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Nearly a century ago, biochemists stumbled upon a small but deeply influential molecule inside living cells — β-Nicotinamide Adenine Dinucleotide, better known as NAD. Early studies in the 1930s and 40s exposed its role as a vital coenzyme driving redox reactions in metabolism. The sodium salt hydrate form broadened laboratory use by making NAD more water-soluble and stable, an innovation that unlocked broader research and industrial applications. These tweaks didn’t happen overnight or by luck — research teams chipped away at complex chemistry, driven by hope for deeper insight into cellular machinery. My work in molecular biology labs always returned to NAD’s fingerprints, whether in studies of energy cycles or exploring why some cells age faster than others. History reminds us, NAD wasn’t just born in a test tube; it grew as scientists challenged what cells can do, pushing practical questions about health, nutrition, and disease.
β-Nicotinamide Adenine Dinucleotide Sodium Salt Hydrate rarely grabs headlines, but ask people in physiology or neuroscience labs, and you’ll get passionate answers. Its full name trips up anyone reading it for the first time, but the science hides in plain sight: it’s a chemically stabilized version of NAD that works just like the native molecule inside all living cells. This salt form is prized for how it resists degradation during experiments and how it dissolves swiftly in water, making precise dosing and measurement easier. I remember prepping solutions for enzyme assays — the hydrated sodium salt made everything less fussy, less error-prone, more cost-effective for tight student budgets. While doses and storage conditions matter, so does trust that your reagent will perform batch after batch.
In the lab, tiny changes in purity and stability can derail months of work. β-Nicotinamide Adenine Dinucleotide Sodium Salt Hydrate usually appears as a pale yellow or white powder, crystalline under the right microscope, and is highly soluble in water. Its stability picks up thanks to the sodium ions, and proper hydration buffers oxidation risk, letting scientists keep stock solutions for longer stretches without constant monitoring. The molecule features distinct UV absorbance peaks, crucial in tracking concentrations and reaction kinetics — a reality that saves labs money and anxiety. My time working with NAD and its derivatives revealed the tightrope between keeping it active and watching solutions degrade if left uncapped on a cluttered bench, emphasizing why formulation details matter for reproducible science.
Precision in labeling translates directly into research credibility. β-Nicotinamide Adenine Dinucleotide Sodium Salt Hydrate often comes with detailed certificates of analysis: batch purity, water content, pH range when dissolved, and recommended storage temperatures. Mislabel something, and downstream experiments lose all meaning — so regulatory authorities push for detailed, transparent technical specs. The most respected brands share origin, shelf life, and verified purity metrics, following international standards to meet both research and commercial requirements. I’ve seen under-labeled imports jeopardize expensive cell culture runs; the scars still motivate me to double-check paperwork before weighing a single milligram.
Making β-Nicotinamide Adenine Dinucleotide Sodium Salt Hydrate starts with fermentation or enzymatic synthesis of NAD, followed by salt formation using controlled addition of sodium ions and water for hydration. Purification matters — chromatography can extract high-purity product, followed by crystallization to lock in stability. The entire prep avoids harsh solvents or overly high temperatures, reducing byproduct formation and environmental burden. Decades ago, folks might have settled for cruder NAD, but modern demands push for reproducibility and environmental responsibility. Colleagues often debate the value of in-lab prep versus purchasing from trusted vendors, but few dispute: today’s commercial NAD salt hydrates usually outperform homemade alternatives for tight work on critical assays.
The chemistry at play in β-Nicotinamide Adenine Dinucleotide Sodium Salt Hydrate extends well beyond its use as a standard coenzyme. NAD-based reactions drive classic dehydrogenase assays and fuel investigations in mitochondrial function. The sodium salt form survives brief exposure to heat and base, withstanding routine pipetting and buffer swaps. For years, research groups have built NAD analogs by adding tags or modifying the molecule at specific points, paving the way for new diagnostics and therapeutic monitoring. I remember training on site-specific NAD labeling: even a tiny change in the phosphate backbone or the nicotinamide ring immediately altered enzyme interaction profiles. This adaptability fuels research in signaling pathways, cell aging, and targeted drug delivery, but also raises questions about downstream stability and unintended biological effects.
