52
319 L.E. Bernstein et al. (eds.), Nutrition Management of Inherited Metabolic Diseases: Lessons from Metabolic University, DOI 10.1007/978-3-319-14621-8, © Springer International Publishing Switzerland 2015 Appendix A. Overview of Metabolic Disorders

Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

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Page 1: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

319L.E. Bernstein et al. (eds.), Nutrition Management of Inherited Metabolic Diseases: Lessons from Metabolic University, DOI 10.1007/978-3-319-14621-8,© Springer International Publishing Switzerland 2015

Appendix A. Overview of Metabolic Disorders

Page 2: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

320

Am

ino

acid

dis

orde

rs

Dis

orde

rE

nzym

e af

fect

edB

ioch

emic

al fi

ndin

gsC

linic

al f

eatu

res

Nut

ritio

nal m

odifi

catio

nV

itam

in th

erap

y

Phen

ylke

tonu

ria:

se

vere

(cl

assi

cal)

, m

oder

ate

(aty

pica

l),

mild

(h

yper

phen

yl­

alan

inem

ia)

Phen

ylal

anin

e hy

drox

ylas

eIn

crea

sed

bloo

d ph

enyl

alan

ine

If u

ntre

ated

, int

elle

ctua

l dis

abili

ty,

seiz

ures

, hyp

erac

tivity

, and

ecz

ema;

no

rmal

dev

elop

men

t with

pro

per

trea

tmen

t

Phen

ylal

anin

e re

stri

ctio

n,

±ty

rosi

ne s

uppl

emen

tatio

nN

one

Seve

re: >

1,20

0 um

ol/L

Mod

erat

e: 3

60–1

,200

μm

ol/L

Mild

: 120

–360

um

ol/L

Mat

erna

l ph

enyl

keto

nuri

aPh

enyl

alan

ine

hydr

oxyl

ase

Sam

e as

abo

veU

ntre

ated

PK

U in

the

mot

her

caus

es

inte

llect

ual d

isab

ility

, con

geni

tal h

eart

di

seas

e, lo

w b

irth

wei

ght,

and

mic

roce

phal

y in

off

spri

ng

Phen

ylal

anin

e re

stri

ctio

n,

±ty

rosi

ne s

uppl

emen

tatio

nN

one

Hyp

erph

enyl

­al

anin

emia

(pt

erin

de

fect

)

Dih

ydro

pter

idin

e re

duct

ase;

GT

P cy

cloh

ydro

lase

Mild

to m

oder

ate

hype

rphe

nyla

lani

nem

ia (

see

abov

e)

Psyc

hom

otor

ret

arda

tion,

toni

city

di

sord

ers,

hyp

erth

erm

ia,

hype

rsal

ivat

ion,

dif

ficul

ty s

wal

low

ing

±ph

enyl

alan

ine

rest

rict

ion,

±

tyro

sine

sup

plem

enta

tion

Tetr

ahyd

ropt

erin

2

mg/

kg/d

ay o

rally

, ±

neu

rotr

ansm

itter

su

pple

men

tsTy

rosi

nem

ia ty

pe I

Fum

aryl

acet

oace

tate

hy

drol

ase

Incr

ease

d bl

ood

phen

ylal

anin

e an

d ty

rosi

ne;

incr

ease

d al

pha­

feto

prot

ein;

ur

inar

y su

ccin

ylac

eton

e

Liv

er f

ailu

re; r

enal

tubu

lar

acid

osis

, fa

ilure

to th

rive

, vom

iting

, dia

rrhe

a,

rick

ets,

por

phyr

ia­l

ike

cris

es, h

epat

ic

carc

inom

a

Phen

ylal

anin

e an

d ty

rosi

ne

rest

rict

ion

(die

t use

d in

co

njun

ctio

n w

ith N

TB

C o

r un

til li

ver

tran

spla

ntat

ion

is

poss

ible

)

Non

e

Tyro

sine

mia

type

II

Tyro

sine

am

inot

rans

fera

seIn

crea

sed

bloo

d ph

enyl

alan

ine

and

tyro

sine

Inte

llect

ual d

isab

ility

, pho

toph

obia

, pa

lmar

ker

atos

isPh

enyl

alan

ine

and

tyro

sine

re

stri

ctio

nN

one

Hom

ocys

tinur

ia

(pyr

idox

ine

nonr

espo

nsiv

e)

Cys

tath

ioni

ne ß

­syn

thas

eH

omoc

ystin

e in

blo

od a

nd

urin

e, in

crea

sed

met

hion

ine

and

decr

ease

d cy

stin

e in

bl

ood

Dis

loca

ted

lens

es, m

arfa

noid

­lik

e sk

elet

al c

hang

es, i

ntra

vasc

ular

th

rom

bose

s, in

telle

ctua

l dis

abili

ty,

oste

open

ia

Met

hion

ine

rest

rict

ion;

cy

stin

e, b

etai

ne, a

nd f

olat

e su

pple

men

tatio

n

Bet

aine

100

mg/

kg/

day

oral

ly

Hom

ocys

tinur

ia

(pyr

idox

ine

resp

onsi

ve)

Cys

tath

ioni

ne ß

­syn

thas

eSa

me

as a

bove

Sam

e as

abo

veN

one

Pyri

doxi

ne

25–5

00 m

g/da

y or

ally

Map

le s

yrup

uri

ne

dise

ase

Bra

nche

d­ch

ain

keto

ac

id d

ehyd

roge

nase

co

mpl

ex

Ele

vate

d bl

ood,

uri

ne, a

nd

CSF

leuc

ine,

isol

euci

ne,

valin

e, a

llois

oleu

cine

Neo

nata

l for

m: p

oor

feed

ing,

flu

ctua

ting

tone

, apn

ea, s

eizu

res,

dea

th,

deve

lopm

enta

l del

ay; v

aria

nt f

orm

s:

mild

er k

etoa

cido

sis

trig

gere

d by

pr

otei

n lo

ad o

r ill

ness

Val

ine,

isol

euci

ne, a

nd

leuc

ine

rest

rict

ion

Onl

y in

var

iant

fo

rms

whe

re

100–

300

mg/

day

oral

thia

min

may

en

hanc

e re

sidu

al

enzy

me

activ

ity

Appendix A. Overview of Metabolic Disorders

Page 3: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

321

Am

ino

acid

dis

orde

rs

Dis

orde

rE

nzym

e af

fect

edB

ioch

emic

al fi

ndin

gsC

linic

al f

eatu

res

Nut

ritio

nal m

odifi

catio

nV

itam

in th

erap

y

Org

anic

aci

dem

ias

Glu

tari

c ac

idem

ia

type

IG

luta

ryl­

CoA

de

hydr

ogen

ase

Ele

vate

d bl

ood,

uri

ne, a

nd

CSF

glu

tari

c ac

id a

nd

3­O

H­g

luta

ric

acid

, met

abol

ic

acid

osis

Acu

te m

etab

olic

cri

sis

(vom

iting

, ac

idos

is)

and

neur

olog

ical

de

teri

orat

ion

trig

gere

d by

illn

ess;

m

acro

ceph

aly,

ata

xia,

cho

reoa

thet

osis

, de

velo

pmen

tal d

elay

Lysi

ne a

nd tr

ypto

phan

re

stri

ctio

n; c

arni

tine

supp

lem

enta

tion

May

hav

e pa

rtia

l re

spon

se to

ri

bofla

vin

100–

300

mg/

day

oral

ly

Glu

tari

c ac

idem

ia

type

II

Mul

tiple

acy

l­C

oA

dehy

drog

enas

eE

leva

ted

bloo

d, u

rine

, and

C

SF g

luta

ric

acid

and

OH

­glu

tari

c ac

id, m

etab

olic

ac

idos

is, h

yper

amm

onem

ia,

hypo

glyc

emia

ket

ones

),

impa

ired

fat

ty a

cid

oxid

atio

n

Mal

form

atio

ns in

mos

t sev

ere

form

, hy

poto

nia,

hep

atom

egal

y,

deve

lopm

enta

l del

ay

Mild

pro

tein

and

fat

re

stri

ctio

n; f

astin

g av

oida

nce,

±

car

nitin

e su

pple

men

tatio

n

±R

ibofl

avin

10

0–30

0 m

g/d

oral

ly

Isov

aler

ic a

cide

mia

Isov

aler

yl­C

oA

dehy

drog

enas

eE

leva

ted

bloo

d, u

rine

, and

C

SF is

oval

eric

aci

d;

met

abol

ic a

cido

sis,

hy

pera

mm

onem

ia,

hypo

glyc

emia

Poor

fee

ding

, vom

iting

, sw

eaty

­fee

t bo

dy o

dor,

seiz

ures

, com

a, d

eath

if

untr

eate

d

Leu

cine

res

tric

tion;

gly

cine

an

d ca

rniti

ne

supp

lem

enta

tion

Non

e

Met

hylm

alon

ic

acid

emia

Met

hylm

alon

yl­C

oA

mut

ase

Met

abol

ic a

cido

sis,

ket

onur

ia,

hypo

glyc

emia

, hy

pera

mm

onem

ia,

hype

rgly

cine

mia

Let

harg

y, f

ailu

re to

thri

ve, v

omiti

ng,

hepa

tom

egal

y, h

ypot

onia

, com

a, d

eath

if

unt

reat

ed

Isol

euci

ne, m

ethi

onin

e,

valin

e, a

nd th

reon

ine

rest

rict

ion;

car

nitin

e su

pple

men

tatio

n

Non

e

Met

hylm

alon

ic

acid

emia

Cob

alam

in p

roce

ssin

g de

fect

(h

ydro

xoco

bala

min

or

aden

osyl

coba

lam

in)

Met

abol

ic a

cido

sis,

ket

onur

ia,

± h

omoc

ystin

e in

uri

ne a

nd

bloo

d, ±

fol

ate

defic

ienc

y

Let

harg

y, f

ailu

re to

thri

ve, v

omiti

ng,

hepa

tom

egal

y, h

ypot

onia

, com

a, d

eath

if

unt

reat

ed

Car

nitin

e su

pple

men

tatio

n,

DR

I fo

r pr

otei

nH

ydro

xoco

bala

min

1–

2 m

g da

ily to

w

eekl

y in

tram

uscu

larl

yPr

opio

nic

acid

emia

Prop

iony

l­C

oA

carb

oxyl

ase

Met

abol

ic a

cido

sis,

ket

onur

ia,

hype

rgly

cine

mia

, hy

pogl

ycem

ia,

hype

ram

mon

emia

Poor

fee

ding

, vom

iting

, let

harg

y,

hypo

toni

a, s

eizu

res,

com

a, d

eath

if

untr

eate

d, d

evel

opm

enta

l del

ay

Isol

euci

ne, m

ethi

onin

e,

valin

e, a

nd th

reon

ine

rest

rict

ion;

car

nitin

e su

pple

men

tatio

n

Non

e

Ure

a cy

cle

diso

rder

s

N­a

cety

lglu

tam

ate

synt

hase

(N

AG

S)

defic

ienc

y

N­a

cety

lglu

tam

ate

synt

hase

Hyp

eram

mon

emia

Let

harg

y, v

omiti

ng, a

pnea

, com

a an

d de

ath

if u

ntre

ated

; int

elle

ctua

l di

sabi

lity

Prot

ein

rest

rict

ion;

ess

entia

l am

ino

acid

and

arg

inin

e su

pple

men

tatio

n (i

n co

njun

ctio

n w

ith

carb

amyl

glut

amat

e)

Non

e

(con

tinue

d)

Appendix A. Overview of Metabolic Disorders

Page 4: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

322

Am

ino

acid

dis

orde

rs

Dis

orde

rE

nzym

e af

fect

edB

ioch

emic

al fi

ndin

gsC

linic

al f

eatu

res

Nut

ritio

nal m

odifi

catio

nV

itam

in th

erap

y

Orn

ithin

e tr

ansc

arba

myl

ase

(OT

C)

defic

ienc

y;

inte

llect

ual

disa

bilit

y

Orn

ithin

e tr

ansc

arba

myl

ase

Hyp

eram

mon

emia

, re

spir

ator

y al

kalo

sis

Let

harg

y, v

omiti

ng, a

pnea

, com

a an

d de

ath

if u

ntre

ated

; int

elle

ctua

l di

sabi

lity

Prot

ein

rest

rict

ion;

ess

entia

l am

ino

acid

and

arg

inin

e su

pple

men

tatio

n (i

n co

njun

ctio

n w

ith n

itrog

en

scav

engi

ng m

edic

atio

ns)

Non

e

Car

bam

oyl

phos

phat

e sy

nthe

tase

(C

PS)

defic

ienc

y

Car

bam

oyl p

hosp

hate

sy

nthe

tase

Hyp

eram

mon

emia

, re

spir

ator

y al

kalo

sis

Let

harg

y, v

omiti

ng, a

pnea

, com

a an

d de

ath

if u

ntre

ated

; int

elle

ctua

l di

sabi

lity

Prot

ein

rest

rict

ion;

ess

entia

l am

ino

acid

and

arg

inin

e su

pple

men

tatio

n (i

n co

njun

ctio

n w

ith n

itrog

en

scav

engi

ng m

edic

atio

ns)

Non

e

Citr

ullin

emia

Arg

inin

osuc

cini

c sy

nthe

tase

Hyp

eram

mon

emia

, re

spir

ator

y al

kalo

sis

Let

harg

y, v

omiti

ng, a

pnea

, com

a an

d de

ath

if u

ntre

ated

; int

elle

ctua

l di

sabi

lity

Prot

ein

rest

rict

ion;

ess

entia

l am

ino

acid

and

arg

inin

e su

pple

men

tatio

n (i

n co

njun

ctio

n w

ith n

itrog

en

scav

engi

ng m

edic

atio

ns)

Non

e

Arg

inin

osuc

cini

c ac

idur

iaA

rgin

inos

ucci

nic

lyas

eH

yper

amm

onem

ia,

resp

irat

ory

alka

losi

sL

etha

rgy,

vom

iting

, apn

ea, c

oma

and

deat

h if

unt

reat

ed; c

irrh

osis

, in

telle

ctua

l dis

abili

ty

Prot

ein

rest

rict

ion;

ess

entia

l am

ino

acid

and

arg

inin

e su

pple

men

tatio

n (i

n co

njun

ctio

n w

ith n

itrog

en

scav

engi

ng m

edic

atio

ns)

Non

e

Arg

inem

iaA

rgin

ase

±H

yper

amm

onem

iaSp

astic

dip

legi

a an

d de

ath

if u

ntre

ated

, in

telle

ctua

l dis

abili

tyR

estr

ict p

rote

in; e

ssen

tial

amin

o ac

id s

uppl

emen

tatio

n (i

n co

njun

ctio

n w

ith n

itrog

en

scav

engi

ng m

edic

atio

ns)

Non

e

Hyp

eror

nith

inem

ia­

hype

ram

mon

emia

­ ho

moc

itrul

linur

ia

(HH

H s

yndr

ome)

Def

ect i

n m

itoch

ondr

ial

tran

spor

t of

orni

thin

eH

yper

orni

thin

emia

, hy

pera

mm

onem

ia,

hom

ocitr

ullin

uria

, hy

perg

luta

min

emia

, hy

pera

lani

nem

ia

Ata

xia,

leth

argy

, vom

iting

, ch

oreo

athe

tosi

s, s

eizu

res,

com

a,

deve

lopm

enta

l del

ay

Prot

ein

rest

rict

ion;

arg

inin

e su

pple

men

tatio

nN

one

Dis

orde

rs o

f car

bohy

drat

e m

etab

olis

m

Gal

acto

sem

iaH

epat

ic a

nd e

ryth

rocy

te

epim

eras

eG

alac

tose

in b

lood

and

uri

neH

epat

omeg

aly,

jaun

dice

, vom

iting

Res

tric

t gal

acto

se; c

alci

um

and

vita

min

D

supp

lem

enta

tion

Non

e

Gal

acto

sem

iaG

alac

toki

nase

Gal

acto

se in

blo

od a

nd u

rine

Cat

arac

tsR

estr

ict g

alac

tose

; cal

cium

an

d vi

tam

in D

su

pple

men

tatio

n

Non

e

Appendix A. Overview of Metabolic Disorders

Page 5: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

323

Am

ino

acid

dis

orde

rs

Dis

orde

rE

nzym

e af

fect

edB

ioch

emic

al fi

ndin

gsC

linic

al f

eatu

res

Nut

ritio

nal m

odifi

catio

nV

itam

in th

erap

y

Gal

acto

sem

iaG

alac

tose

­1­p

hosp

hate

ur

idyl

tran

sfer

ase

Gal

acto

se in

blo

od a

nd u

rine

; re

nal F

anco

ni s

yndr

ome

Cat

arac

ts, d

iarr

hea,

fai

lure

to th

rive

, he

pato

meg

aly,

jaun

dice

, vom

iting

, E

. col

i sep

sis

Res

tric

t gal

acto

se; c

alci

um

and

vita

min

D

supp

lem

enta

tion

Non

e

Pyru

vate

de

hydr

ogen

ase

com

plex

defi

cien

cy

Pyru

vate

deh

ydro

gena

seE

leva

ted

bloo

d py

ruva

te a

nd

lact

ate,

ele

vate

d bl

ood

alan

ine

Hyp

oton

ia, f

ailu

re to

thri

ve, s

eizu

res,

±

dysm

orph

ism

, dev

elop

men

tal d

elay

Res

tric

t car

bohy

drat

e,

prov

ide

high

­fat

die

t (50

%

of e

nerg

y) o

r ke

toge

nic

diet

Thi

amin

50

–100

mg/

day

oral

lyH

ered

itary

fru

ctos

e in

tole

ranc

eA

ldol

ase

BD

ecre

ased

blo

od g

luco

se,

phos

phat

e, in

crea

sed

fruc

tose

in

uri

ne a

nd b

lood

Nau

sea,

dia

rrhe

a, v

omiti

ng,

hypo

glyc

emia

aft

er f

ruct

ose

inge

stio

n;

if u

ntre

ated

: fai

lure

to th

rive

, liv

er a

nd

kidn

ey d

isea

se, s

eizu

res,

dea

th

Res

tric

t fru

ctos

e, s

ucro

se,

and

sorb

itol

Non

e

Fatt

y ac

id o

xida

tion

dis

orde

rs

VL

CA

D d

efici

ency

Ver

y lo

ng­c

hain

ac

yl­C

oA

dehy

drog

enas

e;

long

­cha

in h

ydro

xyac

yl­

CoA

deh

ydro

gena

se

Hyp

oket

otic

hyp

ogly

cem

ia,

±hy

pera

mm

onem

iaC

ardi

omyo

path

y, f

ailu

re to

thri

ve,

hypo

toni

a, h

epat

omeg

aly,

leth

argy

, co

ma

Fast

ing

avoi

danc

e; ±

lo

ng­c

hain

fat

res

tric

tion

(10–

25 %

of

ener

gy);

MC

T

oil,

±ca

rniti

ne, a

nd ±

es

sent

ial f

atty

aci

d su

pple

men

tatio

n

Non

eL

CH

AD

defi

cien

cy

MC

AD

defi

cien

cyM

ediu

m­c

hain

acy

l­C

oA

dehy

drog

enas

eH

ypok

etot

ic h

ypog

lyce

mia

, m

ild h

yper

amm

onem

ia a

nd

met

abol

ic a

cido

sis

Met

abol

ic d

ecom

pens

atio

n w

ith f

astin

g (l

etha

rgy,

vom

iting

, com

a) a

nd

hepa

tom

egal

y

Fast

ing

and

MC

T a

void

ance

; fa

t 30

% o

f en

ergy

; ±

carn

itine

Non

e

SCA

D d

efici

ency

Shor

t­ch

ain

acyl

­CoA

de

hydr

ogen

ase;

sh

ort­

chai

n hy

drox

yacy

l­C

oA d

ehyd

roge

nase

Hyp

oket

otic

hyp

ogly

cem

ia,

±hy

pera

mm

onem

ia,

met

abol

ic a

cido

sis

Poor

fee

ding

, vom

iting

, fai

lure

to

thri

ve; ±

deve

lopm

enta

l del

ayFa

stin

g av

oida

nce;

±ca

rniti

neN

one

SCH

AD

defi

cien

cy

Ada

pted

fro

m H

endr

icks

KM

, Dug

gan

C, W

alke

r W

A. M

anua

l of

Pedi

atri

c N

utri

tion,

3rd

edi

tion.

