2024-02-23 09:01:04
Click:

In today's era of rapid technological development, High Light Intelligence Technology is once again at the forefront of the industry, announcing that its new 15KW MPCVD equipment is about to come out. This milestone achievement marks another solid step in diamond film preparation technology, which will bring unprecedented changes to semiconductor, optics, industry and other fields.

Since the first quarter of this year, engineers from High Light Intelligence Technology have been intensively conducting optimization tests on the 15KW prototype. After countless debugging and improvements, the equipment performance has gradually become perfect. In the next second quarter, High Light Intelligence Technology plans to put this 15KW equipment into mass production testing, and then officially mass-produce it and launch it on the market.
As an iterative model of the 10KW equipment, the 15KW MPCVD equipment has made many innovations while inheriting the advantages of the previous generation products. The most significant one is the optimization of microwave transmission channels and heat dissipation conditions. After careful design and modification, the new equipment can withstand higher power, allowing single crystal growth to be stabilized at a diameter of 100 mm without reducing the growth rate. This breakthrough development will greatly improve the preparation efficiency and quality of diamond films.
It is worth mentioning that under the same air pressure, the plasma ball of the 15KW device shows higher energy density and coverage area. This means that during the preparation process, the diamond film can be deposited more uniformly on the substrate, reducing growth defects and stress, thereby improving the overall performance of the film. In addition, the optimized microwave field distribution also makes the plasma more stable and provides a more ideal environment for the growth of diamond films.

Efficiency:
The microwave power of 15KW provides sufficient energy to excite the reactive gases, thereby achieving efficient deposition of diamond films. This high efficiency makes the preparation process faster, shortens the production cycle, and improves production efficiency.
Stability:
Since the microwave power adjustment of the MPCVD equipment is continuously and gently adjusted, the deposition temperature can change continuously and stably. This stability helps the diamond film grow more uniformly, reduces growth defects and stress, and improves the quality of the diamond film.
Uniformity:
By adjusting the structure of the MPCVD deposition reaction chamber, a large-area and stable plasma ball can be generated in the deposition chamber. This structural feature allows the diamond film to be deposited uniformly over a large area, avoiding the problems of uneven film thickness and film quality differences.
Flexibility:
The 15KW MPCVD equipment can adapt to substrates of different sizes and shapes and has high flexibility. In addition, by adjusting process parameters, diamond films with different properties and uses can be prepared, such as high hardness, high thermal conductivity, high light transmittance, etc.
Scalability:
The 15KW MPCVD equipment can be upgraded or expanded to achieve larger-scale diamond film preparation. This scalability enables the equipment to adapt to production needs of different scales, improving equipment utilization and return on investment.

The advent of High Light Intelligence Technology's 15KW MPCVD equipment will undoubtedly bring revolutionary changes to diamond-related industries. Its efficient, stable and uniform production characteristics will greatly promote the application and development of diamond films in various fields. We are looking forward to the future market performance of this equipment and believe that it will bring more surprises and breakthroughs to new and old customers at home and abroad.
High Light Intelligence Technology, as a semiconductor diamond production supplier, while the semiconductor industry is developing rapidly, we also provide diamond materials to major commercial customers and academic researchers, contributing to the development of semiconductor technology and materials. With MPCVD technology as the core, we have long been committed to the R&D and manufacturing of high-quality diamond materials and related equipment. We have advanced MPCVD equipment, laser processing equipment and precision polishing equipment.

Single-Crystal vs Polycrystalline CVD Diamond: Process Difference Lies in Growth Logic, Not Equipment
The process difference between singlecrystal and polycrystalline CVD diamond lies not in equipment, but in growth logic. Singlecrystal and polycrystalline CVD diamond are two functional new materials with completely independent growth mechanisms, lattice structures and performance systems. Their process logic, product features and application boundaries diverge fundamentally from the very start of deposition and growth. Comparing or selecting materials without considering their underlying crys
From Lab-Grown Diamonds to Industrial Diamonds: Is It Time to Build an MPCVD Factory?
The lab-grown diamond industry is entering a new stage. Over the these few years, lab-grown diamonds have gradually gained wider acceptance in the jewelry market. With the development of production technology, equipment maturity and supply chain improvement, the industry is becoming more standardized and efficient. But beyond jewelry, another opportunity is attracting more attention:Industrial diamond applications.
Diamond‑Copper Composite: A Next‑Generation Solution for High‑Power Electronics Thermal Management
Diamond‑copper composite (DC) is an advanced metal‑matrix composite material consisting of diamond particles as the reinforcement phase and copper as the matrix, fabricated through state‑of‑the‑art composite preparation techniques. Diamond has the highest thermal conductivity of any naturally occurring material, with isotropic values ranging from 1200 to 2300 W/m·K. Copper, with a thermal conductivity of 401 W/m·K, ranks second only to silver among common metals. By combining the two, the compo
Mosaic Single‑Crystal Diamond: Breaking Size Limits
With an ultra‑wide bandgap of 5.47 eV, ultra‑high thermal conductivity (>2000 W/m·K), high carrier mobility (electron mobility up to 4500 cm²·V⁻¹·s⁻¹), and ultra‑high theoretical breakdown field strength (>10 MV/cm), Single‑Crystal Diamond (SCD) is an ideal candidate for next‑generation high‑power, high‑frequency and extreme‑environment electronic devices. However, both natural diamond and HPHT‑synthesized single‑crystal diamond are limited in lateral size, which greatly hinders large‑scal