Manufacturing manufactory communication and control equipment, systems and devices for emergency res
Modern emergency and care communication systems for senior living, medical buildings, schools, and multi-story properties. Inform is a mobile nurse call system providing families proof their loved ones' needs are met. Reliable communication is essential in emergency situations, such as when a patient or resident suspects a heart attack, has fallen, or is unable to evacuate the building due to limited mobility. Our state-of the art systems give patients or residents and their families peace of mind knowing a caregiver is on hand at the push of a button. These intuitive systems are easy to use for both patients and staff.VIDEO ON THE TOPIC: What is RFID? How RFID works? RFID Explained in Detail
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- Emergency Call Systems for Assisted Living & Senior Care
- Fire alarm system
- Emergency Services Network: overview
- Communications Systems (35)
- Industry 4.0: The Future of Productivity and Growth in Manufacturing Industries
- Discover Symphony
- Guidance on good manufacturing practice and good distribution practice: Questions and answers
Emergency Call Systems for Assisted Living & Senior Care
NCBI Bookshelf. Hughes RG, editor. Gail Powell-Cope ; Audrey L. Nelson ; Emily S. Nelson ; 2 Emily S. The general public believes that technology will improve health care efficiency, quality, safety, and cost. However, few people consider that these same technologies may also introduce errors and adverse events. Patient care technology has become increasingly complex, transforming the way nursing care is conceptualized and delivered.
Before extensive application of technology, nurses relied heavily on their senses of sight, touch, smell, and hearing to monitor patient status and to detect changes. Before its widespread use, nurses relied on subtle changes in mental status and skin color to detect early changes in oxygen saturation, and they used arterial blood gasses to confirm their suspicions.
Now pulse oxymetry allows nurses to identify decreased oxygenation before clinical symptoms appear, and thus more promptly diagnose and treat underlying causes. While technology has the potential to improve care, it is not without risks. Technology has been described as both part of the problem and part of the solution for safer health care, and some observers warned of the introduction of yet-to-be errors after the adoption of new technologies.
Problems may emerge based on the sheer volume of new devices, the complexity of the devices, the poor interface between multiple technologies at the bedside, and the haphazard introduction of new devices at the bedside. Despite the billions of dollars spent each year on an ever-increasing array of medical devices and equipment, the nursing profession has paid little attention to the implementation of technology and its integration with other aspects of the health care environment.
Patient care technologies of interest to nurses range from relatively simple devices, such as catheters and syringes, to highly complex devices, such as barcode medication administration systems and electronic health records. The purpose of this chapter is to provide a conceptual model for technologies that nurses are likely to encounter and to delineate strategies for promoting their effective and safe use.
This model was developed independently, but is similar to the work of Fuhrer and colleagues, 8 whose framework of assistive technology device outcomes is patient-centric. We included key nursing processes and outcomes for which technology plays an important role in care delivery and in preventing adverse events.
This conceptual model places the use of technology in the context of nursing practice and offers a framework for examining both the short- and long-term outcomes of technology use on the patient, the nurse, and the organization.
This model is extended to include a full range of technologies used by nurses in the delivery of nursing care Table 1. Patient care technologies can be classified in many ways.
These technologies are categorized by commonly understood nursing activities: direct nursing care delivery technology, indirect nursing care delivery technology, communication technology, patient and nurse protective devices, nurse protective devices, patient assessment, monitoring and surveillance, patient assistive devices, remote monitoring, continued learning, and pattern identification.
Well-designed technology allows nurses to focus on caregiving functions and promoting the health of patients. Technologies used by nurses offer the means for preventing errors and adverse events e. Yet technology also introduces unintended side effects and opportunities for failures. At one pediatric hospital, implementation of a computerized provider order entry system intended to reduce handwriting and transcription errors was unexpectedly associated with increased mortality, presumably due to a reduced ability by nursing personnel to anticipate the needs of patients prior to arrival of the patient.
This solution for preventing hip fractures among residents, however, forced nursing staff to provide care on their knees or bent over, thus increasing staff risk for back and knee injuries. Green 13 noted that all injuries and unintended consequences of technology are impossible to know beforehand, and that they are an unavoidable aspect of technology development. In other words, without technology failures there cannot be progress in technology development.
While work-arounds fix an immediate problem at hand, work-arounds can be dangerous, not solving the underlying problem in a system, 14 and thereby increasing opportunities for error over time. In response, nurses made duplicate arm bands that they kept at the medication cart. When this work-around was discovered by an independent evaluator, nursing worked with the vendor and infection control experts to use disposable plastic covers to scan infectious patients.