200

0, H

amilt

on, O

ntar

io; B

.C. D

ecke

r, In

c. H

amilt

on, O

ntar

io.

Appendix A. Overview of Metabolic Disorders

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325L.E. Bernstein et al. (eds.), Nutrition Management of Inherited Metabolic Diseases: Lessons from Metabolic University, DOI 10.1007/978-3-319-14621-8,© Springer International Publishing Switzerland 2015

B.1 Website to Accompany the Book

Nutrition Management of Inherited Metabolic Disorders: Lessons from Metabolic University: http://www.imd­nutrition­management.com (online diet calculations)

B.2 Educational Websites for Dietitians

Educational tools developed by the Inherited Metabolic Disease Clinic at Colorado Children’s Hospital, Aurora, CO: http://www.ucdenver.edu/academics/colleges/medicalschool/departments/pediatrics/subs/genetics/clinical/IMDNutrition/Pages/IMDNutritionHome.aspxNew England Consortium of Metabolic Programs,

Boston Children’s Hospital, Boston, MA: http://newenglandconsortium.org

Genetic Metabolic Dietitians International: www.gmdi.org

Metabolic Genetics and Nutrition Program, Emory University, Atlanta GA: http://genetics.emory.edu/clinical/index.php?assetID=261

Cristine M. Trahms Program for Phenylketonuria, University of Washington, Seattle WA: http://depts.washington.edu/pku/

B.3 Parent/Support Groups Sites with Educational Materials

National PKU Alliance: http://www.npkua.org/Education.aspx

Canadian PKU and Allied Disorders: http://www.canpku.org/canpku­resources

B.4 Industry Websites with Educational Materials

Nutrica Learning Center: http://www.nutriciale­arningcenter.com

Vitaflo: http://www.vitaflousa.com/resources/PKU Academy: www.pkuacademy.orgMead Johnson Nutrition: http://www.meadjohn­

son.com/pediatrics/us­en/clinical­support/metabolic­toolkit

Appendix B. Websites containing Educational Resources for Dietitians Managing Inherited Metabolic Diseases

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327L.E. Bernstein et al. (eds.), Nutrition Management of Inherited Metabolic Diseases: Lessons from Metabolic University, DOI 10.1007/978-3-319-14621-8,© Springer International Publishing Switzerland 2015

c.1 carbohydrate

Carbohydrate is provided as IV dextrose.Dextrose contains 3.4 kcal/g.Dextrose solutions range from 5 % (D5W) to 25 % (D25W) by weight.Solutions containing 12.5 % dextrose and higher cannot be given peripherally and require a central

line (peripherally inserted central catheter or PICC, port or central access).

Percent solution CHO content (g/100 mL) kcal/100 mL

D5W (5 %) 5 17D10W (10 %) 10 34D25W (25 %) 25 85

c.2 Protein

Protein is provided as crystalline amino acid solutions.TrophAmine 6 % and 10 % (B. Braun) and Aminosyn­PF 7 % (Hospira) are frequently used

solutions.Amino acid solutions provide 4 kcal/g.

Percent solution (%) Amino acid content (g/100 mL) kcal/100 mL

3.0 3 123.5 3.5 145.0 5 2010 10 40

c.3 Fat

Fat is provided as a lipid emulsion.Intralipid 10 % and Intralipid 20 % are frequently used lipid emulsions.

Percent solution of fat emulsion kcal/100 mL

10 % 1.1 kcal/mL20 % 2.0 kcal/mL

Appendix c. Nutrient composition of Frequently Used Parenteral Fluids

Page 8: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

329L.E. Bernstein et al. (eds.), Nutrition Management of Inherited Metabolic Diseases: Lessons from Metabolic University, DOI 10.1007/978-3-319-14621-8,© Springer International Publishing Switzerland 2015

Appendix D. Studies Describing Protein and Energy Intakes

Page 9: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

330

Aut

hor

and

year

Con

ditio

nR

epor

ting

coun

try

Prot

ein

inta

keE

nerg

y in

take

Oth

er

Aco

sta

(199

4)

[1]

PKU

N =

25

from

dia

gnos

isPe

riod

1 =

0–3

mon

ths

of a

gePe

riod

2 =

3–6

mon

ths

of a

ge

USA

Fed

prot

ein

subs

titut

eG

roup

A 3

.12

g/10

0 kc

alG

roup

B 2

.74

g/10

0 kc

al

Gro

up A

Peri

od 1

,580

± 2

8 kc

al a

nd

peri

od 2

,680

± 3

0 kc

al/k

gG

roup

BPe

riod

1,5

91 ±

30

kcal

and

pe

riod

2,7

09 ±

34

kcal

/kg

Pros

pect

ive

long

itudi

nal s

tudy

Gro

up A

infa

nts

tole

rate

d in

crea

se

Phe

Gro

up A

impr

oved

gro

wth

vs.

G

roup

B

Schä

efer

(19

94)

[2]

PKU

N =

82

(0–6

yea

rs)

Ger

man

yN

atur

al/to

tal p

rote

in g

/kg/

day

<2

year

s ~0

.7 ±

0.1

/2.2

± 0

.25

3–6

year

s ~0

.5 ±

0.1

/2 ±

0.2

5 g/

kg/d

ay

–R

etro

spec

tive

revi

ew. S

ome

grow

th r

etar

datio

n in

firs

t 2 y

ears

Tho

mas

(19

94)

[3]

PA N =

12

Dx

(3–7

90 d

ays)

Saud

i Ara

bia

Initi

al c

onsu

lt 1.

0–3

g/kg

Fina

l con

sult

1.6–

3 g/

kg11

5–14

5 kc

al/k

g99

–273

kca

l/kg

Ret

rosp

ectiv

e re

view

. Pro

tein

re

com

men

datio

ns in

clud

e am

ino

acid

sup

plem

ents

. Int

akes

pr

escr

ibed

bas

ed o

n R

oss

nutr

ition

su

ppor

t pro

toco

lSc

hulz

(19

95)

[4]

PKU

N =

99

(12–

29 y

ears

)G

roup

s ±

pro

tein

su

pple

men

t

Ger

man

yG

roup

with

pro

tein

sup

plem

ent:

112–

138

%

RD

AG

roup

with

out p

rote

in s

uppl

emen

t: 90

–104

% R

DA

Prot

ein:

8–2

0 %

ene

rgy

Fat:

11–4

0 %

CH

O: 3

6–80

%Pr

otei

n: 5

–16

%Fa

t: 26

–47

%C

HO

: 43–

66 %

Ret

rosp

ectiv

e re

view

. Die

tary

su

rvey

. Gro

up w

ithou

t pro

tein

su

pple

men

t had

inad

equa

te in

take

of

som

e nu

trie

nts

and

high

er P

he

leve

ls

Mac

Don

ald

(199

6) [

5]PK

UN

= 1

9 (1

–16

year

s)U

KA

lloca

ted

prot

ein

g/kg

/day

<1

year

: 32–

5 ye

ars:

2.5

6–10

yea

rs: 2

.0>

11 y

ears

: 1.5

Mea

n (S

D, r

ange

)10

5 %

(17

%,

77 %

–178

%)

EA

R

Pros

pect

ive

long

itudi

nal s

tudy

No

corr

elat

ion

with

ene

rgy

inta

ke

and

plas

ma

Phe

leve

lD

istr

ibut

ion

of p

rote

in s

ubst

itute

af

fect

s 24

h P

he v

aria

bilit

yK

rauc

h (1

996)

[6

]PK

UL

ow­

and

high

­to

lera

nce

grou

ps a

t va

riou

s ag

es

Ger

man

yR

ecom

men

ded

prot

ein

inta

ke:

3 m

onth

s: 2

.2 g

/kg

10 m

onth

s: 2

.0 g

/kg

3 ye

ars:

1.7

g/k

g8

year

s: 1

.4 g

/kg

12 y

ears

: 1.1

g/k

g16

yea

rs: 0

.9 g

/kg

“Ave

rage

ene

rgy

inta

ke”

Exc

ess

of s

ever

al a

min

o ac

id f

or

som

e pa

tient

s w

hen

fed

prot

ein

at

thes

e le

vels

Aco

sta

(199

8)

[7]

PKU

N =

35

(0.5

–6 m

onth

s)U

SAM

ean

17.3

± 0

.6 g

660

± 1

8 kc

alPr

ospe

ctiv

e lo

ngitu

dina

l stu

dyN

orm

al g

row

th s

een,

sup

port

ing

MR

C r

ecom

men

datio

ns f

or

supp

lem

enta

ry p

rote

in o

f 3

g/kg

/da

y

Appendix D. Studies Describing Protein and Energy Intakes

Page 10: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

331

Aut

hor

and

year

Con

ditio

nR

epor

ting

coun

try

Prot

ein

inta

keE

nerg

y in

take

Oth

er

Tho

mas

(2

000)

[8]

Org

anic

aci

dem

iaN

= 6

USA

All

child

ren

cons

umed

en

ergy

<R

DA

for

age

Ret

rosp

ectiv

e re

view

. Ade

quat

e gr

owth

see

n at

<R

DA

ene

rgy.

M

ay b

e re

late

d to

dec

reas

ed

mob

ility

Arn

old

(200

2)

[9]

PKU

N =

28

(2–1

8 ye

ars)

USA

Tota

l pro

tein

g/d

ay >

RD

A:

2–4

year

s: 3

04–

7 ye

ars:

35

g7–

11 y

ear:

40

>12

yea

rs: 5

0–55

–R

etro

spec

tive

char

t rev

iew

.N

o ge

nera

l gro

wth

impa

irm

ent.

Hyp

opre

albu

min

emia

pre

dict

ed

linea

r gr

owth

res

tric

tion

Yan

nice

lli

(200

3) [

10]

MM

A/P

AN

= 1

6 (0

.03–

3 ye

ars)

USA

Tota

l pro

tein

g: m

ean

± S

D:

<6

mon

ths:

15

± 0

.96

to <

12 m

onth

s: 1

8.3

± 1

.11

to <

4 ye

ars:

25.

1 ±

2.4

6

Ene

rgy

kcal

mea

n ±

SD

:<

6 m

onth

s: 6

45 ±

10

6 to

<12

mon

ths:

741

± 9

21

to <

4 ye

ars:

1,0

62 ±

100

Mul

ticen

ter

outp

atie

nt s

tudy

. T

hose

incr

easi

ng in

leng

th

achi

eved

98

% a

nd 1

15 %

of

WH

O/F

AO

/UN

U e

nerg

y an

d pr

otei

n in

take

s, r

espe

ctiv

ely.

T

hose

that

did

not

ach

ieve

d 87

%

and

104

%, r

espe

ctiv

ely

Gill

ingh

am

(200

3) [

11]

LC

HA

D/T

FP

defic

ienc

yN

= 1

0 (1

–10

year

s)

Mea

n 2.

5 g/

kg/d

ay (

1.3–

5 g/

kg/d

ay)

Prot

ein

12 %

ene

rgy:

MC

T: 1

2L

CT

: 11

CH

O: 6

6

Pros

pect

ive

stud

y. N

o gr

owth

de

ficie

ncie

s ob

serv

ed

Dob

bela

ere

(200

3) [

12]

PKU

N =

20

(0.7

–7 y

ears

)Fr

ance

Mea

n ±

SD

Tota

l pro

tein

: 1.6

7 ±

0.2

3 g/

kg/d

ayN

atur

al p

rote

in m

ean

9.8

g/da

y

67–1

2 %

RD

APr

ospe

ctiv

e, c

ross

­sec

tiona

l stu

dy(M

ean

89 %

)Pa

tient

s sh

orte

d an

d lig

hter

than

re

fere

nce

popu

latio

ns. N

o re

latio

nshi

p be

twee

n pr

otei

n an

d ca

lori

e in

take

and

gro

wth

re

tard

atio

nM

acD

onal

d (2

004)

[13

]PK

UN

= 2

5 (2

–10

year

s)U

KPr

otei

n eq

uiva

lent

at 2

g/k

g an

d 1.

2 g/

kg–

Ran

dom

ized

cro

ssov

er s

tudy

Poor

er P

he c

ontr

ol s

een

with

lo

wer

am

ount

of

prot

ein

subs

titut

eH

oeks

ma

(200

5) [

14]

PKU

Net

herl

ands

Mea

n ±

SD

Mea

n ±

SD

Ret

rosp

ectiv

e st

udy.

Hei

ght

grow

th n

ot c

lear

ly r

elat

ed to

pr

otei

n in

take

. Nat

ural

pro

tein

ra

ther

than

tota

l pro

tein

cor

rela

ted

with

hea

d ci

rcum

fere

nce

N =

174

(0–

36 m

onth

s)To

tal p

rote

in: 2

.33

± 0

.42

g/kg

/day

For

first

yea

r of

life

Nat

ural

pro

tein

0.9

9 ±

0.3

4 g/

kg/d

ay27

kJ ±

2.6

kJ/

kg/d

ay

(con

tinue

d)

Appendix D. Studies Describing Protein and Energy Intakes

Page 11: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

332

Aut

hor

and

year

Con

ditio

nR

epor

ting

coun

try

Prot

ein

inta

keE

nerg

y in

take

Oth

er

Aco

sta

(200

5)

[15]

UC

DN

= 1

7M

edia

n 4.

4 m

onth

s(0

.22–

38.8

4 m

onth

s)Pr

otoc

ol: p

rote

in

~50

% F

AO

/WH

O/

UN

U o

r as

tole

rate

d.

40–7

0 %

of

prot

ein

from

med

ical

foo

d

USA

Inta

kes

as %

FA

O/W

HO

/UN

U0

to <

6 m

onth

s: 7

06

to <

12 m

onth

s: 6

212

to <

24 m

onth

s: 8

924

to <

36 m

onth

s: 5

936

to <

48 m

onth

s: 3

5, 8

1

Inta

kes

as %

FA

O/W

HO

/U

NU

0 to

<6

mon

ths:

110

6 to

<12

mon

ths:

110

12 to

<24

mon

ths:

89

24 to

<36

mon

ths:

45.

132

36 to

<48

mon

ths:

70.

89

Lon

gitu

dina

l stu

dy. A

dequ

ate

inta

kes

resu

lted

in a

nabo

lism

and

lin

ear

grow

th w

ithou

t inc

reas

ing

amm

onia

. Som

e st

ill f

aile

d to

in

gest

rec

omm

ende

d pr

otei

n an

d en

ergy

inta

kes

Toua

ti (2

006)

[1

6]M

MA

and

PA

N =

137

(85

MM

A, 5

2 PA

)n

= 5

6 D

x 19

70–1

987

n =

81

Dx

1988

–200

5n

= 3

9 se

vere

dis

orde

rD

x >

1988

Fran

ceSe

vere

pat

ient

s on

am

ino

acid

(A

A)

supp

lem

ents

:40

% a

t 3 y

ears

, 50

% 6

–11

year

sIn

take

at 3

, 6, 1

1 ye

ars

g/kg

/day

:G

roup

with

out A

A s

uppl

emen

ts:

Nat

ural

pro

tein

: 0.9

2, 0

.78

0.77

Gro

up w

ith A

A s

uppl

emen

ts:

Nat

ural

pro

tein

: 0.7

5, 0

.74

0.54

Tota

l pro

tein

: 1.2

9, 1

.17,

0.8

9

Ene

rgy

inta

ke k

cal/k

g/da

yN

o A

A s

uppl

emen

ts v

s.

AA

sup

plem

ents

:3

year

s: 9

3.1

vs. 8

5.9

6 ye

ars:

80.

7 vs

. 70.

211

yea

rs: 6

6.4

vs. 5

2.2

Ret

rosp

ectiv

e re

view

. Sin

ce 1

988

all p

atie

nts

trea

ted

with

low

­pr

otei

n di

et to

tole

ranc

e an

d on

ly

occa

sion

al u

se o

f A

A

supp

lem

ents

. Met

abol

ic c

ontr

ol

not d

iffe

rent

bet

wee

n gr

oups

Nag

asak

a (2

006)

[17

]O

TC

N =

7Fo

llow

­up

age

3–5

year

s

Japa

nIn

fanc

y 1.

3–2.

0 g/

kgO

lder

chi

ldre

n 0.

7–1.

