Whey Protein

PubMed ID: 37202878

Whey after resistance exercise substantially increased myofibrillar protein synthesis vs collagen—direct mechanistic evidence for muscle anabolism.

PubMed ID: 30289425

Whey enhanced muscle protein synthesis and supported regain of leg lean mass during recovery after restriction/inactivity.

PubMed ID: 36839368

Whey‑improved formulas allowed lower total protein while maintaining growth—demonstrates formulation role in daily protein intake.

PubMed ID: 36857005

Pre‑sleep whey markedly raised overnight myofibrillar and mitochondrial protein synthesis after exercise—strong direct support for muscle growth/recovery.

PubMed ID: 33804259

Post‑exercise + pre‑sleep high‑protein milk (containing whey) increased lean mass, strength and power in trained men (robust RCT).

PubMed ID: 34669886

15 days of twice-daily protein (whey or casein) increased protein intake in liver transplant candidates to ~1.4 g/kg—shows whey increases intake.

PubMed ID: 32785021

Multi‑ingredient whey‑containing supplement + home resistance exercise increased lean mass, strength and fiber CSA in older men.

PubMed ID: 30698725

20 g dairy protein + carbohydrate increased myofibrillar protein synthesis vs carbohydrate alone post‑exercise.

PubMed ID: 25923482

Cysteine-rich whey added to resistance training produced greater strength gains vs casein in older adults.

PubMed ID: 25612082

Daily milk‑based drinks (including whey) increased lean mass in overweight adolescents (but also increased fat mass).

PubMed ID: 24257722

Dose–response trial: ~20 g whey postexercise maximally stimulated myofibrillar MPS — strong direct evidence for muscle growth.

PubMed ID: 20377924

12-week whey-isolate intervention necessarily increased protein intake and produced metabolic benefits.

PubMed ID: 17679046

Protein plus creatine/colostrum groups gained more fat‑free mass over 12 weeks than protein alone (whey included among protein sources).

PubMed ID: 16954961

Whey‑predominant formula provides a practical way to supply dietary protein in infants (demonstrated use and safety).

PubMed ID: 10838463

In dieting + resistance training, whey hydrolysate produced lean mass gains (+2 kg) consistent with anabolic support.

PubMed ID: 7492157

Hydrolysed whey formula supported growth and improved plasma albumin vs amino-acid formula, indicating effective protein provision.

PubMed ID: 39771028

Multi-ingredient whey/casein-based supplement produced superior lean-mass and strength gains vs collagen in older men (retrospective analysis).

PubMed ID: 36880717

Perioperative whey‑isolate supplementation supplied additional protein intake and helped preserve strength vs usual care.

PubMed ID: 39953174

Whey supplementation (~1.5 g/kg/day) plus 4 weeks resistance training increased muscle mass and strength vs placebo.

PubMed ID: 36615804

Modified α‑lactalbumin‑enriched whey formula was consumed safely and formula groups had greater weight/BMI vs breastfed—indicative of higher protein/calorie intake.

PubMed ID: 28399016

Randomized comparison: whey increased lean mass (+2.48 kg over 8 weeks) with resistance training—strong direct evidence.

PubMed ID: 16937979

Whey+casein during 10 weeks heavy resistance training increased lean mass more than carbohydrate/placebo (≈+1.9 kg).

PubMed ID: 16686554

Leucine + whey during 8 weeks resistance training augmented strength and some muscle CSA vs placebo.

PubMed ID: 20975109

8 weeks whey+leucine increased upper-body strength and lean mass vs placebo (confounded by added leucine).

PubMed ID: 21367943

Older men: whey is absorbed faster, raises plasma leucine more and produced substantially greater postprandial muscle protein synthesis vs casein.

PubMed ID: 24284442

Whey (25 g) robustly stimulated myofibrillar protein synthesis; leucine‑enriched low‑protein beverage achieved similar MPS.

PubMed ID: 24015719

9‑month supervised resistance training trial: whey produced significantly larger lean‑mass gains vs soy or carb.

PubMed ID: 25646324

Whey‑leucine‑vitamin D supplement preserved appendicular muscle mass during hypocaloric diet + resistance training in older obese adults—practical anabolic outcome.

PubMed ID: 26170041

Leucine-enriched whey supplement modestly increased appendicular muscle mass and improved function in sarcopenic older adults.

PubMed ID: 26308291

Leucine-enriched whey acutely and directly increased muscle protein synthesis in older men.

PubMed ID: 27440260

Whey produced larger early aminoacidemia and supported higher myofibrillar FSR at effective doses in older men vs other proteins (well-powered mechanistic trial).

PubMed ID: 28285641

Balanced EAA mixes modeled on whey produced much greater whole‑body net protein gain vs complete mixes (strong anabolic relevance).

PubMed ID: 28132725

Leucine‑enriched whey + vitamin D improved appendicular muscle mass and function in sarcopenic older adults.

PubMed ID: 31278117

Twice‑daily leucine‑enriched whey improved skeletal muscle mass during rehab in parkinsonism.

PubMed ID: 31487819

Older adults: native‑whey and milk both produced comparable increases in lean mass and strength with training.

PubMed ID: 32486007

12‑week RCT: whey (leucine‑matched vs soy) increased lean body mass and muscle thickness with resistance training.

PubMed ID: 32570811

Leucine-enriched whey twice daily produced modest but significant increases in lean body mass in adults ≥50.

PubMed ID: 33379181

Whey-leucine-vitamin D supplement during diet+exercise increased total and appendicular lean mass in older adults with obesity.

PubMed ID: 32162241

Large 6‑month trial used a two‑serving leucine‑enriched whey product, effectively increasing protein intake in sarcopenic older adults (documented supplement use).

PubMed ID: 36437767

Leucine‑enriched whey plus resistance training increased muscle mass and strength in older adults, with persistent gains after detraining.

PubMed ID: 37375630

Daily hypercaloric hyperproteic oral supplements provided extra protein and stabilized nutritional status in cancer patients.

PubMed ID: 38315260

Milk protein (contains whey) raised EAAs and insulin more than plant protein, consistent with a superior anabolic aminoacidemia profile.

PubMed ID: 8350218

Whey-based formulas provided adequate protein for normal infant growth—direct evidence whey increases protein intake when formulated into feeds.

PubMed ID: 9795454

Anti-regurgitation (higher-casein) formula increased protein intake in infants; demonstrates how formula composition (including whey proportion) affects protein intake.

PubMed ID: 21590739

Large RCT providing daily 30 g whey protein over two years—direct evidence that whey supplementation increases daily protein intake.

PubMed ID: 25844619

Participants consumed 45 g/day whey for 18 months (direct increase in daily protein intake over long term).

PubMed ID: 28727654

Partially hydrolysed whey human milk fortifier increased weight gain and markers of protein status in preterm infants.

PubMed ID: 28719669

Whey-containing multi-ingredient drink produced +0.7 kg lean mass in older men (cannot isolate whey).

PubMed ID: 29724529

Daily whey‑fortified yogurt used during dieting increased protein intake and improved body composition vs plain yogurt.

PubMed ID: 32764397

Extra whey with high‑intensity training helped older men gain muscle mass vs controls (exercise likely major driver but whey contributed).

PubMed ID: 40164777

Lipid‑based supplements containing whey permeate increased nutrient/protein delivery in stunted children (multi‑nutrient product).

PubMed ID: 40268509

Enteral whey powder supplementation in neuro‑ICU patients raised median daily protein intake significantly though clinical outcomes were unchanged.

PubMed ID: 39307071

Daily whey supplementation increased protein intake to ~1.52 g/kg/d in older adults — clear evidence whey raises habitual protein intake.

PubMed ID: 39203849

Post‑workout whey provided additional protein alongside training in inactive adults, supporting intake increase.

PubMed ID: 38257138

Infant hydrolyzed‑whey formulas are a dietary protein source ensuring adequate daily intake in infants.

PubMed ID: 38135472

Elderly COPD inpatients receiving whey‑protein complex during rehab improved handgrip strength and body weight vs control — functional/anabolic benefit in clinical population.

PubMed ID: 36839361

Whey given with 4 weeks resistance training produced small but significant increases in muscle mass and selective strength vs placebo.

PubMed ID: 35193081

Infant formula containing whey‑derived protein‑lipid concentrate delivered consistent protein and raised fat‑free mass vs breastfed infants—practical evidence of increasing protein intake.

PubMed ID: 33409971

Post‑gastric bypass protocol used whey supplementation to increase protein intake alongside RT and improved FFM/SMM.

PubMed ID: 33612439

Daily ~16 g protein supplements (whey/soy/blend) maintained lean mass and function in older adults — pragmatic evidence that modest supplementation increases effective daily protein intake.

PubMed ID: 33138061

Pre-meal whey increased cumulative daily protein intake dose-responsively in both young and older men.

PubMed ID: 30676196

Older women RCT: 35 g whey with resistance training increased skeletal muscle mass vs controls.

PubMed ID: 31370717

Colorectal cancer patients: whey supplement improved muscle/nutritional status and lean body mass measures.

PubMed ID: 31568698

Malnourished cancer patients: whey isolate improved body composition, handgrip and reduced chemo toxicity.

PubMed ID: 30906944

Hospital pragmatic interventions included whey supplementation; groups with active interventions had faster functional recovery and fewer readmissions.

PubMed ID: 29751507

Older women: whey around resistance training increased skeletal muscle mass and strength vs placebo—clear support.

PubMed ID: 22148961

Whey after resistance exercise increased mTOR/p70S6K anabolic signaling in young and older men vs placebo (muscle anabolic signalling evidence).

PubMed ID: 10468001

Using bovine whey protein as a fortifier directly increases protein delivered to preterm infants (matched protein intake shown).

PubMed ID: 28730743

Whey incorporated into snack bars increased protein content of diet and was associated with reduced appetite/body fat in trial.

PubMed ID: 21996130

Daily consumption of a whey‑derived yoghurt supplement increased protein intake as part of the intervention (3‑month trial).

PubMed ID: 32807165

Whey-based fortified drink increased fat-free mass and handgrip strength in men with COPD.

PubMed ID: 27660289

Whey supplementation used as part of enteral/nutritional regimens in critically ill children (increases protein provision).

PubMed ID: 33216623

Nutrition (including whey) + exercise increased muscle size/strength in sarcopenic elderly.

PubMed ID: 32948867

12-week whey supplementation trial (vs maltodextrin) entailed additional protein exposure and reduced subjective hunger.

PubMed ID: 29502350

Use of a whey‑containing premeal bar demonstrates a practical way to increase daily protein intake.

PubMed ID: 28346813

Protein supplementation (including whey) produced modest increases in whole‑body lean mass with RT.

PubMed ID: 40424578

Whey and a recombinant β‑lactoglobulin provided similar amino acid availability and supported comparable strength and leg‑lean mass gains during resistance training.

PubMed ID: 35666855

Whey‑predominant infant formula provided high‑quality protein enabling efficient growth with lower volume intake.

PubMed ID: 29996492

Whey fractions (alpha‑lactalbumin) used to formulate a very‑low‑protein infant formula enabling adequate protein quality and intake.

PubMed ID: 26864356

Whey + amino acids + vitamin D with exercise increased fat-free mass and strength in sarcopenic older adults (robust RCT).

PubMed ID: 25644344

Whey preserved post‑meal MPS during short‑term calorie restriction much better than soy or carbs—supports anabolic advantage.

PubMed ID: 22338070

Dose–response RCT in elderly men: 35 g whey produced substantially greater amino acid absorption and muscle protein synthesis vs 10/20 g (strong direct evidence).

PubMed ID: 31290697

Oral multi‑nutrient supplement containing whey provided additional protein calories to cancer patients.

PubMed ID: 30157103

12‑week RT: native whey produced similar long‑term hypertrophy gains to milk (supports practical muscle growth).

PubMed ID: 20126965

In middle-aged/older men, 14 weeks of resistance training with post-workout whey (35 g) produced greater increases in some strength measures (proxy for hypertrophy) vs placebo.

PubMed ID: 11591884

Randomized trial: whey + resistance training increased lean tissue mass and knee-extension strength versus placebo—direct human evidence for muscle growth.

PubMed ID: 19403955

Combined whey+creatine+CLA group gained more lean mass during heavy training, but effects cannot be attributed to whey alone (confounded).

PubMed ID: 24281841

Both colostrum and whey increased lean tissue mass during resistance training (colostrum had some advantages for strength/bone markers).

