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overall+condition

  • 41 signal alarm

    1. аварийный сигнал

     

    аварийный сигнал
    alarm
    Сигнал оповещения, генерируемый в случае, если произошел отказ или контролируемый параметр вышел за допустимые пределы.
    [Л.М. Невдяев. Телекоммуникационные технологии. Англо-русский толковый словарь-справочник. Под редакцией Ю.М. Горностаева. Москва, 2002]

    аварийный сигнал
    beacon
    BCN
    Сигнал, посылаемый от неисправного узла сети.
    [Л.М. Невдяев. Телекоммуникационные технологии. Англо-русский толковый словарь-справочник. Под редакцией Ю.М. Горностаева. Москва, 2002]

    аварийный сигнал
    fate signal
    Сообщение, сигнализирующее об отказе или пропадании входной информации.
    [Л.М. Невдяев. Телекоммуникационные технологии. Англо-русский толковый словарь-справочник. Под редакцией Ю.М. Горностаева. Москва, 2002]

    аварийный сигнал
    safety signal
    Сигнал, поступающий отдатчиков охранной сигнализации.
    [Л.М. Невдяев. Телекоммуникационные технологии. Англо-русский толковый словарь-справочник. Под редакцией Ю.М. Горностаева. Москва, 2002]

    EN

    alarm
    activation of an event that shows a critical state
    [IEC 61158-5-10, ed. 2.0 (2010-08)]

    alarm
    type of Event associated with a state condition that typically requires acknowledgement
    [ IEC 62541-1, ed. 1.0 (2010-02)]

    alarm
    an audible, visual, or other signal activated when the instrument reading exceeds a preset value or falls outside of a preset range
    [IEC 62533, ed. 1.0 (2010-06)]

    alarm
    warning of the presence of a hazard to life, property or the environment
    [IEC 62642-1, ed. 1.0 (2010-06)]

    alarm
    audio and visual signal announcing a condition requiring attention. The audio continues until acknowledged. The acoustic noise pressure of the alarm is at least 75 dBA but not greater than 85 dBA at a distance of 1 m (IEC 60945). The visual indication continues until the alarm condition is removed
    [IEC 62065, ed. 1.0 (2002-03)]

    alarm
    item of diagnostic, prognostic, or guidance information, which is used to alert the operator and to draw his or her attention to a process or system deviation
    NOTE Specific information provided by alarms includes the existence of an anomaly for which corrective action might be needed, the cause and potential consequences of the anomaly, the overall plant status, corrective action to the anomaly, and feedback of corrective actions.

    Two types of deviation may be recognised:
    – unplanned – undesirable process deviations and equipment faults;
    – planned – deviations in process conditions or equipment status that are the expected response to but could be indicative of undesirable plant conditions.
    [IEC 62241, ed. 1.0 (2004-11)]

    FR

    alarme
    signal sonore, visuel ou autre, activé lorsque la lecture de l’instrument excède une valeur préréglée ou sortant d’un domaine déterminé
    [IEC 62533, ed. 1.0 (2010-06)]

    alarme
    avertissement de la présence d'un risque concernant la vie, la propriété ou l'environnement
    [IEC 62642-1, ed. 1.0 (2010-06)]

    alarme
    élément informatif relatif au diagnostic, au pronostique ou à une recommandation, qui est utilisé pour alerter l’opérateur et pour attirer son attention sur une déviation du procédé ou d’un système
    NOTE L’information particulière fournie par les alarmes couvre l’existence d’anomalies pour lesquelles une action corrective pourrait être nécessaire, la cause et les conséquences potentielles de l’anomalie, l’état général de la centrale, l’action corrective correspondant à l’anomalie et le retour de l’action corrective.

    Deux types de déviation peuvent être distingués:
    – non prévue – Déviations du procédé indésirable et défaillance de matériels;
    – prévue – Déviations relatives aux conditions du procédé ou aux états des matériels qui sont les réponses prévues, mais qui peuvent être indicatives de conditions indésirables pour la centrale.
    [IEC 62241, ed. 1.0 (2004-11)]

    Параллельные тексты EN-RU

    When the accumulated energy dropout setpoint and time delay are satisfied, the alarm is inactive.
    [Schneider Electric]

    Если подсчитанное количество электроэнергии становится меньше заданного максимального значения и заданное время задержки истекло, аварийный сигнал отключается.
         [Перевод Интент]

    Тематики

    • автоматизация, основные понятия
    • релейная защита
    • электросвязь, основные понятия

    Действия

    EN

    FR

    Англо-русский словарь нормативно-технической терминологии > signal alarm

  • 42 trouble tone

    1. сигнал недоступности номера (вследствие повреждения или выключения)
    2. аварийный сигнал

     

    аварийный сигнал
    alarm
    Сигнал оповещения, генерируемый в случае, если произошел отказ или контролируемый параметр вышел за допустимые пределы.
    [Л.М. Невдяев. Телекоммуникационные технологии. Англо-русский толковый словарь-справочник. Под редакцией Ю.М. Горностаева. Москва, 2002]

    аварийный сигнал
    beacon
    BCN
    Сигнал, посылаемый от неисправного узла сети.
    [Л.М. Невдяев. Телекоммуникационные технологии. Англо-русский толковый словарь-справочник. Под редакцией Ю.М. Горностаева. Москва, 2002]

    аварийный сигнал
    fate signal
    Сообщение, сигнализирующее об отказе или пропадании входной информации.
    [Л.М. Невдяев. Телекоммуникационные технологии. Англо-русский толковый словарь-справочник. Под редакцией Ю.М. Горностаева. Москва, 2002]

    аварийный сигнал
    safety signal
    Сигнал, поступающий отдатчиков охранной сигнализации.
    [Л.М. Невдяев. Телекоммуникационные технологии. Англо-русский толковый словарь-справочник. Под редакцией Ю.М. Горностаева. Москва, 2002]

