 i conideed bee fo edcing aeial calcicaion,
inceaing bone deni, ani-cance, impoing alia being (minimie
he de-minealiaion of enamel and enhance i e-minealiaion), and
inceaing cadiac op (12% inceae) in ahlee.
Yo genope i aociaed ih an aeage need fo K2
Miconien Reiemen
Magneim
AVERAGE ABOVE
AVERAGE
HIGH
The ecommended dail alloance (RDA) fo magneim i 400mg, hoee,
highe amon ma be eied fo ceain indiidal, e leel and
ahlee. Magneim leel a daicall baed on he oil, and heefoe in
he food. Magneim i inoled in 300 biochemical eacion, and decienc
ha idepead eec on ee apec of healh. The mo common
mpom of lo magneim inclde calf camp a nigh, headache,
ahhmia, calcicaion, and mcle faige.
Yo genope i aociaed ih an aeage need fo magneim
Miconien Reiemen
Manganee
AVERAGE ABOVE
AVERAGE
HIGH
The ecommended dail alloance (RDA) fo manganee ha no been e,
hoee, 1.8 o 2.3mg pe da i conideed adeae. Manganee ha a
pecial ole in poecing he miocondia of he cell again oici hogh
peoide dimae. Manganee i ccial fo hea healh, blood ga,
male feili, bone healh and poecing he bain again glamae oici.
Yo genope i aociaed ih a highe eniii o lo
manganee inake
Manganee i highe in mel (3 o., 5.8mg), ild blebeie (1/2
cp, 2.87mg), haeln (2 ablepoon, 1.6mg), pecan (2
ablepoon, 1.1mg), oe (3 o., 1mg), clam (3 o., 0.9mg),
hmm (1/2 cp, 0.9mg), pinach (1/2 cp cooked, 0.8mg), cliaed
blebeie (1/2 cp, .33mg)
8
Miconien Reiemen
Lihim
AVERAGE ABOVE
AVERAGE
HIGH
The ecommended dail alloance (RDA) fo lihim ha no been e, ih
nomal inake anging fom 250mcg o 3mg. Sdie fond an aociaion
beeen highe leel of lihim in local ae and benecial clinical,
behaioal, legal and medical ocome. In he cone of o geneic
anali, e ae looking a lihim eiemen in egad o B12
anpoaion.
Yo genope i aociaed ih an aeage need fo lihim
Miconien Reiemen
Selenim
AVERAGE ABOVE
AVERAGE
HIGH
The ecommended dail alloance (RDA) fo elenim i 55mcg. Selenim
leel in plan and animal food a daicall baed on he oil. Selenim i
a ccial mineal linked o nmeo gene inoled in glahione (he
mae anioidan), deoicaion, immni, hoid healh, kin healh, and
cance peenion.
Yo genope i aociaed ih an aeage need fo elenim
Fibe Reiemen
Pebioic Fibe
AVERAGE
NEED
INCREASED HIGH
The ecommended amon of be i p o 25 gam pe da fo omen and
p o 38 gam pe da fo men.
Yo genope ae aociaed ih an aeage eiemen fo
pebioic be
9
Phonien Reiemen
Lein and
Zeaanhin
AVERAGE
NEED
INCREASED HIGH
A ecommended dail inake of lein and eaanhin han' been
eablihed. Lein and eaanhin can help poec o ee fom hamfl
high-eneg ligh ae like UV nligh.
Yo genope i aociaed ih an inceaed need fo food high in
lein and eaanhin o ppo ee healh
Aond 700 caoenoid hae been dicoeed and onl lein and
eaanhin ae fond in he ee
Ameican adl picall conme 13 mg/da of lein and
eaanhin, he Spanih conme 3.5 mg/da, he Geman conme
5.33 mg/da, and olde Aalian conme 0.9mg pe da
Fo edcing he ik of ee diode, he eimaed age i 6mg o
moe of lein and eaanhin dail
The food highe in lein and eaanhin inclde cooked pinach
(1/2 cp, 12.64 mg lein), a pinach (1/2 cp, 6.6mg lein), cooked
kale (1/2 cp, 8.88mg lein), egg olk (1 egg, 237mcg lein and
216mcg eaanhin), and oange peppe (208mcg lein and
1665mcg eaanhin)
Phonien Reiemen
Polphenol
AVERAGE
NEED
INCREASED HIGH
Reeach ongl gge ha long em conmpion of die ich in plan
polphenol oe poecion again deelopmen of cance, cadioacla
dieae, diabee, oeopooi and neodegeneaie dieae.
Yo genope i aociaed ih a fa meabolim of polphenol,
hich mean o need a highe inake of polphenol o obain he
ame bene of ohe loe genope ha eie le
Polphenol fond in geen ea (alo in Kombcha), coee, chocolae
and all beie poide he mo bene of a highe inake
Phonien Reiemen
Cinnamon
AVERAGE
NEED
INCREASED HIGH
Cinnamon loe blood glcoe all iho caing hpoglcemia and
inceae aie.
Yo genope i aociaed ih an aeage need fo cinnamon o
conol blood ga
Phonien Reiemen
Ccifeo
Vegeable
AVERAGE
NEED
INCREASED HIGH
Iohiocanae fom ccifeo egeable ae knon fo hei ani-cance
acii. Ceain genope eie highe leel of hi ani-cance acii.
Yo genope combinaion ae aociaed ih a highe
eiemen of ccifeo egeable
Ccifeo egeable inclde boccoli, Bel po, cabbage,
calioe, adihe, nip, Bok cho, and aece
Aim fo 1-2 cp of ccifeo egeable pe da
10
Phonien Reiemen
Apigenin (Male)
AVERAGE
NEED
INCREASED HIGH
Apigenin i a aonoid ha poe ani-inammao, anioidan and ani-
cance popeie. Ceain genope eie highe leel fo poae
healh.
Yo genope i aociaed ih a highe han aeage need fo
apigenin fo poae healh
Apigenin i highe in died pale, cele and chamomile ea
Lacoe Toleance
Lacoe Toleance
TOLERANT ABOVE
AVERAGE
HIGH
Lacoe i he majo cabohdae in milk. The aial of faming in Eope
aond 8,500 ea ago neceiaed adapaion o ne enionmen,
pahogen, die, and ocial oganiaion. One of he be eample of
geneic diea change o hi i he lacae enme in nohen Eopean
ha onl dae o he la 4,000 ea.
Yo LCT genope i aociaed ih lacoe oleance
The abili o dige lacoe i mch moe common in people of
Eopean ance
Appoimael 32 pecen of he old poplaion i lacoe olean
Since hi gene onl look a lacoe, eniiiie o dai can ill
ei
Caeine Meabolim
Caeine
Meabolim
SLOW INTERMEDIATE FAST
Vaian in he CYP1A2 gene deemine he ae a hich o meabolie
caeine.
Yo ae an inemediae meabolie of caeine, meaning o bod
beak don caeine a an inemediae ae, giing o an aeage
eniii o he eec of inceaed conmpion
11
TOXIN SENSITIVITY
12
Toin Seniii
Mcooin
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
Mcooin ae oic compond ha ae naall podced b ceain
pe of fngi. Reeach gge ha mcooin can deceae he
fomaion of glahione de o deceaed gene epeion of he enme
needed o fom glahione.
Yo genope i aociaed ih loe glahione leel hich ma
cae glahione depleion o occ a a fae ae and deceae
mcooin deoicaion
The highe epoe o mcooin can be in food gon o oed
in damp condiion
Thi ma inclde gain, n, con, coee, ine, bee, gape jice,
oghm, ice, died bean, apple, ple, cacao podc, and pice
Booing glahione can be accomplihed ih elenim, glcine,
ceine, alpha lipoic acid, iamin C, and ccifeo egeable
Toin Seniii
Xenoeogen
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
Xenoeogen ae nheic homone dipo fond in plaic and
peicide.
Yo genope i aociaed ih a fae meabolim of
enoeogen, hich ma ai loeing he ciclaion and oic
acii
Toin Seniii
Occpaional
Toin
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
Woke epoed o ceain chemical oe a long peiod in he
mealoking, peolem, agiclal indie and in gla facoie ae a
inceaed ik fo occpaional kin cance.
Yo genope ae aociaed ih an inceaed eniii o hee
oin
Foc on inc, elenim, niacin, and iamin C o impoe DNA
poecion fo kin healh
Ellagic acid, lein, eaanhin, cocoa polphenol, chaga ea, geen
ea and ci hae all been fond o help poec again kin
damage and canceo goh
Toin Seniii
Ehanol
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
ALDH2 encode fo aldehde dehdogenae, and aian can aec he
leel of acealdehde and heefoe he cacinogenic eec of alcohol.
Yo genope i no aociaed ih a highe ik of alcohol-elaed
adee eacion inclding hing, palpiaion, naea, headache,
doine, beahlene, and geneal dicomfo
13
Toin Seniii
Beno(a)pene
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
Beno(a)pene i a cacinogenic compond podced fom he bning of
ood o ah, obacco moke, aphal, coal, dieel eha, chaed mea,
and ga cooking.
Yo genope combinaion ae aociaed ih deceaed
deoicaion of beno(a)pene
I i ecommended o inceae o inake of ccifeo egeable,
iamin C, iamin E, iamin A, eeaol, ccmin, geen ea, and
hie ea o poec and deoif beno(a)pene
Toin Seniii
Aomaic Amine
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
Aomaic amine ae fond in cigaee, bbe facoie, hai de ha
conain 4-aminobiphenl, and mea cooked a high empeae.
Yo genope combinaion ae aociaed ih a poo
deoicaion abili of aomaic amine
I i ecommended o inceae ccifeo egeable inake,
caoenoid, and iamin C, and e mainade fo mea ih
babecing
Toin Seniii
Apaame
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
Apaame i an aicial eeene ha ha been linked o behaioal,
neological and cogniie poblem, inceaed blood ga, hoid ie,
and ceain pe of cance.
Yo genope combinaion ma loe he eniii o apaame
Poible neophiological mpom inclde leaning poblem,
headache, eie, migaine, iiable mood, anie, depeion, and
inomnia
Aicial eeene in geneal inceaed ai cicmfeence 500
pecen hile apaame inceaed blood ga in diabee-pone
mice
Apaame ha been fond o conibe o he fomaion of mo in
he CNS ch a glioma, medlloblaoma, and
meningioma, inceaed lmphoma and lekemia, and i an
eciooin o bain neon
Apaame in he bod fhe meabolie o fomaldehde, and a
die fond ha fomaldehde (a a meabolie of apaame)
caed inceaed TSH leel and oen he capaci of he gland
leading o hoid faile
Toin Seniii
Food De
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
Food de hae been fond o inhibi miochondial epiaion: he abili of
he poehoe of o cell o cone nien o eneg. The hae alo
been fond o epeciall aec hoe ih ADHD.
Yo genope combinaion i aociaed ih a highe eniii o
food de
Aoid food and dink ha e food de hen poible
14
Peicide, Hebicide and Hea Meal
Seniii
Glphoae
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
Glphoae i an hebicide ha ha been fond o be highl oic.
Yo genope i aociaed ih poeniall moe cellla damage
fom epoe o he hebicide glphoae
The highe glphoae leel hae been fond in non-oganic hea
and non-oganic ple like bean, lenil, and pea
A mea-anali of hman epidemiological die gge a link
beeen epoe o glphoae and an inceaed ik fo non-
Hodgkin lmphoma
An aociaion beeen glphoae and hoid dieae come fom
plo oe ime of he age of glphoae in he U.S. on con and o
ime-aligned ih plo of he incidence ae of hoid cance in he
U.S.
Manganee decienc and oici can occ imlaneol fom
glphoae epoe de o a dipion in lie enme, caing
anpoaion of manganee hogh he ag nee o he
bainem hee ece manganee can lead o Pakinon dieae
The g baceim Lacobacill i negaiel impaced b glphoae
and he depleion in aociaed ih celiac dieae
Hmic acid fom Shilaji ha been hon in io o edce glphoae
concenaion, inhibi he decie eec of glphoae on
benecial baceia, and poec and epai again igh jncion inj
of he digeie em
Peicide, Hebicide and Hea Meal
Seniii
Oganochloine
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
Oganochloine ae fond in ceain peicide, PCB and caloe.
Yo genope i aociaed ih impoed poecion again
oganochloine
Peicide, Hebicide and Hea Meal
Seniii
Oganophophae
Inecicide
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
PON1 pla a lage ole in emoing peicide and i alo inoled ih
ppoing HDL fncion and LDL oidaion. Oganophophae ae a cla of
inecicide, inclding paahion and chlopifo, ha ee among he mo
idel ed inecicide aailable nil he 21 cen.
Yo PON1 genope i aociaed ih edced PON1 leel and
deoicaion of oganphophae inecicide
Oganophoophae inecide ok b damaging an enme in he
bod called acelcholineeae
Reidenial poimi o agiclal oganophophae applicaion i
aociaed ih fae cogniie and moo mpom decline among
Pakinon dieae paien
Redce epoe o peicide, ge adeae calcim and
magneim, and conme pomeganae, boccoli po, and high
ali olie oil o inceae PON1 leel
15
Peicide, Hebicide and Hea Meal
Seniii
Cadmim
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
Chemical agicle e high amon of nheic oganophophae,
ceaing a e high phopho conen. Snheic phopho
concenae he amon of hea meal, like cadmim in non-oganic oil
and food. Chooing oganic podce i one of he be a o aoid ece
cadmim.
Yo genope i aociaed ih aeage deoicaion of he hea
meal cadmim
Peicide, Hebicide and Hea Meal
Seniii
Mec
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
Mec i a neooin linked o neological and behaioal diode
inclding emo, inomnia, memo lo, neomcla eec, headache,
and cogniie and moo dfncion. Bning coal fo poe and hea i a
majo oce of mec epoe. Glahione i eponible fo poecing
again and deoifing hea meal like mec.
Yo glahione genope ae aociaed ih edced poecion
again mec oici
Mec i fond in man phamaceical dg, denal amalgam,
and lage h inclding odh, ahi na, and halib
Selenim block mec pake, folae deceae mec leel,
and magneim and hol bail poec again mec oici
Peicide, Hebicide and Hea Meal
Seniii
Lead
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
Lead-baed pain, lead-baed d in olde bilding, conaminaed ae,
and ai pollion ae he majo oce of lead. Epoe o lead oe ime
ma cae abdominal pain, conipaion, depeion, diacion,
fogeflne, iiabili, and naea.
Yo genope i aociaed ih impoed deoicaion of lead
16
MENTAL HEALTH &
COGNITIVE
PERFORMANCE
17
Menal Healh and Cogniie Pefomance
Bain Repai and
Mainenance
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
Mliple gene ae eponible fo dail neal epai and mainenance, and a
combinaion of genope ae aociaed ih deceaed neal epai.
Yo genope combinaion i aociaed ih aeage o impoed
neal epai
Yo can be poacie fo neal epai ih eigh ho of leep pe
nigh, DHA, B-iamin, Lion Mane mhoom, inc, iamin C, and
iamin E
Menal Healh and Cogniie Pefomance
Concion
Recoe
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
A combinaion of genope in he paha eponible fo glamae
anpo and modlaion, BDNF leel, neal epai, and inammaion ding
a concion ae aociaed ih delaed o impoed ecoe.
Yo genope combinaion i aociaed ih a modeae ae of
ecoe fom concion
I i adied o be poacie ih eigh ho of leep pe nigh, inc,
omega-3 fa acid, Lion' Mane mhoom, B6, lihim, magneim,
B2, folae, B12, iamin C, choline, iamin D, and conien cadio
Uniei of Balo eeache pblihed a d in he Clinical
Jonal of Spo Medicine ha indiidalied eecie pogam j
belo he one of mpom i afe and can eliee neal all po-
concion mpom
Menal Healh and Cogniie Pefomance
Epiodic Memo
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
The 5-HT2A gene i aociaed ih epiodic memo, hich i he abili o
ecall deail of an een.
Yo 5-HT2A genope i aociaed ih a edced epiodic
memo
Epiodic memo can be enhanced ih pophan, geen o black
ea, caecholamine, beaine, and choline
Mindflne aining, inceaing o VO2 ma and edcing o
eliance on maphone can alo enhance epiodic memo
Menal Healh and Cogniie Pefomance
Cadio, Mood and
Cogniie Fine
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
Cadioacla eecie ha a emendo inence on neoanmie
balance, memo and cogniie ne.
Yo hae an aeage eiemen fo cadioacla eecie o
impoe mood and cogniie ne
18
Menal Healh and Cogniie Pefomance
Mood (Folae)
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
MTHFR genope deemine folae eiemen fo healh BH4 leel
eponible fo neoanmie balance. The cen dail ale fo folae i
400mcg DFE.
Yo genope ma eie 400-500mcg (o moe) fo healh BH4
leel eponible fo neoanmie balance
Food high in folae inclde:
Lie (215mg) 3 o.
Spinach (131mg) 1/2 cp cooked
Apaag (89mg) 4 pea
Bel po (78mg) 1/2 cp
Boccoli (52mg) 1/2 cp
Menal Healh and Cogniie Pefomance
Anie (Choline)
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
The PEMT gene i aociaed ih o eied choline inake o ppo
memo, anie, and REM leep.
Yo PEMT genope i aociaed ih a highe need fo choline
(550mg o moe) o ppo memo, anie and REM leep
Reeach ha hon ha idine, DHA, and choline combined
inceae leel of phophaidlcholine in he bain moe han each on
hei on
Food high in choline inclde:
Lie (356mg) fo 3 o.
Egg (294mg) fo 2 egg
Beef op ond (234mg) fo 6 o.
Chicken bea (144mg) fo 6 o.
Chicken high (120mg) fo 6 o.
Edamame (107mg) fo 1/2 cp
Menal Healh and Cogniie Pefomance
Addicion
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
ANKK1 modlae he deni of dopamine ecepo in he bain and i he
mo-died geneic aian elaed o addicion. Vaian hae been
aociaed ih alcoholim, opioid addicion, ga addicion, complie
eaing, obei and Inene addicion.