PubMed ID: 39243332

Ready protein products (including whey) after bariatric surgery raised daily protein intake by ~10 g/day — direct evidence whey products can increase intake.

PubMed ID: 38762187

Twice‑daily 25 g whey increased integrated muscle protein synthesis ≈9% in older men — direct mechanistic evidence for promoting muscle anabolism.

PubMed ID: 33564844

Whey alone did not increase mass, but whey combined with heavy RT produced meaningful increases in qCSA and strength.

PubMed ID: 31331065

Infant formulas with partially hydrolysed whey supply a defined extra daily protein source for infants.

PubMed ID: 30870778

Whey + RT increased lean soft tissue and intracellular water (cellular markers of muscle) in older women.

PubMed ID: 29252039

Randomized double‑blind trial in older women: whey + resistance training produced greater increases in muscle strength and skeletal muscle mass vs placebo.

PubMed ID: 29752998

In conditioned older women, daily post‑exercise whey increased lean soft tissue and strength more than placebo—clear anabolic/hypertrophy effect.

PubMed ID: 30200582

Twice‑daily whey drinks in soldiers provided supplemental protein across the day and produced training benefits—practical increase in intake.

PubMed ID: 28591764

Post‑hospital trial including whey arm showed 75% supplement adherence—supports feasibility of increasing intake.

PubMed ID: 30639252

12‑week peri‑training whey increased appendicular lean soft tissue (ALST) more than placebo—clear lean‑mass gain.

PubMed ID: 30113122

24‑week post‑resistance whey intake in older women produced greater muscle mass and strength vs controls—direct growth evidence.

PubMed ID: 29779821

Whey powder helped malnourished dialysis patients reach daily protein targets (DPI adequacy markedly improved).

PubMed ID: 28963124

Whey protein with light resistance exercise increased amino‑acid transporter expression and plasma BCAAs (anabolic signalling).

PubMed ID: 29252150

In frail hospitalized older adults, whey supplements increased average daily protein intake and improved functional strength.

PubMed ID: 27885532

Daily whey supplementation in post-bariatric patients increased protein intake as part of the intervention enabling better body composition outcomes.

PubMed ID: 27466602

12‑week resistance training with whey produced modest extra whole‑body lean‑mass vs placebo (additive effect).

PubMed ID: 28003538

Study administered up to 60 g/day whey protein supplementation (demonstrates use to increase daily protein intake in adults).

PubMed ID: 26864368

Whey-containing ready-to-use therapeutic/supplementary food increased protein-energy intake and improved recovery in malnourished children (large RCT).

PubMed ID: 26246322

Study achieved higher total protein intake using supplements (including whey), showing feasibility to raise daily protein.

PubMed ID: 25795947

High-protein supplementation in Crohn's patients increased lean indicators, reflecting increased protein intake.

PubMed ID: 26677350

In trained men, whey supported increases in relative fat-free mass with training vs carbohydrate.

PubMed ID: 25134117

Supplementation with a whey‑containing lipid supplement increased weight and lean mass in a clinical setting — indicates increased nutrient/protein intake.

PubMed ID: 25638597

2‑year trial delivered daily 30 g whey to older women — practical evidence that whey can raise habitual protein intake.

PubMed ID: 24521353

Whey concentrate effectively substituted in therapeutic food, supporting its role to increase protein content in ready‑to‑use foods.

PubMed ID: 24411489

α‑lactalbumin (whey) enriched infant formula supported growth with lower energy/protein intake, illustrating efficient protein provision.

PubMed ID: 23256140

Soy/whey RUSF used to treat moderate malnutrition and improved sustained nourishment — practical protein delivery in real world.

PubMed ID: 23246175

Ready-to-use supplementary foods containing whey were provided in a large feeding program — practical evidence that whey increases protein intake in population programs.

PubMed ID: 22718030

Large RCT supplied twice‑daily whey supplements (practical augmentation of daily protein intake even though clinical outcomes were null).

PubMed ID: 21910947

Older women consumed a daily whey-based drink for two years in a large RCT—demonstrates whey as a practical way to increase daily protein intake.

PubMed ID: 21677076

Trial used twice-daily whey supplements added to habitual diet, increasing protein intake and producing weight/fat benefits vs carb.

PubMed ID: 21063429

α-lactalbumin-enriched formula provides a higher-quality whey fraction in infant feeding, increasing protein quality/intake in formulas.

PubMed ID: 20577225

High-protein milk-based diets (including whey components) were used in a 6-month trial—reflects increased protein intake in diet contexts.

PubMed ID: 18661258

Timed 15 g pre/post resistance exercise over 21 wk increased muscle CSA and favourable gene expression—strong evidence for hypertrophy.

PubMed ID: 14734879

Alpha-lactalbumin–enriched reduced-protein whey formula provided adequate protein for normal infant growth — demonstrates protein provision.

PubMed ID: 11740194

Whey supplementation increased body weight and fat in HIV-infected women indicating added energy/protein intake (study-level effect).

PubMed ID: 8647062

Whey-hydrolysate infant formulas supported growth and symptom improvement, indicating adequate protein delivery in these formulas.

PubMed ID: 1447640

Partially hydrolyzed whey formula supported growth while altering antibody priming (shows effective protein delivery in diet).

PubMed ID: 27086768

Thrice‑weekly fermented whey drinks provided a practical nutrition intervention that improved nutritional scores in hemodialysis patients (increases protein intake).

PubMed ID: 34894861

Older adults in long-term care: whey+vitamin D combined with resistance training increased lean mass vs control (combined intervention).

PubMed ID: 31734121

12‑month twice‑daily whey supplementation provided a substantial additional daily protein source in frail older adults (even if clinical effect was limited).

PubMed ID: 29395372

6‑month whey+vitamins trial in frail older adults increased RSMI and handgrip strength—clinically relevant gains.

PubMed ID: 28229646

Frail elderly receiving whey‑containing nutrition plus exercise gained muscle strength (clinical support for anabolic effect).

PubMed ID: 25130629

Whey-enhanced milk daily increased weight and blood nutrition markers in institutionalized elderly, indicating increased protein/calorie intake.

PubMed ID: 32668666

Infant formula trials show whey can be used as a routine protein source to supply dietary protein (demonstrates intake increase potential).

PubMed ID: 27604774

Lower‑protein whey‑predominant infant formulas provided appropriate protein intake in large pooled trials (demonstrates dietary use of whey).

PubMed ID: 37598750

Dose–response metabolic tracer study showing ~35 g whey maximally stimulates acute myofibrillar protein synthesis during energy restriction.

PubMed ID: 41059835

Head‑to‑head RCT: whey produced substantial increases in lean mass, muscle CSA and strength after 12 weeks of resistance training.

PubMed ID: 38999765

12‑week RCT in sedentary adults: whey with resistance training increased muscle mass and strength (meaningful gains).

PubMed ID: 35684089

Daily whey (25 g) + vitamin D with resistance training increased total and leg lean mass and strength.

PubMed ID: 34265218

Multimodal prehab with whey+leucine demonstrably raised nutrient and protein intake (high adherence).

PubMed ID: 32363940

Cancer patients: whey-containing oral supplement safely raised daily protein intake from ~67 g to ~89 g/day—clear increase in protein consumption.

PubMed ID: 32961041

Whey‑based, leucine‑/vitamin D‑enriched medical nutrition increased appendicular muscle mass in sarcopenic older inpatients.

PubMed ID: 39465888

Trial of bovine and recombinant human lactoferrin (whey fraction) assessed immunogenicity and safety — relevant to immune‑active whey components.

PubMed ID: 33966345

Fermented whey‑derived product increased markers of innate immune activity (NK cell activity, IL‑1β) vs placebo.

PubMed ID: 40847103

Enteral nutrition augmented with whey protein plus probiotics improved albumin/prealbumin and was associated with fewer pulmonary infections and shorter LOS in neuro‑ICU patients (probiotic confounder).

PubMed ID: 39422600

Tangeretin plus whey reduced serum IL-8/IL-5, IgE and airway injury marker CC16 in athletes with EIB—indicative of anti-inflammatory/immune-modulating effects in that context.

PubMed ID: 32674229

Pre-op carbohydrate+whey drink reduced postoperative CRP and symptoms — evidence of reduced inflammatory response.

PubMed ID: 30592848

Fermented whey product raised leukocyte counts (granulocytes) in skiers—suggests immune stimulation in small study.

PubMed ID: 28382336

Fermented whey product increased NK cell activity and IL‑12 and raised nutritional serum markers after 8 weeks (immune biomarkers improved).

PubMed ID: 25134117

Large RCT in people starting ART: whey‑containing lipid supplement increased weight/lean mass and improved some immune cell counts (CD3/CD4 signals).

PubMed ID: 25455421

In dialysis patients, whey lowered IL‑6 (inflammation marker) — indicates anti‑inflammatory/immune modulation.

PubMed ID: 24195623

Whey‑derived α‑lactalbumin given with probiotic prevented exercise‑induced NK‑cell drop and reduced oxidative stress/fatigue in athletes—good immune‑function signal though combined treatment.

PubMed ID: 11338291

Extensively hydrolysed whey formulas were well tolerated by most children with cow's milk allergy (supports immunologic tolerability in this context).

PubMed ID: 7472904

Fermented whey-based infant formula with bifidobacteria promoted gut bifidobacterial colonization similar to breastfeeding, supporting gut-immune interactions.

PubMed ID: 7671948

Partial whey hydrolysate in at‑risk infants reduced cow's-milk sensitivity and cumulative atopic signs up to age 5 (clear immune/allergy benefit).

PubMed ID: 8647062

Whey-hydrolysate formulas in infants with cow's-milk protein intolerance led to symptom improvement (reduced allergic/GI manifestations), an immune/allergy-related outcome.

PubMed ID: 27086768

Fermented whey drinks improved nutrition and inflammation scores in malnourished hemodialysis patients (inflammation/nutrition/immune benefit).

PubMed ID: 39915586

Partially hydrolyzed whey‑based infant formula with synbiotic increased bifidobacteria and restored important taxa in C‑section infants — plausible immune‑modulating gut effects.

PubMed ID: 18507650

Hypoallergenic whey formula with specific prebiotics reduced total and cow-milk-specific antibody levels in at-risk infants (immunomodulatory effect).

PubMed ID: 31668885

Infant formula with bovine MFGM + lactoferrin reduced respiratory/diarrheal events and improved developmental outcomes (fewer infections).

PubMed ID: 31292969

Adults: lactoferrin + lactoperoxidase tablets reduced gingival inflammation and improved oral‑related QoL.

PubMed ID: 30829679

Malawian toddlers: daily lactoferrin + lysozyme (whey components) reduced intestinal permeability and markedly lowered hospitalization/acute malnutrition.

PubMed ID: 30515164

Bovine lactoferrin (whey fraction) increased TLR7/8‑driven pDC IFN‑α/IL‑6 responses in elderly women—direct evidence of immune‑stimulatory effects.

PubMed ID: 27001471

Lozenge with lactoferrin/lactoperoxidase rapidly lowered oral volatile sulfur compounds (clinical antimicrobial activity).

PubMed ID: 27150460

Lactoferrin/lactoperoxidase tablet reduced oral bacterial counts in older adults (antimicrobial/immune‑related effect).

PubMed ID: 27260839

Recombinant lactoferrin reduced hospital-acquired infections in VLBW infants (randomized trial; lactoferrin is a whey-associated protein—indirect evidence).

PubMed ID: 26224129

Bovine lactoferrin (a whey fraction) reduced late-onset sepsis and mortality in low-birth-weight infants (strong neonatal immune benefit, indirect to intact whey).

PubMed ID: 25973934

Bovine lactoferrin supplementation in low‑birth‑weight neonates produced fewer sepsis episodes (clinically meaningful, borderline statistical significance).

PubMed ID: 24839144

Oral lactoferrin (whey-derived) markedly reduced hospital-acquired sepsis in very-low-birth-weight infants.

PubMed ID: 24709463

Large multicenter RCT: bovine lactoferrin (whey‑derived) reduced NEC and death in very‑low‑birth‑weight infants — strong immune/protective effect.

PubMed ID: 23642947

Bovine lactoferrin/whey Ig‑rich product markedly reduced incidence and symptoms of colds vs placebo (large RCT), though product is a fractionated whey formulation.

PubMed ID: 23425819

Talactoferrin (milk‑derived) reduced sepsis mortality in one trial—strong immune outcome but not a whey protein per se (indirect evidence).