1 g/

kgA

ccor

ding

to a

ge

requ

irem

ents

1,

350–

1,66

0 kc

al

Pros

pect

ive

stud

y to

det

erm

ine

effe

ct o

f re

intr

oduc

tion

of

l­ar

gini

ne o

n nu

triti

on, g

row

th,

and

urea

cyc

le f

unct

ion

Hue

mer

(20

07)

[18]

PKU

N =

34

Mea

n 8.

7 ye

ars

(2–1

5 ye

ars)

Aus

tria

Mea

n to

tal p

rote

in in

take

g/k

g/da

y:1.

2 ±

0.3

124

% (

77–1

9) D

AC

H 2

000

Nat

ural

pro

tein

0.3

± 2

g/k

g/da

y

–Pr

ospe

ctiv

e lo

ngitu

dina

l stu

dy

with

cro

ss­s

ectio

nal c

ompo

nent

. A

sig

nific

ant c

orre

latio

n of

fa

t­fr

ee m

ass

with

inta

ke o

f na

tura

l pro

tein

rat

her

than

tota

l pr

otei

nSi

ngh

(200

7)

[19]

UC

DU

SAE

AA

sup

plem

ent t

o 50

% p

rote

in in

take

:In

take

dat

a fr

om p

atie

nt c

hart

s fr

om a

utho

r’s

clin

ic. D

iets

mus

t be

indi

vidu

aliz

ed d

epen

ding

on

seve

rity

of

diso

rder

0 to

<3

mon

ths:

2.1

–1.4

g/k

g/d

150–

101

kcal

/kg

3–6

mon

ths:

1.5

–1.2

100–

809

to <

12 m

onth

s: 1

.2–1

.180

–75

1 to

<4

year

s: 1

8.6–

12.5

g/d

ay80

0–1,

040

kcal

/day

4 to

<7

year

s: 2

1.0–

19.0

1,19

6–1,

435

7 to

<11

yea

rs: 2

2.0–

24.0

1,19

9–1,

693

Appendix D. Studies Describing Protein and Energy Intakes

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333

Aut

hor

and

year

Con

ditio

nR

epor

ting

coun

try

Prot

ein

inta

keE

nerg

y in

take

Oth

er

Ahr

ing

(200

9)

[20]

PKU

10­c

ente

r su

rvey

Eur

ope

Am

ino

acid

sup

plem

enta

tion

decr

ease

d w

ith

age

(g/k

g/da

y)In

fanc

y: ~

2–3

1–10

yea

rs: ~

1.2–

21–

10 y

ears

: ~2–

3 (4

0 %

cen

ters

)>

10 y

ears

: ~1.

0–1.

5

“Nor

mal

” en

ergy

inta

ke

acco

rdin

g to

nat

iona

l or

Eur

opea

n re

com

men

datio

ns

Stru

ctur

ed q

uest

ionn

aire

to a

sses

s pr

actic

e di

ffer

ence

s. S

ubst

antia

l va

riat

ion

in d

ieta

ry g

uide

lines

am

ong

coun

trie

s an

d w

ithin

co

untr

ies.

No

cons

ensu

s op

inio

n ba

sed

on s

olid

sci

entifi

c ra

tiona

leH

ause

r (2

011)

[2

1]M

MA

N =

29

(2–3

5 ye

ars)

Nat

ural

pro

tein

±

amin

o ac

id

supp

lem

ents

±

isol

euci

ne o

r va

line

USA

Tota

l pro

tein

0.3

8–2.

94 g

/kg/

day

Nat

ural

pro

tein

0.2

9–2.

12 g

/kg/

day

(33–

265

% R

DA

)18

/29

had

amin

o ac

id s

uppl

emen

ts 0

.21–

1.95

g/k

g/da

y

23–8

6 kc

al/k

g/da

yPr

ospe

ctiv

e st

udy.

Wid

e va

riat

ion

in th

e di

etar

y tr

eatm

ent o

f M

MA

. RE

E m

ay b

e ov

eres

timat

ed w

ith s

tand

ard

equa

tions

due

to a

ltere

d bo

dy

com

posi

tion

Roc

ha (

2012

) [2

2]PK

UN

= 8

9 (3

–30

year

s)Po

rtug

alPr

otei

n (g

/kg/

day)

:E

nerg

y kc

al/d

:Pr

ospe

ctiv

e st

udy.

Pre

vale

nce

of

over

wei

ght a

nd o

besi

ty, b

ody

fat

perc

enta

ge, a

nd c

entr

al o

besi

ty

wer

e co

mpa

rabl

e to

con

trol

s,

how

ever

hig

her

than

idea

l

<10

yea

rsN

atur

al p

rote

in

1.03

± 0

.51

<10

yea

rs: 2

,171

±

10–1

6 ye

ars:

2,4

67 ±

256

>16

yea

rs: 2

,415

± 3

75Pr

otei

n su

ppl.:

1.

46 ±

0.4

710

–16

year

sN

atur

al p

rote

in

0.65

± 0

.36

Prot

ein

supp

lem

ent

1.42

± 0

.43

>16

yea

rsN

atur

al p

rote

in

0.53

± 0

.35

Prot

ein

supp

l. 1.

07 ±

0.4

2

Gok

men

­Oze

l (2

012)

[23

]G

A1

N =

20

N =

9 w

ithou

t en

ceph

alop

athi

c cr

isis

(E

C)

N =

11

with

EC

(2.2

–24.

1 ye

ars)

UK

Patie

nts

with

out E

C:

Prot

ein

inta

ke (

med

ian,

ran

ge)

Nat

ural

: 4/6

(1.

3, 1

.3–1

.7 g

/kg)

Prot

ein

subs

titut

e (1

.6,1

.3–1

.7 g

/kg)

2/6

give

n ge

nera

l pro

tein

res

tric

tion

Patie

nts

with

EC

:T

reat

men

t var

ied.

Low

­pro

tein

die

t onl

y.

Prot

ein

subs

titut

e ce

ased

ove

r tim

e

–R

etro

spec

tive

revi

ew. D

ieta

ry

trea

tmen

t dep

ende

nt o

n ag

e of

di

agno

sis

and

sym

ptom

sev

erity

(con

tinue

d)

Appendix D. Studies Describing Protein and Energy Intakes

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334

Aut

hor

and

year

Con

ditio

nR

epor

ting

coun

try

Prot

ein

inta

keE

nerg

y in

take

Oth

er

Ada

m (

2012

) [2

4]U

CD

16 I

MD

cen

ters

N =

175

N =

123

(0–1

6 ye

ars)

N =

52

(>16

yea

rs)

UK

Pres

crib

ed p

rote

in in

take

as

WH

O/F

AO

/U

NU

200

7 sa

fe le

vel t

itrat

ed to

met

abol

ic

cont

rol (

g/kg

/day

):

0–6

mon

ths:

2

7–12

mon

ths:

1.6

1–

10 y

ears

: 1.3

11

–16

year

s: 0

.9

>16

yea

rs: 0

.8V

aria

ble

use

of E

AA

–C

ross

­sec

tiona

l dat

a de

taili

ng

diet

ary

prac

tices

fro

m 1

6 IM

D

cent

ers

in th

e U

K, c

olle

cted

by

ques

tionn

aire

Ada

m (

2013

) [2

4, 2

5]U

CD

N =

464

Eur

ope

Var

iabl

e fo

r ea

ch c

ondi

tion/

age/

coun

try

Use

of

EA

A s

uppl

emen

ts v

arie

dSu

rvey

: die

tary

trea

tmen

t var

ies

wid

ely

betw

een

cent

ers

Boy

(20

13)

[26]

GA

1N

= 3

3 (0

–6 y

ears

)A

sym

ptom

atic

n =

29

Dys

toni

c n

= 4

Ger

man

yA

sym

ptom

atic

pat

ient

sN

atur

al p

rote

in

Mea

n 10

9 %

(m

edia

n 11

5 %

, SD

20

%)

DA

CH

rec

omm

enda

tions

A

min

o ac

id s

uppl

emen

t

Mea

n 10

8 %

(m

edia

n 11

0 %

, SD

14

%)

of

GA

1 gu

idel

ine

reco

mm

enda

tions

Dys

toni

c pa

tient

s:

Mea

n 12

1 %

(m

edia

n 12

2 %

, SD

8 %

) of

D

AC

H r

ecom

men

datio

ns

Am

ino

acid

sup

plem

ent

M

ean

104

% (

med

ian

103

%, S

D 7

%)

of

GA

1 gu

idel

ine

reco

mm

enda

tions

Asy

mpt

omat

ic p

atie

nts

10

6 %

(m

edia

n 10

2 %

SD

13

%)

of D

AC

H

reco

mm

enda

tions

D

ysto

nic

patie

nts

(mea

n 11

0 %

, med

ian

108

%,

SD 8

%)

Pros

pect

ive

long

itudi

nal s

tudy

. A

min

o ac

id s

uppl

emen

t and

en

ergy

inta

ke d

ecre

ased

with

age

in

asy

mpt

omat

ic g

roup

. Nor

mal

w

eigh

t gai

n in

asy

mpt

omat

ic

grou

p bu

t im

pair

ed in

dys

toni

c gr

oup.

Red

uctio

n in

hei

ght

z­sc

ore

for

both

gro

ups

Ald

ámiz

­ E

chev

arrí

a (2

013)

[27

]

PKU

BH

4 n

= 3

8Sp

ain

2 ye

ars

follo

w­u

p gr

oup

g/kg

/day

:D

iet o

nly:

–R

etro

spec

tive

revi

ew. G

row

th

impa

irm

ent a

lso

iden

tified

in

patie

nts

on B

H4

desp

ite h

ighe

r in

take

s of

nat

ural

pro

tein

Die

t onl

y n

= 7

6Fo

llow

ed u

p fo

r 2

and

5 ye

ars

N

atur

al p

rote

in 0

.4 (

0.3–

0.5)

To

tal p

rote

in 1

.4 (

1.0–

2.4)

BH

4 gr

oup:

N

atur

al p

rote

in 0

.8 (

0.5–

1.0)

To

tal p

rote

in 1

.5 (

0.7–

2.2)

5 ye

ar f

ollo

w­u

p gr

oup

final

inta

ke:

D

iet o

nly:

N

atur

al p

rote

in 0

.3 (

0.2–

0.4)

To

tal p

rote

in 1

.6 (

1.2–

1.9)

BH

4 gr

oup:

N

atur

al p

rote

in 0

.9 (

0.7–

1.1)

To

tal p

rote

in 1

.2 (

0.7–

1)

Appendix D. Studies Describing Protein and Energy Intakes

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335L.E. Bernstein et al. (eds.), Nutrition Management of Inherited Metabolic Diseases: Lessons from Metabolic University, DOI 10.1007/978-3-319-14621-8,© Springer International Publishing Switzerland 2015

Carnitine ester Acylcarnitine name Clinical correlate

C0 Free carnitine Primary carnitine deficiency, CPT1C3 Propionylcarnitine PA, MMAs, mitochondrialC3­DC Malonylcarnitine Malonic aciduriaC4 Butyrylcarnitine SCAD, IBD, MADD (GA II)C4­OH 3­Hydroxybutyrylcarnitine SCHADDC5:1 Tiglylcarnitine BKT, MHBDDC5 Isovalerylcarnitine 3­methyl­butyrylcarnitine IVA, SBCAD, MADDC5­OH Hydroxyisovalerylcarnitine

2­methyl­3­hydroxybutyrylcarnitine3MCC, holocarboxylase, biotinidase, BKT, HMG­CoA lyase, 3MGA

C5­DC Glutarylcarnitine GA I, MADDC8 Octanoylcarnitine MCADD, MADDC14:1 Tetradecanoylcarnitine VLCADDC16 Hexadecanoylcarnitine CPT II, CACTC16­OH Hydroxyhexadecanoylcarnitine LCHADD/TFP

Appendix E. Quick Guide to Acylcarnitine Profiles

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337L.E. Bernstein et al. (eds.), Nutrition Management of Inherited Metabolic Diseases: Lessons from Metabolic University, DOI 10.1007/978-3-319-14621-8,© Springer International Publishing Switzerland 2015

Step 1. Nutrition assessment

Definition and purpose Nutrition assessment is a systematic approach to collect, record, and interpret relevant data from patients, clients, family members, caregivers, and other individuals and groups. Nutrition assessment is an ongoing, dynamic process that involves initial data collection as well as continual reassessment and analysis of the patient’s/client’s status compared to specified criteria

Data sources/tools for assessment Screening or referral formPatient/client interviewMedical or health recordsConsultation with other caregivers, including family membersCommunity­based surveys and focus groupsStatistical reports, administrative data, and epidemiologic studies

Types of data collected Food­ and nutrition­related historyAnthropometric measurementsBiochemical data, medical tests, and proceduresNutrition­focused physical examination findingsClient history

Nutrition assessment components Review data collected for factors that affect nutrition and health statusCluster individual data elements to identify a nutrition diagnosis as described in diagnosis reference sheetsIdentify standards by which data will be compared

Critical thinking Determining appropriate data to collectDetermining the need for additional informationSelecting assessment tools and procedures that match the situationApplying assessment tools in valid and reliable waysDistinguishing relevant from irrelevant dataDistinguishing important from unimportant dataValidating the data

Determination for continuation of care

If upon completion of an initial or reassessment it is determined that the problem cannot be modified by further nutrition care, discharge or discontinuation from this episode of nutrition care may be appropriate

Step 2. Nutrition diagnosis

Definition and purpose Nutrition diagnosis is a food and nutrition professional’s identification and labeling of an existing nutrition problem that the food and nutrition professional is responsible for treating independently

Data sources/tools for diagnosis Organized assessment data that is clustered for comparison with defining characteristics of suspected diagnoses as listed in diagnosis reference sheets

Appendix F. Nutrition care Process

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338

Nutrition diagnosis components The nutrition diagnosis is expressed using nutrition diagnostic terms and the etiologies, signs, and symptoms that have been identified in the reference sheets describing each diagnosis. There are three distinct parts to a nutrition diagnostic statement 1. The nutrition diagnosis describes alterations in a patient’s/client’s status.

A diagnostic label may be accompanied by a descriptor such as “altered,” “excessive,” or “inadequate”

2. Etiology is a factor gathered during the nutrition assessment that contributes to the existence or the maintenance of pathophysiological, psychosocial, situational, developmental, cultural, and/or environmental problems

The etiology is preceded by the words “related to” Identifying the etiology will lead to the selection of a nutrition

intervention aimed at resolving the underlying cause of the nutrition problem whenever possible

Major and minor etiologies may result from medical, genetic, or environmental factors

3. Signs/symptoms (defining characteristics) The defining characteristics are a typical cluster of signs and symptoms that

provide evidence that a nutrition diagnosis exists The signs and symptoms are preceded by the words “as evidenced by” Signs are the observations of a trained clinician Symptoms are changes reported by the patient/client

Nutrition diagnostic statement A well­written nutrition diagnostic statement should be: Clear and concise Specific to a patient/client Limited to a single client problem Accurately related to one etiology Based on signs and symptoms from the assessment data

Critical thinking Finding patterns and relationships among the data and possible causesMaking inferencesStating the problem clearly and singularlySuspending judgmentMaking interdisciplinary connectionsRuling in/ruling out specific diagnoses

Determination for continuation of care

Because the nutrition diagnosis step involves naming and describing the problem, the determination for continuation of care follows the nutrition diagnosis step. If a food and nutrition professional does not find a nutrition diagnosis, a patient/client may be referred back to the primary provider. If the potential exists for a nutrition diagnosis to develop, a food and nutrition professional may establish an appropriate method and interval for follow­up

Step 3. Nutrition intervention

Definition and purpose A nutrition intervention is a purposefully planned action(s) designed with the intent of changing a nutrition­related behavior, risk factor, environmental condition, or aspect of health status. Nutrition intervention consists of two interrelated components: planning and intervention. The nutrition intervention is typically directed toward resolving the nutrition diagnosis or the nutrition etiology. Less often, it is directed at relieving signs and symptoms

Data sources/tools for interventions The American Dietetic Association’s Evidence­Based Nutrition Practice Guides or other guidelines from professional organizationsThe American Dietetic Association’s Evidence Analysis Library and other secondary evidence such as the Cochrane LibraryCurrent research literatureResults of outcome management studies or quality improvement projects

Appendix F. Nutrition Care Process

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339

Nutrition intervention components Planning Prioritize diagnoses based on urgency, impact, and available resources Write a nutrition prescription based on a patient’s/client’s individualized

recommended dietary intake of energy and/or selected foods or nutrients based on current reference standards and dietary guidelines and a patient’s/client’s health condition and nutrition diagnosis

Collaborate with the patient/client to identify goals of the intervention for each diagnosis

Select specific intervention strategies that are focused on the etiology of the problem and that are known to be effective based on best current knowledge and evidence

Define time and frequency of care, including intensity, duration, and follow­up

Implementation Collaborate with a patient/client and other caregivers to carry out the plan

of care Communicate the plan of nutrition care Modify the plan of care as needed Follow­up and verify that the plan is being implemented Revise strategies based on changes in condition or response to intervention

Critical thinking Setting goals and prioritizingDefining the nutrition prescription or basic planMaking interdisciplinary connectionsMatching intervention strategies with patient/client needs, nutrition diagnoses, and valuesChoosing from among alternatives to determine a course of actionSpecifying the time and frequency of care

Determination for continuation of care

If a patient/client has met intervention goals or is not at this time able/ready to make needed changes, the food and nutrition professional may discharge the client from this episode of care as part of the planned intervention

Step 4. Nutrition monitoring and evaluation

Definition and purpose Nutrition monitoring and evaluation identifies the amount of progress made and whether goals/expected outcomes are being met. Nutrition monitoring and evaluation identifies outcomes relevant to the nutrition diagnosis and intervention plans and goals

Data sources/tools for monitoring and evaluation

Self­monitoring data or data from other records including forms, spreadsheets, and computer programsAnthropometric measurements, biochemical data, medical tests, and proceduresPatient/client surveys, pretests, posttests, and/or questionnairesMail or telephone follow­up

Types of outcomes measured Nutrition­related historyAnthropometric measurementsBiochemical data, medical tests, and proceduresNutrition­focused physical findings

Appendix F. Nutrition Care Process

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340

Nutrition monitoring and evaluation components

This step includes three distinct and interrelated processes: 1. Monitor progress: Check patient/client understanding and compliance with plan Determine whether the intervention is being implemented as prescribed Provide evidence that the plan/intervention strategy is or is not changing

patient/client behavior or status; identify other positive or negative outcomes

Gather information indicating reasons for lack of progress Support conclusions with evidence 2. Measure outcomes: Select outcome indicators that are relevant to the nutrition diagnosis or

signs or symptoms, nutrition goals, medical diagnosis, and outcomes and quality management goals

3. Evaluate outcomes: Compare current findings with previous status, intervention goals, and/or

reference standardsCritical thinking Selecting appropriate indicators/measures

Using appropriate reference standard for comparisonDefining where patient/client is in terms of expected outcomesExplaining variance from expected outcomesDetermining factors that help or hinder progress

Determination for continuation of care

Based on the findings, the food and nutrition professional may actively continue care, or if nutrition care is complete or no further change is expected, discharge the patient/client. If nutrition care is to be continued, reassessment may result in refinements to the diagnosis and intervention. If care does not continue, a patient/client may still be monitored for a change in status and reentry to nutrition care at a later date

Reprinted with permission from the Academy of Nutrition and Dietetics. Copyright 2013. All Rights Reserved

Appendix F. Nutrition Care Process

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341L.E. Bernstein et al. (eds.), Nutrition Management of Inherited Metabolic Diseases: Lessons from Metabolic University, DOI 10.1007/978-3-319-14621-8,© Springer International Publishing Switzerland 2015

Appendix G. Dietary Reference Intakes (DRIs)

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342

G.1

Es

tim

ated

Ave

rag

e R

equ

irem

ents

(Rep

rin

ted

wit

h p

erm

issi

on

fro

m t

he

Nat

ion

al A

cad

emy

of S

cien

ces,

co

urt

esy

of t

he

Nat

ion

al A

cad

emie

s P

ress

, Was

hin

gto

n, D

.c.)

