Hyperinsulinemia: What the Research Says
Evidence from 43 peer-reviewed studies
What Professionals Should Know
- •Canagliflozin effectively reduces insulin response in healthy horses, supporting its potential use for laminitis prevention in insulin-dysregulated horses; however, long-term safety and efficacy data in at-risk populations are still needed
- •The observed increase in liver enzyme (GLDH) at higher doses warrants monitoring during clinical use and suggests caution with dose escalation
- •Effective insulin reduction occurs at both tested doses without obvious clinical signs, allowing flexibility in dosing strategy pending further clinical trials
- •Velagliflozin at 0.3 mg/kg once daily is an effective pharmacological tool for managing hyperinsulinemia in horses with insulin dysregulation, with substantial reductions in resting insulin levels
- •Monitor triglyceride concentrations during treatment as transient elevations occur, though no clinical complications were observed in this study
- •Expect weight loss in treated horses (approximately 1 BCS point over 20 weeks), which may be beneficial for insulin dysregulation management but requires nutritional monitoring
- •Essential oil supplementation may help manage insulin dysregulation in horses, particularly those with more severe cases, potentially reducing metabolic disease risk
- •The supplement appears to work through metabolic changes affecting amino acid and energy metabolism pathways rather than simple glucose clearance mechanisms
- •This nutritional intervention could be incorporated into management protocols for horses prone to laminitis or metabolic syndrome, though field efficacy and optimal dosing require further investigation
- •Sirolimus shows promise as a potential therapeutic agent for managing hyperinsulinemia in horses, with measurable reductions in post-glucose insulin responses within 24 hours of administration
- •The drug's long half-life (approximately 2.5 days) supports feasibility for practical clinical dosing schedules
- •Further investigation with longer treatment periods and larger sample sizes is needed before clinical implementation; this preliminary evidence warrants monitoring for potential application in horses with metabolic syndrome and insulin dysregulation
- •Canagliflozin shows significant promise for reducing postprandial hyperinsulinemia in ID horses, a key mechanism for laminitis prevention
- •Short-term weight loss observed with canagliflozin may be beneficial for metabolically affected horses, though long-term effects require evaluation
- •Triglyceride elevation warrants monitoring during treatment and further investigation regarding clinical significance
- •Velagliflozin offers a promising pharmacological option for preventing laminitis in insulin-dysregulated horses and ponies by significantly reducing hyperinsulinemia
- •This treatment could be particularly valuable for high-risk animals during spring/summer when pasture NSC content is elevated, or for those on concentrate-based diets
- •Safe medication profile with no observed adverse effects means it could be incorporated into laminitis prevention protocols alongside dietary management and exercise
- •Velagliflozin offers a pharmacological option for managing insulin dysregulation in ponies when dietary management alone is insufficient, with established safety profile over extended use
- •Practitioners should note this SGLT2 inhibitor requires daily oral dosing and response should be monitored via standardized feeding challenges rather than fasting insulin alone
- •Effects appear reversible upon withdrawal, suggesting the drug controls rather than resolves the underlying condition
- •Gymnema sylvestre at 10 mg/kg may help reduce insulin spikes in insulin-dysregulated horses fed carbohydrate-rich meals, though effects are modest (~25% reduction)
- •In vitro efficacy does not guarantee in vivo effectiveness (lactisole example), so clinical testing is essential before recommending new supplements
- •This is early-stage research; practitioners should await further optimization of dose/delivery methods and direct receptor testing before implementing these compounds in practice
- •Laboratory reference ranges for insulin should account for seasonal variation, with winter baseline values expected to be higher; adjust clinical interpretation accordingly
- •Breed-specific insulin profiles matter clinically—Shetland and Welsh ponies are inherently higher insulin responders and require lower thresholds for metabolic disease concern
- •Sex and age influence insulin levels; older females will naturally have higher concentrations, which should inform your laminitis risk assessment and management strategy rather than trigger unnecessary treatment escalation
- •Don't assume all overweight horses are metabolically abnormal—check insulin and glucose levels; obesity and hyperinsulinemia are independent risk factors requiring separate management strategies
