Ballistic Imaging

Ballistic Imaging assesses the state of computer-based imaging technology in forensic firearms identification. The book evaluates the current law enforcement database of images of crime-related cartridge cases and bullets and recommends ways to improve the usefulness of the technology for suggesting leads in criminal investigations. It also advises against the construction of a national reference database that would include images from test-fires of every newly manufactured or imported firearm in the United States. The book also suggests further research on an alternate method for generating an investigative lead to the location where a gun was first sold: "microstamping," the direct imprinting of unique identifiers on firearm parts or ammunition.

Recent advances in wave propagation in random media are certainly consequences of new approaches to fundamental issues, as well as of a strong interest in potential applications. A collective effort has been made to present in this book the state of the art in fundamental concepts, as well as in biomedical imaging techniques. As an example, the recent introduction of wave chaos, and more specifically random matrix theory - an old tool from nuclear physics - to the study of multiple scattering, has pointed the way to a deeper understanding of wave coherence in complex media. At the same time, efficient new approaches for retrieving information from random media promise to allow wave imaging of small tumors in opaque tissues. Review chapters are written by experts in the field, with the aim of making the book accessible to the widest possible scientific audience: graduate students and research scientists in theoretical and applied physics, optics, acoustics, and biomedical physics.

While gun design has undergone only minimal change over the centuries, investigative tools surrounding firearm use have grown significantly in sophistication. Now in its third edition, Firearms, the Law, and Forensic Ballistics has been updated to reflect recently published research and new technology developed since the last volume. Beginning with

THE APPLICATION OF HEAT IN ONCOLOGY Understand the use of heat to destroy tumors with this comprehensive guide Heat is an indispensable resource in the destruction of cancerous tumors to potentially treat cancers. There are also real challenges, however, involved in the total destruction of tumors without destroying healthy tissue surrounding the tumor in the process. A detailed understanding of the propagation of thermal energy, induced heating, and tissue responses to heat is required to safely and successfully apply heat-based technologies in clinical oncology. The Application of Heat in Oncology supplies this understanding, with a thorough, comprehensive overview of the principle and practice involved. Offering both a detailed introduction to the physics and thermodynamics of induced heat and an analysis of its clinical applications, this is an essential resource for clinicians, technicians, and others in oncological practice. The Application of Heat in Oncology readers will also find: Guidelines for applying heat both safely and effectively Detailed discussion of topics including energy delivery (e.g., via RF, MW, ultrasound, laser, cryoagents, hyperthermia, nanoparticles, etc.), temperature assessment, damage assessment, image guidance, and more Summary of current practice along with suggestions for future areas of technological improvement The Application of Heat in Oncology is ideal for all clinicians working in the field of cancer treatment, including medical students, residents, researchers, engineers, radiologists, surgeons, and more.

In this issue, guest editors bring their considerable expertise to this important topic. Provides in-depth reviews on the latest updates in the field, providing actionable insights for clinical practice. Presents the latest information on this timely, focused topic under the leadership of experienced editors in the field. Authors synthesize

This collection represents a single volume of technical papers presented at the Annual International DIC Society Conference and SEM Fall Conference organized by the Society for Experimental Mechanics and Sandia National Laboratories and held in Philadelphia, PA, November 7-10, 2016. The volume presents early findings from experimental, standards development and various other investigations concerning digital image correlation - an important area within Experimental Mechanics. The area of Digital Image Correlation has been an integral track within the SEM Annual Conference spearheaded by Professor Michael Sutton from the University of South Carolina. In 2016, the SEM and Sandia joined their collaborative strengths to launch a standing fall meeting focusing specifically on developments in the area of Digital Image Correlation. The contributed papers within this volume span numerous technical aspects of DIC including standards development for the industry.