Ilgaamžiškumas / kofaktorius

NAD+ skaičiuoklė

Apskaičiuokite tikslius rekonstitucijos tūrius, insulino vienetus ir dozių skaičių flakone bet kuriam peptidui.

Flakonas, vanduo ir dozė žinomi

NAD+Ši skaičiuoklė nustatyta peptidui NAD+

Peptido kiekis (mg)

BAC vanduo (ml)

Dozė (mg)

įprastai 100-500 mg

mcgmg

Švirkšto dydis

Nė vienas švirkštas netinka šiam kiekiui

Šiai dozei reikia 2,50 ml. Didžiausias insulino švirkštas talpina 1 ml, todėl didesnio pasirinkti nėra.

Naudokite mažiau bakteriostatinio vandens: iki 4,0 ml užtikrina, kad vienas traukimas neviršytų 1 ml.

Padalykite dozę į 3 atskirus suleidimus.

Kalibravimas

U-100U-40

Vienetai = tūris, o ne veiklioji medžiaga

Vienetai matuoja tūrį, o ne veikliąją medžiagą. 250 IU = 2,50 ml. Kiek tame yra mg, priklauso nuo mišinio. Skaičiuoklė tai jau apskaičiavo už Jus.

Beveik visi insulino švirkštai yra U-100. Rinkitės U-40 tik tuo atveju, jei ant švirkšto pažymėta U-40.

Jūsų rezultatas · gyvai

IUmlVienetai

Įtraukite iki

250IU

250 IU / 100 IU (2.500 ml)

Koncentracija

100.00

mg/ml

Tūris vienai dozei

2.500

Dozių skaičius flakone

dozės

už dozę

—

NAD+

Pagrindiniai duomenys

Dažnumas: once-daily
Įprastas diapazonas: 100-500 mg
CAS numeris: 53-84-9
Molekulinė formulė: C₂₁H₂₇N₇O₁₄P₂
Molinė masė: 663 g/mol

Sinonimai

beta-NAD+Coenzyme IDPNNadide

Tyrimai ir šaltiniai

Susieti šaltiniai veda į PubMed ir atidaromi naujame skirtuke.

Mokslinis profilis

NAD+ peptidų leksikone: veikimo mechanizmas, įrodymai ir šaltiniai

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What Is NAD+?

NAD+ (nicotinamide adenine dinucleotide) is an essential coenzyme present in every nucleated cell of the body. Strictly speaking, NAD+ is not a peptide but a dinucleotide, built from two linked nucleotides: one carrying nicotinamide (derived from vitamin B3) and one carrying adenine. It is handled in the same research context as injectable peptides because it ships as a lyophilized powder, is reconstituted with bacteriostatic water, and is administered subcutaneously for research purposes. Within this calculator, NAD+ is therefore presented as a research compound that follows the same dosing and reconstitution rules as a peptide.

The central biological role of NAD+ is that of an electron carrier. In metabolism, the molecule shuttles back and forth between its oxidized form (NAD+) and its reduced form (NADH), transporting reducing equivalents between the reactions that break down nutrients and those that build ATP, the universal energy currency of the cell. Without sufficient NAD+, glycolysis, the citric acid cycle, and oxidative phosphorylation cannot run efficiently. Beyond its role as a cofactor, NAD+ is also a consumed substrate: enzymes such as the sirtuins, PARPs, and CD38 cleave NAD+ and use its building blocks, which means the intracellular pool must be continuously replenished.

The interest of longevity research in NAD+ rests on the repeatedly reported observation that NAD+ levels decline in many tissues with advancing age. This decline has been linked to diminished mitochondrial performance, reduced sirtuin activity, and a constrained capacity for DNA repair. Strategies to restore the NAD+ pool, whether through precursors such as NMN and NR or through NAD+ itself, are therefore among the most intensively studied approaches in aging research. NAD+ is not a hormone, does not bind to hormone receptors, and does not act on the hypothalamic-pituitary axis.