- •Hyperinsulinemia appears to be the primary driver of metabolic dysfunction rather than weight alone; focus diagnostic and management efforts on insulin status regardless of body condition
- •Laminitis cases showed unexpected metabolic patterns (lower glucose, higher IGF-1); consider individual biochemical profiling rather than relying solely on body weight or condition scoring
- •The Tosoh AIA-360 is a reliable automated platform for measuring insulin in horses and can be confidently used to identify and monitor hyperinsulinemia, a treatable laminitis risk factor
- •Do not use Immulite 2000/2000XPi analyzers for equine insulin measurement as they produce unreliable results; ELISA and Cobas e are acceptable alternatives if Tosoh is unavailable
- •When monitoring insulin-sensitive horses or those at laminitis risk, consistent use of the same assay is important given inter-assay variation; document which method was used for longitudinal comparisons
- •PZI can be used as a practical substitute for RHI in insulin-tolerance testing since it is veterinary-approved and more accessible to practitioners
- •When using PZI for insulin-tolerance testing, apply a 40% glucose reduction threshold at 30 minutes rather than the standard 50% to improve diagnostic accuracy for insulin resistance
- •No safety concerns were observed with either insulin formulation, making PZI a viable alternative for practitioners without access to RHI
- •Measuring triglyceride and NEFA responses during oral glucose testing may help identify horses with tissue insulin resistance, potentially aiding in earlier detection of Equine Metabolic Syndrome
- •Hyperinsulinemia alone without insulin resistance does not appear to alter lipid metabolism patterns during glucose challenge, suggesting different metabolic pathways may be involved
- •Lipid markers during OGT could complement existing diagnostic protocols for metabolic screening in horses showing signs of metabolic syndrome
- •Arthrospira-based feed additive enriched with chromium, magnesium, and manganese may help manage insulin resistance and weight in metabolically affected horses as part of a comprehensive EMS management program
- •This supplement shows promise for reducing inflammatory markers and improving body condition in horses with EMS, potentially reducing reliance on other management interventions
- •Consider this as a complementary strategy alongside diet management and exercise for horses struggling with metabolic syndrome
- •OGT and IV insulin response tests detect different aspects of insulin dysregulation; OGT identifies hyperinsulinemia while IV tests identify peripheral insulin resistance — use both or choose based on clinical suspicion to avoid missing cases
- •A modified 2-step IRT with porcine zinc insulin may over-identify insulin resistance compared to oral testing; interpret results cautiously and consider combining tests for comprehensive metabolic assessment
- •Not all hyperinsulinemic horses demonstrate proportional peripheral insulin resistance, so a normal IV glucose clearance does not rule out metabolic dysfunction or laminitis risk in susceptible breeds like Icelandic horses
- •Ponies with insulin dysregulation have disproportionately elevated biologically active cortisol relative to total cortisol, suggesting breed-specific hormonal mechanisms that may require different monitoring or management strategies
- •Baseline ACTH is naturally higher in healthy ponies, so reference ranges should not be directly compared between horses and ponies when evaluating HPA axis function
- •Assessment of insulin dysregulation risk in ponies should consider that breed-related hormonal differences may amplify cortisol's antagonistic effects on insulin signaling
- •Horses with high insulin responses show specific metabolite abnormalities (low arginine and carnitine) that could be therapeutic targets to manage insulin dysregulation
- •A simple baseline blood test using 7 metabolites may reliably identify insulin-dysregulated horses without the time and expense of oral glucose testing
- •Evidence of low-grade inflammation during glucose challenges suggests metabolic monitoring and anti-inflammatory management strategies warrant consideration in insulin-dysregulated horses
- •Insulin dysregulation in laminitis-prone horses may cause amino acid imbalances that compromise hoof tissue integrity; monitoring insulin status becomes increasingly important for prevention
- •Dietary amino acid supplementation or insulin management strategies targeting hypoaminoacidemia may offer therapeutic potential for endocrinopathic laminitis cases
- •Understanding the hyperinsulinemia-hypoaminoacidemia-laminitis pathway helps explain why insulin control is critical in laminitis management
- •Digital hypothermia effectively suppresses the inflammatory cascade in hyperinsulinemic laminitis by down-regulating key pro-inflammatory cytokines and chemokines, supporting its use as a first-aid intervention in acute severe cases
- •The mechanism appears to involve reduced STAT3 signaling rather than altered STAT1, suggesting hypothermia may work through selective pathway inhibition rather than broad immunosuppression