Science loves a good acronym but rarely rewards clarity. For β-Nicotinamide Adenine Dinucleotide Sodium Salt Hydrate, synonyms include NAD sodium salt, oxidized NAD hydrate, and its registry number. Anyone new to cell biology faces whiplash from interchanging NAD, NAD+, and the sodium salt hydrate. This nomenclature maze sometimes leads to procurement mistakes, so outreach and education about key naming conventions could close a gap between suppliers and researchers. When I started out, the lack of standardized names tripped up more than one grant proposal or journal submission, creating unnecessary confusion for teams who just wanted to make progress.
Lab safety guidelines reflect a respect for both the science and the people carrying it out. β-Nicotinamide Adenine Dinucleotide Sodium Salt Hydrate, though biologically active, appears non-hazardous under routine conditions. Mishandling concentrated dust or skipping standard gloves still has obvious risks — skin and eye irritation, airway exposure, and accidental ingestion remain valid concerns in high-throughput labs. Regulatory frameworks push for safe handling instructions, spill control, and personal protective equipment. Training pierces any sense of complacency — more than one chemistry student (myself included) underestimated the headache that comes from powder spills on a damp benchtop. Clean technique, good labeling, and appropriate waste disposal keep operational risks at bay and build trust in shared research spaces.
Uses for β-Nicotinamide Adenine Dinucleotide Sodium Salt Hydrate stretch from clinical diagnostics to food science, with many touchpoints in cell culture, enzymology, and even biomanufacturing. The molecule takes center stage in redox assays for metabolic research, cancer biology, and brain metabolism, often doubling as a marker for mitochondrial health. Food labs use it in fortification and authenticity testing. Pharmaceutical research leans on the stability of the hydrated sodium salt to screen for NAD-related drug action, charting uncharted territory in age-related disorders. In my years of troubleshooting assay failures, the difference between shelf-worn NAD and freshly opened sodium salt hydrate often spelled the difference between publishable data and wasted weeks.
R&D teams keep pushing boundaries with NAD, and the sodium salt hydrate is central to every push — from optimizing metabolic therapies to realizing the promise of NAD-boosting supplements. Innovations unfold in two worlds: refining the production and purity of the molecule, and rethinking how it might help treat cellular aging, metabolic dysfunction, or neurodegeneration. Startups and major labs alike look for ways to increase cellular NAD safely, seeking molecules with high purity and consistent performance. For graduate students, a good NAD sample means fewer headaches on high-stakes projects; for industry, it means a reliable foundation for clinical trials. Commitment to robust quality in both research and manufacturing lets science move beyond theory into medicines and diagnostics that touch real patients.
Toxicology often gets pushed aside by those eager for results, but β-Nicotinamide Adenine Dinucleotide Sodium Salt Hydrate earns careful scrutiny. Early toxicity studies came back reassuring — no mutagenicity, low acute toxicity, minimal chronic effects in animal models — but best practices hold that every new use must consider context and dose. High concentrations or unintended routes of exposure could bring unknown problems, especially if adoption in supplements or intravenous therapies picks up speed. Calls for transparency in safety data resonate in communities impacted by the push toward anti-aging or metabolic supplements. My academic mentors stressed that small molecules only seem benign until someone skips caution, and safety studies never finish — they simply deepen over time.
Looking ahead, higher purity, fine-tuned analogs, and clearer delivery modes promise to unlock new uses for β-Nicotinamide Adenine Dinucleotide Sodium Salt Hydrate. Researchers keep finding unexpected roles for NAD in DNA repair, immune response, and cell signaling, setting the stage for therapies that could address everything from neurodegeneration to metabolic syndrome. Clear regulatory standards, affordable access to high-quality product, and shared data on long-term effects will shape its journey from bench to bedside. Personally, I remain hopeful but cautious: history shows that molecular breakthroughs bring real change when paired with responsible science and honest dialogue between academic, industrial, and public interests. If the next decade’s research brings progress on aging, energy metabolism, and disease, chances are this humble sodium salt hydrate will be there in the fine print — a small molecule with outsized impact.
Every time someone lifts a spoon or sprints down the street, their cells pull off a tiny bit of magic. That magic has a name—NAD+, which stands for nicotinamide adenine dinucleotide. Add “sodium salt hydrate” and it just points to how this vital molecule gets packaged for labs and industry. Most people never think about what drives their cells, but this compound works like a fuel currency in every living thing—plants, animals, and people.