Mechanisms of Action

NAD+ does not act through a single receptor but functions as a hub connecting numerous cellular pathways. The following mechanisms explain why it occupies such a prominent place in research on energy metabolism and aging:

Cellular energy and redox metabolism: NAD+ is the primary electron acceptor in the catabolic reactions that break down glucose, fatty acids, and amino acids. The NADH produced in the process feeds the electron transport chain and drives ATP synthesis. The ratio of NAD+ to NADH is itself a sensor of the metabolic state of the cell, governing whether energy is stored or released.
Sirtuin activation: The sirtuins (SIRT1 through SIRT7) are NAD+-dependent enzymes that remove acetyl groups from proteins. They regulate mitochondrial biogenesis, inflammatory signaling, circadian rhythms, and the packaging of DNA, among other processes. Because sirtuins consume NAD+ as a substrate, their activity is directly coupled to NAD+ availability: when the NAD+ pool falls, sirtuin activity falls with it.
Mitochondrial function: NAD+ is required both for oxidative phosphorylation and for mitochondrial quality control. Through the sirtuins, particularly SIRT3, it influences the generation of new mitochondria and the clearance of damaged organelles. In preclinical models, a depleted NAD+ pool is associated with reduced respiratory capacity and elevated oxidative stress.
DNA repair: The poly(ADP-ribose) polymerases (PARPs) detect DNA breaks and consume large amounts of NAD+ to recruit repair proteins. Intense DNA damage can place a considerable strain on a cell's NAD+ supply, slowing down other NAD+-dependent processes. A sufficient NAD+ pool is therefore regarded as a prerequisite for effective genome maintenance.
NAD+ consumption by CD38: The enzyme CD38 cleaves NAD+ and is considered one of the principal drivers of the age-related decline in NAD+. CD38 activity that rises with age, often in the context of low-grade inflammation, accelerates the breakdown of available NAD+ and is a key explanation for why levels fall across the lifespan.
Calcium signaling: Messengers derived from NAD+, such as cyclic ADP-ribose, are involved in releasing calcium from intracellular stores. This extends the importance of NAD+ beyond pure energy metabolism into the regulation of cellular signaling processes.

Dosage Calculation

NAD+ is used in research in the milligram range, not the microgram range that applies to many classic peptides. Subcutaneous administration is considered sensitive to injection speed, which is why many protocols ramp in gradually from the lower end of the range and increase the dose over several days until tolerability can be assessed.

Standard Dosing Parameters

Conservative dose: 100 mg per administration
Standard dose: 250 mg per administration
Higher range: 400-500 mg per administration
Frequency: Once daily or a few days per week, depending on the research protocol
Recommended syringe: 1 mL insulin syringe, since the required volumes are considerably larger than for microgram-dosed peptides

Example Calculation: 1000 mg Vial with 10 mL BAC Water

The common vial size is 1000 mg. Adding 10 mL of bacteriostatic water gives a concentration of 100 mg/mL.

100 mg dose: 100 ÷ 100 = 1.0 mL
250 mg dose: 250 ÷ 100 = 2.5 mL
400 mg dose: 400 ÷ 100 = 4.0 mL
500 mg dose: 500 ÷ 100 = 5.0 mL

At a dose of 250 mg, a 1000 mg vial provides 4 administrations. Because the required volumes are relatively large, some research protocols split a single dose or use a smaller reconstitution volume to raise the concentration. Use the NAD+ calculator above to compute exact volumes for any vial size, reconstitution volume, and target dose.

Note on Administration Speed

NAD+ is well known for producing intense but short-lived sensations when administered too quickly. Research protocols therefore consistently recommend a slow injection. The large half-life discrepancy between NAD+ and its precursors is also relevant: with a systemic half-life of only about 1 to 2 hours, NAD+ is metabolized rapidly, which is why administration frequency is a deliberate part of protocol design.

Reconstitution

NAD+ is supplied as a lyophilized (freeze-dried) powder in sealed vials. It must be reconstituted with bacteriostatic water (BAC water) before use. Do not use sterile water for injection for multi-dose vials. BAC water contains 0.9% benzyl alcohol, which inhibits microbial growth and extends the usable window of the reconstituted solution. Note that NAD+ requires larger reconstitution volumes than most peptides because of its milligram-scale dosing.

Step-by-Step Reconstitution Protocol

Gather supplies: NAD+ vial, bacteriostatic water vial, alcohol swabs, a sterile draw needle (18-21 gauge), and your 1 mL syringe for injection.
Wipe the rubber septa of both vials with fresh alcohol swabs. Allow to air-dry for 30 seconds. Do not blow on the septa or touch them after cleaning.
Draw the desired volume of BAC water (10 mL is standard for a 1000 mg vial). Because common syringes are smaller, this step is done in several portions.
Insert the needle into the NAD+ vial at an angle, directing the tip toward the inner glass wall rather than the lyophilized powder. Injecting BAC water directly onto the powder cake can foam the material and stress it unnecessarily.
Slowly push the plunger, allowing BAC water to run down the inside wall of the vial and gradually contact the powder below. Repeat the steps for each portion until the full volume is transferred.
Gently swirl or roll the vial between your palms until the powder is completely dissolved. The solution is typically clear to pale yellow. Do not shake or vortex the vial.
Label the vial with the reconstitution date and concentration (e.g., "NAD+ 100 mg/mL, reconstituted [date]").

