A Chesapeake Bay retriever, coat still wet, sitting in golden field grass at low sun.
For veterinary professionals

The evidence behind the plasma platform

PlasmaDrive™ is formulated on a spray-dried plasma platform, supported by peer-reviewed research across canine, equine, and livestock nutrition. This page presents that evidence the way you would review it: what each study measured, what it supports — and what it does not.

Every study disclosed
Structure / function lane only
1
Canine OA RCT
27
Horses, gait endpoint
40+
Peer-reviewed sources
30+
Years in animal nutrition
Evidence map

Six bodies of evidence, weighed honestly

Not all evidence carries the same weight for a joint claim. Select a category to see exactly what it supports — and where it stops.

Canine plasma — joint & OA
Direct but thin
UC-II® head-to-head vs glucosamine
Direct comparative
Canine plasma — gut, digestibility & immune
Supportive
Equine plasma — gait & inflammation
Translational
Gut barrier, immune & mechanism
Mechanistic
Livestock plasma — swine & cattle feed
Safety & mechanism only

Bar length reflects the weight of each category for a canine joint claim specifically — an editorial judgement, not a statistic.

Direct but thin

Canine plasma — joint & OA

What it supports

Dietary spray-dried plasma improved lameness scoring, inflammatory indicators, and joint biomarkers in senior dogs with diagnosed osteoarthritis (Sun 2026) — the peer-reviewed result the platform is built on.

Where it stops

One controlled trial, at roughly ten times the PlasmaDrive chew dose, with APC co-authorship. One trial is not “clinically proven.”

Read the studies
Direct comparative

UC-II® head-to-head vs glucosamine

What it supports

In head-to-head canine trials, UC-II outperformed glucosamine + chondroitin on both owner-reported scoring and objective force-plate measurement (D’Altilio 2007; Gupta 2012).

Where it stops

The percentages belong to UC-II at trial doses in those trials — they do not transfer to the PlasmaDrive formula as a whole.

Read the studies ↓
Supportive

Canine plasma — gut, digestibility & immune

What it supports

Dogs accept plasma, digest it well, and respond favourably on gut, microbiota, and immune measures (Mioto 2025, U. of Illinois; Quigley 2004).

Where it stops

Neither is a joint study. Research Beagles, not client-owned patients.

Read the studies ↓
Translational

Equine plasma — gait & inflammation

What it supports

Orally administered plasma proteins reached a systemic inflammatory endpoint and an objective movement measure in 27 mature horses (Fikes 2021, Texas A&M). The only other species with a movement endpoint.

Where it stops

Different species, different dose scale (40–80 g/day), different endpoint. Context for the mechanism, not canine evidence.

Mechanistic

Gut barrier, immune & mechanism

What it supports

Controlled rodent work explains how oral plasma lowers systemic inflammatory tone: reduced pathogen binding, barrier integrity, modulated cytokine expression (Pérez-Bosque series; Miró 2017).

Where it stops

Explains how, not whether, in a target species. Mouse cognition data is never presented as a canine benefit.

Read the studies ↓
Safety & mechanism only

Livestock plasma — swine & cattle feed

What it supports

Three decades and hundreds of controlled studies establish safety at scale and an IgG-mediated gut mechanism, including an independent meta-analysis (Balan 2021, Massey University).

Where it stops

Not joint evidence. Any “hundreds of studies” line attaches to safety and mechanism — never to joint benefit.

Canine plasma — joint health

The anchor: one randomised controlled trial

This is the entire canine joint-specific plasma literature to date. It is a real, positive, peer-reviewed result — and it is one trial, at a dietary dose. Both halves of that sentence matter.

Flagship — canine OA RCT
+
Sun Z, Campbell J, Polo J, et al. Effects of spray-dried animal plasma on inflammatory indicators, antioxidant capacity, and joint health in senior dogs.
J Anim Sci. 2026;104:skag043 · doi:10.1093/jas/skag043 · Open access · APC R&D with China Agricultural University
Design

Randomised controlled feeding trial. Twenty-four dogs over seven years of age, each with osteoarthritis diagnosed on both radiographic evidence and clinical signs, in two groups of twelve. Treatment received the basal diet with spray-dried animal plasma at 4% inclusion replacing chicken meal. Forty-two days.

Findings

Improvement in lameness scoring alongside favourable shifts in inflammatory indicators, antioxidant capacity, and joint-relevant biomarkers including matrix metalloproteinase activity. Benefit reached significance at day 42 rather than the earlier timepoint.