- •This evidence supports implementing continuous digital cooling protocols early in cases of acute laminitis associated with metabolic syndrome, as it may prevent or delay lamellar failure through inflammatory control
- •Weight loss programs directly improve insulin regulation—track body weight changes alongside monitoring laminitis risk in susceptible horses
- •Oral glucose testing can objectively measure whether your weight loss intervention is actually reducing insulin dysregulation, not just pounds
- •For high-risk breeds like Icelanders, even modest weight reduction yields measurable metabolic improvements
- •Genetic testing based on these four candidate regions may eventually help identify horses predisposed to EMS before clinical signs develop, enabling earlier preventative management
- •Metabolomic biomarkers identified in this study could lead to faster, more accurate diagnostic tools than current insulin assays, improving the timeliness of EMS diagnosis and treatment
- •Understanding the genetic basis of EMS susceptibility may inform selective breeding decisions to reduce the prevalence of metabolic syndrome in at-risk populations like Arabians
- •A synergistic polyphenol-leucine supplement may help reduce hyperinsulinemia and associated laminitis risk in EMS/insulin dysregulated horses at a lower cost than high-dose formulations
- •Monitor baseline adiponectin levels and insulin response to oral challenge as practical markers of supplement efficacy in your EMS cases
- •Weight loss occurred alongside metabolic improvements, suggesting this supplement may support overall metabolic health management in affected horses
- •Assess cresty neck appearance as a key screening tool for insulin dysregulation in ponies — it's more reliable than general body condition score alone
- •Ponies with obvious neck crests warrant metabolic testing and management intervention even if overall body condition appears normal, as they have 5-fold increased risk of insulin dysfunction
- •Regional fat distribution (neck crest) matters more than total body fat for identifying metabolic risk in ponies; focus management strategies on reducing regional adiposity
- •Plasma metabolite profiles (trans-4-hydroxyproline and methionine sulfoxide) may serve as biomarkers for identifying horses with insulin dysregulation before laminitis develops
- •Understanding metabolic pathway involvement in insulin dysregulation could inform dietary and management interventions to prevent hoof complications
- •Early detection of metabolic dysfunction through targeted metabolomics may enable preventive strategies in at-risk horses
- •Genetic screening using BIEC2-263524 or FAM174A markers could identify at-risk Arabian horses before obesity and laminitis develop, allowing early preventative dietary and exercise interventions.
- •Horses carrying the 11-G allele at FAM174A show significantly higher insulin and body condition scores, making them candidates for stricter nutritional management and monitoring programs.
- •This genetic test could help owners and veterinarians make informed breeding decisions and implement targeted metabolic management in genetically predisposed individuals.
- •Monitor body condition score closely in horses and ponies as a key laminitis prevention strategy, particularly in mares where obesity increases inflammatory markers
- •Consider hyperinsulinemia and inflammatory cytokine status when assessing laminitis risk in obese animals
- •Weight management and condition control should be prioritized as part of laminitis prevention protocols
- •Canagliflozin (an SGLT2 inhibitor) may be considered for horses with documented hyperinsulinemia and laminitis that fail to respond to diet control, metformin, levothyroxine, and pergolide
- •This medication requires monitoring of renal function (serum creatinine, blood urea nitrogen) before use and regular urinalysis every 2 weeks to detect glucosuria and screen for complications
- •Canagliflozin should be reserved for refractory cases and must be combined with core therapies: strict dietary control of sugars/starch, exercise when possible, and appropriate PPID treatment if indicated
- •Neutrophil-mediated inflammation contributes to metabolic laminitis, suggesting anti-inflammatory strategies targeting neutrophil activity may be therapeutically relevant
- •Early lamellar changes in hyperinsulinemic horses involve inflammatory cascades detectable at histological level before clinical lameness becomes obvious
- •Understanding the neutrophil activation pathway in endocrinopathic laminitis may lead to novel diagnostic or preventive interventions beyond traditional metabolic management
- •Hyperinsulinemia causes direct lamellar tissue damage through microvascular dysfunction and complement cascade activation—this supports aggressive insulin management in metabolically predisposed horses as preventive strategy
- •Novel biomarkers (talin-1, vinculin, fibrinogen, heat shock protein 90) identified in this study may enable earlier detection of endocrinopathic laminitis before clinical signs appear