Yo genope i aociaed ih a loe deni of dopamine
ecepo fo he ANKK1 gene, edcing dopamine age ihin he
iam of he bain
Loe dopamine age cold lead o a highe likelihood of addicie
behaio
Geing 8 ho of leep pe nigh, keeping o blood ga balanced
ih adeae poein and be, high-ineni eecie, loe media
epoe, iamin D, healh ion leel, omega-3, and mediaion all
inceae dopamine ecepo deni
Menal Healh and Cogniie Pefomance
Anie
(Glamae and
GABA)
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
Anie i linked o aleed leel of one o mliple neoanmie.
Undeanding he geneic link o pecic leel of neoanmie can
help o be pecie in o appoach o edcing anie.
Yo genope combinaion i aociaed ih an impoed
modlaion of glamae leel ha cold help peen glamae-
elaed anie
19
Menal Healh and Cogniie Pefomance
Fea Repone
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
The FAAH gene i aociaed ih anandamide leel, coelaed ih a
heighened fea epone o poenial hea, hile BDNF aian aec he
abili o eingih he fea epone.
Yo genope combinaion i aociaed ih a heighened fea
epone ha ma aec o abili o eingih fea memoie
Geing 30 mine o moe of aeobic eecie pe da (epeciall in
alide), CBD, and hop help inceae anandamide - knon a he
"bli molecle" - o edce he fea epone
Menal Healh and Cogniie Pefomance
Read Sem
LOW MEDIUM HIGH
COMT 4680 ha been linked in a mea-anali o aiaion in he ead
epone baed on genope aociaed ih lo and high dopamine leel.
Yo genope i aociaed ih a loe dopamine epone o
ead poceing ha cold negaiel aec moiaion and dela
deciion making
Ceaing deadline fo ho em ak and long em goal can help
ceae pee and eleaed dopamine leel o impoe moiaion
and deciion making
To boo lo dopamine ih die and eecie, o can inceae o
inake of coee, geen ea, chocolae, banana, and beie, o eecie
ih an elemen of ik
20
Se Managemen
Se Pecepion
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
Yo pecepion of e i nie o o genope and life epeience.
Vaian in 5-HT2A ae aociaed ih peceied e, lo agal one,
anie, depeion, OCD, and IBS, epeciall in female.
Yo genope ae aociaed ih a highe pecepion of e
Modeae ineni aeobic eecie, mediaion and oga ae
ecommended fo e elief
Tpophan, geen o black ea, pebioic, pobioic, B2, B6, B12, and
folae all age he 5-HT2A gene o help loe e pecepion
Se Managemen
Se and
Digeion
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
The G allele caie of ADRB2 ee aociaed ih a highe pecenage of
IBS cae, ice he ae of anie, and fncional che pain diagnoe.
Yo genope i aociaed ih a highe pecenage of digeie
ie fom e and eleaed adenaline leel
If o epeience an of hee, o ma bene fom a deep
beahing pacice, mediaion, oga, iamin C, and magneim o
modlae adenaline leel
Se Managemen
Weigh Taining
and Se Relief
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
Weigh lifing ha a highe impac on homonal paha ha ma poide
highe leel of e elief baed on he peed of hee paha.
Yo genope i aociaed ih a loe leel of dopamine and
adenaline, and eigh lifing ma hae le of an impac on e
compaed o ohe genope
Waio o Saegi
Pee
Repone
WARRIOR HYBRID
(BOTH)
STRATEGIST
Yo COMT genope i aociaed ih he "Waio" ha ha loe
dopamine leel, b a highe hehold fo pee and ma een hie in
hoe enionmen. Loe dopamine leel ae efl in heaening
enionmen hee maimal pefomance i eied depie hea and
pain.
To boo lo dopamine fo mood and concenaion, o can inceae
o inake of coee, geen ea, chocolae, banana, and beie, o
eecie ih an elemen of ik
21
Sleep Sppo
Sleep Daion
Reiemen
AVERAGE
SLEEP
MORE SLEEP
The ApoE gene i aociaed ih aeage o eended leep eiemen
fo healh bain epai each nigh.
Yo ApoE genope i aociaed ih aeage leep daion (7-8
ho) eiemen fo neal epai
Sleep Sppo
Recommended
Wake Time
EARLY AVERAGE LATE
Reeach ha fond ha MTNR1B G allele caie had a ignican
aociaion ih delaed melaonin eleae in he eening and a
baniall longe daion of eleaed melaonin leel in he moning.
De o melaonin eleae ending ealie in he moning fo o
genope, an ealie ake ime (ealie han 6:30am) ma be eaie fo
iho ligh epoe
Melaonin pplemenaion a no fond o cae impaied glcoe
inoleance fo o CC genope
Sleep Sppo
Caeine Sleep
Dibance
LESS LIKELY AVERAGE MORE LIKELY
The ae a hich caeine i meabolied geneicall i aociaed ih
aiaion of leep dibance.
Yo ae an inemediae meabolie of caeine, hich cold aec
leep if caeine i conmed in he lae afenoon o eening
To acceleae he meabolim of caeine, chedle cadio eecie
afe conmpion and inceae ccifeo egeable inake
Sleep Sppo
REM Sleep
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
Acelcholine pla a ole in pomoing REM leep, he phae ha occ
hile e deam and hee memo conolidaion occ.
Yo genope i aociaed ih inceaed eniii o no meeing
o dail choline eiemen fo acelcholine podcion and REM
leep
Yo ma be moe eniie o anicholinegic dg, hich block
acelcholine and hae been fond in eeach o cae cogniie
decline
Make e o ae geing a lea 550mg of choline pe da, alking
45 mine o moe pe da, and if conming alcohol, o ill leep
bee if o conme i befoe 6:00pm and limi he ani
22
IMMUNE SUPPORT
23
Baceia, Yea, Paaie and Vie
H. Ploi
AVERAGE
PROTECTION
HIGH
PROTECTION
The inacie non-eceo genope fo FUT2 confe eiance o H. Ploi.
H. Ploi i peen in appoimael 50% of he poplaion in deeloped
conie.
Yo do no hae he non-eceo genope fo FUT2, aociaed ih
an aeage cepibili o H. Ploi
H. Ploi inhibiion ha been demonaed ih alcohol eac of he
mhoom Lion' Mane
Baceia, Yea, Paaie and Vie
Candida
LOW
PROTECTION
MODERATE
PROTECTION
HIGH
PROTECTION
The inacie non-eceo genope fo FUT2 deceae eiance o
Candida oegoh.
Yo hae he eceo genope fo FUT2, giing o an aeage
cepibili o Candida oegoh
Baceia, Yea, Paaie and Vie
Malaia
LOW
PROTECTION
MODERATE
PROTECTION
HIGH
PROTECTION
Reeach ha hon ha MTHFR genope inence T-lmphoce,
naal kille cell, and poecion again malaia.
Yo genope i aociaed ih modeae poecion again
malaia
The malaia paaie need highe amon of folae o ie and
eplicae
Fo malaia-endemic egion, o genope doe no poide a
mch poecion a he homogo genope, b o hae moe
poecion han he ild-pe genope
Baceia, Yea, Paaie and Vie
Nooi
AVERAGE
PROTECTION
HIGH
PROTECTION
The inacie non-eceo genope fo FUT2 confe eiance o he
Nooi.
Yo do no hae he non-eceo genope fo FUT2, aociaed ih
an aeage cepibili o he Nooi
24
Baceia, Yea, Paaie and Vie
DNA Vie
AVERAGE
PROTECTION
MODERATE
PROTECTION
HIGH
PROTECTION
DNA ie inclde HPV, Epein Bae, hepe, and mallpo. Folae i a
peco o BH4 o podce niic oide. Niic oide ac a an aniial ha
i moe poen again DNA ie.
Yo genope combinaion i aociaed ih lighl loe BH4
leel ih incen folae, loeing poecion again DNA ie
Lo BH4 aec he aggeiene of DNA ie
To inceae BH4, inclde food high in folae, iamin C, L-aginine, B6,
magneim, and elenim fo healh niic oide leel and DNA i
ppo
BH4 i depleed b high blood ga, high omega-6 inake, chonic
e, high leel of mec, aenic, lead and alminm, apaame,
and oidaie e
25
COVID-19
Glahione
AVERAGE
NEED
INCREASED HIGH
Glahione i he mae anioidan em inoled in oidaie e,
deoicaion, and immni. The fncional capaci of immne cell and he
abili o cope ih oidaie e ha been popoed a one of he
ignican make of healh and longei. In boh animal and hman,
hoe ho each ecepionall old age hae immne make he ame a
ong adl.
Yo genope combinaion i aociaed ih deceaed baeline
glahione leel
Glahione deceae ih age, and lo leel of glahione ae
aociaed ih chonic epoe o chemical oin, hea meal
and ece alcohol, immnocompomied condiion, and
neodegeneaie diode
Glahione ha been fond o inceae b 20% ih deep beahing
pacice like Tai Chi o oga
Fo eecie, a combinaion of aeobic eecie and cici eigh
aining podced he highe glahione eec
Selenim, glcine, ceine, iamin C, and ccifeo egeable all
impoe glahione leel
Chicken o bone boh, heb, and pice ae ome of he be diea
a o mainain highe leel of glahione
Some of he all-a inclde cinnamon, anie, age, and hme de o
alo conaining he aniial compond caeic acid
COVID-19
Viamin A
AVERAGE
NEED
INCREASED HIGH
Viamin A and ome ohe einoid ho impoan immnomodlao
popeie, inclding he abili o inceae he ecienc of acion of pe 1
inefeon, an impoan aniial cokine eleaed b he innae immne
em again ial infecion. Coonaie imila o SARS-CoV-2 can
ppe he ho IFN-I-baed aniial epone a pa of hei infecion
mechanim.
Yo genope i aociaed ih a 32% loe coneion ae of
bea-caoene o iamin A, making i impoan o inclde moe
animal-baed iamin A o hi o dail age
Viamin A inake b con ho ha Spain i he con ih he
loe poplaion meeing niional eiemen fo iamin A,
folloed b Belgim and Finland
Geman and Pogal ho he be, and ih he ecepion of
Finland, conie ih bopimal Viamin A a ae coelaed
(alhogh no ignicanl) ih hei COVID-19 incidence and
moali
COVID-19
Viamin C
AVERAGE
NEED
INCREASED HIGH
Opimal a of iamin C pla an impoan ole in he pope oking of
he immne em.
Yo genope i aociaed ih aeage em iamin C leel
Conie ch a he UK, Fance, Neheland, and Belgim do no
each opimal diea inake of iamin C
Geman and o fo i leel of iamin C inake in compaion
ih ohe conie
Depie bopimal iamin C inake coelaing eakl ih COVID-
19 incidence, i coelae ongl ih deah pecenage, hich
cold gge a poiie eec o gh infecion once he indiidal
ha alead been infeced ih SARS-CoV-2
26
COVID-19
Viamin D
AVERAGE
NEED
INCREASED HIGH
Viamin D pla a ke ole in modlaing he immne em, and bopimal
o decien conmpion of iamin D i aociaed ih aio condiion
elaed o a malfncion of he immne em and deglaion in
inammao a.
Yo genope i aociaed ih belo aeage ciclaing leel of
iamin D
Viamin D inake i decien in all conie died ih COVID
eei, ih Spain, Fance, and Ial a he conie ih he loe
inake
A mea-anali of he die appea o ho ha iamin D i onl
efl fo hoe ho ae clinicall lo (belo 20 ng/ml), ih
modeae doe dail o eekl o aie leel being moe eecie
han peiodic lage doe
COVID-19
Selenim
AVERAGE
NEED
INCREASED HIGH
Sbopimal o decien leel of elenim ae aociaed ih deceaed
cooici of NK cell, deceaed anibod ie, and impaied cellla
immni. Spplemenaion i commonl elaed o impoemen in cellla
immni and an impoed opimal immne epone again ie,
inclding an inhibio eec on he deelopmen of he polioi and
inena.
Yo genope i aociaed ih an aeage need fo elenim
Glahione peoidae 1 (GPX1) i a elenoenme ih decibed
anioidan and aniial popeie ha depend on niional
elenim a
Spain i a he op fo meeing elenim eiemen hile Denmak
i a he boom
The onl o poplaion aboe he median of he conie analed
inclded Finland and Fance, hile he e of he conie ae belo
he geneal median
COVID-19
B12
AVERAGE
NEED
INCREASED HIGH
Scien iamin B12 inake i eenial fo anibod podcion and a
decienc i elaed o a loe concenaion of ciclaing lmphoce and
aleed anibod-baed epone. SARS CoV-2 infecion i elaed o an
aggaaion of he cellla meabolim and he homoceine paha
caing eee complicaion fom COVID-19, and he coec ppl of
iamin B12, folae and B6 ma be ccial fo COVID-19 paien.
Yo genope i aociaed ih inemediae B12 leel
Some of he conie lea aeced b SARS-CoV-2 ho he
highe leel of iamin B12 inake (Pogal and Finland)
Some of he conie mo aeced b SARS-CoV-2 (Belgim and
Spain) hae inake belo he median
27
COVID-19
Folae
AVERAGE
NEED
INCREASED HIGH
Folae i ccial fo opimal Th-1 mediaed immne epone and pope
anibod podcion. Sbopimal leel of folae ma igge imbalance in T
and NK cell mediaed immne epone and deceae he amon of
anibod podcion.
Yo genope combinaion i aociaed ih a highe han aeage
need fo folae
The coec inake of iamin B6, folae and B12 in paien aeced b
COVID-19 ha been popoed a pa of he dieae eamen, een
b pplemenaion fomla, in an aemp o eglae he dipion
of cellla meabolim of he homoceine paha caed b he
SARS-CoV-2 infecion
COVID-19
B6 (Pidoine)
AVERAGE
NEED
INCREASED HIGH
Viamin B6 i eenial fo mainaining cooic acii of NK cell,
lmphoce deelopmen, and B-cell anibod podcion. Sbopimal inake
i aociaed ih loe concenaion of ciclaing lmphoce, impaied
lmphoce maaion, and deceaed anibod-baed epone.
Yo genope i aociaed ih nomal em B6 leel
The coec inake of iamin B6, folae and B12 in paien aeced b
COVID-19 ha been popoed a pa of he dieae eamen, een
b pplemenaion fomla, in an aemp o eglae he dipion
of cellla meabolim of he homoceine paha caed b he
SARS-CoV-2 infecion
COVID-19
Bidobaceia
AVERAGE
NEED
INCREASED HIGH
Appoimael 80% of o immne em i in o g. The good baceia
bidobaceim i highe in bea-fed infan and ha been fond o be
loe in he highe-ik demogaphic fo COVID-19 inclding hoe ih
diabee, obei, ahma and he eldel. Bidobaceia poplaion hae
been fond o a baed on he FUT2 genope.
Yo genope i aociaed ih impoed bidobaceia leel in he
g, helping o poec again loe and ppe epiao infecion
Pebioic  fond in food like banana, galic, leek, bale,
apaag, piachio, onion, and polphenol-ich food  hae been
fond in hman ial o inceae bidobaceia leel
COVID-19
Glcine
AVERAGE
NEED
INCREASED HIGH
Glcine i one of he hee majo amino acid fo glahione podcion,
poecing he bod fom oidaie damage ding he immne epone,
and ppoing T-cell polifeaion.
Yo genope i aociaed ih lo pe 1 collagen podcion,
inceaing o glcine eiemen
Tpe I collage i a majo cal poein in he lng and i
imlaed ding ceain inammao eacion in he lng
Collagen poein, bone, o chicken boh ha gelainie, gelain, mea
ih he kin, ib, hank, and dmick ae all a o inceae
diea glcine
Baobab i conideed an ecepionall good oce of plan-baed
glcine fond in he hne-gahee Hada die
28
COVID-19
Anhocanin
AVERAGE
NEED
INCREASED HIGH
Anhocanin, he pple anioidan compond in eldebeie and ohe ed
and pple plan, hae impeie aniial acii again RNA ie
(SARS-CoV-2 i a RNA i), hile alo inceaing HDL and loeing LDL.
Yo ApoE genope i moe eponie o anhocanin inake, and
heefoe o eiemen i aeage fo ial ppo
29
DNA PROTECTION &
REPAIR
30
DNA Poecion & Repai
Glahione
Poecion
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
Glahione i he mae anioidan em inoled in oidaie e,
deoicaion, and immni. Glahione a paallel elomeae acii,
an impoan indicao of lifepan.
Yo genope combinaion ae aociaed ih deceaed baeline
glahione leel
Glahione deceae ih age, and lo leel of glahione ae
aociaed ih chonic epoe o chemical oin, hea meal
and ece alcohol, immnocompomied condiion, and
neodegeneaie diode
Glahione ha been fond o inceae b 20% ih deep beahing
pacice like Tai Chi o oga
Fo eecie, a combinaion of aeobic eecie and cici eigh
aining podced he highe glahione eec
Selenim, glcine, ceine, iamin C, and ccifeo egeable all
impoe glahione leel
Chicken o bone boh, heb, and pice ae ome of he be diea
a o mainain highe leel of glahione
Some of he all-a inclde cinnamon, anie, age, and hme de o
alo conaining he aniial compond caeic acid
DNA Poecion & Repai
Caalae
Poecion
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
CAT make an enme called caalae, hich help edce oidaie e.
CAT i peen in all aeobic cell hile eeach ha fond he highe
coelaion o poae, bea, lie, and blood healh.
Yo genope i aociaed ih impoed caalae leel
DNA Poecion & Repai
Miochondial
Poecion
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
The SOD2 gene i eponible fo peoide dimae leel, an impoan
poeco of he miochondia, he poehoe of he cell.
