Publications
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Reducing electromagnetic interference in MR thermometry: A comparison of setup configurations for MR-guided microwave ablations
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Read more →: Reducing electromagnetic interference in MR thermometry: A comparison of setup configurations for MR-guided microwave ablationsMagnetic Resonance (MR) thermometry is used for the monitoring of MR-guided microwave ablations (MWA), and for the intraoperative evaluation of ablation regions. Nevertheless, the accuracy of temperature mapping may be compromised by electromagnetic interference emanating from the microwave (MW) generator. This study evaluated different setups for improving magnetic resonance imaging (MRI) during MWA with a…
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Reducing electromagnetic interference in MR thermometry: A comparison of setup configurations for MR-guided microwave ablations
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Read more →: Reducing electromagnetic interference in MR thermometry: A comparison of setup configurations for MR-guided microwave ablationsMagnetic Resonance (MR) thermometry is used for the monitoring of MR-guided microwave ablations (MWA), and for the intraoperative evaluation of ablation regions. Nevertheless, the accuracy of temperature mapping may be compromised by electromagnetic interference emanating from the microwave (MW) generator. This study evaluated different setups for improving magnetic resonance imaging (MRI) during MWA with a…
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MRI-compatible abdomen phantom to mimic respiratory-triggered organ movement while performing needle-based interventions
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Read more →: MRI-compatible abdomen phantom to mimic respiratory-triggered organ movement while performing needle-based interventionsCONCLUSION: This work presents a novel modularizable and low-cost PVA-C based APB to mimic fundamental organ motion. Beside a further organ motion analysis, an optimization of APB’s chemical composition is needed to ensure a realistic motion simulation and reproducible long-term use. This phantom enhances diverse and varied training environments for prospective physicians as well as…
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MRI-compatible abdomen phantom to mimic respiratory-triggered organ movement while performing needle-based interventions
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Read more →: MRI-compatible abdomen phantom to mimic respiratory-triggered organ movement while performing needle-based interventionsCONCLUSION: This work presents a novel modularizable and low-cost PVA-C based APB to mimic fundamental organ motion. Beside a further organ motion analysis, an optimization of APB’s chemical composition is needed to ensure a realistic motion simulation and reproducible long-term use. This phantom enhances diverse and varied training environments for prospective physicians as well as…
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MRI-compatible abdomen phantom to mimic respiratory-triggered organ movement while performing needle-based interventions
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Read more →: MRI-compatible abdomen phantom to mimic respiratory-triggered organ movement while performing needle-based interventionsCONCLUSION: This work presents a novel modularizable and low-cost PVA-C based APB to mimic fundamental organ motion. Beside a further organ motion analysis, an optimization of APB’s chemical composition is needed to ensure a realistic motion simulation and reproducible long-term use. This phantom enhances diverse and varied training environments for prospective physicians as well as…
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MRI-compatible abdomen phantom to mimic respiratory-triggered organ movement while performing needle-based interventions
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Read more →: MRI-compatible abdomen phantom to mimic respiratory-triggered organ movement while performing needle-based interventionsCONCLUSION: This work presents a novel modularizable and low-cost PVA-C based APB to mimic fundamental organ motion. Beside a further organ motion analysis, an optimization of APB’s chemical composition is needed to ensure a realistic motion simulation and reproducible long-term use. This phantom enhances diverse and varied training environments for prospective physicians as well as…
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MRI-compatible abdomen phantom to mimic respiratory-triggered organ movement while performing needle-based interventions
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Read more →: MRI-compatible abdomen phantom to mimic respiratory-triggered organ movement while performing needle-based interventionsCONCLUSION: This work presents a novel modularizable and low-cost PVA-C based APB to mimic fundamental organ motion. Beside a further organ motion analysis, an optimization of APB’s chemical composition is needed to ensure a realistic motion simulation and reproducible long-term use. This phantom enhances diverse and varied training environments for prospective physicians as well as…
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MRI-compatible abdomen phantom to mimic respiratory-triggered organ movement while performing needle-based interventions
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Read more →: MRI-compatible abdomen phantom to mimic respiratory-triggered organ movement while performing needle-based interventionsCONCLUSION: This work presents a novel modularizable and low-cost PVA-C based APB to mimic fundamental organ motion. Beside a further organ motion analysis, an optimization of APB’s chemical composition is needed to ensure a realistic motion simulation and reproducible long-term use. This phantom enhances diverse and varied training environments for prospective physicians as well as…
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MRI-compatible abdomen phantom to mimic respiratory-triggered organ movement while performing needle-based interventions
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Read more →: MRI-compatible abdomen phantom to mimic respiratory-triggered organ movement while performing needle-based interventionsCONCLUSION: This work presents a novel modularizable and low-cost PVA-C based APB to mimic fundamental organ motion. Beside a further organ motion analysis, an optimization of APB’s chemical composition is needed to ensure a realistic motion simulation and reproducible long-term use. This phantom enhances diverse and varied training environments for prospective physicians as well as…
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MRI-compatible abdomen phantom to mimic respiratory-triggered organ movement while performing needle-based interventions
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Read more →: MRI-compatible abdomen phantom to mimic respiratory-triggered organ movement while performing needle-based interventionsCONCLUSION: This work presents a novel modularizable and low-cost PVA-C based APB to mimic fundamental organ motion. Beside a further organ motion analysis, an optimization of APB’s chemical composition is needed to ensure a realistic motion simulation and reproducible long-term use. This phantom enhances diverse and varied training environments for prospective physicians as well as…