    EN

    alarm
    activation of an event that shows a critical state
    [IEC 61158-5-10, ed. 2.0 (2010-08)]

    alarm
    type of Event associated with a state condition that typically requires acknowledgement
    [ IEC 62541-1, ed. 1.0 (2010-02)]

    alarm
    an audible, visual, or other signal activated when the instrument reading exceeds a preset value or falls outside of a preset range
    [IEC 62533, ed. 1.0 (2010-06)]

    alarm
    warning of the presence of a hazard to life, property or the environment
    [IEC 62642-1, ed. 1.0 (2010-06)]

    alarm
    audio and visual signal announcing a condition requiring attention. The audio continues until acknowledged. The acoustic noise pressure of the alarm is at least 75 dBA but not greater than 85 dBA at a distance of 1 m (IEC 60945). The visual indication continues until the alarm condition is removed
    [IEC 62065, ed. 1.0 (2002-03)]

    alarm
    item of diagnostic, prognostic, or guidance information, which is used to alert the operator and to draw his or her attention to a process or system deviation
    NOTE Specific information provided by alarms includes the existence of an anomaly for which corrective action might be needed, the cause and potential consequences of the anomaly, the overall plant status, corrective action to the anomaly, and feedback of corrective actions.

    Two types of deviation may be recognised:
    – unplanned – undesirable process deviations and equipment faults;
    – planned – deviations in process conditions or equipment status that are the expected response to but could be indicative of undesirable plant conditions.
    [IEC 62241, ed. 1.0 (2004-11)]

    FR

    alarme
    signal sonore, visuel ou autre, activé lorsque la lecture de l’instrument excède une valeur préréglée ou sortant d’un domaine déterminé
    [IEC 62533, ed. 1.0 (2010-06)]

    alarme
    avertissement de la présence d'un risque concernant la vie, la propriété ou l'environnement
    [IEC 62642-1, ed. 1.0 (2010-06)]

    alarme
    élément informatif relatif au diagnostic, au pronostique ou à une recommandation, qui est utilisé pour alerter l’opérateur et pour attirer son attention sur une déviation du procédé ou d’un système
    NOTE L’information particulière fournie par les alarmes couvre l’existence d’anomalies pour lesquelles une action corrective pourrait être nécessaire, la cause et les conséquences potentielles de l’anomalie, l’état général de la centrale, l’action corrective correspondant à l’anomalie et le retour de l’action corrective.

    Deux types de déviation peuvent être distingués:
    – non prévue – Déviations du procédé indésirable et défaillance de matériels;
    – prévue – Déviations relatives aux conditions du procédé ou aux états des matériels qui sont les réponses prévues, mais qui peuvent être indicatives de conditions indésirables pour la centrale.
    [IEC 62241, ed. 1.0 (2004-11)]

    Параллельные тексты EN-RU

    When the accumulated energy dropout setpoint and time delay are satisfied, the alarm is inactive.
    [Schneider Electric]

    Если подсчитанное количество электроэнергии становится меньше заданного максимального значения и заданное время задержки истекло, аварийный сигнал отключается.
         [Перевод Интент]

    Тематики

    • автоматизация, основные понятия
    • релейная защита
    • электросвязь, основные понятия

    Действия

    EN

    FR

     

    сигнал недоступности номера (вследствие повреждения или выключения)
    —
    [Л.Г.Суменко. Англо-русский словарь по информационным технологиям. М.: ГП ЦНИИС, 2003.]

    Тематики

    EN

    Англо-русский словарь нормативно-технической терминологии > trouble tone

  • 43 remote maintenance

    1. дистанционное техническое обслуживание

     

    дистанционное техническое обслуживание
    Техническое обслуживание объекта, проводимое под управлением персонала без его непосредственного присутствия.
    [ОСТ 45.152-99 ]

    Параллельные тексты EN-RU из ABB Review. Перевод компании Интент

    Service from afar

    Дистанционный сервис

    ABB’s Remote Service concept is revolutionizing the robotics industry

    Разработанная АББ концепция дистанционного обслуживания Remote Service революционизирует робототехнику

    ABB robots are found in industrial applications everywhere – lifting, packing, grinding and welding, to name a few. Robust and tireless, they work around the clock and are critical to a company’s productivity. Thus, keeping these robots in top shape is essential – any failure can lead to serious output consequences. But what happens when a robot malfunctions?

    Роботы АББ используются во всех отраслях промышленности для перемещения грузов, упаковки, шлифовки, сварки – всего и не перечислить. Надежные и неутомимые работники, способные трудиться день и ночь, они представляют большую ценность для владельца. Поэтому очень важно поддерживать их в надлежащей состоянии, ведь любой отказ может иметь серьезные последствия. Но что делать, если робот все-таки сломался?

    ABB’s new Remote Service concept holds the answer: This approach enables a malfunctioning robot to alarm for help itself. An ABB service engineer then receives whole diagnostic information via wireless technology, analyzes the data on a Web site and responds with support in just minutes. This unique service is paying off for customers and ABB alike, and in the process is revolutionizing service thinking.

    Ответом на этот вопрос стала новая концепция Remote Service от АББ, согласно которой неисправный робот сам просит о помощи. C помощью беспроводной технологии специалист сервисной службы АББ получает всю необходимую диагностическую информацию, анализирует данные на web-сайте и через считанные минуты выдает рекомендации по устранению отказа. Эта уникальная возможность одинаково ценна как для заказчиков, так и для самой компании АББ. В перспективе она способна в корне изменить весь подход к организации технического обслуживания.

    Every minute of production downtime can have financially disastrous consequences for a company. Traditional reactive service is no longer sufficient since on-site service engineer visits also demand great amounts of time and money. Thus, companies not only require faster help from the service organization when needed but they also want to avoid disturbances in production.

    Каждая минута простоя производства может привести к губительным финансовым последствиям. Традиционная организация сервиса, предусматривающая ликвидацию возникающих неисправностей, становится все менее эффективной, поскольку вызов сервисного инженера на место эксплуатации робота сопряжен с большими затратами времени и денег. Предприятия требуют от сервисной организации не только более быстрого оказания помощи, но и предотвращения возможных сбоев производства.