Yo genope i aociaed ih lighl edced miochondial
poecion
Manganee, boon, iamin A, C, E, omega-3 fa acid, CoQ10, lein,
lcopene, milk hile, codcep, hol bail, eihi and coheap all
inceae miochondial poecion
DNA Poecion & Repai
UV Poecion
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
One hpohei fo aian in MTHFR 677 i ha he ee eleced baed
on highe folae inake and UV epoe, boh common in Medieanean
climae. Wha happen in he bod hen MTHFR enmaic fncion i
edced i ha hmidine podcion inceae. Thmidine enhance he
epai of UV-indced DNA damage o help ickl epai n damage.
Yo MTHFR genope i aociaed ih modeae UV poecion
fom he n
To impoe UV poecion, inceae o inake of folae-ich geen,
blackbeie, ild almon, cacao pode, chianda, eihi, dill and
died pale
31
DNA Poecion & Repai
Skin Poecion
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
GPX1 acii i conideed o be he mo impoan anioidan enme
defene mechanim in he kin.
Yo genope i aociaed ih impoed anioidan poecion fo
he kin
DNA Poecion & Repai
Lng Poecion
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
Vaian in he GSTP1 gene hae been aociaed ih loe anioidan
ppo in he lng hen epoed o enionmenal pollion.
Yo genope i aociaed ih inceaed lng poecion again
enionmenal pollan
DNA Poecion & Repai
Colon Poecion
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
The MLH1 gene code fo a DNA epai enme linked o colon healh.
Yo genope i aociaed ih impoed DNA poecion fo colon
healh
DNA Poecion & Repai
Ced Mea and
Colon Healh
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
A lage-cale genome-ide anali of oe 18,000 people fom he U.S.,
Canada, Aalia and Eope fond ha aian in GATA3 ee aociaed
ih an inceaed ik of colon cance fo hoe eaing poceed mea
compaed o hoe ih he nomal genope.
Yo genope i aociaed ih an inceaed ik of colon cance
fom ced mea conmpion
Keeping a iamin D leel of 34 ng/ml o highe ha been fond o c
colon cance ik in half
A high inake of fi, egeable, heb and pice hae alo been
fond o damaicall edce he ik of colon cance
32
DNA Poecion & Repai
Ee Poecion
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
Ble ligh i a high-eneg o ho-aelengh iible ligh fom o phone
and compe ha indce inammaion and einal dieae ch a age-
elaed macla degeneaion and einii pigmenoa.
Yo genope i aociaed ih highe eiemen fo food high
in lein, eaanhin, and anhocanin fo ee healh
A mea-anali fond ha he ae of mopia (neaighedne) ill
inceae 140% b 2050 de o o inceaed ime in fon of a ceen
Reeach ha fond ha bilbe and lingonbe ee poecie
eec again ble LED ligh-indced einal phooecepo cell
damage de o hei polphenol conen
Inceae o diea inake of dak pple beie, dak leaf geen,
mme ah, geen pea, boccoli and Bel po
DNA Poecion & Repai
Thoid Poecion
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
Up o 60 pecen of hoe ih a hoid diode ae naae of hei
condiion. The cae i conideed lagel nknon and occ 10 ime
moe in omen han in men. Hahimoo dieae n in he famil and 70%
80% of cepibili o aoimmne hoid dieae i baed on geneic.
Yo genope combinaion i aociaed ih edced hoid
poecion and a lighl inceaed ik of Hahimoo' dieae
Aoimmne hoid dieae i aociaed ih celiac dieae
A decienc in elenim i aociaed ih celiac dieae and hoid
dieae, and pla a ignican ole in hoid homone nhei,
eceion and meabolim
Scaloe and glphoae deo g oa like lacobacill, hich
dib elenoceine leel peen in he caalic cene of
enme ha poec he hoid fom fee adical damage
The aicial eeene apaame in he bod fhe meabolie o
fomaldehde, and a die fond ha fomaldehde (a a
meabolie of apaame) caed inceaed TSH leel and oen
he capaci of he gland leading o hoid faile
DNA Poecion & Repai
Pancea
Poecion
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
Mliple gene ae linked o DNA poecion fo panceaic healh.
Yo genope combinaion i aociaed ih inceaed DNA
poecion fo panceaic healh
DNA Poecion & Repai
Bladde Poecion
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
Ceain gene combinaion hae been fond o deceae he deoicaion
abili of ceain oin fond o be cacinogenic fo he bladde.
Yo genope i aociaed ih deceaed DNA poecion fo
bladde healh
Aoid obacco moke, commecial hai de, oking in indial and
manfacing plan, chaed mea, and dieel eha
Inceae o ccifeo egeable, caoenoid, and iamin C
inake
33
METHYLATION
34
Mehlaion
Folae
AVERAGE
NEED
INCREASED HIGH
MTHFR 677 and MTHFR 1298 genope deemine o folae eiemen
o ai nomal homoceine leel.
Yo genope combinaion i aociaed ih a highe han aeage
eiemen fo folae o mainain healh homoceine leel
If o homoceine i eleaed, check ha o ae geing enogh
folae
High homoceine ha been implicaed in amloid bildp, DNA
damage and cance, miochondial dfncion, cadioacla
dieae, age-elaed macla degeneaion, apopoi of neon and
depeion
Mehlaion
Folinic Acid
AVERAGE
NEED
INCREASED HIGH
Folinic acid i a econd pe of folae fond in folae-ich food.
Yo hae a highe han aeage eiemen fo folinic acid o
mainain healh mehlaion and homoceine leel
Mehlaion
Viamin B6
AVERAGE
NEED
INCREASED HIGH
Viamin B6 pla an impoan ole in homoceine meabolim and CBS
gene fncion.
A combinaion of o genope elaed o iamin B6 em leel
and mehlaion eiemen ae aociaed ih an aeage
eiemen fo B6 o mainain healh mehlaion and homoceine
leel
Mehlaion
Viamin B12
AVERAGE
NEED
INCREASED HIGH
Viamin B12 pla an impoan ole in homoceine meabolim.
Yo hae an aeage eiemen fo B12 o mainain healh
mehlaion and homoceine leel
Mehlaion
Riboain (B2)
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
Viamin B2 pla a pecial ole in abiliing he MTHFR gene fo
homoceine meabolim.
Yo genope i aociaed ih a highe han aeage eiemen
fo iboain o mainain healh mehlaion and homoceine leel
B2 i highe in lie, lamb, h, og and mhoom
35
Mehlaion
Choline and
Beaine
AVERAGE
NEED
INCREASED HIGH
Choline and beaine pla a ccial ole in homoceine meabolim,
epeciall fo hoe ih aian in MTHFR.
Yo genope i aociaed ih a highe han aeage eiemen
fo choline and beaine o mainain healh mehlaion and
homoceine leel
Lo choline inake can manife a memo ie, NAFLD, anie,
neological diode, bea cance, hiamine ie, gallbladde
ie, and SIBO
Choline ma be depleed b nighime pain eliee, anihiamine,
leep aid, anidepean, inconinence dg and nacoic pain
eliee
Inene endance eecie deplee choline leel, and inceaing
phophaidlcholine ha been fond o impoe eecie capaci
ding high-ineni ccling and nning, a ell a edce mcle
oene
Mehlaion
Snheic Folic
Acid
LESS RISK SLIGHT RISK HIGH RISK
Ceain genope in he folae meabolim paha can aec he
meabolim of nheic folic acid, leading o high ciclaing leel.
Yo genope combinaion ma impoe he meabolim of
nheic folic acid
36
HORMONE SUPPORT
37
Homone Sppo
Eogen
Deoicaion
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
Thee ae mliple gene in he eogen deoicaion paha ha hae a
cmlaie ale on he abili o popel deoif eogen.
Yo combinaion of nmeo genope in he eogen paha
ae aociaed ih edced eogen deoicaion
To edce he ik of hamfl eogen meabolie, o hold aoid
enoeogen, manage e leel, and foc on g healh
Inceaing pebioic be, polphenol, magneim and bidobaceia
ma impoe bea healh b edcing he amon and acii of
hamfl eogen meabolie
Homone Sppo
Poae
Poecion
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
Nmeo gene combinaion ae eied o deemine a cmlaie ale
of poae poecion.
Yo genope combinaion i aociaed ih edced poae
poecion
Impoe poae poecion ih elenim, iamin C, B1, B6, folae,
inc, magneim, healh ion leel, milk hile, hol bail, and
ccifeo egeable
Homone Sppo
Teoeone
Leel
LOW AVERAGE ABOVE
AVERAGE
A combinaion of genope hae been aociaed ih lo, aeage and
aboe aeage eoeone leel.
Yo genope combinaion i aociaed ih aboe aeage
baeline eoeone leel
Teoeone peak hogho pbe and conine o a in
opimal ange nil aond 40 ea old
Homone Sppo
Oidaie Se
and Feili
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
Peicide, cadmim, mec, and aenic hae all been hon o loe
GSTP1 epeion, inceaing he eleaion and oici of hee chemical
and hea meal. The epoe and eniii o hee chemical and
hea meal ae peced eaon fo he inceaed ik of male infeili
elaed o GSTP1 aian.
Yo genope i aociaed ih impoed pem poecion again
enionmenal pollion.
Homone Sppo
T3 and T4
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
T3 and T4 leel aiaion hae been aociaed ih aian in he DI01
gene.
Yo genope i aociaed ih nomal T3 and T4 leel
T3 and T4 can ill be o of ange baed on ohe epigeneic faco
38
Homone Sppo
Adiponecin
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
ADIPOQ encode fo adiponecin, a poein eceed b fa cell ha aec
inlin and glcoe meabolim. Lo leel of adiponecin pla a ole in
obei, inlin eiance and Tpe 2 diabee.
Yo genope i aociaed ih nomal adiponecin leel, hich
can inceae he eec of inlin, impoe glcoe meabolim and
ai a healh bod eigh
Homone Sppo
Ghelin
AVERAGE
PRIORITY
MEDIUM
PRIORITY
HIGH
PRIORITY
Vaian in gene elaed o ghelin leel and dopamine ecepo deni
hae been hon o ceae a lage appeie and he poenial fo oeeaing
in mliple poplaion.
Yo genope ae aociaed ih bodeline highe ghelin leel
ha cold lead o oeeaing and abdominal eigh gain
A foc hold be on a poein and be-ich beakfa,
mononaaed and polnaaed fa, 7-8 ho of leep pe
nigh, healh iamin D leel and aeobic eecie oe 1 ho o high
ineni eecie o abilie ghelin leel
39
CARDIOVASCULAR
HEALTH & EXERCISE
40
Cadioacla Healh
HDL and LDL
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
ApoE i conneced o HDL and LDL leel, hile PON1 i inoled ih
ppoing HDL fncion and LDL oidaion, an impoan mechanim in
aheocleoi and hea dieae.
Yo genope combinaion i aociaed ih a highe likelihood of
good HDL leel and a loe likelihood of highe leel of LDL, oidied
LDL, and oal choleeol
Cadioacla Healh
VLDL
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
Sbjec ih aian in PPAR-alpha hae been fond o hae a lage ai
cicmfeence and a highe popoion of mall, dene LDL paicle ie.
Yo genope i aociaed ih a highe popoion of mall, dene
LDL paicle ie if folloing a high aaed fa and lo
polnaaed fa die
Cadioacla Healh
Tiglceide
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
Vaian in he FADS1 SNP (174546) ae aociaed ih eleaed
iglceide leel.
Yo genope i aociaed ih eleaed iglceide
Nmeo die hae fond ha omega-3 fa acid adminieed
a h oil pplemen loe plama iglceide leel b 25% o
34%
Cadioacla Healh
ApoB
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
ApoB i a poein ha i inoled in he meabolim of lipid and i he main
poein conien of lipopoein. High leel of ApoB, epeciall ih he
highe LDL paicle concenaion, ae he pima die of aeial plae.
The PPAR-alpha polmophim ha been aociaed ih ApoB in man
poplaion ch a Cacaian, Indian, and Afican-Ameican.
Yo genope i aociaed ih eleaed ApoB leel
Loeing aaed fa inake and inceaing polnaaed fa
inake i ecommended
PPAR-alpha can be ageed ih aaanhin (high in ild almon),
peoilbene (blebeie, mlbeie, canbeie, a almond),
geniein (femened o), omaoe, cinnamon, inc, Lion Mane
mhoom, Gnoemma ea and L-caniine
Cadioacla Healh
Lp(a)
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
Lp(a )i a ick fom of LDL ha appea o aec plae goh, LDL
paicle ie and inceae he ik of plae pe and blood cloing.
Yo genope i no aociaed ih eleaed Lp(a) leel
41
Cadioacla Healh
Ra Plan Inake
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
The ik of hea aack and cadioacla dieae confeed b he 9p21
gene appea o be modied b a pden die high in a egeable and
fi fo Soh Aian, Lain Ameican, Aab, Chinee and Eopean
poplaion fo aian in 4977574.
Yo hae a highe han aeage eiemen fo a fi and
egeable o mainain a healh hea
Cadioacla Healh
Niic Oide
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
The ncopling of niic oide ha been linked o pla an eenial ole in
cadioacla pahologie inclding dilaed cadiomopah, ichemia-
epefion inj, endohelial dfncion, aheocleoi, and hpeenion.
Yo genope combinaion ae aociaed ih a highe han
aeage need fo folae o podce adeae BH4, he peco o
niic oide
BH4 i depleed b high blood ga, high omega-6 inake, chonic
e, high leel of mec, aenic, lead and alminm, apaame,
and oidaie e
Ohe aegie o inceae BH4 inclde iamin C, L-aginine, B6,
magneim, and elenim
Cadioacla Healh
Homoceine
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
Homoceine i a non-poein amino acid ha i podced fom mehionine,
can be eccled back ino mehionine and coneed ino ceine in he
mehlaion ccle. High homoceine leel hae been conneced o
depeion, blood clo, inammaion, macla degeneaion, demenia, and
cance.
Yo hae a highe han aeage need fo folae o mainain healh
homoceine leel
Cadioacla Healh
Blood Clo
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
Deep ein homboi i a condiion ha occ hen a blood clo fom in a
ein deep inide a pa of he bod and i mo common fo hoe oe 60.
Vaian in F5 inceae he ik of deep ein homboi.
Yo genope i no aociaed ih deep ein homboi
Cadioacla Healh
Uic Acid
AVERAGE MEDIUM
PRIORITY
HIGH
PRIORITY
Vaian in he ABCG2 gene hae been aociaed ih eleaed ic acid
leel and an inceaed ik of go in Aian, Eopean, Afican Ameican,
Meican Ameican, and Ameican Indian. Epidemiological die hae
hon ha ic leel ae poiiel coelaed ih go, hpeenion,
aheocleoi, aial billaion, and hea faile.
Yo genope i aociaed ih aeage ic acid leel
42
Cadioacla Healh
Hemochomaoi
LESS LIKELY SLIGHT RISK MORE LIKELY
A homogo HFE C282Y ma lead o an ion oeload de o inceaed
ion abopion and diped meabolim. Common HFE maion accon
fo moe han 90% of hemochomaoi phenope in hie of een
Eopean decen.
Yo ild-pe HFE genope i aociaed ih a edced likelihood
of geneicall linked hemochomaoi
43
Eecie
Poe Ahlee
Poenial
LOW MEDIUM HIGH
ACTN3 i cenl he mo pomiing gene fo pedicing he likelihood of
becoming an Olmpic leel pin and poe ahlee in male and female.
The RR (CC) genope epee he ACTN3 poein fond in Tpe II mcle
be, hich podce eploie and poefl conacion.
Yo hae he XX genope ha i aociaed ih edced poe and
hpeoph epone o eiance aining
The XX genope el in a complee lack of epeion of Į-
acinin-3 and Tpe II mcle be, occing in appoimael 20%
of he old' poplaion
Loe poe and hpeoph epone fom aining
Eecie
Weigh Lifing
Inammaion
LESS AVERAGE MORE
Weigh lifing lead o a aiaion in mcle inammao make baed on
geneic and ineni.
Yo genope combinaion i aociaed ih highe leel of mcle
inammaion (ceaine kinae) fo eigh lifing and ma dela
ecoe ime
To acceleae ecoe, ice bah, he poein, Ameican gineng,
ccmin, iamin C, and collagen poein hae all been fond o
aenae ceaine kinae leel
Eecie
Endance
Eecie
Inammaion
LESS AVERAGE MORE
Endance aining lead o a aiaion in ceaine kinae leel baed on
geneic.
Yo genope combinaion i aociaed ih highe leel of mcle
inammaion (ceaine kinae) fo endance eecie and ma dela
ecoe ime
To acceleae ecoe, he poein, cold ae immeion, Ameican
gineng, ccmin, opimal eoeone leel, iamin C and collagen
poein hae all been fond o aenae ceaine kinae leel
Eecie
High-Ineni
Eecie
Inammaion
LESS AVERAGE MORE
High-ineni eecie i dened a 70% o 85% of o maimm hea ae,
and inammaion aiaion ha been aociaed ih he SOD2 gene.
Yo SOD2 genope i aociaed ih le mcle inammaion in
epone o high-ineni eecie
Eecie
ACL and Sholde
Dilocaion Rik
LESS RISK AVERAGE HIGH RISK
The COL1A1 gene i aociaed ih ACL and holde inj ik.
Yo COL1A1 genope i aociaed ih an inceaed need fo
diea collagen o peen ACL and holde injie
Viamin C, inc, coppe, glcine, poline, line, and B6 ae all
peco o collagen podcion
44
Eecie
Ankle and
Haming Inj
Rik
LESS RISK AVERAGE HIGH RISK
The ACTN3 gene i linked o inceaed o deceaed ik of ankle and
haming injie.
Yo ACTN3 genope i aociaed ih an inceaed ik of ankle
and haming injie
Moe aenion i ecommended o enghen he ankle and
haming inclding he Nodic haming eecie and po-
oko ecoe mehod fo inj peenion
Eecie
Cold Endance
LESS AVERAGE MORE
The ACTN3 gene i aociaed ih a loe o highe adapaion ae o cold
endance.
