UUO modeling group using both Masson's Trichrome and PSR staining
UUO modeling

Nephrology Disease Research Area

 

The Nephrology disease area is focused on the study of kidney function and kidney-related disorders. This field encompasses a wide range of conditions that affect the kidneys, from acute kidney injuries to chronic kidney diseases and various systemic conditions that impact renal health. Nephrology research aims to understand the underlying mechanisms of kidney diseases, improve diagnostic methods, and develop effective treatments and preventive strategies. Utilizing advanced animal models, clinical trials, and state-of-the-art technologies, researchers investigate the pathophysiology of kidney disorders and explore novel therapeutic approaches. This comprehensive research approach is essential for enhancing patient care, preventing disease progression, and improving overall kidney health.
 

Why Use NHP for Nephrology Disease Research Modeling

Using non-human primates (NHP) for nephrology disease research is crucial due to their close anatomical and physiological similarities to human kidneys. This relevance ensures high translational value for preclinical studies, improving the likelihood that therapies will be effective in humans.

 

NHP models allow for detailed study of disease progression and therapeutic efficacy, providing accurate and reliable data essential for advancing kidney health research.

 
 

Anatomical Similarity

NHPs have kidney structures that are remarkably similar to those of humans. This close anatomical resemblance ensures that findings from NHP studies are highly relevant and applicable to human kidney function and disease.

Physiological Relevance

The physiological processes in NHP kidneys, such as filtration, reabsorption, and secretion, closely mimic those in human kidneys. This similarity is critical for accurately modeling human nephrology diseases and understanding the underlying mechanisms.

Translational Value

NHP models provide robust preclinical data that enhances the translational value of nephrology research. This means that therapies and interventions tested on NHP are more likely to produce similar results in human clinical trials, improving the chances of developing effective treatments for kidney diseases like CKD and AKI.

Disease Progression Study

The complex renal structure and function of NHP allow for detailed and longitudinal studies of disease progression. Researchers can observe the natural history of kidney diseases in NHP, providing insights into the stages and progression of these conditions in ways that are not possible in less complex models.

Therapeutic Efficacy

NHP models are essential for evaluating the efficacy and safety of new treatments for kidney diseases. Their similarity to humans in terms of kidney function and disease response ensures that therapeutic interventions can be assessed more accurately, leading to reliable data that supports the development of new and effective nephrology treatments.

 

 

 

 

 

 

Superior Platform for Nephrology Research at Prisys

 

Prisys Biotech provides a superior platform for Nephrology research, featuring:

Advanced Disease Modeling

We develop NHP models  that accurately mimic human kidney diseases like AKI and CKD using methods such as renal ischemia-reperfusion, enabling detailed study of kidney injury and recovery.

Comprehensive Biomarker Analysis

Our platform offers extensive biomarker analysis, including serum creatinine, urea, and NGAL levels, along with histopathology, to evaluate disease progression and therapeutic efficacy.

Translational Research and Therapeutic Testing

We deliver robust preclinical data by testing compounds in NHP models, ensuring high translational value and advancing therapies to prevent or reverse kidney damage.

 

 

Nephrology Disease Models
 

Chronic Kidney Disease (CKD):

Stages 1-5 CKD

Diabetic nephropathy

Hypertensive nephropathy

Glomerulonephritis

Renal Fibrosis/UUO 

Acute Kidney Injury (AKI):

Pre-renal AKI (due to decreased blood flow)

Intrinsic AKI (due to direct kidney damage)

Post-renal AKI (due to obstruction of urine flow)

Glomerular Diseases:

Nephrotic syndrome

Focal segmental glomerulosclerosis (FSGS)

IgA nephropathy (Berger's disease)

Membranous nephropathy

Tubulointerstitial Diseases:

Acute interstitial nephritis

Chronic interstitial nephritis

Polycystic kidney disease (PKD)

Kidney Transplantation:

Pre-transplant evaluation and management

Post-transplant care and immunosuppressive therapy

Acute and chronic transplant rejection

Systemic Conditions with Renal Involvement:

Systemic lupus erythematosus (SLE)

Vasculitis

Multiple myeloma-related kidney disease

 

 

FAQ
Color Doppler ultrasound-Renal blood flow
 

What makes non-human primates (NHP) ideal for nephrology disease research at Prisys?

Anatomical and Physiological Similarity: NHPs possess kidneys with anatomical and physiological characteristics closely resembling human kidneys. This similarity ensures that research findings are highly relevant and translatable to human conditions, improving the accuracy of preclinical studies and treatment development.

 

How does Prisys enhance the translational value of nephrology research?

Highly Relevant Data: The use of NHP models at Prisys generates data that closely mirrors human responses, thereby enhancing the translational value of preclinical studies. This facilitates the development of effective treatments for kidney diseases such as chronic kidney disease (CKD) and acute kidney injury (AKI).

 

What specific nephrology disease models are used at Prisys?

Advanced Disease Models: Prisys utilizes models like the renal ischemia-reperfusion injury (IRI) and renal fibrosis models in cynomolgus monkeys. These models replicate key aspects of human kidney diseases, allowing for detailed studies of disease progression and therapeutic interventions.

 

Why are NHP models crucial for studying kidney disease progression and treatment?

Complex Renal Structure and Function: NHPs have complex renal structures and functions, making them ideal for in-depth research on kidney disease progression and therapeutic efficacy. This ensures accurate and reliable results that are essential for advancing kidney health research and developing new treatments.

 

 

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