Gleeble 563: TMS System

Thermal Mechanical Simulation (TMS) for Metallurgy Research

The Gleeble 563 is an all-new research tool optimized for performance, versatility and value. As the most capable member of the Gleeble 500 Series, the Gleeble 563 is tailored to provide a compact, economical solution for researchers while retaining the world-class capabilities that have made Gleeble systems the industry standard.

What is Physical Simulation?

Physical simulation is the exact reproduction of the thermal and mechanical processes in the laboratory that a material is subjected to during the manufacturing process or end use. Physical simulation is a valuable tool used to study metallurgical processes, develop new materials and replicate real world conditions in the laboratory.

Lower Costs - Reduce product development, processing & energy costs
Optimize Manufacturing Processes - Develop new procedures & troubleshoot existing processes
Optimize Materials - Develop new materials and applications
Increase Production - Reduce scrap and maximize output and efficiency
Faster Product Development - Reduce time to market and R&D expense
Improved Product Quality - Improve product consistency and quality

Gleeble 563 System for metallurgical research

	Direct resistance heating provides rapid and precise temperature control, creating the desired thermal profile for a wide range of tests and simulations.
	The Gleeble 563 combines impressive thermal performance with both Tension and Compression capabilities. Compression anvils of various sizes and shapes can be used for deformation studies.

Small Gleeble . . . Big Impact

While the Gleeble 563 is an economical and compact system requiring a minimal investment, it is packed with capabilities and able to provide a wide range of testing and process simulations.

Gleeble grips heating a metal specimen Water-cooled jaws contribute to very fast cooling rates and enable researchers to simulate steep thermal gradients found in welding applications. Additional grip models are available to support uniform hot zone and other requirements.

Features Include:

• High-speed, direct resistance heating rates up to 10,000°C/second
• Controlled cooling or accelerated cooling with optional quench (air/gas/water/mist)
• Simulation of multiple applications, processes and materials
• Ability to test in vacuum, air or inert gas (rough vacuum and diffusion pumps available)
• User-friendly and easy to use controls and software
• Quiet operation and easy installation in a small laboratory footprint

Materials Testing Capabilities of the Gleeble 563:

• Hot ductility and hot tensile testing on a wide variety of specimen geometries
• Hot compression testing, including uniaxial and plane strain studies
• Stress relaxation
• Strain Induced Crack Opening (SICO)
• Stress vs strain curves
• Melting and solidification
• Nil-strength testing
• Thermal cycling/heat treatment
• Weld HAZ simulations
• Charpy specimen heat treatment
• Study of local brittle zones
• Embrittlement and crack susceptibility
• Liquid metal embrittlement
• Welding/HAZ phase transformation studies
• Creep/stress rupture
• Phase transformations studies, including CCT/TTT curve development with and without deformation
• Low cycle thermal-mechanical fatigue

Gleeble 540 vacuum tank with specimen in grips and descriptions of various components The vacuum tank of the Gleeble 563 Thermal-Mechanical Simulation (TMS) contains a water-cooled jaw carrier
which delivers electric current to copper grips, enabling very fast heating and cooling of specimens.

Mechanical Specifications:

The Gleeble 563 TMS System offers a high speed mechanical system with unmatched performance in its class. The innovative hydraulic system results in a servo system capable of 200 millimeters per second stroke rate with precise control and measurement accuracy.

Mechanical System	Horizontal frame, closed-loop hydraulic control
Maximum Dynamic Force	30 kN (~3000kgf, ~3 Tons)
Maximum Stroke Rate	200 mm/second in tension or compression (with no load)
Minimum Stroke Rate	0.01 mm/second in tension or compression

Thermal Specifications:

The Gleeble 563 TMS System offers a high speed thermal system with heating rates up to 10,000°C/second. The ability to reproduce a wide variety of thermal profiles and gradients that materials undergo in actual processes is critical to the success of physical simulation. The Gleeble 563 Thermal-Mechanical Simulation (TMS) accomplishes this by offering both high heating rates and high cooling rates with a variety of specimen types and materials.

Heating System	Direct resistance with closed-loop control
Temperature Controller	Digital closed-loop control using 18 bit analog-to-digital converter and 32 bit control processor Controller response rate: 10,000°C/second Resolution: One degree (C or F) Up to 8 Thermocouple channels (2 channels supplied standard)
Temperature Measurement	A variety of thermocouple types are available depending on the material being tested and the desired temperature range. Thermocouple types include: Type K Type S Type R Type B Type E Type J
Temperature Range	Room Temperature to 1700°C (Based on choice of thermocouples)
Maximum Heating Rate	Heating rates up to 10,000°C/second (6 mm diameter specimen) Heating rates are dependent on sample size and material conductivity
Controlled Cooling Rates	Controlled cooling rates of up to 200°C/second from 800°C to 500°C for a 10 mm plain carbon steel bar with 10 mm free span reduced to 6 mm diameter for 6 mm long at midspan
Maximum Quench Rates	More than 10,000°C/second at 550°C at the specimen surface for 1 mm thick x 10 mm wide sheet of plain carbon steel with 25 mm free span

Sample Data Output

More Information:

For more information about how Gleeble Systems can help you and your team solve material and processing challenges, please contact a member of our team at info@gleeble.com or +1 (518) 283-5350. In the meantime, please download a copy of our electronic brochure by clicking here.

