PolyGluNAD: a triple-layered redox Peptourbillon — polydatin, NAD⁺ and glutathione in a single-shot Lyoprester SS

1. Three actives, one cake — what PolyGluNAD gathers

PolyGluNAD is built on a simple idea: the molecules that keep a cell young and clean work best together, so hold them in one dried, self-consistent Peptourbillon — several actives in one clean shot →. Three actives are layered into the cake, each chosen for a complementary, beneficial role.

• Polydatin 50 mg — a resveratrol glucoside (piceid)⁷, the more water-friendly, better-absorbed cousin of resveratrol. It is studied as a polyphenol antioxidant and an activator of the SIRT1 longevity pathway — the same NAD⁺-dependent sirtuins the coenzyme layer feeds.
• NAD⁺ 200 mg — nicotinamide adenine dinucleotide¹, the central coenzyme of cellular energy and DNA repair. It is the fuel sirtuins and PARPs spend, and the molecule whose levels tend to fall with age.
• Reduced glutathione 40 mg — the body's master antioxidant⁸, a tripeptide (Glu–Cys–Gly) that neutralises oxidative stress and is a well-studied binder of heavy metals, carrying them toward elimination.

The beneficial story of PolyGluNAD is the sum of the three. Together they aim to support cellular energy and repair, reinforce the master-antioxidant defence, and assist the body's own housekeeping. In Panacea's framing the combination is directed at clearing spike proteins and at chelating and cleaning heavy metals — glutathione is a classical metal-binding detox molecule, while the polyphenol and coenzyme layers support the redox environment that clearance work depends on. These are the beneficial angles the formulation gathers; nothing here is medical advice.

2. RF Tunnel — how a heavy cake reconstitutes cleanly

Loading roughly 290 mg of actives into three stacked layers makes for a dense, heavy cake — and a dense cake is the hardest kind to rehydrate, because diluent tends to wet the outside and leave the core stubborn. Panacea's answer is RF Tunnel. In the early freezing stages, inside the first Lyoprester dual-chamber cartridge →, a tuned radio-frequency modulation shrinks the middle of the forming cake, so a narrow central tunnel is left running through it once drying is complete.

That tunnel is the trick. When the single-shot Lyoprester SS is actioned, the P-EARLs diluent → travels straight down the central channel and rehydrates the cake from the inside out, so even a heavy-loaded triple-layer Peptourbillon reconstitutes cleanly and quickly rather than only wetting its shell. It is a genuinely clever bit of freeze-drying geometry: shape the cake while it freezes so it is easy to bring back later.

3. The Panacea technology behind the cake

PolyGluNAD sits on Panacea's full formulation stack, each technology touching the cake at a different moment. RF Tunnel shapes it during freezing. Holding the amorphous glass above its collapse point — so the cake can be dried without slumping and keeps a long shelf life — is the job of TgShift, which lifts the glass-transition ceiling →. The pressure curve of the dry is shaped by DiastolVAC, a biomimetic vacuum pulsation →, and the whole cycle — temperature, vacuum, timing — is coordinated by S3Pulse, the orchestrator that runs the cycle. The finished cake ships as a Lyoprester SS single-shot cartridge, married to its P-EARLs diluent, and delivered as a ready Peptourbillon. The exact procedures, parameters and hardware behind each of these stay behind the door — proprietary to Panacea Bio Chem and Bogdan Dicoias.

Why NAD⁺ is worth building a cake around — getting a charged, unstable coenzyme into the cell

4. What NAD⁺ actually is

Picture a battery that every cell recharges thousands of times a second. NAD⁺¹ — nicotinamide adenine dinucleotide — is that battery's shuttle. It carries a hydride (a hydrogen with its electrons) from one reaction to another, flipping between an oxidised form (NAD⁺) and a reduced form (NADH). Nearly every pathway that turns food into usable energy runs a step through it, from glycolysis to the mitochondrial electron transport chain.

Beyond energy, NAD⁺ is also spent as a raw material. Enzymes called sirtuins² consume it to tidy up chromatin; DNA-repair enzymes (PARPs) burn through it after damage; the immune enzyme CD38 draws it down with age. Cellular NAD⁺ tends to fall over a lifetime, which is why the molecule sits at the centre of so much metabolism-and-ageing research.

5. The delivery problem

Why you can't just "add NAD⁺" to a cell

Here is the catch that makes this a real engineering puzzle. NAD⁺ is a large, doubly-phosphorylated, negatively charged dinucleotide. Cell membranes are oily and repel exactly that kind of charged bulk, so free NAD⁺ does not simply walk in. On top of that the molecule is chemically labile — sensitive to heat, light, alkaline pH and hydrolysis — so it degrades during processing and storage before it ever reaches a cell.

Nature's own workaround is to move the smaller pieces instead. Cells import precursors — nicotinamide, nicotinic acid, and the two that dominate the supplement conversation, NMN³ (nicotinamide mononucleotide) and NR⁴ (nicotinamide riboside) — and rebuild NAD⁺ internally through the salvage pathway. A dedicated NMN transporter (Slc12a8) was described in 2019, underlining that entry is gated, not free.