- •The tissue-specific nature of lamellar damage (absent in cardiac tissue) suggests targeted lamellar therapeutics rather than systemic interventions may be most effective
- •Horses with endocrinopathies causing hyperinsulinemia develop laminitis through cellular stress mechanisms involving protein misfolding—aggressive insulin control may help prevent tissue damage progression
- •Understanding that endocrinopathic laminitis involves cellular stress at the ER level supports the importance of metabolic management and early endocrinopathy detection in at-risk horses
- •This cellular mechanism explains why chronically hyperinsulinemic horses are vulnerable to laminitis and emphasizes need for insulin regulation through diet, exercise, and medication where appropriate
- •High insulin levels cause laminitis through a mechanism that does NOT involve direct binding to IGF-1 receptors in the lamellae—the cause remains to be identified and may involve systemic metabolic effects rather than local receptor activation
- •Managing endocrinopathic laminitis through insulin control remains critical, but understanding the true mechanism of insulin injury may lead to more targeted therapeutic approaches beyond glucose/insulin regulation alone
- •Current research does not support IGF-1 receptor antagonism as a therapeutic strategy for insulin-associated laminitis
- •If immediate serum separation and freezing is unavailable, samples can be stored at room temperature for up to 72 hours without compromising diagnostic accuracy for endocrinopathy screening
- •Clinicians can confidently submit whole blood or serum samples to reference labs without requiring special handling or cooling during transport, improving logistics for field-based testing
- •Sample storage method does not affect whether results exceed diagnostic thresholds used for detecting endocrinopathic disease in horses
- •Hyperinsulinemic laminitis develops through subclinical episodes before obvious clinical signs appear—early insulin testing and management of at-risk horses (obese, Cushings, metabolic syndrome) is critical for prevention.
- •The abaxial location of lesions in endocrinopathic laminitis differs from inflammatory laminitis, suggesting different underlying mechanisms that may require distinct therapeutic approaches.
- •Lesion severity at necropsy does not predict clinical duration, so mild clinical signs do not guarantee minor pathological changes; consistent long-term management of insulin regulation remains essential even after apparent recovery.
- •Consider SGLT2 inhibitor therapy (ertugliflozin) when administering intra-articular corticosteroids to horses with insulin dysregulation to reduce hyperinsulinemia and laminitis risk
- •Horses with existing ID warrant enhanced metabolic monitoring following IA corticosteroid injection
- •SGLT2i drugs offer a pharmacological strategy to mitigate an important side effect of a common therapeutic intervention
- •SGLT2 inhibitors have a physiological basis for use in equine EMS management, with confirmed transporter presence in target tissues
- •Different SGLT2i drugs may have varying efficacy or side effect profiles in horses due to differential drug specificity and tissue expression patterns—selecting the appropriate agent matters
- •The presence of these transporters in liver and pancreas explains why SGLT2i may help manage insulin dysregulation beyond simple renal effects
- •When evaluating insulin levels in your horses, know which assay method your laboratory uses—reference ranges are NOT interchangeable between methods
- •The Immulite® 1000 offers a practical alternative to RIA for insulin testing with good reliability, potentially improving availability of hyperinsulinemia diagnosis
- •Always request assay-specific cut values from your laboratory when interpreting insulin results for metabolic syndrome assessment
- •Maintain mares at optimal body condition score before breeding—obesity-related metabolic dysfunction impairs fertility and compromises pregnancy outcomes, affecting both mare and foal health
- •Monitor insulin status in overweight or insulin-dysregulated mares, as hyperinsulinemia during pregnancy increases foal susceptibility to developmental orthopedic disease and metabolic problems later in life
- •Consider weight management and metabolic assessment as essential preventative strategies for reproductive success and long-term foal welfare, not just a cosmetic or general health issue
- •Don't rely solely on the dexamethasone suppression test for early PPID diagnosis—consider basal ACTH sampling in autumn for better detection of subclinical disease
- •Hyperinsulinemia and laminitis are common concurrent findings in PPID cases; screen for insulin dysfunction when managing PPID patients
- •Pergolide mesylate remains the primary medical treatment; recent pharmacokinetic and long-term outcome data now support clinical decision-making
