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Search Results - algorithm+optical+coherence+tomography
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Nanocomposite Scintillators (Case No. 2024-126)
Summary: UCLA researchers from the Department of Materials Science and Engineering have developed a novel nanocomposite material for high-efficiency radiation detection and monitoring. Background: Scintillators are materials that emit light when they absorb radiation, such as gamma rays or x-rays. The photons generated by the scintillators can...
Published: 5/15/2024
|
Inventor(s):
Qibing Pei
,
Ziqing Han
Keywords(s):
adhesive material
,
Algorithm Optical Coherence Tomography
,
anode material
,
artificial electromagnetic materials
,
artificial-intelligent materials
,
background radiation
,
Biomaterial
,
Biomaterial 3D Printing
,
bulk material
,
Composite Material
,
composite scintillators
,
Computed tomography
,
Computerized Tomography scan (CT)
,
Diffraction Tomography
,
Drug Delivery Microporous Material
,
fast scintillators
,
gamma spectroscopy
,
High resolution computed tomography
,
high-Z organometallics
,
hole transporting material
,
Hyperelastic Material
,
intercalated materials
,
material characterization
,
Materials
,
meta materials
,
metal nanocomposites
,
microarchitectured materials
,
nanocomposite scintillators
,
Nanocomposites
,
Nanomaterials
,
Nanoparticle
,
Nanoparticles
,
nanostructured materials
,
neutrino detection
,
Optical Tomography
,
Optoelectronic materials
,
photonic materials
,
positron emission tomography (PET)
,
radiation detection
,
Raw materials supplier
,
scintillators
,
second harmonic generation
,
Smart Material
,
Solar Cell Metamaterial
,
Surgical Instrument Optical Coherence Tomography
,
suturable biomaterial
,
X-Ray Computed Tomography
Category(s):
Chemical
,
Chemical > Chemical Sensors
,
Materials
,
Materials > Functional Materials
Giant Second-Harmonic Generation in Bulk Monolayer MoS2 Thin Films (Case No. 2024-186)
Summary: UCLA researchers in the department of Chemistry and Biochemistry have developed a method to control electron density in molybdenum disulfide (MoS2) thin films that can be used to improve optical material characteristics. Background: Second harmonic generation (SHG) is an optical process in which light interacts with a nonlinear material...
Published: 11/19/2024
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Inventor(s):
Xiangfeng Duan
,
Yu Huang
,
Boxuan Zhou
Keywords(s):
Adaptive Optics
,
Algorithm Optical Coherence Tomography
,
all-optical diffractive computing
,
all-optical transformation
,
Atomic Force Microscopy Optical Tweezers
,
bulk monolayer
,
Composite Material
,
Composite Materials
,
Dispersion (Optics)
,
Electro-Optics
,
Focus (Optics)
,
Functional Materials
,
Infrared Electromagnetic Spectrum Dispersion (Optics)
,
linear optics
,
material characterization
,
Materials
,
molybdenum disulfide (MOS2)
,
monolayer
,
Nanomaterials
,
Near-Field Scanning Optical Microscope
,
nonlinear dynamics
,
Nonlinear Optics
,
non-linear optics
,
Nonlinear Optics Molecular Dynamics
,
Optical Coherence
,
Optical Communication
,
Optical computing
,
optical implementation
,
Optical networks
,
optical processor
,
optical transmission
,
Optics Parabolic Reflector Curved Mirror
,
Optoelectronic materials
,
reverse engineered optical system
,
second harmonic generation
,
start to end optics design
,
Surgical Instrument Optical Coherence Tomography
Category(s):
Materials
,
Materials > Functional Materials
,
Optics & Photonics
,
Chemical
,
Chemical > Instrumentation & Analysis
Full Spectrum Computer Vision for Photon Counting CT (Case No. 2024-058)
Summary: Researchers in the Department of Radiological Sciences have developed a machine learning algorithm that processes multispectral photon counting CT data for accurate medical imaging. Background: Photon counting computed tomography (PCCT) is a tremendous engineering advancement, enabling high resolution spectral imaging with myriad applications....