    In 2006, ABB developed a new approach to better meet customer’s expectations: Using the latest technologies to reach the robots at customer sites around the world, ABB could support them remotely in just minutes, thereby reducing the need for site visits. Thus the new Remote Service concept was quickly brought to fruition and was launched in mid-2007. Statistics show that by using the system the majority of production stoppages can be avoided.

    В 2006 г. компания АББ разработала новый подход к удовлетворению ожиданий своих заказчиков. Использование современных технологий позволяет специалистам АББ получать информацию от роботов из любой точки мира и в считанные минуты оказывать помощь дистанционно, в результате чего сокращается количество выездов на место установки. Запущенная в середине 2007 г. концепция Remote Service быстро себя оправдала. Статистика показывает, что её применение позволило предотвратить большое число остановок производства.

    Reactive maintenance The hardware that makes ABB Remote Service possible consists of a communication unit, which has a function similar to that of an airplane’s so-called black box 1. This “service box” is connected to the robot’s control system and can read and transmit diagnostic information. The unit not only reads critical diagnostic information that enables immediate support in the event of a failure, but also makes it possible to monitor and analyze the robot’s condition, thereby proactively detecting the need for maintenance.

    Устранение возникающих неисправностей Аппаратное устройство, с помощью которого реализуется концепция Remote Service, представляет собой коммуникационный блок, работающий аналогично черному ящику самолета (рис. 1). Этот блок считывает диагностические данные из контроллера робота и передает их по каналу GSM. Считывается не только информация, необходимая для оказания немедленной помощи в случае отказа, но и сведения, позволяющие контролировать и анализировать состояние робота для прогнозирования неисправностей и планирования технического обслуживания.

    If the robot breaks down, the service box immediately stores the status of the robot, its historical data (as log files), and diagnostic parameters such as temperature and power supply. Equipped with a built-in modem and using the GSM network, the box transmits the data to a central server for analysis and presentation on a dedicated Web site. Alerts are automatically sent to the nearest of ABB’s 1,200 robot service engineers who then accesses the detailed data and error log to analyze the problem.

    При поломке робота сервисный блок немедленно сохраняет данные о его состоянии, сведения из рабочего журнала, а также значения диагностических параметров (температура и характеристики питания). Эти данные передаются встроенным GSM-модемом на центральный сервер для анализа и представления на соответствующем web-сайте. Аварийные сообщения автоматически пересылаются ближайшему к месту аварии одному из 1200 сервисных инженеров-робототехников АББ, который получает доступ к детальной информации и журналу аварий для анализа возникшей проблемы.

    A remotely based ABB engineer can then quickly identify the exact fault, offering rapid customer support. For problems that cannot be solved remotely, the service engineer can arrange for quick delivery of spare parts and visit the site to repair the robot. Even if the engineer must make a site visit, service is faster, more efficient and performed to a higher standard than otherwise possible.

    Специалист АББ может дистанционно идентифицировать отказ и оказать быструю помощь заказчику. Если неисправность не может быть устранена дистанционно, сервисный инженер организовывает доставку запасных частей и выезд ремонтной бригады. Даже если необходимо разрешение проблемы на месте, предшествующая дистанционная диагностика позволяет минимизировать объем работ и сократить время простоя.

    Remote Service enables engineers to “talk” to robots remotely and to utilize tools that enable smart, fast and automatic analysis. The system is based on a machine-to-machine (M2M) concept, which works automatically, requiring human input only for analysis and personalized customer recommendations. ABB was recognized for this innovative solution at the M2M United Conference in Chicago in 2008 Factbox.

    Remote Service позволяет инженерам «разговаривать» с роботами на расстоянии и предоставляет в их распоряжение интеллектуальные средства быстрого автоматизированного анализа. Система основана на основе технологии автоматической связи машины с машиной (M2M), где участие человека сводится к анализу данных и выдаче рекомендаций клиенту. В 2008 г. это инновационное решение от АББ получило приз на конференции M2M United Conference в Чикаго (см. вставку).

    Proactive maintenance 
    Remote Service also allows ABB engineers to monitor and detect potential problems in the robot system and opens up new possibilities for proactive maintenance.

    Прогнозирование неисправностей
    Remote Service позволяет инженерам АББ дистанционно контролировать состояние роботов и прогнозировать возможные неисправности, что открывает новые возможности по организации профилактического обслуживания.

    The service box regularly takes condition measurements. By monitoring key parameters over time, Remote Service can identify potential failures and when necessary notify both the end customer and the appropriate ABB engineer. The management and storage of full system backups is a very powerful service to help recover from critical situations caused, for example, by operator errors.

    Сервисный блок регулярно выполняет диагностические измерения. Непрерывно контролируя ключевые параметры, Remote Service может распознать потенциальные опасности и, при необходимости, оповещать владельца оборудования и соответствующего специалиста АББ. Резервирование данных для возможного отката является мощным средством, обеспечивающим восстановление системы в критических ситуациях, например, после ошибки оператора.

    The first Remote Service installation took place in the automotive industry in the United States and quickly proved its value. The motherboard in a robot cabinet overheated and the rise in temperature triggered an alarm via Remote Service. Because of the alarm, engineers were able to replace a faulty fan, preventing a costly production shutdown.

    Первая система Remote Service была установлена на автозаводе в США и очень скоро была оценена по достоинству. Она обнаружила перегрев материнской платы в шкафу управления роботом и передала сигнал о превышении допустимой температуры, благодаря чему инженеры смогли заменить неисправный вентилятор и предотвратить дорогостоящую остановку производства.