Supports

That dietary spray-dried plasma can improve clinical signs and joint biomarkers in dogs with diagnosed OA. A real, positive, peer-reviewed result — the reason the platform exists.

Does not support

Any claim at the PlasmaDrive chew dose. Trial exposure (~28 g/day) is roughly an order of magnitude above a commercial chew serving. A single trial with industry co-authorship is not “clinically proven.”

Authorship disclosure. APC personnel are co-authors. University partner: China Agricultural University, Beijing.

Canine plasma — gut & digestibility

Dogs accept it, digest it, and respond on gut and immune measures

Two studies carry the safety, palatability, and whole-body-health story. Neither is a joint study, and neither is presented as one.

Academic — gut & immune
+
Mioto JC, Oba PM, Campbell JM, de Godoy MRC. Effects of spray-dried plasma on nutrient digestibility, fecal metabolites, microbiota, and immune and inflammatory biomarkers in adult dogs.
J Anim Sci. 2025 · doi:10.1093/jas/skaf373 · University of Illinois Urbana-Champaign with APC
Design

Twelve adult Beagles in a replicated Latin square across four dietary treatments: control; 4% plasma as a kibble coating; and 4% or 8% plasma in the kibble matrix before extrusion. Swine-derived plasma partially replaced chicken meal; extrusion parameters were also evaluated.

Findings

Plasma inclusion influenced nutrient digestibility and modulated gut microbiota, with meaningful shifts in faecal metabolite profiles indicating a beneficial microbial effect. Serum chemistry and immune and inflammatory biomarkers were assessed alongside.

Supports

Gut-health and digestibility positioning, and the whole-body framing of the platform — from a US university animal science department.

Does not support

Any joint or mobility claim. This study did not measure joints. Research Beagles, not client-owned patients.

Authorship disclosure. University of Illinois Urbana-Champaign, Department of Animal Sciences, with APC co-authorship.

Foundational — palatability
+
Quigley JD, Campbell JM, Polo J, Russell LE. Effects of spray-dried animal plasma on intake and apparent digestibility in dogs.
J Anim Sci. 2004;82:1685–1692 · doi:10.2527/2004.8261685x
Design

Feeding study in Beagles evaluating dietary spray-dried animal plasma at 2% inclusion against control, measuring voluntary intake and apparent nutrient digestibility.

Findings

Plasma inclusion significantly improved dry-matter and crude-fibre digestibility and was highly palatable — dogs readily consumed plasma-containing diets.

Supports

Baseline safety, acceptance, and nutritional value. The palatability finding is commercially meaningful for a chew format.

Does not support

Joint, mobility, or anti-inflammatory claims.

Authorship disclosure. All four authors are APC personnel; no university partner. Used for palatability and digestibility, not as an independence signal.

Mechanism of action

How an oral protein reaches a joint outcome

The question a veterinarian asks first: by what mechanism would a blood-derived protein fed by mouth affect a joint? Plasma acts systemically on inflammation and the gut barrier — not locally on cartilage. Step through the pathway.

1
Oral intake — the bioactive fraction
2
Intestinal mucosa — barrier & binding
3
Systemic immune modulation
4
Joint comfort — the plausible route
STEP 01 OF 4

Spray-drying preserves a bioactive protein fraction

Spray-dried plasma retains functional proteins: immunoglobulins (principally IgG), albumin, transferrin, growth factors, and bioactive peptides. This fraction — not amino-acid nutrition — is what gives the ingredient a defined biological job.

Evidence. Composition characterised in an independent review (Kazimierska 2023, open access): immunoglobulins, albumin, growth factors, peptides, transferrin, and enzymes.

STEP 02 OF 4

IgG acts at the gut wall

Fed orally, the IgG-rich fraction acts at the intestinal mucosa: it reduces pathogen binding to the gut wall and supports barrier integrity. This is the mechanism behind three decades of swine post-weaning data.

Evidence. Balan 2021 meta-analysis attributes the livestock effect substantially to IgG preventing pathogen binding; Pérez-Bosque rodent series (2004–2010) shows improved barrier function.

STEP 03 OF 4

Local response becomes systemic

Modulating the mucosal immune response lowers pro-inflammatory cytokine expression beyond the gut. In mature horses, oral plasma proteins reached serum TNF-α and IL-1β alongside an objective gait endpoint — evidence the signal is systemic in a large athletic mammal.

Evidence. Fikes 2021 (Texas A&M, randomised, 27 horses, open access): gait kinematics and systemic inflammatory cytokines over 34 days at 40–80 g/day.

