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ویرایش: [1 ed.]
نویسندگان: Ranjita Shegokar (editor)
سری:
ISBN (شابک) : 0128177764, 9780128177761
ناشر: Elsevier Science Ltd
سال نشر: 2020
تعداد صفحات: 316
[237]
زبان: English
فرمت فایل : PDF (درصورت درخواست کاربر به PDF، EPUB یا AZW3 تبدیل می شود)
حجم فایل: 16 Mb
در صورت تبدیل فایل کتاب Delivery of Drugs: Expectations and Realities of Multifunctional Drug Delivery Systems: Volume 2: Expectations and Realities of Multifunctional Drug Delivery Systems به فرمت های PDF، EPUB، AZW3، MOBI و یا DJVU می توانید به پشتیبان اطلاع دهید تا فایل مورد نظر را تبدیل نمایند.
توجه داشته باشید کتاب تحویل داروها: انتظارات و واقعیت های سیستم های چند منظوره دارورسانی: جلد 2: انتظارات و واقعیت های سیستم های چند منظوره دارورسانی نسخه زبان اصلی می باشد و کتاب ترجمه شده به فارسی نمی باشد. وبسایت اینترنشنال لایبرری ارائه دهنده کتاب های زبان اصلی می باشد و هیچ گونه کتاب ترجمه شده یا نوشته شده به فارسی را ارائه نمی دهد.
تحویل داروها: انتظارات و واقعیتهای سیستمهای دارورسانی چند منظوره، جلد دوم فرمولبندی سیستمهای دارورسانی با اندازه میکرو نانو را بررسی میکند و فرصتهای استفاده از روشهای فیزیکی برای بهبود کارایی از طریق مکانیکی، الکتروپوریشن را مرور میکند. . این کتاب روشهای تحویل نوآورانه مانند PIPAC، از جمله بحث در مورد جنبههای نظارتی تزریقهای پیچیده را برجسته میکند. این فصل که توسط طیف متنوعی از محققان بینالمللی از صنعت و دانشگاه نوشته شده است، جنبههای خاص توصیف و ساخت برای کاربردهای دارویی و همچنین جنبههای نظارتی و سیاستی را بررسی میکند.
این کتاب دانشمندان فرمولبندی، کارشناسان نظارتی، مهندسان، کارشناسان بالینی و ذینفعان نظارتی را به هم متصل میکند. این سطح از بحث، آن را به یک منبع مرجع ارزشمند برای محققان دانشگاهی و صنعت داروسازی تبدیل میکند که میخواهند درباره وضعیت سیستمهای تحویل دارو اطلاعات بیشتری کسب کنند.
Delivery of Drugs: Expectations and Realities of Multifunctional Drug Delivery Systems, Volume Two examines the formulation of micro-nanosized drug delivery systems and recaps opportunities for using physical methods to improve efficacy via mechano-, electroporation. The book highlights innovative delivery methods like PIPAC, including discussions on the regulatory aspects of complex injectables. Written by a diverse range of international researchers from industry and academia, the chapters examine specific aspects of characterization and manufacturing for pharmaceutical applications as well as regulatory and policy aspects.
This book connects formulation scientists, regulatory experts, engineers, clinical experts and regulatory stakeholders. This level of discussion makes it a valuable reference resource for researchers in both academia and the pharmaceutical industry who want to learn more about the status of drug delivery systems.