PubMed ID: 19809023

Bovine lactoferrin markedly reduced late-onset sepsis incidence in very-low-birth-weight infants (strong clinical immune outcome).

PubMed ID: 18462105

Daily bovine lactoferrin (a whey protein) reduced Giardia carriage and improved height-for-age in Peruvian toddlers, consistent with antimicrobial/immunomodulatory effects.

PubMed ID: 17392649

Bovine lactoferrin adjunct to second-line H. pylori therapy reduced side effects and modestly raised eradication—immune-modulatory support.

PubMed ID: 17255841

Lactoferrin+lysozyme in ORS shortened diarrhea and improved early recovery—clinically relevant immune/gut benefit.

PubMed ID: 17313499

Bovine lactoferrin + probiotics increased H. pylori eradication and reduced antibiotic side effects—meaningful adjunctive immune effect.

PubMed ID: 17255839

Bovine lactoferrin in infant formula markedly reduced lower respiratory infections—strong immune benefit in infants.

PubMed ID: 16611285

Bovine lactoferrin (milk protein) significantly increased H. pylori eradication rates when added to triple therapy — clinically relevant immune/antimicrobial effect.

PubMed ID: 11726036

Oral lactoferrin (whey component) increased multiple measures of immune responsiveness pre/post-surgery (randomized, moderate sample).

PubMed ID: 35263681

β‑lactoglobulin (whey protein) lozenge reduced pollen‑allergy symptoms and improved immune‑cell iron status—strong pilot evidence for immunomodulatory effects.

PubMed ID: 26602290

Adding bovine lactoferrin (a whey‑associated protein) to formula reduced respiratory and diarrheal illnesses in weaned infants in a large trial.

PubMed ID: 25592008

Bovine lactoferrin in infant formula improved iron status and reduced anemia, an effect linked to better host resilience and immune outcomes.

PubMed ID: 39379481

β‑lactolin‑rich whey peptide trial preserved salivary IgA and reduced perceived stress — direct immunologic marker support.

PubMed ID: 9144119

Large randomized trial: partial whey hydrolysate feeding (vs cow's-milk formula) markedly reduced cumulative atopy/food allergy up to 5 years—strong immune-related benefit.

PubMed ID: 32807165

Whey-based drink lowered IL-6 in men with COPD, indicating anti-inflammatory/immune-modulating effects.

PubMed ID: 32065880

WPI in T2D reduced inflammatory cytokines (hs‑CRP, IL‑6, TNF‑α), indicating immune/inflammatory modulation.

PubMed ID: 29565716

40 g daily whey during chemotherapy increased glutathione, albumin and IgG vs maltodextrin—strong immune/nutritional biomarker improvements.

PubMed ID: 17710587

High‑dose pressurized whey increased lymphocyte glutathione ≈+24% over two weeks, indicating improved cellular antioxidant/immune status.

PubMed ID: 27660289

Whey supplementation delayed nosocomial infections in immune‑competent critically ill children (strong clinical immune effect in subgroup).

PubMed ID: 7562275

Extensively hydrolysed whey tolerated in cow milk allergy with downward trends in IgE and clinical improvement—moderate immune relevance.

PubMed ID: 20647390

Lactoferrin plus rHuEPO produced hematologic effects (Hb rise comparable to IV iron) in anemic chemo patients, indicating immune/hematologic-modulatory activity of a whey-derived protein.

PubMed ID: 11168457

Cysteine-rich whey raised plasma GSH and lowered oxidative burst in HIV patients (randomized biochemical immune marker improvement).

PubMed ID: 31290697

Multi‑nutrient formula containing whey showed fewer adverse events and fewer neutropenia cases in lung cancer patients (suggestive immune benefit, multi‑ingredient).

PubMed ID: 24867408

Bovine lactoferrin increased immune markers and reduced polyp growth in a subgroup; implicates whey fraction immune activity.

PubMed ID: 16369731

Oral bovine lactoferrin (whey fraction) significantly suppressed H. pylori colonization in a subset of adults (clinical immune/antimicrobial effect).

PubMed ID: 25624376

Oropharyngeal colostrum in very preterm infants raised immune markers and greatly reduced clinical sepsis — strong milk‑protein immune evidence.

PubMed ID: 19086244

Colostrum-derived immune whey performed similarly to metronidazole for recurrent C. difficile in a small trial—antimicrobial/immune activity.

PubMed ID: 11065065

Large cohort: early feeding with whey hydrolysate was associated with a lower cumulative cow's-milk-allergy incidence vs cow-milk formula—immune outcome linked to whey hydrolysate.

PubMed ID: 23837862

Extensively hydrolysed whey formula with probiotics was effective in infants with cow's milk allergy and supported growth—clinical immune/allergy relevance.

PubMed ID: 20405136

Early postnatal cow’s milk exposure altered milk-protein IgG4/IgG1 patterns and immune responses—shows that whey proteins affect adaptive immune markers.

PubMed ID: 21167685

Enteral whey in elderly stroke patients reduced IL-6 (~67%) and increased glutathione—anti-inflammatory/immune-modulating effects.

PubMed ID: 18539195

Partially hydrolyzed whey formula in infants at risk for allergy reduced overall allergic diagnoses and atopic eczema up to age 6.

PubMed ID: 8819541

Mothers avoiding milk had lower beta-lactoglobulin antigen in breast milk and lower infant allergy incidence, implicating whey antigen exposure in infant atopy risk.

PubMed ID: 20473630

Lactoferrin-enriched milk-derived supplement reduced pro-inflammatory cytokines and increased IL-10 in postmenopausal women over 6 months.

PubMed ID: 34102559

High‑dose bovine lactoferrin in infant formula reduced diarrheal and respiratory illness and increased intestinal antimicrobial markers.

PubMed ID: 31049877

Vitamin D + leucine‑whey attenuated IL‑6 rise in sarcopenic older adults (anti‑inflammatory effect).

PubMed ID: 32484877

On a very-low-calorie ketogenic diet whey protein group better preserved muscle strength compared with other protein sources.

PubMed ID: 33564844

Whey plus heavy RT produced qCSA and strength gains versus whey alone.

PubMed ID: 37202878

Whey increased myofibrillar protein synthesis postexercise, a primary mechanism underlying lean‑mass accretion.

PubMed ID: 38762187

Whey supplementation increased integrated MPS in older men — supports capacity to contribute to lean mass accrual over time.

PubMed ID: 24281841

Both colostrum and whey increased lean tissue mass with training (no group difference), supporting lean‑mass building potential.

PubMed ID: 19403955

Whey-containing supplement (with creatine and CLA) group gained more lean tissue during heavy training, though effects are confounded by co-supplements.

PubMed ID: 11591884

Randomized trial: whey (and whey+creatine) increased lean tissue mass vs placebo—strong human evidence for lean-mass building.

PubMed ID: 20126965

Whey supplementation during supervised resistance training led to greater improvements in certain strength measures, consistent with increased lean mass.

PubMed ID: 30935010

Protein + carbohydrate after endurance exercise reduced muscle‑damage markers and preserved leg strength versus no nutrition.

PubMed ID: 22338070

Clear dose‑response: 35 g whey produced larger increases in amino acid availability and MPS—supports lean mass building capacity.

PubMed ID: 25644344

Whey maintained postprandial MPS far better than soy or carbs during 2 weeks of hypocaloric diet—strong evidence for preserving muscle when dieting.

PubMed ID: 26864356

Whey-based supplement with amino acids and vitamin D plus exercise increased fat-free mass by ~1.7 kg vs placebo in sarcopenic older adults (strong clinical evidence).

PubMed ID: 40424578

Whey performed comparably to recombinant BLG in supporting leg lean mass and strength gains during training.

PubMed ID: 28346813

Protein supplements (including whey) increased whole‑body lean mass modestly during 12 weeks resistance training.

PubMed ID: 33216623

Nutrition (including whey) + exercise increased muscle mass in sarcopenic older adults.

PubMed ID: 32807165

Whey-fortified drink significantly increased fat-free mass in men with COPD.

PubMed ID: 29751507

Older women: whey around resistance training increased skeletal muscle mass vs placebo—solid evidence in older population.

PubMed ID: 29687650

In postmenopausal women undergoing caloric weight loss, higher whey intake slightly reduced early muscle loss—direct evidence for preservation during dieting.

PubMed ID: 32961041

Whey‑based, leucine/D enriched medical nutrition produced clinically meaningful increases in appendicular muscle mass in older sarcopenic patients.

PubMed ID: 35684089

Whey + vitamin D during RT increased total and leg lean tissue mass in young untrained men.

PubMed ID: 40744414

Daily whey supplementation after one‑anastomosis gastric bypass preserved fat‑free/muscle mass vs placebo during rapid post‑surgical weight loss.

PubMed ID: 38999765

12‑week RCT: whey increased muscle mass (~+2.4%) and strength in sedentary adults with resistance training.

PubMed ID: 41059835

12‑week head‑to‑head: whey produced substantial whole‑body lean mass and muscle CSA gains.

PubMed ID: 37598750

Dose–response evidence that ~35 g whey maximally stimulates myofibrillar protein synthesis—key mechanism for building lean mass.

PubMed ID: 28229646

Exercise plus whey‑containing nutrition improved muscle strength and mass outcomes in frail elderly (clinical lean‑mass/functional gains).

PubMed ID: 29395372

6‑month whey supplement increased RSMI in frail older adults.

PubMed ID: 34894861

Long-term care older adults: whey+vit D plus resistance training increased lean mass and muscle index over 24 weeks (combined intervention but clear lean-mass gains).

PubMed ID: 18661258

21-wk peri-exercise whey increased muscle CSA and supports lean-mass gains.

PubMed ID: 20577225

High-protein milk diets (including α-lactalbumin) preserved fat-free mass during 6 months of calorie restriction but offered no clear advantage over other milk proteins.

PubMed ID: 21798863

During energy restriction whey doubled down on fat loss and preserved muscle relative to weight lost (improved muscle:weight ratio vs carbohydrate).

PubMed ID: 25134117

Lipid‑based supplement containing whey increased weight and lean body mass in people initiating ART vs no supplement.

PubMed ID: 26677350

Postexercise whey produced greater fat loss while increasing relative FFM vs carbohydrate, consistent with muscle preservation during fat loss.

PubMed ID: 25795947

High-protein supplementation in Crohn's patients increased lean measures vs baseline (whey or soy).

PubMed ID: 26246322

Higher total protein (including whey supplementation) during combined exercise associated with reduced fat mass and improved % lean mass.

PubMed ID: 27466602

Whey produced modest extra whole‑body lean mass vs placebo across 12 weeks of training (additive lean‑mass effect).

PubMed ID: 27885532

Whey (0.5 g/kg ideal BW) with hypocaloric diet in post-bariatric women promoted fat loss while preserving lean mass.

PubMed ID: 30113122

Post‑workout whey for 24 weeks produced larger increases in muscle mass in older women—direct lean‑mass building evidence.

PubMed ID: 30639252

12‑week whey around training increased appendicular lean mass more than placebo.

PubMed ID: 29752998

Post‑exercise whey increased lean soft tissue more than placebo in older women—clear lean mass building effect.

PubMed ID: 29252039

Whey supplementation with RT produced significantly larger increases in skeletal muscle mass (hypertrophy) than placebo.

PubMed ID: 30870778

Whey + RT increased lean soft tissue and intracellular water (cellular muscle markers) in older women.

PubMed ID: 31568698

Whey isolate in malnourished cancer patients increased body weight, FFMI and handgrip strength.

PubMed ID: 31370717

Colorectal cancer RCT: whey supplement improved lean body mass measures and nutritional status.

PubMed ID: 30676196

Older women: resistance training + 35 g whey led to larger increases in skeletal muscle mass vs control.

PubMed ID: 30289425

Whey supported leg lean mass recovery after inactivity and energy restriction—evidence for rebuilding lean tissue.

PubMed ID: 33409971

Post‑gastric bypass RT + whey increased FFM and SMM vs control, suggesting preservation when weight change risk exists.

PubMed ID: 36364801

Whey hydrolysate during an 8‑week energy‑restricted diet enhanced fat loss while largely preserving fat‑free mass.

PubMed ID: 37815091

High‑protein (whey) diet aided fat mass reduction while supporting weight maintenance in older men.

PubMed ID: 36839361

Short-term RCT showed small increases in muscle mass with whey plus resistance training.

PubMed ID: 38004217

Continuous enteral whey PSMF preserved a higher percentage of fat-free mass and reduced fat mass vs oral PSMF in severely obese adults.