Lif

e st

age

grou

pC

alci

um

(mg/

day)

CH

O

(g/d

ay)

Prot

ein

(g/k

g/da

y)

Vit

A

(μg/

day)

a

Vit

C

(mg/

day)

Vit

D

(μg/

day)

Vit

E

mg/

day)

b

Thi

amin

(m

g/da

y)

Rib

o­fla

vin

(mg/

day)

Nia

cin

(mg/

day)

c

Vit

B6

(mg/

day)

Fola

te

(μg/

day)

d

Vit

B12

g/da

y)

Cop

per

(μg/

day)

Iodi

ne

(μg/

day)

Iron

(m

g/da

y)

Mag

ne­

sium

(m

g/da

y)

Mol

yb­

denu

m

(μg/

day)

Phos

­ph

orus

(m

g/da

y)Se

leni

um

(μg/

day)

Zin

c (m

g/da

y)

Infa

nts

0–

6 m

onth

s

6–

12 m

onth

s1.

06.

92.

5

Chi

ldre

n

1–

3 ye

ars

500

100

0.87

210

1310

50.

40.

45

0.4

120

0.7

260

653.

065

1338

017

2.5

4–

8 ye

ars

800

100

0.76

275

2210

60.

50.

56

0.5

160

1.0

340

654.

111

017

405

234.

0

Mal

es

9–

13 y

ears

1,10

010

00.

7644

539

109

0.7

0.8

90.

825

01.

554

073

5.9

200

261,

055

357.

0

14

–18

year

s1,

100

100

0.73

630

6310

121.

012

1.1

330

2.0

685

957.

734

033

1,05

545

8.5

19

–30

year

s80

010

00.

6662

575

1012

1.0

121.

132

02.

070

095

633

034

580

459.

4

31

–50

year

s80

010

00.

6662

575

1012

1.0

121.

132

02.

070

095

635

034

580

459.

4

51

–70

year

s80

010

00.

6662

575

1012

1.0

121.

432

02.

070

095

635

034

580

459.

4

>

70 y

ears

1,00

010

00.

6662

575

1012

1.0

121.

432

02.

070

095

635

034

580

459.

4

Fem

ales

9–

13 y

ears

1,10

010

00.

7642

039

109

0.7

0.8

90.

825

01.

554

073

5.7

200

261,

055

357.

0

14

–18

year

s1,

100

100

0.71

485

5610

120.

90.

911

1.0

330

2.0

685

957.

930

033

1,05

545

7.3

19

–30

year

s80

010

00.

6650

060

1012

0.9

0.9

111.

132

02.

070

095

8.1

255

3458

045

6.8

31

–50

y80

010

00.

6650

060

1012

0.9

0.9

111.

132

02.

070

095

8.1

265

3458

045

6.8

51

–70

year

s1,

000

100

0.66

500

6010

120.

90.

911

1.3

320

2.0

700

955

265

3458

045

6.8

>

70 y

ears

1,00

010

00.

6650

060

1012

0.9

0.9

111.

332

02.

070

095

526

534

580

456.

8

Appendix G. Dietary Reference Intakes (DRIs)

Page 21: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

343

Preg

nanc

y

14

–18

year

s1,

000

135

0.88

530

6610

121.

21.

214

1.6

520

2.2

785

160

2333

540

1,05

549

10.5

19

–30

year

s80

013

50.

8855

070

1012

1.2

1.2

141.

652

02.

280

016

022

290

4058

049

9.5

31

–50

year

s80

013

50.

8855

070

1012

1.2

1.2

141.

652

02.

280

016

022

300

4058

049

9.5

Lac

tatio

n

14

–18

year

s1,

000

160

1.05

885

9610

161.

21.

313

1.7

450

2.4

985

209

730

035

1,05

559

10.9

19

–30

year

s80

016

01.

0590

010

010

161.

21.

313

1.7

450

2.4

1,00

020

96.

525

536

580

5910

.4

31

–50

year

s80

016

01.

0590

010

010

161.

21.

313

1.7

450

2.4

1,00

020

96.

526

536

580

5910

.4

Sour

ces:

Die

tary

Ref

eren

ce I

ntak

es f

or C

alci

um, P

hosp

horo

us, M

agne

sium

, Vita

min

D, a

nd F

luor

ide

(199

7);

Die

tary

Ref

eren

ce I

ntak

es f

or T

hiam

in, R

ibofl

avin

, Nia

cin,

Vita

min

B6,

Fola

te, V

itam

in B

12,

Pant

othe

nic

Aci

d, B

iotin

, and

Cho

line

(199

8); D

ieta

ry R

efer

ence

Inta

kes

for V

itam

in C

, Vita

min

E, S

elen

ium

, and

Car

oten

oids

(200

0); D

ieta

ry R

efer

ence

Inta

kes

for V

itam

in A

, Vita

min

K, A

rsen

ic, B

oron

, C

hrom

ium

, Cop

per,

Iodi

ne, I

ron,

Man

gane

se, M

olyb

denu

m, N

icke

l, Si

licon

, Van

adiu

m, a

nd Z

inc

(200

1); D

ieta

ry R

efer

ence

Int

akes

for

Ene

rgy,

Car

bohy

drat

e, F

iber

, Fat

, Fat

ty A

cids

, Cho

lest

erol

, Pro

tein

, an

d A

min

o A

cids

(20

02/2

005)

; and

Die

tary

Ref

eren

ce I

ntak

es f

or C

alci

um a

nd V

itam

in D

(20

11).

The

se r

epor

ts m

ay b

e ac

cess

ed v

ia w

ww

.nap

.edu

An

Est

imat

ed A

vera

ge R

equi

rem

ent

(EA

R)

is t

he a

vera

ge d

aily

nut

rien

t in

take

lev

el e

stim

ated

to

mee

t th

e re

quir

emen

ts o

f ha

lf o

f th

e he

alth

y in

divi

dual

s in

a g

roup

. EA

Rs

have

not

bee

n es

tabl

ishe

d fo

r vi

tam

in K

, pan

toth

enic

aci

d, b

iotin

, cho

line,

chr

omiu

m, fl

uori

de, m

anga

nese

, or

othe

r nu

trie

nts

not y

et e

valu

ated

via

the

DR

I pr

oces

sa A

s re

tinol

act

ivity

equ

ival

ents

(R

AE

s). 1

RA

E =

1 μ

g re

tinol

, 12 μg

β­c

arot

ene,

24 μg

α­c

arot

ene,

or

24 μ

g β­

cryp

toxa

nthi

n. T

he R

AE

for

die

tary

pro

vita

min

A c

arot

enoi

ds is

twof

old

grea

ter

than

ret

inol

eq

uiva

lent

s (R

E),

whe

reas

the

RA

E f

or p

refo

rmed

vita

min

A is

the

sam

e as

RE

b As α­

toco

pher

ol. α

­Toc

ophe

rol i

nclu

des

RR

R-α

- toc

ophe

rol,

the

only

for

m o

f α­

toco

pher

ol th

at o

ccur

s na

tura

lly in

foo

ds, a

nd th

e 2R

­ste

reoi

som

eric

for

ms

of α

­toc

ophe

rol (

RR

R­,

RSR

­, R

RS­

, and

RSS

­α­

toco

pher

ol)

that

occ

ur i

n fo

rtifi

ed f

oods

and

sup

plem

ents

. It

doe

s no

t in

clud

e th

e 2S

­ste

reoi

som

eric

for

ms

of α

­toc

ophe

rol

(SR

R­,

SSR

­, S

RS­

, an

d SS

S­α­

toco

pher

ol),

als

o fo

und

in f

ortifi

ed f

oods

and

su

pple

men

tsc A

s ni

acin

equ

ival

ents

(N

E).

1 m

g of

nia

cin

= 6

0 m

g of

tryp

toph

and A

s di

etar

y fo

late

equ

ival

ents

(D

FE).

1 D

FE =

1 μ

g fo

od f

olat

e =

0.6

μg

of f

olic

aci

d fr

om f

ortifi

ed f

ood

or a

s a

supp

lem

ent c

onsu

med

with

foo

d =

0.5

μg

of a

sup

plem

ent t

aken

on

an e

mpt

y st

omac

h

Appendix G. Dietary Reference Intakes (DRIs)

Page 22: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

344

G.2

R

eco

mm

end

ed D

ieta

ry A

llow

ance

s an

d A

deq

uat

e In

take

s, V

itam

ins

(Rep

rin

ted

wit

h p

erm

issi

on

fr

om

th

e N

atio

nal

Aca

dem

y o

f Sci

ence

s, c

ou

rtes

y o

f th

e N

atio

nal

Aca

dem

ies

Pre

ss, W

ash

ing

ton

, D.c

.)

Lif

e st

age

grou

p

Vita

min

A

(μg

/da

y)a

Vita

min

C

(m

g/da

y)

Vita

min

D

(μg

/da

y)b,

c

Vita

min

E

(m

g/da

y)d

Vita

min

K

(μg

/da

y)T

hiam

in

(mg/

day)

Rib

oflav

in

(mg/

day)

Nia

cin

(mg/

day)

e

Vita

min

B6

(mg/

day)

Fola

te

(μg/

day)

f

Vita

min

B

12 (μg

/da

y)Pa

ntot

heni

c ac

id (

mg/

day)

Bio

tin

(μg/

day)

Cho

line

(mg/

day)

g

Infa

nts

0–

6 m

onth

s40

0*40

*10

4*2.

0*0.

2*0.

3*2*

0.1*

65*

0.4*

1.7*

5*12

5*

6–12

mon

ths

500*

50*

105*

2.5*

0.3*

0.4*

4*0.

3*80

*0.

5*1.

8*6*

150*

Chi

ldre

n

1–3

year

s30

015

156

30*

0.5

0.5

60.

515

00.

92*

8*20

0*

4–8

year

s40

025

157

55*

0.6

0.6

80.

620

01.

23*

12*

250*

Mal

es

9–13

yea

rs60

045

1511

60*

0.9

0.9

121.

030

01.

84*

20*

375*

14

–18

year

s90

075

1515

75*

1.2

1.3

161.

340

02.

45*

25*

550*

19

–30

year

s90

090

1515

120*

1.2

1.3

161.

340

02.

45*

30*

550*

31

–50

year

s90

090

1515

120*

1.2

1.3

161.

340

02.

45*

30*

550*

51

–70

year

s90

090

1515

120*

1.2

1.3

161.

740

02.

4h5*

30*

550*

>

70 y

ears

900

9020

1512

0*1.

21.

316

1.7

400

2.4h

5*30

*55

0*Fe

mal

es

9–13

yea

rs60

045

1511

60*

0.9

0.9

121.

030

01.

84*

20*

375*

14

–18

year

s70

065

1515

75*

1.0

1.0

141.

240

0i2.

45*

25*

400*

19

–30

year

s70

075

1515

90*

1.1

1.1

141.

340

0i2.

45*

30*

425*

31

–50

year

s70

075

1515

90*

1.1

1.1

141.

340

0i2.

45*

30*

425*

51

–70

year

s70

075

1515

90*

1.1

1.1

141.

540

02.

4h5*

30*

425*

>

70 y

ears

700

7520

1590

*1.

11.

114

1.5

400

2.4h

5*30

*42

5*Pr

egna

ncy

14

–18

year

s75

080

1515

75*

1.4

1.4

181.

960

0j2.

66*

30*

450*

19

–30

year

s77

085

1515

90*

1.4

1.4

181.

960

0j2.

66*

30*

450*

31

–50

year

s77

085

1515

90*

1.4

1.4

181.

960

0j2.

66*

30*

450*

Appendix G. Dietary Reference Intakes (DRIs)

Page 23: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

345

Lac

tatio

n

14–1

8 ye

ars

1,20

011

515

1975

*1.

41.

617

2.0

500

2.8

7*35

*55

0*

19–3

0 ye

ars

1,30

012

015

1990

*1.

41.

617

2.0

500

2.8

7*35

*55

0*

31–5

0 ye

ars

1,30

012

015

1990

*1.

41.

617

2.0

500

2.8

7*35

*55

0*

Sour

ces:

Die

tary

Ref

eren

ce In

take

s fo

r Cal

cium

, Pho

spho

rous

, Mag

nesi

um, V

itam

in D

, and

Flu

orid

e (1

997)

; Die

tary

Ref

eren

ce In

take

s fo

r Thi

amin

, Rib

oflav

in, N

iaci

n, V

itam

in

B6,

Fol

ate,

Vita

min

B12

, Pa

ntot

heni

c A

cid,

Bio

tin,

and

Cho

line

(199

8);

Die

tary

Ref

eren

ce I

ntak

es f

or V

itam

in C

, V

itam

in E

, Se

leni

um,

and

Car

oten

oids

(20

00);

Die

tary

R

efer

ence

Int

akes

for

Vita

min

A, V

itam

in K

, Ars

enic

, Bor

on, C

hrom

ium

, Cop

per,

Iodi

ne, I

ron,

Man

gane

se, M

olyb

denu

m, N

icke

l, Si

licon

, Van

adiu

m, a

nd Z

inc

(200

1); D

ieta

ry

Ref

eren

ce In

take

s fo

r Wat

er, P

otas

sium

, Sod

ium

, Chl

orid

e, a

nd S

ulfa

te (2

005)

; and

Die

tary

Ref

eren

ce In

take

s fo

r Cal

cium

and

Vita

min

D (2

011)

. The

se re

port

s m

ay b

e ac

cess

ed

via

ww

w.n

ap.e

duT

his

tabl

e (t

aken

fro

m th

e D

RI

repo

rts,

see

ww

w.n

ap.e

du)

pres

ents

Rec

omm

ende

d D

ieta

ry A

llow

ance

s (R

DA

s) i

n bo

ld t

ype

and

Ade

quat

e In

take

s (A

Is)

in o

rdin

ary

type

fol

­lo

wed

by

an a

ster

isk

(*).

An

RD

A is

the

aver

age

daily

die

tary

inta

ke le

vel s

uffic

ient

to m

eet t

he n

utri

ent r

equi

rem

ents

of

near

ly a

ll (9

7–98

%)

heal

thy

indi

vidu

als

in a

gro

up. I

t is

cal

cula

ted

from

an

Est

imat

ed A

vera

ge R

equi

rem

ent (

EA

R).

If

suffi

cien

t sci

entifi

c ev

iden

ce is

not

ava

ilabl

e to

est

ablis

h an

EA

R a

nd th

us c

alcu

late

an

RD

A, a

n A

I is

usu

ally

de

velo

ped.

For

hea

lthy

brea

stfe

d in

fant

s, a

n A

I is

the

mea

n in

take

. The

AI

for

othe

r lif

e st

age

and

gend

er g

roup

s is

bel

ieve

d to

cov

er th

e ne

eds

of a

ll he

alth

y in

divi

dual

s in

the

grou

ps, b

ut la

ck o

f da

ta o

r un

cert

aint

y in

the

data

pre

vent

s be

ing

able

to s

peci

fy w

ith c

onfid

ence

the

perc

enta

ge o

f in

divi

dual

s co

vere

d by

this

inta

kea A

s re

tinol

act

ivity

equ

ival

ents

(R

AE

s). 1

RA

E =

1 μ

g re

tinol

, 12 μg

β­c

arot

ene,

24 μg

α­c

arot

ene,

or

24 μ

g β­

cryp

toxa

nthi

n. T

he R

AE

for

die

tary

pro

vita

min

A c

arot

enoi

ds is

tw

ofol

d gr

eate

r th

an r

etin

ol e

quiv

alen

ts (

RE

), w

here

as th

e R

AE

for

pre

form

ed v

itam

in A

is th

e sa

me

as R

Eb A

s ch

olec

alci

fero

l. 1 μg

cho

leca

lcif

erol

= 4

0 IU

vita

min

Dc U

nder

the

assu

mpt

ion

of m

inim

al s

unlig

htd A

s α­

toco

pher

ol. α­

Toco

pher

ol i

nclu

des

RR

R-α

- toc

ophe

rol,

the

only

for

m o

f α­

toco

pher

ol t

hat

occu

rs n

atur

ally

in

food

s, a

nd t

he 2

R­s

tere

oiso

mer

ic f

orm

s of

α­t

ocop

hero

l (R

RR

­, R

SR­,

RR

S­, a

nd R

SS­α

­toc

ophe

rol)

that

occ

ur in

for

tified

foo

ds a

nd s

uppl

emen

ts. I

t doe

s no

t inc

lude

the

2S­s

tere

oiso

mer

ic f

orm

s of

α­t

ocop

hero

l (SR

R­,

SSR

­, S

RS­

, and

SS

S­α­

toco

pher

ol),

als

o fo

und

in f

ortifi

ed f

oods

and

sup

plem

ents

e As

niac

in e

quiv

alen

ts (

NE

). 1

mg

of n

iaci

n =

60

mg

of tr

ypto

phan

; 0–6

mon

ths

= p

refo

rmed

nia

cin

(not

NE

)f A

s di

etar

y fo

late

equ

ival

ents

(D

FE).

