Purpose: To improve the receive (Rx) performance of a human head transceiver (TxRx) array at 9.4T without compromising its transmit (Tx) performance, a novel 16‐element array was developed, constructed, and tested. Methods: We designed and constructed a phased array, which consists of 8 TxRx surface loops placed in a single row and circumscribing a head, and 8 Rx‐only short folded dipole antennas. Dipoles were positioned along the central axis of each transceiver loop perpendicular to its surface. We evaluated the effect of Rx dipoles on the Tx efficiency of the array and maximum local specific absorption rate (SAR) as compared to the array of 8 surface loops only. We also compared the new array to a 16‐channel array of the same size consis...
For ultra-high field and frequency (UHF) magnetic resonance imaging (MRI), the associated short wave...
Tight-fit human head ultra-high field (UHF,>7T) transceiver (TxRx) surface loop phased arrays improv...
We developed a novel 9.4T (400MHz) human head transceiver array consisted of 8 optimized bent folded...
Increasing the number of surface loops in a human head receive (Rx)-array improves the peripheral SN...
Improvement of signal-to-noise ratio (SNR) is a critical step in designing any MRI radio frequency (...
Purpose/Introduction: Tight-fit human head ultra-high field (UHF, C7T) transceiver (TxRx) surface lo...
Purpose/Introduction: Tight-fit human head ultra-high field (UHF, C7T) transceiver (TxRx) surface lo...
Ultra-high-field (UHF, ≥7 T) human magnetic resonance imaging (MRI) provides undisputed advantages o...
Ultra-high-field (UHF, ≥7 T) human magnetic resonance imaging (MRI) provides undisputed advantages o...
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...
For human head magnetic resonance imaging at 10.5 tesla (T), we built an 8-channel transceiver dipol...
Purpose: To provide transmit whole-brain coverage at 9.4 T using an array with only eight elements a...
The advancement of clinical applications of ultrahigh field (UHF) MRI depends heavily on advances in...
Tight-fit human head ultra-high field (UHF,>7T) transceiver (TxRx) surface loop phased arrays improv...
For ultra-high field and frequency (UHF) magnetic resonance imaging (MRI), the associated short wave...
Tight-fit human head ultra-high field (UHF,>7T) transceiver (TxRx) surface loop phased arrays improv...
We developed a novel 9.4T (400MHz) human head transceiver array consisted of 8 optimized bent folded...
Increasing the number of surface loops in a human head receive (Rx)-array improves the peripheral SN...
Improvement of signal-to-noise ratio (SNR) is a critical step in designing any MRI radio frequency (...
Purpose/Introduction: Tight-fit human head ultra-high field (UHF, C7T) transceiver (TxRx) surface lo...
Purpose/Introduction: Tight-fit human head ultra-high field (UHF, C7T) transceiver (TxRx) surface lo...
Ultra-high-field (UHF, ≥7 T) human magnetic resonance imaging (MRI) provides undisputed advantages o...
Ultra-high-field (UHF, ≥7 T) human magnetic resonance imaging (MRI) provides undisputed advantages o...
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...
For human head magnetic resonance imaging at 10.5 tesla (T), we built an 8-channel transceiver dipol...
Purpose: To provide transmit whole-brain coverage at 9.4 T using an array with only eight elements a...
The advancement of clinical applications of ultrahigh field (UHF) MRI depends heavily on advances in...
Tight-fit human head ultra-high field (UHF,>7T) transceiver (TxRx) surface loop phased arrays improv...
For ultra-high field and frequency (UHF) magnetic resonance imaging (MRI), the associated short wave...
Tight-fit human head ultra-high field (UHF,>7T) transceiver (TxRx) surface loop phased arrays improv...
We developed a novel 9.4T (400MHz) human head transceiver array consisted of 8 optimized bent folded...