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From Philips Medical Systems;
'Clinicians are demanding smaller, higher performing systems specifically designed to meet their clinical and operational challenges. The new Philips HD11 system provides an uncompromising platform, plus advanced options in a highly mobile and easy-to-use system.'
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Device Information and Specification |
| APPLICATIONS |
Abdominal, cardiac (also for adults with TEE), musculoskeletal (also pediatric), OB/GYN, prostate, small
parts, transcranial, vascular |
| CONFIGURATION |
17" high resolution non-interlaced flat CRT, 4 active probe ports |
| RANGE OF PROBE TYPE |
Multi-frequency, 4D, convex - micro convex, phased array, linear, specialty |
| TRANSDUCERS |
LOGIQ 7 Probes |
| IMAGING MODES |
B-mode, M-mode, coded harmonic imaging, color flow mode (CFM), power Doppler imaging (PDI), color Doppler, pulsed wave Doppler, tissue harmonic imaging |
| IMAGING OPTIONS |
CrossXBeam spatial compounding, coded ultrasound acquisition),speckle reduction imaging (SRI), TruScan technology store raw data, CINE review with 4 speed types |
| OPTIONAL PACKAGE |
Transesophageal scanning, stress echo, tissue velocity imaging (TVI), tissue velocity Doppler (TVD), contrast harmonic imaging |
| STORAGE, CONNECTIVITY, OS |
Patient and image archive, HDD, DICOM 3.0, CD/DVD, MOD, Windows-based |
| DATA PROCESSING |
Digital beamformer with 1024 system processing channel technology |
| H*W*D m (inch.) |
1.62 * 0.61 * 0.99 (64 * 24 * 39) |
| WEIGHT |
246 kg (498 lbs.) |
| POWER CONSUMPTION |
less than 1.5 KVA |
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• View the news results for 'HD11' (3).
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From Hitachi Medical Corporation (HMC), sales, marketing and service in the US by Hitachi Medical Systems America Inc.
The HI VISION™ 5500 - EUB-5500 fully digital ultrasound system delivers the latest generation of signal processing technology, sophisticated transducer design, and a host of features and options for advanced imaging capabilities across a wide range of clinical situations. This system is compatible with all Pentax ultrasound endoscopes.
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Device Information and Specification |
| APPLICATIONS |
Abdominal, brachytherapy/cryotherapy, breast, cardiac, dedicated biopsy, endoscopic, intraoperative, laparoscopic, musculoskeletal, OB/GYN, pediatric, small parts, urologic, vascular |
| CONFIGURATION |
Compact system |
| TRANSDUCERS |
Five frequency (except mini-probes) |
| RANGE OF PROBE TYPE |
Linear, convex, radial, miniradial/miniprobe, biplane, phased array, echoendoscope longitudinal, echoendoscope radial |
| PROBE FREQUENCIES |
Linear: 5.0-13 MHz, convex: 2.5-7.5 MHz, phased:
2.0-7.5 MHz, sector: 2.0-7.5 MHz |
| IMAGING MODES |
3 modes of dynamic tissue harmonic imaging (dTHI), pulsed wave Doppler, continuous wave Doppler, color flow imaging, power Doppler, directional power Doppler, color flow angiography, real-time Doppler measurements |
| IMAGING OPTIONS |
3RD generation color artifact suppression |
| OPTIONAL PACKAGE |
3D imaging, dual omni-directional M-mode display, steerable CW Doppler, Pentax EUS and Fujinon Mini-probe |
| STORAGE, CONNECTIVITY, OS |
Patient and image database management system, HDD, FDD, MOD, CD-ROM, Network, DICOM 3.0, Windows XP |
| DATA PROCESSING |
12 bit gigasampling A/D for precise signal reproduction, Quadra beam processing for fast frame rates |
| H*W*D m (inch.) |
1.40 x 0.51 x 0.79 (55 x 20 x 31) |
| WEIGHT |
130 kg (286 lbs.) |
| POWER CONSUMPTION |
1.2kVA |
| ENVIRONMENTAL IMPACT |
4096 btu/hr heat output |
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| Further Reading: | Basics:
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From Hitachi Medical Corporation (HMC), sales, marketing and service in the US by Hitachi Medical Systems America Inc.;
Powerful, flexible, and fast, the HI VISION™ 8500 - EUB-8500 diagnostic ultrasound scanner combines leading edge technologies with user-oriented operation for exceptional imaging and functionality.
