Divergent Technologies, Inc. (20240326158). Sequential Determination of Thermal Energy Density for an Additive Manufacturing Operation simplified abstract
Contents
Sequential Determination of Thermal Energy Density for an Additive Manufacturing Operation
Organization Name
Inventor(s)
R. Bruce Madigan of Butte MT (US)
Lars Jacquemetton of Santa Fe NM (US)
Glenn Wikle of Santa Fe NM (US)
Mark J. Cola of Santa Fe NM (US)
Vivek R. Dave of Concord NH (US)
Darren Beckett of Corrales NM (US)
Alberto M. Castro of Santa Fe NM (US)
Sequential Determination of Thermal Energy Density for an Additive Manufacturing Operation - A simplified explanation of the abstract
This abstract first appeared for US patent application 20240326158 titled 'Sequential Determination of Thermal Energy Density for an Additive Manufacturing Operation
The patent application describes methods and apparatus for characterizing an additive manufacturing process.
- Generating scans of an energy source across a build plane
- Measuring the amount of energy radiated from the build plane during each scan using an optical sensor
- Determining the area traversed during the scans
- Calculating the thermal energy density based on the energy radiated and the area traversed
- Mapping the thermal energy density to locations on the build plane
- Adjusting subsequent scans based on the thermal energy density values
Potential Applications: - Quality control in additive manufacturing processes - Optimization of energy distribution in 3D printing - Monitoring and adjusting energy levels during printing
Problems Solved: - Ensuring consistent energy distribution in additive manufacturing - Preventing defects in printed objects due to uneven energy levels
Benefits: - Improved print quality and consistency - Reduced waste and rework in additive manufacturing processes - Enhanced control over the printing process
Commercial Applications: Title: "Advanced Additive Manufacturing Process Characterization for Enhanced Quality Control" This technology can be used in industries such as aerospace, automotive, and medical devices for precise and reliable additive manufacturing processes.
Questions about the technology: 1. How does this technology improve the quality of additive manufacturing processes? - This technology allows for real-time monitoring and adjustment of energy levels, ensuring consistent and high-quality prints. 2. What are the potential cost savings associated with implementing this technology? - By reducing waste and rework, companies can save on material costs and improve overall efficiency.
Original Abstract Submitted
this disclosure describes various methods and apparatus for characterizing an additive manufacturing process. a method for characterizing the additive manufacturing process can include generating scans of an energy source across a build plane; measuring an amount of energy radiated from the build plane during each of the scans using an optical sensor; determining an area of the build plane traversed during the scans; determining a thermal energy density for the area of the build plane traversed by the scans based upon the amount of energy radiated and the area of the build plane traversed by the scans; mapping the thermal energy density to one or more location of the build plane; determining that the thermal energy density is characterized by a density outside a range of density values; and thereafter, adjusting subsequent scans of the energy source across or proximate the one or more locations of the build plane.
- Divergent Technologies, Inc.
- R. Bruce Madigan of Butte MT (US)
- Lars Jacquemetton of Santa Fe NM (US)
- Glenn Wikle of Santa Fe NM (US)
- Mark J. Cola of Santa Fe NM (US)
- Vivek R. Dave of Concord NH (US)
- Darren Beckett of Corrales NM (US)
- Alberto M. Castro of Santa Fe NM (US)
- B23K26/03
- B22F10/28
- B22F10/31
- B22F12/90
- B23K15/00
- B23K26/342
- B23K26/70
- B23K31/12
- B23K101/00
- B29C64/393
- B33Y10/00
- B33Y50/00
- B33Y50/02
- CPC B23K26/032