STEP 04 OF 4

Lower inflammatory tone, not cartilage substrate

Chronic low-grade inflammation is a principal driver of osteoarthritic pain and progression — not merely a consequence of mechanical wear. A systemic reduction in inflammatory tone is therefore a plausible route to joint comfort that does not require the ingredient to reach the joint as a structural substrate. That is a genuinely different mechanism from glucosamine.

Evidence. The canine test of this chain is Sun 2026: lameness scoring, inflammatory indicators, and MMP activity all moved together at dietary dose over 42 days.

← Previous
Next step →
A distinction this page holds

Oral spray-dried plasma (SDP) and injectable platelet-rich plasma (PRP) are entirely different products, with separate evidence bases and separate regulatory status. Everything on this page concerns oral SDP as a dietary ingredient — nothing here relates to PRP therapy.

Dose rationale

The dose gap, shown rather than hidden

The canine joint trial fed plasma at roughly 4% of the diet — on the order of 28 g/day. No chew on the market delivers that. PlasmaDrive is informed by this literature, not proven by it; PlasmaDrive Pro narrows the gap during loading, and whether that matters is what the Phoenix Bioscience observational pilot is designed to find out.

1 chew · under 40 lb
2 chews · 40–99 lb
3 chews · 100 lb+
PlasmaDrive™ daily chew · 1 chew, 2,500 mg plasma each
2,500 mg/day
PlasmaDrive Pro™ loading phase · chew + 10,000 mg/day topper, 60 days
12,500 mg/day
PlasmaDrive™ daily chew · 2 chews, 2,500 mg plasma each
5,000 mg/day
PlasmaDrive Pro™ loading phase · chew + 10,000 mg/day topper, 60 days
15,000 mg/day
PlasmaDrive™ daily chew · 3 chews, 2,500 mg plasma each
7,500 mg/day
PlasmaDrive Pro™ loading phase · chew + 10,000 mg/day topper, 60 days
17,500 mg/day
Sun 2026 trial exposure · 4% dietary inclusion, 42 days
~28,000 mg/day

Trial exposure is approximate, scaled from the dogs studied. PlasmaDrive Pro loading intake ranges 12,500–17,500 mg/day by weight tier — the only configuration in the category that approaches study-level exposure. Whether loading accelerates or amplifies response is a hypothesis under test in the Phoenix Bioscience observational pilot (PBX-PF-002), not an established finding.

UC-II® head-to-head

The strongest comparative data in the formula

Unlike everything else on this page, the UC-II comparison rests on direct head-to-head trials in dogs — the same animals, the same protocol. It is why UC-II is the one branded active remaining in PlasmaDrive.

Onset of benefit
Objective force plate

Days on supplement before improvement reached statistical significance, each in its own randomised canine trial (scale 0–120 days).

UC-II® 10 mg/day · D’Altilio 2007
Day 30

Significant reduction in overall pain by day 30; maximum effect at day 120. All groups relapsed after a 30-day withdrawal.

Glucosamine 2,000 mg + chondroitin 1,600 mg · McCarthy 2007
~Day 70

In the canonical randomised canine trial, glucosamine/chondroitin did not reach significance until approximately day 70 — markedly slower onset than the NSAID control arm.

Improved on force plate

UC-II®

Greater improvement than glucosamine + chondroitin on both subjective pain scoring and objective ground-force-plate measurement, with no safety signals on organ-function monitoring (Gupta 2012, Murray State University).

Did not separate from placebo

Glucosamine / chondroitin

In block-randomised, double-blind, placebo-controlled force-plate testing across 75 dogs, glucosamine/chondroitin did not separate from placebo on peak vertical force (Kampa 2023). Two systematic reviews judge the evidence weak (Barbeau-Grégoire 2022; Vandeweerd 2012).

Force plate is the objective endpoint canine OA sceptics respect. The glucosamine literature is mixed rather than uniformly negative — the defensible framing is slow onset and objectively unproven, with citations. Not “glucosamine doesn’t work.”

Dosing disclosure. The canine clinical dose of UC-II® is 40 mg/day. PlasmaDrive delivers 40 mg/day at the 40–99 lb two-chew tier and above; dogs under 40 lb receive 20 mg/day. Trial percentages belong to the cited studies and their doses — they are not PlasmaDrive outcomes.