PubMed ID: 39953174

Whey supplementation to ~1.5 g/kg/day plus 4‑week resistance training increased muscle mass vs placebo.

PubMed ID: 28399016

Whey increased lean body mass by ~2.48 kg over 8 weeks with resistance training—strong direct evidence for building lean mass.

PubMed ID: 16937979

Whey+casein during heavy resistance training increased lean mass ~+1.9 kg (WC group).

PubMed ID: 16686554

Leucine + whey augmented strength and some increases in CSA during resistance training—supports lean mass accrual.

PubMed ID: 20975109

Whey+leucine over 8 weeks produced increases in lean body mass versus placebo (confounded by added leucine).

PubMed ID: 21367943

Stronger stimulation of MPS with whey in older men is consistent with potential to support accrual/maintenance of lean mass over time.

PubMed ID: 24015719

Large ≈9‑month RCT: daily whey during supervised resistance training produced substantially greater lean‑mass gains vs soy or carbohydrate.

PubMed ID: 25646324

Whey‑leucine‑vitamin D supplement resulted in preserved appendicular muscle mass vs isocaloric control during energy restriction plus resistance training in older adults.

PubMed ID: 26170041

Small but significant appendicular muscle mass gain in sarcopenic older adults with leucine-enriched whey.

PubMed ID: 26308291

Acute increases in muscle protein synthesis support net muscle protein accrual and lean mass gains over time.

PubMed ID: 27440260

Demonstrated dose-responsive increases in myofibrillar protein synthesis with whey vs other proteins in older men (mechanistic and clinically relevant).

PubMed ID: 28285641

EAA mixtures (whey‑like composition) produced much greater net protein gain (supports lean‑mass building).

PubMed ID: 28132725

Leucine‑enriched whey medical drink improved appendicular muscle mass in sarcopenic older adults.

PubMed ID: 31049877

Vitamin D + leucine‑enriched whey attenuated inflammatory rise and preserved nutritional markers in older adults.

PubMed ID: 31278117

Leucine‑enriched whey increased skeletal muscle mass during rehab in parkinsonism patients.

PubMed ID: 31487819

Older adults: whey/native‑whey and milk both increased lean mass during resistance training.

PubMed ID: 32486007

Whey (leucine‑matched) increased lean body mass over 12 weeks of resistance training (direct evidence).

PubMed ID: 32570811

Leucine-enriched whey twice daily produced modest but statistically significant increases in lean body mass in adults ≥50.

PubMed ID: 33379181

Whey-leucine-vitamin D supplement increased total and appendicular lean mass in older adults undergoing diet+exercise.

PubMed ID: 36437767

Leucine‑enriched whey with resistance training increased appendicular skeletal muscle mass index in older adults.

PubMed ID: 25844619

Long‑term supplementation modestly increased truncal lean mass in older adults (clinical evidence of lean mass gain).

PubMed ID: 28719669

Whey-containing supplement increased whole-body lean mass (+0.7 kg) in older men (multi-ingredient product).

PubMed ID: 29724529

During calorie restriction, fortified whey yogurt preserved more fat‑free mass (FY −0.9 kg vs PY −2.0 kg) than plain yogurt.

PubMed ID: 32764397

Combined whey + HIT led to muscle mass gains in older men—supports preservation when stressors present.

PubMed ID: 36880717

Perioperative whey‑isolate supplementation helped preserve handgrip strength in surgical cancer patients (catabolic setting), consistent with muscle‑preserving effect.

PubMed ID: 39771028

Higher-quality protein MIS (whey/casein-based) produced superior lean-mass gains vs collagen in older men.

PubMed ID: 10838463

In calorie-restricted officers doing resistance training, whey-supplemented group preserved/gained more lean mass than diet-alone—evidence for muscle preservation during energy deficit.

PubMed ID: 17679046

Protein+creatine groups (whey/casein included) had greater fat‑free mass increases versus protein alone over 12 weeks.

PubMed ID: 19153580

High-protein diet including whey helped maintain weight and reduced fat mass more than high-carb after weight loss—supports muscle preservation during energy restriction.

PubMed ID: 24257722

Dose–response study showing 20 g whey maximally stimulates postexercise myofibrillar MPS — mechanistic basis for lean-mass accrual.

PubMed ID: 25612082

Milk‑based drinks including whey increased lean mass index in overweight adolescents (but with concurrent fat gain).

PubMed ID: 25923482

Strength increases and modest upper LBM rises with cysteine-rich whey during resistance training.

PubMed ID: 32785021

RCT: multi‑ingredient whey supplement plus home RT increased total lean mass and appendicular lean mass.

PubMed ID: 33804259

High‑protein milk (containing whey) produced clinically meaningful increases in lean mass in trained men (randomized trial).

PubMed ID: 36857005

Enhanced overnight muscle protein synthesis with pre‑sleep whey supports lean‑mass building over time.

PubMed ID: 28591764

Feasibility trial showed ~75% adherence to whey supplement post‑hospital—supports convenience/acceptability.

PubMed ID: 26864368

Ready-to-use whey-containing food improved recovery in children, demonstrating practical, ready-to-administer formulation (large trial).

PubMed ID: 26246322

Whey supplements were used to increase total protein intake in a large exercise trial — demonstrates convenient supplementation.

PubMed ID: 25134117

Lipid‑based supplementation with whey used in clinical care to increase intake — practical nutrition delivery.

PubMed ID: 25638597

Daily 30 g whey supplement over 2 years demonstrates a pragmatic supplement format for older adults.

PubMed ID: 24521353

Whey concentrate successfully used in RUTF as a practical, ready‑to‑use protein source for malnutrition treatment—strong evidence of convenience and utility.

PubMed ID: 24411489

Whey component (α‑lactalbumin) used in formula allowed lower energy/protein intake for similar growth — convenient, efficient nutrition.

PubMed ID: 22718030

Large trial administered twice‑daily whey supplements—illustrates the practical convenience of whey supplementation in free‑living participants.

PubMed ID: 21910947

Large 2-year RCT provided a daily whey-based drink to older women, demonstrating whey beverages are practical for regular use.

PubMed ID: 21677076

Twice-daily whey supplements were used by free-living participants and achieved measurable outcomes—shows practical convenience.

PubMed ID: 21063429

Whey (α-lactalbumin-enriched) incorporated successfully in infant formula demonstrating ready-to-use, convenient nutritional formulation.

PubMed ID: 14734879

Whey-based formula provided adequate nutrition for infants — example of convenient, ready-to-use nutrition.

PubMed ID: 11740194

Whey supplementation added weight/fat in HIV-infected women, consistent with being a convenient, calorie/protein-dense nutrition source.

PubMed ID: 1447640

Partially hydrolyzed whey formula was an alternative infant nutrition product with practical use.

PubMed ID: 27086768

Fermented whey drinks used clinically to improve nutritional status — convenient beverage format.

PubMed ID: 31734121

Twice‑daily whey supplementation over 12 months shows practical feasibility as a convenient supplement despite limited efficacy in that trial.

PubMed ID: 31290697

Oral multi‑nutrient supplement with whey was used as a ready nutrition product for cancer patients.

PubMed ID: 26402941

Whey-based 'oxygen smoothie' used as a convenient functional supplement in hospitalized cardiac patients with observed benefits (practical application).

PubMed ID: 11591884

Whey supplements provided in trials functioned as an easy, ready-to-use source of protein for participants.

PubMed ID: 39243332

Ready whey‑containing products were used to raise protein intake after bariatric surgery, highlighting convenience for targeted populations.

PubMed ID: 21147707

Whey-predominant formula with prebiotics performed well vs controls, indicating convenient inclusion in infant feeding products.

PubMed ID: 18541546

Whey (as part of meal-replacement powders) was used effectively in a structured, long-term weight-loss program—practical/convenient use case.

PubMed ID: 16954961

Whey‑predominant infant formula served as an effective, tolerable nutritional product—demonstrates convenience in formulation.

PubMed ID: 25844619

Daily 45 g whey for 18 months was feasible and tolerated in older adults—practical evidence of convenience as a long‑term supplement.

PubMed ID: 21590739

Daily 30 g whey supplement administered over 2 years demonstrates a practical, convenient supplementation approach.

PubMed ID: 16002812

Hydrolysed whey formula provided a ready-to-use infant nutrition option supporting normal growth.

PubMed ID: 8350218

Whey used as ready formula nutrition with equivalent growth—demonstrates convenience as a usable nutrition source.

PubMed ID: 37375630

Oral hyperproteic supplements were used to stabilize nutrition in cancer patients—practical, convenient protein delivery.

PubMed ID: 33379181

Whey-leucine-vitamin D drink used as a practical supplement during diet+exercise in older adults.

PubMed ID: 39953174

Whey supplement was used to raise daily protein intake easily in free‑living participants — practical convenience.

PubMed ID: 29724529

Whey was delivered as a fortified yogurt product—demonstrates convenience and food‑product application.

PubMed ID: 36880717

Whey isolate used perioperatively as an easy supplemental nutrition source that helped preserve grip strength.

PubMed ID: 25130629

Daily whey-enhanced milk in institutionalized elderly improved weight and nutritional blood markers, demonstrating a convenient delivery.

PubMed ID: 32668666

Whey formula provided an easy, well‑tolerated daily nutrition source for infants (product convenience demonstrated).

PubMed ID: 27604774

Whey‑predominant infant formulas shown to support normal growth — ready‑to‑use dietary product.

PubMed ID: 34265218

Prehabilitation supplements including whey were feasible with high adherence and raised nutrient intake reliably.

PubMed ID: 32363940

Oral whey-containing supplement in cancer patients increased protein intake safely—demonstrates convenience and practical use.

PubMed ID: 10468001

Bovine whey used as a fortifier shows whey can be formulated as a practical nutrition source in clinical settings.

PubMed ID: 38147281

An iron-in-whey microsphere formulation improved adherence and tolerability in iron-intolerant women, demonstrating whey as a convenient supplement matrix.

PubMed ID: 28730743

Whey used in snack bars showing convenient delivery and beneficial appetite/body-fat effects.

PubMed ID: 25277886

Study used a whey preload shake in free‑living overweight men and demonstrated practical appetite/weight benefits — shows convenience of whey products.

PubMed ID: 21996130

Whey‑derived yoghurt product used as an intervention—demonstrates an easy, palatable delivery format for additional nutrition.

PubMed ID: 32807165

Whey-fortified 250 mL/day beverage improved FFM and strength in COPD — practical ready-to-drink delivery.

PubMed ID: 29502350

Study used a ready‑to‑eat whey‑containing bar showing a convenient format for nutritional supplementation.

PubMed ID: 35666855

Whey‑predominant formula provided efficient, well‑tolerated infant nutrition, illustrating convenience and quality.

PubMed ID: 40268509

Enteral whey powder effectively increased protein delivery in clinical nutrition settings, showing convenience for boosting intake.

PubMed ID: 40847103

Whey added to enteral nutrition improved nutritional markers in ICU patients — supports whey’s utility as a convenient clinical protein source.

PubMed ID: 38257138

Infant hydrolyzed‑whey formulas provide practical, ready‑to‑use nutrition supporting normal growth.

PubMed ID: 38004217

Continuous enteral whey feeding (NGT) was successfully used as a practical clinical nutrition strategy in severely obese patients.

PubMed ID: 33138061

Whey provided as a pre-meal drink and produced practical appetite and protein-intake effects — demonstrates convenience as a drinkable supplement.

PubMed ID: 32674229

Preoperative carbohydrate+whey drink was feasible and reduced postoperative symptoms — shows convenience of beverage format in clinical setting.

PubMed ID: 28727654

Whey‑based human milk fortifier improved weight gain in preterms — shows convenient clinical formulation.

PubMed ID: 33373478

Preoperative whey‑containing clear fluids dramatically lowered postop complications in head/neck surgery (practical clinical beverage use).

PubMed ID: 31968595

Preop whey‑infused carbohydrate drinks were simple to administer and accelerated postoperative recovery/shortened LOS (practical convenience evidenced).

PubMed ID: 31348053

Short home prehab including whey improved perioperative function (shows ease of use in multimodal regimen).

PubMed ID: 31248026

Extensively hydrolysed whey infant formula with HMOs was well tolerated (~98%): supports practical, safe formula option for CMA infants.

PubMed ID: 31568698

Whey isolate used successfully as an outpatient nutritional supplement in malnourished cancer patients (practical delivery of calories/protein).