Inside our bodies, NAD+ runs the show for energy. Cells use it to transfer electrons—a little relay race that sends power across the steps of metabolism. Without it, mitochondria have no spark, muscles fizzle, and brains feel the fog. If you’ve run a marathon or pulled an all-nighter, the tiredness comes in part because you’ve pushed this system to its edge.
Scientists who study energy, metabolism, and aging trust β-nicotinamide adenine dinucleotide sodium salt hydrate for their experiments. They use it to keep reactions going in test tubes, to measure how well enzymes work, and to reveal how cells respond to stress. Research on sirtuins, PARPs, and other proteins that defend cells during tough times ties back to NAD+—and so does much of the buzz about “anti-aging.”
When researchers test new medicines for diabetes or neurodegenerative diseases, they often need to supplement or measure NAD+ in cells. This compound lets them ask questions they can’t answer without pure, reliable ingredients. Its sodium salt hydrate form dissolves easily and stays stable, which is why labs keep it stocked.
Interest in NAD+ doesn’t stay in the lab. Supplement companies tout ways to “boost NAD+ levels,” chasing the idea that more could mean better aging, sharper memory, or increased physical energy. Some early studies hint that raising NAD+ helps mice fight neurodegeneration, and supporters hope these findings translate to humans. People battling rare metabolic disorders, like niacin deficiencies, sometimes get medical NAD+ administration. Clinical trials look at NAD+ as a potential treatment, but the jury's still out on some of the wilder claims.
The demand for β-nicotinamide adenine dinucleotide sodium salt hydrate as a benchmark ingredient has grown with all this interest. Yet, not all products contain pure NAD+, so quality controls and third-party testing matter when safety’s on the line.
Large-scale production of this compound usually takes place in specialized chemical plants. Sourcing high-quality raw materials and following safe manufacturing practices can cost money—and not all manufacturers play by the same rules. Poorly produced batches may include impurities, which could skew experiments or risk health if used in medical settings.
Access to this critical ingredient matters across more than just big-name research institutions. Smaller labs or clinics in lower-resource settings sometimes struggle with cost or supply shortages. Fairer distribution of research resources makes science stronger and results more trustworthy. Making sure ethical and environmental standards guide its production protects communities and the planet. The best science builds on clean, trustworthy basics—this one included.
The science of NAD+ relies on careful, honest communication and transparent studies. Scientists working with β-nicotinamide adenine dinucleotide sodium salt hydrate must document their work thoroughly and share what they find. When regulators and industry experts team up with academic researchers, new advances get checked, double-checked, and shared. If people use this compound wisely, both in the lab and potentially in medicine, more can benefit from discoveries that began with a scoop of white powder and a question about life’s tiny engines.
Anyone handling β-Nicotinamide Adenine Dinucleotide Sodium Salt Hydrate in a lab learns quickly how sensitive this compound can get. Even a short lapse in storage can mean a batch loses potency, and that puts results at risk. The most common advice centers around keeping it cold and dry, and that comes from decades of researchers learning the hard way. Just leaving the bottle out on the bench, or even near a sunlit window, can mean dealing with spoilage.
I’ve seen more than one scientist return to samples that had turned yellow, a clear sign the material had started to break down. Stick the vial in a freezer at -20°C, seal tightly, and keep it away from moisture. Every time the vial comes out, condensation can start—a quick wipe with a dry tissue, or better, working quickly with gloves, preserves quality. Lab notes back this up: cyclic freeze-thaw cycles let in water, and that spells trouble, so smaller aliquots cut the risk.
β-Nicotinamide Adenine Dinucleotide Sodium Salt Hydrate, or NAD for short, sits in the middle of a lot of biochemical reactions, especially during redox reactions in metabolism studies. If the compound degrades, enzyme reactions roll off-track. Enzymatic assays that should run clean have thrown up strange noise because the NAD lost stability.
Recent journal articles discuss how NAD’s reduced form, NADH, also drops off in stability under light or warm conditions. Exposure to air can convert NADH back to NAD+, skewing intended experimental ratios. Just a flush of nitrogen or argon over open solution in glassware can prevent this. Trusting the label’s storage instructions often keeps things simple, but a little extra vigilance—like amber vials and clean tools every time—pays off.
