Enzyme-based computing systems - Katz, Evgeny (Weinheim, Germany : Wiley, 2019)
10.3.1 Steganography and Encryption Methods Based on Bioaffinity Complex Formation Followed by a Biocatalytic Reaction -- 10.3.2 Barcodes Produced by Bioelectrocatalytic Reactions -- 10.4 Summary -- References -- Chapter 11 Enzyme Logic Digital Biosensors for Biomedical, Forensic, and Security Applications -- 11.1 Introduction: Short Overview -- 11.2 From Traditional Analog Biosensors to Novel Binary Biosensors Based on the Biocomputing Concept -- 11.3 How Binary Operating Biosensors Can Benefit Biomedical Analysis: Requirements, Challenges, and First Applications -- 11.4 Binary (YES/NO) Analysis of Liver Injury Biomarkers: From Test Tube Probes to Animal Research -- 11.5 Further Examples of Injury Biomarker Analysis Using AND/NAND Logic Gates -- 11.5.1 Soft Tissue Injury (STI) Logic Analysis -- 11.5.2 Traumatic Brain Injury (TBI) Logic Analysis -- 11.5.3 Abdominal Trauma (ABT) Logic Analysis -- 11.5.4 Hemorrhagic Shock (HS) Logic Analysis -- 11.5.5 Oxidative Stress (OS) Logic Analysis -- 11.5.6 Radiation Injury (RI) Logic Analysis -- 11.6 Multienzyme Logic Network Architectures for Assessing Injuries: Aiming at the Increased Complexity of the Biocomputing-Bioanalytic Systems -- 11.6.1 The System Structure Based on the Complex Biocatalytic Cascade -- 11.6.2 STI Operation Mode of the Logic Network -- 11.6.3 TBI Operation Mode of the Logic Network -- 11.6.4 Switching Between the STI and TBI Modes and General Comments on the System -- 11.7 New Approach in Forensic Analysis: Biomolecular Computing-Based Analysis of Forensic Biomarkers -- 11.8 Logic Analysis of Security Threats (Explosives and Nerve Agents) Based on Biocatalytic Cascades -- 11.9 Integration of Biocatalytic Cascades with Microelectronics and Wearable Sensors -- 11.10 Conclusions and Perspectives -- References.
Includes bibliographical references and index.
Keywords: Molecular biology -- Data processing; Electronic books