Yo hae he ACTN3 XX genope, aociaed ih a highe
adapaion ae o cold endance
The X allele feenc coelae ih highe laide and loe
empeae, hoing a poible elecion fo cold oleance and
famine
Reeache fond ha he elecion of XX appea o be fo moe
faige-eian mcle ha geneae hea fom aciaion of
bon adipoe ie
Eecie
Caeine Repone
fo Eecie Unde
1 Ho
LOW NO RESPONSE HIGH
The CYP1A2 gene i aociaed ih caeine epone fo impoing o
deceaing eecie pefomance.
Caeine a no fond o impoe o deceae eecie pefomance
fo o CYP1A2 genope
Eecie
Caeine Repone
fo Eecie Oe 1
Ho
LOW NO RESPONSE HIGH
The CYP1A2 gene i aociaed ih caeine epone fo impoing o
deceaing eecie pefomance.
Caeine a no fond o impoe o deceae eecie pefomance
fo o CYP1A2 genope
45
STRENGTHS
This section is a thorough overview of your individual gene function across the entire analysis in just a few pages. If you are looking for a
brief summary of the most important parts of your report without doing a deep dive into the genotype tables and clinical research
sections, this is the place to start. Be proud of your inherent genetic strengths!
DIGESTION
Prebiotics, Probiotics and B12-FUT2 - The GG FUT2 genotype in European, African, and Indian populations is associated
with improved bifidobacteria populations in the gut compared to the AA genotype, increasing immune function against
respiratory infections.
Vitamin C-SLC23A1 - Your genotype is associated with improved whole-body vitamin C homeostasis through dietary
absorption and renal reabsorption.
Iron - Your genotype is associated with a lower risk of iron overload for the HFE C282Y gene. However, a heterozygous
HFE C282Y and HFE H63D gene could change this result.
Saturated Fat-PPAR-alpha - You have the wild-type genotype that is associated with improved saturated fat metabolism
and ketone body production during fasting. Assess your other fat metabolism genes for a more complete assessment.
Ghrelin and Appetite-FTO - Your genotype is associated with normal ghrelin levels (hunger hormone), decreasing the risk
for overeating and abdominal weight gain.
Saturated Fat-APOA2 - Your genotype is associated with a reduced likelihood of saturated fats causing weight gain.
Carbohydrates-TCF7L2 - Your genotype is associated with an improved insulin response for grain-based carbohydrates.
Lactose - You have the homozygous AA genotype that is associated with a lower probability of lactose intolerance.
Uric Acid-ABCG2 - Your genotype is associated with a lower probability of chronically elevated uric acid levels.
Ethanol Metabolism-ALDH2 - Your genotype is less likely to experience facial flushing from alcohol due to improved
acetaldehyde metabolism.
METHYLATION
Folate-MTHFD1 G1958A - Your genotype is associated with improved metabolism for folinic acid, the second most
common type of folate after methylfolate.
Folate-DHFR - Your genotype is associated with an improved breakdown of synthetic folic acid at the beginning of the
folate cycle. However, variants in MTHFR 677 can also affect folic acid metabolism.
B12, B2 and Zinc-MTR - You may have improved MTR function, assisting homocysteine metabolism.
B12-MTRR - Your genotype is associated with improved gene function, assisting B12 and homocysteine metabolism.
Magnesium-MAT1 - If you are male, your genotype is associated with improved MAT1 gene function, assisting normal
SAMe levels for healthy glutathione levels, joint and low back pain, a balanced mood, and liver detoxification.
Choline-PEMT - Your genotype is associated with improved phosphatidylcholine production for a healthy liver, and to
assist normal homocysteine levels.
Arsenic-CBS - Your genotypes are associated with improved arsenic metabolism and detoxification for the CBS genes.
46
HORMONES
Testosterone-Men - If you are male, your genotype is associated with improved total and free testosterone levels for the
SHBG rs6258 gene.
Thyroid-DI01 - Your genotype is associated with improved DI01 gene function for T3 and T4 thyroid function, however
other epigenetic factors should be assessed.
Thyroid-DI02 - Your genotype is associated with improved T3 and T4 thyroid function in the brain for the DI02 gene.
Estrogen Metabolism-CYP1A1 - Your CYP1A1 wild-type genotype is improved for the beginning phase of estrogen
metabolism. Please review all genes involved in estrogen metabolism for a complete picture of the process.
Estrogen Metabolism-COMT - For estrogen metabolism and detoxification, those with the fast GG COMT V158M
genotype may have a reduction in harmful estrogen metabolites that can cause DNA damage. However, you may need a
higher green tea polyphenol intake to obtain the same benefits as the other COMT genotypes due to a faster metabolic
rate.
Estrobolome-FUT2 - Your wild-type genotype is associated with improved bifidobacteria gut bacteria, assisting the gut
phase of estrogen detoxification.
NEUROTRANSMITTERS
Serotonin Receptor-Memory - You have the wild-type genotype that is associated with an improved episodic memory,
which is the ability to recall details regarding personal experiences, names of people, specific events, and what exactly
occurred.
Dopamine, Adrenaline and Estrogen-COMT - The wild-type GG V158M genotype is associated with an improved
breakdown of dopamine, adrenaline, and estrogen in response to pressure. The benefits to your genotype may be a
calmer response to high-pressure situations and the ability to be more emotionally resilient in a crisis. Research has also
found that your genotype had a higher threshold of pain and scored higher on social facilitation and cooperativeness.
Histamines and Migraines-DAO - The wild-type CC genotype for DAO rs1049793 is associated with a reduced risk of
histamine-induced migraine headaches.
Brain Health-PEMT - Your genotype is associated with improved phosphatidylcholine levels for memory, anxiety, and
REM sleep.
Glutamate-BDNF - Your genotype is associated with improved glutamate modulation, brain repair, spatial learning,
memory, and adaptability.
Cholesterol-APOE - You have the ApoE e2/e3 genotype, improving cholesterol transport and the maintenance of brain
neurons. The ApoE e2 allele is more protective against cognitive decline, heart disease, and is associated with a greater
probability for longevity.
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ANTIOXIDANTS AND INFLAMMATION
Cell Protection-CAT - Your genotype is associated with improved catalase levels, mitigating damage to your cells.
Glutathione-GSTM1 - You have the AG genotype that is associated with improved detoxification of benzo(a)pyrene from
the burning of wood or trash, tobacco smoke, asphalt, coal, diesel exhaust, and charred meat. Your NAT2 genotype may
increase or decrease this ability.
Glutathione-GSTP1 - While the heterozygous AG genotype for GSTP1 rs1695 is associated with a higher sensitivity to
heavy metals, one advantage may be an increased VO2 max response from endurance training compared to the wild-
type genotype.
Heavy Metals-GSTP1 - You have the wild-type CC genotype for GSTP1 rs1138272 that is associated with improved
glutathione antioxidant protection against heavy metals, pesticides, and air pollution for colon, prostate, lung, throat, and
fertility health. Your GSTP1 rs1695 genotype may increase or decrease this effect.
Glutathione-CTH - Your genotype is associated with improved gene function, leading to adequate cysteine for
glutathione production.
Nitric Oxide-NOS2 - Your NOS2A gene is functioning optimally for reducing the probability of age-related macular
degeneration from cigarette smoke.
Eye Health-ARMS2 - Your genotype is associated with a lower sensitivity to the negative effects of smoking on eye
health.
DETOXIFICATION
Liver Enzyme-CYP1A1 - Your genotype is associated with improved detoxification of benzopyrene from cigarette smoke
and will assist the function of your GSTM1 gene.
Liver Enzyme-THC and CYP2C9 - You have the wild-type genotype that is associated with improved metabolism of THC,
the active psychoactive compound in cannabis.
Liver Enzyme-CYP3A4 - Your genotype is associated with normal metabolism of certain drugs that use this enzyme. We
recommend further pharmacogenomic testing with your doctor for more information regarding CYP3A4.
DNA DAMAGE, PROTECTION AND REPAIR
DNA Repair-MDM2 - Your MDM2 genotype is associated with improved DNA repair for sun damage if you are female.
DNA Repair-MLH1 - Your genotype is associated with improved DNA repair for colon, endometrium, lung, and brain
protection.
Processed Meat and Colon Cancer-GATA3 - You have the wild-type genotype that is associated with a reduced risk of
processed meat consumption and colon cancer.
Longevity-SIRT1 - Your SIRT1 genotype is associated with normal SIRT1 activity for longevity. While not a weakness,
you may want to increase SIRT1 activity epigenetically to increase the probability of longevity, especially if you have the
APOE-e4 allele. A sedentary lifestyle, aging, poor diet, and obesity lowers SIRT1 activity. Exercise, fasting, 7-8 hours of
sleep per night, saunas, polyphenols, vitamin D, omega-3 fatty acids, resveratrol, magnesium, and melatonin have all
been found to increase SIRT1 activity.
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CARDIOVASCULAR HEALTH AND ATHLETIC PERFORMANCE
Power and Recovery-ACTN3 - You have the RR genotype, associated with more Type II fast-twitch muscle fibers, an
enhanced response to strength training and muscle hypertrophy, potential improved protection from eccentric training-
induced muscle damage, improved training adaptation, reduced risk of sports injury, and reduced frailty risk later in life.
Lung Cytokines-TNFA - If you have Asian ancestry, your genotype is associated with improved TNF-a gene function for
lower inflammation in the lungs.
Pesticides, HDL and LDL-PON1 - You have the wild-type genotype associated with improved PON1 activity for pesticide
detoxification and protection against LDL oxidation.
LDL-LPA - Your genotype is associated with healthy Lp(a) levels, a sticky form of LDL that affects plaque levels.
Fibrinogen-ESR2 - Your genotype is associated with improved fibrinogen levels.
Blood Clots-F5 - Your genotype is associated with improved gene function for a lower probability of deep vein
thrombosis.
Stress-ADRB2 - You have the wild-type GG genotype for ADRB2 rs1042713 that is associated with a lower inflammatory
response on the heart from chronic stress.
Blood Pressure-ACE1 - Your genotype is associated with intermediate baseline ACE levels. If you are female, ACE levels
may be lower. Depending on ACE2 levels, you may have a more balanced renin-angiotensin system for blood pressure.
Blood Pressure-ACE2 - Your genotype is associated with higher baseline ACE2, improving the balance between ACE1
and ACE2 for blood pressure, and potentially lowering the risk of COVID-19 severity. Other dietary habits and health
issues could affect this result.
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Genes are not your destiny - they are your blueprint. Please understand that these weaknesses can be turned into strengths based on the
personalized recommendations given below. Making strategic changes to diet, environment, stressors, and even relationships can have a
profound effect on optimizing gene function. Aim to turn every weakness into a strength by giving attention to the proactive, customized
dietary and lifestyle modification recommendations in this section!
DIGESTION
Beta Carotene to Vitamin A Conversion Rate-BCMO1 - Your BCMO1 genotype combination is associated with a reduced
conversion rate of plant-based beta carotene (squash, sweet potatoes, carrots) to vitamin A. This increases your need for
foods higher in vitamin A like eggs, cod liver oil, wild salmon oil and organ meats for skin, digestion, healthy eyes, lungs,
and immunity.
ALA to EPA and DHA Conversion-FADS2 - Your genotype is associated with a reduced conversion of plant-based
omega-3 ALA (walnuts, flax seeds, and pumpkin seeds) to EPA and DHA. Increased EPA and DHA intake may be
needed.
Prebiotics, Probiotics and B12-FUT2 - The rs601338 FUT2 GG genotype has been associated with lower B12 levels in
European, Indian and African populations.
B6-NBPF3 - You are more likely to have low B6 levels due to variants in the NBPF3 gene, increasing the sensitivity to
medications that deplete B6 (oral contraceptives, antibiotics, ACE inhibitors, antacids, proton pump inhibitors and more).
You need to focus on increasing foods high in B6 like wild salmon, pistachios, avocados and potatoes.
Adiponectin-ADIPOQ - Your genotype is associated with lower adiponectin levels, linked to a higher probability of insulin
resistance with higher red meat consumption. Strategies to increase adiponectin include coffee, omega-3 fatty acids,
blueberries, almonds, strawberries, rose hip tea, chili peppers, ginger and turmeric.
Fat Metabolism-ACSL1 - Your genotype is associated with higher fasting glucose levels from a higher saturated fat
intake. If your fasting glucose is high and you have variants in the other fat metabolism genes, fatty red meat and dairy
should be reduced and more focus should be on monounsaturated and polyunsaturated fats.
Histamines-APB1 - You have the heterozygous TC genotype that is associated with intermediate histamine breakdown in
the digestive tract. While not as impactful as the homozygous genotype, histamine sensitivity could still occur.
METHYLATION
Folate-MTHFR 677 - You have the heterozygous genotype that is associated with a reduced function of approximately
30%. This increases the need for riboflavin and methylfolate for normal homocysteine levels.
Folate-MTHFR 1298 - You have the heterozygous genotype that is associated with a reduced function of approximately
20%. If you have a heterozygous MTHFR 1298 and a heterozygous MTHFR 677, you have a higher need for folate to
maintain healthy homocysteine levels.
B6-CBS - Your genotype is associated with reduced CBS gene function for homocysteine levels, gut repair, and brain
health, increasing your need for B6.
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HORMONES
Sex Hormone Binding Globulin - If you are female, your genotype is associated with a sensitivity to oral contraceptives
and hormone replacement therapy in relation to sex hormone binding globulin (SHBG) levels for healthy hormone levels.
If you are male, higher SHBG levels could affect bone mineral density and SHBG may need to be tested. However,
variants may also positively lead to higher testosterone levels.
Vitamin D-CYP2R1 - Your genotype is associated with low circulating vitamin D levels that can affect immunity, breast
health in women, and testosterone levels in men. Check your vitamin D levels and make sure you are in range.
Estrogen Metabolism-CYP2C19 - Individuals with the CC genotype for CYP2C19*17 are considered the normal
metabolizer phenotype, which may lack the estrogen metabolism benefits of the ultra-rapid metabolizer phenotype.
Please review all genes involved in estrogen metabolism for a complete picture of the process.
Estrogen Metabolism-CYP1A2 - For men and women with the CYP1A2 AC intermediate caffeine metabolism genotype,
coffee intake was found to be less protective for breast and prostate health compared to the AA fast metabolizer.
NEUROTRANSMITTERS
Serotonin Receptor-Stress - The homozygous genotype has been associated with a reduced ability to regulate chronic
stress. This may be more pronounced in females with variants in BDNF. Chronic stress may increase the susceptibility to
anxiety, depression, OCD, and IBS. To mitigate perceived and chronic stress, you may require more aerobic exercise,
cognitive behavioral therapy, mindfulness training, meditation, yoga, singing, prebiotics, lactobacillus helveticus,
bifidobacterium longum, tryptophan, green tea, and B-vitamins.
Dopamine, Adrenaline and Estrogen-COMT - The wild-type GG COMT V158M genotype is associated with a negative
effect on executive function, problem-solving abilities, and mood due to lower dopamine concentrations, especially when
combined with variants in the ANKK1 gene. Increasing dietary catecholamines (coffee, green tea, black tea, cacao,
bananas, citrus, berries) and exercise or a job with an element of pressure and risk may increase dopamine
concentrations. This may be more relevant in men due to estrogen's influence on COMT.
Dopamine Receptors-ANKK1 - Your genotype is associated with a lower density of dopamine receptors, reducing
dopamine targets within the striatum of the brain known for rewarding feedback. Lower dopamine targets could lead to
a higher likelihood of addictive behaviors, compulsive eating, and ADHD. Getting 8 hours of sleep per night, keeping your
blood sugar balanced with adequate protein and fiber, high-intensity exercise, lower media exposure, vitamin D,
omega-3’s, and meditation all increase dopamine receptor density.
Anandamide-FAAH - You have the common CC genotype that encodes for the fast activity of FAAH. This is associated
with naturally lower anandamide levels that could increase anxiety, pain, pesticide sensitivity and a heightened stress
response to threatening situations. You may benefit from aerobic exercise over 30 minutes (especially in altitude), CBD
oil, red clover tea (women), kaempferol (raspberries, capers, cumin, cloves, almonds, cherry tomatoes, red wine), cacao,
echinacea, rosemary, and hops to increase anandamide levels.
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ANTIOXIDANTS AND INFLAMMATION
Cell Protection-SOD2 - You have the heterozygous AG genotype for SOD2. Your mitochondria (powerhouse of the cell)
may have a higher sensitivity to glyphosate, fluoridated water, chronic stress, poor sleep, and shallow breathing.
Increase foods that contain manganese, lycopene, and vitamin C, milk thistle, mushrooms like reishi and cordyceps, and
exercise that encourages deep breathing.
Glutathione-GSTP1 - You have the heterozygous AG genotype for GSTP1 rs1695 that is associated with a higher
sensitivity to mercury, cadmium, arsenic, pesticides, and air pollution for breast, prostate, urinary, esophagus, and skin
health. Your GSTP1 rs1138272 genotype may increase or decrease this sensitivity. Selenium, vitamin C, milk thistle, and
cruciferous vegetables all assist GSTP1 gene function; however, supplemental vitamin E as alpha-tocopherol may be
inflammatory.
Glutathione-GPX1 - Your genotype is associated with a higher need for selenium to combat oxidative stress and less
tolerance to heat stress. Lower glutathione peroxidase increases the sensitivity to oxidative stress from low or high iron
levels, statin drugs, thyroid damage, sun damage, and dietary or environmental lead exposure. Selenium, cold exposure,
optimizing testosterone levels in men and estrogen in women, and adequate vitamin C, vitamin E, milk thistle, ginger,
cumin, anise, fennel, caraway, and cardamom intake are all ways to assist GPX1.
