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1

A, Nowak Michael, and United States. National Aeronautics and Space Administration., eds. X-ray variability coherence: How to compute it, what it means, and how it constrains models of GX 339-4 and Cygnus X-1. [Washington, DC: National Aeronautics and Space Administration, 1997.

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A, Nowak Michael, and United States. National Aeronautics and Space Administration., eds. X-ray variability coherence: How to compute it, what it means, and how it constrains models of GX 339-4 and Cygnus X-1. [Washington, DC: National Aeronautics and Space Administration, 1997.

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3

A, Nowak Michael, and United States. National Aeronautics and Space Administration., eds. X-ray variability coherence: How to compute it, what it means, and how it constrains models of GX 339-4 and Cygnus X-1. [Washington, DC: National Aeronautics and Space Administration, 1997.

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4

United States. National Aeronautics and Space Administration., ed. X-ray inverse Compton emission from the radio halo of M87: A thesis in astronomy. [University Park, Pa.]: Pennsylvania State University, The Graduate School, Dept. of Astronomy, 1985.

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5

Marenkov, O. S. Handbook of photon interaction coefficients in radioisotope-excited x-ray fluorescence analysis. New York: Nova Science Publishers, 1991.

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6

Hansson, Conny, and Krzysztof Iniewski, eds. X-ray Photon Processing Detectors. Cham: Springer International Publishing, 2024. http://dx.doi.org/10.1007/978-3-031-35241-6.

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7

NATO Advanced Research Workshop on Electron-photon Interaction in Dense Media (2001 Yerevan, Armenia). Electron-photon interaction in dense media. Dordrecht: Kluwer Academic, 2002.

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8

Fraser, G. W. X-ray detectors in astronomy. Cambridge: Cambridge University Press, 1989.

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9

Fraser, G. W. X-ray detectors in astronomy. Cambridge [England]: Cambridge University Press, 1989.

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10

Landis, Tony. X-15 photo scrapbook. North Branch, Minn: Specialty, 2003.

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11

Hayashi, Hiroaki, Natsumi Kimoto, Takashi Asahara, Takumi Asakawa, Cheonghae Lee, and Akitoshi Katsumata. Photon Counting Detectors for X-ray Imaging. Cham: Springer International Publishing, 2021. http://dx.doi.org/10.1007/978-3-030-62680-8.

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12

Fraser, G. W. X-ray detectors in astronomy. Cambridge: Cambridge University Press, 2009.

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13

Foton Fakutorī Kenkyūkai (2001 KEK). Heisei 13-nendo PF Kenkyūkai "X-sen chūseishi hansharitsuhō ni yoru hakumaku tasōmaku no kōzō kaiseki": X-ray and neutron reflectivity studies on thin films and multilayers : KEK, Tsukuba, Japan, December 21-22, 2001. [Tsukuba-shi]: High Energy Accelerator Research Organization, 2002.

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14

Calder, Julian. La Photo 24 x 36. Paris: France Loisirs, 1989.

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15

Buzug, Thorsten M. Computed tomography: From photon statistics to modern cone-beam CT. Berlin: Springer, 2008.

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16

United States. National Aeronautics and Space Administration., ed. X ray microscope for solidification studies. [Washington, DC: National Aeronautics and Space Administration, 1995.

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17

Filatova, E. O. X-ray optics and inner-shell electronics of hexagonal BN. Hauppauge, N.Y: Nova Science Publishers, 2011.

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18

1924-, Hosoya Sukeaki, Iitaka Yōichi 1927-, and Hashizume H. 1940-, eds. X-ray instrumentation for the photon factory: Dynamic analyses of micro structures in matter. Tokyo: KTK Scientific Publishers, 1986.

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19

Davis, Lucile. Malcolm X: A photo-illustrated biography. Mankato, MN: Bridgestone Books, 1998.

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20

Hasegawa, Bruce H. The Physics of medical x-ray imaging: Or the photon and me ; how I saw the light. 2nd ed. Madison, Wis: Medical Physics, 1991.

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21

Fanti, Stefano. Atlas of SPECT-CT. Berlin: Springer, 2011.

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22

Washington (State). Dept. of Ecology. and Washington (State). Hazardous Waste and Toxics Reduction Program., eds. Photo and x-ray processing environmental competency. Olympia, Wash: Dept. of Ecology, Hazardous Waste and Toxics Reduction Program, 1997.

