20240026562. INTERNALLY-HEATED HIGH-PRESSURE APPARATUS FOR SOLVOTHERMAL CRYSTAL GROWTH simplified abstract (SLT Technologies, Inc.)

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INTERNALLY-HEATED HIGH-PRESSURE APPARATUS FOR SOLVOTHERMAL CRYSTAL GROWTH

Organization Name

SLT Technologies, Inc.

Inventor(s)

Mark P. D'evelyn of Vancouver WA (US)

Paul M. Von Dollen of Brush Prairie WA (US)

INTERNALLY-HEATED HIGH-PRESSURE APPARATUS FOR SOLVOTHERMAL CRYSTAL GROWTH - A simplified explanation of the abstract

This abstract first appeared for US patent application 20240026562 titled 'INTERNALLY-HEATED HIGH-PRESSURE APPARATUS FOR SOLVOTHERMAL CRYSTAL GROWTH

Simplified Explanation

The disclosed invention is an apparatus for solvothermal crystal growth. It consists of a cylindrical enclosure, a cylindrical heater, a first end closure member, a load-bearing annular insulating member, and a first end plug. The cylindrical heater has a cylindrical wall that defines a capsule region and is equipped with a first end and a second end. The first end closure member provides axial support for a capsule placed within the capsule region. The load-bearing annular insulating member is positioned between the cylindrical enclosure and the cylindrical wall of the heater. The first end plug is located between the first end of the cylindrical heater and the first end closure. The load-bearing annular insulating member or the first end plug is made of a packed-bed ceramic composition, which has a density ranging from about 30% to about 98% of the theoretical density of a 100% dense ceramic with the same composition.

  • The invention is an apparatus designed for solvothermal crystal growth.
  • It includes a cylindrical enclosure, a cylindrical heater, a first end closure member, a load-bearing annular insulating member, and a first end plug.
  • The cylindrical heater has a cylindrical wall that creates a capsule region for crystal growth.
  • The first end closure member supports the capsule within the capsule region.
  • The load-bearing annular insulating member is placed between the cylindrical enclosure and the cylindrical wall of the heater.
  • The first end plug is positioned between the first end of the cylindrical heater and the first end closure.
  • The load-bearing annular insulating member or the first end plug is made of a packed-bed ceramic composition.
  • The packed-bed ceramic composition has a density between about 30% and about 98% of the theoretical density of a 100% dense ceramic with the same composition.

Potential Applications

  • Solvothermal crystal growth in various industries such as pharmaceuticals, materials science, and electronics.
  • Production of high-quality crystals for use in research and development.
  • Manufacturing of crystals with specific properties for use in sensors, lasers, and optical devices.

Problems Solved

  • Provides an apparatus that supports and facilitates solvothermal crystal growth.
  • Ensures proper insulation and temperature control during crystal growth.
  • Prevents heat loss and maintains a stable environment for crystal growth.
  • Allows for the growth of high-quality crystals with controlled properties.

Benefits

  • Enables efficient and controlled solvothermal crystal growth.
  • Provides a reliable and stable environment for crystal growth.
  • Reduces heat loss and improves energy efficiency.
  • Allows for the production of high-quality crystals with desired properties.
  • Facilitates research and development in various industries.


Original Abstract Submitted

embodiments of the disclosure can include an apparatus for solvothermal crystal growth. the apparatus can include a cylindrical shaped enclosure, a cylindrical heater, a first end closure member, a load-bearing annular insulating member, and a first end plug. the cylindrical heater includes a first end, a second end and a cylindrical wall that extends between the first end and the second end, wherein an interior surface of the cylindrical wall defines a capsule region. the first end closure member is disposed proximate to the first end of the cylindrical heater, the first end closure member being configured to provide axial support for a capsule disposed within the capsule region. the load-bearing annular insulating member is disposed between an inner surface of the cylindrical shaped enclosure and an outer surface of the cylindrical wall of the cylindrical heater. the first end plug is disposed between the first end of the cylindrical heater and the first end closure. the load-bearing annular insulating member or the first end plug comprises a packed-bed ceramic composition, the packed-bed ceramic composition being characterized by a density that is between about 30% and about 98% of a theoretical density of a 100%-dense ceramic having the same composition.