Product Description
Product details
| Motion | Orbital, 3 mm |
| Capacity | 4 Microplates or 2 Micro-tube Racks |
| Temp. Range | Ambient +5C 65C |
Specification
| Motion | Orbital, 3 mm |
| Capacity | 4 Microplates or 2 Micro-tube Racks |
| Temp. Range | Ambient +5C 65C |
| Uniformity | 0.5C at 37C |
| Speed Range | 100 rpm 1200 rpm |
| Tray Size | 11 in x 7.75 in (27.9 cm x 19.7 cm) (LxW) |
| Calibration | Temperature calibration |
| Control | Digital |
| Dimensions | 17 in x 7.75 in x 11 in (43.2 cm x 19.7 cm x 27.9 cm) (LxHxW) |
| Drive System | Triple Eccentric; Brushless DC Motor |
| Net Weight | 19.6 lb (8.9 kg) |
| Orbit | 0.1 in (3 mm) |
| Power | 230V, 5A, 50/60Hz |
| Power Consumption | 450 W |
| Safety Certification | CE; TUV |
| Speed Accuracy | 2% |
| Speed Range | 100 rpm 1200 rpm |
| Timer | 1 second 160 hours |
| Tray Construction | Aluminum |
| Working Environment | 41F 104F, 80% RH, Non-condensing (5C 40C, 80% RH, Non-condensing) |
Precision Thermal Control for Lab EmpowermentEngineered to deliver outstanding uniformity, the Incubating Cooling Thermal Shaker ISTHBLHTS helps researchers effortlessly maintain and reproduce temperatures. The device's powerful heating and cooling system, combined with its uniform temperature distribution of 0.5C at 37C, makes it an ideal solution for sensitive assays and reactions.
Efficient Mixing with Orbital MotionThe orbital shaking function (3 mm orbit, up to 1200 rpm) ensures that samples experience homogeneous mixing. The triple eccentric, brushless DC drive system delivers quiet and stable agitation, critical in biological, chemical, and clinical lab processes.
Flexible Tray and Versatile CapacityWith a durable aluminum tray sized 27.9 cm x 19.7 cm, this shaker fits up to four microplates or two micro-tube racks. Its broad compatibility makes it a valuable addition for labs handling a range of sample types and experimental formats.
FAQ's of Incubating Cooling Thermal Shakers ISTHBLHTS:
Q: How do I set the temperature and mixing speed on the ISTHBLHTS thermal shaker?
A: The ISTHBLHTS features manual controls that allow precise adjustment of both temperature and mixing speed. Simply use the dedicated knobs and buttons on the control panel to select your desired temperature, within the range of ambient +5C to 65C, and adjust the speed from 100 rpm to 1200 rpm to suit your protocol requirements.
Q: What types of laboratory applications benefit from using this incubating cooling thermal shaker?
A: This shaker is especially suited for applications such as enzyme reactions, bacterial and cell culture incubations, nucleic acid hybridizations, and protein studies. Its ability to maintain uniform temperatures and orbital mixing enhances reproducibility and efficiency in these procedures.
Q: When should I use the cooling function versus the heating function on this shaker?
A: Use the cooling function when you need to maintain samples below room temperature for sensitive biological assays or enzyme stability tests. The heating function is ideal for applications like incubation or denaturation steps that require elevated temperatures, up to 65C.
Q: Where can this thermal shaker be effectively utilized within the laboratory environment?
A: The ISTHBLHTS is designed for standard laboratory settings with an environment range of 5C to 40C and up to 80% relative humidity. Its compact dimensions make it suitable for benchtop placement in research, clinical, or industrial labs across India and globally.
Q: What is the process for loading samples into the tray, and what capacity does it support?
A: To load samples, place up to four microplates or two micro-tube racks onto the aluminum tray. Secure them as per the included instructions to ensure stable mixing during operation. The generous tray size accommodates diverse sample formats, supporting a wide variety of experiments.
Q: How does the uniformity and accuracy of this shaker benefit my experiments?
A: With a temperature uniformity of 0.5C at 37C and speed accuracy of 2%, the ISTHBLHTS provides highly consistent and reliable conditions. This precision minimizes variability, improving the quality of results and reproducibility of experimental protocols.