PubMed ID: 30906944

Pragmatic hospital trial: whey supplementation as a deliverable intervention correlated with faster recovery and fewer readmissions.

PubMed ID: 31331065

Whey used as infant formula component — convenient, standardized nutrition.

PubMed ID: 30520216

Whey formulated as a small preload drink used easily before meals.

PubMed ID: 30200582

Twice‑daily ready-to-drink whey provided a practical supplementation strategy during military training with measurable benefits.

PubMed ID: 30639252

Twelve weeks of peri‑training whey increased limb lean mass and reduced fat in older women—age‑specific benefit.

PubMed ID: 19536417

In frail elderly, EAA+whey with zinc produced greater IGF‑1 rises, reduced bone-resorption marker and improved ADL vs protein alone—supportive for older adults.

PubMed ID: 21623468

In older subgroup whey/leucine tended to improve appendicular muscle/total fat ratio and limit fat gain vs casein-based control.

PubMed ID: 21367943

Older men showed substantially greater MPS after whey vs casein—strong mechanistic support for preserving/maintaining muscle in aging.

PubMed ID: 25646324

In obese older adults on diet+RT, whey/leucine/vitamin D supplement preserved appendicular muscle mass vs control—practical evidence for older adults.

PubMed ID: 26170041

Large RCT in sarcopenic older adults showed improved leg function and small appendicular muscle mass gains with leucine-enriched whey.

PubMed ID: 26308291

Leucine-enriched whey acutely stimulated muscle protein synthesis in older men, a key mechanism for combating age-related muscle loss.

PubMed ID: 27440260

Whey produced larger early amino acid responses and supported MPS in older men, supporting use to maintain muscle with aging when dosed appropriately.

PubMed ID: 28132725

Leucine‑enriched whey drink improved appendicular muscle mass and lower‑extremity function in sarcopenic older adults (direct geriatric evidence).

PubMed ID: 31049877

Vitamin D + leucine‑whey attenuated IL‑6 rise and preserved nutritional markers in sarcopenic older adults.

PubMed ID: 31278117

Leucine‑enriched whey improved SMM and functional outcomes during rehab in older adults with parkinsonism.

PubMed ID: 31487819

Older adults: whey (native or standard) supported lean mass and strength gains with training.

PubMed ID: 32928579

Older adults meeting protein goals improved muscle mass; whey/leucine/vit D supplement modestly helped walking speed—useful for maintenance with aging.

PubMed ID: 32570811

In adults ≥50, leucine-enriched whey twice daily increased lean mass — strong evidence for age-related muscle maintenance.

PubMed ID: 33379181

Whey-leucine-vitamin D supplement helped older adults with obesity preserve/gain muscle during diet+exercise.

PubMed ID: 36437767

Leucine‑enriched whey with resistance training produced gains that persisted better during de‑training in older sarcopenic adults — strong aging relevance.

PubMed ID: 25844619

18‑month whey supplementation increased truncal lean mass in older adults (longer‑term evidence supporting muscle maintenance).

PubMed ID: 28719669

Whey-containing multi-ingredient drink produced modest lean mass and strength gains in older men.

PubMed ID: 32764397

Whey plus HIT improved LBM and preserved spine/hip BMD in older men versus controls.

PubMed ID: 39771028

In older men, higher-quality protein (whey/casein-based) in a multi-ingredient supplement yielded superior lean-mass and strength adaptations vs collagen, suggesting benefit for aging muscle.

PubMed ID: 19660844

Short-term protein (including whey) after hip fracture increased IGF‑1 in elderly patients, a signal relevant to preserving/repairing muscle.

PubMed ID: 24257722

Clear dose–response for postexercise MPS indicates practical dosing to counter anabolic resistance in older adults (study in resistance-trained men but mechanistically relevant to aging).

PubMed ID: 25923482

Whey plus resistance training in older adults gave greater strength increases vs casein, supporting muscle maintenance with aging.

PubMed ID: 32785021

Older men gained muscle mass, strength and fiber size with a whey‑containing supplement + home RT—strong evidence for older adults.

PubMed ID: 33799307

Novel whey‑based supplement improved gait speed and mitochondrial gene markers in undernourished older adults—functional aging relevance.

PubMed ID: 36857005

Pre‑sleep whey increases overnight muscle protein synthesis (mechanistic), which is relevant to strategies to preserve age‑related muscle loss.

PubMed ID: 30289425

In older adults, whey aided muscle protein synthesis and lean mass regain after inactivity—supports recovery potential in aging.

PubMed ID: 38762187

Whey supplementation increased integrated MPS in older men — strong mechanistic evidence for countering age‑related anabolic resistance.

PubMed ID: 20126965

Study included middle-aged/older men showing strength benefits with post-exercise whey, relevant to preserving function with age.

PubMed ID: 32585837

Whey + omega‑3/polyphenols with EMS improved leg strength and gait speed in frail older adults (supports function in aging).

PubMed ID: 33759678

Long‑term multi‑ingredient supplement containing whey preserved hand‑grip strength and improved function in older adults despite no LBM gain.

PubMed ID: 22338070

Dose–response in elderly: higher whey dose (35 g) markedly increased MPS and net protein balance—strong mechanistic support for maintenance with aging.

PubMed ID: 25644344

Whey better preserved meal‑triggered MPS during calorie restriction versus soy/carbs—relevant to older adults facing catabolic stress.

PubMed ID: 26864356

In sarcopenic elderly, whey+AA+vit D with exercise increased lean mass and strength and reduced inflammation (robust RCT directly addressing aging muscle).

PubMed ID: 33216623

Large RCT: combined nutrition (including whey) + exercise improved muscle size/strength and reduced fat in older sarcopenic adults.

PubMed ID: 36296958

High‑protein diet plus exercise improved strength and FFMI in older adults; supports sarcopenia prevention strategies.

PubMed ID: 22148961

Whey increased anabolic signaling after resistance exercise in older men, though signaling responses were blunted after training (still supportive).

PubMed ID: 29751507

Older women gained muscle mass and strength with whey plus resistance training—relevant to mitigating age‑related muscle loss.

PubMed ID: 32961041

Large inpatient RCT: whey‑based, leucine/D enriched nutrition + exercise improved gait, SPPB and AMM and shortened LOS in sarcopenic older adults (strong evidence).

PubMed ID: 37598750

In overweight postmenopausal women under energy restriction, ~35 g whey maximized acute MPS—relevant to preserving muscle with aging.

PubMed ID: 28229646

Exercise plus whey‑containing nutrition improved muscle strength in frail elderly, supporting maintenance of function with aging.

PubMed ID: 28977347

Daily whey + vitamin D with exercise improved muscle composition (less intermuscular fat, better density) in mobility‑limited older adults.

PubMed ID: 29395372

Whey+vitamins for 6 months produced small but significant increases in muscle mass and strength in frail older adults—direct geriatric evidence.

PubMed ID: 34894861

Long-term care older adults: whey+vit D with resistance training increased lean mass and muscle index over 24 weeks—strong aging-related muscle support (combined intervention).

PubMed ID: 18661258

Long-term peri-exercise whey improved CSA and gene expression in older adults—supports maintenance with aging.

PubMed ID: 21798863

Older obese women: whey during dieting preserved muscle relative to weight lost and improved muscle:weight ratio—clinically relevant to aging populations in energy deficit.

PubMed ID: 29252150

Whey supplements improved protein intake and functional strength in frail hospitalized older adults (relevant to sarcopenia).

PubMed ID: 28963124

Whey with light resistance exercise increased amino‑acid transporter expression in older men—supports anabolic responsiveness in aging muscle.

PubMed ID: 30113122

24‑week whey with resistance training improved muscle and function in older women—supports maintenance/gains with aging.

PubMed ID: 29752998

Older women receiving daily post‑exercise whey experienced larger increases in lean tissue and strength than placebo—direct aging population evidence.

PubMed ID: 29252039

Older women in RT trials had greater hypertrophy and strength when supplemented with whey—supports maintenance/building of muscle with aging.

PubMed ID: 30870778

Whey + RT increased lean soft tissue and improved cell hydration markers in older women (muscle health indicators).

PubMed ID: 30921603

Frail elderly study: whey + resistance exercise improved functional strength and physical performance measures.

PubMed ID: 30906944

Hospitalized older patients receiving whey as part of interventions showed faster functional recovery and fewer readmissions (practical maintenance benefit).

PubMed ID: 33612439

~16 g/day protein supplements (whey/soy/blend) prevented declines in lean mass and performance in older adults over 6 months.

PubMed ID: 36364801

Whey hydrolysate preserved fat‑free mass during dieting in older women—relevant to muscle maintenance with aging.

PubMed ID: 37815091

In older men, resistance exercise with higher protein intake aided fat loss and helped maintain FFM/weight.

PubMed ID: 38135472

Whey‑protein complex improved grip strength and walking distance in elderly COPD inpatients during rehab — functional benefit in older population.

PubMed ID: 36296958

Exercise + high‑protein diet improved leg strength in older adults; protein contributed to functional gains.

PubMed ID: 22148961

Whey with resistance exercise increased mTOR-pathway signaling (p70S6K etc.)—molecular evidence relevant to strength adaptation though direct strength gains were not measured.

PubMed ID: 29751507

Whey with resistance training increased muscular strength and 1‑RM measures vs placebo in older women.

PubMed ID: 35684089

Whey + vitamin D increased muscle strength measures alongside lean mass gains during resistance training.

PubMed ID: 38999765

Whey with 12 weeks resistance training improved composite and handgrip strength vs baseline.

PubMed ID: 28229646

Frail elderly receiving whey‑containing nutrition with exercise had clear strength improvements (randomized clinical evidence).

PubMed ID: 29395372

6‑month whey supplement increased handgrip strength in frail older adults.

PubMed ID: 18661258

Protein timing around resistance exercise enhanced hypertrophy and presumably contributed to strength improvements over 21 wk.

PubMed ID: 29252150

Whey supplements increased grip and knee extensor strength in frail hospitalized older adults.

PubMed ID: 30113122

Whey after resistance training yielded greater grip strength and gait speed improvements versus comparators.

PubMed ID: 30639252

Peri‑exercise whey groups showed better functional/muscle improvements consistent with strength benefits.

PubMed ID: 30200582

Soldiers drinking whey performed about 6.9 more push‑ups post‑training vs carbohydrate—practical upper‑body strength improvement.

PubMed ID: 30358153

Resistance training plus whey after bariatric surgery improved lower‑limb strength despite similar lean‑mass loss.

PubMed ID: 29752998

Post‑exercise whey group had larger increases in volume of load (strength) compared with low protein/placebo.

PubMed ID: 29252039

Whey with resistance training produced significantly greater increases in muscle strength vs placebo.

PubMed ID: 30921603

Frail elderly: daily whey supplement + resistance exercise improved handgrip strength, gait speed and chair‑stand time over 12 weeks.

PubMed ID: 31370717

Colorectal cancer: whey supplement improved functional/nutritional markers including strength metrics.

PubMed ID: 30676196

Older women: whey with resistance training produced greater strength and muscle mass gains vs controls.

PubMed ID: 34896568

12-week RCT in older men: resistance training increased leg strength; whey supplementation improved gait speed and contributed to functional gains.

PubMed ID: 36839361

Whey with 4 weeks resistance training increased isokinetic peak torque in select muscles vs placebo.

PubMed ID: 38135472

Elderly COPD inpatients receiving whey‑protein complex during rehab improved handgrip strength more than rehab alone — clinical strength improvement.

PubMed ID: 38820012

Whey + rehab after knee replacement led to significantly greater muscle strength improvements vs placebo.

PubMed ID: 39203849

Post‑session whey markedly increased leg 1‑RM gains vs placebo in previously inactive adults.

PubMed ID: 39953174

Whey supplementation with resistance training increased strength and IGF‑1 over 4 weeks vs placebo.

PubMed ID: 28399016

All protein groups including whey increased 1‑RM strength over 8 weeks of training, indicating strength improvements.

PubMed ID: 16937979

Resistance training improved 1RM strength across groups; whey+casein group had greater lean mass gains (indirect strength support).

PubMed ID: 16686554

Leucine + whey produced greater strength increases than placebo in an 8-week resistance program.

PubMed ID: 20975109

Whey+leucine supplementation increased upper-body strength measures (bench press, push-ups) over 8 weeks vs placebo.

PubMed ID: 26170041

Leucine-enriched whey improved lower-limb function in sarcopenic older adults, reflecting functional/strength gains.