    MyRobot: 24-hour remote access
    Having regular access to a robot’s condition data is also essential to achieving lean production. At any time, from any location, customers can verify their robots’ status and access maintenance information and performance reports simply by logging in to ABB’s MyRobot Web site. The service enables customers to easily compare performances, identify bottlenecks or developing issues, and initiate the most

    Сайт MyRobot: круглосуточный дистанционный доступ
    Для того чтобы обеспечить бесперебойное производство, необходимо иметь регулярный доступ к информации о состоянии робота. Зайдя на соответствующую страницу сайта MyRobot компании АББ, заказчики получат все необходимые данные, включая сведения о техническом обслуживании и отчеты о производительности своего робота. Эта услуга позволяет легко сравнивать данные о производительности, обнаруживать возможные проблемы, а также оптимизировать планирование технического обслуживания и модернизации. С помощью MyRobot можно значительно увеличить выпуск продукции и уменьшить количество выбросов.

    Award-winning solution
    In June 2008, the innovative Remote Service solution won the Gold Value Chain award at the M2M United Conference in Chicago. The value chain award honors successful corporate adopters of M2M (machine–to-machine) technology and highlights the process of combining multiple technologies to deliver high-quality services to customers. ABB won in the categoryof Smart Services.

    Приз за удачное решение
    В июне 2008 г. инновационное решение Remote Service получило награду Gold Value Chain (Золотая цепь) на конференции M2M United Conference в Чикаго. «Золотая цепь» присуждается за успешное масштабное внедрение технологии M2M (машина – машина), а также за достижения в объединении различных технологий для предоставления высококачественных услуг заказчикам. АББ одержала победу в номинации «Интеллектуальный сервис».

    Case study: Tetley Tetley GB Ltd is the world’s second-largest manufacturer and distributor of tea. The company’s manufacturing and distribution business is spread across 40 countries and sells over 60 branded tea bags. Tetley’s UK tea production facility in Eaglescliffe, County Durham is the sole producer of Tetley tea bags 2.

    Пример применения: Tetley Компания TetleyGB Ltd является вторым по величине мировым производителем и поставщиком чая. Производственные и торговые филиалы компании имеются в 40 странах, а продукция распространяется под 60 торговыми марками. Чаеразвесочная фабрика в Иглсклифф, графство Дарем, Великобритания – единственный производитель чая Tetley в пакетиках (рис. 2).

    ABB offers a flexible choice of service agreements for both new and existing robot installations, which can help extend the mean time between failures, shorten the time to repair and lower the cost of automated production.

    Предлагаемые АББ контракты на выполнение технического обслуживания как уже имеющихся, так и вновь устанавливаемых роботов, позволяют значительно увеличить среднюю наработку на отказ, сократить время ремонта и общую стоимость автоматизированного производства.

    Robots in the plant’s production line were tripping alarms and delaying the whole production cycle. The spurious alarms resulted in much unnecessary downtime that was spent resetting the robots in the hope that another breakdown could be avoided. Each time an alarm was tripped, several hours of production time was lost. “It was for this reason that we were keen to try out ABB’s Remote Service agreement,” said Colin Trevor, plant maintenance manager.

    Установленные в технологической линии роботы выдавали аварийные сигналы, задерживающие выполнение производственного цикла. Ложные срабатывания вынуждали перезапускать роботов в надежде предотвратить возможные отказы, в результате чего после каждого аварийного сигнала производство останавливалось на несколько часов. «Именно поэтому мы решили попробовать заключить с АББ контракт на дистанционное техническое обслуживание», – сказал Колин Тревор, начальник технической службы фабрики.

    To prevent future disruptions caused by unplanned downtime, Tetley signed an ABB Response Package service agreement, which included installing a service box and system infrastructure into the robot control systems. Using the Remote Service solution, ABB remotely monitors and collects data on the “wear and tear” and productivity of the robotic cells; this data is then shared with the customer and contributes to smooth-running production cycles.

    Для предотвращения ущерба в результате незапланированных простоев Tetley заключила с АББ контракт на комплексное обслуживание Response Package, согласно которому системы управления роботами были дооборудованы сервисными блоками с необходимой инфраструктурой. С помощью Remote Service компания АББ дистанционно собирает данные о наработке, износе и производительности роботизированных модулей. Эти данные предоставляются заказчику для оптимизации загрузки производственного оборудования.

    Higher production uptime
    Since the implementation of Remote Service, Tetley has enjoyed greatly reduced robot downtime, with no further disruptions caused by unforeseen problems. “The Remote Service package has dramatically changed the plant,” said Trevor. “We no longer have breakdown issues throughout the shift, helping us to achieve much longer periods of robot uptime. As we have learned, world-class manufacturing facilities need world-class support packages. Remote monitoring of our robots helps us to maintain machine uptime, prevent costly downtime and ensures my employees can be put to more valuable use.”

    Увеличение полезного времени
    С момента внедрения Remote Service компания Tetley была приятно удивлена резким сокращением простоя роботов и отсутствием незапланированных остановок производства. «Пакет Remote Service резко изменил ситуацию на предприятии», – сказал Тревор. «Мы избавились от простоев роботов и смогли резко увеличить их эксплуатационную готовность. Мы поняли, что для производственного оборудования мирового класса необходим сервисный пакет мирового класса. Дистанционный контроль роботов помогает нам поддерживать их в рабочем состоянии, предотвращать дорогостоящие простои и задействовать наш персонал для выполнения более важных задач».

    Service access
    Remote Service is available worldwide, connecting more than 500 robots. Companies that have up to 30 robots are often good candidates for the Remote Service offering, as they usually have neither the engineers nor the requisite skills to deal with robotics faults themselves. Larger companies are also enthusiastic about Remote Service, as the proactive services will improve the lifetime of their equipment and increase overall production uptime.

    Доступность сервиса
    Сеть Remote Service охватывает более 700 роботов по всему миру. Потенциальными заказчиками Remote Service являются компании, имеющие до 30 роботов, но не имеющие инженеров и техников, способных самостоятельно устранять их неисправности. Интерес к Remote Service проявляют и более крупные компании, поскольку они заинтересованы в увеличении срока службы и эксплуатационной готовности производственного оборудования.