Anyone curious can dig through product sheets from Sigma-Aldrich, Thermo Fisher, or suppliers like Cayman Chemical. Each references much the same: cold, dry, and light-protected storage. Some include shelf-life data showing that proper storage maintains NAD standards for a year or more. Peer-reviewed papers offer more detail: studies tracking stability curves at different temperatures demonstrate that room temperature storage can lead to 10-20% loss in two weeks. At 4°C, the curve flattens, and almost no loss appears after the same time.
Speaking from personal experience, opening a fresh container and splitting into single-use portions makes sense. I’ve seen labs rely on old stocks only to discover enzyme kinetics that made no sense. It usually traced back to degraded NAD. Making a habit of logging storage times and keeping tabs on temperatures with digital logs secured experiment quality over time.
The best way to secure NAD’s stability combines a handful of practical steps: freezing in airtight containers, dividing into aliquots, limiting freeze-thaw cycles, and storing in dark places. Purchasing from respected vendors helps too, since reputable quality checks guarantee less variation between lots. Some labs even adjust workflows to pull out only as much as needed per session, avoiding exposure.
Adding desiccant packs into storage drawers or boxes further lowers the risk of humidity kicking off hydrolysis. Writing clear dates on aliquots or vials removes any question about age. Where budgets allow, using a dedicated cold-storage fridge or freezer prevents cross-contamination. A bit of upfront organization goes a long way here, saving a researcher’s time and project funds.
The trust researchers place in NAD results ties directly back to how well it’s stored and handled. Letting diligence slip at the bench can ruin breakthrough experiments. Good storage practice, day in and day out, secures the data everyone counts on.
Many labs rely on β-Nicotinamide Adenine Dinucleotide (NAD+) sodium salt hydrate when working with metabolism, aging, or disease models. Before adding this compound to plates or injecting it into study animals, it’s important to look beyond the chemical name and think about quality and safety. In my own research days, questions like “Where did this batch come from?” and “What’s the purity?” proved just as important as concentration. NAD+ is fragile and sensitive to heat, pH, and oxygen, so even small contaminants or improper storage will mess with your experiment’s reliability.
Not all commercially available NAD+ is equal. Some vendors label their NAD+ sodium salt hydrate for industrial or educational use, with no promise of sterility or low endotoxin content. Cell culture and especially in vivo work demand chemicals free of bacteria, fungi, and endotoxins. Animals and cultured cells react to even trace contaminants, which means any ambiguity in product quality could explain strange or irreproducible data. I remember running a control plate only to find all my cells dying—not from my treatment, but from dirty NAD+.
Pharmaceutical- or research-grade NAD+ sodium salt hydrate usually carries purity documentation, batch certificates, and sometimes endotoxin testing. Researchers should always ask suppliers for a Certificate of Analysis showing at least 98% purity, low heavy metals, and absence of microbial growth. If the paperwork feels absent or incomplete, there’s a good chance the compound won’t support careful biology work. I’ve seen colleagues assume “analytical grade” meant cell-safe, only to lose weeks when experiments failed from background toxicity.
Stability emerges as another major concern. This molecule breaks down in solution and reacts with light and oxygen. To keep it working, dissolve only what you need, use cold sterile buffers, and store aliquots away from repeated freeze-thaw cycles. I’ve learned the hard way that leaving a NAD+ solution out for more than an hour drastically harms its activity. Quality suppliers often offer NAD+ in lyophilized (freeze-dried) form for use in sensitive biological experiments, while bulk suppliers may not guarantee such features.
Moving NAD+ sodium salt hydrate into living animals brings even more challenges. Endotoxin traces, heavy metals, and undefined stabilizers can trigger immune responses. Regulatory animal experiments often require pharmaceutical-grade reagents and documentation. Most cell-grade NAD+ doesn’t meet that bar. If animal work forms the focus, go straight to a supplier with proven animal and clinical research track records. It’s tempting to save money on the cheaper stuff, but the cost pales compared to wasted time and lost animals due to contaminated material.
Before buying, ask about the grade, batch certificate, and possible testing for sterility and endotoxins. Stick to prepared protocols: filter all solutions, stick with cold and dark handling, and toss anything questionable. If in doubt, reach out to researchers who’ve published similar work—most will answer a few practical sourcing questions. NAD+ sodium salt hydrate offers a powerful tool for deeper research, but only with mindful sourcing and handling does it truly deliver solid, trustworthy results.