That reframing is why formulation and delivery chemistry matter. Two families of strategy recur in the literature. Polymer conjugation and carriers — water-soluble polymers such as polyglutamic acid⁵ (already used to carry cytotoxic drugs) can shield a payload, add solubility and tune release. Antioxidant / polyphenol co-formulation — redox-active companions can buffer the oxidative environment a labile molecule sits in. Both are active research directions, not finished answers.

6. Why it matters — the open frontier

NAD⁺ biology touches an enormous surface: mitochondrial energy output, DNA-repair capacity, circadian rhythm, inflammation and the sirtuin pathways tied to cellular ageing. If NAD⁺ could be raised and, harder still, held where it is wanted — without it degrading in the vial or bouncing off the cell membrane — a long list of metabolic and longevity questions becomes addressable. The open frontier is not discovering NAD⁺; it is the delivery-and-stability last mile: carrying a fragile, charged redox molecule from the bench to the cell with its chemistry intact. That is squarely a formulation problem.

7. Story — the disease that revealed the coenzyme

NAD⁺ announced itself twice. In 1906, Arthur Harden and William Young found that boiled, cell-free yeast juice still sped up fermentation thanks to a small, heat-stable, dialysable factor they called "cozymase" — the substance later shown to be NAD⁺. But the human story is starker. Across the early-1900s American South, pellagra⁶ — the disease of the "four D's": dermatitis, diarrhoea, dementia and death — killed tens of thousands on a corn-heavy diet. Physician Joseph Goldberger showed by diet experiments that it was a deficiency, not an infection. In 1937, Conrad Elvehjem isolated nicotinic acid (niacin) and cured "black tongue" — canine pellagra — almost overnight. The vitamin turned out to be the precursor the body builds NAD⁺ from. A missing coenzyme, written across a continent as a disease, and answered by one small molecule.

8. Where Panacea Bio Chem works

Panacea Bio Chem researches this exact sphere — the stability and delivery of fragile redox-active molecules — and treats it as a formulation problem first. Its platform here is PolyGluNAD: a defined redox / longevity formulation that brings NAD⁺ together with reduced glutathione and the polyphenol polydatin⁷, balanced by a trehalose⁸ glass to a fixed glass-forming target. The intent is a single, dried, self-consistent cake in which a charged coenzyme, an intracellular antioxidant tripeptide and a stabilising polyphenol are held in one amorphous matrix rather than fighting each other in solution.

The formulation last mile is where Panacea's wider toolkit meets NAD⁺. Gentle, low-temperature drying keeps a fragile cake from collapsing — the domain of Cryolapse, the freeze-drying method that works the way nature dries a seed →. Holding the amorphous glass above its collapse point is the job of TgShift, which lifts the glass-transition ceiling →. And physically isolating a redox-labile payload from oxygen and metal exchange is the premise of RedoxVault, a vault around a fragile molecule →. A companion line of work explores NAD⁺ in its ordered, crystalline state — see CrystalNAD, the crystalline counterpart to this glassy platform →.

The exact composition ratios, the redox balancing, the glass-forming targets and the process by which PolyGluNAD is built and dried remain a proprietary secret of Panacea Bio Chem, held by Bogdan Dicoias. The shape of the idea is described here; the recipe stays behind the door.

9. Where it could matter most

Reasoning about the highest-impact uses for a stable, deliverable NAD⁺ / redox cake — offered as research directions, not claims:

• Metabolic & mitochondrial resilience — the largest unmet pull: tissues where energy output and NAD⁺ both decline with age.
• Redox-fragile actives — a co-formulation template for any labile antioxidant that oxidises before it is used (the polydatin + glutathione logic generalises).
• Cold-chain-free longevity formulations — a dried glass cake that does not need a freezer to hold its chemistry, widening where such formulations can travel.
• Skin & barrier redox — local delivery of a stabilised NAD⁺/antioxidant payload to high-turnover tissue.
• Research-grade reference cakes — a fixed, reproducible NAD⁺ matrix as a controlled substrate for further study.

Frequently asked

Trending in the field

References & further reading

1. Nicotinamide adenine dinucleotide (NAD⁺). Wikipedia.
2. Sirtuins — NAD⁺-dependent enzymes. Wikipedia. See also Rajman, Chwalek & Sinclair, "Therapeutic Potential of NAD-Boosting Molecules," PubMed (Cell Metabolism, 2018).
3. Nicotinamide mononucleotide (NMN). Wikipedia.
4. Nicotinamide riboside (NR). Wikipedia.
5. Polyglutamic acid — polymer drug-delivery carrier. Wikipedia.
6. Pellagra — niacin (NAD⁺ precursor) deficiency. Wikipedia.
7. Polydatin (piceid) — a resveratrol glucoside polyphenol. Wikipedia.
8. Trehalose — glass-forming protective sugar. Wikipedia. Glutathione: Wikipedia.