LLNL’s novel approach utilizes a number of techniques to improve reconstruction accuracy:
Keywords
- Show all (88)
- Additive Manufacturing (37)
- Synthesis and Processing (16)
- 3D Printing (7)
- Materials for Energy Products (6)
- Material Design (4)
- Manufacturing Automation (2)
- Membranes (2)
- Additively Manufactured (AM) Optics (1)
- Electric Grid (1)
- Manufacturing Simulation (1)
- Material Characterization (1)
- Microfabrication (1)
- Precision Engineering (1)
- Sensors (1)
- Structural Materials (1)
- Volumetric Additive Manufacturing (1)
- (-) Manufacturing Improvements (3)
- (-) Instrumentation (1)
- (-) Magnet Compositions (1)
LLNL pioneered the use of tomographic reconstruction to determine the power density of electron beams using profiles of the beam taken at a number of angles. LLNL’s earlier diagnostic consisted of a fixed number of radially oriented sensor slits and required the beam to be circled over them at a fixed known diameter to collect data. The new sensor design incorporates annular slits instead,…
LLNL uses the additive manufacturing technique known as Electrophoretic Deposition to shape the source particle material into a finished magnet geometry. The source particle material is dispersed in a liquid so that the particles can move freely. Electric fields in the shape of the finished product then draw the particles to the desired location to form a “green body”, much like an unfired…
Dubbed the "LLNL Chemical Prism", the LLNL system has use wherever there is a need to separate components of a fluid. A few examples include:
- Chemical detection for known and previously unknown chemicals or substances
- Separation of biomolecules from a cellular extract
- Fractionation of a complex mixture of hydrocarbons
- Forensic analysis of…