about
In vivo ultrasound thermography in presence of temperature heterogeneity and natural motions.In Vivo application and localization of transcranial focused ultrasound using dual-mode ultrasound arrays.Real-time implementation of a dual-mode ultrasound array system: in vivo results.Realtime control of multiple-focus phased array heating patterns based on noninvasive ultrasound thermography.Adaptive transthoracic refocusing of dual-mode ultrasound arraysReal-time 2-D temperature imaging using ultrasound.Imaging with concave large-aperture therapeutic ultrasound arrays using conventional synthetic-aperture beamformingUltrasound-guided therapeutic focused ultrasound: current status and future directions.Nonlinear Imaging of Microbubble Contrast Agent Using the Volterra Filter: In Vivo Results.Anatomical-based model for simulation of HIFU-induced lesions in atherosclerotic plaques.Real-time two-dimensional temperature imaging using ultrasound.Feasibility of targeting atherosclerotic plaques by high-intensity-focused ultrasound: an in vivo study.Two-step hybrid virtual array ray (VAR) technique for focusing through the rib cage.A 2D post-beamforming filter for contrast restoration in medical ultrasound: in vivo results.Noninvasive estimation of tissue temperature via high-resolution spectral analysis techniques.High-intensity focused ultrasound for potential treatment of polycystic ovary syndrome: toward a noninvasive surgery.Monitoring and guidance of HIFU beams with dual-mode ultrasound arrays.Enhancement of tumor thermal therapy using gold nanoparticle-assisted tumor necrosis factor-alpha delivery.Multipoint temperature control during hyperthermia treatments: theory and simulation.Dynamic focusing in ultrasound hyperthermia treatments using implantable hydrophone arrays.Blocked element compensation in phased array imaging.Real-time Ultrasound Thermography and ThermometryOptimization of the intensity gain of multiple-focus phased-array heating patternsNoninvasive estimation of tissue temperature response to heating fields using diagnostic ultrasoundMode scanning: heating pattern synthesis with ultrasound phased arraysNew piezoelectric transducers for therapeutic ultrasoundExperimental evaluation of a prototype cylindrical section ultrasound hyperthermia phased-array applicatorEffect of phase errors on field patterns generated by an ultrasound phased-array hyperthermia applicatorComputationally efficient algorithms for control of ultrasound phased-array hyperthermia applicators based on a pseudoinverse methodA cylindrical-section ultrasound phased-array applicator for hyperthermia cancer therapyMultiple-focus ultrasound phased-array pattern synthesis: optimal driving-signal distributions for hyperthermiaGuest editorial to the special letters issue on therapeutic ultrasound: trends at the leading-edgeGuest editorial to the special issue on therapeutic ultrasound: current status and future directionsPrecision Targeted Ablation of Fine Neurovascular Structures In Vivo Using Dual-mode Ultrasound Arrays
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Q30392217-62C1896C-C62D-4EA2-93F9-C805C04E5F18Q30395756-295E8C61-B5C3-4AD1-B217-E85EBB7C1DB2Q30448651-C217015E-0341-466B-BF90-ECF7FC975E1AQ30471750-B95D4C8B-50CA-4AD1-A95F-18CE694F4365Q30480905-088A7468-BD57-44AF-AC34-454A9C6EF4A9Q30482558-72873E11-1761-4868-A32A-6868D7671385Q30489140-08CF63AD-4E5A-4398-A48C-08B36CC54E70Q30885661-9D89E50E-B7D1-4DFB-8140-602D5A5F1B2CQ39321118-D9E9207E-8842-4449-BD03-B7B354982BCDQ41071338-2D3038BA-ED6A-4FD6-8CA2-8D78C107283DQ43426910-2E43C945-F0FB-4442-904F-153F2E6E6A14Q43916496-049830AC-7491-4EC3-B9A2-B36E0D5D1AD0Q48362315-18CBAC28-D936-467A-A5B3-95D1DC4C421FQ48829984-B87EFB1E-BF0E-4E6E-BEE8-EC9EDFDBD00FQ48954440-BE15D3E7-6D4D-4ED5-94A6-E90F13FA85A5Q50243495-88C72766-AB44-4FC6-87FB-567C70605598Q50247475-A6854D84-F3AC-40D4-936A-0AC08112B0DAQ51214262-5B9B5963-1ACF-47F7-BCC7-27F6C236FB3FQ52334403-8CD8B14D-3E53-4584-8474-08621AE3A731Q52383643-36CA7A2B-F5EF-4117-ADDC-0158C6B02AAAQ52402916-001873D3-E196-4F7A-89DC-E31BA48664D0Q57147793-AFBBA783-5210-4A89-B8A3-49C9A09E4151Q67880736-DB011B89-05A7-4CEE-A9C4-EE1C84764CD6Q71976490-B126C765-83F5-4AD6-B283-782709670E89Q72727912-CBEDFB71-999D-42D7-A0B8-1F810F108461Q73476830-AD64DD43-5C85-486E-B244-4A8084BAB775Q80680606-7252DED1-7AFF-4986-980F-B611A0A89658Q80680614-225322B8-6B4A-440B-AA2A-4D907CDAEA6AQ80731967-33F68D0E-776D-4E8C-A2EC-0AF1BC25FAB7Q80746085-DD969F33-E92E-4BC9-B5F8-5A6AF1523877Q80746164-F4522822-BFEB-4CEE-824A-E0D6292C49B7Q82510234-9E2BF227-DD74-445A-A48A-C7EA6E2A580AQ82510240-68C98E35-12B5-4D22-9008-3A4DE0AB4A63Q96230614-86A462DD-BE47-4E26-871B-F85CEAC9BDC6
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description
onderzoeker
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researcher
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հետազոտող
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name
Emad S. Ebbini
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Emad S. Ebbini
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Emad S. Ebbini
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Emad S. Ebbini
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Emad S. Ebbini
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Emad S. Ebbini
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Emad S. Ebbini
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Emad S. Ebbini
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Emad S. Ebbini
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Emad S. Ebbini
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Emad S. Ebbini
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Emad S. Ebbini
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Emad S. Ebbini
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Emad S. Ebbini
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Emad S. Ebbini
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P106
P1153
7005935683
P31
P496
0000-0003-1334-5502