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Coherent and Holographic Imaging Methods for Immersive Near-Eye Displays
Jani Mäkinen
Computing Sciences
Research output
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Book/Report
›
Doctoral thesis
›
Collection of Articles
Overview
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Dive into the research topics of 'Coherent and Holographic Imaging Methods for Immersive Near-Eye Displays'. Together they form a unique fingerprint.
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Keyphrases
Imaging Methods
100%
Coherent Imaging
100%
Immersive
100%
Holographic Imaging
100%
Near-eye Display
100%
Computational Methods
44%
Visual Cues
33%
Signal Processing
22%
3D Scene
22%
Coherent Light
22%
Deep Learning
22%
Holographic Stereogram
22%
Holographic Display
22%
Light Modeling
22%
Computational Complexity
11%
Entertainment
11%
Viewing Experience
11%
Computational Demand
11%
Light Wave
11%
Neural Network
11%
Image Processing
11%
Laser Light
11%
Machine Learning
11%
Design Parameters
11%
Time Use
11%
Time Application
11%
Optics
11%
Coherent Illumination
11%
Data Representation
11%
Real-time Processing
11%
Noise Modeling
11%
Synthetic Data
11%
Accurately Model
11%
High Contrast
11%
Speckle Pattern
11%
Imaging Modalities
11%
Machining Operations
11%
Challenging Conditions
11%
Wave Optics
11%
Process Solutions
11%
Immersive Experience
11%
Optical Methods
11%
Perspective Image
11%
Speckle Noise Reduction
11%
Lighting Effects
11%
Holography
11%
Processing Network
11%
3D Design
11%
Speckle Noise
11%
Efficient Procedure
11%
Processing Machines
11%
Generating Functional
11%
Optics Modeling
11%
Operation Design
11%
Processing Constraints
11%
Mirror Reflection
11%
Holographic Data
11%
3D View
11%
Static Display
11%
Dynamic Optics
11%
Visual Artifacts
11%
Existing Issues
11%
Remote Machine
11%
Computer Science
Image Analysis
100%
Computational Method
80%
3d Scenes
40%
Deep Learning Method
40%
Computational Complexity
20%
Preprocessing
20%
Neural Network
20%
Real-Time Application
20%
Design Parameter
20%
Data Representation
20%
Synthetic Data
20%
Machine Operation
20%
Challenging Condition
20%
Time Processing
20%
Imaging Modality
20%
Immersive Experience
20%
Remote Machine
20%
Learning System
20%
Machine Learning
20%
Invariant
20%
Earth and Planetary Sciences
Imaging Method
100%
Computational Method
80%
Real Time
60%
Coherent Light
40%
Signal Processing
40%
State of the Art
20%
Preprocessing
20%
Speckle
20%
Machine Learning
20%
Speckle Patterns
20%
Noise Reduction
20%
Visual Accommodation
20%
Holography
20%
Engineering
Image Analysis
100%
Stereogram
40%
Holographic Display
40%
Deep Learning Method
40%
Computational Complexity
20%
Design Parameter
20%
Speckle
20%
Imaging Modality
20%
Laser Light
20%
Data Representation
20%
Processing Network
20%
Constraint Processing
20%
Learning System
20%
Biochemistry, Genetics and Molecular Biology
Signal Processing
100%
Illumination
100%
Solution and Solubility
50%
Light
50%