    In today’s competitive environment, business profitability often relies on demanding production schedules that do not always leave time for exhaustive or repeated equipment health checks. ABB’s Remote Service agreements are designed to monitor its customers’ robots to identify when problems are likely to occur and ensure that help is dispatched before the problem can escalate. In over 60 percent of ABB’s service calls, its robots can be brought back online remotely, without further intervention.

    В условиях современной конкуренции окупаемость бизнеса часто зависит от соблюдения жестких графиков производства, не оставляющих времени для полномасштабных или периодических проверок исправности оборудования. Контракт Remote Service предусматривает мониторинг состояния роботов заказчика для прогнозирования возможных неисправностей и принятие мер по их предотвращению. В более чем 60 % случаев для устранения неисправности достаточно дистанционной консультации в сервисной службе АББ, дальнейшего вмешательства не требуется.

    ABB offers a flexible choice of service agreements for both new and existing robot installations, which helps extend the mean time between failures, shorten the time to repair and lower the total cost of ownership. With four new packages available – Support, Response, Maintenance and Warranty, each backed up by ABB’s Remote Service technology – businesses can minimize the impact of unplanned downtime and achieve improved production-line efficiency.

    Компания АББ предлагает гибкий выбор контрактов на выполнение технического обслуживания как уже имеющихся, так и вновь устанавливаемых роботов, которые позволяют значительно увеличить среднюю наработку на отказ, сократить время ремонта и эксплуатационные расходы. Четыре новых пакета на основе технологии Remote Service – Support, Response, Maintenance и Warranty – позволяют минимизировать внеплановые простои и значительно повысить эффективность производства.

    The benefits of Remote Sevice are clear: improved availability, fewer service visits, lower maintenance costs and maximized total cost of ownership. This unique service sets ABB apart from its competitors and is the beginning of a revolution in service thinking. It provides ABB with a great opportunity to improve customer access to its expertise and develop more advanced services worldwide.

    Преимущества дистанционного технического обслуживания очевидны: повышенная надежность, уменьшение выездов ремонтных бригад, уменьшение затрат на обслуживание и общих эксплуатационных расходов. Эта уникальная услуга дает компании АББ преимущества над конкурентами и демонстрирует революционный подход к организации сервиса. Благодаря ей компания АББ расширяет доступ заказчиков к опыту своих специалистов и получает возможность более эффективного оказания технической помощи по всему миру.

    Тематики

    • тех. обсл. и ремонт средств электросвязи

    Обобщающие термины

    EN

    Англо-русский словарь нормативно-технической терминологии > remote maintenance

  • 44 remote sevice

    1. дистанционное техническое обслуживание

     

    дистанционное техническое обслуживание
    Техническое обслуживание объекта, проводимое под управлением персонала без его непосредственного присутствия.
    [ОСТ 45.152-99 ]

    Параллельные тексты EN-RU из ABB Review. Перевод компании Интент

    Service from afar

    Дистанционный сервис

    ABB’s Remote Service concept is revolutionizing the robotics industry

    Разработанная АББ концепция дистанционного обслуживания Remote Service революционизирует робототехнику

    ABB robots are found in industrial applications everywhere – lifting, packing, grinding and welding, to name a few. Robust and tireless, they work around the clock and are critical to a company’s productivity. Thus, keeping these robots in top shape is essential – any failure can lead to serious output consequences. But what happens when a robot malfunctions?

    Роботы АББ используются во всех отраслях промышленности для перемещения грузов, упаковки, шлифовки, сварки – всего и не перечислить. Надежные и неутомимые работники, способные трудиться день и ночь, они представляют большую ценность для владельца. Поэтому очень важно поддерживать их в надлежащей состоянии, ведь любой отказ может иметь серьезные последствия. Но что делать, если робот все-таки сломался?

    ABB’s new Remote Service concept holds the answer: This approach enables a malfunctioning robot to alarm for help itself. An ABB service engineer then receives whole diagnostic information via wireless technology, analyzes the data on a Web site and responds with support in just minutes. This unique service is paying off for customers and ABB alike, and in the process is revolutionizing service thinking.

    Ответом на этот вопрос стала новая концепция Remote Service от АББ, согласно которой неисправный робот сам просит о помощи. C помощью беспроводной технологии специалист сервисной службы АББ получает всю необходимую диагностическую информацию, анализирует данные на web-сайте и через считанные минуты выдает рекомендации по устранению отказа. Эта уникальная возможность одинаково ценна как для заказчиков, так и для самой компании АББ. В перспективе она способна в корне изменить весь подход к организации технического обслуживания.

    Every minute of production downtime can have financially disastrous consequences for a company. Traditional reactive service is no longer sufficient since on-site service engineer visits also demand great amounts of time and money. Thus, companies not only require faster help from the service organization when needed but they also want to avoid disturbances in production.

    Каждая минута простоя производства может привести к губительным финансовым последствиям. Традиционная организация сервиса, предусматривающая ликвидацию возникающих неисправностей, становится все менее эффективной, поскольку вызов сервисного инженера на место эксплуатации робота сопряжен с большими затратами времени и денег. Предприятия требуют от сервисной организации не только более быстрого оказания помощи, но и предотвращения возможных сбоев производства.

    In 2006, ABB developed a new approach to better meet customer’s expectations: Using the latest technologies to reach the robots at customer sites around the world, ABB could support them remotely in just minutes, thereby reducing the need for site visits. Thus the new Remote Service concept was quickly brought to fruition and was launched in mid-2007. Statistics show that by using the system the majority of production stoppages can be avoided.

    В 2006 г. компания АББ разработала новый подход к удовлетворению ожиданий своих заказчиков. Использование современных технологий позволяет специалистам АББ получать информацию от роботов из любой точки мира и в считанные минуты оказывать помощь дистанционно, в результате чего сокращается количество выездов на место установки. Запущенная в середине 2007 г. концепция Remote Service быстро себя оправдала. Статистика показывает, что её применение позволило предотвратить большое число остановок производства.