1 D

FE =

1 μ

g fo

od f

olat

e =

0.6

μg

of f

olic

aci

d fr

om f

ortifi

ed f

ood

or a

s a

supp

lem

ent c

onsu

med

with

foo

d =

0.5

μg

of a

sup

plem

ent t

aken

on

an

empt

y st

omac

hg A

lthou

gh A

Is h

ave

been

set

for

cho

line,

ther

e ar

e fe

w d

ata

to a

sses

s w

heth

er a

die

tary

sup

ply

of c

holin

e is

nee

ded

at a

ll st

ages

of

the

life

cycl

e, a

nd it

may

be

that

the

chol

ine

requ

irem

ent c

an b

e m

et b

y en

doge

nous

syn

thes

is a

t som

e of

thes

e st

ages

h Bec

ause

10–

30 %

of

olde

r pe

ople

may

mal

abso

rb f

ood­

boun

d B

12, i

t is

advi

sabl

e fo

r th

ose

olde

r th

an 5

0 ye

ars

to m

eet t

heir

RD

A m

ainl

y by

con

sum

ing

food

s fo

rtifi

ed w

ith B

12

or a

sup

plem

ent c

onta

inin

g B

12i In

vie

w o

f evi

denc

e lin

king

fola

te in

take

with

neu

ral t

ube

defe

cts

in th

e fe

tus,

it is

reco

mm

ende

d th

at a

ll w

omen

cap

able

of b

ecom

ing

preg

nant

con

sum

e 40

0 μg

from

sup

plem

ents

or

for

tified

foo

ds in

add

ition

to in

take

of

food

fol

ate

from

a v

arie

d di

etJ I

t is

assu

med

that

wom

en w

ill c

ontin

ue c

onsu

min

g 40

0 μg

fro

m s

uppl

emen

ts o

r fo

rtifi

ed f

ood

until

thei

r pr

egna

ncy

is c

onfir

med

and

they

ent

er p

rena

tal c

are,

whi

ch o

rdin

arily

oc

curs

aft

er th

e en

d of

the

peri

conc

eptio

nal p

erio

d –

the

criti

cal t

ime

for

form

atio

n of

the

neur

al tu

be

Appendix G. Dietary Reference Intakes (DRIs)

Page 24: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

346

G.3

R

eco

mm

end

ed D

ieta

ry A

llow

ance

s an

d A

deq

uat

e In

take

s, E

lem

ents

(Rep

rin

ted

wit

h p

erm

issi

on

fr

om

th

e N

atio

nal

Aca

dem

y o

f Sci

ence

s, c

ou

rtes

y o

f th

e N

atio

nal

Aca

dem

ies

Pre

ss, W

ash

ing

ton

, D.c

.)

Lif

e st

age

grou

p

Cal

cium

(m

g/da

y)C

hrom

ium

g/da

y)

Cop

per

(μg/

day)

Fluo

ride

(m

g/da

y)

Iodi

ne

(μg/

day)

Iron

(m

g/da

y)M

agne

sium

(m

g/da

y)M

anga

nese

(m

g/da

y)M

olyb

denu

m

(μg/

day)

Phos

phor

us

(mg/

day)

Sele

nium

g/da

y)

Zin

c (m

g/da

y)Po

tass

ium

(g

/day

)So

dium

(g

/day

)C

hlor

ide

(g/d

ay)

Infa

nts

0–

6 m

onth

s20

0*0.

2*20

0*0.

01*

110*

0.27

*30

*0.

003*

2*10

0*15

*2*

0.4*

0.12

*0.

18*

6–

12 m

onth

s26

0*5.

5*22

0*0.

5*13

0*11

75*

0.6*

3*27

5*20

*3

0.7*

0.37

*0.

57*

Chi

ldre

n

1–3

year

s70

011

*34

00.

7*90

780

1.2*

1746

020

33.

0*1.

0*1.

5*

4–8

year

s1,

000

15*

440

1*90

1013

01.

5*22

500

305

3.8*

1.2*

1.9*

Mal

es

9–13

yea

rs1,

300

25*

700

2*12

08

240

1.9*

341,

250

408

4.5*

1.5*

2.3*

14

–18

year

s1,

300

35*

890

3*15

011

410

2.2*

431,

250

5511

4.7*

1.5*

2.3*

19

–30

year

s1,

000

35*

900

4*15

08

400

2.3*

4570

055

114.

7*1.

5*2.

3*

31–5

0 ye

ars

1,00

035

*90

04*

150

842

02.

3*45

700

5511

4.7*

1.5*

2.3*

51

–70

year

s1,

000

30*

900

4*15

08

420

2.3*

4570

055

114.

7*1.

3*2.

0*

>70

yea

rs1,

200

30*

900

4*15

08

420

2.3*

4570

055

114.

7*1.

2*1.

8*Fe

mal

es

9–13

yea

rs1,

300

21*

700

2*12

08

240

1.6*

341,

250

408

4.5*

1.5*

2.3*

14

–18

year

s1,

300

24*

890

3*15

015

360

1.6*

431,

250

559

4.7*

1.5*

2.3*

19

–30

year

s1,

000

25*

900

3*15

018

310

1.8*

4570

055

84.

7*1.

5*2.

3*

31–5

0 ye

ars

1,00

025

*90

03*

150

1832

01.

8*45

700

558

4.7*

1.5*

2.3*

51

–70

year

s1,

200

20*

900

3*15

08

320

1.8*

4570

055

84.

7*1.

3*2.

0*

>70

yea

rs1,

200

20*

900

3*15

08

320

1.8*

4570

055

84.

7*1.

2*1.

8*

Appendix G. Dietary Reference Intakes (DRIs)

Page 25: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

347

Preg

nanc

y

14–1

yea

rs1,

300

29*

1,00

03*

220

2740

02.

0*50

1,25

060

124.

7*1.

5*2.

3*

19–3

0 ye

ars

1,00

030

*1,

000

3*22

027

350

2.0*

5070

060

114.

7*1.

5*2.

3*

31–5

0 ye

ars

1,00

030

*1,

000

3*22

027

360

2.0*

5070

060

114.

7*1.

5*2.

3*L

acta

tion

14

–18

year

s1,

300

44*

1,30

03*

290

1036

02.

6*50

1,25

070

135.

1*1.

5*2.

3*

19–3

0 ye

ars

1,00

045

*1,

300

3*29

09

310

2.6*

5070

070

125.

1*1.

5*2.

3*

31–5

0 ye

ars

1,00

045

*1,

300

3*29

09

320

2.6*

5070

070

125.

1*1.

5*2.

3*

Sour

ces:

Die

tary

Ref

eren

ce I

ntak

es f

or C

alci

um, P

hosp

horo

us, M

agne

sium

, Vita

min

D, a

nd F

luor

ide

(199

7); D

ieta

ry R

efer

ence

Int

akes

for

Thi

amin

, Rib

oflav

in, N

iaci

n, V

itam

in B

6, Fo

late

, Vita

min

B12

, Pan

toth

enic

Aci

d, B

iotin

, and

Cho

line

(199

8);

Die

tary

Ref

eren

ce I

ntak

es f

or V

itam

in C

, Vita

min

E, S

elen

ium

, and

Car

oten

oids

(20

00);

and

Die

tary

Ref

eren

ce

Inta

kes

for V

itam

in A

, Vita

min

K, A

rsen

ic, B

oron

, Chr

omiu

m, C

oppe

r, Io

dine

, Iro

n, M

anga

nese

, Mol

ybde

num

, Nic

kel,

Silic

on, V

anad

ium

, and

Zin

c (2

001)

; Die

tary

Ref

eren

ce In

take

s fo

r W

ater

, Pot

assi

um, S

odiu

m, C

hlor

ide,

and

Sul

fate

(20

05);

and

Die

tary

Ref

eren

ce I

ntak

es f

or C

alci

um a

nd V

itam

in D

(20

11).

The

se r

epor

ts m

ay b

e ac

cess

ed v

ia w

ww

.nap

.edu

Thi

s ta

ble

(tak

en f

rom

the

DR

I re

port

s, s

ee w

ww

.nap

.edu

) pr

esen

ts R

ecom

men

ded

Die

tary

Allo

wan

ces

(RD

As)

in b

old

type

and

Ade

quat

e In

take

s (A

Is)

in o

rdin

ary

type

fol

low

ed b

y an

ast

eris

k (*

). A

n R

DA

is th

e av

erag

e da

ily d

ieta

ry in

take

leve

l suf

ficie

nt to

mee

t the

nut

rien

t req

uire

men

ts o

f nea

rly

all (

97–9

8 %

) hea

lthy

indi

vidu

als

in a

gro

up. I

t is

calc

ulat

ed fr

om

an E

stim

ated

Ave

rage

Req

uire

men

t (E

AR

). I

f su

ffici

ent

scie

ntifi

c ev

iden

ce i

s no

t av

aila

ble

to e

stab

lish

an E

AR

and

thu

s ca

lcul

ate

an R

DA

, an

AI

is u

sual

ly d

evel

oped

. For

hea

lthy

brea

stfe

d in

fant

s, a

n A

I is

the

mea

n in

take

. The

AI

for

othe

r lif

e st

age

and

gend

er g

roup

s is

bel

ieve

d to

cov

er t

he n

eeds

of

all

heal

thy

indi

vidu

als

in t

he g

roup

s, b

ut l

ack

of d

ata

or

unce

rtai

nty

in th

e da

ta p

reve

nts

bein

g ab

le to

spe

cify

with

con

fiden

ce th

e pe

rcen

tage

of

indi

vidu

als

cove

red

by th

is in

take

Appendix G. Dietary Reference Intakes (DRIs)

Page 26: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

348

G.4 Recommended Dietary Allowances and Adequate Intakes, Total Water and Macronutrients (Reprinted with permission from the National Academy of Sciences, courtesy of the National Academies Press, Washington, D.c.)

Life stage group

Total watera (L/day)

Carbohydrate (g/day)

Total fiber (g/day)

Fat (g/day)

Linoleic acid (g/day)

α­Linolenic acid (g/day)

Proteinb (g/day)

Infants 0–6 months 0.7* 60* ND 31* 4.4* 0.5* 9.1* 6–12 months 0.8* 95* ND 30* 4.6* 0.5* 11.0Children 1–3 years 1.3* 130 19* NDc 7* 0.7* 13 4–8 years 1.7* 130 25* ND 10* 0.9* 19Males 9–13 years 2.4* 130 31* ND 12* 1.2* 34 14–18 years 3.3* 130 38* ND 16* 1.6* 52 19–30 years 3.7* 130 38* ND 17* 1.6* 56 31–50 years 3.7* 130 38* ND 17* 1.6* 56 51–70 years 3.7* 130 30* ND 14* 1.6* 56 >70 years 3.7* 130 30* ND 14* 1.6* 56Females 9–13 years 2.1* 130 26* ND 10* 1.0* 34 14–18 years 2.3* 130 26* ND 11* 1.1* 46 19–30 years 2.7* 130 25* ND 12* 1.1* 46 31–50 years 2.7* 130 25* ND 12* 1.1* 46 51–70 years 2.7* 130 21* ND 11* 1.1* 46 >70 years 2.7* 130 21* ND 11* 1.1* 46Pregnancy 14–18 years 3.0* 175 28* ND 13* 1.4* 71 19–30 years 3.0* 175 28* ND 13* 1.4* 71 31–50 years 3.0* 175 28* ND 13* 1.4* 71Lactation 14–18 3.8* 210 29* ND 13* 1.3* 71 19–30 years 3.8* 210 29* ND 13* 1.3* 71 31–50 years 3.8* 210 29* ND 13* 1.3* 71

Source: Dietary Reference Intakes for Energy, Carbohydrate, Fiber, Fat, Fatty Acids, Cholesterol, Protein, and Amino Acids (2002/2005) and Dietary Reference Intakes for Water, Potassium, Sodium, Chloride, and Sulfate (2005). The report may be accessed via www.nap.eduThis table (take from the DRI reports, see www.nap.edu) presents Recommended Dietary Allowances (RDA) in bold type and Adequate Intakes (AI) in ordinary type followed by an asterisk (*). An RDA is the average daily dietary intake level sufficient to meet the nutrient requirements of nearly all (97–98 %) healthy individuals in a group. It is calculated from an Estimated Average Requirement (EAR). If sufficient scientific evidence is not available to establish an EAR and thus calculate an RDA, an AI is usually developed. For healthy breastfed infants, an AI is the mean intake. The AI for other life stage and gender groups is believed to cover the needs of all healthy individuals in the groups, but lack of data or uncertainty in the data prevents being able to specify with confidence the percentage of individuals covered by this intakeaTotal water includes all water contained in food, beverages, and drinking waterbBased on g protein per kg of body weight for the reference body weight, e.g., for adults 0.8 g/kg body weight for the reference body weightcNot determined

Appendix G. Dietary Reference Intakes (DRIs)

Page 27: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

349

G.5 Acceptable Macronutrient Distribution Ranges (Reprinted with permission from the National Academy of Sciences, courtesy of the National Academies Press, Washington, D.c.)

Macronutrient

Range (percent of energy)

Children, 1–3 years

Children, 4–18 years Adults

Fat 30–40 25–35 20–35 n­6 Polyunsaturated fatty acidsa (linoleic acid) 5–10 5–10 5–10 n­3 Polyunsaturated fatty acidsa (α–linolenic acid) 0.6–1.2 0.6–1.2 0.6–1.2Carbohydrate 45–65 45–65 45–65Protein 5–20 10–30 10–35

Source: Dietary Reference Intakes for Energy, Carbohydrate, Fiber, Fat, Fatty Acids, Cholesterol, Protein, and Amino Acids (2002/2005). The report may be accessed via www.nap.eduaApproximately 10 % of the total can come from longer­ chain n­3 or n­6 fatty acids

G.6 Acceptable Macronutrient Distribution Ranges (Reprinted with permission from the National Academy of Sciences, courtesy of the National Academies Press, Washington, D.c.)

Macronutrient Recommendation

Dietary cholesterol As low as possible while consuming a nutritionally adequate dietTrans fatty acids As low as possible while consuming a nutritionally adequate dietSaturated fatty acids As low as possible while consuming a nutritionally adequate dietAdded sugarsa Limit to no more than 25 % of total energy

Source: Dietary Reference Intakes for Energy, Carbohydrate, Fiber, Fat, Fatty Acids, Cholesterol, Protein, and Amino Acids (2002/2005). The report may be accessed via www.nap.eduaNot a recommended intake. A daily intake of added sugars that individuals should aim for to achieve a healthful diet was not set

Appendix G. Dietary Reference Intakes (DRIs)

Page 28: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

350

G.7

To

lera

ble

Up

per

Inta

ke L

evel

s, V

itam

ins

(Rep

rin

ted

wit

h p

erm

issi

on

fro

m t

he

Nat

ion

al A

cad

emy

of S

cien

ces,

c

ou

rtes

y o

f th

e N

atio

nal

Aca

dem

ies

Pre

ss, W

ash

ing

ton

, D.c

.)

Lif

e st

age

grou

p

Vita

min

A

(μg

/da

y)a

Vita

min

C

(m

g/da

y)

Vita

min

D

(μg

/da

y)

Vita

min

E

(m

g/da

y)b,

c

Vita

min

K

Thi

amin

Rib

oflav

in

Nia

cin

(mg/

day)

c

Vita

min

B6

(mg/

day)

Fola

te

(μg/

day)

c

Vita

min

B

12

Pant

othe

nic

acid

Bio

tinC

holin

e (g

/day

)C

arot

enoi

dsd

Infa

nts

0–

6 m

onth

s60

0N

De

25N

DN

DN

DN

DN

DN

DN

DN

DN

DN

DN

DN

D

6–12

mon

ths

600

ND

38N

DN

DN

DN

DN

DN

DN

DN

DN

DN

DN

DN

DC

hild

ren

1–

3 ye

ars

600

400

6320

0N

DN

DN

D10

3030

0N

DN

DN

D1.

0N

D

4–8

year

s90

065

075

300

ND

ND

ND

1540

400

ND

ND

ND

1.0

ND

Mal

es

9–13

yea

rs1,

700

1,20

010

060

0N

DN

DN

D20

6060

0N

DN

DN

D2.

0N

D

14–1

8 ye

ars

2,80

01,

800

100

800

ND

ND

ND

3080

800

ND

ND

ND

3.0

ND

19

–30

year

s3,

000

2,00

010

01,

000

ND

ND

ND

3510

01,

000

ND

ND

ND

3.5

ND

31

–50

year

s3,

000

2,00

010

01,

000

ND

ND

ND

3510

01,

000

ND

ND

ND

3.5

ND

51

–70

year

s3,

000

2,00

010

01,

000

ND

ND

ND

3510

01,

000

ND

ND

ND

3.5

ND

>

70 y

ears

3,00

02,

000

100

1,00

0N

DN

DN

D35

100

1,00

0N

DN

DN

D3.

5N

DFe

mal

es

9–13

yea

rs1,

700

1,20

010

060

0N

DN

DN

D20

6060

0N

DN

DN

D2.

0N

D

14–1

8 ye

ars

2,80

01,

800

100

800

ND

ND

ND

3080

800

ND

ND

ND

3.0

ND

19

–30

year

s3,

000

2,00

010

01,

000

ND

ND

ND

3510

01,

000

ND

ND

ND

3.5

ND

31

–50

year

s3,

000

2,00

010

01,

000

ND

ND

ND

3510

01,

000

ND

ND

ND

3.5

ND

51

–70

year

s3,

000

2,00

010

01,

000

ND

ND

ND

3510

01,

000

ND

ND

ND

3.5

ND

>

70 y

ears

3,00

02,

000

100

1,00

0N

DN

DN

D35

100

1,00

0N

DN

DN

D3.

