For human head magnetic resonance imaging at 10.5 tesla (T), we built an 8-channel transceiver dipole antenna array and evaluated the influence of coaxial feed cables. The influence of coaxial feed cables was evaluated in simulation and compared against a physically constructed array in terms of transmit magnetic field (B1+) and specific absorption rate (SAR) efficiency. A substantial drop (23.1% in simulation and 20.7% in experiment) in B1+ efficiency was observed with a tight coaxial feed cable setup. For the investigation of the feed location, the center-fed dipole antenna array was compared to two 8-channel end-fed arrays: monopole and sleeve antenna arrays. The simulation results with a phantom indicate that these arrays achieved ~24% ...
Ultra-high field (UHF, ≥7 T) tight fit transceiver phased arrays improve transmit (Tx) efficiency (B...
We developed a novel 9.4T (400MHz) human head transceiver array consisted of 8 optimized bent folded...
The advancement of clinical applications of ultrahigh field (UHF) MRI depends heavily on advances in...
For ultra-high field and frequency (UHF) magnetic resonance imaging (MRI), the associated short wave...
Purpose: To improve the receive (Rx) performance of a human head transceiver (TxRx) array at 9.4T wi...
Improvement of signal-to-noise ratio (SNR) is a critical step in designing any MRI radio frequency (...
Objective To evaluate the transmit efficiency and specific absorption rate (SAR) efficiency of a new...
Purpose/Introduction: In this study we present an optimized 8-channel transmit-receive head coil arr...
Objective To evaluate the transmit efficiency and specific absorption rate (SAR) efficiency of a new...
Purpose/Introduction: In this study we present an optimized 8-channel transmit-receive head coil arr...
Ultra-high-field (UHF, ≥7 T) human magnetic resonance imaging (MRI) provides undisputed advantages o...
MRI at ultra-high field (UHF, ≥7 T) provides a natural strategy for improving the quality of X-nucle...
Ultra-high-field (UHF, ≥7 T) human magnetic resonance imaging (MRI) provides undisputed advantages o...
PURPOSE:Ultra-high field magnetic resonance imaging poses a number of challenges for robust radio fr...
Ultra-high field (UHF, ≥7 T) tight fit transceiver phased arrays improve transmit (Tx) efficiency (B...
Ultra-high field (UHF, ≥7 T) tight fit transceiver phased arrays improve transmit (Tx) efficiency (B...
We developed a novel 9.4T (400MHz) human head transceiver array consisted of 8 optimized bent folded...
The advancement of clinical applications of ultrahigh field (UHF) MRI depends heavily on advances in...
For ultra-high field and frequency (UHF) magnetic resonance imaging (MRI), the associated short wave...
Purpose: To improve the receive (Rx) performance of a human head transceiver (TxRx) array at 9.4T wi...
Improvement of signal-to-noise ratio (SNR) is a critical step in designing any MRI radio frequency (...
Objective To evaluate the transmit efficiency and specific absorption rate (SAR) efficiency of a new...
Purpose/Introduction: In this study we present an optimized 8-channel transmit-receive head coil arr...
Objective To evaluate the transmit efficiency and specific absorption rate (SAR) efficiency of a new...
Purpose/Introduction: In this study we present an optimized 8-channel transmit-receive head coil arr...
Ultra-high-field (UHF, ≥7 T) human magnetic resonance imaging (MRI) provides undisputed advantages o...
MRI at ultra-high field (UHF, ≥7 T) provides a natural strategy for improving the quality of X-nucle...
Ultra-high-field (UHF, ≥7 T) human magnetic resonance imaging (MRI) provides undisputed advantages o...
PURPOSE:Ultra-high field magnetic resonance imaging poses a number of challenges for robust radio fr...
Ultra-high field (UHF, ≥7 T) tight fit transceiver phased arrays improve transmit (Tx) efficiency (B...
Ultra-high field (UHF, ≥7 T) tight fit transceiver phased arrays improve transmit (Tx) efficiency (B...
We developed a novel 9.4T (400MHz) human head transceiver array consisted of 8 optimized bent folded...
The advancement of clinical applications of ultrahigh field (UHF) MRI depends heavily on advances in...