Head-to-head — canine, 2007
+
D’Altilio M, Peal A, Alvey M, et al. Therapeutic efficacy and safety of undenatured type II collagen singly or in combination with glucosamine and chondroitin in arthritic dogs.
Toxicol Mech Methods. 2007;17(4):189–196 · doi:10.1080/15376510600910469 · Murray State University
Design

Arthritic dogs in four groups: control; UC-II alone (10 mg/day); glucosamine HCl 2,000 mg + chondroitin sulfate 1,600 mg; and the combination. Daily dosing for 120 days, then a 30-day withdrawal. Pain and lameness graded 0–4 at rest, on limb manipulation, and after exercise.

Findings

UC-II alone significantly reduced overall pain within 30 days (33%); pain on limb manipulation and exercise-associated lameness by day 60 (66% and 44%). Maximum reductions at day 120: 62% overall pain, 91% on manipulation, 78% exercise-associated lameness. All treated groups relapsed after withdrawal.

Supports

A within-trial comparison showing UC-II outperforming glucosamine + chondroitin in the same dogs under the same protocol, with a 30-day onset.

Does not support

Transfer of these percentages to PlasmaDrive — they belong to this trial and this dosing. The control group was untreated rather than placebo-controlled.

Head-to-head — force plate, 2012
+
Gupta RC, Canerdy TD, Lindley J, et al. Comparative therapeutic efficacy and safety of type-II collagen (UC-II), glucosamine and chondroitin in arthritic dogs: pain evaluation by ground force plate.
J Anim Physiol Anim Nutr. 2012;96:770–777 · doi:10.1111/j.1439-0396.2011.01166.x · Murray State University
Design

Client-owned moderately arthritic dogs. Two objectives: efficacy of UC-II alone or combined with glucosamine hydrochloride and chondroitin sulphate, and tolerability. Pain assessed by ground force plate — an objective, instrument-based measure — alongside subjective scoring, with organ-function safety monitoring.

Findings

UC-II produced greater improvement than glucosamine + chondroitin on both subjective pain scoring and objective force-plate measurement. No safety signals on organ-function monitoring.

Supports

The most valuable form of the claim: force plate is the endpoint canine OA sceptics respect — and the same endpoint on which glucosamine failed to beat placebo (Kampa 2023).

Does not support

Claims at PlasmaDrive's small-dog dose. The canine clinical dose is 40 mg/day, delivered at the 40–99 lb two-chew tier and above; dogs under 40 lb receive 20 mg/day.

Supporting UC-II evidence
+
Stabile 2019 (UC-II vs robenacoxib, LOAD scoring) · Deparle 2005 (90-day response profile) · Varney 2021 (exercising dogs).
J Vet Pharmacol Ther. 2005;28:385–390 and later canine trials
Design

Stabile compared UC-II against robenacoxib, a veterinary NSAID, using LOAD and mobility scoring over 30 days. Deparle established the 90-day response profile of glycosylated undenatured type-II collagen. Varney examined UC-II in exercising dogs.

Findings

In the Stabile work, UC-II and robenacoxib produced improvements of similar magnitude in LOAD and mobility scores between baseline and day 30 (approximately 31.5% and 32.7%). Deparle found greatest physical improvement at 90 days of daily dosing.

Supports

Breadth and consistency of the UC-II canine literature, including a published trial where UC-II improved mobility to a degree comparable with a prescription veterinary NSAID over 30 days.

Does not support

Any statement that PlasmaDrive is equivalent to, or a substitute for, an NSAID. That is a drug claim and cannot appear in any form.

References

The full source list

Every study cited on this page, grouped by evidence category. Filter to the category you want to check.

