Bench Top High And Low Temperature Test Chamber For Pharmaceutical Industry

In the realm of product testing and quality control, the need for reliable and user-friendly testing equipment is ever-present. The Easy Operation Bench-top High and Low Temperature Test Chamber stands as a prime example of a device that combines functionality with simplicity, catering to a wide range of testing requirements.

This bench-top test chamber is designed to subject samples to controlled high and low temperature environments. It is an essential tool for industries such as electronics, pharmaceuticals, materials research, and small-scale manufacturing. The primary purpose is to evaluate the performance and durability of products under varying temperature conditions, helping manufacturers and researchers identify potential weaknesses, optimize designs, and ensure compliance with industry standards.

• Compact and Space-Efficient Design
  • The chamber is constructed with a sturdy yet compact framework, typically made of durable steel or aluminum alloy.
  • Its bench-top size makes it suitable for placement in laboratories or small production areas where space is limited.
  • The exterior is designed to be both aesthetically pleasing and practical, with a smooth finish that is easy to clean.
  • The interior is lined with a non-reactive and insulating material, such as stainless steel or a high-quality thermal insulation coating, to maintain the desired temperature environment and protect the samples.
  • The door is engineered for a tight seal, featuring a simple yet reliable locking mechanism and a gasket that ensures minimal heat transfer.
  • It also includes a clear viewing window, usually made of tempered glass, allowing for easy visual inspection of the samples during testing.
• User-Friendly Temperature Control System
  • Temperature Range: The chamber can cover a wide temperature range, typically from -40°C to +150°C, with an accuracy of ±0.5°C.
  • Temperature Uniformity: The chamber ensures excellent temperature uniformity within ±1°C throughout the testing space.
  • The control system utilizes advanced heating and refrigeration technologies, along with a precise temperature sensor and feedback loop.
  • The control panel is intuitive and easy to operate, featuring a digital display and simple buttons for setting the desired temperature, time, and other parameters.
  • Users can quickly program temperature profiles, including ramping rates and holding times, to simulate real-world temperature changes.
• Advanced Instrumentation and Data Acquisition
  • The chamber is equipped with a basic yet effective set of sensors.
  • Temperature sensors are strategically placed to monitor the internal temperature, and these sensors are connected to a data acquisition system.
  • The data acquisition system records and stores temperature data during the test.
  • The system can be connected to a computer or printer (either directly or through optional accessories) for generating reports or further data processing.
  • Additionally, the chamber has built-in alarms that alert the user in case of temperature deviations outside the set range, power failures, or other malfunctions.

• Volume and Dimensions: With a relatively small internal volume, usually ranging from 20 to 100 liters, it is ideal for testing individual components or small batches of samples. The external dimensions are designed to fit on a standard laboratory bench, typically having a width of 40 to 80 centimeters, a depth of 40 to 60 centimeters, and a height of 60 to 100 centimeters. The interior dimensions are optimized for efficient air circulation and sample placement.
• Temperature Stability: The chamber offers good temperature stability, with minimal fluctuations over time. This allows for consistent and repeatable testing, ensuring that results can be compared accurately. The stability is maintained through a combination of the quality of the temperature control system and the insulation of the chamber.
• Heating and Cooling Rates: The heating and cooling rates are sufficient for most common testing scenarios. The heating rate can be around 3°C to 5°C per minute, while the cooling rate is typically around 2°C to 4°C per minute. These rates can be adjusted within certain limits depending on the specific requirements of the test.