5N

D

Appendix G. Dietary Reference Intakes (DRIs)

Page 29: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

351

Preg

nanc

y

14–1

8 ye

ars

2,80

01,

800

100

800

ND

ND

ND

3080

800

ND

ND

ND

3.0

ND

19

–30

year

s3,

000

2,00

010

01,

000

ND

ND

ND

3510

01,

000

ND

ND

ND

3.5

ND

31

–50

year

s3,

000

2,00

010

01,

000

ND

ND

ND

3510

01,

000

ND

ND

ND

3.5

ND

Lac

tatio

n

14–1

8 ye

ars

2,80

01,

800

100

800

ND

ND

ND

3080

800

ND

ND

ND

3.0

ND

19

–30

year

s3,

000

2,00

010

01,

000

ND

ND

ND

3510

01,

000

ND

ND

ND

3.5

ND

31

–50

year

s3,

000

2,00

010

01,

000

ND

ND

ND

3510

01,

000

ND

ND

ND

3.5

ND

Sour

ces:

Die

tary

Ref

eren

ce In

take

s fo

r Cal

cium

, Pho

spho

rous

, Mag

nesi

um, V

itam

in D

, and

Flu

orid

e (1

997)

; Die

tary

Ref

eren

ce In

take

s fo

r Thi

amin

, Rib

oflav

in, N

iaci

n, V

itam

in

B6,

Fola

te, V

itam

in B

12, P

anto

then

ic A

cid,

Bio

tin, a

nd C

holin

e (1

998)

; Die

tary

Ref

eren

ce In

take

s fo

r Vita

min

C, V

itam

in E

, Sel

eniu

m, a

nd C

arot

enoi

ds (2

000)

; Die

tary

Ref

eren

ce

Inta

kes

for

Vita

min

A,

Vita

min

K,

Ars

enic

, B

oron

, C

hrom

ium

, C

oppe

r, Io

dine

, Ir

on,

Man

gane

se,

Mol

ybde

num

, N

icke

l, Si

licon

, V

anad

ium

, an

d Z

inc

(200

1);

and

Die

tary

R

efer

ence

Int

akes

for

Cal

cium

and

Vita

min

D (

2011

). T

hese

rep

orts

may

be

acce

ssed

via

ww

w.n

ap.e

duA

Tol

erab

le U

pper

Inta

ke L

evel

(UL

) is

the

high

est l

evel

of d

aily

nut

rien

t int

ake

that

is li

kely

to p

ose

no ri

sk o

f adv

erse

hea

lth e

ffec

ts to

alm

ost a

ll in

divi

dual

s in

the

gene

ral p

opu­

latio

n. U

nles

s ot

herw

ise

spec

ified

, the

UL

rep

rese

nts

tota

l int

ake

from

foo

d, w

ater

, and

sup

plem

ents

. Due

to a

lack

of

suita

ble

data

, UL

s co

uld

not b

e es

tabl

ishe

d fo

r vi

tam

in K

, th

iam

in,

ribo

flavi

n, v

itam

in B

12,

pant

othe

nic

acid

, bi

otin

, an

d ca

rote

noid

s. I

n th

e ab

senc

e of

a U

L,

extr

a ca

utio

n m

ay b

e w

arra

nted

in

cons

umin

g le

vels

abo

ve r

ecom

men

ded

inta

kes.

Mem

bers

of t

he g

ener

al p

opul

atio

n sh

ould

be

advi

sed

not t

o ro

utin

ely

exce

ed th

e U

L. T

he U

L is

not

mea

nt to

app

ly to

indi

vidu

als

who

are

trea

ted

with

the

nutr

ient

und

er

med

ical

sup

ervi

sion

or

to in

divi

dual

s w

ith p

redi

spos

ing

cond

ition

s th

at m

odif

y th

eir

sens

itivi

ty to

the

nutr

ient

a As

pref

orm

ed v

itam

in A

onl

yb A

s α­

toco

pher

ol; a

pplie

s to

any

for

m o

f su

pple

men

tal α

­toc

ophe

rol

c The

UL

s fo

r vi

tam

in E

, nia

cin,

and

fol

ate

appl

y to

syn

thet

ic f

orm

s ob

tain

ed f

rom

sup

plem

ents

, for

tified

foo

ds, o

r a

com

bina

tion

of th

e tw

od β

­Car

oten

e su

pple

men

ts a

re a

dvis

ed o

nly

to s

erve

as

a pr

ovita

min

A s

ourc

e fo

r in

divi

dual

s at

ris

k of

vita

min

A d

efici

ency

e ND

not

det

erm

inab

le d

ue to

lack

of d

ata

of a

dver

se e

ffec

ts in

this

age

gro

up a

nd c

once

rn w

ith re

gard

to la

ck o

f abi

lity

to h

andl

e ex

cess

am

ount

s. S

ourc

e of

inta

ke s

houl

d be

from

fo

od o

nly,

to p

reve

nt h

igh

leve

ls o

f in

take

Appendix G. Dietary Reference Intakes (DRIs)

Page 30: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

352

G.8

To

lera

ble

Up

per

Inta

ke L

evel

s, E

lem

ents

(Rep

rin

ted

wit

h p

erm

issi

on

fro

m t

he

Nat

ion

al A

cad

emy

of S

cien

ces,

c

ou

rtes

y o

f th

e N

atio

nal

Aca

dem

ies

Pre

ss, W

ash

ing

ton

, D.c

.)

Lif

e st

age

grou

pA

rsen

ica

Bor

on

(mg/

day)

Cal

cium

(m

g/da

y)C

hro

miu

m

Cop

per

(μg/

day)

Fluo

ride

(m

g/da

y)

Iodi

ne

(μg/

day)

Iron

(m

g/da

y)M

agne

sium

(m

g/da

y)b

Man

gane

se

(mg/

day)

Mol

ybde

num

g/da

y)

Nic

kel

(mg/

day)

Phos

phor

us

(g/d

ay)

Sele

nium

g/da

y)Si

licon

c

Van

adiu

m

(mg/

day)

d

Zin

c (m

g/da

y)So

dium

(g

/day

)C

hlor

ide

(g/d

ay)

Infa

nts

0–

6 m

onth

sN

De

ND

1,00

0N

DN

D0.

7N

D40

ND

ND

ND

ND

ND

45N

DN

D4

ND

ND

6–

12 m

onth

sN

DN

D1,

500

ND

ND

0.9

ND

40N

DN

DN

DN

DN

D60

ND

ND

5N

DN

D

Chi

ldre

n

1–

3 ye

ars

ND

32,

500

ND

1,00

01.

320

040

652

300

0.2

390

ND

ND

71.

52.

3

4–

8 ye

ars

ND

62,

500

ND

3,00

02.

230

040

110

360

00.

33

150

ND

ND

121.

92.

9

Mal

es

9–

13 y

ears

ND

113,

000

ND

5,00

010

600

4035

06

1,10

00.

64

280

ND

ND

232.

23.

4

14

–18

year

sN

D17

3,00

0N

D8,

000

1090

045

350

91,

700

1.0

440

0N

DN

D34

2.3

3.6

19

–30

year

sN

D20

2,50

0N

D10

,000

101,

100

4535

011

2,00

01.

04

400

ND

1.8

402.

33.

6

31

–50

year

sN

D20

2,50

0N

D10

,000

101,

100

4535

011

2,00

01.

04

400

ND

1.8

402.

33.

6

51

–70

year

sN

D20

2,00

0N

D10

,000

101,

100

4535

011

2,00

01.

04

400

ND

1.8

402.

33.

6

>

70 y

ears

ND

202,

000

ND

10,0

0010

1,10

045

350

112,

000

1.0

340

0N

D1.

840

2.3

3.6

Fem

ales

9–

13 y

ears

ND

113,

000

ND

5,00

010

600

4035

06

1,10

00.

64

280

ND

ND

232.

23.

4

14

–18

year

sN

D17

3,00

0N

D8,

000

1090

045

350

91,

700

1.0

440

0N

DN

D34

2.3

3.6

19

–30

year

sN

D20

2,50

0N

D10

,000

101,

100

4535

011

2,00

01.

04

400

ND

1.8

402.

33.

6

31

–50

year

sN

D20

2,50

0N

D10

,000

101,

100

4535

011

2,00

01.

04

400

ND

1.8

402.

33.

6

51

–70

year

sN

D20

2,00

0N

D10

,000

101,

100

4535

011

2,00

01.

04

400

ND

1.8

402.

33.

6

>

70 y

ears

ND

202,

000

ND

10,0

0010

1,10

045

350

112,

000

1.0

340

0N

D1.

840

2.3

3.6

Preg

nanc

y

14

–18

year

sN

D17

3,00

0N

D8,

000

1090

045

350

91,

700

1.0

3.5

400

ND

ND

342.

33.

6

19

–30

year

sN

D20

2,50

0N

D10

,000

101,

100

4535

011

2,00

01.

03.

540

0N

DN

D40

2.3

3.6

61

–50

year

sN

D20

2,50

0N

D10

,000

101,

100

4535

011

2,00

01.

03.

540

0N

DN

D40

2.3

3.6

Appendix G. Dietary Reference Intakes (DRIs)

Page 31: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

353

Lif

e st

age

grou

pA

rsen

ica

Bor

on

(mg/

day)

Cal

cium

(m

g/da

y)C

hro

miu

m

Cop

per

(μg/

day)

Fluo

ride

(m

g/da

y)

Iodi

ne

(μg/

day)

Iron

(m

g/da

y)M

agne

sium

(m

g/da

y)b

Man

gane

se

(mg/

day)

Mol

ybde

num

g/da

y)

Nic

kel

(mg/

day)

Phos

phor

us

(g/d

ay)

Sele

nium

g/da

y)Si

licon

c

Van

adiu

m

(mg/

day)

d

Zin

c (m

g/da

y)So

dium

(g

/day

)C

hlor

ide

(g/d

ay)

Lac

tatio

n

14

–18

year

sN

D17

3,00

0N

D8,

000

1090

045

350

91,

700

1.0

440

0N

DN

D34

2.3

3.6

19

–30

year

sN

D20

2,50

0N

D10

,000

101,

100

4535

011

2,00

01.

04

400

ND

ND

402.

33.

6

31

–50

year

sN

D20

2,50

0N

D10

,000

101,

100

4535

011

2,00

01.

04

400

ND

ND

402.

33.

6

Sour

ces:

Die

tary

Ref

eren

ce I

ntak

es f

or C

alci

um, P

hosp

horo

us, M

agne

sium

, Vita

min

D, a

nd F

luor

ide

(199

7); D

ieta

ry R

efer

ence

Int

akes

for

Thi

amin

, Rib

oflav

in, N

iaci

n, V

itam

in B

6, Fo

late

, Vita

min

B12

, Pan

toth

enic

Aci

d, B

iotin

, and

Cho

line

(199

8); D

ieta

ry R

efer

ence

Inta

kes

for V

itam

in C

, Vita

min

E, S

elen

ium

, and

Car

oten

oids

(200

0); D

ieta

ry R

efer

ence

Inta

kes

for

Vita

min

A, V

itam

in K

, Ars

enic

, Bor

on, C

hrom

ium

, Cop

per,

Iodi

ne, I

ron,

Man

gane

se, M

olyb

denu

m, N

icke

l, Si

licon

, Van

adiu

m, a

nd Z

inc

(200

1); D

ieta

ry R

efer

ence

Int

akes

for

W

ater

, Pot

assi

um, S

odiu

m, C

hlor

ide,

and

Sul

fate

(20

05);

and

Die

tary

Ref

eren

ce I

ntak

es f

or C

alci

um a

nd V

itam

in D

(20

11).

The

se r

epor

ts m

ay b

e ac

cess

ed v

ia w

ww

.nap

.edu

A T

oler

able

Upp

er I

ntak

e L

evel

(U

L)

is th

e hi

ghes

t lev

el o

f da

ily n

utri

ent i

ntak

e th

at is

like

ly to

pos

e no

ris

k of

adv

erse

hea

lth e

ffec

ts to

alm

ost a

ll in

divi

dual

s in

the

gene

ral p

opul

a­tio

n. U

nles

s ot

herw

ise

spec

ified

, the

UL

repr

esen

ts to

tal i

ntak

e fr

om fo

od, w

ater

, and

sup

plem

ents

. Due

to a

lack

of s

uita

ble

data

, UL

s co

uld

not b

e es

tabl

ishe

d fo

r vita

min

K, t

hiam

in,

ribo

flavi

n, v

itam

in B

12, p

anto

then

ic a

cid,

bio

tin, a

nd c

arot

enoi

ds. I

n th

e ab

senc

e of

a U

L, e

xtra

cau

tion

may

be

war

rant

ed in

con

sum

ing

leve

ls a

bove

rec

omm

ende

d in

take

s. M

embe

rs

of th

e ge

nera

l pop

ulat

ion

shou

ld b

e ad

vise

d no

t to

rout

inel

y ex

ceed

the

UL

. The

UL

is n

ot m

eant

to a

pply

to in

divi

dual

s w

ho a

re tr

eate

d w

ith th

e nu

trie

nt u

nder

med

ical

sup

ervi

sion

or

to in

divi

dual

s w

ith p

redi

spos

ing

cond

ition

s th

at m

odif

y th

eir

sens

itivi

ty to

the

nutr

ient

a Alth

ough

the

UL

was

not

det

erm

ined

for

ars

enic

, the

re is

no

just

ifica

tion

for

addi

ng a

rsen

ic to

foo

d or

sup

plem

ents

b The

UL

s fo

r m

agne

sium

rep

rese

nt in

take

fro

m a

pha

rmac

olog

ical

age

nt o

nly

and

do n

ot in

clud

e in

take

fro

m f

ood

and

wat

erc A

lthou

gh s

ilico

n ha

s no

t bee

n sh

own

to c

ause

adv

erse

eff

ects

in h

uman

s, th

ere

is n

o ju

stifi

catio

n fo

r ad

ding

sili

con

to s

uppl

emen

tsd A

lthou

gh v

anad

ium

in f

ood

has

not b

een

show

n to

cau

se a

dver

se e

ffec

ts in

hum

ans,

ther

e is

no

just

ifica

tion

for

addi

ng v

anad

ium

to f

ood,

and

van

adiu

m s

uppl

emen

ts s

houl

d be

use

d w

ith c

autio

n. T

he U

L is

bas

ed o

n ad

vers

e ef

fect

s in

labo

rato

ry a

nim

als,

and

this

dat

a co

uld

be u

sed

to s

et a

UL

for

adu

lts b

ut n

ot c

hild

ren

and

adol

esce

nts

e ND

not

det

erm

inab

le d

ue to

lack

of d

ata

of a

dver

se e

ffec

ts in

this

age

gro

up a

nd c

once

rn w

ith re

gard

to la

ck o

f abi

lity

to h

andl

e ex

cess

am

ount

s. S

ourc

e of

inta

ke s

houl

d be

from

food

on

ly to

pre

vent

hig

h le

vels

of

inta

ke

Appendix G. Dietary Reference Intakes (DRIs)

Page 32: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

355L.E. Bernstein et al. (eds.), Nutrition Management of Inherited Metabolic Diseases: Lessons from Metabolic University, DOI 10.1007/978-3-319-14621-8,© Springer International Publishing Switzerland 2015

Appendix H. Maintenance Fluid Requirements

The Holliday­Segar nomogram is a common method used in approximating water loss and calculating the fluid requirement [28].

Box 1: Fluid Requirement Calculation

1. 100 10mL kgfor the first kgof weight/ + 2. 50 10mL kgfor thesecond kgof weight/ + 3. 20 mL kgfor remaining kgof weight/ = 4. Total daily fluid requirement

Example: A child weighing 25 kg would require: 1. 100 10 1000mL first kg mL´ = + 2. 50 10 500mL second kg mL´ = + 3. 20 5 100mL remaining kg mL´ = = 4. Total fluid requirement of 1,600 mL/day

Fluid requirements are typically thought of on a 24­h basis, while administration is based on an hourly infusion rate via the delivery pump. To approximate the hourly rate, the “4­2­1” formula can be used [29].

Box 2: Hourly Maintenance Fluid Infusion Calculation (Using 4-2-1 Formula)

1. 4 10mL kg h for the first kg/ / + 2. 2 10mL kg h for thesecond kg/ / + 3. 1 mL kg h for the remaining kg/ / = 4. Total hourly infusion rate

Example: For a 25­kg child, the maintenance fluid rate would be: 1. 4 10 40mL kg h first kg mL h/ / /´ = + 2. 2 10 20mL kg h second kg mL h/ / /´ = + 3. 1 5 5mL kg h remaining kg mL h/ / /´ = = 4. Total hourly infusion mL h mL= =65 1560/

Page 33: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

357L.E. Bernstein et al. (eds.), Nutrition Management of Inherited Metabolic Diseases: Lessons from Metabolic University, DOI 10.1007/978-3-319-14621-8,© Springer International Publishing Switzerland 2015

Appendix I. Interpreting Quantitative Fatty Acid Profiles

Example fatty acid profileCompound Reference PatientC 8:0 8–47 43C10:1 1.8–5.0 7.8 HC10:0 2–18 70 HC12:1 1.4–6.6 6

C12:0 6–90 22

C14:2 0.8–5.0 6.8 HC14:1 3–64 30

C14:0 Myristic Acid 30–450 98

C16:2 10–48 18C16:1n-9 25–105 86C16:1n-7 110–1130 269

C16:0 Palmitic Acid 1480–3730 1426 L

C18:3n-6 16–150 18

C18:3n-3 Linolenic Acid 50–130 37 L

C18:2n-6 Linoleic Acid 2270–3850 1207 L

C18:1n-9 650–3500 872

C18:1n-7 280–740 207 L

C18:0 Stearic Acid 590–1170 648

C20:5n-3 Eicosapentaenoic acid (EPA)

14–100 31

C20:4n-6 Arachidonic Acid 520–1490 316 L

C20:3n-9 7–30 7C20:3n-6 50–250 43 L

C20:0 Arachidic acid 50–90 46 L

C22:6n-3 Docosahexaenoic acid (DHA) 50–250 29 L

C22:5n-6 10–70 13

C22:5n-3 20–210 38

C22:4n-6 10–80 11

C22:1 4–13 5

C22:0 0.0–96.3 36.5

C24:1n-9 60–100 82C24:0 0.0–91.4 38.8

C26:1 0.3–0.7 1

C26:0 0.00–1.30 0.78

C19:B 0.00–2.98 0.04C20:B 0.00–9.88 0.5

HOLMAN RATIO 0.010–0.038 0.022151899

Page 34: Appendix A. Overview of Metabolic Disorders978-3-319-14621-8/1.pdf · L.E. ernstein et al. (eds.) Nutrition Management of Inherited Metabolic Diseases: 327 Lessons from Metabolic

358

Courtesy of Dr. Melanie Gillingham, PhD, RD Oregon Health & Science University, Portland, Oregon

Box 3: Nutrition Management Plan

• Increase n­6 fatty acid intake to correct low linoleic and arachidonic acid concentrations.• Decrease saturated fatty acid intake in order to maintain low dietary fat intake.• Begin DHA supplements to correct low DHA concentrations.• Alpha­linoleic acid is low but as it is primarily needed as a precursor to DHA, additional

alpha­linoleic acid is not needed as long as DHA is supplemented in the diet

Compound Reference Patient Low

C18:2n-6Linoleic acid

2270–3850 1207 Yes

C20:4n-6Arachidonic Acid

520–1490 316 Yes

C22:5n-6 Docosapentaenoic acid n-6

10–70 13 No

Holman Ratio 0.010–0.038 0.022 No

1. Evaluate n-6 status:(a) Low linoleic acid(b) Low arachidonic acid(c) Normal Holman ratio

- The patient is consuming a low fat diet so the Holman ratio is normalbecause both n-6 and n-9 are low. The Holman ratio may or may not indicate an essential fatty acid deficiency inmetabolic patients.