All sources
Canine plasma
Equine
Livestock
Mechanism
Glucosamine
UC-II®
Canine plasma
Sun Z, et al. Spray-dried animal plasma: inflammatory indicators, antioxidant capacity, and joint health in senior dogs. J Anim Sci. 2026;104:skag043. Open access.
Canine plasma
Mioto JC, Oba PM, Campbell JM, de Godoy MRC. Spray-dried plasma: digestibility, fecal metabolites, microbiota, immune biomarkers in adult dogs. J Anim Sci. 2025.
Canine plasma
Quigley JD, Campbell JM, Polo J, Russell LE. Spray-dried animal plasma: intake and apparent digestibility in dogs. J Anim Sci. 2004;82:1685–1692.
Equine
Fikes KK, et al. Bioactive proteins: gait kinematics and systemic inflammatory markers in mature horses. Transl Anim Sci. 2021;5:txab017. Open access.
Equine
Coverdale JA, Campbell JM. Bioactive proteins improve gait kinematics in mature horses. J Anim Sci. 92, E-Suppl 2:599. Conference abstract.
Equine
McClure SR, et al. Serum-based bioactive proteins for prevention of squamous gastric ulcers in horses. J Equine Vet Sci. 2016;43:32–38.
Livestock
Balan P, Staincliffe M, Moughan PJ. Spray-dried animal plasma and growth performance of weaned piglets — a review. J Anim Physiol Anim Nutr. 2021;105:699–714.
Livestock
Torrallardona D. Spray dried animal plasma as an alternative to antibiotics in weanling pigs. Asian-Australas J Anim Sci. 2010;23:131–148.
Livestock
van Dijk AJ, et al. Growth performance of weanling pigs fed spray-dried animal plasma: a review. Livest Prod Sci. 2001;68:263–274.
Livestock
Kazimierska K, Biel W. Chemical composition and functional properties of spray-dried animal plasma. Animals. 2023;13:2484. Open access.
Livestock
Remus A, et al. Blood plasma in piglet post-weaning diets: a meta-analytical study. Livest Sci. 2013;155:294–300.
Mechanism
Pérez-Bosque A, Miró L, Polo J, et al. Dietary plasma proteins: intestinal barrier function and inflammation — rodent series, 2004–2010.
Mechanism
Miró L, et al. Dietary animal plasma proteins improve the intestinal immune response in senescent mice. Nutrients. 2017;9:1346.
Mechanism
Garcia-Just A, et al. Spray-dried porcine plasma prevents cognitive decline in senescent mice; reduces neuroinflammation and oxidative stress. J Nutr. 2020;150:303–311.
Mechanism
Blázquez E, et al. UV-C biosafety of spray-dried plasma. 2020.
Glucosamine
McCarthy G, et al. Randomised double-blind positive-controlled trial of glucosamine/chondroitin in dogs with osteoarthritis. Vet J. 2007;174:54–61.
Glucosamine
Kampa N, et al. Glucosamine/chondroitin, PCSO-524, EAB-277 and carprofen for canine hip osteoarthritis. Front Vet Sci. 2023.
Glucosamine
Barbeau-Grégoire M, et al. Meta-analysis of therapeutic diets and nutraceuticals in canine and feline OA. Int J Mol Sci. 2022;23:10384.
Glucosamine
Vandeweerd J-M, et al. Systematic review of nutraceutical efficacy in osteoarthritis. J Vet Intern Med. 2012;26:448–456.
Glucosamine
Moreau M, et al. Nutraceutical versus carprofen versus meloxicam in canine osteoarthritis. Vet Rec. 2003.
Glucosamine
Aragon CL, Hofmeister EH, Budsberg SC. Systematic review of treatments for osteoarthritis in dogs. J Am Vet Med Assoc. 2007;230:514–521.
Glucosamine
Bruyère O, et al. Glucosamine sulfate 1,500 mg/day — human therapeutic standard. 2016.
Glucosamine
Adebowale AO, et al. Glucosamine and chondroitin sulfate content in marketed products. JANA. 2000.
UC-II®
D’Altilio M, et al. Undenatured type II collagen singly or with glucosamine and chondroitin in arthritic dogs. Toxicol Mech Methods. 2007;17:189–196.
UC-II®
Gupta RC, et al. UC-II, glucosamine and chondroitin in arthritic dogs: pain evaluation by ground force plate. J Anim Physiol Anim Nutr. 2012;96:770–777.
UC-II®
Deparle LA, et al. Glycosylated undenatured type-II collagen in arthritic dogs. J Vet Pharmacol Ther. 2005;28:385–390.
UC-II®
Stabile M, et al. UC-II compared with robenacoxib in canine OA — LOAD and mobility scoring. 2019.
UC-II®
Varney JL, et al. Undenatured type II collagen in exercising dogs. 2021.
UC-II®
Marone PA, et al. Safety and toxicological evaluation of undenatured type II collagen. 2010.
Claims & trademark disclosure

PlasmaDrive™ is a dietary supplement that supports normal inflammatory balance, joint comfort, and mobility. It is not intended to diagnose, treat, cure, or prevent any disease, and it is not a substitute for veterinary care or prescription anti-inflammatories. Studies cited on this page evaluated the ingredients and doses described in each trial — not the PlasmaDrive formula. PlasmaDrive™, GutDrive™, and HydraDrive™ are trademarks of Phoenix Bioscience. UC-II® is a registered trademark of Lonza.

Source compilation PBX-SCI-007 · v1.0