Available exclusively on the 8500, SonoElastography provides a new perspective on the physical properties of tumors and masses by determining and displaying the relative stiffness of tissue.
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Device Information and Specification |
| APPLICATIONS |
Abdominal, brachytherapy/cryotherapy, breast, cardiac, dedicated biopsy, endoscopic, intraoperative, laparoscopic, musculoskeletal, OB/GYN, pediatric, small parts, urologic, vascular |
| CONFIGURATION |
Compact system |
| TRANSDUCERS |
Five frequency (except mini-probes), low impedance, wideband |
| RANGE OF PROBE TYPE |
Linear, convex, radial, biplane, phased array, echoendoscope longitudinal, echoendoscope radial |
| PROBE FREQUENCIES |
Linear: 5.0-13 MHz, convex: 2.5-7.5 MHz, phased:
2.0-7.5 MHz, sector: 2.0-7.5 MHz |
| IMAGING MODES |
4 Modes of dynamic tissue harmonic imaging (dTHI), pulsed wave Doppler, continuous wave Doppler, color flow imaging, power Doppler, directional power Doppler, color flow angiography, real-time Doppler measurements, quantitative tissue Doppler |
| IMAGING OPTIONS |
HI COMPOUND imaging,
HI RES adaptive imaging, wideband pulse inversion imaging (WPI), Raw Data Freeze |
| OPTIONAL PACKAGE |
3D imaging, steerable CW Doppler, dynamic contrast harmonics imaging, stress echo, Pentax EUS and Fujinon Mini-probe, SonoElastography imaging option |
| IMAGING ENHANCEMENTS |
3RD generation color artifact suppression |
| STORAGE, CONNECTIVITY, OS |
Patient and image database management system, HDD, FDD, MOD, CD-ROM, Network, DICOM 3.0, Windows XP |
| DATA PROCESSING |
Octal beam processing, 12 bit Gigasampling A/D for precise signal reproduction |
| H*W*D m (inch.) |
1.50 * 0.56 * 1.02 (59 x 22 x 40) |
| WEIGHT |
159 kg (351 lbs.) |
| POWER CONSUMPTION |
1.5kVA |
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| Further Reading: | | Basics:
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News & More:
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| | | Searchterm 'transducer' was also found in the following services: | | | | |
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From Hitachi Medical Corporation (HMC), sales, marketing and service in the US by Hitachi Medical Systems America Inc.;
The HI VISION™ 6500 - EUB-6500 high resolution digital ultrasound system offers advanced clinical imaging, enhanced operating efficiency, and remarkable clinical flexibility, all in robust and versatile configuration that simply represents a better clinical solution in a variety of real-world, real-work arenas. |
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Device Information and Specification |
| APPLICATIONS |
Abdominal, brachytherapy/cryotherapy, breast, cardiac, dedicated biopsy, endoscopic, intraoperative, laparoscopic, musculoskeletal, OB/GYN, pediatric, small parts, urologic, vascular |
| CONFIGURATION |
Compact system |
| TRANSDUCERS |
Five frequency (except mini-probes), low impedance, wideband |
| RANGE OF PROBE TYPE |
Linear, convex, radial, miniradial/miniprobe, biplane, phased array, echoendoscope longitudinal, echoendoscope radial |
| PROBE FREQUENCIES |
Linear: 5.0-13 MHz, convex: 2.5-7.5 MHz, phased:
2.0-7.5 MHz, sector: 2.0-7.5 MHz |
| IMAGING MODES |
Tissue Doppler imaging (TDI), pulsed wave Doppler, continuous wave Doppler, color flow imaging, power Doppler, directional power Doppler, color flow angiography, real-time Doppler measurements, 4 modes of dynamic tissue harmonic imaging (dTHI), wideband pulse inversion imaging (WPI) |
| IMAGING OPTIONS |
3RD generation color artifact suppression |
| OPTIONAL PACKAGE |
3D ultrasound, dual omni-directional M-mode display, steerable CW Doppler, dynamic contrast harmonics imaging, stress echo, Pentax EUS and Fujinon Mini-probe |
| STORAGE, CONNECTIVITY, OS |
Patient and image database management system, HDD, FDD, MOD, CD-ROM, Network, DICOM 3.0, Windows XP |
| DATA PROCESSING |
12 bit gigasampling A/D for precise signal reproduction, Quadra beam processing for fast frame rates |
| H*W*D m (inch.) |
1.40 x 0.51 x 0.79 (55 x 20 x 31) |
| WEIGHT |
130 kg (286 lbs.) |
| POWER CONSUMPTION |
1.2kVA |
| ENVIRONMENTAL POLLUTION |
4096 btu/hr heat output |
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US Resources |