Nitric Oxide-NOS1 - Your genotype is associated with a higher recommended intake of red, orange, and yellow
vegetables (carrots, tomatoes, squash, corn, orange peppers, red peppers, yellow peppers, pumpkin, red beets, red
onions, yellow beets, and sweet potatoes) to modulate the inflammatory process for NOS1.
DETOXIFICATION
Liver Enzyme-CYP1A2 - You have the AC genotype for CYP1A2 that is associated with an increased sensitivity to
heterocyclic amines (fried meat) when combined with the homozygous GSTM1 null genotype or slow acetylator NAT2
genotype. Marinades, unfiltered fermented drinks (Kombucha, beer, wine), cruciferous vegetables, parsley, and spinach
have all been found to reduce the carcinogenic effect of heterocyclic amines.
Liver Enzyme-CYP1B1 - You have the GG genotype that is associated with reduced detoxification of polycyclic aromatic
hydrocarbons (highest in vegetable oils), oral contraceptives, cigarette smoke, an increased sensitivity to excessive sun
exposure, and high-dose biotin supplementation. You can assist CYP1B1 with seaweed, celery, berries, rooibos tea, red
wine, and dark roast coffee.
Liver Enzyme-CYP2D6 - Your genotype is associated with reduced clearance of certain drugs associated with CYP2D6
rs1065852. However, more CYP2D6 SNPs are needed for a complete panel. Please talk to your doctor about further
testing for CYP2D6 and drug metabolism.
Aromatic Amines-NAT2 - You have the slow acetylator genotype for the NAT2 gene. This is associated with reduced
detoxification of aromatic amines found in tobacco smoke, commercial hair dyes, industrial and manufacturing plants,
charred meat, and diesel exhaust for bladder, prostate and breast health. Cruciferous vegetables, carotenoids, and
vitamin C all assist NAT2 detoxification.
Statins-COQ2 - Your genotype is associated with a higher likelihood of statin drug-induced muscle pain.
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DNA DAMAGE, PROTECTION AND REPAIR
DNA Repair-ATM - Your genotype is associated with a higher need for folate to improve DNA repair in relation to
pancreatic and breast (females) health.
Prostate-ESR2 - For men with the ESR2 rs2987983 homozygous GG genotype, your genotype is associated with an
increased need for foods high in apigenin (celery, parsley), phytoestrogens (berries, beans, sourdough bread), milk
thistle, and iodine (sea vegetables) for prostate health. All genes related to prostate health should be analyzed to better
determine the cumulative value for prostate protection.
Breast-ESR2 - For women with the GG ESR2 rs2987983 genotype, your genotype is associated with reduced tumor
suppression function for breast health. An increase in phytoestrogens including flax seeds, fermented soy for Asian
women, milk thistle, and iodine (sea vegetables) may improve ESR2 gene function and tumor suppression activity. All
genes related to breast health should be analyzed to better determine the cumulative value for breast protection.
DNA Repair-TP53 - You have the homozygous CC genotype that may be advantageous for fertility in cold climates, but
also increases the need for selenium, zinc, vitamin C, reishi, and niacin for DNA repair against chemical toxicity to the
thyroid gland and skin.
CARDIOVASCULAR HEALTH AND ATHLETIC PERFORMANCE
Power and Recovery-ACTN3 - The RR genotype may be less beneficial for cold adaptation.
VO2 Max-PPARGC1A - Your genotype is associated with a higher need for more strategies to increase oxygen capacity
for aerobic exercise, including a structured endurance program, cold exposure, and adaptogens. Your genotype in the
GSTP1 rs1695 gene can also influence this result.
Muscle Recovery-IL6 - You have the CG genotype that is associated with higher levels of creatine kinase - a marker of
muscle damage - from workouts. To accelerate recovery, whey protein, cold water immersion, American ginseng,
curcumin, allicin, optimal testosterone levels, vitamin C, and collagen protein have all been found to attenuate creatine
kinase levels.
Muscle Injury-COL1A1 - You have the wild-type CC genotype that is associated with an increased need for dietary
collagen for healthy skin, tendons, corneas, lungs, and bones. Vitamin C, zinc, copper, glycine, proline, lysine, and B6 are
all precursors to collagen production.
Raw Fruit and Vegetable Intake-9p21 - You have the homozygous genotype that is associated with an increased need
for phytonutrients from a higher raw fruit and vegetable intake for a healthy heart.
Triglycerides-FADS1 - Your genotype is associated with a higher need for EPA and DHA omega-3 fatty acids to maintain
healthy triglyceride levels.
Potassium and Magnesium-ADD1 - If you have Asian ancestry, your genotype is associated with an increased risk of a
higher sodium intake causing elevated blood pressure. Increasing potassium, vitamin D, magnesium, calcium, garlic, and
omega-3's all lower blood pressure.
Phytoestrogens-TMPRSS2 - You have the GG genotype that is associated with a higher expression of the TMPRSS2
gene and could increase the susceptibility to viral infections and prostate issues (men). To decrease TMPRSS2
expression, increase your intake of phytoestrogens, curcumin, and lycopene.
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YOUR PERSONALIZED DNA-BASED GROCERY LIST
This section of the report represents the most expansive, actionable summary of what you can do, right now, to dramatically up-regulate
gene function, building a happier, healthier you! No technical expertise is required - just make these recommendations non-negotiable
when you visit the grocery store.
Your grocery list is generated based on a combination of unique gene variants that require an increased intake of the following vitamins,
minerals, phytonutrients, amino acids, fiber and more. This list generates the foods and drinks based on the highest levels for each section
and does not take into account any food allergies or sensitivities.
B12 Seafood, meat, dairy (if consuming dairy) and unfiltered fermented drinks
B2 Lamb, salmon, yogurt, liver and oyster mushrooms
B6
Wild salmon, yellowfin tuna, liver, chicken breast, unfiltered fermented drinks,
pistachios, avocado, sweet potatoes, and spinach
Beta-Carotene Sweet potatoes, carrots, spinach, squash, cantaloupe, and broccoli
Boron Prunes, avocados, raisins, peaches, apples, pears, and peanut butter
Folate
Collard greens, beets, black-eyed peas, raw spinach, asparagus, hummus, broccoli,
romaine lettuce, parsley, liver, strawberries, oranges, and sprouted lentils
Glycine Broth, collagen powder, meat with the skin, ribs, shanks, drumsticks, and baobob
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Lycopene Tomato sauce, whole tomatoes, guava, and watermelon
Manganese
Mussels, wild blueberries, hazelnuts, pecans, oysters, clams, hummus, spinach, and
cultivated blueberries
Niacin
Yellowfin tuna, canned tuna, wild salmon, ground turkey, chicken breast, liver, skirt
steak, white button mushrooms, and brown rice
Omega-3's Seafood and pastured eggs
Phytoestrogens
Dark berries, beans, sourdough bread, hummus, peanuts, miso soup, flax seeds
(women), tahini sauce, and cruciferous vegetables (broccoli, cabbage, kale, Brussels
sprouts)
Polyphenols
Coffee, green tea, kombucha, blueberries, strawberries, raspberries, blackberries,
and cacao
Potassium
Wild salmon, avocados, potatoes, acorn squash, coconut water, sweet potato,
spinach, tomato sauce, and bananas
Selenium
Oysters, pork chops, beef, chicken breast, shrimp, eggs, shiitake mushrooms, and
whole grain sourdough bread
Vitamin A Liver, pastured eggs, cod liver oil, wild salmon oil, eel, and sockeye salmon
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Vitamin D Sockeye salmon, cod liver oil, canned tuna, wild herring, and sardines
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PERSONALIZED BLOOD WORK
These results are generated based on a combination of gene variants unique to you. These biomarkers may not be out of range based on
your diet and lifestyle habits, but they may be the ones for you to monitor to ensure you are making the right choices based on your
genetic results (your predispositions).
For example, if vitamin D comes up in this section, it does not mean that your current levels of vitamin D are actually low. What we are
saying is that based on a variety of genetic factors, your variants could make it more difficult to obtain recommended levels of circulating
vitamin D, so it might be prudent to further monitor to ensure that you are taking the necessary steps to turn genetic weaknesses into
strengths and maintain correct levels.
Adiponectin Check for low levels of adiponectin
B12
If poor B12 status is suspected, methylmalonic acid (MMA) levels may be needed to
accurately assess B12 status, absorption, and requirements
B6 B6 levels may need to be tested
Fasting Glucose and HbA1C Check both fasting glucose and HbA1C
Homocysteine Homocysteine should be between 7-9
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HORMONE SUPPORT
Sex Hormone Binding Globulin
Below is a summary of your most significant variant genotypes:
GENE GENOTYPE
SHBG rs12150660 Heterozygous TG
SHBG rs1799941 Heterozygous AG
Recap
Improves SHBG Gene Function for Women: SHBG levels that are too low will
benefit from a high-fiber, low-fat diet, coffee, no sugar, and exercise 3-5 times a
week. SHBG levels that are too high may be caused from SHBG variants combined
with estrogen therapy (oral contraceptive or hormone replacement therapy).
Improves SHBG Gene Function and Testosterone for Men: Magnesium, zinc, vitamin
D, fish or fish oil, boron, adequate protein and a higher healthy fat intake (if
testosterone is low and other fat genes are working optimally).
Decreases SHBG Gene Function for Men and Women: Anorexia, fatty liver, obesity,
Type 2 diabetes, high fructose corn syrup, agave and crystalline fructose.
SEX HORMONE BINDING GLOBULIN
Research Women: Sex Hormone Binding Globulin (SHBG) is synthesized in the liver, and in the blood it transports and
regulates the access of sex steroids to their target tissues. Serum levels of SHBG are influenced by hormonal as well as
nutritional and metabolic status.
In a study of Italian women free of diabetes, serum SHBG levels showed a U-shaped trajectory with age, declining from age 20
to age 60, and increasing after the age 60 progressively after each decade. These changes mirror the age-related changes in
BMI and fasting insulin, suggesting that BMI and insulin negatively influence SHBG concentration.
The SHBG levels in AA homozygotes for rs1799941 were 39% higher than in GG homozygotes in post-menopausal women.
Subjects with the A allele (GA+AA) for rs1799941 had a trend for lower free estradiol index compared to the GG genotype.
They also had a significantly lower bone mineral density (BMD) at the intertrochanter of the hip and trend for lower BMD at the
total hip.
Changes in SHBG concentration will also affect the levels of bioavailable testosterone in women. Elevations in estradiol (as
occurs during pregnancy), oral contraceptives, hormone therapy, anorexia and hyperthyroidism cause a marked increase in
SHBG levels with a subsequent decrease in serum free testosterone levels. Levels of SHBG that are too high could affect
mood, lean muscle mass, bone strength and sex drive.
Hypothyroidism, Type 2 diabetes, fatty liver and obesity are associated with SHBG levels that are too low, and therefore very
low SHBG can be a biomarker for these disorders. A low-fat and high-fiber diet alone or combined with exercise reduces
insulin, BMI levels and increases SHBG levels.
Research Men: Sex Hormone Binding Globulin (SHBG) is synthesized in the liver, and in the blood it transports and regulates
the access of sex steroids to their target tissues. Serum levels of SHBG are influenced by hormonal as well as nutritional and
metabolic status. In men, SHBG levels increase with age as testosterone levels decline.
Only a small fraction of the total testosterone - from 1% to 2% - is free in the blood and biologically active. About 40% to 70%
of total testosterone travels around with SHBG and may not available to your cells. This means a large part of total
testosterone may not be biologically active and available to your cells if SHBG is too high even though your testosterone is in a
healthy range.
One study showed that serum SHBG concentration is increased in middle-aged men with primary or secondary osteoporosis
and is correlated with bone remodeling markers, hip bone mineral density, and vertebral fracture risk. Serum SHBG level was
significantly higher (+42.2%), whereas free androgen index was lower (-24.8%) in patients with primary or secondary
58
osteoporosis. Testosterone and estradiol levels did not correlate with any bone resorption or bone formation markers for men.
Another study found that osteoporotic Chinese men had lower free testosterone (FT) and higher levels of SHBG.
You can also go too far in the other direction. A study of men in the U.S indicated that men with lower concentrations of total
testosterone and SHBG had a higher likelihood of having metabolic syndrome than those with higher concentrations.
The associations of rs12150660 and rs6258 were confirmed in the three replication cohorts showing that men with the GT and
TT genotype for rs12150660 had higher levels of testosterone, free testosterone, and SHBG, while the TC genotype for rs6258
had lower testosterone, calculated free testosterone and SHBG compared to the wild-type CC genotype. Not enough subjects
had the homozygous TT genotype to produce data.
The rs6258 SHBG gene was found to substantially affect SHBG binding affinity by lowering free testosterone levels. The
lowest testosterone levels were found in those with the GG genotype of rs1210660 and the TC or TT genotype of rs6258.
Therefore variants in rs12150660 may benefit free testosterone levels even though SHBG is higher, however this may depends
on your rs6258 genotype.
Another study found that individuals with the AA genotype for rs1799941 were associated with decreased sperm motility
compared to GG genotypes. Research has found that vitamin C supplementation might improve sperm count, sperm motility,
and sperm morphology.
Vitamin D-CYP2R1
Below is a summary of your most significant variant genotypes:
GENE GENOTYPE
CYP2R1 rs10741657 Heterozygous AG
Recap
Improves CYP2R1 Gene Function: Sun exposure, adequate vitamin D intake and
vitamin D co-factors.
Decreases CYP2R1 Gene Function: Lack of sun exposure, high fructose intake and
lack of vitamin D co-factors.
VITAMIN D-CYP2R1
Research: Studies confirm that CYP2R1 is the principal 25-hydroxylase in humans and demonstrates that CYP2R1 alleles have
dosage-dependent effects on vitamin D homeostasis.
A 2018 meta-analysis of sixteen articles with a total of 52,417 participants was reviewed for rs10741657. The GG genotype
was associated with a clear descending trend of 25(OH)D levels when compared with the AA genotype in Caucasian and Asian
populations.
Research has shown that oral administration of vitamin D led to negligible increases in serum 25-hydroxy-vitamin D for
homozygotes, and significantly lower increases in serum 25-hydroxy-vitamin D in heterozygous subjects than in control
subjects. The heterozygous effect may only be relevant in Caucasian populations.
Vitamin D can influence the expression of more than 1,000 genes and vitamin D deficiency has been linked to fatty liver,
seizures, infertility, osteoporosis, cancer, autism (mother deficient), depression, heart attacks, Alzheimer's, dementia, high
blood pressure, low testosterone in men, autoimmune disorders and more.
The literature is mixed on optimal vitamin D levels, which most likely vary based on your heritage, skin color and current health
issues. The most well documented cause of Vitamin D deficiency is inadequate sunlight exposure such as high latitude
countries. Paradoxically, despite its high sunlight hours, vitamin D deficiency is well recognized in Middle Eastern women, inner
city young adults in America, athletes and dancers in Israel, elite gymnasts in Australia, young Hawaiian surfers, and adolescent
girls in England.
For athletes, vitamin D deficiency has long been associated with muscle weakness and suboptimal muscle function. A positive
59
relationship between serum vitamin D level and jump height, jump velocity and power was found in young women.
Clinical vitamin D deficiency is below 20 ng/ml. There is little evidence to prove there is a benefit for levels above 50 ng/ml. The
latest cancer research has found that women with 25(OH)D concentrations greater than 40 ng/ml had a 67% lower risk of
cancer than women with concentrations less than 20 ng/ml. Pesticides have been linked to suppressing vitamin D levels and
creating a vitamin D deficiency. Your PON1 gene function should also be assessed.
Research has found that sunlight is the optimal way to optimize vitamin D levels along with exercise, vitamin D rich foods and
vitamin D cofactors, however supplementation may be necessary.
Gene & Gene Function Gene Rsid Wild Type Heterozygous Homozygous
SHBG
Sex Hormone Binding Globulin
(SHBG) is synthesized in the liver,
and in the blood it transports and
regulates the access of sex
steroids to their target tissues.
SHBG-rs12150660 TG
SHBG-rs1799941 AG
SHBG
Sex Hormone Binding Globulin
(SHBG) is synthesized in the liver,
and in the blood it transports and
regulates the access of sex
steroids to their target tissues.
Variants in this gene have been
shown to lead to lower
testosterone, calculated free
testosterone and SHBG in men.
SHBG-rs6258 CC
DI01
DI01 is connected to thyroid
health and is responsible for the
deiodination of T4 into T3.
DI01-rs2235544 AC
DI02
DI02 is connected to thyroid
health and is responsible for the
deiodination of T4 into T3. D2 is
the only activating deiodinase in
the brain.
DI02-rs225014 TT
CYP2R1
Vitamin D is technically a
hormone, and CYP2R1 is
connected to circulating vitamin
D levels.
CYP2R1-
rs10741657
AG
CYP1A1
CYP1A1 is in the estrogen
metabolism pathway along with
CYP1B1, CYP1A2, CYP31A,
SULT’s and COMT.
CYP1A1-rs1048943 TT
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Gene & Gene Function Gene Rsid Wild Type Heterozygous Homozygous
CYP2C19*17
Genetic variability impacts
expression and activity of
CYP2C19 and therefore can
influence drug metabolism and
catabolism of estrogens.
CYP2C19*17-
rs12248560
CC
CYP1A2
CYP1A2 is a key enzyme in
caffeine metabolism and the 2-
hydroxylation of the main
estrogens, estrone, and estradiol.
CYP1A2-rs762551 AC
COMT
COMT is involved in
catecholamine, dopamine,
adrenaline, and estrogen
metabolism through the
inactivation of the catechol
estrogens.
COMT-rs4680 GG
FUT2
The FUT2 gene controls prebiotic
production, B12 absorption, and
how much bifidobacteria you
carry in your digestive tract.