Compound Reference Patient Low

C14:0Myristic acid

30–450 98 No

C16:0Palmitic acid

1480–3730 1426 Yes

C18:0Stearic acid

590–1170 648 No

C20:0Arachidic acid

50–90 46 Yes

2. Evaluate saturated fatty acids:(a) Low saturated fat acids

-The patient is consuming a low fat diet.

Compound Reference Patient Low

C18:3n-3Linolenic acid

50–130 37 Yes

C20:5n-3Eicopentaenoic acid (EPA)

14–100 31 No

C22:6n-3Docosahexaenoic acid (DHA)

30–250 29 Yes

ARA:DHA 2.1–4.6 10.8 -

3. Evaluate n-3 fatty acids:(a) Low linolenic acid(b) Low in DHA(c) ARA:DHA ratio is too high

(goal is less than 4)(d) Low C22:5n-6 is another indicator of n-3 deficiency.

Appendix I. Interpreting Quantitative Fatty Acid Profiles

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359

I.1 Plasma Fatty Acids

• Free fatty acids are found in plasma in the ion­ized form. FFA are elevated with fasting and low with feeding.

• Most plasma fatty acids exist as esters in lipoproteins: – Triglycerides – Phospholipids

• Fatty acid profiles include both FFA and plasma fatty acids in lipoprotein.

• Plasma fatty acids are a short­term marker of dietary intake.

• Red Blood Cell (RBC) fatty acids are a long­term marker of dietary intake.

• Adipose fatty acids reflect dietary intake over years.

• Plasma and RBC fatty acids are similar in people with repetitive diets such as patients with inherited metabolic diseases.

• Primary circulating fatty acids include: – Stearate – Palmitate – Oleic – Palmitoleic acid – Linoleic acid

• Arachidonic acid (C20:4n­6) can fall with DHA supplements.

• With regard to the DRI for fatty acids, the Institute of Medicine states, “The linoleic acid: α­linolenic acid ratio is likely most important in diets that are very low or devoid of arachidonic acid” [30].

Shorthand Abbreviation Name

C10:0 – Capric acidC12:0 – Lauric acidC14:0 MA Myristic acidC16:0 PA Palmitic acidC16:1n7 PO Palmitoleic acidC16:1n7t t­PO Trans palmitoleic acidC18:0 SA Stearic acidC18:1n9 OA Oleic acidC18:1n9t t­OA Trans oleic acidC18:2n6 LA Linoleic acidC18:2n6t t­LA Trans linoleic acidC20:0 – Arachidic acidC18:3n6 GLA Gamma linolenic acidC20:1n9 ­ Eicosenoic acidC18:3n3 ALA Alpha linolenic acidC20:2n6 – Eicosadienoic acidC20:3n6 – Eicosatrienoic acidC22:0 – Docosanoic acidC20:4n6 AA Arachidonic acidC24:0 – Lignoceric acidC20:5n3 EPA Eicosapentaenoic acidC24:1n9 – Nervonic acidC22:4n6 DTA Docosatetraenoic acidC22:5n6 DPAn6 Docosapentaenoic acid n6C22:5n3 DPAn3 Docosapentaenoic acid n3C22:6n3 DHA Docosahexaenoic acid

Appendix I. Interpreting Quantitative Fatty Acid Profiles

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361L.E. Bernstein et al. (eds.), Nutrition Management of Inherited Metabolic Diseases: Lessons from Metabolic University, DOI 10.1007/978-3-319-14621-8,© Springer International Publishing Switzerland 2015

Appendix J. Glucose Polymer Protocol

J.1 Nutritional Approach During Illness

What is this about?As part of the management of your metabolic

condition, you have been advised to avoid pro­longed fasting. This handout provides a practical, temporary approach to managing illness to avoid prolonged fasting during illness. Your specific situation should always be discussed with your metabolic dietitian.What happens during an illness?

Illness is often accompanied by decreased appetite, nausea, and vomiting which can result in decreased intake of food, hence energy. To compensate for this decreased intake and to pro­vide energy to fight off the infection, the body mobilizes its reserves and breaks down some of its own substances such as proteins, fat, and gly­cogen to provide energy. This process is called catabolism. In patients with inborn errors of metabolism, the breakdown of some of these body substances is impaired, resulting in low blood sugar (hypoglycemia) or in the accumula­tion of intermediary products in blood, which can then result in complications.How can you counteract catabolism with nutrition?

During times of illness, catabolism can be counteracted by providing sufficient energy from nutrition. This is best done by consuming sugars

(carbohydrates) regularly. Sugars are easily digested and a readily available source of energy from nutrition. They are also well tolerated dur­ing illness.

Temporary management strategy requires intake of carbohydrate­rich drinks, preferably a glucose polymer at regular intervals during times of illness. The concentration, the volume, and the frequency of intake necessary to prevent catabo­lism are dependent on the weight and the age of the individual. With this handout we will provide you with information regarding ***your/your child’s specific needs. The glucose polymer solu­tion does not provide complete nutrition and should only be used for a very short time (max. 1–2 days).What to do when there is diarrhea?

With diarrhea, a glucose polymer should be added to an appropriate rehydration solution. This will help prevent catabolism as well as dehydration due to loss of electrolytes.In conclusion:

With insufficient intake it is important to tem­porarily incorporate carbohydrate­rich drinks in the nutrition plan. Such intervention will help reduce or prevent the need for hospitalization. It is always necessary to inform your PCP, your metabolic dietitian, and your metabolic physi-cian during times of illness. They can provide further instructions.

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J.2 Nutrition Protocol with Illness (e.g., Infection): Oral Treatment [31]

Age

Glucose polymera Dose Fluid requirement Energy requirement

(% solution) (ml/kg/h) (ml/kg/day) (Cal/kg/day)

0–6 months 15 7.7 183 1106–12 months 15 7.0 168 1001–3 years 20 4.5 110 903–6 years 25 3.3 80 806–12 years 25 2.6 65 65or 6–12 years 30 2.25 54 6512–15 years 30 1.8 42 50>15 years 30 1.6 38 45

aPolycal (Nutricia North America, Rockville, MD)Original source: Dorothy Francis – Metabolic Dietitian – Royal Children’s Hospital – AustraliaOne teaspoon = 5 mlOne tablespoon = 15 mlOne ounce = approximately 30 mlFour ounces =120 ml or approximately one­half cupPolycal: A maltodextrin that contains the same number of calories per grams and with similar structure as a glucose polymerOne level teaspoon of Polycal = 2 g of Polycal = 8 calOne level tablespoon of Polycal = 6 g of Polycal = 23 cal15 15 100 8 4% ** / . /= =gCHO mL app tsp oz

20 20 100 11 4% / . /= =gCHO mL app tsp oz

25 25 100 4 412% / . /= =gCHO mL app tbsp. oz

30 30 100 5 412% / . /= =gCHO mL app tbsp. oz

Appendix J. Glucose Polymer Protocol

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363L.E. Bernstein et al. (eds.), Nutrition Management of Inherited Metabolic Diseases: Lessons from Metabolic University, DOI 10.1007/978-3-319-14621-8,© Springer International Publishing Switzerland 2015

Appendix K. calculation of Glucose Infusion Rate and cornstarch Dosing for Patients with Glycogen Storage Disease

The main priority for GSD type 1 is to prevent hypoglycemia and suppress lactic acidosis. This is achieved by calculating glucose require­ments using the glucose infusion rate. Glucose infusion rate (GIR) is expressed as mg/kg/min. Glucose can be provided through formula feeding, nocturnal nasogastric drip feeding, or the use of uncooked cornstarch. Nasogastric drip feedings provide a continuous source of glucose, and cornstarch provides a source of

glucose that is slowly released and slowly absorbed.

Recommended GIR [32]

0–12 months 7–9 mg/kg/min1–3 years 7 mg/kg/min3–6 years 6–7 mg/kg/min6–14 years 5–6 mg/kg/minAdolescents 4–5 mg/kg/minAdults 3–4 mg/kg/min

Uncooked cornstarch 1 tbsp = 8 g = 7.2 g carbohydrate (CHO)

K.1 Example GIR calculations

Example 1Patient weight: 22 kg

Patient age: 5 yearsCurrent cornstarch dose: 36 g at 6:00, 10:00, 14:00 and 18:00

Step 1. 7 2

80 9 1

..

gCHO

gcornstarchgCHOper gcornstarch=

Step 2. 36 0 9 32 4gcornstarch gCHO gCHO´ =. .

Step 3. 32 4 1 000 32 400. , ,gCHO mg mgCHO´ =

Step 4. 32 400

221 472 7

,, .

mgCHO

kgmgCHOper kg=

Step 5. 4 60 240h per hour´ =min min

Step 6. 1 472 7

240

, .

min. / /

mgCHOper kg = 6 13 kgmg min

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364

Example 2You have a 12­year­old patient weighing 43 kg and is experiencing low blood sugar with his current cornstarch dosing regimen. He currently takes 48 g of cornstarch every 4 h starting at 10 am. Calculate the current GIR and the cornstarch dose that is appropriate for a correct GIR.

Current Dose

Step 1. 7 2

80 9

..

gCHO

gcornstarchgCHOper gcornstarch=

Step 2. 48 0 9 43 2gcornstarch gCHOper gcornstarch gCHO´ =. .

Step 3. 43 2 1 000 43 200. , / ,gCHO mg g mgCHO´ =

Step 4. 43 200

431 004 6

,, . /

mgCHO

kgmgCHO kg=

Step 5. 4 60 240h h´ =min/ min

Step 6. 1 004 6

240

, . /

min. / /

mgCHO kg = 4 18 mg kg min

New DoseStep 1. 5.5 mg/kg/min(this GIR is provided to you by the metabolic physician, the recommended GIR for 6–14­year­olds is

5–6 mg/kg/min)

Step 2. 5 5 240 1 320. / / min min , /mgCHO kg mgCHO kg´ =

Step 3. 1 320 43 56 760, / ,mgCHO kg kg mgCHO´ =

Step 4. 56 760 1 000 56 76, , .mgCHO mg gCHO¸ =

Step 5. 56 76 0 9 1. .gCHO gCHOper gcornstarch¸ = 63 gcornstarch

Appendix K. Calculation of Glucose Infusion Rate and Cornstarch Dosing for Patients

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365L.E. Bernstein et al. (eds.), Nutrition Management of Inherited Metabolic Diseases: Lessons from Metabolic University, DOI 10.1007/978-3-319-14621-8,© Springer International Publishing Switzerland 2015

Appendix L. Guide to counting carbohydrate for Patients with Glycogen Storage Disease

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Appendix L. Guide to Counting Carbohydrate for Patients with Glycogen Storage Disease

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367

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Appendix L. Guide to Counting Carbohydrate for Patients with Glycogen Storage Disease

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368

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18. Huemer M et al. Growth and body composition in children with classical phenylketonuria: results in 34 patients and review of the literature. J Inherit Metab Dis. 2007;30(5):694–9.

19. Singh RH. Nutritional management of patients with urea cycle disorders. J Inherit Metab Dis. 2007;30(6): 880–7.

20. Ahring K et al. Dietary management practices in phenylketonuria across European centres. Clin Nutr. 2009;28(3):231–6.

21. Hauser NS et al. Variable dietary management of methylmalonic acidemia: metabolic and energetic correlations. Am J Clin Nutr. 2011;93(1):47–56.

22. Rocha JC et al. Dietary treatment in phenylketonuria does not lead to increased risk of obesity or metabolic syndrome. Mol Genet Metab. 2012;107(4):659–63.

23. Gokmen­Ozel H et al. Dietary practices in glutaric aciduria type 1 over 16 years. J Hum Nutr Diet. 2012;25(6):514–9.

24. Adam S et al. Dietary management of urea cycle disorders: UK practice. J Hum Nutr Diet. 2012;25(4): 398–404.

25. Adam S et al. Dietary practices in pyridoxine non­ responsive homocystinuria: a European survey. Mol Genet Metab. 2013;110(4):454–9.

26. Boy N et al. Low lysine diet in glutaric aciduria type I—effect on anthropometric and biochemical follow­ up parameters. J Inherit Metab Dis. 2013;36(3): 525–33.

27. Aldámiz­Echevarría L et al. Tetrahydrobiopterin ther­apy vs. phenylalanine­restricted diet: impact on growth in PKU. Mol Genet Metab. 2013;109(4):331–8.

Maintenance Fluid Requirements

28. Holliday MA, Segar WE. The maintenance need for water in parenteral fluid therapy. Pediatrics. 1957; 19(5):823–32.

29. Kalia A. Maintenance fluid therapy in children. Fluids & Electrolytes 2008 [cited 8 Oct 2014]. Available from: http://www.utmb.edu/pedi_ed/CORE/Fluids& Electyrolytes/page_04.htm.

Interpreting Quantitative Fatty Acid Profiles

30. Institute of Medicine (U.S.), Panel on Macronutrients. and Institute of Medicine (U.S.), Standing Committee on the Scientific Evaluation of Dietary Reference Intakes. Dietary reference intakes for energy, carbo­hydrate, fiber, fat, fatty acids, cholesterol, protein, and amino acids. Washington, DC: National Academies Press; 2005. xxv, 1331 p.

Appendix L. Guide to Counting Carbohydrate for Patients with Glycogen Storage Disease

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Glucose Polymer Protocol

31. Van Hove J, Myers S, Vande Kerckove K, Freehauf C, Bernstein L. Acute nutrition management in the prevention of metabolic illness: a practical approach with glucose polymers. Mol Gen and Met. 2009;97:1–3.

calculation of Glucose Infusion Rate and cornstarch Dosing for Patients with Glycogen Storage Disease

32. Fernandes J, Saudubray JM, van den Berghe G. Inborn metabolic diseases: diagnosis and treatment. 3rd ed.

Berlin: Springer; 2000.

Appendix L. Guide to Counting Carbohydrate for Patients with Glycogen Storage Disease

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371L.E. Bernstein et al. (eds.), Nutrition Management of Inherited Metabolic Diseases: Lessons from Metabolic University, DOI 10.1007/978-3-319-14621-8,© Springer International Publishing Switzerland 2015

A Acute nutrition management

glutaric acidemia type 1 , 215–216 long-chain fatty acid oxidation disorders , 277–278 maple syrup urine disease

intercurrent illness , 177 protein anabolism , 177 sick-day diets , 177–178

medium-chain acyl-CoA dehydrogenase defi ciency , 277–278

methylmalonic acidemia , 226–227 propionic acidemia , 226–227 urea cycle disorders

hospitalization , 165 intercurrent illness , 165–166

Acylcarnitine profi le , 81, 335 Alpha-dextrin maltose solution , 60 Alpha-tocopherol defi ciency , 266 Altered neurochemistry , 27, 28 Amino acid

analysis , 81–82 classifi cation , 64 disorders , 17, 18, 320–323 solutions , 327

Ammonia inherited metabolic diseases , 77–78 urea cycle disorders , 160–161

Ammonul ® , 164 Anabolism

acute episodes and hospitalization , 61 description , 59 fasting and postprandial metabolism , 60

Anion gap acidosis , 77 Anticipatory guidance , 27 Arginine , 214 Attention defi cit-hyperactivity disorder (ADHD) , 135 Autosomal dominant and autosomal recessive

inheritance , 12 Axial hypotonia , 204

B Bacterial inhibition assay , 16 Betaine , 155

Biliary dysfunction , 37 Biochemical test, inborn errors of metabolism , 52 Blood-brain barrier , 118 Brain imaging , 204 Branching enzyme defi ciency , 304 Buphenyl ® , 164

C Carbaglu ® , 164 Carbohydrate metabolism disorders , 38 Cardiomyopathy

dilated , 40 fatty acid oxidation defects , 245 hypertrophic , 40–41 organic acidemias, pathogenesis , 192

Carnitine , 80–81, 272 Carnitine cycle , 242, 243 Catabolic stress , 163–164 Cell proteins , 4 Central nervous system (CNS)

homocystinuria , 152 hyperammonemia , 78

Chaperones , 4 Chorioretinopathy , 260, 261 Chronic liver damage , 37 Chronic moniliasis , 192 Chronic nutrition management

glutaric acidemia type 1 arginine , 214 asymptomatic infant , 213 glutaryl-CoA dehydrogenase , 215 l -carnitine supplementation , 215 medical foods comparison , 213, 214 nutrient intake , 212–213

glycogen storage disease type 1 alternative and adjunct treatments , 313 cornstarch therapy , 310, 311 diet after infancy , 311–313 diet in infancy , 309–310

long-chain fatty acid oxidation disorders , 272–273 maple syrup urine disease

daily nutrient intakes , 175 diet prescription , 175, 176

Index

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Chronic nutrition management ( cont .) leucine intake , 176 medical food , 176–177

phenylketonuria breast milk , 105 diet prescription , 105 medical foods , 107, 108 phenylalanine concentration , 103–104 tetrahydrobiopterin , 103

urea cycle disorders amino acids supplementation , 164 asymptomatic infant , 162, 163 catabolic stress , 163–164 components of , 162 medical foods energy and protein content , 162–163 nitrogen-scavenging drugs , 164 principles of , 162