    Reactive maintenance The hardware that makes ABB Remote Service possible consists of a communication unit, which has a function similar to that of an airplane’s so-called black box 1. This “service box” is connected to the robot’s control system and can read and transmit diagnostic information. The unit not only reads critical diagnostic information that enables immediate support in the event of a failure, but also makes it possible to monitor and analyze the robot’s condition, thereby proactively detecting the need for maintenance.

    Устранение возникающих неисправностей Аппаратное устройство, с помощью которого реализуется концепция Remote Service, представляет собой коммуникационный блок, работающий аналогично черному ящику самолета (рис. 1). Этот блок считывает диагностические данные из контроллера робота и передает их по каналу GSM. Считывается не только информация, необходимая для оказания немедленной помощи в случае отказа, но и сведения, позволяющие контролировать и анализировать состояние робота для прогнозирования неисправностей и планирования технического обслуживания.

    If the robot breaks down, the service box immediately stores the status of the robot, its historical data (as log files), and diagnostic parameters such as temperature and power supply. Equipped with a built-in modem and using the GSM network, the box transmits the data to a central server for analysis and presentation on a dedicated Web site. Alerts are automatically sent to the nearest of ABB’s 1,200 robot service engineers who then accesses the detailed data and error log to analyze the problem.

    При поломке робота сервисный блок немедленно сохраняет данные о его состоянии, сведения из рабочего журнала, а также значения диагностических параметров (температура и характеристики питания). Эти данные передаются встроенным GSM-модемом на центральный сервер для анализа и представления на соответствующем web-сайте. Аварийные сообщения автоматически пересылаются ближайшему к месту аварии одному из 1200 сервисных инженеров-робототехников АББ, который получает доступ к детальной информации и журналу аварий для анализа возникшей проблемы.

    A remotely based ABB engineer can then quickly identify the exact fault, offering rapid customer support. For problems that cannot be solved remotely, the service engineer can arrange for quick delivery of spare parts and visit the site to repair the robot. Even if the engineer must make a site visit, service is faster, more efficient and performed to a higher standard than otherwise possible.

    Специалист АББ может дистанционно идентифицировать отказ и оказать быструю помощь заказчику. Если неисправность не может быть устранена дистанционно, сервисный инженер организовывает доставку запасных частей и выезд ремонтной бригады. Даже если необходимо разрешение проблемы на месте, предшествующая дистанционная диагностика позволяет минимизировать объем работ и сократить время простоя.

    Remote Service enables engineers to “talk” to robots remotely and to utilize tools that enable smart, fast and automatic analysis. The system is based on a machine-to-machine (M2M) concept, which works automatically, requiring human input only for analysis and personalized customer recommendations. ABB was recognized for this innovative solution at the M2M United Conference in Chicago in 2008 Factbox.

    Remote Service позволяет инженерам «разговаривать» с роботами на расстоянии и предоставляет в их распоряжение интеллектуальные средства быстрого автоматизированного анализа. Система основана на основе технологии автоматической связи машины с машиной (M2M), где участие человека сводится к анализу данных и выдаче рекомендаций клиенту. В 2008 г. это инновационное решение от АББ получило приз на конференции M2M United Conference в Чикаго (см. вставку).

    Proactive maintenance 
    Remote Service also allows ABB engineers to monitor and detect potential problems in the robot system and opens up new possibilities for proactive maintenance.

    Прогнозирование неисправностей
    Remote Service позволяет инженерам АББ дистанционно контролировать состояние роботов и прогнозировать возможные неисправности, что открывает новые возможности по организации профилактического обслуживания.

    The service box regularly takes condition measurements. By monitoring key parameters over time, Remote Service can identify potential failures and when necessary notify both the end customer and the appropriate ABB engineer. The management and storage of full system backups is a very powerful service to help recover from critical situations caused, for example, by operator errors.

    Сервисный блок регулярно выполняет диагностические измерения. Непрерывно контролируя ключевые параметры, Remote Service может распознать потенциальные опасности и, при необходимости, оповещать владельца оборудования и соответствующего специалиста АББ. Резервирование данных для возможного отката является мощным средством, обеспечивающим восстановление системы в критических ситуациях, например, после ошибки оператора.

    The first Remote Service installation took place in the automotive industry in the United States and quickly proved its value. The motherboard in a robot cabinet overheated and the rise in temperature triggered an alarm via Remote Service. Because of the alarm, engineers were able to replace a faulty fan, preventing a costly production shutdown.

    Первая система Remote Service была установлена на автозаводе в США и очень скоро была оценена по достоинству. Она обнаружила перегрев материнской платы в шкафу управления роботом и передала сигнал о превышении допустимой температуры, благодаря чему инженеры смогли заменить неисправный вентилятор и предотвратить дорогостоящую остановку производства.

    MyRobot: 24-hour remote access
    Having regular access to a robot’s condition data is also essential to achieving lean production. At any time, from any location, customers can verify their robots’ status and access maintenance information and performance reports simply by logging in to ABB’s MyRobot Web site. The service enables customers to easily compare performances, identify bottlenecks or developing issues, and initiate the most

    Сайт MyRobot: круглосуточный дистанционный доступ
    Для того чтобы обеспечить бесперебойное производство, необходимо иметь регулярный доступ к информации о состоянии робота. Зайдя на соответствующую страницу сайта MyRobot компании АББ, заказчики получат все необходимые данные, включая сведения о техническом обслуживании и отчеты о производительности своего робота. Эта услуга позволяет легко сравнивать данные о производительности, обнаруживать возможные проблемы, а также оптимизировать планирование технического обслуживания и модернизации. С помощью MyRobot можно значительно увеличить выпуск продукции и уменьшить количество выбросов.

