Freeform Future Corp. (20240335883). BUILD PLATE WITH INTEGRATED COOLING CHANNELS simplified abstract

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BUILD PLATE WITH INTEGRATED COOLING CHANNELS

Organization Name

Freeform Future Corp.

Inventor(s)

Daniel Roszhart Zehr of Erie CO (US)

Tasso Lappas of Pasadena CA (US)

BUILD PLATE WITH INTEGRATED COOLING CHANNELS - A simplified explanation of the abstract

This abstract first appeared for US patent application 20240335883 titled 'BUILD PLATE WITH INTEGRATED COOLING CHANNELS

Simplified Explanation

This patent application describes a build plate with integrated channels for cooling during additive manufacturing or 3D printing. The build plate consists of a bottom portion and a top portion, with the top portion formed onto the bottom portion using additive manufacturing. The channels in the top portion allow for the circulation of coolant, gases, or other fluids to cool the build plate during part manufacturing, resulting in improved heat dissipation and manufacturing efficiencies.

  • The build plate has integrally formed channels for cooling during additive manufacturing.
  • Consists of a bottom portion and a top portion formed using additive manufacturing.
  • Channels in the top portion allow for the circulation of coolant, gases, or other fluids.
  • Improves heat dissipation, throughput, precision, and efficiencies in additive manufacturing.

Potential Applications

The technology can be applied in various industries such as aerospace, automotive, medical, and consumer goods for additive manufacturing processes that require precise cooling mechanisms.

Problems Solved

This technology addresses the issue of heat buildup during additive manufacturing, which can affect part quality and production efficiency. By providing a cooling system within the build plate, it ensures consistent and controlled temperatures for optimal manufacturing conditions.

Benefits

The benefits of this technology include improved heat dissipation, enhanced manufacturing precision, increased throughput, and overall efficiency in additive manufacturing processes.

Commercial Applications

Title: Advanced Cooling Build Plate for Additive Manufacturing This technology can be commercially used in 3D printing services, manufacturing facilities, and research institutions that specialize in additive manufacturing. It can enhance the quality and speed of production, making it a valuable asset in the industry.

Prior Art

Readers can explore prior patents related to build plate cooling systems in additive manufacturing to understand the evolution of this technology and potential improvements.

Frequently Updated Research

Researchers are continually exploring new materials and designs for build plates with integrated cooling channels to further enhance the efficiency and effectiveness of additive manufacturing processes.

Questions about Build Plate Cooling

How does the integrated cooling system in the build plate impact the overall manufacturing process?

The integrated cooling system helps maintain consistent temperatures during additive manufacturing, leading to improved part quality and production efficiency.

What are the potential challenges in implementing build plates with integrated cooling channels?

Challenges may include the design complexity, material selection, and integration of the cooling system with existing additive manufacturing processes.


Original Abstract Submitted

this application describes a build plate having integrally formed channels for cooling the build plate during additive manufacturing or 3d printing. the build plate may include a bottom portion (e.g., base, section, half, etc.) and a top portion (e.g., top, section, half, etc.). the top portion is formed, via additive manufacturing, onto the bottom portion. the top portion includes channels that are configured to receive coolant, gases, or other fluids to provide cooling effects to the build plate during manufacturing of a part on the build plate. the use of the channels may result in increased heat dissipation, improved throughput, precision, and/or efficiencies in additive manufacturing.