A slight yellow tint is not unusual for NAD+ solutions. However, if the solution appears cloudy, strongly discolored, or contains visible particulate matter, discard the vial and do not inject it.

Storage and Shelf Life

Lyophilized powder (unreconstituted): Store at −20°C for long-term storage. Short-term storage at 2-8°C (refrigerator) is acceptable. Keep away from light and moisture, as NAD+ in dry form is hygroscopic. Do not leave at room temperature for extended periods.
Reconstituted solution: Store in the refrigerator at 2-8°C. NAD+ is less stable in solution than many peptides, so the reconstituted solution should be used promptly. Keep the vial upright and away from light, and write the reconstitution date prominently on the label.
Do not freeze reconstituted NAD+. Freeze-thaw cycles can degrade the molecule and cause loss of activity. Once reconstituted, the vial must remain refrigerated throughout its use window.
Transport: Use an insulated cooler with an ice pack for any travel lasting more than 1-2 hours. Commercial insulated medication pouches maintain 2-8°C for 24-48 hours. Avoid exposure to temperatures above 25°C during transport.

Side Effects and Safety Profile

NAD+ is an endogenous compound, and its safety profile in the research context is generally regarded as favorable. The most common observations relate less to the molecule itself than to the speed of administration. Because controlled clinical data on subcutaneous NAD+ are limited, all use explicitly remains in the research domain.

Commonly Reported Observations

Injection-site reactions such as mild redness, transient swelling, or brief discomfort. Rotating injection sites minimizes localized irritation.
Flushing-type sensations, meaning a feeling of warmth, chest pressure, or tingling, which typically occur when administration is too rapid. A markedly slower injection substantially reduces these reactions in most cases.
Transient nausea, dizziness, or a mild headache shortly after administration. These sensations are usually short-lived and subside once the injection is complete.

Less Common or Theoretical Concerns

Circulatory reactions: Pronounced but short-lived sensations have been described with very rapid administration. A slow injection is the single most important measure for avoiding such reactions.
Interaction with metabolic state: Because NAD+ acts on central metabolic pathways, its interaction with concurrent interventions that affect energy balance has not been comprehensively characterized.
NAD+ and cell proliferation: Because NAD+ supports DNA repair and energy metabolism, its role in the context of existing malignancy is discussed with nuance in the research literature. Individuals with active cancer should not use NAD+ without oncological guidance.

Contraindications

Active cancer or history of malignancy (without medical supervision)
Pregnancy and breastfeeding (insufficient safety data)
Known hypersensitivity to any component of the preparation

With slow administration and standard research doses, NAD+ is generally regarded as well tolerated. Given the absence of large-scale clinical trials on injectable use, caution is warranted, and consultation with a qualified healthcare provider is strongly recommended.

Combinations and Stacks

NAD+ + MOTS-c — The Mitochondrial Stack

NAD+ is frequently considered alongside MOTS-c in longevity research, a mitochondrially encoded peptide that acts on metabolic stress. NAD+ provides the coenzyme that drives the respiratory chain, while MOTS-c acts as a signaling peptide that modulates metabolic adaptation. From a research perspective, both address the mitochondrion from different angles, which is why they are often studied together in protocols focused on mitochondrial function.

NAD+ + 5-Amino-1MQ — The Salvage Stack

A conceptually interesting combination is NAD+ with 5-Amino-1MQ. 5-Amino-1MQ is an inhibitor of nicotinamide N-methyltransferase (NNMT), an enzyme that breaks down nicotinamide. By inhibiting this degradation pathway, it can theoretically keep more nicotinamide available for the NAD+ salvage pathway. Research therefore examines how supplying NAD+ and preserving its precursors complement one another.

NAD+ + SS-31 — The Mitochondrial Protection Stack

NAD+ can also be considered alongside SS-31, a peptide that binds to cardiolipin in the inner mitochondrial membrane and supports the efficiency of the electron transport chain. While NAD+ supplies the fuel for the respiratory chain, SS-31 targets the structural integrity of the membrane on which those reactions take place. This combination is a common theme in research on mitochondrial bioenergetics.

Research-grade NAD+ is available directly from BergdorfBio: NAD+ at BergdorfBio.