PubMed ID: 28132725

Leucine‑enriched whey drink improved lower‑extremity function and muscle mass in sarcopenic older adults (functional strength relevance).

PubMed ID: 31487819

Older adults: whey and milk protein produced similar gains in muscle strength during training.

PubMed ID: 32486007

Resistance training + whey (leucine‑matched) increased peak torque/strength similar to soy (supports strength gains with training).

PubMed ID: 32570811

Leucine-enriched whey increased lean mass (which supports strength), though direct strength endpoints were modest.

PubMed ID: 36437767

Leucine‑enriched whey plus resistance training improved handgrip strength and maintained gains after detraining in older adults.

PubMed ID: 28719669

Whey-containing supplement improved summed 1RMs by ~3% at 6 weeks and further with exercise by 19 weeks (multi-ingredient).

PubMed ID: 33867499

Exercise plus whey‑based supplement modestly improved leg strength and mobility in men on ADT.

PubMed ID: 36880717

Perioperative whey preserved handgrip strength vs usual care—evidence of maintaining/augmenting strength in catabolic settings.

PubMed ID: 39771028

Higher-quality whey/casein-based MIS produced greater strength improvements than collagen in older men (retrospective analysis).

PubMed ID: 24257722

Maximizing postexercise MPS with 20 g whey provides mechanistic support for subsequent strength adaptations when paired with resistance training.

PubMed ID: 25923482

Cysteine-rich whey plus resistance training produced greater strength gains (~8% between-group advantage) vs casein.

PubMed ID: 32785021

Whey‑containing supplement + home RT increased lower‑body strength and handgrip significantly.

PubMed ID: 33804259

High‑protein milk intervention increased bench press and squat strength vs control in trained men.

PubMed ID: 33564844

Heavy resistance training + whey produced large increases in dynamic and isometric knee extensor strength vs whey alone.

PubMed ID: 38762187

Increased integrated MPS with whey in older men supports the physiological basis for strength improvements over time.

PubMed ID: 19403955

Participants taking whey with creatine and CLA experienced larger bench-press and leg-press strength gains during heavy training (confounded).

PubMed ID: 11591884

Whey (especially with creatine) increased bench-press 1RM and knee-extension strength vs placebo—direct evidence for strength gains.

PubMed ID: 20126965

14-week resistance training with post-workout whey (35 g) produced larger improvements in some strength measures (notably knee extension) vs placebo.

PubMed ID: 30157103

12‑week RT: native whey produced similar strength gains to milk — supports whey as an effective protein source for strength when combined with training.

PubMed ID: 33759678

Multi‑ingredient drink (including whey) helped older adults maintain grip strength vs placebo.

PubMed ID: 26216195

Peri-rehab whey improved knee-extension strength post hip-fracture vs control.

PubMed ID: 26864356

Whey-containing supplement plus exercise increased handgrip strength and other functional measures in sarcopenic older adults (clinically meaningful).

PubMed ID: 40424578

Whey supported comparable resistance‑training strength gains to recombinant BLG across 8 weeks.

PubMed ID: 33216623

Nutrition (whey) + exercise increased muscle strength more than either alone in older sarcopenic adults.

PubMed ID: 32807165

Whey-fortified beverage increased handgrip strength and FFM in men with COPD — clear strength improvement.

PubMed ID: 25733461

Whey (and casein) co-ingested with carbs markedly increased insulin and lowered postprandial glucose vs carbohydrate alone.

PubMed ID: 10838463

Whey supplementation in dieting officers produced greater fat loss and lean preservation, indicating favorable metabolic/ body-composition effects.

PubMed ID: 19893505

Twelve weeks of whey supplementation in overweight adults lowered blood pressure and improved arterial stiffness index.

PubMed ID: 20377924

12-week whey isolate RCT lowered triglycerides, total/LDL cholesterol and improved fasting insulin/HOMA-IR in overweight adults.

PubMed ID: 24300595

Whey (and casein) with exercise lowered brachial/aortic BP and arterial stiffness in overweight women—clear cardiometabolic benefit.

PubMed ID: 25833983

12-week whey vs casein reduced postprandial apoB-48 in abdominally obese adults, suggesting metabolic benefit.

PubMed ID: 30139624

Higher-protein (more whey proportion) milk with cereal lowered post-breakfast glucose iAUC and raised satiety ratings acutely.

PubMed ID: 30972484

Small milk protein dose reduced postprandial glucose AUC and insulin/C‑peptide (direct metabolic effects).

PubMed ID: 36839368

Lower‑protein, whey‑improved formulas produced BCAA profiles closer to breastfed infants—biochemical metabolic benefit.

PubMed ID: 38613059

α‑lactalbumin‑enriched (whey) infant formulas produced insulin/C‑peptide profiles closer to breastfed infants, indicating favourable metabolic effects.

PubMed ID: 32645934

One‑year whey supplementation increased circulating B12/holoTC in older adults (improves nutritional/metabolic status).

PubMed ID: 38278366

Milk‑protein containing LNS improved iron, B12 and hemoglobin in stunted children — meaningful metabolic/nutritional improvements.

PubMed ID: 29996492

Alpha‑lactalbumin‑enriched low‑protein infant formula supported normal growth—relevant to metabolic development in infants.

PubMed ID: 40072601

An evening whey‑containing formula lowered nocturnal postprandial glucose iAUC by ~21% and improved sleep onset/mood in adults with mild sleep complaints.

PubMed ID: 29502350

Whey‑containing premeal markedly lowered postprandial glucose and increased GLP‑1 in T2D and NGT—strong acute metabolic effects.

PubMed ID: 31487806

Whey hydrolysate reduced fasting/postprandial TG and total cholesterol in abdominally obese subjects.

PubMed ID: 33216623

Combined nutrition+exercise improved muscle and reduced fat (favorable metabolic profile).

PubMed ID: 32065880

3‑month WPI in T2D improved fasting glucose, oxidative stress and inflammatory markers vs placebo.

PubMed ID: 21996130

Whey-derived product lowered fasting triacylglycerol (−16% vs placebo) and produced modest glucose and weight improvements in metabolic‑syndrome patients.

PubMed ID: 35807854

Whey preloads (especially microgel) substantially lower postprandial glucose peaks and AUC.

PubMed ID: 41615946

Crossover trial: 20 g whey co‑ingested with glucose lowered postprandial glycaemia but produced a larger insulin response vs pea protein.

PubMed ID: 18691705

Whey in a calorie-restricted diet improved weight, fat mass and produced large decreases in total cholesterol in PCOS patients.

PubMed ID: 21257028

Fermented whey-derived product reduced serum triglycerides (overall ~10%; ~20% in those with baseline TG ≥150 mg/dL) in RCT.

PubMed ID: 24833780

Whey timed with exercise improved insulin resistance (HOMA‑IR) and reduced visceral fat in combined intervention.

PubMed ID: 28863364

Marked improvements in HbA1c and postprandial glucose in T2D with whey‑heavy breakfast.

PubMed ID: 29267221

Dose‑dependent increases in insulin and GLP‑1 and ghrelin suppression after oral whey.

PubMed ID: 30639252

Whey groups showed marked reductions in TC/HDL‑C ratio (−12–13%), indicating improved cardiometabolic profile.

PubMed ID: 30520216

Small whey+guar preload slowed gastric emptying, lowered postprandial glycaemia and slightly improved HbA1c.

PubMed ID: 32680548

Whey (30 g/day) on hypocaloric diet reduced endocannabinoids, improved lipids and HOMA-IR — clear metabolic improvements.

PubMed ID: 32235773

Replacing carbohydrate with milk protein isolate lowered triglycerides and ambulatory blood pressure during energy restriction.

PubMed ID: 36364801

Whey hydrolysate aided fat loss while preserving FFM in older women, a favorable metabolic effect.

PubMed ID: 37815091

High‑protein intake (whey) combined with resistance exercise reduced fat mass and impacted energy balance.

PubMed ID: 36472718

Large whey meal altered late postprandial glycemia in pump‑treated T1D children—direct metabolic impact relevant to glucose management.

PubMed ID: 38004217

Enteral whey PSMF lowered fasting insulin while improving body composition—meaningful metabolic improvements in severely obese adults.

PubMed ID: 41203981

Once‑daily 20 g whey pre‑meal in women with GDM substantially lowered postprandial glucose and glycaemic variability.

PubMed ID: 29724529

Fortified whey yogurt improved HOMA-IR and metabolic markers during calorie restriction vs plain yogurt.

PubMed ID: 27797709

Intact whey isolate lowered 24-h ambulatory BP, improved endothelial function and modestly improved lipids in adults (well-controlled RCT).

PubMed ID: 20473630

Lactoferrin-enriched milk supplement reduced pro-inflammatory markers and increased IL-10, suggesting an anti-inflammatory metabolic benefit.

PubMed ID: 34520104

16-week RCT: leucine-enriched whey raised protein intake and significantly reduced LDL, fasting insulin and HOMA-IR in older adults—strong metabolic benefits.

PubMed ID: 33379181

Whey-leucine-vitamin D drink during diet+exercise lowered fasting insulin and HOMA-IR and improved lean mass in older adults with obesity.

PubMed ID: 31480676

Whey reduced central fat and increased satiety hormone (nesfatin) in overweight women.

PubMed ID: 28800398

Program including whey improved lipids, hs‑CRP and estimated CVD risk, though not attributable to whey alone.

PubMed ID: 37812879

Cysteine‑rich keratin+whey improved insulin‑stimulated glucose clearance, microvascular flow and GLUT4 translocation in T2DM—mechanistic metabolic benefit.

PubMed ID: 33893377

α‑lactalbumin added to myo‑inositol reduced insulin resistance and insulin use in gestational diabetes — direct metabolic benefit (whey component relevant).

PubMed ID: 28727654

Whey‑based fortifier increased weight gain velocity in preterm infants—effective calorie/protein boost.

PubMed ID: 39953174

Whey supplement increased daily energy/protein intake to ~1.5 g/kg/day, providing an easy caloric/protein addition.

PubMed ID: 33379181

Whey-leucine-vitamin D supplement provided an energy/protein boost during diet+exercise interventions.

PubMed ID: 37375630

Hypercaloric hyperproteic oral supplements provided a straightforward way to increase calories/protein in malnourished cancer patients.

PubMed ID: 8350218

Whey-based infant formulas provided calories that supported normal growth—practical source for added calories.

PubMed ID: 9795454

Formula with different protein/fat composition increased overall protein intake in infants—demonstrates how formula choice (including whey-containing products) can increase calories/protein.

PubMed ID: 21590739

Daily 30 g whey supplement represents a simple way to add calories/protein to habitual intake.

PubMed ID: 29724529

Fortified yogurt provided additional calories and protein during dieting interventions—an easy way to augment intake when needed.

PubMed ID: 36880717

Perioperative WPI supplementation offered an easy additional calorie/protein source to support recovery.

PubMed ID: 23077192

Providing 1 L/day of milk or protein beverages to overweight adolescents increased BMI‑for‑age Z scores—demonstrates that whey beverages can provide a significant calorie load (can lead to weight gain).

PubMed ID: 25612082

Daily milk‑based drinks (skim milk, whey) increased energy intake and led to fat mass gains in adolescents — shows whey can deliver calories easily.

PubMed ID: 31290697

Multi‑nutrient oral supplement containing whey delivered extra calories to cancer patients.

PubMed ID: 28730743

Whey bars increased protein and altered energy/macronutrient intake in overweight participants (practical calorie/protein boost).

PubMed ID: 32961041

Twice‑daily medical nutrition increased caloric/protein intake during rehab (practical caloric supplementation).

PubMed ID: 27604774

Infant formulas provide an easy caloric/protein feed in early life (demonstrates whey as calorie source).

PubMed ID: 32668666

Whey‑based infant formula supplies calories/protein reliably as a dietary staple (demonstrated in RCT).

PubMed ID: 25130629

Whey-enhanced milk increased weight and nutritional markers in undernourished elderly, acting as an easy calorie/protein boost.

PubMed ID: 27086768

Energy‑dense fermented whey beverages improved malnourished patients' nutrition scores — practical calorie/protein boost.},{

PubMed ID: 11740194

Whey supplementation in HIV-infected women led to weight and fat mass increases, indicating an effective calorie/protein boost.

PubMed ID: 21910947

Daily whey beverage in older women provided an easy, beverage-based caloric/protein supplement over two years (practical calorie/protein boost).