    Award-winning solution
    In June 2008, the innovative Remote Service solution won the Gold Value Chain award at the M2M United Conference in Chicago. The value chain award honors successful corporate adopters of M2M (machine–to-machine) technology and highlights the process of combining multiple technologies to deliver high-quality services to customers. ABB won in the categoryof Smart Services.

    Приз за удачное решение
    В июне 2008 г. инновационное решение Remote Service получило награду Gold Value Chain (Золотая цепь) на конференции M2M United Conference в Чикаго. «Золотая цепь» присуждается за успешное масштабное внедрение технологии M2M (машина – машина), а также за достижения в объединении различных технологий для предоставления высококачественных услуг заказчикам. АББ одержала победу в номинации «Интеллектуальный сервис».

    Case study: Tetley Tetley GB Ltd is the world’s second-largest manufacturer and distributor of tea. The company’s manufacturing and distribution business is spread across 40 countries and sells over 60 branded tea bags. Tetley’s UK tea production facility in Eaglescliffe, County Durham is the sole producer of Tetley tea bags 2.

    Пример применения: Tetley Компания TetleyGB Ltd является вторым по величине мировым производителем и поставщиком чая. Производственные и торговые филиалы компании имеются в 40 странах, а продукция распространяется под 60 торговыми марками. Чаеразвесочная фабрика в Иглсклифф, графство Дарем, Великобритания – единственный производитель чая Tetley в пакетиках (рис. 2).

    ABB offers a flexible choice of service agreements for both new and existing robot installations, which can help extend the mean time between failures, shorten the time to repair and lower the cost of automated production.

    Предлагаемые АББ контракты на выполнение технического обслуживания как уже имеющихся, так и вновь устанавливаемых роботов, позволяют значительно увеличить среднюю наработку на отказ, сократить время ремонта и общую стоимость автоматизированного производства.

    Robots in the plant’s production line were tripping alarms and delaying the whole production cycle. The spurious alarms resulted in much unnecessary downtime that was spent resetting the robots in the hope that another breakdown could be avoided. Each time an alarm was tripped, several hours of production time was lost. “It was for this reason that we were keen to try out ABB’s Remote Service agreement,” said Colin Trevor, plant maintenance manager.

    Установленные в технологической линии роботы выдавали аварийные сигналы, задерживающие выполнение производственного цикла. Ложные срабатывания вынуждали перезапускать роботов в надежде предотвратить возможные отказы, в результате чего после каждого аварийного сигнала производство останавливалось на несколько часов. «Именно поэтому мы решили попробовать заключить с АББ контракт на дистанционное техническое обслуживание», – сказал Колин Тревор, начальник технической службы фабрики.

    To prevent future disruptions caused by unplanned downtime, Tetley signed an ABB Response Package service agreement, which included installing a service box and system infrastructure into the robot control systems. Using the Remote Service solution, ABB remotely monitors and collects data on the “wear and tear” and productivity of the robotic cells; this data is then shared with the customer and contributes to smooth-running production cycles.

    Для предотвращения ущерба в результате незапланированных простоев Tetley заключила с АББ контракт на комплексное обслуживание Response Package, согласно которому системы управления роботами были дооборудованы сервисными блоками с необходимой инфраструктурой. С помощью Remote Service компания АББ дистанционно собирает данные о наработке, износе и производительности роботизированных модулей. Эти данные предоставляются заказчику для оптимизации загрузки производственного оборудования.

    Higher production uptime
    Since the implementation of Remote Service, Tetley has enjoyed greatly reduced robot downtime, with no further disruptions caused by unforeseen problems. “The Remote Service package has dramatically changed the plant,” said Trevor. “We no longer have breakdown issues throughout the shift, helping us to achieve much longer periods of robot uptime. As we have learned, world-class manufacturing facilities need world-class support packages. Remote monitoring of our robots helps us to maintain machine uptime, prevent costly downtime and ensures my employees can be put to more valuable use.”

    Увеличение полезного времени
    С момента внедрения Remote Service компания Tetley была приятно удивлена резким сокращением простоя роботов и отсутствием незапланированных остановок производства. «Пакет Remote Service резко изменил ситуацию на предприятии», – сказал Тревор. «Мы избавились от простоев роботов и смогли резко увеличить их эксплуатационную готовность. Мы поняли, что для производственного оборудования мирового класса необходим сервисный пакет мирового класса. Дистанционный контроль роботов помогает нам поддерживать их в рабочем состоянии, предотвращать дорогостоящие простои и задействовать наш персонал для выполнения более важных задач».

    Service access
    Remote Service is available worldwide, connecting more than 500 robots. Companies that have up to 30 robots are often good candidates for the Remote Service offering, as they usually have neither the engineers nor the requisite skills to deal with robotics faults themselves. Larger companies are also enthusiastic about Remote Service, as the proactive services will improve the lifetime of their equipment and increase overall production uptime.

    Доступность сервиса
    Сеть Remote Service охватывает более 700 роботов по всему миру. Потенциальными заказчиками Remote Service являются компании, имеющие до 30 роботов, но не имеющие инженеров и техников, способных самостоятельно устранять их неисправности. Интерес к Remote Service проявляют и более крупные компании, поскольку они заинтересованы в увеличении срока службы и эксплуатационной готовности производственного оборудования.

    In today’s competitive environment, business profitability often relies on demanding production schedules that do not always leave time for exhaustive or repeated equipment health checks. ABB’s Remote Service agreements are designed to monitor its customers’ robots to identify when problems are likely to occur and ensure that help is dispatched before the problem can escalate. In over 60 percent of ABB’s service calls, its robots can be brought back online remotely, without further intervention.

    В условиях современной конкуренции окупаемость бизнеса часто зависит от соблюдения жестких графиков производства, не оставляющих времени для полномасштабных или периодических проверок исправности оборудования. Контракт Remote Service предусматривает мониторинг состояния роботов заказчика для прогнозирования возможных неисправностей и принятие мер по их предотвращению. В более чем 60 % случаев для устранения неисправности достаточно дистанционной консультации в сервисной службе АББ, дальнейшего вмешательства не требуется.