Organizational factors that influence the use of technology include policies, resources, culture, social norms, management commitment, training programs, and employee empowerment. It has been noted that the effects of implementing technology—for example, information technology—can vary widely depending on the setting, 17 presumably due to differences in the social-organizational environment such as workflow, work tasks and processes, and the people in the environment.
Policy is often looked at as an effective means for implementing change. For example, when implementing safe patient movement and handling programs, it is helpful to have firmly established leadership and management support, equipment, training, and coordination with other departments before mandating mechanical lifting through policy. Both of these situations can adversely affect staff morale and satisfaction. Sandelowski 19 noted the complex and often troubled relationship between technology and nursing since the establishment of nursing as a profession in the latter part of the 19th century.
Nurses have been both users of technology and facilitators for gaining patient acceptance of technology, but it has sometimes been a struggle for nurses to define the role of technology in their profession.
Technology has played out in the debates of caring versus curing and high-touch versus high-tech in explaining the role of nursing in health care. In the s, the mastery of technology often took second place after the mastery of psychosocial skills such as communication and development of a therapeutic relationship.
This relatively recent culture of nursing and the culture of health care have in many instances served to work against the systematic incorporation of technology into nursing practice to improve patient outcomes.
For example, why is it that nursing that requires higher levels of technology, as in critical care, is valued more e. Certainly, characteristics of nurses will affect the adoption of technology, although little empirical evidence was found to document this phenomenon. It is likely that nurse characteristics that influence the use of technology are specific to the technology in question.
For example, in a study of implementation of a nursing documentation information technology system, the investigators found that adoption was influenced by a number of attributes of the nurses, including commitment to nursing care planning and written documentation, acceptance of computers in nursing, computer and typing skills, professional experience, level of motivation, and climate of trust and support within the nursing team.
The physical environment, particularly in older buildings that were never designed to accommodate newer technologies, is often a constraining factor in the use of many types of equipment used by nurses. For example, research has shown that an ergonomic approach that relies on equipment to promote safe patient handling decreases musculoskeletal injuries in nurses. If the patient handling equipment is located at the end of a hallway in a room behind other equipment, the nurse is less likely to use it than if it is stored in an open alcove in the hallway where it can easily be retrieved.
Ergonomics and human factors engineering offer useful frameworks for examining many of the mediating and moderating factors e. According to the International Ergonomics Association, Ergonomics or human factors is the scientific discipline concerned with the understanding of interactions among humans and other elements of a system, and the profession that applies theory, principles, data and methods to design in order to optimize human well-being and overall system performance.
Ergonomists contribute to the design and evaluation of tasks, jobs, products, environments and systems in order to make them compatible with the needs, abilities and limitations of people. According to Gosbee 24 p. Several problems with this approach are evident: 4. Because nurses work at the front lines of health care—where nurses, patients, and technologies intersect and where actions are highly visible—there is a tendency to blame these frontline workers for human error associated with technology failures.
Examples of individual-focused problems include deficient procedures or documentation, lack of knowledge or training, failure to follow procedures, and deficient planning or scheduling. Systems-oriented problems include miscommunication, deficient supervision, and policy problems. Technology failure should be viewed in the broader context of the complex health care system, rather than inappropriately blaming the individual nurse.
As Fuhrer and colleagues 8 noted, a paucity of outcome measures is a significant barrier to the conduct of outcomes research related to technology. The lack of conceptualization of outcomes in the context of the type of technology and its context of use is added. The key initial outcomes of technology are effectiveness, efficiency, and user i. They found that abandonment could be reduced by an interdisciplinary prescribing approach.
Longer-term objectives reach beyond these immediate ones and include adverse events, injuries, satisfaction, competency, errors, goal attainment, and organizational outcomes such as efficiency, cost including cost avoidance, return on investment, margins, and working capital , 26 health care quality, and nursing retention and recruitment.
Karwowski, 27 in building a model of ergonomics, differentiated positive outcomes e. Consider all of the alarms and warning systems used in the delivery of nursing care to detect errors before injury.
A partial list includes bed exit alarms, warnings on IV pumps that signal occlusions, patient-initiated call bells, staff-initiated code alarms, wandering and elopement alarms, cardiac monitor alarms, and ventilator alarms. All of these warning systems depend on the ability of the nurse to notice the warning, process the alarm and comprehend what is happening, and finally take the appropriate action to decrease risk to the patient.