FUT2-rs601338 GG
FUT2
The FUT2 gene controls prebiotic
production, B12 absorption, and
how much bifidobacteria you
carry in your digestive tract. The
FUT2 gene rs1047781 (A385T)
has been shown to be a potential
functional variant associated with
vitamin B12 status and a major
FUT2 secretor defining SNP in
East Asians.
FUT2-rs1047781 AA
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MACRONUTRIENT METABOLISM
Beta Carotene to Vitamin A Conversion Rate-BCMO1
Below is a summary of your most significant variant genotypes:
GENE GENOTYPE
BCMO1 A379V rs7501331 Wild Type CC
BCMO1 R267S
rs12934922
Heterozygous AT
Recap
Improves BCMO1 Gene Function: Vitamin A in the form of retinol and zinc.
Decreases BCMO1 Gene Function: Relying on beta-carotene for vitamin A
requirements.
BETA CAROTENE TO VITAMIN A CONVERSION RATE-BCMO1
Research: If you are heterozygous or homozygous for BCMO1 A379V or BCMO1 RS267S, you have a reduced conversion of
beta-carotene to vitamin A. If you have a heterozygous or homozygous BCMO1 RS267S and BCMO1 RS267S, the reduction is
even more dramatic. Many nutrition labels will have beta-carotene listed as vitamin A, however this is not true vitamin A.
The normal conversion for beta-carotene (carrots, sweet potatoes) to retinol is 1:6 and 1:12 for other carotenoids. Female
volunteers carrying the T variant of rs7501331 (379V) had a 32% lower ability to convert beta-carotene, and those carrying at
least one T in both SNPs (379V and R267S) show a 69% lower ability to convert beta-carotene into retinol.
In a cohort study of 48,400 US men and 75,170 US women, during a follow-up period of more than 26 years, a higher total
vitamin A intake was associated with a reduction in cutaneous squamous cell carcinoma risk.
You want to make sure you consume animal based vitamin A (pastured egg yolks, wild salmon oil, cod liver oil, butter) along
with zinc for digestive lining repair, oral health, eye health, iron mobilization, mitochondria health, skin health (sunburns deplete
vitamin A in the skin, and acne responds to vitamin A), healthy lung function, and increased immunity.
ALA to EPA and DHA Conversion-FADS2
Below is a summary of your most significant variant genotypes:
GENE GENOTYPE
FADS2 rs1535 Heterozygous AG
FADS2 rs174575 Heterozygous CG
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Recap
Improves FADS2 Gene Function: EPA and DHA omega-3 fatty acids.
Decreases FADS2 Gene Function: Relying on plant-based omega-3 fatty acid ALA
for those with the heterozygous or homozygous variant.
ALA TO EPA AND DHA CONVERSION-FADS2
Research: You may have a decreased conversion rate of the plant based omega-3 fatty acid ALA to DHA and should choose
DHA sources for sufficient omega-3's.
FADS1 and FADS2 are enzymes that are involved in converting omega-3 and omega-6 fatty acids for brain development and
inflammation control. Like the lactase gene, FADS1 is likely to be a critical gene of adaptation. In this case, it was in response
to a plant-based diet versus a meat and fish based diet depending on migration routes and food availability.
It has been hypothesized that populations that began to rely more on plant-based diets adapted with the selected allele in
FADS2 to synthesize more EPA and DHA from plants. The Inuit populations of Greenland, for example, who rely heavily on
seafood with very little plant intake, have a deleted allele showing an opposite adaptation to a diet without plants.
A meta-analysis has found an association between variants in FADS2 in European heritage and a low conversion rate of ALA
(plant-based omega-3) to DHA. There is also evidence for gene variants in those with African, Chinese, and Hispanic ancestry
having a reduced conversion rate.
Children who had a higher dietary ratio of omega-6 to omega-3 were vulnerable for developing colitis if they also presented
specific variants in FADS2.
A higher need of animal-based EPA and DHA may be needed for those with variants in FADS2.
B6-NBPF3
Below is a summary of your most significant variant genotypes:
GENE GENOTYPE
NBPF3 rs4654748 Heterozygous TC
Recap
Improves NBPF3 Gene Function: B6
Decreases NBPF3 Gene Function: Sugar, stress, high intake of alcohol and refined
flour based carbohydrates, antibiotics, oral contraceptives, ACE inhibitors, antacids,
proton pump inhibitors, Phenytoin, bronchodilators, Digoxin, diuretics, hormone
replacement therapy, Estradiol, MAO inhibitors, St. John's Wort and Parnate.
B6-NBPF3
Research: You may require a higher intake of B6. Heterozygotes (TC genotype), have a 1.45 ng/mL lower Vitamin B6 blood
concentration than the wild-type genotype.
Vitamin B6 plays a major role in neurotransmitter health. B6 deficiency can manifest as anorexia, irritability, anxiety,
depression, muscle pain, bad PMS/low progesterone, nausea, seizures, migraines, dermatitis, age related macular
degeneration (with low folate and B12) and lethargy.
Researchers have found an inverse association between ovarian cancer risk and vitamin B6 intake. Subjects with the highest
vitamin B6 intake showed a 24 percent decrease in the likelihood of developing ovarian cancer compared to the individuals with
the lowest intake.
Women of reproductive age, especially current and former users of oral contraceptives, teenagers, male smokers, non-Hispanic
African-American men, and men and women over age 65 are most at risk of B6 deficiency. Data suggests that oral
contraceptive users have extremely low plasma PLP levels. Three quarters of the women who reported using oral
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contraceptives, but not vitamin B6 supplements, were vitamin B6 deficient.
Adiponectin-ADIPOQ
Below is a summary of your most significant variant genotypes:
GENE GENOTYPE
ADIPOQ rs2241766 Heterozygous TG
Recap
Improves ADIPOQ Gene Function: Exercise, weight loss, low red meat consumption
(depending on weight and ethnicity), intermittent fasting, omega-3 fatty acids,
pterostilbene, coffee, tiliroside, berberine, chili peppers, ginger and curcumin.
Decreases ADIPOQ Gene Function: Sedentary lifestyle, obesity, high red meat
consumption (depending on weight and ethnicity), and smoking.
ADIPONECTIN-ADIPOQ
Research: Adiponectin is released by adipose (fat) tissue and is known as an insulin-sensitizing hormone, which can increase
the effect of insulin and improve glucose metabolism. Decreased levels of adiponectin have been found in people with obesity,
Type 2 diabetes, heart disease and ADHD.
Approximately 2,511 variations have been identified in the human ADIPOQ gene, including rs2241766 that has been associated
with breast, colon, gastric, hepatocellular, prostate and endometrial health in different populations. A genome-wide association
study (GWAS) revealed that the ADIPOQ gene could explain 6.7% of the phenotypic variance for plasma adiponectin.
Studies have found that carriers of the ADIPOQ rs2241766 TG and GG genotype are more likely to be associated with lower
adiponectin, higher insulin resistance, heart disease and potentially colon cancer risk based on gender and ethnicity compared
with those carrying the TT genotype.
A 2017 meta-analysis of 35 studies found that rs2241766 was linked to an increased risk of coronary heart disease
development. A second 2017 meta-analysis of twelve case control studies found that variants in ADIPOQ rs2241766 was
correlated with colon cancer risk, especially in cases of insulin resistance with rs2241766 in Ashkenazi Jewish and Chinese
populations. A 2015 study found that “ADIPOQ rs2241766 and rs1501299 could be associated with colorectal pathogenesis
and could have interactions with red meat intake” in the Chinese population.
Research has shown that a high intake of unprocessed and processed red meat intake was associated with higher plasma CRP,
ferritin, fasting insulin, HbA1c and lower adiponectin levels. However, when adjusted for BMI (body mass index), inflammatory
and glucose metabolic biomarkers were substantially attenuated and no longer significant.
Accumulating literature had suggested that adiponectin plays a role in the pathophysiology of gestational diabetes. A study of
Malaysian women found a significant association with the TG genotype and gestational diabetes. In addition, normal patients
with the wild-type TT genotype had significantly higher plasma adiponectin level compared to other groups.
In women, higher red and processed meat consumption has been significantly associated with a higher CRP and lower
adiponectin levels. When stratified for ethnicity, significantly associations of red and processed meat intake and lower
adiponectin levels were observed only in African Americans and Latinas, but not in Japanese Americans, Native Hawaiians or
whites.
Research has shown a significant increase in plasma adiponectin concentrations in human obese subjects after a 3-month
treatment with the omega-3 fatty acid EPA (1.8 g daily), showing one pathway in which omega-3 fatty acids protect against
heart disease.
One study found that pterostilbene (blueberries, mulberries, cranberries, raw almonds) demonstrated antiobesity properties by
upregulating adiponectin and downregulating leptin.
Another study evaluated the effect of tiliroside (rose hips, strawberries, raspberries) in obese, diabetic mice and found that that
plasma insulin, free fatty acid and triglyceride levels were decreased, and plasma adiponectin levels were increased.
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One study found that berberine reduces TNF- and leptin expression levels, while adiponectin was increased by 35% after
treatment of berberine.
A mice study found that capsaicin, a compound in hot peppers, decreased levels of IL-6 and increased the level of adiponectin
released from obese fat tissues and fat cells.
In breast cancer patients, both 750mg of ginger daily and swimming 4x a week increased adiponectin, nitric oxide, and
glutathione peroxidase.
In a randomized, double-blind, placebo-controlled trial in human subjects, curcumin from the spice turmeric, improved serum
levels of adiponectin and leptin in patients with metabolic syndrome.
Fat Metabolism-ACSL1
Below is a summary of your most significant variant genotypes:
GENE GENOTYPE
ACSL1 rs9997745 Wild Type GG
Recap
Improves ACSL1 Gene Function: Total fat intake under 35%, lower saturated fat
intake and increased PUFA intake.
Decreases ACSL1 Gene Function: A saturated fat intake over 35%.
FAT METABOLISM-ACSL1
Research: If you have the GG genotype, it may be beneficial for fat intake to be below 35% of your total calories or have a
higher intake of polyunsaturated fat from fish, nuts and seeds if you struggle with weight and high glucose.
The GG genotype had higher fasting glucose and insulin concentrations compared with the minor A allele carriers from
saturated fat intake, with the result that the GG genotype were more insulin resistant. Among individuals within the top 50th
percentile of PUFA intake, the metabolic syndrome risk associated with GG homozygosity was eliminated.
Foods that are higher on the insulin index include dairy and red meat, and insulin inhibits fat breakdown. Fat should come
primarily from nuts, seeds, olive oil, avocados, poultry and fish if there are issues with fasting glucose, insulin or weight.
Gene & Gene Function Gene Rsid Wild Type Heterozygous Homozygous
BCMO1 A379V
BCMO1 encodes the conversion
rate from beta-carotene to
vitamin A.
BCMO1 A379V-
rs7501331
CC
BCMO1 R267S-
rs12934922
AT
FADS2
The FADS2 gene encodes the
conversion of plant based
omega-3 fatty acid alpha
linolenic acid (ALA) to EPA.
FADS2-rs1535 AG
FADS2-rs174575 CG
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Gene & Gene Function Gene Rsid Wild Type Heterozygous Homozygous
FUT2
The FUT2 gene controls
prebiotic production, B12
absorption and how much
bifidobacteria you carry in your
digestive tract. The rs601338
SNP is found in European,
African and Indian populations.
FUT2-rs601338 GG
FUT2
The FUT2 gene controls
prebiotic production, B12
absorption, and how much
bifidobacteria you carry in your
digestive tract. Variants in the
rs1047781 FUT2 SNP are found
in the East Asian populations.
FUT2-rs1047781 AA
NBPF3
NBPF3 has been associated
with vitamin B6 levels.
NBPF3-rs4654748 TC
SLC23A1
Solute carrier family 23
member 1 (SLC23A1) is one of
the two transporters which aids
in the absorption of vitamin C
into the body. Polymorphisms
in the gene are associated with
reduced plasma vitamin C levels
in the body.
SLC23A1-
rs33972313
CC
ACAT1-02
The ACAT gene converts
protein and fat to ATP (energy)
in the mitochondria, and plays
an important role in cellular
cholesterol homeostasis.
ACAT1-02-
rs3741049
GG
ADIPOQ
ADIPOQ encodes for
adiponectin, a protein secreted
by fat cells that affect insulin
and glucose metabolism. Low
levels of adiponectin play a role
in obesity, insulin resistance
and Type 2 diabetes.
ADIPOQ-
rs2241766
TG
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Gene & Gene Function Gene Rsid Wild Type Heterozygous Homozygous
HFE-C282Y
A homozygous HFE C282Y may
lead to an iron overload due to
increased iron absorption and
disrupted metabolism.
HFE-C282Y-
rs1800562
GG
HFE-C282Y
A heterozygous HFE C282Y and
HFE H63D gene may lead to an
iron overload due to increased
iron absorption and disrupted
metabolism.
HFE-C282Y-
rs1800562
GG
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Gene & Gene Function Gene Rsid Wild Type Heterozygous Homozygous
SLC22A5
L-Carnitine is responsible for
shuttling fats into your cells,
modulating your lipid profile,
glucose metabolism, oxidative
stress, fat loss and
inflammatory responses in the
mitochondria.
SLC22A5-
rs1045020
CC
SLC22A5-
rs17622208
AG
SLC22A5-
rs2073643
TC
SLC22A5-rs274549 CC
SLC22A5-rs274550 TT
SLC22A5-rs274551 CC
SLC22A5-rs274570 CC
SLC22A5-rs274558 AA
SLC22A5-rs274557 TT
SLC22A5-
rs17689550
CC
SLC22A5-rs274567 CC
SLC22A5-rs671473 CC
SLC22A5-
rs2631359
CC
SLC22A5-
rs4646301
GG
SLC22A5-rs274571 AA
SLC22A5-rs635619 GG
SLC22A5-
rs2073642
CC
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Gene & Gene Function Gene Rsid Wild Type Heterozygous Homozygous
PPAR-alpha
The PPAR-alpha gene plays a
vital role in fatty acid
metabolism and ketosis, and is
considered one of the most
critical targets for ameliorating
abnormalities with triglycerides,
HDL, LDL, VLDL, and ApoB.
PPAR-alpha-
rs1800206
CC
ACSL1
Long-chain acyl CoA synthetase
1 (ACSL1) plays an important
role in fatty acid metabolism
and triglyceride synthesis.
Disturbance of these pathways
may result in dyslipidemia and
insulin resistance, hallmarks of
the metabolic syndrome.
ACSL1-rs9997745 GG
FTO
Polymorphisms in the FTO
genes have been shown to
cause higher ghrelin levels
(hunger hormone) in many
populations, which can create a
larger appetite and the potential
for overeating.
FTO-rs9939609 AT
FTO-rs17817449 TG
APOA2
The APOA2 gene contains
instructions for making a
protein called apolipoprotein A-
II, which is found in HDL
cholesterol particles. The
homozygous genotype has
been linked to saturated fat
intake and weight gain.
APOA2-rs5082 AG
TCF7L2
TCF7L2 polymorphisms have
been associated with low
incretin hormones and impaired
insulin secretion.
TCF7L2-rs7903146 CC
LCT
LCT is the gene connected with
the ability to breakdown lactose
in dairy.
LCT-rs4988235 AA
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Gene & Gene Function Gene Rsid Wild Type Heterozygous Homozygous
APB1
APB1 is encodes for the DAO
enzyme to breakdown
histamines primarily in the
digestive tract. The
homozygous genotype may
increase the risk of migraines
from histamines in women or a
hypersensitivity to Aspirin in
men.
APB1-rs10156191 TC
ABCG2 (Q141K)
The ABCG2 (Q141K) gene is
located at the membrane of
kidney proximal tubule cells,
where it mediates renal urate
secretion. Variants in this gene
are linked to reduced uric acid
excretion.
ABCG2 (Q141K)-
rs2231142
GG
ALDH2
Alcohol metabolism in the liver
most commonly involves the
enzymes alcohol
dehydrogenase and aldehyde
dehydrogenase, metabolizing
alcohol to acetaldehyde, and
then to acetate. ALDH2
encodes for aldehyde
dehydrogenase, and variants
can affect the levels of
acetaldehyde and therefore the
carcinogenic effect of alcohol.
ALDH2-rs671 GG
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INFLAMMATION & ANTIOXIDANT PROTECTION
Cell Protection-SOD2
Below is a summary of your most significant variant genotypes:
GENE GENOTYPE
SOD2 rs4880 Heterozygous AG
Recap
Improves SOD2 Gene Function: Manganese, boron, vitamin A, C, E, omega-3 fatty
acids, CoQ10, lutein, lycopene, milk thistle, cordyceps, holy basil, reishi and
cryotherapy.
Decreases SOD2 Gene Function: Glyphosate, fluoridated water, chronic stress, poor
sleep, shallow breathing, high iron levels and food dyes.
CELL PROTECTION-SOD2
Research: SOD2 is superoxide dismutase, which protects against the inflammatory superoxide inside the cell for the
mitochondria (power house of the cell). SOD2 is manganese dependent, and adequate intake is important. Manganese is
crucial for heart health, blood sugar, male fertility, bone health and protecting the brain against glutamate toxicity.
Exercise also helps improve SOD2 activity. Studies show exercise intensity can reduce cardiac arrhythmias and myocardial
infarction due to improved SOD2 function.
Glutathione level and activity of antioxidant enzymes (catalase, superoxide dismutase, glutathione peroxidase and glutathione
reductase) have been found to be increased in yoga practitioners. One year of Tai Chi training has been reported to promote
superoxide dismutase activity and lessen lipid peroxidation.
One study found that young men exposed to cryotherapy for 3 minutes at -202°F (−130°C) everyday for 20 days doubled the
activity of one the antioxidant enzyme glutathione reductase, and increased superoxide dismutase by 43%.
Chronic stress, poor sleep, shallow breathing and food dye consumption are examples of ways intracellular inflammation can
occur. Food dyes have been found to inhibit mitochondrial respiration; the ability of the powerhouse of your cells to convert
nutrients to energy and food dyes are often used ironically in sports drinks and multivitamins.