PubMed ID: 24521353

Whey concentrate used in therapeutic food formulations provides a straightforward way to add calories/protein in malnutrition contexts.

PubMed ID: 25134117

Lipid‑based supplement containing whey produced weight gain in people starting ART — clear evidence whey‑containing products can boost calories.

PubMed ID: 26864368

Whey-containing ready-to-use supplementary/therapeutic foods provided substantial calories/protein and improved recovery in malnourished children (direct evidence).

PubMed ID: 28003538

Whey supplementation trial delivered up to 60 g/day protein (demonstrates whey as an easy means to increase caloric/protein intake).

PubMed ID: 30200582

Twice-daily whey drinks supplied extra calories/protein in soldiers' diets, practical for boosting intake.

PubMed ID: 31331065

Infant formulas with whey provide a ready way to increase calories and protein in infants.

PubMed ID: 31568698

Whey isolate supplementation increased body weight and FFMI in malnourished cancer patients (effective calorie/protein boost).

PubMed ID: 31370717

Whey supplement improved lean body mass and nutrition markers in colorectal cancer patients—practical caloric/protein addition.

PubMed ID: 31968595

Whey‑infused preop drinks provided energy and protein and accelerated recovery—clear example of an easy calorie/protein bolus.

PubMed ID: 33373478

Preop clear‑fluid whey drink reduced complications—demonstrates clinical energy/protein supplementation convenience.

PubMed ID: 32674229

Pre-op carbohydrate+whey drink provided calories/protein and reduced postoperative hunger/thirst — useful for perioperative energy support.

PubMed ID: 38004217

Enteral whey PSMF provided a controlled, high-protein feeding method that altered body composition—shows whey can deliver calories reliably in clinical feeding.

PubMed ID: 26677350

Post-exercise whey produced greater total and abdominal fat loss vs isocaloric carbohydrate in resistance-trained men.

PubMed ID: 24833780

Timed whey + exercise produced greater fat and visceral fat loss vs protein alone, but effect is combined with exercise so attribution to whey alone is moderate.

PubMed ID: 21798863

RCT in older obese women: whey during energy restriction produced greater total weight and fat loss vs carbohydrate (improved body composition).

PubMed ID: 21677076

Randomized trial in overweight adults: twice-daily whey produced greater weight and fat loss vs isoenergetic carb (≈1.8 kg weight, 2.3 kg fat difference).

PubMed ID: 18691705

In women with PCOS, whey supplementation during calorie restriction produced greater total and fat loss vs sugar.

PubMed ID: 16735482

Protein preloads (including whey) lowered ad libitum intake ~10% in men, relevant to weight control.

PubMed ID: 35807854

Whey preloads substantially reduce postprandial glycemia, which can aid weight control indirectly.

PubMed ID: 28730743

Whey snack bars reduced body fat and appetite in overweight adults (RCT).

PubMed ID: 25277886

12‑week whey preload RCT in overweight men reduced hunger, energy intake and body weight — direct, clinically meaningful evidence.

PubMed ID: 33216623

Nutrition (including whey) + exercise reduced fat mass in sarcopenic older adults (supports body composition improvement).

PubMed ID: 31487806

12‑week whey hydrolysate lowered fasting/postprandial TG and total cholesterol in abdominal obesity.

PubMed ID: 11591884

Whey supplementation with resistance training increased lean mass versus placebo, which can aid body composition during weight management.

PubMed ID: 19153580

High-protein (whey/casein) diet improved weight/fat-mass maintenance after weight loss vs high-carb.

PubMed ID: 18541546

Whey-containing meal-replacement programs produced ~10 kg sustained weight loss at 12 months (whey form not superior but part of effective program).

PubMed ID: 10838463

In overweight adults on calorie restriction+resistance training, whey group lost substantial fat (4.2 kg) supporting weight-loss role.

PubMed ID: 31480676

RDBP trial in overweight women: whey reduced android fat and increased nesfatin vs collagen.

PubMed ID: 29724529

Whey‑fortified yogurt during calorie restriction led to greater fat loss and waist reduction vs plain yogurt.

PubMed ID: 21623468

Leucine-rich whey modestly prevented fat gain vs casein in older subgroup (significant net difference in total body fat).

PubMed ID: 28800398

Lifestyle + nutraceuticals (including whey) produced greater weight/fat loss vs lifestyle alone, though multi‑ingredient.

PubMed ID: 28399016

Study showed reduced fat mass (~−1.54 kg) with whey during resistance training—supports fat-loss component of weight management.

PubMed ID: 41297635

12‑week RCT of a whey hydrolysate in overweight adults showed modest but significant waist‑circumference reductions versus placebo.

PubMed ID: 38004217

Enteral whey PSMF produced large reductions in fat mass and improved % fat-free mass vs oral PSMF in severely obese adults.

PubMed ID: 36839361

Whey with 4 weeks resistance training slightly decreased body fat (and increased muscle), supporting body-composition benefits relevant to weight management.

PubMed ID: 37815091

High‑protein (whey) diet aided fat loss and weight maintenance in older men alongside resistance exercise.

PubMed ID: 36364801

Whey hydrolysate produced greater weight and fat loss vs control in older women on energy restriction.

PubMed ID: 33138061

Pre-breakfast whey (70 g) reduced combined meal energy intake and increased daily protein intake — direct appetite/energy-intake evidence.

PubMed ID: 30676196

RCT in older women: 35 g whey + resistance training reduced body fat and waist, supporting weight/fat management.

PubMed ID: 29523089

Randomized trial in older men with sarcopenic obesity showed whey reduced total and visceral fat and improved lipid ratio—direct weight‑management benefit.

PubMed ID: 30200582

Field RCT in soldiers: twice-daily whey produced greater fat loss (~1.8 kg more) vs iso-caloric carbohydrate.

PubMed ID: 30639252

12-week peri‑exercise whey reduced total/trunk body fat vs placebo—direct clinical evidence of fat loss.

PubMed ID: 28863364

Large RCT in T2D: whey‑heavy breakfast produced −7.6 kg body weight over 12 weeks.

PubMed ID: 27885532

Whey + hypocaloric diet produced modest weight/fat loss after bariatric regain while preserving lean mass.

PubMed ID: 27507005

Whey preload reduced subsequent food intake in pre‑pubertal children (acute appetite/energy intake reduction).

PubMed ID: 26864368

Whey-containing ready-to-use food improved recovery and weight/MUAC gains in moderately malnourished children (large RCT; supports weight gain use).

PubMed ID: 26246322

Higher total protein (partly from whey) associated with reduced fat mass in an exercise trial (associative evidence).

PubMed ID: 32486007

Whey (leucine‑matched) with resistance training produced similar muscle and strength gains vs soy (supports training outcomes).

PubMed ID: 31278117

Whey‑leucine‑vitamin D drink improved 6MWT, walking speed and balance during rehab in parkinsonism (functional performance gains).

PubMed ID: 16686554

Whey + leucine enhanced strength gains during training vs placebo—supports performance improvements.

PubMed ID: 16937979

Whey+casein during heavy training increased muscle mass with strength gains across groups—supports training performance.

PubMed ID: 33804259

High‑protein milk (containing whey) increased muscle strength and lower‑body power in trained men — direct exercise performance improvements.

PubMed ID: 39203849

Post‑session whey improved leg 1‑RM by a clinically meaningful margin and improved VO2max in previously inactive adults.

PubMed ID: 38820012

Whey plus rehab after knee replacement led to better muscle strength and ROM — functional performance benefit.

PubMed ID: 39422600

Tangeretin combined with whey improved VO2max, time-to-exhaustion and exercise-induced FEV1 responses in athletes with exercise-induced bronchoconstriction.

PubMed ID: 38135472

Whey‑protein complex during pulmonary rehab increased 6‑minute walk distance in elderly COPD inpatients — functional exercise capacity benefit.

PubMed ID: 29252039

Whey supplementation with RT increased strength and muscle mass vs placebo—translates to improved performance capacity in resistance exercise.

PubMed ID: 29752998

Post‑exercise whey increased lean tissue and volume of load (strength) more than placebo in older women—supports performance/functional gains.

PubMed ID: 30358153

Post‑bariatric patients: resistance training + whey improved leg strength despite similar lean mass loss—functional performance gain.

PubMed ID: 30200582

Soldiers given whey performed ~7 more push‑ups vs carbohydrate group—functional performance improvement during training.

PubMed ID: 30639252

Peri‑exercise whey led to greater lean mass and reduced fat, changes that support better exercise performance capacity.

PubMed ID: 30592848

Fermented whey product increased hemoglobin and markedly improved physical performance in small athlete sample.

PubMed ID: 26208743

Pilot trial in colorectal patients showed a clinically meaningful (but not statistically significant) preop 6MWD improvement with whey.

PubMed ID: 26677350

Training-driven strength/CSA gains were similar, but body composition improved with whey which can support performance indirectly.

PubMed ID: 22857881

Whey-peptide supplement plus exercise in COPD increased exercise tolerance and 6MWD — performance benefit in clinical population.

PubMed ID: 28977347

Daily 20 g whey + vitamin D with exercise improved muscle composition and provided incremental functional benefits in mobility‑limited older adults.

PubMed ID: 28229646

Exercise combined with whey‑containing nutrition improved muscle strength in frail elderly (functional performance).

PubMed ID: 38999765

Whey combined with 12 weeks resistance training increased strength and muscle mass versus baseline.

PubMed ID: 32807165

Whey-fortified beverage increased FFM and handgrip strength in COPD patients, indicating functional/performance benefit.

PubMed ID: 40424578

Whey and recombinant BLG supported similar strength gains and leg‑lean mass during 8 weeks resistance training, implying performance‑relevant support.

PubMed ID: 26216195

Peri-rehab whey improved knee-extension strength and functional mobility in early post-op hip fracture patients.

PubMed ID: 26402941

Whey-based beverage improved SpO2, 6-min walk distance and dyspnea in cardiac inpatients (clinically meaningful functional gains).

PubMed ID: 38140393

Daily protein+carbohydrate improved several job‑specific physical task times in firefighters—practical performance benefit.

PubMed ID: 30935010

Protein + carbohydrate reduced muscle damage and maintained strength after endurance exercise (improves short‑term performance retention).

PubMed ID: 20126965

Post-workout whey (35 g) combined with supervised resistance training resulted in greater gains in specific strength measures (knee extension) vs no-protein/placebo.

PubMed ID: 11591884

Whey (and whey+creatine) with resistance training improved strength measures (bench/knee extension), supporting performance benefits.

PubMed ID: 37202878

Enhanced myofibrillar protein synthesis after resistance exercise implies potential for improved performance with repeated use.

PubMed ID: 32785021

Whey‑containing supplement + home RT increased strength and fiber size—functional improvements tied to performance.

PubMed ID: 39166753

Mixed protein (casein/whey/pea) improved golf driving distance, ball speed and some strength metrics vs placebo — includes whey in a performance‑enhancing blend.

PubMed ID: 21367943

Whey stimulated greater postprandial MPS than casein in older men—mechanistic support for faster recovery of muscle protein.

PubMed ID: 24284442

Whey (25 g) strongly stimulated myofibrillar protein synthesis post‑exercise; leucine strategies showed similar effects — supports recovery.

PubMed ID: 26308291

Leucine-enriched whey acutely stimulated muscle protein synthesis, a key mechanism for recovery and repair.

PubMed ID: 24257722

20 g whey postexercise maximized myofibrillar MPS — strong mechanistic evidence for faster anabolic recovery.

PubMed ID: 30698725

Dairy proteins + carbohydrate increased myofibrillar protein synthesis vs carbohydrate alone after mixed exercise—supports recovery processes.

PubMed ID: 32785021

Whey‑containing supplement + RT increased fiber size and strength supporting improved adaptation/recovery from training.

PubMed ID: 33804259

Regular post‑exercise + pre‑sleep high‑protein milk improved gains in mass/strength/power indicative of improved training recovery/adaptation.

PubMed ID: 36857005

Pre‑sleep whey increased overnight myofibrillar and mitochondrial protein synthesis after exercise—strong mechanistic evidence for faster recovery.

PubMed ID: 30289425

Whey increased integrated MPS and aided lean‑mass regain during recovery after inactivity—evidence for enhanced recovery of muscle.

PubMed ID: 37202878

Acute postexercise whey increased myofibrillar protein synthesis vs collagen—direct evidence of enhanced early recovery processes.

PubMed ID: 11591884

Whey supplementation with resistance training improved strength and lean-mass recovery metrics vs placebo—supports faster functional recovery.

