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Modern Diagnostic X-Ray Sources (2nd Ed.) Technology, Manufacturing, Reliability

Langue : Anglais

Auteur :

Couverture de l’ouvrage Modern Diagnostic X-Ray Sources

Now fully updated, the second edition ofModern Diagnostic X-Ray Sources: Technology, Manufacturing, Reliabilitygives an up-to-date summary of X-ray source technology and design for applications in modern diagnostic medical imaging. It lays a sound groundwork for education and advanced training in the physics of X-ray production, X-ray interactions with matter, and imaging modalities and assesses their prospects. The book begins with a comprehensive and easy-to-read historical overview of X-ray tube and generator development, including key achievements leading up to the current technological and economic state of the field.

The book covers the physics of X-ray generation, including the process of constructing X-ray source devices. The stand-alone chapters can be read in order or in selections. They take you inside diagnostic X-ray tubes, illustrating their design, functions, metrics for validation, and interfaces. The detailed descriptions enable objective comparison and benchmarking.

This detailed presentation of X-ray tube creation and functions enables you to understand how to optimize tube efficiency, particularly with consideration for economics and environmental care. It also simplifies faultfinding. Along with covering the past and current state of the field, the book assesses the future regarding developing new X-ray sources that can enhance performance and yield greater benefits to the scientific community and to the public.

After heading international R&D, marketing and advanced development for X-ray sources with Philips, and working in the X-ray industry for more than four decades, Rolf Behling retired in 2020 and is now the owner of the consulting firm XtraininX, Germany. He holds numerous patents and is continuously publishing, consulting and training.

1 Historical introduction and survey2 Physics of generation of bremsstrahlung3 The interaction of X-ray with matter 4 More background on medical imaging 5 Imaging modalities and challenges 6 Diagnostic X-ray sources from the inside7 Housings, system interfacing, and auxiliary equipment8 The source of power9 Manufacturing, service, and tube replacement 10 X-ray source development for medical imaging

Academic and Professional Practice & Development

Rolf Behling holds a diploma in physics from the University of Hamburg, Germany. During more than 30 years in the medical industry he has held many positions, including department head of tube technology development, global project coordination manager, global innovation manager, head of marketing and field support for X-ray tubes, department head for X-ray tube development, project manager, and process physicist. The first spiral-groove-bearing X-ray tube was developed under his leadership. He currently heads the Philips Group for Advanced Development of X-ray Tubes and X-ray Generators at Philips HealthTech in Hamburg. He is a part-time lecturer at the University of Hamburg and has written numerous patents and publications in vacuum technology and medical imaging.

Date de parution :

17.8x25.4 cm

Disponible chez l'éditeur (délai d'approvisionnement : 14 jours).

77,28 €

Ajouter au panier

Date de parution :

17.8x25.4 cm

Disponible chez l'éditeur (délai d'approvisionnement : 14 jours).

190,51 €

Ajouter au panier

Mots-clés :

X-ray Tube; Tube Voltage; Advanced development; Focal Spot; Angiography; Tube Current; Angular momentum; Anode Angle; Anode; High Voltage Generator; Anode track; Line Spread Functions; Ball bearing; Rotating Anode Tube; Bearing; Exposure Times; Bouwers tube; Anode Tube; Bremsstrahlung; Medical X-ray Tube; Carbon nano tubes; General Radiography; Cathode; X-ray Sources; Ceramics; X-ray Tube Assembly; Characteristic radiation; High Voltage Cable; Computed tomography; Backscattered Electrons; Coolidge tube; Siemens Healthineers; Development process; Point Spread Function; Distributed sources; Spectral CT; Dose control; CT System; Electron beam; DTS; Field emission; Rotating Anode; Fixed anode tube; Focal Track; Tube Frame; Focal spot deflection; Thomson Scattering; Focusing; Gas pressure; Goetze focus; Grid switching; Gyroscopic forces; Half value layer; Hazards; Heat conduction; Heat convection; Heat dissipation; Heat exchanger; Heat Units; Heel effect; High-voltage generator; High-voltage ripple; Image guided therapy; Image noise; Image quality; Interventional X-ray; Inverse geometry; Ion tube; Isowatt point; kVp switching; Laser wakefield sources; Leakage radiation protection; Line focus; Line spread function; Liquid bearing; Magnetic bearings; Metal-ceramics; Modulation transfer function; Molybdenum; Phase contrast imaging; Photoeffect; Preparation time; Reconditioning; Recycling; Reflection target; Reliability; Roentgen; Rotating frame tube; Space charge; Spatial frequency; Spatial resolution; Spectral detection; Spectral imaging; Spiral groove bearing; Start-up time; Stationary anode tube; Surface flash over; Thermal management; Thermionic emission; Thermomechanics; Tomosynthesis; Transparent target; Tube life; Tungsten; Vacuum arc; Vacuum bearing; Vacuum discharge; Vacuum electronics; Vacuum quality; Voltage surge; Warm-up; Warranty; X-rays; X-ray beam quality; X-ray dose; X-ray lens; X-ray scattering; X-ray segment; X-ray source; X-ray system; X-ray target