- •Understanding differential vascular responses between laminar arteries and veins to insulin may help explain the vascular component of hyperinsulinemia-induced laminitis in clinical cases
- •This in vitro model provides a potential tool for testing new therapeutic interventions targeting insulin-related vascular dysfunction in laminitis-prone horses
- •Hyperinsulinemic horses may have compromised laminar vascular regulation that could contribute to laminitis development, supporting the importance of insulin management in at-risk individuals
- •Identify and manage hyperinsulinemia in at-risk horses as a direct laminitis prevention strategy, not just as a marker of insulin resistance
- •Focus on dietary and metabolic management to reduce circulating insulin levels in horses with laminitis risk factors
- •Recognize that insulin-associated laminitis is increasingly common in modern equine populations and requires targeted metabolic intervention
- •Screen horses and ponies for hyperinsulinemia before laminitis develops clinically, as subclinical disease causes progressive foot damage
- •Implement early intervention strategies targeting insulin control rather than waiting for lameness to appear
- •Counsel owners that prevention through management is more beneficial and cost-effective than treating established laminitic changes
- •Screen horses for metabolic syndrome components (obesity, elevated insulin, triglycerides) as these increase laminitis risk—early identification enables preventive management
- •Weight management and insulin resistance control may reduce laminitis predisposition in affected horses, though specific mechanisms require further research
- •Consider inflammatory and vascular dysfunction pathways when managing laminitis in metabolically compromised horses, not just mechanical load factors
- •Endocrinopathic laminitis remains a significant clinical problem with limited treatment options; understanding the IGF-1R mechanism may lead to new therapeutic strategies beyond pain relief
- •Managing hyperinsulinemia through diet and weight control is crucial, as pharmacologic alternatives targeting the IGF-1R pathway are still in early development
- •This research represents foundational work toward novel monoclonal antibody therapy; practitioners should monitor for future clinical trials of anti-IGF-1R treatments
Key Research Findings
Canagliflozin showed dose-proportional pharmacokinetics with Cmax of 2623 ng/mL at 1.8 mg/kg and 4975 ng/mL at 3.6 mg/kg, with half-lives of approximately 22-23 hours
Insulin AUC was reduced 22-29% with canagliflozin compared to placebo following glucose infusion (p < 0.001)
Glucose AUC was reduced 14-15% with canagliflozin compared to placebo following glucose infusion (p < 0.001)
No clinical adverse effects observed, though GLDH levels significantly increased with the 3.6 mg/kg dose (p < 0.05)
Velagliflozin treatment reduced resting insulin concentration to 71 µIU/mL compared to 157 µIU/mL in placebo group (p<0.0001), with an average treatment effect of 155 µIU/mL reduction
Horses previously receiving placebo showed further insulin reduction to 50 µIU/mL when switched to velagliflozin in the open-label phase (p<0.0001)
All horses experienced transient increases in serum triglyceride concentration during velagliflozin treatment with no reported clinical abnormalities
Horses receiving velagliflozin showed greater body condition score reduction (median 1 point lower than baseline, p=0.02) compared to placebo group
Essential oil supplementation reduced insulin concentrations at 75 minutes post-glucose challenge (p ≤ 0.002) and positive phase time (p = 0.05) in horses with more severe insulin dysregulation
EO treatment significantly reduced insulinemic response to oral sugar test in horses with higher pre-treatment insulin responses (p ≤ 0.006)
702 metabolites were uniquely altered with EO treatment, with pathway analysis showing changes in amino acid, linoleic acid, TCA-cycle intermediates and bile acid metabolism
Changes in metabolic pathways are consistent with improved insulin sensitivity based on comparison with other models
Sirolimus achieved peak concentration of 277.0 ng/mL within 5 minutes with a half-life of 3552 minutes and oral bioavailability of 9.5%
24 hours after a single sirolimus dose, insulin concentration at 60 minutes was 37% lower than placebo (5.0 vs 8.7 μIU/mL, P=0.03)
Insulin response at 120 minutes post-glucose was 28% lower with sirolimus than placebo 24 hours after dosing (10.2 vs 14.9 μIU/mL, P=0.02)
Evidence Base
Canagliflozin: Pharmacokinetics, tolerability and glucose/insulin effects of supratherapeutic doses in healthy horses.
Michanek Peter, Bröjer Johan, Lilliehöök Inger et al. (2025) — Veterinary journal (London, England : 1997)
Effects of the Sodium-Glucose Cotransporter-2 Inhibitor Velagliflozin on Insulin Concentrations in Horses With Insulin Dysregulation.
Thane Kristen, Voth Rebecca, Klee Rebecca et al. (2025) — Journal of veterinary internal medicine
Essential oil supplementation improves insulin sensitivity and modulates the plasma metabolome of hyperinsulinemic horses.