Further, alarm fatigue is exacerbated by the well-intentioned, yet misguided decision to deliberately set alarms with a high false alarm rate; the effectiveness of an alerting signal drops precipitously with just a small number of false alarms. In addition to the potential physical harm from technology, Monk and colleagues 31 proposed that for older adults living with disabilities in their homes, psychological harms are as important as the physical ones.
These researchers argued for including three types of physical harm injury, untreated medical condition, and physical deterioration , four types of psychological and social harm dependency, loneliness, fear, and debt or poverty , and four generic consequences distress, loss of confidence in ability to live independently, costly medical treatment, and death for systematically evaluating technology used to promote independent living. While patient care technology offers many opportunities to improve nurse productivity and satisfaction, operational efficiency, patient satisfaction, safety, and quality, there is little research evaluating the outcomes of specific patient care technologies.
Barcoding, scanning, and robotics have been shown to improve efficiency and decrease costs. This innovative automated system uses a wireless, point-of-care technology with an integrated barcode scanner. After implementation at the Kansas VA hospital, the VHA estimated that the software prevented , errors while dispensing 8 million doses. Moderate evidence is available supporting use of electronic medical records and automated drug-dispensing machines, with reports of increases in nurse satisfaction, retention, and productivity, as well as decreases in errors.
Being informed consumers and users of technology in health care means that nurses be involved in the selection of new equipment, receive the proper training for its use, and monitor equipment safety and the effect of technology on patients and families on an ongoing basis. Selecting the wrong equipment and technology can be costly and expose the patient to errors.
Equipment fairs are one strategy to allow staff the opportunity to evaluate which brand or model of technology would work best in their setting. Manufacturers are usually willing to loan equipment to promote onsite clinical testing. From a social-marketing perspective, all stakeholders potentially affected by a device should be invited to participate in equipment trials. For example, in evaluating a hospital bed, a patient may focus on comfort, a biomedical engineer may focus on compatibility with other technologies and the ease of maintaining the bed in good working order, and a nurse might focus on the usability of special features such as built-in scales and bed exit alarms.
Once a purchasing decision is made, including input from staff nurses, training is critical and may require ongoing competency assessments over time. The World Health Organization Medical Devices and Equipment team described a life-cycle approach that systematically includes maintenance, training, monitoring, and vigilance reporting on medical devices in use.
Staff who operate equipment and are trained in its use can recognize maintenance problems and request timely maintenance. MDR is the mechanism by which the FDA receives information about medical device adverse events from manufacturers, importers, and user facilities, so any problems with the device can be detected and corrected.
ECRI Institute encourages the reporting of device-related incidents and deficiencies to determine whether a report reflects a random failure or one that is likely to recur and cause harm. Health care failure mode effect analysis 39 and sociotechnical proactive risk modeling 40 offer methods for identifying equipment failures before they happen and strategies for preventing them.
Both of the methods have been used in engineering, and both are prospective in that they can be used to identify and prevent product and technology-related problems before they occur. Proponents of proactive risk modeling methods, relatively new to health care, 40 suggest that nurses could play an active role in preventing equipment and technology failures and in responding appropriately to them should they occur.
Risk modeling, an established analytic method in high-risk industries such as aerospace and engineering, is a structured process of determining all the ways a failure can happen to identify likely prevention strategies. Proactive risk modeling has been described as a hybrid between traditional decision support models and process analysis techniques e.
For example, after installation of mobile patient lifts into a facility, nurses may anticipate that they would be forced to perform manual lifts, putting themselves at high risk for a lifting injury, if all of the backup battery packs were not fully charged, rendering the electric lifts useless. In naming all of the ways this could happen, a group of nurses would identify processes that, if in place, would avoid the failure of charging batteries, for example, buying extra battery packs or plugging in equipment after each use.
Competency checklists could be used to reinforce this process and ensure that everyone is performing it in the same way. For example, a group of nurses could be asked to discuss what they would do if a patient became stranded in a ceiling lift that would not lower back down to the bed.
After such a discussion, nurses would be in a better position to respond if that event were to occur than if they had not anticipated this possibility. Nurse educators could advance the role of nurses in the use of technology by providing human factors content into nursing curricula and including human factors engineers into newer interdisciplinary approaches to professional education.