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23

Washington (State). Dept. of Ecology. and Washington (State). Hazardous Waste and Toxics Reduction Program., eds. Photo and x-ray processing environmental competency. Olympia, Wash: Dept. of Ecology, Hazardous Waste and Toxics Reduction Program, 1997.

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24

Foton Fakutorī Kenkyūkai (1998 KEK). Foton Fakutorī Kenkyūkai: Kōkido kōgen o riyōshita X-sen yōeki sanran no tenbō, shinkōso kaisekkei no yakuwari : kōen yōshishū : nichiji Heisei 10-nen 12-gatsu 18-nichi--19-nichi, basho Kō-enerugī Kasokuki Kenkyū Kikō ... [Tsukuba-shi]: High Energy Accelerator Research Organization, 1999.

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25

Foton Fakutorī Kenkyūkai (1998 KEK). X-sen niji kōgaku katei no genjō to kongo no hatten: Foton Fakutorī Kenkyūkai hōkoku = X-ray second-order photo-excitaion process, current status and future development : KEK, Tsukuba, Japan, 17th and 18th, December 1998. [Tsukuba-shi]: High Energy Accelerator Research Organization, 1999.

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26

Chang, Zenghu. Ultrafast x-ray sources and detectors. [S.l.]: Spie, 2007.

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27

Calif.) Nanophotonic Materials (Conference) (10th 2013 San Diego. Nanophotonic Materials X: 28-29 August 2013, San Diego, California, United States. Edited by Cabrini Stefano, Mokari Taleb, and SPIE (Society). Bellingham, Washington: SPIE, 2013.

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28

Míguez, Hernán R. Photonic crystal materials and devices X: 16-19 April 2012, Brussels, Belgium. Edited by SPIE (Society), B.-PHOT-Brussels Photonics Team, and Society of Photo-optical Instrumentation Engineers. Bellingham, Washington: SPIE, 2012.

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29

Killey, Myrna M. Geotechnical site investigation for an advanced photon source at Argonne National Laboratory, Illinois. Champaign, IL: Illinois State Geological Survey, 1994.

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30

Nars, François. X-ray. New York: powerHouse Books, 1999.

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31

Szczygieł, Robert. Szybkie, wielokanałowe układy scalone pracujące w trybie zliczania pojedynczych fotonów w systemach detekcji niskoenergetycznego promieniowania X: Fast, multichannel ASICs working in the single-photon-counting mode in soft X-ray detection systems. Kraków: Wydawnictwa AGH, 2012.

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32

X-ray variability coherence: How to compute it, what it means, and how it constrains models of GX 339-4 and Cygnus X-1. [Washington, DC: National Aeronautics and Space Administration, 1997.

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33

Sabharwal, Nikant, Chee Yee Loong, and Andrew Kelion. Radiation physics, biology, and protection. Oxford University Press, 2011. http://dx.doi.org/10.1093/med/9780199206445.003.0002.

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Atoms and nuclei 10Radioactive decay 12Statistics of radioactive decay 14Interaction of X-ray and γ‎ photons with matter 16Dosimetry of radiation exposure 18Biological effects of radiation exposure 20Principles of radiation protection 22Radiation protection of staff 24Production of radionuclides ...
34

Tiwari, Sandip. Electromagnetic-matter interactions and devices. Oxford University Press, 2017. http://dx.doi.org/10.1093/oso/9780198759874.003.0006.

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This chapter explores electromagnetic-matter interactions from photon to extinction length scales, i.e., nanometer of X-ray and above. Starting with Casimir-Polder effect to understand interactions of metals and dielectrics at near-atomic distance scale, it stretches to larger wavelengths to explore optomechanics and its ability for energy exchange and signal transduction between PHz and GHz. This range is explored with near-quantum sensitivity limits. The chapter also develops the understanding phononic bandgaps, and for photons, it explores the use of energetic coupling for useful devices such as optical tweezers, confocal microscopes and atomic clocks. It also explores miniature accelerators as a frontier area in accelerator physics. Plasmonics—the electromagnetic interaction with electron charge cloud—is explored for propagating and confined conditions together with the approaches’ possible uses. Optoelectronic energy conversion is analyzed in organic and inorganic systems, with their underlying interaction physics through solar cells and its thermodynamic limit, and quantum cascade lasers.
35

Sabharwal, Nikant, Parthiban Arumugam, and Andrew Kelion. Radiation physics, biology, and protection. Oxford University Press, 2017. http://dx.doi.org/10.1093/med/9780198759942.003.0002.

