Engineering
Nuclear Magnetic Resonance
100%
Surface State
37%
State Sequence
28%
Relaxation Time
17%
Graphics Processing Unit
17%
Forward Model
16%
Relaxation Time
15%
Thermal Model
11%
Wireless Power Transfer
11%
Compact Surface
11%
Deep Learning
11%
Energy Management
11%
Dot Product
11%
Thermal Resistance
11%
Space Solution
11%
Feasibility Study
11%
Common Practice
11%
Dimensionality
11%
Single Pulse
9%
Pulse Train
8%
Signal-to-Noise Ratio
8%
Bloch Equation
7%
Limitations
7%
Field Data
6%
Thermal Energy
5%
Matrix Multiplication
5%
Transmissions
5%
Power Transmission
5%
Fuel Cell
5%
Battery (Electrochemical Energy Engineering)
5%
Electrical Power
5%
Polynomial Order
5%
Input Sequence
5%
Heatsinks
5%
Reliable Operation
5%
Instantaneous Power
5%
Relative Error
5%
Energy Dissipation
5%
Duty Cycle
5%
Model Space
5%
Response Time
5%
Numerical Solution
5%
Keyphrases
Surface nuclear Magnetic Resonance
11%
Ground Validation
11%
Multi-sequence
11%
Surface NMR
11%
Time Gating
11%
Receiver Coil
11%
Electromagnetic Imaging
11%
Sequence Acquisition
11%
Adiabatic Pulses
11%
Conductivity Variation
11%
Hybrid Solver
11%
Steady State Sequence
8%
Free Induction Decay
7%
Offset Geometry
5%
Ground-based Systems
5%
Multi-moment
5%
Ground-based Platform
5%
Multiple Orientations
5%
Receiver Localization
5%
Hydrogeological Investigation
5%
Electromagnetic Measurements
5%
Localization Scheme
5%
Scaling Bias
5%
Computational Challenges
5%
Spatial Aspect
5%
Multiple Sequences
5%
Multiple Transmitters
5%
Current Strength
5%
Relaxation Time
5%
Temporal Aspects
5%
Acquisition Rate
5%
Forward Model
5%
4th Order
5%
Runge-Kutta
5%
Space Dimensionality
5%
Tip Angle
5%
Computational Intensity
5%
Strength of Excitation
5%
Pulse Effect
5%