Loos Caroline M M, Zhao Shuang, Li Liang et al. (2024) — Frontiers in veterinary science
Effect of sirolimus on insulin dynamics in horses.
de Tonnerre Demia J, Medina Torres Carlos E, Stefanovski Darko et al. (2023) — Journal of veterinary internal medicine
Short-term effects of canagliflozin on glucose and insulin responses in insulin dysregulated horses: A randomized, placebo-controlled, double-blind, study.
Lindåse Sanna, Nostell Katarina, Forslund Anders et al. (2023) — Journal of veterinary internal medicine
The sodium-glucose co-transporter 2 inhibitor velagliflozin reduces hyperinsulinemia and prevents laminitis in insulin-dysregulated ponies.
Meier, Reiche, de Laat et al. (2019) — PloS one
The efficacy and safety of velagliflozin over 16 weeks as a treatment for insulin dysregulation in ponies.
Meier A, de Laat M, Reiche D et al. (2019) — BMC veterinary research
Sweet taste receptor inhibitors: Potential treatment for equine insulin dysregulation.
de Laat Melody Anne, Kheder Murad Hasan, Pollitt Christopher Charles et al. (2018) — PloS one
The Seasonality of Serum Insulin Concentrations in Equids and the Association With Breed, Age, and Sex.
Lopes Ana, Huber Laura, Durham Andy E (2025) — Journal of veterinary internal medicine
Investigations on metabolic diseases of horses in Egypt.
Aboelmaaty Amal M, Ahdy Ahmed M, El-Khodery Sabry et al. (2025) — Frontiers in veterinary science
Evaluation of an Automated Fluorescence Enzyme Immunoassay for Quantification of Equine Insulin and Comparison to Five Other Immunoassays.
Nolen-Walston Rose D, Kulp Jeaneen C, Stefanovski Darko et al. (2025) — Journal of veterinary internal medicine
Evaluating insulindysregulation in horses: A two-step insulin-tolerance test using porcine zinc insulin.
Grob A J, Delarocque J, Feige K et al. (2024) — Veterinary journal (London, England : 1997)
Value of measuring markers of lipid metabolism in horses during an oral glucose test.
Zemek Claire H K, Kemp Kate L, Bertin François-René (2024) — Journal of veterinary internal medicine
Arthrospira platensis enriched with Cr(III), Mg(II), and Mn(II) ions improves insulin sensitivity and reduces systemic inflammation in equine metabolic affected horses.
Artur Tomal, Jolanta Szłapka-Kosarzewska, Małgorzata Mironiuk et al. (2024) — Frontiers in endocrinology
Comparison of a modified 2-step insulin response test performed with porcine zinc insulin and an oral glucose test to detect hyperinsulinemic Icelandic horses.
Frers F, Delarocque J, Huber K et al. (2023) — Veterinary journal (London, England : 1997)
Circulating Hypothalamic-Pituitary-Adrenal Axis Hormones and Insulin Concentrations in Horses and Ponies.
Vaughn Sarah A, Norton Natalie A, Hart Kelsey A (2022) — Journal of equine veterinary science
Metabolic changes induced by oral glucose tests in horses and their diagnostic use.
Delarocque Julien, Frers Florian, Feige Karsten et al. (2021) — Journal of veterinary internal medicine
Plasma amino acid concentrations during experimental hyperinsulinemia in 2 laminitis models.
Stokes Simon M, Stefanovski Darko, Bertin François-René et al. (2021) — Journal of veterinary internal medicine
Effect of digital hypothermia on lamellar inflammatory signaling in the euglycemic hyperinsulinemic clamp laminitis model.
Stokes Simon M, Burns Teresa A, Watts Mauria R et al. (2020) — Journal of veterinary internal medicine
Weight loss is linearly associated with a reduction of the insulin response to an oral glucose test in Icelandic horses.
Delarocque Julien, Frers Florian, Huber Korinna et al. (2020) — BMC veterinary research
Show 23 more references
Metabogenomics reveals four candidate regions involved in the pathophysiology of Equine Metabolic Syndrome.
L. Patterson Rosa, M. Mallicote, M. Long et al. (2020) — Molecular and cellular probes
Investigation of the Effects of a Dietary Supplement on Insulin and Adipokine Concentrations in Equine Metabolic Syndrome/Insulin Dysregulation.