Frequently Asked Questions

Is NAD+ a peptide?

No. NAD+ is a dinucleotide, not a peptide. It is not made of amino acids but of two linked nucleotides. It is listed in this calculator because it is handled like an injectable peptide in research: it ships as a lyophilized powder, is reconstituted with bacteriostatic water, and follows the same dosing and storage principles.

How does NAD+ differ from NMN and NR?

NMN (nicotinamide mononucleotide) and NR (nicotinamide riboside) are precursors that the cell must convert into NAD+. NAD+ is the finished coenzyme itself. Precursors are frequently studied orally and pass through several metabolic steps, whereas NAD+ is directly the active molecule. Research compares both approaches to understand how the cellular NAD+ pool can be maintained most effectively.

Why does an NAD+ administration take longer than for other peptides?

NAD+ is known for producing intense but short-lived sensations such as warmth, chest pressure, or nausea when administered too quickly. A markedly slower injection substantially reduces these reactions. For this reason, research protocols consistently recommend slow administration.

Why is the half-life of NAD+ so short?

NAD+ has a half-life of only about 1 to 2 hours in the systemic circulation because it is rapidly metabolized by NAD+-consuming enzymes such as CD38 and through salvage pathways. This short half-life is the reason why administration frequency is a deliberately chosen element of protocol design in the research context.

Does NAD+ affect hormone levels?

No. NAD+ is a metabolic coenzyme, not a hormone. It does not bind to hormone receptors and has no direct effect on the hypothalamic-pituitary-gonadal axis, the thyroid, or the adrenal glands. No post-cycle therapy is required.

Can NAD+ be combined with other compounds?

In research, NAD+ is frequently considered alongside mitochondrially oriented compounds such as MOTS-c or SS-31, as well as the NNMT inhibitor 5-Amino-1MQ. Each compound should, however, be reconstituted separately and administered in its own syringe, as their combined stability in solution is not sufficiently characterized.

Which syringe is needed for NAD+?

Because NAD+ is dosed in the milligram range, the required volumes are considerably larger than for microgram-dosed peptides. At a concentration of 100 mg/mL, a 250 mg dose already requires 2.5 mL. A 1 mL insulin syringe is therefore standard, and larger doses are split as needed.

Where can I buy NAD+?

BergdorfBio offers research-grade NAD+ with verified purity and concentration. View the product page: Buy NAD+ at BergdorfBio. All products are sold strictly for research purposes.

Medical Disclaimer: The information on this page is provided for educational and research purposes only. NAD+ is not an approved drug or medical treatment and is sold strictly for research use. Nothing on this page constitutes medical advice, diagnosis, or a recommendation to use any specific compound. Always consult a qualified healthcare professional before beginning any research protocol. BergdorfBio assumes no liability for the use or misuse of the information presented here.

Žingsnis po žingsnio

Kaip ištirpinti peptidą

Nuo miltelių iki paruošto švirkšto per penkis žingsnius. Kiekius automatiškai apskaičiuoja aukščiau esanti skaičiuoklė.

011
Paruoškite BAC vandenį
Leiskite flakonui ir vandeniui sušilti iki kambario temperatūros. Nuvalykite abu guminius kamštelius alkoholiu.
022
Įtraukite vandenį
Didesniu švirkštu įtraukite skaičiuoklės rekomenduojamą BAC vandens kiekį.
033
Pilkite lėtai
Leiskite vandeniui tekėti peptido flakono sienele, nepurkškite jo tiesiai ant miltelių.
044
Leiskite ištirpti
Atsargiai pasukite flakoną, nekratykite. Milteliai ištirps ir tirpalas taps skaidrus per 1-2 minutes.
055
Įtraukite dozę
Insulino švirkštu įtraukite tiksliai iki apskaičiuotos žymės. Paruošta.

Nuoroda

Dozės ir flakonų dydžiai pagal peptidą

Įprastos pradinės reikšmės orientacijai. Kiekviena eilutė atidaro to peptido skaičiuoklę.