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This chapter explains the basics of radiation physics, including an explanatory section on atoms and nuclei, and detail on radioactive decay including statistics. The interaction of X-ray and gamma photons with matter is also explained. Detail is provided on radiation exposure, including acute and late biological effects, and the principles and practical applications of radiation protection. A section on key UK legislation relevant to nuclear cardiology lists important medicines regulations and acts relating to radioactive substances.
36

Iniewski, Krzysztof, and Jan S. Iwanczyk. Radiation Detection Systems: Sensor Materials, Systems, Technology and Characterization Measurements. Taylor & Francis Group, 2021.

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37

Iniewski, Krzysztof, and Jan Iwanczyk. Radiation Detection Systems: Medical Imaging, Industrial Testing and Security Applications. Taylor & Francis Group, 2021.

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38

Iniewski, Krzysztof, and Jan Iwanczyk. Radiation Detection Systems: Medical Imaging, Industrial Testing and Security Applications. Taylor & Francis Group, 2021.

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39

Iniewski, Krzysztof, and Jan S. Iwanczyk. Radiation Detection Systems. Taylor & Francis Group, 2021.

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40

Iniewski, Krzysztof, and Jan Iwanczyk. Radiation Detection Systems: Two Volume Set. Taylor & Francis Group, 2021.

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41

Iniewski, Krzysztof, and Jan Iwanczyk. Radiation Detection Systems: Two Volume Set. CRC Press, 2021.

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42

Iniewski, Krzysztof, and Jan Iwanczyk. Radiation Detection Systems: Two Volume Set. Taylor & Francis Group, 2021.

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43

Iniewski, Krzysztof, and Jan Iwanczyk. Radiation Detection Systems: Two Volume Set. Taylor & Francis Group, 2021.

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44

Iniewski, Krzysztof, and Jan S. Iwanczyk. Radiation Detection Systems. Taylor & Francis Group, 2021.

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45

Iniewski, Krzysztof, and Jan S. Iwanczyk. Radiation Detection Systems. CRC Press LLC, 2021.

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46

Iniewski, Krzysztof, and Jan Iwanczyk. Radiation Detection Systems: Medical Imaging, Industrial Testing and Security Applications. Taylor & Francis Group, 2021.

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47

Iniewski, Krzysztof, and Jan S. Iwanczyk. Radiation Detection Systems. CRC Press LLC, 2021.

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48

Garcia, Ernest V., James R. Galt, and Ji Chen. SPECT and PET Instrumentation. Oxford University Press, 2015. http://dx.doi.org/10.1093/med/9780199392094.003.0003.

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Nuclear cardiac imaging is solidly based on many branches of science and engineering, including nuclear, optical and mathematical physics, electrical and mechanical engineering, chemistry and biology. This chapter uses principles from these scientific fields to provide an understanding of both the signals used, and the imaging system that captures these signals. Nuclear cardiology’s signals are the x-rays or ?-rays photons emitted from a radioactive tracer and its imaging systems are either single-photon emission computed tomography (SPECT) or positron emission tomography (PET) cameras. This combination has met with remarkable success in clinical cardiology. This success is due to the combination of sophisticated electronic nuclear instruments with a highly specific and thus powerful signal. The signal is as important as or more important than the imaging system. There is a misconception that cardiac magnetic resonance (CMR) cardiac computed tomography (CCT) and echocardiography are superior to nuclear cardiology imaging because of their superior spatial resolution. Yet, in detecting perfusion defects what is really necessary is superior contrast resolution. It is this superior contrast resolution that allows us to differentiate between normal and hypoperfused myocardium facilitating the visual analysis of nuclear cardiology perfusion images. Because these objects are bright compared to the background radioactivity, computer algorithms have been developed that allow us to automatically and objectively process and quantify our images. This chapter explains many of the important scientific principles necessary to understand nuclear cardiology imaging in general, i.e., how these sophisticated imaging systems detect the radiation emitted from the radiotracers.
49

X-ray inverse Compton emission from the radio halo of M87: A thesis in astronomy. [University Park, Pa.]: Pennsylvania State University, The Graduate School, Dept. of Astronomy, 1985.

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50

Watts, Michael. Silicon Photonics X. SPIE, 2015.

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