Charles River is a world leader in contract bone research, offering a fully integrated service in the field since 1995. We conduct bone safety and efficacy studies using rodent and nonrodent animal models to evaluate osteoporosis drugs. Bone toxicology studies, including bone end points in the toxicological evaluation of new drugs, provide reliable quantitative data on the skeleton. These techniques are applied to meet the requirements for skeletal evaluations in juvenile and neonatal studies. Several animal models are also available to evaluate bone healing.
Charles River routinely performs the following:
- Radiographic diagnostics (x-ray)
- Imaging using bone densitometry techniques
- Biochemical markers of bone and cartilage turnover
- Histomorphometry and histology
- Biomechanical strength testing
- Micro-CT scanning
Recognizing the importance of cartilage and joint integrity, Charles River offers several animal models of arthritis with expertise in intra-articular delivery of test materials.
Animal Models for Bone & Cartilage Evaluations
- Gonadectomy (ovariectomy and orchiectomy ) -induced bone loss for osteoporosis drug testing
- 5/6 nephrectomy model
- TPTx (thyroparathyroidectomy) model
- Periosteal injection model in weanling rats (screen for anabolic agents)
- Schenk model in weanling rats (screen for anti-resorptive agents)
- Bone defect models
- Orthopedic models
- Osteoarthritis models
- Rheumatoid arthritis models
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bone research, bone toxicology studies, skeletal evaluations, radiographic diagnostics, bone densitometry, bone turnover, cartilage turnover, animal models of arthritis, bone loss, osteoporosis drug testing, Schenk model, bone defect models, orthopedic models, osteoarthritis models, Rheumatoid arthritis models
Bone Research | Charles River Preclinical Services
Charles River conducts safety and efficacy studies on therapies intended to promote bone healing or treat osteoporosis. Bone toxicology studies, including bone related endpoints, provide quantitative data on the adult, juvenile, and neonatal skeleton.