Fluoride decreases SOD2 activity in studies, and 75% of the water in the U.S. is fluoridated compared to 3% of western
Europe. Reverse osmosis systems remove fluoride from water.
Variants in SOD2 increase the need for manganese to protect the mitochondria and lactobacillus in the gut. Colitis has been
linked to impaired SOD2 genes.
Vitamin, A, C, E, omega-3 fatty acids, cordyceps and reishi help protect mitochondria against intracellular superoxide in red
blood cells.
Glutathione-GSTP1
Below is a summary of your most significant variant genotypes:
GENE GENOTYPE
GSTP1 I105V rs1695 Heterozygous AG
71
Recap
Improves GSTP1 Gene Function: Glycine, cysteine, selenium, vitamin C, B1, B6,
zinc, magnesium, optimal iron levels, magnesium, alpha lipoic acid, milk thistle, holy
basil and vitamin E supplementation for the homozygous GG genotype only.
Decreases GSTP1 Gene Function: Mercury, arsenic, cadmium, pesticides, and air
pollution.
GLUTATHIONE-GSTP1
Research: Glutathione is the master antioxidant system involved in oxidative stress, detoxification and immunity. It requires the
amino acids glycine, cysteine and glutamate. Selenium activates the glutathione system and works in concert with vitamin E as
a potent antioxidant against plasma and LDL lipid peroxidation.
The functional polymorphism of the GSTP1 Ile105Val gene, which reduces enzymatic activity, involves an A-G substitution.
Carriers of these mutations are less able to detoxify carcinogens, and epidemiological studies have suggested that individuals
differing in the expression of allelic variants of GSTP1 gene differ in susceptibility to various chemical carcinogens.
A meta-analysis of 10,067 cancer cases and 12,276 controls in 41 independent case–control studies from 19 articles found a
significant increase in risk in breast cancer in Caucasions with variants in GSTP1 rs1695. A second meta-analysis found the
same results with Asians that had the GG genotype. A 2020 study found that the rs1695 homozygous GG genotype was
associated with an increased risk of breast cancer, but not the AG genotype. Other research has shown the risk to be higher in
premenopausal women vs. post-menopausal women.
An analysis of that included 3,035 breast cancer cases and 3,037 population controls in a Chinese population found that
cruciferous vegetable intake helped offset the risk of the GG genotype, with a lower risk associated with a higher cruciferous
vegetable intake.
A meta-analysis of 11,762 cases and 15,150 controls from 51 studies showed a statistically significant association between
GSTP1 rs1695 polymorphism with prostate cancer risk and urinary system cancer among Asians.
GSTP1 rs1695 variants were reported to be associated with the risk of esophageal cancer and malignant melanoma in the
Caucasian population, but not childhood acute lymphoblastic leukemia or bladder cancer.
Glutathione-related polymorphisms, such as GSTM1 and GSTP1 have also been found to increase the elevation and toxicity of
mercury. Selenium blocks mercury uptake, folate decreases mercury levels and magnesium and holy basil protect against
mercury toxicity.
One benefit of the GSTP1 AG and GG genotype appears to be in athletic training. GSTP1 rs1695 AG and GG may be high
responders to endurance training due to an impaired ability to remove excess reactive oxygen species. The hypothesis is that
better activation of cell signaling pathways results in positive muscle adaptations. Women with at least one copy of the G allele
showed a significantly greater increase in V?O2max in response to applied training.
In healthy control subjects, the effect of a-tocopherol supplementation on the production of inflammatory cytokines appears to
be dependent on an individual's GSTP1 rs1695 genotype. These genotype-specific differences may help explain some of the
discordant results in studies that used vitamin E. Persons having the alleles AA or AG in GSTP1 rs1695 had an increase in
inflammatory interleukin-6 (IL-6) upon supplementing alpha-tocopherol (the most common form of Vitamin E in a North
American diet) while those with GG saw a decrease.
Glutathione-GPX1
Below is a summary of your most significant variant genotypes:
GENE GENOTYPE
GPX1 rs1050450 Heterozygous AG
72
Recap
Improves GPX1 Gene Function: Selenium, optimal testosterone and estradiol levels,
melatonin, vitamin C, vitamin E, black cumin seed oil, flavonoids, milk thistle, ginger,
cumin, anise, fennel, caraway, cardamom and cryotherapy.
Decreases GPX1 Gene Function: Selenium deficiency, statin drugs, iron deficiency or
elevated iron, and lead.
GLUTATHIONE-GPX1
Research: Superoxide dismutase (SOD) transforms the inflammatory superoxide to hydrogen peroxide (H2O2), and the next
step is for glutathione peroxidase (GPX1) to transform it to water (H2O). When GPX1 function is modulated by polymorphisms
and other factors affecting its function, a hydroxyl radical may be more likely to form which attacks DNA and causes strand
breaks.
Research has shown that there is reason to believe that individual requirements for selenium will differ because of
polymorphisms in seleno-protein genes. In a study looking at a New Zealand population, homozygous minor allele carriers of
GPX1 rs1050450 had lower GPX1 activity than other genotypes with the same selenium status.
Elevated lead levels may have more toxic effects with GPX1 polymorphisms. A study looking at 362 patients and 494 controls
found that lead exposure and GPX1 polymorphisms were significantly associated with glioblastoma and meningioma. Vitamin C
decreases blood lead levels, and calcium reduces lead uptake.
GPX1 activity is considered to be the most important antioxidant enzyme defense mechanism in the skin. In a study from the
Journal of Dermatological Science, the homozygous genotype for GPX1 rs1050450 was associated with a a two-fold increased
risk of melanoma.
Statins inhibit the biosynthesis of selenium containing proteins, one of which is glutathione peroxidase serving to suppress
peroxidative stress. An impairment of selenoprotein biosynthesis may be a factor in congestive heart failure, reminiscent of the
dilated cardiomyopathies seen with selenium deficiency. A meta-analysis found that East Asian populations may be prone to
cardiovascular issues with GPX1 polymorphisms.
Oxidative stress and inflammation play a pivotal role in the pathogenesis of Hashimoto's disease, an autoimmune disorder. A
study looking at patients in Northwest Iran found that antioxidant capacity in Hashimoto's patients was lower than healthy
controls. There was also a significant association with variants in GPX1 rs1050450, elevated anti-TPO levels, and Hashimoto's
risk. The thyroid is the organ with the highest amount of selenium per gram of tissue. Research has suggested that selenium
supplementation of patients with Hashimoto's disease is associated with a reduction in anti-TPO levels, improved thyroid
ultrasound features, and improved quality of life.
In an experiment investigating the effect of heat and cold stress on glutathione metabolism in human erythrocytes, men were
immersed at three different water temperatures for 10 min. At 39 degrees C (102 F), glutathione peroxidase decreased from
35.90 (1.83) to 34.33 (1.66) IU.g. The researchers concluded that "these changes indicate that heat stress causes oxidative
stress in the human body; however, cold stress is thought to augment the activity of the antioxidative defense system. It is
suggested that body exposure to hot environmental conditions should not be recommended for patients suffering from a
damaged antioxidative defense system."
One study found that elite kayakers that engaged in whole body cryotherapy (-248 to 284°F or -120 to 140°C) for 3 minutes a
day for 10 days increased the activity of superoxide dismutase by 36% and glutathione peroxidase by 68%.
Nitric Oxide-NOS1
Below is a summary of your most significant variant genotypes:
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GENE GENOTYPE
NOS1 rs545654 Wild Type CC
NOS1 rs7298903 Wild Type TT
NOS1 rs3782218 Homozygous TT
Recap
Improves NOS1 Gene Function: Carotenoids, polyphenols and DHA. Decreases NOS1 Gene Function: Psychological stress and pesticides.
NITRIC OXIDE-NOS1
Research: Nitric oxide acts as a neurotransmitter, neuromodulator, vasodilator, anti-microbial, ant-tumorigenic, insulin
secretions, peristalsis, inhibiting calcium entry into the cell, increasing potassium channels, and decreasing intracellular calcium.
NOS1 has a role in the regulation of the serotonin pathway, the HPA axis, and psychological stress. Chronic stress increases
NOS1 expression in many parts of the brain, including the hippocampus (affecting emotion and memory). Recent studies have
reported gene-specific and global changes in DNA methylation in response to psychological stress in humans. Chronic
psychosocial stress has been associated with accelerated aging at the cellular level including shortened telomeres, low
telomerase activity, decreased antioxidant capacity, and increased oxidative stress.
Variants in NOS1 may benefit from balancing the HPA axis (primary stress response system) and polyphenol consumption.
There is considerable evidence showing that cellular oxidative damage occurring in Parkinson's disease might result also from
the actions of altered production of nitric oxide. Polyphenols modulate neuroinflammation by inhibiting the expression of
inflammatory genes and the level of intracellular antioxidants.
NOS1 also plays a role in oxidative stress and cancer prevention. For oxidative stress, interactions were found between
pesticides, SOD3, and the NOS1 SNPs rs12829185, rs1047735, and rs2682826. The foods correlated in research to improved
NOS1 function include carrots, tomatoes, squash, corn, orange peppers, red peppers, yellow peppers, pumpkin, red beets, red
onions, yellow beets, and sweet potatoes to offset oxidative stress. One study found that carriers of the variant allele for NOS1
(rs2293054) that had the highest intake of these foods had a 50% reduced risk of non-Hodgkin's Lymphoma and up to 30-70%
reduced risk of diffuse large B-cell lymphoma.
Gene & Gene Function Gene Rsid Wild Type Heterozygous Homozygous
SOD2
Superoxide dismutase
(SOD2) is manganese
dependent and protects
against superoxide for the
mitochondria of the cell.
Variants here increase the
need for intracellular
antioxidant protection.
SOD2-rs4880 AG
74
Gene & Gene Function Gene Rsid Wild Type Heterozygous Homozygous
CAT C-262T
CAT makes an enzyme called
catalase, which helps reduce
oxidative stress.
CAT C-262T-
rs1001179
CC
GSTM1
GSTM1 catalyzes the
detoxification of alkyl and
polycyclic aromatic
hydrocarbons (PAHs),
intermediate forms of many
carcinogens, specifically
metabolically generated
epoxide intermediates of
benzo(a)pyrene.
GSTM1-rs366631 AG
GSTP1 I105V
Glutathione S-Transferase
(GSTP1) is linked to the
metabolism of mutagens,
carcinogens, and other
poisonous chemicals. It plays
a crucial role in the
detoxification process,
thereby protecting cells from
these compounds. GSTP1
rs1695 is connected to
breast, prostate, urinary,
esophagus, and skin health.
GSTP1 I105V-
rs1695
AG
GSTP1 C341T
Glutathione S-Transferase
(GSTP1) is linked to the
metabolism of mutagens,
carcinogens, and other
poisonous chemicals. It plays
a crucial role in the
detoxification process,
thereby protecting cells from
these compounds. GSTP1
rs1138272 is connected to
the colon, prostate, lung,
throat, and fertility.
GSTP1 C341T-
rs1138272
CC
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Gene & Gene Function Gene Rsid Wild Type Heterozygous Homozygous
GPX1
The GPX1 (Glutathione
peroxidase 1) gene encodes a
protein responsible for the
modulation and detoxification
of hydroperoxides and
hydrogen peroxide to protect
the mitochondria and
cytoplasm of cells against
oxidative damage.
GPX1-rs1050450 AG
CTH
The CTH (Cystathionine
Gamma-Lyase) gene encodes
an enzyme in the trans-
sulfuration pathway that
converts cystathionine
derived from methionine into
cysteine. Glutathione
synthesis in the liver is
dependent upon the
availability of cysteine.
CTH-rs1021737 GG
NOS1
NOS1 (nNOS) codes for brain
neural transmission, memory,
learning, psychological stress,
the peripheral nervous
system and potentially the
lymph nodes.
NOS1-rs545654 CC
NOS1-rs7298903 TT
NOS1-rs3782218 TT
NOS2
NOS2 (iNOS) encodes for
wound, tissue damage,
infection and hypoxia (low
oxygen).
NOS2-rs2248814 GG
ARMS2
ARMS2 polymorphism is
associated with increased risk
of age related macular
degeneration (AMD).
ARMS2-
rs10490924
GG
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MENTAL HEALTH & COGNITIVE PERFORMANCE
MAO-Serotonin
Below is a summary of your most significant variant genotypes:
GENE GENOTYPE
MAO-A rs6323 Heterozygous TG
Recap
Improves MAO-A Gene Function: Vitamin B6, folate, B12, B2, magnesium, vitamin
C and probiotics.
Decreases Gene Function: Antibiotics, aspartame, oral contraceptives, proton pump
inhibitors, high estrogen levels, constipation and deficiencies in the vitamins and
minerals above.
MAO-SEROTONIN
Research: MAO-A (Monoamine oxidase A) is a critical enzyme involved in breaking down important neurotransmitters such as
serotonin, estrogen, norepinephrine, and dopamine. Normal variants for men may not be as relevant as they are for women
due to the role of estrogen.
The heterozygous genotype of MAO-A does not have a major impact on MAO-A function, however, MAO-A can still be
disturbed by high estrogen levels, constipation, antibiotics, certain medications and vitamin deficiencies.
Serotonin Receptor-Stress
Below is a summary of your most significant variant genotypes:
GENE GENOTYPE
5-HT2A rs6313 Homozygous AA
5-HT2A rs6311 Homozygous TT
Recap
Improves Gene Function: Moderate intensity aerobic exercise, cognitive behavioral
therapy, mindfulness training, meditation, yoga, tryptophan, green or black tea,
prebiotics, probiotics, B2, B6, B12, and folate.
Decreases 5-HT2A Gene Function: Chronic stress, poor gut flora, high-dose lithium,
cannabis abuse, and excessive smartphone use.
SEROTONIN RECEPTOR-STRESS
Research: The serotonin 2A receptor (5-HT2A) has been implicated in mental disorders with complex etiologies that are still not
clearly understood, in processes such as learning and memory, and also in neurogenesis. Although the functional significance of
5-HT2A polymorphisms are not entirely understood, there is evidence that rs6311 modulates transcription factor binding and
promoter methylation, affecting gene transcription (the first step of gene expression).
The T allele of the 5-HT2A gene rs6311 has been shown to increase the 5-HT2A expression in vitro and is associated with
anxiety, IBS and depressive disorders. It has also been hypothesized that 5-HT2A variants may influence resting vagal activity
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among persons with chronically high levels of perceived stress.
In one study in a Han Chinese population, the TT homozygous genotype for rs6311 experienced diminished resting vagal tone
compared to the CC genotype when experiencing chronically elevated levels of perceived stress. Low vagal tone is correlated
with a lower capacity to regulate stress and has been associated with heightened emotional reactivity and poor inhibitory
control in numerous studies in children and adolescents. A meta-analysis also reported a low resting vagal tone in adults with
major depression.
One meta-analysis showed that the T allele of rs6311 or the linked A allele of rs6313 was significantly associated with
obsessive compulsive disorder (OCD). This result was confirmed in the author’s subsequent comprehensive meta-analysis in
2016 with a larger dataset. Multiple studies in this analysis indicated that the rs6311 T allele was more abundant in females
with OCD compared to control females.
Another meta-analysis of 37 twin samples suggests that obsessions and compulsions arise from a combination of genetic
factors and non-shared environment. OCD might be shaped by a large number of genes of modest impact, which combine to
influence the risk for developing OCD. Polymorphisms in genes related to BDNF, GABA, glutamate, serotonin, acetylcholine,
glycine, ubiquitin, bradykinin, myelinization, TNFA, gender and environmental trauma may all have a cumulative effect on
whether or not someone develops OCD.
Psoriasis is a chronic inflammatory skin disease affecting about 2-4% of the population worldwide, and is thought to be a
multifactorial disease with both genetic and immunogenic backgrounds. Psoriasis occurs in connection with stress and mood
disorders and is apparently induced in patients who have been treated with antidepressants. The serotonergic system, which
consists of serotonin-producing cells, serotonin receptors and serotonin transporters, may play a significant role in psoriasis.
Theanine, a component of green tea and black tea, has been shown to increase BDNF levels, modulate serotonin and dopamine
levels, and improve learning and memory. It has shown promise as an adjunct therapy for schizophrenia and depression, and
researchers believe there may also be an application for anxiety disorders, panic disorder, OCD, and bipolar disorder.
Vagus nerve stimulation may be a promising add-on treatment for anxiety, depression, PTSD, seizures, and inflammatory
bowel disease. Natural ways to stimulate the vagus nerve and increase vagal tone include singing, deep breathing, meditation
and yoga. Another way is to make a dietary shift towards good gut bacteria, shown to influence the activity of the vagus nerve.
In human volunteers as well as in a rat model, administration of a probiotic formulation consisting of Lactobacillus helveticus
R0052 (traditionally used in the manufacture of Swiss-type cheeses and long-ripened Italian cheeses such as Emmental,
Gruyere, Grana Padano and Parmigiano Reggiano) and Bifidobacterium longum R0175A (colonizes at birth, but levels vary
genetically) significantly attenuated psychological distress and reduced anxiety-like behavior. Research has also found that
prebiotics can improve non-REM sleep as well as REM sleep after a stressful event.
One pilot study found that a 12-week moderate intensity aerobic exercise program reduced OCD symptoms and the reductions
lasted 6 months later.
Another study combined cognitive behavioral therapy and a 12-week moderate intensity aerobic exercise program with
tremendous results, exceeding effects typically observed with individual and group-based cognitive behavioral therapy for OCD
based on leading meta-analytic reviews.
Dopamine, Adrenaline and Estrogen-COMT
Below is a summary of your most significant variant genotypes:
GENE GENOTYPE
COMT V158M rs4680 Wild Type GG
COMT rs4633 Wild Type CC
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Recap
Improves COMT Gene Function: Vitamin C, magnesium, and copper (copper should
not be too low or too high).