Cover Design for Health: Applications of Human Factors Copyright Dedication Contents List of contributors About the editors Preface Section 1: Devices, tools, and health care IT 1 Designing for medical device safety Introduction Human factors design process Identify device users, environments, interfaces Device users Device environments Device interfaces Methods for identifying users, environments, and interfaces Identifying risks Critical tasks and known issues Method for identifying critical tasks and known issues Formative usability process Validation testing Enable simple interactions Design for the environment of use Avoid physical strain and repetitive motion Provide timely and informative feedback Design with accessibility in mind Do not overrely on training and instructions for use Design with user emotions in mind Case Study: SynCardia Phase 1: Contextual inquiry and participatory design Phase 2: Graphical user interface wireframe prototype and formative study 1 Phase 3: Foam models, driveline connector prototypes, and formative study 2 Phase 4: Appearance models, battery prototypes, alarm messages, and formative study 3 Phase 5: Functional prototype, auditory alarms, and formative study 4 Next steps Conclusion References Further reading 2 Designing for medication safety Designing for medication safety Medication errors during care transitions Medication reconciliation Challenges with completing medication reconciliation Quality of medication reconciliation Multisource verification Involvement of multiple stakeholders Technology design Design guidelines for medication reconciliation Assembling the home medication list Performing reconciliation Case study: medication reconciliation Methods and design Results Conclusion References 3 Design for digital health Introduction Designing a system, not a product Health care is opaque Observerships and research ethics Case study: when product design is not enough—the vital signs project Change management, Lean, and implementation science The service design approach Case study: service design a heart-failure-management app for patients Conclusion References 4 Design for eHealth and telehealth Introduction Functional and nonfunctional requirements Requirement gathering for telemedicine system Interviews and focus groups Observational studies Existing system log data Studying documentations Participatory design Design and prototyping Case study: heart failure readmission prevention System operation Contextual and cognitive support Clinical study: a pilot trial Design guidelines Predictive analytics Personalized instruction and education for behavior modification Telehealth element management system Security and privacy Usability Conclusion References 5 Design of mobile health technology Introduction The new world of mHealth Wellness versus clinical practice Types of mHealth solutions Design guidelines Function and features for mHealth apps Importance of visual appeal and following design guidelines Persuasive design Paradoxes of health technology design Case study: understanding user behavior in the wild through real-world data The prototyping Data-driven design Conclusion References 6 Design for effective care collaboration Challenges in care coordination Design guidelines Case study 1: Creating a prototype to facilitate clinical communication in emergency situations Participatory design approach Solution overview Discussion Case study 2: Redesigning “after-visit summaries” to better support clinical communication Novel approach to heuristic evaluation Evaluation results Recommendations to improve electronic health record–generated after-visit summaries Discussion Conclusion References Further reading Section 2: Healthcare systems 7 Design for critical care Introduction Overview of critical care System design criteria in the intensive care unit Case study: a comparison of two intensive care units at Johns Hopkins Hospital, Baltimore Delivery of life-saving critical care medical interventions Safety for patients, staff, and others Support for clinical effectiveness Support for clinical effectiveness Address the social and family needs of patients Preparation for the future and the unexpected Conclusion: the intensive care unit of the future References Further reading 8 Design for emergencies Introduction Human cognition during emergencies Decision making under cognitive load How to improve the way people perform during emergencies? How design affects human behavior The three pillars of emergency systems Environment Human operator Equipment The system and the interaction between the three pillars Guidelines for how to design for emergencies Environment Human operator Equipment Case study Mass-casualty incident The mass-casualty incident environment The mass-casualty incident human operator The mass-casualty incident management equipment Conclusions and implications References 9 Design for resilience What is resilience? Resilience and complexity Inception and development Context Designing resilient systems Resilient design methods Applications Designing for robustness Case study: Infection prevention by increasing robustness of health-care surfaces Designing for adaptivity Case study: Increasing workplace wellness resilience through adaptive persuasive design Designing for graceful extensibility Case study: Planning for graceful extensibility through design-development traceability Designing for sustainable response Case study: Using dynamic modeling in engineering complex systems’ sustainable response Summing it up Things to remember Research acknowledgments Conflict of interest References Further