Cornstarch dosing , 361–362 therapy , 310–311

Cystathionine-β-synthase (CBS) , 150 Cysteine , 154 Cystinuria , 41

D Debranching enzyme defi ciency , 304 Delayed newborn screening , 20 Deletion mutations , 7–8 Dextrose solutions , 327 Diaper test , 16 Diarrhea , 359 Dietary and de novo protein synthesis , 64–65 Dietary reference intake (DRI)

average requirements , 342–343 elements , 346–347, 352–353 galactosemia , 291 macronutrient distribution range , 349 vitamins , 344–345, 350–351 water and macronutrients , 348

Diet, long-chain fatty acid oxidation disorders after infancy , 275 calculations , 279–281 for exercise , 276 modifi cations , 274–275

Dilated cardiomyopathy , 40 Docosahexaenoic acid (DHA) defi ciency , 266 Dystonia , 204

E Eat Right Stay Bright™ anticipatory guidance

tool , 27, 28 Ectopia lentis , 150 Educational resources , IMD, 325 Enzymatic assays, newborn screening , 16 Essential fatty acid (EFA) defi ciency , 265–267 Exercise

diet for , 276 GSD type 1 , 313 MCT and , 262–264

F Fasting

glycogen storage diseases , 297 long-chain fatty acid oxidation

disorders , 273–274 postprandial metabolism , 60 reduced tolerance disorders , 48

Fat-soluble vitamins , 266 Fatty acid β-oxidation , 242, 244 Fatty acid oxidation disorders. See also Long-chain fatty

acid oxidation disorders (LCFAOD) biochemistry

carnitine cycle , 242, 243 fatty acid β-oxidation , 242, 244 ketogenesis and ketone utilization , 244 ketone metabolism , 244–245

description , 241–242 diagnostic testing , 245–246 ketogenesis , 251 ketolysis , 252 LCHAD defi ciency

biochemistry and symptoms , 250–251 diagnosis , 251 treatment , 251

MCAD defi ciency , 246–248 symptoms of , 245 tandem mass spectrometry , 17, 18 VLCAD defi ciency

biochemistry and symptoms , 248–249 diagnosis , 249 treatment , 249–250

Fatty acid profi les , 357–358 Fibrosis/cirrhosis , 37 Flinders model , 32 Fluid requirement maintenance , 355 Free fatty acids , 358

G Galactosemia

clinical manifestations , 286 description , 285 metabolic pathway , 286 monitoring , 289–291 nutrition management

allowed and restricted foods and ingredients , 289, 291

bound and free galactose , 288 dietary reference intakes , 291 dietary restriction , 288, 289 endogenous production , 288, 290 infant formulas , 287 isofl avones , 287 metabolic dietitians survey , 288, 290

Galactose-1-phosphate uridyltransferase (GALT) , 286

Genetics cell proteins , 4 deletion mutation , 7–8 genotype and phenotype , 11–12 insertion mutation , 6–7

Index

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molecular (DNA) testing , 9–11 mutation

effect , 8–9 nomenclature , 9

single-gene inheritance , 12–13 substitution mutation , 6, 7

Gluconeogenesis , 296, 299–300 Glucose infusion rate (GIR) , 361–362 Glucose polymer guidelines , 60 Glucose polymer protocol , 359–360 Glutaric acidemia type 1 (GA-1)

acute encephalopathic crisis , 207, 208 acute nutrition management , 215–216 description , 203 diagnosis , 205–206 diet calculation , 218–219 genetics and biochemistry , 204–205 glutaric acid and 3-hydroxyglutaric acid

concentrations , 206 incidence of , 204 management of , 211–212 metabolic pathway , 211, 212 monitoring plasma amino acids , 216–217 newborn screening , 206 phenotype , 204, 207 plasma/urine, elevations , 206, 207 treatment , 208

Glutaryl-CoA dehydrogenase (GCD) , 215 Glycogenolysis , 296 Glycogenolytic disorders , 303 Glycogen storage disease

branching enzyme defi ciency , 304 carbohydrate count , 363–366 clinical presentation , 299 debranching enzyme defi ciency , 304 fasting tests , 297 free fatty acids and ketone production , 297, 298 gluconeogenesis , 296, 299 glucose homeostasis , 297 glucose infusion rate , 361–362 glycogenolytic disorders , 303 glycogenoses , 300 glycogen synthesis , 296 hepatic glycogenoses ( see Hepatic

glycogenoses) inherited metabolic disease , 40, 79 metabolic pathway , 299

Glycogen storage diseases types VI and IX. See Glycogenolytic disorders

Glycogen storage disease (GSD) type 1 adult patient monitoring , 303 biochemical and clinical features , 308–309 chronic nutrition management

alternative and adjunct treatments , 313 cornstarch therapy , 310, 311 diet after infancy , 311–313 diet in infancy , 309

complications , 302–303 diagnosis , 301 diet calculation , 316 exercise , 313

glucose concentrations maintenance , 302 illness , 313 metabolic pathway , 299, 308 monitoring , 314–315 nutritional management , 301 pregnancy , 314 surgery , 313–314 transplantation , 315

Glycogen storage disease type III. See Debranching enzyme defi ciency

Glycogen storage disease type IV. See Branching enzyme defi ciency

Glycogen synthesis , 296 Glycomacropeptide (GMP) , 64 Glycosade , 313 Gray matter pathology , 97

H Health literacy , 26 Hepatic glycogenoses , 300–303 Hepatocyte insuffi ciency/dysfunction , 37 Hepatocyte lysis , 37 Hepatomegaly , 37 Holliday-Segar nomogram , 355 Homocystinuria

betaine , 155 biochemical pathway , 150, 151 B 6 -nonresponsive , 155 clinical presentation

central nervous system , 152 eyes , 150 skeletal system , 151–152 vascular system , 152

description , 150 diagnosis , 153, 154 incidence , 149 natural history study , 152–153 nutrition monitoring , 156 outcome , 156–157 pathophysiology , 153–154 time to event curves , 152–153

Hospitalization acute episodes , 61 acute nutrition management, UCD , 165

Hydrolysate formula, protein in , 64 Hydrophobic amino acids , 4 Hydroxyacylcarnitines and retinal

function , 260–261 Hyperammonemia

inherited metabolic diseases , 77–78 metabolic intoxication syndrome , 55 organic acidemias, etiology , 192

Hyperphenylalaninemia , 27, 28

I Illness

glycogen storage disease type 1 , 313 nutritional approach during , 359 oral treatment , 360

Index

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Inborn errors of metabolism (IEM) characteristic odor in patients with , 51 fasting, reduced tolerance , 48 intoxication disorders , 48 mitochondrial energy metabolism , 48 in neonates , 49–51

biochemical diagnostics , 51–53 treatment , 54–56

neurotransmission , 48 therapeutic options in acute illness , 49

Indicator amino acid oxidation technique , 66 Indispensable amino acids , 64 Insertion mutations , 6–7 Isofl avones , 287 Isovaleric acidemia (IVA) , 189, 190

K Ketogenesis , 79, 244, 251 Ketolysis , 252 Ketone metabolism , 244–245 Ketone utilization , 244

L Laboratory evaluation

confi rmatory testing , 83–84 metabolic laboratories

acylcarnitine profi le , 81 amino acid analysis , 81–82 carnitine profi le , 80–81 interpretation , 83 organic acid profi le , 82–83

routine laboratories acidosis , 76–77 ammonia , 77–78 glucose and ketones , 78–79 lactate , 79–80

Lactate plasma , 79 and pyruvate production , 264

Lactic acidemia , 80 Large neutral amino acids (LNAA)

applications , 121 composition , 118 diet monitoring , 123 diet plan , 121–123 supplementation , 123 therapy , 118, 119

l-carnitine supplementation , 215 Lipid emulsion , 327 Lipolysis , 297 Long-chain fatty acid oxidation disorders (LCFAOD)

acute nutrition management , 277–278 chronic nutrition management , 272–273 description , 255–256 DHA supplementation , 275–276 diet

after infancy , 275 calculations , 279–281

for exercise , 276 modifi cations , 274–275

essential fatty acids , 265–268 fasting , 273–274 fat-soluble vitamins , 266 high-protein diet , 259–260 LCHAD retinopathy , 260–262 MCT and exercise ( see Medium-chain triglycerides

(MCT)) nutrition management plan , 268–269 pathophysiology of , 271–272 patients monitoring , 276–277 plasma acylcarnitine analysis , 272 total energy estimation

body composition and lipid deposition , 256, 257 energy expenditure and substrate

oxidation , 256, 258 normal population vs. FAOD patients , 256, 259 obese children, calculation , 258–259

treating illness , 273 Long-chain 3-hydroxyacyl-coenzyme A dehydrogenase

(LCHAD) defi ciency biochemistry and symptoms , 250–251 chorioretinopathy , 260, 261 diagnosis , 251 fatty acid oxidation disorders , 39 hydroxyacylcarnitines and retinal function , 260–261 hydroxyacylcarnitines vs. TFP , 262, 263 LCFA vs. MCT , 260, 262 TFP defi ciency , 260–262 treatment , 251

Lysine metabolism , 205 Lysinuric protein intolerance (LPI) , 41

M Maple syrup urine disease (MSUD) , 5, 39

acute nutrition management intercurrent illness , 177 protein anabolism , 177 sick-day diets , 177–178

blood BCAA concentrations , 179 case study , 233–234 chronic nutrition management

daily nutrient intakes , 175 diet prescription , 175, 176 leucine intake , 176 medical food , 176–177

diet calculation , 181–183 leucine concentrations evaluation , 179–180 metabolic pathway , 173–174 pregnancy , 230 transplantation , 180

Maternal phenylketonuria (MPKU) description , 139 diet calculation, pregnant woman , 146 monitoring , 145 nutrition management

energy , 143 fat and essential fatty acids , 143

Index

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lactation and postpartum period , 144 phenylalanine and tyrosine , 141–142 protein , 142 sapropterin dihydrochloride , 144 vitamins and minerals , 143–144

Medium-chain acyl-coenzyme A dehydrogenase (MCAD) defi ciency , 17

acute nutrition management , 277–278 chronic management , 277 clinical symptoms , 247 treatment , 247–248

Medium-chain triglycerides (MCT) GSD type 1 , 313 ketone production , 264 lactate and pyruvate production , 264 LCFAOD , 274–275 lowers heart rate , 264, 265

Melatonin , 123 Mendelian inheritance , 11–13 Metabolic intoxication syndrome, in newborn , 49–51.

See also Inborn errors of metabolism (IEM) biochemical diagnostics , 51–53 clinical presentation , 51 treatment

acid-based balance , 55 anabolism , 55–56 cessation of feedings , 54 detoxifi cation , 55 glucose administration , 54–55 hydration , 55 L-carnitine , 56

Metabolic toxins , 50 Methylmalonic acidemia (MMA) , 37, 38, 188, 189

acute nutrition management , 226–227 adjunct treatments , 225 amino acid profi les , 225 asymptomatic infant , 223, 224 chronic management , 223–224 laboratory monitoring , 225–226 medical foods , 223, 225 metabolic pathway , 221–222 nutrition status monitoring , 226 patient’s growth patterns , 225 pregnancy , 230 sick-day protocol , 226, 227 transplantation , 227–228

Microcephaly , 49 Missense mutation , 6, 7 Mitochondrial diseases , 42–43 Molecular testing approach , 9–11 Morbidity, organic acidemias , 196–197 Motivational interviewing model , 32 Muscle hypotonia , 49 Myelin-dopamine theory , 94

N Neurologic complications, organic acidemias , 191 Neuronal ceroid lipofuscinoses (NCL) , 44 Newborn screening (NBS)

bacterial inhibition assay , 16 criteria , 17 diaper test , 16 glutaric acidemia type 1 , 206 limitations , 20–21 process , 19 standardization , 17–19 tandem mass spectrometry , 17, 18 terminologies , 19 urea cycle disorders , 161–162

Next-generation sequencing (NGS) , 10 Non-anion gap acidosis , 76 Non-ketotic hyperglycinemia (NKH) , 43 Nonsense mutation , 6, 7 Nutrition care process

assessment , 337 diagnosis , 337–338 intervention , 338–339 monitoring and evaluation , 339–340

Nutrition education anticipatory guidance , 27 education tools , 27–31 patient education , 26 Radical Health™ , 32–33 theoretical models of self-management , 32

O Organic acid disorders , 17, 18 Organic acidemias (OA)

clinical presentation chronic late-onset form , 190 complications , 191–192 laboratory studies and diagnosis , 190–191 severe neonatal-onset form , 189–190

isovaleric acidemia , 189, 190 management

carnitine supplementation , 193 intercurrent illnesses , 194–195 N-carbamylglutamate supplementation , 194 propionate production , 194 vitamin B 12 responsiveness , 193–194

methylmalonic acidemia , 188, 189 morbidity , 196–197 outcome and prognosis , 197 pathophysiology , 192–193 patients monitoring , 195–196 propionic acidemia , 188–189 protein intake , 69

Organic acid profi le , 82–83 Ornithine transcarbamylase defi ciency (OTCD) , 84

P Parenteral fl uids , 327 Parenteral nutrition (PN) , 164 Pathophysiology

brain , 42–44 homocystinuria , 153–154 kidney , 41–42

Index

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Pathophysiology ( cont .) liver , 36–39 long-chain fatty acid oxidation disorders , 271–272 muscle , 39–41 organic acidemias , 192–193

Phenocopy , 11 Phenylalanine

biochemistry , 90–91 neurotoxicity , 92–94 ( see also Phenylketonuria

(PKU)) tyrosine conversion , 102

Phenylalanine hydroxylase (PAH) , 4–6 Phenylketonuria (PKU) , 5

acute management , 109 characterization , 89 chronic nutrition management

breast milk , 105 diet prescription , 105–106 medical foods , 107, 108 phenylalanine concentration , 103–104 tetrahydrobiopterin , 103

clinical presentation , 91–92 diagnosis , 91 diaper test , 16 dietary treatment , 92 diet calculation

breast milk , 113–115 standard infant formula , 111–113

genetics , 91 global incidence , 91 iLearn interactive practice calculation , 111 LNAA dietary treatment , 122 nutritional monitoring , 109–110 pathogenesis , 92 pathology

gray matter , 97 white matter , 94–97

protein intake , 67, 68 sapropterin

administration , 132–133 children , 133–134 clinical studies leading to treatment , 128–132 impact on neurocognition , 135 long-term experience , 136–137

symptoms , 92 Plasma fatty acids , 358 Pregnancy

GSD type 1 , 314 maple syrup urine disease , 230 methylmalonic acidemia , 230 nutrition management

anticipate postpartum catabolism , 232–233 energy and protein requirements , 231, 232 intercurrent illness and complications , 232 obstetric clinic specializing , 232 plasma amino acid concentrations , 231–232 weight gain , 231

propionic acidemia , 230 urea cycle disorders , 230–231

Propionic acidemia (PROP) , 188–189 acute nutrition management , 226–227 adjunct treatments , 225 amino acid profi les , 225 asymptomatic infant , 223, 224 case study , 234–235 chronic management , 223–224 laboratory monitoring , 225–226 medical foods , 223, 225 metabolic pathway , 221–222 nutrition status monitoring , 226 patient’s growth patterns , 225 pregnancy , 230 sick-day protocol , 226, 227 transplantation , 227–228

Protein and energy intake studies , 329–334 Proteins , 64

biological value and digestibility , 64 requirements

general population , 66–67 patients with metabolic disorders , 67–69

turnover , 64–65 utilization , 65–66

Pyridoxine , 150 Pyruvate dehydrogenase complex (PDHC)

defi ciency , 48

R Radical Health™ , 32–33 Red blood cell (RBC) fatty acids , 358 Remethylation cycle , 150, 151 Renal Fanconi syndrome , 41 Renal tubular acidosis (RTA) , 191–192 Rhabdomyolysis , 40 Routine laboratory and inherited metabolic diseases

acidosis , 76–77 ammonia , 77–78 glucose and ketones , 78–79 lactate , 79–80

S Sapropterin dihydrochloride, pregnancy , 144 Silent mutations , 6, 7 Single-gene inheritance , 11–13 Skeletal system , 151–152 Stanford model , 32

T Tandem mass spectrometry, NBS , 17, 18 Tetrahydrobiopterin (BH 4 )

impact on neurocognition , 135 PKU patients

children , 133–134 phase II studies and phase III studies , 128, 130 phenylalanine intake , 130–132 PKU001 study , 129

Index

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PKU006 study , 129 PKU008 study , 129, 132

synthesis and recirculation , 128 Three-nucleotide genetic coding system , 4 Transient hyperammonemia of newborn (THAN) , 78 Transplantation

GSD type 1 , 315 maple syrup urine disease , 180 methylmalonic acidemia , 227–228 propionic acidemia , 227–228 urea cycle disorders , 166–167

Transsulfuration , 150, 151 Trifunctional protein (TFP) defi ciency , 260–262 Tryptophan metabolism , 205

U Urea cycle disorders (UCD) , 38, 39

acute nutrition management hospitalization , 165 intercurrent illness , 165–166

ammonia concentrations , 160, 161 associated enzymes and altered laboratory

values , 160–161 chronic nutrition management

amino acids supplementation , 164 asymptomatic infant , 162, 163 catabolic stress , 163–164 components of , 162 medical foods energy and protein

content , 162–163

nitrogen-scavenging drugs , 164 principles of , 162

diet calculation , 168–169 metabolic pathway , 159–160 newborn screening , 161–162 nutrition monitoring , 166 outcomes , 162 pregnancy , 230–231 protein intake , 69 tandem mass spectrometry , 17, 18 transplantation , 166–167

V Vascular system , 152 Very long-chain acyl-coenzyme A dehydrogenase

(VLCAD) defi ciency biochemistry and symptoms , 248–249 diagnosis , 249 treatment , 249–250

Von Gierke disease. See Glycogen storage disease (GSD) type 1

W White matter pathology , 94–97

X X-linked recessive inheritance , 13

Index