Decreases Gene Function: Chronic stress, sugar, proton pump inhibitors, aspartame,
low magnesium levels, low vitamin C levels, low and high copper levels,
constipation, xenoestrogens, high homocysteine levels, high SAH levels, estrogen-
based medications and mercury toxicity.
DOPAMINE, ADRENALINE AND ESTROGEN-COMT
Research: COMT (catecholamine methyltransferase) shares a pathway with MAO-A and is the gene for dopamine, estrogen,
adrenaline and catecholamine metabolism. This pathway requires magnesium, vitamin C and copper as co-factors.
While the homozygous genotype for COMT V158M is associated with slower enzymatic function and naturally higher dopamine
and adrenaline levels, the wild-type COMT V158M gene (GG rs4633) is associated with faster enzymatic function, leading to
lower prefrontal dopamine, adrenaline and norepinephrine levels.
The benefits to the GG genotype may be a better response to high-pressure situations and the ability to be more emotionally
resilient and calm in a crisis. Those with the GG genotype may even thrive more in response to certain stressors and have
enhanced cognitive performance due to the elevation of dopamine and adrenaline to more normal levels.
The downside of the GG genotype is that it can affect executive function and problem-solving abilities compared to the AC and
AA genotypes of COMT V158M if dopamine remains low. Individuals who had the GG genotype of COMT and variants in
ANKK1 showed the lowest cognitive performance, however, both genes can be improved by increasing catecholamine intake,
meditation, balanced blood sugar, vitamin D, omega-3 fatty acids, fiber, high intensity exercise and lower media exposure.
Several studies have found that the COMT V158M GG individuals perform better than those with the AA allele on tasks
demanding cognitive flexibility, while individuals with the AA allele are better at tasks demanding focused attention. The
“inverted U” hypothesis suggests that when dopamine levels are either too high or too low, cognition is adversely affected.
In a study of Swedish men and women with depression, the GG genotype also appears deleterious with a three-fold increased
risk of later cardiovascular disease compared to those non-depressed carrying the GG genotype. The risk was higher in women
than in men. A 2016 meta-analysis found that for each cup of coffee, depression was reduced by 8%, being most significant
when the caffeine consumption was above 68mg/day and below 509mg/day. Due to coffee and caffeine's effect on COMT
and dopamine, this genotype with depression may benefit from increased coffee intake. The CYP1A2 gene for caffeine
metabolism should also be reviewed.
Small studies have shown that Caucasian carriers of at least one G allele showed a greater effect for social facilitation and
cooperativeness (working together in a group) than the AA homozygous group for COMT V158M. In women, the GG genotype
was considered to be more helpful and empathetic, socially tolerant, compassionate, and potentially more altruistic.
The GG genotype has also been found to have a higher threshold of pain. In a 2019 study, twenty minutes following exposure
to cold stress, subjects with the GG genotype showed a lower biochemical stress response relative to the homozygous AA
carriers.
While studies have had mixed results with ADHD and COMT genotypes, research has shown that amphetamines (Adderall)
enhanced prefrontal cortex function and improved working memory efficiency for the GG (high COMT activity) subjects, while
amphetamine produced adverse effects under high working memory load conditions for homozygous AA (low activity) subjects.
A subtype of ADHD is characterized by low dopamine levels.
There are dietary strategies that naturally slow down the COMT enzyme. Catecholamines (coffee, black tea, green tea, red
wine, chocolate, citrus, bananas, berries, and vanilla) all help slow down COMT, increasing dopamine and adrenaline. For breast
cancer prevention, green tea has been found to be beneficial in the AG and AA genotype, but not the GG genotype. This is due
to the AG and AA genotype retaining polyphenols the longest. Therefore, the GG genotype may need a higher intake of green
tea to achieve the same benefit.
Coffee can increase dopamine concentration, signaling, and receptor availability, proving very beneficial for those in a lower
dopamine state. Research has also found that coffee drinkers have up to a 60% lower risk of Parkinson’s disease likely due to
increased dopamine signaling in the brain from caffeine.
Those with lower dopamine and adrenaline levels are also going to do better with exercise that involves an element of risk
like surfing, snowboarding, mountain biking, skiing, and athletic competitions to modulate healthy dopamine and adrenaline
concentrations. This requirement may be more relevant in men due to higher estrogen levels in women slowing down COMT.
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Dopamine Receptors-ANKK1
Below is a summary of your most significant variant genotypes:
GENE GENOTYPE
ANKK1 rs1800497 Heterozygous AG
Recap
Improves ANKK1 Gene Function: Meditation, 8 hours of sleep per night, balanced
blood sugar, vitamin D, omega-3 fatty acids, fiber, high intensity exercise and lower
media exposure.
Decreases ANKK1 Gene Function: Low blood sugar, refined sugar, high fructose
corn syrup, elevated lead levels, elevated copper levels, iron deficiency, omega-3
deficiency, low vitamin D levels and excessive media exposure.
DOPAMINE RECEPTORS-ANKK1
Research: Dopamine is a neurotransmitter with numerous roles, including reward-motivated behavior and social behavior.
Dopamine is involved in trial-and-error learning. Variants in genes related to dopamine signaling may also affect a person’s
ability to learn.
The heterozygous AG and homozygous AA genotypes have been correlated with up to a 30% reduction in dopamine receptors
in a region of the brain known as the striatum. One small study found that people with the wild-type GG genotype learned from
their mistakes easily, while people with the AG or AA genotypes were more likely not to learn from their mistakes and repeat
behavior with negative consequences.
Those with sugar addictions, compulsive eating and obesity may have systems that need much more stimulation to feel
pleasure caused by fewer D2 dopamine receptors and the need for extra stimulation to make the receptors “turn on.”
Functional MRI studies of teenagers, both lean and obese, found that the teenagers whose brains didn’t light up as much in the
dopamine reward centers were more likely to be obese and gain weight later. They also were more likely to have fewer
dopamine receptors.
Poor dopamine uptake may contribute to the development of obesity. This relationship was significantly stronger in women
with a heterozygous or homozygous A1 variant in rs1800497. The “A” corresponds to the A1 allele and the “G” is called the
A2 allele. A1 heterozygous or homozygous women had lower dopamine activation in response to food, and therefore gained
more weight potentially due to their diminished pleasure response from dopamine.
Fourteen studies investigated mindfulness meditation as the primary intervention and assessed binge eating, emotional eating,
and/or weight change. Results suggest that mindfulness meditation effectively decreases binge eating and emotional eating in
populations engaging in this behavior. However, evidence for its effect on weight is mixed.
Researchers found that individuals with Internet addiction showed reduced levels of dopamine D2 receptor availability in
subdivisions of the striatum. This helps explain the universal iPhone phenomenon of addictive-reward behavior, with excessive
use decreasing dopamine receptors and increasing the craving for more.
The global statistics show that about 10 percent of the world’s population has ADHD. When researchers looked specifically at
teenagers in the US, they found the diagnoses had risen 52 percent since 2003. ADHD has been associated with decreased
dopamine activity. A meta-analysis of 11 studies with 1645 cases and 1641 controls found that variants in rs1800497 may be
associated with ADHD.
Studies have also found that children and adults with ADHD are significantly more likely to be overweight, showing the shared
connection to decreased dopamine levels. The heavy metal lead disrupts the dopamine pathway, and 16 out of 18 studies
found a significant association between blood lead levels and one of the types of ADHD (Combined / Inattentive / Hyperactive-
Impulsive). Other research has shown that iron deficiency causes a reduced number of dopamine receptors, and a recent study
from the Annals of Medical and Health Sciences Research found that low serum iron, ferritin levels, and vitamin D deficiency
may be associated with ADHD.
Vitamin C is proposed as a neuromodulator of glutamate, dopamine, acetylcholine and GABA transmission and related
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behaviors. One study showed that following a long period of vitamin C deficiency, depressed levels of both dopamine and
norepinephrine were reported. Vitamin C also reduces blood lead levels.
Mindfulness training may improve self-regulation of attention. Neuroimaging studies suggest that mindfulness meditation
engenders neuroplastic changes in brain areas associated with attentional functioning typically impaired in ADHD. One study
found meditation increased endogenous dopamine release of 65% in the ventral striatum during meditation.
Histamines and Migraines-HNMT
Below is a summary of your most significant variant genotypes:
GENE GENOTYPE
HNMT C314T rs11558538 Heterozygous TC
Recap
Improves HNMT Gene Function: Vitamin C, choline, folate, magnesium, chamomile,
basil, stinging nettle, echinacea, fennel, ginger and wild oregano.
Decreases HNMT Gene Function: Poor gut flora, too many fermented foods, red
wine, NSAID's, antidepressants, histamine H2 blockers, antihistamines,
antiarrhythmics, immune modulators, deficiencies in vitamin C, choline, folate and
magnesium.
HISTAMINES AND MIGRAINES-HNMT
If you have also the GG genotype for DAO rs1049793, the co-presence of the T allele (TC or TT) in HNMT rs11558538 may
increase the degree of disability of migraines from histamines. Further studies are needed to confirm the HNMT polymorphism
connection to migraines.
Anandamide-FAAH
Below is a summary of your most significant variant genotypes:
GENE GENOTYPE
FAAH rs324420 Wild Type CC
Recap
Improves FAAH Gene Function: Exercise over 30 minutes, red clover tea (women),
kaempferol, cacao, genistein (fermented soy), Echinacea, 7-hydroxyflavone (parsley,
onions, berries, tea, and citrus fruits), -caryophyllene (cloves, rosemary, hops).
Decreases FAAH Gene Function: Pesticides and phthalates.
ANANDAMIDE-FAAH
Anandamide is a neurotransmitter and endogenous cannabinoid, and is known as the “bliss” molecule that targets the
endocannabinoid system.
The endocannabinoid system is involved in many physiological processes including reward, addiction, fertility, pain and energy
regulation. This system was named from the cannabis plant, such as marijuana and hemp. THC closely resembles anandamide.
The endocannabinoids play a significant role in pain modulation and inflammation, and have been demonstrated to relieve pain
by activating the CB1 and CB2 receptors.
The wild-type genotype (CC) encodes for the fast activity of FAAH, and therefore naturally leads to lower anandamide levels.
Those with the homozygous genotype (AA), have the slow-activity of FAAH and naturally higher levels of anandamide. This
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means that the CC individuals may have more anxiety and have to work harder to achieve higher levels of happiness, while the
AA individuals have less anxiety and naturally higher levels of the “bliss” molecule that stimulate feelings of happiness.
Low levels of anandamide have been linked to slower extinction of fear memories and a heightened stress response to
threatening situations than those with higher anandamide levels. Healthy volunteers who carried the rs324420 "A" allele (low
FAAH activity, high anandamide levels) had much less amygdala activation when placed in a threatening situation. They also
had a weaker correlation between amygdala activation and trait anxiety, which is a general tendency to perceive situations to
be threatening and to respond to such situations with subjective feelings of apprehension and tension.
Pesticides such as chlorpyrifos and diazinon alter the endocannabinod system and researchers have hypothesized that eating
organic foods lacking pesticide residues may promote endocannabinoid balance. Phthalates are plasticizers added to water
bottles, tin cans, food packaging, and even the enteric coating of pharmaceutical pills. Phthalates may act as endocrine
disruptors and carcinogens, and have been found to block CB1 receptors, found in the brain.
However, there are also ways for people to lower excessive levels of chronic stress and anxiety by increasing anandamide
levels in the body. One of best ways to do this is with exercise. Endorphins (endogenous opioids) enhance the effects of
cannabinoids and what has been known as the “runner’s high” may in fact be the increase of anandamide. Research found that
running and biking over 30 minutes, along with strenuous hiking at high altitude significantly increased anandamide.
Clinical anecdotes suggest that stress-reduction techniques, such as meditation, yoga, and deep breathing exercises impart
mild cannabimimetic effects.
Panic and PTSD-GAD1
Below is a summary of your most significant variant genotypes:
GENE GENOTYPE
GAD1 rs3749034 Heterozygous AG
Recap
Probiotics, B6, B2, taurine, magnesium, lithium, choline, vitamin C, zinc, vitamin D,
progesterone (women), CBD, lemon balm, ashwagandha, high intensity exercise for
8-20 minutes, endurance exercise, yoga, meditation, and deep sleep.
Antibiotics, caffeine, high estrogen, excess wheat, excess sugar, broth cooked over
24 hours, low blood sugar, poor sleep, manganese deficiency, boron deficiency,
chronic stress, proton pump inhibitors, diuretics, hormone replacement therapy,
MAOI’s, fibrates, MSG, low progesterone, sucralose and aspartame.
PANIC AND PTSD-GAD1
GAD1 stands for “Glutamate Decarboxylase 1” and is responsible for the conversion of glutamate to GABA. GABA and
glutamate account for 80% of brain activity. Glutamate is excitatory while GABA is calming. In the right amounts, glutamate
helps focus, cognitive function and productivity. Too much, however, can be excitatory and detrimental.
The GAD system influences mood stability and the pathophysiology of mood and anxiety disorders. To date, GAD1 genetic
variants have been associated with mood disturbance, and panic disorder. GAD1 SNPs may impact both mood and anxiety-like
traits, and may also be relevant following stress or trauma exposure in influencing risk for PTSD as well as depression.
The subjects carrying A allele of rs3749034 were associated with an increased risk of Posttraumatic stress disorder when
compared to subjects with the “G” allele in the dominant model.
GABA levels in various brain regions are reduced in panic patients possibly due to impaired GAD function. Further studies in
patients with major depression found reduced GABA levels to be accompanied by increased glutamate concentrations
strengthening the link between anxiety and mood disorders and GAD.
Following a trauma, individuals at higher genetic risk with certain genotypes in GAD1 may experience physiological effects of
anxiety, overconsolidation of the fear memory, and negative thoughts about the event, decreasing their ability to extinguish
fear responses when reminded of the trauma and increasing the likelihood of mood-related disturbances. Therefore the
correlation with a genetic predisposition to a higher trauma response may require variants in GAD1, an environmental trauma,
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and gender to due the influence of estrogen on GAD.
Estrogen and progesterone decrease GAD expression in the amygdala and the hippocampus (which both are involved in
regulating fear), which provides a link between hormone levels and anxiety as well as mood changes during menstruation in
women. Natural progesterone in women (B6 helps produce progesterone) has powerful effects on enhancing GABA activity in
the brain. When progesterone is too low, it causes elevated glutamate levels.
Abnormalities in the GABA neurotransmitter system have been noted in subjects with mood and anxiety disorders, which is
why anticonvulsants are also marketed for mood disorders. Lithium and the drug Lamictal has been shown to help regulate the
neurotransmitter glutamate by keeping the amount of glutamate between brain cells at a stable, healthy level. The
anticonvulsant drug Topamax is used for migraines by lowering glutamate and raising GABA levels.
Excess glutamate is supposed to convert to GABA with B6 and magnesium. GAD1 variants slow down the conversion of
glutamate to GABA and increase the need for B6/magnesium to make it run normally. Studies have found that exercise helps
the brain direct excess glutamate to be used as an energy source and prevent toxic build-up.
GABA requires adequate probiotics (bifidobacterium produces large amounts of GABA, so the FUT2 gene function should also
be assessed) zinc, B2, B6, vitamin C, vitamin D and deep sleep to keep glutamate in check. Taurine (found in grass-fed animal
protein, wild fish and eggs) appears to increase the levels of GAD1 to reduce glutamate and help bind to GABA receptors in
brain cells.
One study found that neuronal excitability from glutamate appears to be attenuated when eating or supplementing with the
mushroom Lion’s Mane. Research on Lion's Mane also shows that the hot water extract stimulates Nerve Growth Factor (part
of a family of similar proteins that serve to promote the health and normal function of the brain and nervous system) and
accelerates the growth of the myelin sheath. This has exciting potential for those with neurodegenerative disorders from high
glutamate levels.
The artificial sweetener aspartame is especially troubling for those with GABA and glutamate imbalances. The lowered levels of
serotonin due to aspartame consumption might cause lowered activity of the GABA transporters.
Gene & Gene Function Gene Rsid Wild Type Heterozygous Homozygous
MAO-A
MAO-A (Monoamine oxidase
A) is a critical enzyme
involved in breaking down
important neurotransmitters
such as serotonin, estrogen,
norepinephrine, and
dopamine.
MAO-A-rs6323 TG
5-HT2A
The 5-HT2A gene encodes
for serotonin receptors
found in the brain and
central nervous system and
is concentrated in the brain
region essential for learning
and cognition.
Polymorphisms in rs6314
may result in reduced
episodic memory in young
and middle-aged individuals.
5-HT2A-rs6314 GG
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Gene & Gene Function Gene Rsid Wild Type Heterozygous Homozygous
5-HT2A
The 5-HT2A gene encodes
for serotonin receptors
found in the central nervous
system. Polymorphisms in
rs6311 and rs6313 may
contribute to a reduced
capacity to regulate stress,
low vagal tone, anxiety,
depression, OCD, and IBS,
especially in females.
5-HT2A-rs6313 AA
5-HT2A-rs6311 TT
COMT V158M
COMT is connected to
dopamine, adrenaline,
estrogen and catecholamine
metabolism.
COMT V158M-
rs4680
GG
COMT-rs4633 CC
ANKK1
ANKK1 modulates the
density of dopamine
receptors in the brain.
ANKK1-
rs1800497
AG
DAO C2029G
DAO participates in the
degradation of extracellular
histamine. This gene is
connected to migraines.
DAO C2029G-
rs1049793
CC
HNMT C314T
Histamine N-
methyltransferase (HNMT) is
a histamine-metabolising
enzyme expressed in the
brain. This gene is connected
to migraines.
HNMT C314T-
rs11558538
TC
HNMT
Histamine N-
methyltransferase (HNMT) is
a histamine-metabolising
enzyme expressed in the
brain. This gene is connected
to hyperactivity and food
dyes.
HNMT-rs1050891 AG
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