JOINT-ON-CHIP

JOINT-ON-CHIP is a microengineered platform designed to replicate the
complex structure and function of a human joint in vitro. This system integrates
multiple tissue components, including synovial membrane, osteochondral
interface, and vascular networks, within a controlled microfluidic
environment and equipped with a mechanical actuator.

By mimicking the biochemical and mechanical interactions between these elements, the joint-on-chip enables the study of joint physiology and disease processes, such as inflammation and degeneration, in a highly realistic and dynamic way.

Potential applications

  • Investigating the pathogenesis of joint diseases such as rheumatoid arthritis and osteoarthritis
  • Screening and validating new anti-inflammatory or disease-modifying drugs
  • Studying tissue-tissue crosstalk under physiological and pathological conditions
  • Modeling patient-specific responses to enable precision medicine approaches
  • Exploring mechanobiology through controlled mechanical stimuli that mimic joint loading and movement

JOINT-ON-CHIP

JOINT-ON-CHIP is a microengineered platform designed to replicate the
complex structure and function of a human joint in vitro. This system integrates
multiple tissue components, including synovial membrane, osteochondral
interface, and vascular networks, within a controlled microfluidic
environment and equipped with a mechanical actuator.

By mimicking the biochemical and mechanical interactions between these elements, the joint-on-chip enables the study of joint physiology and disease processes, such as inflammation and degeneration, in a highly realistic and dynamic way.

Potential applications

  • Investigating the pathogenesis of joint diseases such as rheumatoid arthritis and osteoarthritis
  • Screening and validating new anti-inflammatory or disease-modifying drugs
  • Studying tissue-tissue crosstalk under physiological and pathological conditions
  • Modeling patient-specific responses to enable precision medicine approaches
  • Exploring mechanobiology through controlled mechanical stimuli that mimic joint loading and movement

Ai-Twin srl

info@aitwin.it

Sede legale e operativa
C.so Trieste, 15/A – 28100 Novara (NO)

C.F./P.IVA 02722210032
SDI SUBM70N

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