Applications
Aurora Scientific’s muscle physiology products are designed to test the force-length-velocity characteristics of all types of muscle ranging from myocytes to dog hind limb muscle. Our muscle physiology instruments include Dual-Mode levers, length controllers, force transducers, stimulators, data acquisition hardware and software and experimental apparatus. All of our products are sold individually or in complete systems. With our complete systems, muscle physiologists can precisely measure force, length, sarcomere length and ratiometric calcium. Our systems allow all standard muscle physiology protocols to be run, such as twitch, tetanus, fatigue, force-frequency, force-velocity, stiffness and work loops. In addition, our systems have the flexibility that allows the researcher to customize experimental protocols to meet their needs.
Neuroscience
Aurora Scientific has developed innovative test systems used in olfactory research to validate odors presented to specimens and to track pheromone and plume dispersion. In addition, Aurora Scientific utilizes their Dual-Mode muscle levers as mechanical stimulators to provide a precise, controlled force output for use by researchers measuring neuronal response to touch, pain and stretch. Furthermore, many neurophysiologists study an interdisciplinary field of neuroscience and muscle physiology looking at neural activation and sensory feedback of muscle tissue. Aurora Scientific’s Dual-Mode levers aid in characterizing muscle mechanics in models of neural regeneration and disease.
Materials Science
Aurora Scientific’s unique Dual-Mode muscle lever aids a variety of researchers looking at materials such as MEMS, hydrogels, artificial muscle, nanowires and carbon fibers. Easily and accurately measure tensile strength, elasticity, detaching force, shear fracture and deformation of most materials with the control and measurement of both force and length. Other Aurora Scientific products useful in materials research include our line of high-speed length controllers and our ultra-low compliance, high-sensitivity force transducers.
Featured Content
Sensory Encoding by Muscle Spindle Afferents
This publication review highlights Aurora Scientific instruments that can facilitate the study of sensory encoding by muscle spindle afferents.
Excellence, Innovation, and Collaboration: Student Research at the MHRC
This past April, we partnered with InsideScientific and the Muscle Health Research Centre (MHRC) at York University, a one-of-a-kind facility that fosters an interdisciplinary approach to the study of muscle physiology. We had the privilege of interviewing a number of faculty and students to highlight their research, as well as the opportunities provided to them by the MHRC.
Industry Insights with Chris Rand from Aurora Scientific
Chris Rand, MSc, Sales and Marketing Manager, delves into the start and evolution of Aurora Scientific on this episode of #ShareScience, and our journey within the preclinical research world. He also discusses our path into the neuroscience space, and future directions the company is headed towards.
Functional Recovery of the Musculoskeletal System Following Injury – Leveraging the Large Animal Model
Watch Dr. Sarah Greising discuss the current pathophysiologic understanding of the skeletal muscle remaining following traumatic musculoskeletal injuries.
Excellence, Innovation, and Collaboration: A Day at the MHRC with Arthur Cheng
Interviewing Dr. Arthur Cheng at the Muscle Health Research Centre (MHRC), York University, an innovative research centre that facilitates the interdisciplinary study of muscle biology and the importance of skeletal muscle to the overall health and well-being of Canadians. Dr. Cheng's lab primarily investigates the mechanisms of skeletal muscle weakness and fatigue, and focuses on how calcium handling affects these mechanisms.
Muscle Function in Diabetes and Heart Failure
This publication review takes a look at muscle function in the context of diabetes and heart failure, and how these mechanistic findings can help develop targeted therapies in the future.