Researchers lean on raw material purity for trustworthy results. Contaminants mess with experiments—unexpected peaks in chromatograms or odd reactions that waste both time and money. With β-Nicotinamide Adenine Dinucleotide Sodium Salt Hydrate (often just called NAD), the majority of suppliers offer a purity above 95%. A product in the 98-100% range earns its place in enzyme assays and clinical methods. Work with something less pure and you risk inconsistent activity, lower yields, or even false positives. The science community’s faith in published results ties back to the purity of every chemical in use.
NAD as a sodium salt hydrate brings along water molecules and sodium ions. Its classic molecular weight clocks in at 709.41 g/mol for the anhydrous free acid form. Add a sodium ion and a water molecule, as common in commercial preparations, and the molecular weight bumps up. For the sodium salt trihydrate, that value lands near 744.42 g/mol. Now, if you’re setting up a buffer or measuring concentrations, use the correct weight—forgetting to account for those extras leads to errors that ripple through every calculation downstream.
Inconsistent suppliers sometimes introduce extra sodium, chloride, or trace metals. These impurities interfere with NAD’s behavior as a coenzyme in oxidation-reduction reactions. Anyone running sensitive enzymes can tell you that a batch change sometimes means trouble: the enzyme won’t work as before, or activity drops. That’s not just background noise or minor inconvenience—it undercuts the value of the experiment. Many labs run a UV-Vis or HPLC test on each new bottle, confirming purity and consistency. It can look like overkill, but one contamination slip means wasted weeks or even publications held up for “unexplained results.”
Procurement officers face a tough task. Labs in academia and industry work with limited budgets, but cheap NAD rarely pays off. Large-scale manufacturers with GMP certification offer robust documentation: certificates of analysis, residual solvent data, heavy metal reports. This transparency means scientists focus on discovery, not detective work on contaminants. Some countries enforce stricter oversight than others. In my experience, products sourced from established European or US suppliers offer tighter consistency, especially batch to batch.
Demanding suppliers document salt forms and hydration states on every delivery takes guesswork out of weighing and mixing. Adopting reference standards for molecular weight, and running spot checks in-house, can catch errors early. Open sharing across labs about which vendors meet high standards gives everyone a leg up. Working with professional organizations—think USP or Sigma—bolsters confidence that results rest on solid chemical ground.
Ultimately, precision science doesn’t thrive on luck. Accurate knowledge—purity, molecular weight, everything in between—lays down a foundation. A quick scan of the data sheet isn’t enough; trust but verify, then share what you learn.
Handling β-Nicotinamide Adenine Dinucleotide Sodium Salt Hydrate in a lab can feel intimidating at first glance. It’s not the catchiest chemical name, and having used it a fair bit in biochemistry research, I know details matter. This substance plays a big role in enzyme assays, metabolic studies, and cell signaling work. If someone had given me clearer advice earlier in my career, I probably would have saved more than a few ruined samples.
The powder in the bottle looks harmless, but exposure to air and moisture quickly degrades it. Every time I weigh it out, I work fast with clean spatulas and gloves. The balance area stays clean; no eating or drinking nearby. Once you open the container, limit the time it sits out—close it right after use.
Most protocols call for dissolving the powder in distilled, deionized water or buffer. I’ve found it helps to bring the water to room temperature first, since cold water slows the process. Stirring gently—no shaking—preserves the integrity of the molecule. The labs I’ve worked in always filter-sterilize solutions using 0.2-micron filters, not trusting any unfiltered solution for critical enzyme experiments.
I once forgot to cover a fresh stock solution under light, and by the end of the day, it had changed color. β-Nicotinamide Adenine Dinucleotide Sodium Salt Hydrate breaks down quickly in light and heat. I now wrap stocks in foil and chill them on ice packs any time I am away from my benchtop.
Long-term storage calls for aliquots. Freezing single-use portions at -20°C saves the trouble of repeated thawing, which damages the molecule. Every technician I know labels aliquots with the prep date. If someone finds an old sample in the freezer, most labs discard it rather than risk unreliable results.
Sloppy technique with NAD stocks shows up fast. Enzymatic assays end up with poor reproducibility, and researchers chasing odd results waste valuable time. My own data improved when I started preparing solutions in small batches and protecting everything from light. Research from cell physiology to cancer biology can suffer from just a little carelessness here.
The science backs up those habits. Studies show a steep drop-off in activity when NAD solutions sit unprotected at room temperature, sometimes in just hours. It pays to think ahead, making only what you plan to use. Fresh solutions mean better controls, clearer differences, and reliable measurements.