ICACC - January 28 - 29, 2025 - Daytona Beach, Florida, USA

We’re thrilled to be attending the 49th International Conference and Expo on Advanced Ceramics and Composites (ICACC) in January 2024. Be sure to visit us at the event, where we’ll be unveiling an exciting new product that you won’t want to miss! Register here

TMS - March 23-27, 2025 - Las Vegas, Nevada, USA

This year at the MGM Las Vegas Hotel & Casino, the DSI team witll be attending the TMS Annual Meeting & Exhibition brings together more than 4,000 engineers, scientists, business leaders, and other professionals in the minerals, metals, and materials fields for a comprehensive, cross-disciplinary exchange of technical knowledge. Learn More Here

Dr. Hirowo Suzuki

Nippon Steel (retired)

“In my opinion, Dynamic Systems is the top company in this kind of test equipment… worldwide.”

Damien Fabrègue

The Institut National des Sciences Appliquées (National Institute of Applied Science) de Lyon, Villeurbanne, France

"...this is the only piece of equipment that I can do everything with. I can always do what I want. It may take some time to optimize the work, but in the end, you can always run the experiment or do the simulation that you wanted to do."

Tom Schambron

Bluescope Steel

"…world research and innovation are cornerstones of our business - the Gleeble is key to meeting the objectives of BlueScope. It assists in product development and improvement—such as trialling new steel grades, processing parameters, and so forth—and in tracking and solving of quality issues."

Chihiro Kasamatsu

Material Evaluation Department Aichi Steel Corporation

“…we are concentrating on testing with the Gleeble to reduce costs in our forging production processes…”

Dr. John Bowker

Former Senior Research Scientist CANMET Materials Technology Laboratory (CANMET-MTL)

"The Gleeble is one of the most heavily used machines at our lab... We have used and continue to use it for a broad range of thermo-mechanical simulation procedures. These include: welding applied to shipbuilding, marine materials, offshore structures and pipelines; compression testing to characterize the flow stress behavior of steels and aluminum alloys: and in situ melting and solidification to understand the effects of residuals on hot ductility."

Dr. Hans Peter Schmitz

ThyssenKrupp Stahl

“ In our labs, we do physical simulation… We try to reproduce as precisely as possible what is going on in the actual production lines. If you do it very carefully, you can transfer the result into the production lines, and you can use the results for building up numerical models."

Dr. David Matlock

Colorado School of Mines

"Flexibility is the key to our extensive use of the Gleeble. It helps us to get maximum productivity out of the work we do."

Dr. Leijun Li

Utah State University

"On the Gleeble we can not only control all the mechanical properties, but we’re in command of the thermal properties and the atmosphere. With the Gleeble, we can do complicated applications, watch what is happening, see the effect of temperature, and know how much energy is going in. It would take a lot more time and money to do it with equipment other than the Gleeble."

Dr. Arnold Marder

Energy Research Center, Lehigh University

“What we are aiming at is intelligent processing. That’s where the Gleeble gives us a tremendous advantage. By allowing us to carefully simulate and model thermal and mechanical processes”

Dr. Brian Damkroger

Los Alamos National Laboratory

"Only the Gleeble is fast enough to allow us to physically simulate the thermal profile of electron beam welding”

Dr. Luis A. Colembergue Klujszo

Gerdau Aços Especiais Piratini

"Through the capability of simulating large scale, expensive processes in a small scale, laboratory environment, the Gleeble has made it easier for Gerdau to improve products and processes. Furthermore, all the controls available in the equipment bring a whole lot of reliability to the results, making the conclusions very sound."

Dr. Warren Poole

University of British Columbia

"We had to generate all the parameters and then to validate the predictions that the computer model made… The Gleeble played a central role in that project. We did austenite grain growth studies, double-hit compression tests to study recrystallization, and continuous cooling transformations, with and without compression."

Dr. Mahesh Chaturvedi, Ph.D., FASM

University of Manitoba, Department of Mechanical and Manufacturing Engineering

“We want to understand what the fundamental causes for thermo-mechanical fatigue are, so we use the Gleeble to apply load and temperature, sometimes in sync and sometimes out of sync. The Gleeble can keep going for days, executing the same program again and again... it gives us excellent reproducibility.”