H1500V-RG Precision Microscope Heating Stage ±0.1°C Stability 1500°C Vacuum PID Control for Semiconductor Research

Product Details:
Place of Origin: China
Brand Name: GoGo
Certification: ISO 9001:2015, ISO 14001:2015, ISO 45001:2018
Model Number: H1500V-RG
Payment & Shipping Terms:
Minimum Order Quantity: 1 Set
Price: USD 3000-8000 / Set
Packaging Details: Shock-proof foam insert with export-grade corrugated carton, customized flight case available
Delivery Time: 15-30 working days
Payment Terms: T/T, L/C, PayPal, Western Union
Supply Ability: 50 Sets per Month
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Detail Information

Temperature Range: RT ~ 1500°C Temperature Stability: ±0.1°C
Heating Method: Resistance Heating With PID Control Heating Rate: Maximum 150°C/min, Controllable
Cooling Method: Recirculating Chiller, Controllable Rate Sample Holder: Ceramic, φ8mm X 2mm Furnace-type
Optical Path: Transmission (φ5mm Optical Access Hole) Chamber Environment: High Vacuum
Dimensions: 165mm X 78mm X 32mm Net Weight: 1.1kg
Control Software: TNEX Platform
Highlight:

Precision Microscope Heating Stage with PID Control

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Microscope Heating Stage for Semiconductor Research

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Vacuum Microscope Heating Stage ±0.1°C Stability

Product Description

H1500V-RG Precision Temperature Controlled Microscope Heating Stage with ±0.1°C Stability

The GoGo H1500V-RG Precision Temperature Controlled Microscope Heating Stage sets the standard for thermal stability in high-temperature microscopy. With industry-leading ±0.1°C temperature stability across its entire RT to 1500°C range, this system is engineered for researchers who cannot compromise on data reproducibility.

Why ±0.1°C Stability Matters

In advanced materials research, temperature fluctuations as small as 0.5°C can introduce significant measurement uncertainty. The H1500V-RG eliminates this variable with precision PID-controlled resistance heating that maintains ±0.1°C stability at any setpoint. This level of control is critical for:

  • Semiconductor Characterization: Precise bandgap measurements, dopant activation studies, and thin film annealing require exact temperature control where even minor drift invalidates results.
  • Phase Transition Analysis: Accurate determination of glass transition temperatures (Tg), melting points (Tm), and crystallization temperatures (Tc) depends on thermal stability at the transition point.
  • Long-Duration Experiments: Multi-hour isothermal experiments demand drift-free temperature maintenance for valid kinetic data.
  • Differential Thermal Analysis: Comparing sample behavior against reference materials requires synchronized, stable thermal conditions.

Precision Control Architecture

The H1500V-RG combines a furnace-type ceramic sample holder for uniform heat distribution with advanced PID algorithms in the TNEX software platform. The recirculating chiller provides active, controllable cooling for precise thermal cycling. Researchers can program complex multi-step temperature profiles with ramp, dwell, and cycle segments—all maintained within the ±0.1°C specification.

Complete Precision Thermal Workstation

Each system includes the H1500V-RG heating stage, precision temperature controller with PID logic, recirculating chiller, TNEX software for automated profile execution and data logging, plus all connection cables and tubing.

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