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In 1880 the Curie brothers discovered the piezoelectric effect in quartz. Converse piezoelectricity was mathematically deduced from fundamental thermodynamic principles by Lippmann in 1881. |
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In 1917, Paul Langevin (France) and his coworkers developed an underwater sonar system (called hydrophone) that uses the piezoelectric effect to detect submarines through echo location.
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In 1935, the first RADAR system was produced by the British physicist Robert Watson-Wat. Also about 1935, developments began with the objective to use ultrasonic power therapeutically, utilizing its heating and disruptive effects on living tissues. In 1936, Siemens markets the first ultrasonic therapeutic machine, the Sonostat. |
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Shortly after the World War II, researchers began to explore medical diagnostic capabilities of ultrasound. Karl Theo Dussik (Austria) attempted to locate the cerebral ventricles by measuring the transmission of ultrasound beam through the skull. Other researchers try to use ultrasound to detect gallstones, breast masses, and tumors. These first investigations were performed with A-mode. |
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Shortly after the World War II, researchers in Europe, the United States and Japan began to explore medical diagnostic capabilities of ultrasound. Karl Theo Dussik (Austria) attempted to locate the cerebral ventricles by measuring the transmission of ultrasound beam through the skull. Other researchers, e.g. George Ludwig (United States) tried to use ultrasound to detect gallstones, breast masses, and tumors. This first experimentally investigations were performed with A-mode. Ultrasound pioneers contributed innovations and important discoveries, for example the velocity of sound transmission in animal soft tissues with a mean value of 1540 m/sec (still in use today), and determined values of the optimal scanning frequency of the ultrasound transducer. |
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In the early 50`s the first B-mode images were obtained. Images were static, without gray-scale information in simple black and white and compound technique. Carl Hellmuth Hertz and Inge Edler (Sweden) made in 1953 the first scan of heart activity. Ian Donald and Colleagues (Scotland) were specialized on obstetric and gynecologic ultrasound research. By continuous development it was possible to study pregnancy and diagnose possible complications. |
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After about 1960 two-dimensional compound procedures were developed. The applications in obstetric and gynecologic ultrasound boomed worldwide from the mid 60’s with both, A-scan and B-scan equipment. In the late 60’s B-mode ultrasonography replaced A-mode in wide parts. |
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In the 70’s gray scale imaging became available and with progress of computer technique ultrasonic imaging gets better and faster. |
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After continuous work, in the 80’s fast realtime B-mode gray-scale imaging was developed. Electronic focusing and duplex flow measurements became popular. A wider range of applications were possible. |
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In the 90’s, high resolution scanners with digital beamforming, high transducer frequencies, multi-channel focus and broad-band transducer technology became state of the art. Optimized tissue contrast and improved diagnostic accuracy lead to an important role in breast imaging and cancer detection. Color Doppler and Duplex became available and sensitivity for low flow was continuously improved. |
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Actually, machines with advanced ultrasound system performance are equipped with realtime compound imaging, tissue harmonic imaging, contrast harmonic imaging, vascular assessment, matrix array transducers, pulse inversion imaging, 3D and 4D ultrasound with panoramic view. |
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