Programmable pulling
Define pull speed and travel distance for controlled, repeatable force-displacement and stress-strain experiments.
The DMT 560TP is a compact tissue mechanics platform for quantitative tensile testing of isolated vessel rings, tubular tissue and tissue strips. It combines programmable pulling, sensitive force measurement, controlled chamber conditions and MyoPULL software for force-displacement and stress-strain analysis.
The 560TP is designed for researchers who need structural mechanics data to complement functional myograph, muscle physiology or tissue engineering measurements.
Define pull speed and travel distance for controlled, repeatable force-displacement and stress-strain experiments.
Interchangeable mounting options support vessel rings, tubular samples and tissue strips on the same system.
The standard 0–2 N force range provides 1 mN resolution, with a 10 N transducer option for stiffer preparations.
View force-displacement or stress-strain traces as the programmed pull is completed.
A heated glass chamber with gas bubbling and drainage supports submerged biological tissue testing.
The self-contained benchtop design is straightforward to install, operate and maintain.
Tissue preparations are mounted between interchangeable supports. The programmable motor pulls the preparation at a defined speed and distance while force and displacement are recorded.
MyoPULL coordinates pull control, force calibration, live tracing and data handling, allowing each preparation to be characterized under consistent test conditions.
The 560TP is suited for experiments where tissue stiffness, tensile strength, elasticity, compliance or mechanical integrity are the primary measurement endpoints.
Results can be used to compare disease models, age groups, treatments, engineered tissues or experimental conditions.
Study age-, disease- or treatment-related changes in vessel wall mechanics, compliance and elastic response.
Generate stress-strain profiles from defined tissue geometry and controlled displacement.
Investigate structural changes associated with matrix composition, fibrosis and tissue remodeling.
Assess mechanical durability and response after repeated or progressive loading.
Characterize native or engineered tissue strips and tubular preparations using defined mechanical endpoints.
The mounting configuration should match the geometry, dimensions and expected mechanical behavior of the preparation.
The 560TP combines the motorized pull axis, force transducer, mounting supports, glass chamber, heating control, gas inlet and drainage pathway in one benchtop platform.
Self-contained platform with programmable motorized pulling, force measurement and a compact benchtop footprint.
Tissue preparations are mounted between supports inside the glass chamber while force and displacement are recorded.
Open access to mounting supports and chamber connections supports sample installation, gas supply and routine maintenance.
MyoPULL provides the operating interface for programmed pulls, motor positioning, force calibration, temperature control and experiment data handling.
Researchers can view displacement-force or stress-strain traces, compare multiple pulls and export experimental data for further analysis and mechanical modeling.
DMT product videos provide practical guidance for product orientation, installation, calibration, maintenance and experimental preparation.
Overview of the 560TP and its principal components.
Practical setup workflow for the Tissue Puller System.
Calibration guidance for accurate force measurement.
Routine cleaning and system-care guidance.
Example preparation and experimental workflow.
Puller, force, displacement, temperature and communication specifications for planning a complete tissue mechanics workflow.
The appropriate configuration depends on sample geometry, expected force output, pulling parameters, mounting support dimensions and available laboratory infrastructure.
Define whether the preparation is a vessel ring, tubular segment or tissue strip, together with the intended endpoint such as tensile strength, compliance, elasticity, fatigue or stress-strain.
Confirm expected maximum force and the required mounting support type and size. Supports are available from 200–1000 µm, and a 10 N transducer option is available for stiffer samples.
A complete workflow may include a computer, dissection microscope, LED light source, dissection tools, open heating circulator, vacuum package and gas supply manifold.
The mechanical properties of blood vessels are typically measured using tensile testing, where controlled force is applied to isolated tissue while recording force and displacement. The Tissue Puller 560TP enables researchers to evaluate stiffness, elasticity, compliance and tensile strength with high precision.
A tissue puller measures the passive mechanical properties of biological tissues. It is commonly used to characterize blood vessels, vascular tissue and other soft tissues by evaluating how they respond to controlled stretching.
The 560TP measures tensile force, tissue stiffness, elasticity, compliance, stress-strain relationships, viscoelasticity and length-tension behavior. These measurements help researchers understand how disease, aging or treatments affect tissue mechanics.
Yes. The 560TP is well suited for arterial stiffness research, allowing researchers to quantify changes in vascular elasticity and compliance in isolated blood vessels. It is commonly used in studies of hypertension, vascular aging, diabetes and extracellular matrix remodeling.
The system is designed for isolated blood vessels and a variety of other soft tissues, including vessel rings, vessel strips, tubular tissues and engineered tissues, making it suitable for a broad range of biomechanics studies.
Passive tissue mechanics evaluate properties such as stiffness, elasticity and tensile strength, while vascular function focuses on contraction and relaxation of living tissue. If your research investigates biomechanical properties rather than contractility, a tissue puller is the appropriate choice.
The 560TP is commonly used in vascular biomechanics, cardiovascular research, arterial stiffness studies, tissue engineering, aging, hypertension and extracellular matrix remodeling to understand how tissue mechanics change under different conditions.
If your goal is to measure tissue stiffness, elasticity, compliance or tensile strength, the 560TP is an excellent choice. If you are studying active contraction, vascular reactivity or pharmacological responses, a DMT Myograph or Muscle System may be a better fit.
Use the official data sheet, manual, video and software resources when evaluating, configuring or operating the 560TP.
Product overview, applications, specifications and configuration guidance.
→ PDFDetailed setup, calibration, MyoPULL operation and maintenance information.
→ VIDWatch DMT product setup, calibration and maintenance videos.
→ SWFind available DMT software installers and related resources.
→ DMTExplore DMT platforms for muscle function and tissue mechanics.
→ LABReview supporting dissection, heating, vacuum and gas equipment.
→ SRVReview service and preventive maintenance options.
→ DMTDiscuss preparation geometry, force range and mounting support requirements with DMT.
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