Peptidas	Kategorija	Įprasta dozė	Flakonų dydžiai	BAC (pradžiai)	Prieinamumas	Skaičiuoti
VIP	Nevropeptidų tyrimai	-	10 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
Retatrutide	GLP-1/GIP/GCG	0,5-12 mg	2 / 5 / 10 / 15 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
Cagrilintide	Amilino analogas	-	5 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
Semaglutide	GLP-1	0,25-2,4 mg	2 / 5 / 10 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
Tirzepatide	GLP-1/GIP	2,5-15 mg	10 / 15 / 20 / 30 / 60 / 90 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
GHK-Cu	Vario peptidas	1-4 mg	10 / 20 / 50 mg	5 ml	Tik skaičiuoklė	Skaičiuoti
AHK-Cu	Vario peptidas	-	100 mg	5 ml	Tik skaičiuoklė	Skaičiuoti
BPC-157	Audinių atkūrimas	0,2-0,5 mg	2 / 5 / 10 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
TB-500	Thymosin Beta-4	2-5 mg	2 / 5 / 10 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
CJC-1295 (be DAC)	GHRH analogas	100-200 mcg	2 / 5 / 10 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
Ipamorelin	GHRP	200-300 mcg	2 / 5 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
AOD-9604	Riebalų apykaita	250-500 mcg	2 / 5 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
PT-141	Bremelanotide	-	2 / 5 / 10 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
MOTS-c	Mitochondrinis	5-10 mg	5 / 10 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
Selank	Anksiolitinis	150-500 mcg	2 / 5 / 10 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
SS-31	Elamipretide	0,1-1 mg	5 / 10 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
Glow Stack	Stack	0,5-2 mg	70 mg	3 ml	Tik skaičiuoklė	Skaičiuoti
Klow Stack	Stack	0,5-2 mg	55 mg	3 ml	Tik skaičiuoklė	Skaičiuoti
Melanotan II	Melanokortinas	100-1000 mcg	5 / 10 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
Melanotan I	Melanokortinas	-	5 / 10 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
Sermorelin	GHRH analogas	50-300 mcg	5 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
Tesamorelin	GHRH analogas	1-2 mg	10 / 20 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
Thymosin Alpha-1	Timuso peptidas	0,8-3,2 mg	1.6 / 5 / 10 mg	1 ml	Tik skaičiuoklė	Skaičiuoti
Epithalon	Ilgaamžiškumas	2-10 mg	10 / 20 / 50 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
KPV	Imuninė sistema / barjeras	100-1000 mcg	5 / 10 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
HGH Fragment 176-191	Metabolinis fragmentas	100-500 mcg	2 / 5 / 10 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
Semax	Kognityvinis	100-1000 mcg	10 / 30 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
N-Acetyl Semax	Kognityvinis	100-1000 mcg	5 / 10 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
Hexarelin	GHRP	50-200 mcg	2 / 5 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
GHRP-6	GHRP	50-300 mcg	2 / 5 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
GHRP-2	GHRP	50-250 mcg	2 / 5 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
DSIP	Miegas	50-500 mcg	10 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
5-Amino-1MQ	Metabolinis	2,5-10 mg	10 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
Pinealon	Tiriamasis peptidas	-	10 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
Survodutide	GLP-1/glukagonas	-	10 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
Kisspeptin-10	KISS1R / GPR54	-	10 mg	2 ml	Tik skaičiuoklė	Skaičiuoti
HGH 191AA	Augimo hormonas	1-5 mg	10 mg	1 ml	Tik skaičiuoklė	Skaičiuoti
NAD+	Ilgaamžiškumas / kofaktorius	100-500 mg	1000 mg	10 ml	Tik skaičiuoklė	Skaičiuoti

Reikšmės skirtos orientacijai tyrimų kontekste ir nepakeičia profesionalios konsultacijos.

Kodėl tikslus peptido dozavimas svarbus

Koncentracijos ir injekcijos tūrio apskaičiavimas atrodo paprastas, tačiau tai dažniausia klaidų priežastis. Net 10 % paklaida ištirpinant reiškia, kad veikliosios medžiagos gausite per mažai arba netyčia suleisite per daug.

Liofilizuoti peptidai tiekiami miligramais ir ištirpinami bakteriostatiniame vandenyje (BAC vanduo). Peptido ir vandens santykis lemia koncentraciją, o iš jos išplaukia, kiek vienetų įtrauksite į insulino švirkštą. Insulino švirkštai graduoti vienetais, o ne miligramais. Skaičiuoklė atlieka šį perskaičiavimą ir patikrina patikimumą dėl pavojingiausios klaidos: supainioti mg ir mcg.

DUK

Dažnai užduodami klausimai

Kuo skiriasi mcg ir mg?

Miligramas (mg) yra vienetas, kuriuo parduodami liofilizuoti peptidai, pavyzdžiui, „5 mg BPC-157“. Mikrogramas (mcg) matuoja vienkartinę dozę, pavyzdžiui, „250 mcg vienai injekcijai“. 1 mg = 1 000 mcg. Skaičiuoklė perskaičiuoja automatiškai ir įspėja, jei įvestis atrodo kaip supainioti vienetai.