PubMed ID: 20126965

Whey after workouts in a 14-week program enhanced some strength outcomes, consistent with improved training recovery over time.

PubMed ID: 30935010

Protein + carbohydrate blunted muscle‑damage markers and preserved leg strength 22 h after endurance exercise (supports faster recovery).

PubMed ID: 32784847

Whey attenuated rises in CK/myoglobin after eccentric exercise (biochemical indication of reduced muscle damage/recovery support).

PubMed ID: 40854076

Attenuation of CK rise with whey across consecutive resistance exercise days suggests faster biochemical recovery from muscle damage.

PubMed ID: 22338070

Dose–response study: larger whey doses produced greater MPS and whole‑body net protein balance—supports more rapid anabolic recovery when adequate whey is consumed.

PubMed ID: 26216195

Peri-rehab whey improved strength and functional tasks during early recovery after hip fracture surgery.

PubMed ID: 40424578

Whey supported comparable strength and leg lean mass gains during resistance training, consistent with effective recovery/nutrition support.

PubMed ID: 37598750

Acute maximal stimulation of MPS with ~35 g whey indicates a fast, potent anabolic response relevant to post-exercise recovery.

PubMed ID: 28977347

Whey + exercise improved muscle composition and provided incremental benefits that support recovery outcomes in older adults.

PubMed ID: 18661258

Timed whey intake before/after resistance exercise over 21 wk enhanced hypertrophy and recovery-related gene expression—supports longer-term recovery/adaptation.

PubMed ID: 29752998

Daily post‑exercise whey led to greater lean tissue and strength gains than placebo in older women—supports faster/better recovery adaptations.

PubMed ID: 29252039

Whey + resistance training produced greater strength and hypertrophy gains than placebo—consistent with enhanced training recovery/adaptation.

PubMed ID: 36839361

Whey with resistance training increased muscle mass and some strength in 4 weeks, consistent with enhanced adaptation/recovery over time.

PubMed ID: 38820012

Whey during rehab after surgery led to faster functional improvements relative to placebo.

PubMed ID: 39203849

Post‑session whey enhanced strength gains and fitness vs placebo, consistent with improved recovery/adaptation.

PubMed ID: 24257722

Postexercise MPS maximized with relatively modest whey doses — consistent with rapidly available amino acids from whey.

PubMed ID: 36857005

Whey produced an acute rise in plasma amino acids overnight (faster peak than casein) though casein produced more sustained overnight levels.

PubMed ID: 37202878

Whey produced large plasma leucine peaks and raised myofibrillar synthesis shortly after ingestion—classic fast‑digesting protein behavior.

PubMed ID: 22338070

Dose–response study demonstrated greater amino acid absorption with higher whey doses (supports rapid availability), though it focused on amount as well as kinetics.

PubMed ID: 40424578

rBLG produced similar postprandial EAA availability to whey; whey’s aminoacidemia profile supports categorization as rapidly digested in practice.

PubMed ID: 41101508

20 g whey markedly increased plasma EAAs/leucine quickly after ingestion though it did not further raise MPS beyond exercise in that study.

PubMed ID: 36536114

Whey produced larger plasma amino‑acid rises than pea or cricket protein after resistance exercise (faster bioavailability).

PubMed ID: 37598750

Rapid, dose-dependent stimulation of myofibrillar protein synthesis after whey ingestion demonstrates its fast and efficacious anabolic kinetics.

PubMed ID: 8647062

Use of hydrolysed whey formulas (predigested proteins) implies faster digestion/absorption compared with intact proteins in infants.

PubMed ID: 11099588

Whey-hydrolysate formula produced clinical effects in infants (colic reduction), and hydrolysed formulations are by nature faster/ more readily absorbed than intact proteins.

PubMed ID: 28963124

Whey feeding raised plasma leucine/BCAA and increased amino‑acid transporter expression — consistent with rapid amino acid delivery.

PubMed ID: 9002081

Whey hydrolysate produced distinct plasma amino-acid patterns (e.g., higher threonine) consistent with altered/faster absorption kinetics vs intact whey-predominant formula.

PubMed ID: 21367943

Whey was absorbed faster and raised plasma leucine more than casein in older men—robust evidence that whey is rapidly digested/absorbed.

PubMed ID: 26308291

Leucine-enriched whey rapidly stimulated muscle protein synthesis in older men, consistent with rapid amino acid delivery.

PubMed ID: 27440260

Whey produced a larger early peak in plasma essential amino acids/leucine vs casein and wheat, demonstrating rapid digestion/appearance into blood (mechanistic trial).

PubMed ID: 28285641

EAA formulations based on whey composition produced acute whole‑body net protein gain (reflects rapidly available EAAs).

PubMed ID: 28422532

Whey (fast protein) produced greater acute leucine availability after exercise compared with slower proteins.

PubMed ID: 30322081

Hydrolysed whey produced distinct (earlier) aminoacidemia and higher early insulin/GLP‑1—consistent with faster availability.

PubMed ID: 38315260

Milk protein bolus raised plasma EAAs and insulin more than corn protein, demonstrating rapid aminoacidemia consistent with fast digestion kinetics.

PubMed ID: 38682238

Acute changes in mTOR-related protein localization and signaling after whey ingestion indicate rapid intracellular anabolic signaling consistent with fast digestion/availability.

PubMed ID: 25733461

Whey co-ingested with carbohydrate produced brisk insulin/glucose responses indicative of rapid protein action; compared proteins but not direct digestion kinetics measurement.

PubMed ID: 30698725

Whey produced a faster/leucine‑rich plasma amino‑acid response post‑exercise though MPS similar to milk/casein in this setting.

PubMed ID: 30139624

Higher‑protein milk increased satiety ratings pre‑lunch vs lower‑protein versions though lunch intake was unchanged.

PubMed ID: 28843973

Adding MSG to a whey‑containing soup increased feelings of fullness in acute experiments.

PubMed ID: 30520216

Whey+guar preload slowed gastric emptying and lowered postprandial glycaemia which can increase satiety and reduce intake.

PubMed ID: 33138061

Pre-breakfast whey reduced subsequent meal energy intake and increased gastric retention — strong satiety evidence.

PubMed ID: 32948867

12-week whey decreased subjective hunger ratings though objective body-composition changes were absent.

PubMed ID: 25277886

12‑week preload RCT showed reduced hunger, lower energy intake and weight loss — strong satiety evidence.

PubMed ID: 28730743

Whey snack bars reduced appetite measures (hunger, desire to eat, prospective consumption) in overweight adults at 12 weeks.

PubMed ID: 16735482

Whey and other proteins reduced ad libitum energy intake by ~10% and altered ghrelin/GLP-1—strong satiety evidence.

PubMed ID: 21677076

Whey group had lower ghrelin vs carb control and greater weight/fat loss—physiologic evidence for increased satiety over time.

PubMed ID: 27507005

Whey preload reduced ad libitum intake at 60 min in pre‑early pubertal children (clear satiety effect in that group).

PubMed ID: 29502350

Whey‑containing premeal bar increased GLP‑1 and reduced postprandial glucose excursions—hormonal profile consistent with increased satiety and reduced intake.

PubMed ID: 29267221

Oral whey acutely suppressed ghrelin and increased incretins/insulin dose‑dependently — mechanistic support for satiety.

PubMed ID: 31480676

Whey increased nesfatin (satiety hormone) and reduced android fat vs collagen in overweight women.

PubMed ID: 18345020

Whey increased subjective satiety and influenced hunger hormones, although did not lower immediate intake in that study.

PubMed ID: 24801369

Whey increased subjective satiety/fullness vs casein/control in overweight participants—consistent short‑term satiety signal.

PubMed ID: 19474132

Skim milk increased morning satiety and reduced lunch energy intake vs sugary drink.

PubMed ID: 24833598

Night‑time protein increased next‑morning fullness and reduced desire to eat in overweight women (acute single‑night effect).

PubMed ID: 28730743

Whey snack bars reduced appetite measures which can translate to fewer cravings in overweight adults.

PubMed ID: 25277886

Whey preload reduced appetite and desire to eat across 12 weeks — supports craving/control effects.

PubMed ID: 32948867

12-week whey supplementation lowered subjective hunger — may aid craving control.

PubMed ID: 29502350

Whey‑containing premeal increased GLP‑1 and reduced postprandial glucose in T2D—hormonal and glycemic changes that can reduce subsequent cravings.

PubMed ID: 31480676

Increase in nesfatin (satiety hormone) after whey suggests reduced appetite/cravings in overweight women.

PubMed ID: 33138061

Pre-meal whey reduced subsequent energy intake at breakfast and lunch, consistent with reduced cravings/urge to eat.

PubMed ID: 30520216

Whey+guar preload slowed gastric emptying and lowered postprandial glucose — physiological effects that can reduce cravings between meals.

PubMed ID: 29267221

Whey acutely suppressed ghrelin and increased incretins/insulin—physiologic basis for reduced appetite/cravings.

PubMed ID: 27507005

Whey preload reduced subsequent intake in pre‑early pubertal children (helps control short‑term eating).

PubMed ID: 21677076

Whey group showed lower fasting ghrelin vs carbohydrate control, a hormonal change consistent with reduced appetite/cravings over time.

PubMed ID: 16735482

Protein preloads (including whey) lowered next-meal intake and altered appetite hormones—supporting craving control.

PubMed ID: 32680548

Whey (30 g/day) reduced circulating hunger-related endocannabinoids (AEA, 2-AG) in obese premenopausal women — mechanistic link to craving control.

PubMed ID: 19536417

In frail elderly, zinc added to essential-amino-acid+whey supplement reduced bone-resorption marker (CrossLaps) more than protein alone.

PubMed ID: 11388472

Randomized trial of a whey-derived milk basic protein fraction increased calcaneal BMD and reduced bone resorption markers (direct positive evidence).

PubMed ID: 17048062

Whey-derived MBP modestly increased lumbar BMD and improved bone turnover markers in young women (6-month RCT).

PubMed ID: 16133638

Milk basic protein (a whey-derived fraction) modestly increased lumbar spine BMD and reduced a resorption marker in postmenopausal women.

PubMed ID: 39991811

A protein‑rich multi‑nutrient drink including whey hydrolysate attenuated winter forearm BMD loss and modulated PTH/IGF‑1 in prepubertal children.

PubMed ID: 32764397

Trial reported modest lumbar spine BMD increase and hip BMD preservation in older men when whey added to HIT program.

PubMed ID: 20851310

Short-term study in boys showed whey vs casein affected serum osteocalcin depending on mineral content—acute biochemical bone-marker effect of uncertain clinical significance.

PubMed ID: 19172341

Ribonuclease-enriched lactoferrin supplement shifted bone markers toward reduced resorption and increased formation in postmenopausal women (lactoferrin is a milk-derived bioactive).

PubMed ID: 31338563

Large RCT in older adults: vitamin D–calcium–leucine whey drink raised 25(OH)D, suppressed PTH and produced small but significant gains in total‑body BMD.

PubMed ID: 32876987

4‑week oral whey improved eczema severity and skin‑related QoL vs placebo in a small RCT (direct benefit for skin condition).

PubMed ID: 18069904

Oral sweet-whey extract produced modest clinical improvement in mild–moderate psoriasis over 8 weeks—direct skin benefit.

PubMed ID: 17234108

Oral sweet whey extract improved physician‑assessed psoriasis severity over 56 days — direct skin benefit in RCT.

PubMed ID: 15215482

Topical alpha-lactalbumin–oleic acid (a whey-derived component) markedly reduced and often eliminated stubborn papillomas (skin benefit); topical application rather than ingestion.

PubMed ID: 28369875

Lactoferrin (a whey glycoprotein) plus vitamin E and zinc reduced acne lesion counts significantly in an RCT (skin benefit, though multi-ingredient).

PubMed ID: 24819761

Topical lactoferrin (a whey fraction) improved psoriatic plaque features in a small trial, suggesting potential skin benefits.

PubMed ID: 20692602

Daily lactoferrin-enriched fermented milk reduced acne lesion counts and sebum versus placebo over 12 weeks—strong evidence for skin benefits of a whey-derived protein.

PubMed ID: 40854076

Whey supplementation blunted the exercise‑induced increase in CK across repeated resistance sessions, consistent with reduced muscle damage (proxy for soreness).

PubMed ID: 33114186

Post‑exercise whey reduced self‑reported muscle soreness vs water in adolescent swimmers (clinical benefit).