J. Manfredi, E. Stapley, J. Nadeau et al. (2020) — Journal of equine veterinary science
The cresty neck score is an independent predictor of insulin dysregulation in ponies.
Fitzgerald Danielle M, Anderson Stephen T, Sillence Martin N et al. (2019) — PloS one
Lower plasma trans-4-hydroxyproline and methionine sulfoxide levels are associated with insulin dysregulation in horses.
Kenéz Ákos, Warnken Tobias, Feige Karsten et al. (2018) — BMC veterinary research
Genomewide association study reveals a risk locus for equine metabolic syndrome in the Arabian horse.
S. L. Lewis, H. Holl, C. Streeter et al. (2017) — Journal of animal science
Relationships between body condition score and plasma inflammatory cytokines, insulin, and lipids in a mixed population of light-breed horses.
Suagee J K, Corl B A, Crisman M V et al. (2013) — Journal of veterinary internal medicine
Use of the SGLT2 inhibitor canagliflozin for control of refractory equine hyperinsulinemia and laminitis
E. Kellon, K. Gustafson (2022) — Open Veterinary Journal
Presence of Myeloperoxidase in Lamellar Tissue of Horses Induced by an Euglycemic Hyperinsulinemic Clamp.
Storms Nazare, Medina Torres Carlos, Franck Thierry et al. (2022) — Frontiers in veterinary science
Differential Proteomic Expression of Equine Cardiac and Lamellar Tissue During Insulin-Induced Laminitis.
Campolo Allison, Frantz Matthew W, de Laat Melody A et al. (2020) — Frontiers in veterinary science
Detection of endoplasmic reticulum stress and the unfolded protein response in naturally-occurring endocrinopathic equine laminitis.
Cassimeris Lynne, Engiles Julie B, Galantino-Homer Hannah (2019) — BMC veterinary research
Characterization of insulin and IGF-1 receptor binding in equine liver and lamellar tissue: implications for endocrinopathic laminitis.
S. Nanayakkara, S. Rahnama, P. Harris et al. (2019) — Domestic animal endocrinology
Serum insulin concentration in horses: Effect of storage and handling.
Carslake Harry, Karikoski Ninja, Pinchbeck Gina et al. (2016) — Veterinary journal (London, England : 1997)
Pathology of Natural Cases of Equine Endocrinopathic Laminitis Associated With Hyperinsulinemia.
Karikoski N P, McGowan C M, Singer E R et al. (2015) — Veterinary pathology
Treatment with ertugliflozin mitigates the hyperinsulinemic response to intra-articular triamcinolone acetonide.
Page Allen E, McPeek Jenna L, McGreevy Ella et al. (2026) — Equine veterinary journal
Sodium-glucose transporters SGLT1 and SGLT2 in equine renal, hepatic and pancreatic tissue.
Anger-Håål Camilla, Fjordbakk Cathrine T, Ekstrand Carl et al. (2025) — BMC veterinary research
Clinical evaluation of the Immulite® 1000 chemiluminescent immunoassay for measurement of equine serum insulin.
Go Yun Young, Hazard Nicole W, Balasuriya Udeni B R et al. (2023) — Frontiers in veterinary science
The effects of obesity and insulin dysregulation on mare reproduction, pregnancy, and foal health: a review.
Hallman Isa, Karikoski Ninja, Kareskoski Maria (2023) — Frontiers in veterinary science
Equine pituitary pars intermedia dysfunction: current perspectives on diagnosis and management
Spelta Caroline (2015) — Veterinary Medicine: Research and Reports
Vasorelaxation responses to insulin in laminar vessel rings from healthy, lean horses.
Wooldridge A A, Waguespack R W, Schwartz D D et al. (2014) — Veterinary journal (London, England : 1997)
Hyperinsulinemic laminitis.
de Laat, McGowan, Sillence et al. (2010) — The Veterinary clinics of North America. Equine practice
Field treatment and management of endocrinopathic laminitis in horses and ponies.
Walsh (2010) — The Veterinary clinics of North America. Equine practice
Metabolic syndrome-From human organ disease to laminar failure in equids.
Geor, Frank (2009) — Veterinary immunology and immunopathology
Endocrinopathic laminitis in the horse
Johnson Philip J., Messer Nat T., Slight Simon H. et al. (2004) — Clinical Techniques in Equine Practice