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Heating equipment series tailored for research scenarios
KHL-P1500 Laser Spot Heating System
Product Overview
KHL-P1500 Laser Spot Heating System is a kilowatt-level laser heating solution designed for high-temperature material research, localized rapid thermal loading, heat treatment process development, and material performance testing. The system utilizes a 1500 W-class laser source, delivering energy via fiber optics and precision optical focusing components to concentrate power on the target area. This enables non-contact, high-speed, high-energy-density localized heating. Compared to traditional methods like resistance furnaces or infrared radiation, laser spot heating offers precise control over the heated zone, minimal thermal impact, rapid升温 rates, and seamless integration with temperature monitoring and automation systems. It is ideal for simulating and studying extreme thermal environments in advanced materials.
Product Positioning
1500 W laser spot heating
1500 W-class laser heat source delivered via fiber optics and focused with high-precision optics concentrates energy on the target area for non-contact, high-response, high-density localized heating.
Extreme Heat Environment Simulation Platform
Precisely controllable heating zone with minimal thermal impact, rapid temperature rise, and seamless integration with temperature sensing and automation systems. Ideal for simulating and testing advanced materials under extreme thermal conditions.
Product Type
How it works
The system employs a 1500 W laser heat source. Laser energy is transmitted via fiber optics and concentrated on the target area through high-precision optical focusing components, enabling non-contact, high-speed, high-energy-density localized heating. The equipment supports both flat-top and Gaussian beam profiles and can be configured with circular, rectangular, or homogenized spots. It integrates temperature detection modules using infrared pyrometers, thermal cameras, or thermocouples to achieve high-speed closed-loop control that matches laser power to real-time target temperature.
The system comprises five core modules: laser source, optical focusing, temperature sensing, control, and mechanical interface. It supports continuous output and power modulation modes and can be either fixed-installed or integrated into experimental platforms. Compared to traditional methods like resistance furnaces or infrared heating, laser spot heating offers precise control over the heated area, a minimal heat-affected zone, and rapid heating rates. This enables seamless integration with motion stages, material testing machines, and thermo-mechanical coupling systems to perform dynamic thermal loading experiments.
Important Notice:The typical temperature range is 800～1800℃, depending on material absorptivity and operating conditions. Formal projects shall follow the agreed test conditions and acceptance criteria.
Core Advantages
A point heating system is built using a 1500 W laser heat source, fiber transmission, and high-precision optical focusing. The heated zone is controllable with rapid heating, supporting high-speed temperature closed-loop control and automation platform integration.
Kilowatt-level high-power laser output
1500 W laser source for rapid heating of metals, superalloys, ceramics, and composites
Precise local hot reload
Achieves millimeter-scale thermal zones via optical focusing for precise localized heating of samples, minimizing thermal impact on non-target areas.
Flexible Spot Design
Supports circular, rectangular, and uniform beam configurations. Optimizes energy distribution based on material absorption characteristics and experimental requirements.
High-speed temperature closed-loop control
Integrates with infrared thermometers, thermal cameras, or thermocouples to dynamically match laser power with target temperature in real time, enhancing experimental stability.
Supports automated integration
Integrates with motion platforms, material testing machines, and thermo-mechanical coupling systems to enable dynamic thermal loading experiments.