Fire alarm system
Technological advances have driven dramatic increases in industrial productivity since the dawn of the Industrial Revolution. The steam engine powered factories in the nineteenth century, electrification led to mass production in the early part of the twentieth century, and industry became automated in the s. In the decades that followed, however, industrial technological advancements were only incremental, especially compared with the breakthroughs that transformed IT, mobile communications, and e-commerce. Now, though, we are in the midst of a fourth wave of technological advancement: the rise of new digital industrial technology known as Industry 4.
NCBI Bookshelf. Hughes RG, editor. Gail Powell-Cope ; Audrey L. Nelson ; Emily S. Nelson ; 2 Emily S.
Emergency Services Network: overview
As the biomedical engineering field expands throughout the world, clinical engineers play an evermore-important role as translators between the medical, engineering, and business professions. They influence procedure and policy at research facilities, universities, as well as private and government agencies including the Food and Drug Administration and the World Health Organization. The profession of clinical engineering continues to seek its place amidst the myriad of professionals that comprise the health care field. The Clinical Engineering Handbook meets a long felt need for a comprehensive book on all aspects of clinical engineering that is a suitable reference in hospitals, classrooms, workshops, and governmental and non-governmental organization. The Clinical Engineering Handbook provides the reader with prospects for the future of clinical engineering as well as guidelines and standards for best practice around the world. From telemedicine and IT issues, to sanitation and disaster planning, it brings together all the important aspects of clinical engineering. Clinical Engineering Handbook. Ernesto Iadanza , Joseph Dyro.
Communications Systems (35)
Our comprehensive range of digital and analogue transmission solutions Texecom is an award-winning manufacturer of intruder alarm products, including a full range of motion detectors, control panels, perimeter protection devices, heat and smoke detectors, external sounders, power supplies and wireless Ogier Electronics produce the widest range of professional wireless products for the Security, Transport and Broadband market sectors. Q-net International Ltd.
Industry 4.0: The Future of Productivity and Growth in Manufacturing Industries
This booklet provides a generic overview of a standards-related topic. This publication does not alter or determine compliance responsibilities, which are described in the OSHA standards and the Occupational Safety and Health Act. Because interpretations and enforcement policy may change over time, the best sources for additional guidance on OSHA compliance requirements are current administrative interpretations and decisions by the Occupational Safety and Health Review Commission and the courts. This publication is in the public domain and may be reproduced fully or partially without permission.SEE VIDEO BY TOPIC: Life Saving Appliances Onboard Ship
United States. Preface edition: The United States Code is the official codification of the general and permanent laws of the United States. The Code was first published in , and a new edition of the code has been published every six years since The edition of the Code incorporates laws enacted through the One Hundred Ninth Congress, Second session, the last of which was signed by the President on January 15, It does not include laws of the One Hundred Tenth Congress, First session, enacted between January 4, , the date it convened, and January 15, By statutory authority this edition may be cited "USC ed.
House, Office of the Law Revision Counsel. Related products: U. Liability for Injuries to Employees. District Land Offices. GovernmentAided Railroads Repealed or Transferred. Adjustment Boards and Labor Boards Re pealed. Regulatory Measurement.
A fire alarm system has a number of devices working together to detect and warn people through visual and audio appliances when smoke , fire , carbon monoxide or other emergencies are present. These alarms may be activated automatically from smoke detectors , and heat detectors or may also be activated via manual fire alarm activation devices such as manual call points or pull stations. Alarms can be either motorized bells or wall mountable sounders or horns. They can also be speaker strobes which sound an alarm, followed by a voice evacuation message which warns people inside the building not to use the elevators. Fire alarm sounders can be set to certain frequencies and different tones including low, medium and high, depending on the country and manufacturer of the device.
Guidance on good manufacturing practice and good distribution practice: Questions and answers
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У подножия ступенек Беккер споткнулся и, потеряв равновесие, неуправляемо заскользил по отполированному камню. Острая боль пронзила вес его тело, когда он приземлился на бок, но мгновение спустя он уже был на ногах и, скрываемый занавешенным входом, сбежал вниз по деревянным ступенькам.
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Вся деятельность в комнате управления относилась к категории Совершенно секретно. УМБРА, что было высшим уровнем секретности в стране. Никогда еще государственные секреты США не были так хорошо защищены. В этой недоступной для посторонних базе данных хранились чертежи ультрасовременного оружия, списки подлежащих охране свидетелей, данные полевых агентов, подробные предложения по разработке тайных операций.