Predicting Long-Term Temperature Increase from Time-Dependent SAR Levels with a Single Short-Term Temperature Response

Keywords

acceleration according accuracy accurate achieved adjacent allows although among appear application applied arbitrary assessment assumed assumption averaging bioengineering blood boxcar brief calculating capacity characterization characterize characterized coil complicated computation compute computed conductivity convolving courses cumbersome cumulative currently curve decay decays decomposed degrees density dependent described determination direct distribution divided dose duration entire entirely equal equation equations equivalent even every exam exponential exponentially fairly fast faster final finite formula full generated geometry heat heating highest impulse includes indicates individual instantaneous invariant known limited linear loaded lobe long many material measure measured minutes model models nature necessary numerical numerically occur operating patient patterns period periods power predict predicted predicting prediction predictions predictive priori proposed pulse pulses quantity rapid rapidly real reduce regular relation relationship required requires response risk safety sampled scaled schematic sequentially series short simple since soon spatial subject subscript surface taking temperature term thermal throughout tissue type typically valuable various varying