Key Technical Specifications
| Device Model | KHL-P1500 |
| Heating Method | Laser non-contact point heating |
| Laser Output Power | 1500 W |
| Power adjustment range | 10～100% |
| Laser wavelength | 915 nm / 976 nm (configurable) |
| Spot Size | 2～20 mm (customizable) |
| Energy Distribution | Flat-top beam / Gaussian beam |
| Typical temperature range | 800～1800℃ (dependent on material absorption rate and operating conditions) |
| Fiber Length | Approx. 10 m (customizable) |
| Output Interface | QBH Interface (Customizable) |
| Work Mode | Continuous Output / Power Modulation |
| Cooling Method | Air-cooled / Liquid-cooled |
| Power Requirements | AC 220 V or AC 380 V (depending on system configuration) |
| Work Environment | 10～40℃ |
Typical Applications
Localized Heating and Performance Testing of Superalloys
Thermal Shock Experiment for Ceramic Matrix Composites
Thermal fatigue and thermal cycling tests
Local annealing and heat treatment of materials
Weld Preheating and Heat-Affected Zone Research
Post-processing for Additive Manufacturing
Localized heating for semiconductors and electronic materials
High-Temperature Scientific Research Experimental Platform
System Configuration and Control Mode
| Configuration Type | Typical Components | Use Cases |
|---|---|---|
| Basic Power Regulation | Focusing heating head, power controller, cooling assembly, mounting bracket | Process exploration, rapid heating, and experiments with low constant-temperature precision requirements. |
| Closed-loop temperature control | Basic Configuration + Thermocouple or Infrared Temperature Sensor + PID Controller | Target temperature control, heat preservation, over-temperature protection, and repeatability testing |
| Automated Integration Suite | Closed-loop system + 3-axis platform/robotic arm + data acquisition and host computer | Multi-point switching, scan heating, test process linkage, and automatic recording |
Selection Details & Customization Services
Product power, focal length, and control method should be determined jointly based on the sample and test objectives. Before selection, clarify the following information to ensure the spot size, heating rate, and temperature stability meet actual operating conditions:
- Sample material, dimensions, thickness, weight, and surface condition
- Heated zone dimensions, target temperature, allowable ramp-up time, and hold time
- Temperature fluctuation, repeatability, measurement accuracy, and whether temperature curve logging is required
- Fixed-point scanning, multi-position switching, or mobile scanning
- Installation space, working distance, fixture interference, and cooling and safety protection conditions
Available Customizations
- Different power outputs, focal lengths, and target spot sizes
- Fixed, adjustable-angle, or three-axis movable mounting structures
- Thermocouple, Infrared Thermometry, and Dual-Point Verification Solution
- PID closed-loop temperature control, programmable temperature ramping, hold function, and over-temperature protection
- Temperature, Power, and Alarm Data Collection and Export
- Integrate with test machines, robotic arms, fixtures, and automation platforms
Usage and Safety Instructions
- ⚠Strong visible and infrared radiation is emitted during operation. Do not look directly at the light source or focus area. Use appropriate eye and radiation protection equipment.
- ⚠The sample, heating head tip, and surrounding structures may be hot. Install heat guards and allow adequate cooldown time after power-off.
- ⚠Keep the air-cooled channel clear. Do not operate continuously if cooling is abnormal, the reflector surface is contaminated, or electrical connections are loose.
- ⚠Infrared temperature readings are affected by emissivity, angle, and spot size coverage. For highly reflective metals, combine with thermocouples or use a calibrated measurement solution.
- ⚠For adhesives, coatings, and materials that may emit volatiles, evaluate ventilation, smoke extraction, and fire safety conditions.
Product Value
Energy is applied directly to the target location, delivering fast response and precise control that traditional heating methods cannot achieve. With a compact structure, closed-loop controllability, and modular integration, it provides a complete thermal loading solution for material testing and advanced manufacturing.
Energy Distribution Diagram
Figure 3Gaussian Beam Energy Density Profile: Energy density follows a Gaussian distribution from the center outward, with peak intensity at the center gradually tapering toward the edges. The central region reaches high temperatures, making it ideal for localized melting and drilling applications with minimal heat-affected zones.
Figure 4Flat-top laser spot energy density map: Energy is uniformly distributed within the spot with a sharp drop-off at the edges. The uniform energy region is controllable, making it ideal for uniform heating, surface treatment, annealing, sintering, and other applications.
Note: The illustration shows a typical beam energy density distribution; actual distributions may vary slightly due to optical system and measurement conditions.