Ką reiškia „U-100“ ant insulino švirkšto?

U-100 reiškia, kad švirkštas sugraduotas 100 vienetų mililitre. 100 IU = 1 ml, todėl 10 IU = 0,10 ml, nepriklausomai nuo to, kas yra švirkšte. IU skaičiavimas pagrįstas būtent šiuo santykiu.

Kodėl skaičiuoklė kartais rodo labai mažus tūrius?

Kai peptido daug, o vandens mažai, tirpalas tampa labai koncentruotas, todėl vienos dozės tūris būna mažas ir sunkiai nuskaitomas. Naudokitės rekonstitucijos pagalbininku: jis suranda vandens kiekį, kuris duoda aiškią, lengvai nuskaitomą žymę.

Kiek laiko išsilaiko ištirpintas peptidas?

Šaldytuve 2-8 °C temperatūroje paprastai 21-30 dienų. Pažymėkite ant flakono rekonstitucijos datą. Drumstas tirpalas ar dalelės netinka.

Kaip skaičiuoklė veikia su mišiniais, pavyzdžiui, Glow Stack?

Mišiniuose viename flakone yra kelios veikliosios medžiagos. Tiesiog pasirinkite mišinį kaip peptidą: skaičiuoklė papildomai parodys, kiek kiekvieno komponento yra Jūsų injekcijoje. Jei norite derinti kelis atskirus flakonus, naudokitės stackų kūrėju.

Ar skaičiuoklę reikia pildyti kaskart iš naujo?

Ne. Paskutiniai nustatymai saugomi šioje naršyklėje ir atkuriami kitą kartą. Skaičiavimus galite atkurti ir iš istorijos, išsaugoti kaip protokolą arba bendrinti nuoroda.

Susiję peptidai

BPC-157Audinių atkūrimas TB-500Thymosin Beta-4 TesamorelinGHRH analogas

Visos skaičiuoklės

Pasirinkite peptidą

Pasirinkite peptidą, kad atidarytumėte jo skaičiuoklės puslapį su iš anksto užpildytomis reikšmėmis.

NAD+ skaičiuoklė

Pagrindiniai duomenys

Tyrimai ir šaltiniai

What Is NAD+?

Mechanisms of Action

Dosage Calculation

Standard Dosing Parameters

Example Calculation: 1000 mg Vial with 10 mL BAC Water

Note on Administration Speed

Reconstitution

Step-by-Step Reconstitution Protocol

Storage and Shelf Life

Side Effects and Safety Profile

Commonly Reported Observations

Less Common or Theoretical Concerns

Contraindications

Combinations and Stacks

NAD+ + MOTS-c — The Mitochondrial Stack

NAD+ + 5-Amino-1MQ — The Salvage Stack

NAD+ + SS-31 — The Mitochondrial Protection Stack

Frequently Asked Questions

Is NAD+ a peptide?

How does NAD+ differ from NMN and NR?

Why does an NAD+ administration take longer than for other peptides?

Why is the half-life of NAD+ so short?

Does NAD+ affect hormone levels?

Can NAD+ be combined with other compounds?

Which syringe is needed for NAD+?

Where can I buy NAD+?

Kaip ištirpinti peptidą

Paruoškite BAC vandenį

Įtraukite vandenį

Pilkite lėtai

Leiskite ištirpti

Įtraukite dozę

Dozės ir flakonų dydžiai pagal peptidą

Kodėl tikslus peptido dozavimas svarbus

Dažnai užduodami klausimai

Susiję peptidai

Pasirinkite peptidą

VIP

Retatrutide

Cagrilintide

Semaglutide

Tirzepatide

GHK-Cu

AHK-Cu

BPC-157

TB-500

CJC-1295 (be DAC)

Ipamorelin

AOD-9604

PT-141

MOTS-c

Selank

SS-31

Glow Stack

Klow Stack

Melanotan II

Melanotan I

Sermorelin

Tesamorelin

Thymosin Alpha-1

Epithalon

KPV

HGH Fragment 176-191

Semax

N-Acetyl Semax

Hexarelin

GHRP-6

GHRP-2

DSIP

5-Amino-1MQ

Pinealon

Survodutide

Kisspeptin-10

HGH 191AA

NAD+ skaičiuoklė

Pagrindiniai duomenys

Tyrimai ir šaltiniai