Published: 9/20/2024
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Inventor(s):
Matthew Brown
,
Dieter Enzmann
,
John Hoffman
,
Michael Mcnitt-Gray
Keywords(s):
AI algorithms
,
Algorithm
,
Algorithm Optical Coherence Tomography
,
algorithmic cancer detection
,
Artifical Intelligence (Machine Learning, Data Mining)
,
artificial electromagnetic materials
,
Artificial Intelligence
,
artificial intelligence augmentation
,
Artificial Neural Network
,
Artificial Neural Network Artificial Neuron
,
artificial-intelligent materials
,
Big Data
,
Bladder Cancer
,
blood cancers
,
Brain cancer
,
Breast Cancer
,
Cancer
,
cancer antigen
,
cancer detection
,
Cancer Immunotherapy
,
Cancer stem cells
,
cancer target
,
Computed tomography
,
CT
,
Deep Learning
,
design software
,
Digital Pathology
,
generative artificial intelligence
,
Genetic Algorithm
,
Histopathological image analysis
,
Histopathology
,
histopathology images
,
hyperparameter optimization
,
Image Analysis
,
Image Processing
,
lympathic cancers
,
lymphatic cancer
,
Medical artificial intelligence (AI)
,
Mesenchymal Stem Cell Derived Cancer Cells
,
Orthotopic cancer models
,
Pancreatic cancer
,
pathology image analysis
,
Photon counting computed tomography (PCCT)
,
prostate cancer
,
Radiology
,
Radiology / Radiomitigation
,
Software
,
Software & Algorithms
,
Software Development Tools
,
Software-enabled learning
Category(s):
Software & Algorithms
,
Software & Algorithms > Image Processing
,
Software & Algorithms > Artificial Intelligence & Machine Learning
,
Software & Algorithms > Data Analytics
Universal Linear Intensity Transformations Using Spatially-Incoherent Diffractive Processors (Case No. 2023-192)
Summary: UCLA researchers in the Department of Electrical and Computer Engineering have developed a novel platform technology to facilitate the design of all-optical visual processors, which can be used to perform advanced computational tasks at the speed of light. Background: Information processing via light is a cutting-edge field among optics...
Published: 4/5/2024
|
Inventor(s):
Aydogan Ozcan
,
MD Sadman Rahman
,
Xilin Yang
Keywords(s):
Adaptive Optics
,
Algorithm Optical Coherence Tomography
,
all-optical diffractive computing
,
all-optical transformation
,
Artifical Intelligence (Machine Learning, Data Mining)
,
Artificial Intelligence
,
Atomic Force Microscopy Optical Tweezers
,
computational imaging
,
deep diffractive network
,
Deep Learning
,
Deep learning-based sensing
,
diffractive processor
,
Dispersion (Optics)
,
Electron Microscope
,
Electro-Optics
,
fluorescence microscopy
,
Focus (Optics)
,
Infrared Electromagnetic Spectrum Dispersion (Optics)
,
interference processor
,
large language model (LLNMs)
,
linear optics
,
linear transformations
,
Machine Learning
,
Microscope
,
Microscopy
,
Microscopy And Imaging
,
Near-Field Scanning Optical Microscope
,
neural networks
,
Nonlinear Optics
,
non-linear optics
,
Optical Coherence
,
Optical Communication
,
Optical computing
,
Optical Fiber Copper Wire And Cable
,
optical implementation
,
Optical Microscope
,
Optical networks
,
optical processor
,
optical transmission
,
Optics Parabolic Reflector Curved Mirror
,
phase-only diffractive network
,
reverse engineered optical system
,
Software
,
Software & Algorithms
,
Software Development Tools
,
spatially-incoherent light
,
start to end optics design
,
Surgical Instrument Optical Coherence Tomography
,
three dimensional imaging
,
visual computing
,
Waferscale Processors
Category(s):
Optics & Photonics
,
Optics & Photonics > Microscopy
,
Platforms
,
Software & Algorithms > Image Processing
,
Electrical
,
Electrical > Signal Processing
,
Electrical > Computing Hardware
AI Models for Ocular Diseases Using Optical Coherence Tomography (Case No. 2022-113)
Summary: UCLA researchers in the Department of Computational Medicine have developed a computer program capable of automatically and accurately diagnosing optical diseases using OCT. Background: Optical diseases, such as age-related macular degeneration, are serious issues that, if left untreated, can result in partial and even complete blindness....
Published: 10/31/2024
|
Inventor(s):
Jeffrey Chiang
,
Srinivas Sadda
,
Eran Halperin
Keywords(s):
Algorithm Optical Coherence Tomography
,
Artificial Intelligence
,
Eye Surgery
,
Intraocular Lens
,
Lens (Optics)
,
Macular Degeneration
,
Optical Coherence
,
Optical Microscope
,
Optical Tomography
Category(s):
Software & Algorithms
,
Software & Algorithms > Image Processing
,
Software & Algorithms > Artificial Intelligence & Machine Learning
,
Medical Devices > Medical Imaging