After years in research, I’ve seen plenty of mistakes. Leaving powders open leads to degraded chemicals. Spilling solution into shared water baths contaminates everyone’s work. I learned to keep a clear, labeled workspace and dispose of any solution that might have been exposed. Simple as that.
If your team shares the compound, set ground rules. Document lot numbers and track storage. If accidents happen, report and clean up right away—people downstream will thank you.
Bryan, my old lab manager, always stressed the same crucial step: train everyone who handles sensitive biochemicals. Pairing new staff with experienced seniors makes the procedures stick. Quick refresher sheets outlining storage, handling, and disposal steps cut down on reckless mistakes. Labs with a dedicated safety shelf or storage drawer for sensitive stocks see fewer ruined experiments.
NAD research unlocks some of biology’s central mysteries. Making sure the raw material stays reliable means better science—nothing fancy, just careful, steady work.
| Names | |
| Preferred IUPAC name | sodium (2R,3S,4R,5R)-5-(6-aminopurin-9-yl)-3,4-dihydroxyoxolan-2-yl)methyl dihydrogen [(2S,3R,4R,5R)-5-(3-carbamoylpyridin-1-ium-1-yl)-3,4-dihydroxyoxolan-2-yl]phosphonate hydrate |
| Other names |
β-NAD·Na NAD-Na Nicotinamide adenine dinucleotide sodium salt DPN sodium salt Coenzyme I sodium salt |
| Pronunciation | /ˌbeɪtə nɪˌkəʊtɪˈnæmɪd ˈædəˌniːn daɪˈnʊkliːəˌtaɪd ˈsəʊdiəm sɔːlt haɪˈdreɪt/ |
| Identifiers | |
| CAS Number | 606-68-8 |
| 3D model (JSmol) | 3D model (JSmol) string for β-Nicotinamide Adenine Dinucleotide Sodium Salt Hydrate: ``` 6BHG ``` This is the PDB ID for the structure that represents NAD⁺ (Nicotinamide adenine dinucleotide), commonly used in JSmol viewers. |
| Beilstein Reference | 3591868 |
| ChEBI | CHEBI:57540 |
| ChEMBL | CHEMBL4169892 |
| ChemSpider | 18746372 |
| DrugBank | DB00173 |
| ECHA InfoCard | 08be9bbb-c6dd-4319-9816-1197481d1fe4 |
| EC Number | 53-84-9 |
| Gmelin Reference | 8987 |
| KEGG | C00003 |
| MeSH | D009647 |
| PubChem CID | 24277674 |
| RTECS number | SZ9760000 |
| UNII | H4N855PNZ1 |
| UN number | Non-regulated |
| CompTox Dashboard (EPA) | DJ1QT1Q0KD |
| Properties | |
| Chemical formula | C21H26N7NaO14P2·xH2O |
| Molar mass | 744.41 g/mol |
| Appearance | White to off-white powder |
| Odor | Odorless |
| Density | Density: 1.6 g/cm³ |
| Solubility in water | Soluble in water |
| log P | -4.3 |
| Acidity (pKa) | 11.0 |
| Basicity (pKb) | 6.12 |
| Magnetic susceptibility (χ) | -74×10⁻⁶ cm³/mol |
| Viscosity | Viscous liquid |
| Dipole moment | 5.54 D |
| Pharmacology | |
| ATC code | A16AX56 |
| Hazards | |
| Main hazards | May cause respiratory irritation. May be harmful if swallowed. May cause eye, skin, and respiratory tract irritation. |
| GHS labelling | GHS07, Warning, H315, H319, H335, P261, P305+P351+P338 |
| Pictograms | GHS07 |
| Signal word | Warning |
| Hazard statements | No hazard statements. |
| Precautionary statements | P264, P270, P273, P301+P312, P330, P501 |
| LD50 (median dose) | LD50 (median dose): Mouse, intravenous: 146 mg/kg |
| NIOSH | TT0800000 |
| PEL (Permissible) | PEL: Not established |
| REL (Recommended) | 20-30 mg/ml |
| Related compounds | |
| Related compounds |
Nicotinamide adenine dinucleotide (NAD) Nicotinamide adenine dinucleotide phosphate (NADP) Nicotinamide mononucleotide (NMN) Nicotinamide riboside Nicotinamide Adenosine diphosphate ribose |