reading 10 Designing for collaborative work Introduction Sociotechnical system functions and inputs Work environment Physical environment Team-level structure Tools and technologies Team adaptability Design guidelines Create a stable infrastructure for collaborative practice Embed tools to foster effective team process and minimize work arounds Create norms, expectations, and space for teamwork: create a culture of collaboration Develop teams by training and cross training for roles and responsibilities Case studies—problem breakdown and design solutions Alter work system support structures How to situate effectively: identify coordination demands and process needs Collaborative practice—beyond patient outcomes How do we create culture change for teamwork? Team process in the care arena How to support team process How do we determine important teamwork processes in care? Develop teams Conclusion References Further reading 11 Design for stress, fatigue, and workload management Introduction Workload Nurses Physicians Surgeons Caregivers Workload measurements Stress Nurses Physicians Surgeons Caregivers Stress measurements Fatigue Nurses Physicians and caregivers Fatigue measurements Recommendations for workload, stress, and fatigue management Workload and fatigue management Stress management Heuristics to design for workload, stress, and fatigue Case study Advances in workload, stress, fatigue monitoring, and management Conclusion References 12 Design for cognitive support Introduction Perception and attention Working memory Vigilance Interruptions Decision-making Design guidelines Case study A clinical decision support primer Choosing to alert: right data Designing the alert: right design Conclusion References Further reading 13 Design for improved workflow Introduction Workflow in health-related settings Designing workflow versus designing interventions for workflow Health informatics, workflow, and user-centered design Workflow and user-centered design in clinical informatics Workflow and user-centered design in public health informatics Workflow and user-centered design in consumer health informatics Design guidelines User-centered design: engaging users for improving workflow Observations Participant interviews Focus groups Questionnaires Think-aloud protocols Contextual inquiry and workflow: understanding users’ tasks and activities Case study: Design to support patient engagement for improved intra- and interorganizational workflow in emergency care Significance of understanding workflow in an emergency care setting Redesigning clinical workflow with health information technologies implementation in the ED Incorporating patient’s needs into the ED workflow Understanding interorganizational workflow in ED care Conclusion and recommendations References 14 Design for self-care Introduction Identifying and understanding problems in self-care Actors in the practice of self-care Types of self-care Components of self-care Barriers to self-care performance Solutions for self-care Emerging trends in design for self-care Design guidelines: supporting self-care Design for self-care components Design to overcome self-care barriers Case study: designing for heart failure self-care Formative research to understand heart failure self-care Data collection methods: interviews, observations, and surveys Data analysis methods Designing for heart failure self-care Evaluating design for heart failure self-care Conclusion Acknowledgments References Section 3: Special population 15 Design for inclusivity Inclusive design guidelines General guidelines Passive techniques: personas Overview Practical guidance Case study: hospital parking lot redesign for safety and accessibility Maximum variance sampling Overview Practical guidance Case study: understanding design requirements for health information technology to aid in sharing health information with p... Community-based participatory research Overview Practical guidance Case study: improving maternal health outcomes and maximizing patient experience for African American women in Chicago Conclusion References 16 Design for global health Introduction History of global health Current global-health challenges Design in the context of global health Design for global-health guidelines Models of applying design to global health in action Case study: Adolescents 360 The global-health problem Adolescents 360 design process Results of the design process Conclusion References Further reading 17 Design of health information and communication technologies for older adults Health-care needs of older adults Demographics and age-related health needs Use of information and communication technology for health-care self-management Chapter scope Older Adults’ physiological and psychological characteristics related to information and communication technology use Sensory/perceptual processes/systems Vision Hearing Haptics Cognitive function Psychological needs Guidelines for health-care technology design for the aging population Involving older adults in the design process Contextual inquiry Case study: PRISM Project overview Design approach Lessons learned Case study: Aging Concerns, Challenges, and Everyday Solution Strategies Project overview Design approach Lessons learned Universal design Case study: A universally designed support tool for exergame use Project overview Design research approach Lessons learned Participatory health-technology design Case study: Participatory design of a mobile fitness application Project overview Design research approach Lessons learned Conclusion References Further reading Index Back Cover