    ABB offers a flexible choice of service agreements for both new and existing robot installations, which helps extend the mean time between failures, shorten the time to repair and lower the total cost of ownership. With four new packages available – Support, Response, Maintenance and Warranty, each backed up by ABB’s Remote Service technology – businesses can minimize the impact of unplanned downtime and achieve improved production-line efficiency.

    Компания АББ предлагает гибкий выбор контрактов на выполнение технического обслуживания как уже имеющихся, так и вновь устанавливаемых роботов, которые позволяют значительно увеличить среднюю наработку на отказ, сократить время ремонта и эксплуатационные расходы. Четыре новых пакета на основе технологии Remote Service – Support, Response, Maintenance и Warranty – позволяют минимизировать внеплановые простои и значительно повысить эффективность производства.

    The benefits of Remote Sevice are clear: improved availability, fewer service visits, lower maintenance costs and maximized total cost of ownership. This unique service sets ABB apart from its competitors and is the beginning of a revolution in service thinking. It provides ABB with a great opportunity to improve customer access to its expertise and develop more advanced services worldwide.

    Преимущества дистанционного технического обслуживания очевидны: повышенная надежность, уменьшение выездов ремонтных бригад, уменьшение затрат на обслуживание и общих эксплуатационных расходов. Эта уникальная услуга дает компании АББ преимущества над конкурентами и демонстрирует революционный подход к организации сервиса. Благодаря ей компания АББ расширяет доступ заказчиков к опыту своих специалистов и получает возможность более эффективного оказания технической помощи по всему миру.

    Тематики

    • тех. обсл. и ремонт средств электросвязи

    Обобщающие термины

    EN

    Англо-русский словарь нормативно-технической терминологии > remote sevice

  • 45 mejorar

    v.
    to improve, to get better.
    María mejoró la receta Mary improved the recipe.
    Ricardo mejoró Richard got better.
    Las perspectivas mejoraron The outlook got better.
    mejorar una oferta to make a better offer
    * * *
    1 to improve
    1 to improve, get better
    1 to get better
    ■ ¡que te mejores! I hope you get better
    * * *
    verb
    * * *
    1. VT
    1) [+ servicio, resultados] to improve; [+ enfermo] to make better; (=realzar) to enhance; [+ oferta] to raise, improve; [+ récord] to break; (Inform) to upgrade
    2)

    mejorar a algn — (=ser mejor que) to be better than sb

    2. VI
    1) [situación] to improve, get better; (Meteo) to improve, clear up; (Econ) to improve, pick up; [enfermo] to get better

    han mejorado de actitud/imagen — their attitude/image has improved

    2) [en subasta] to raise one's bid
    3.
    See:
    * * *
    1.
    verbo transitivo
    a) <condiciones/situación> to improve
    b) < oferta> ( en subastas) to increase
    2.
    mejorar vi tiempo to improve, get better; resultados/calidad/situación to improve, get better; persona (Med) to get better

    han mejorado de posición — they've come o gone up in the world

    3.
    mejorarse v pron
    a) enfermo to get better

    ¿ya te mejoraste de la gripe? — have you got over the flu?

    que te mejores — get well soon, I hope you get better soon

    b) (Chi fam & euf) ( dar a luz) to give birth
    * * *
    = ameliorate, boost, cultivate, enhance, improve, optimise [optimize, -USA], scale up, score over, upgrade, give + improvement (in), better, bring + Nombre + up to par, get + better, gain + confidence (with/in), do + a better job, pump up, ease, outdo, jazz up, take + a turn, take + a turn, take + a turn for the better, turn + Nombre + (a)round, polish up, best, trump, buff up, go + one better, move it up + a gear, notch it up + a gear, take it up + a gear, take it up + a notch, crank it up + a notch, crank it up + a gear, move it up + a notch, look up.
    Ex. These articles are compared with 34 articles on how similar blood changes might ameliorate Raynaud's disease.
    Ex. If the title is selected by a book club this helps boost the print-run and overall sales.
    Ex. Such familiarity can be cultivated with experience, and will consider the following features of data bases.
    Ex. An introduction explaining the nature and scope of the indexing language will enhance its value.
    Ex. Notice that it would be possible to improve recall indefinitely by scanning the entire document collection.
    Ex. The DOBIS/Leuven data bases is designed to optimize search and updating procedures, because these functions are critical to the operation of a library.
    Ex. After a brief discussion of basic hypertext operations, it considers some of the issues that arise in 'scaling up' hyptertext data base.
    Ex. A Permuterm index scores over a Double-KWIC index in that it avoids repetitive printing of one title.
    Ex. Sometimes it will be necessary to upgrade CIP records once the book is published, and this process is undertaken by BLBSD as appropriate.
    Ex. There was, it appeared, little point in spending more than four minutes indexing a particular document, for the additional time gave no improvement in results.
    Ex. She thumbed the pages slowly, explaining that the study had been conducted to try to ascertain student attitudes toward the media center, why they used it, which facilities they used, and to see if they had suggestions for bettering it.
    Ex. The article ' Bringing your golf collection up to par' gives guidelines on selecting library materials on golf.
    Ex. Systems will get better and cheaper with the passage of time.
    Ex. This assignment was designed to help students gain confidence in using print and computerized sources.
    Ex. At the same time librarians need to do a better job communicating information about available research and instructional support.
    Ex. The article ' Pump up the program...' identifies the costs and benefits of undertaking a software upgrade.
    Ex. To ease the cataloguer's job and save him the trouble of counting characters, DOBIS/LIBIS uses a special function.
    Ex. This novel is narrated by William, an underachiever who is constantly outdone by his charming and lovable identical twin brother.
    Ex. After jazzing up her appearance with a new blonde hairdo, she turns up in his office and talks him into taking her out for a meal.
    Ex. All went well, and with the addition of two new people, computer science took a turn.
    Ex. All went well, and with the addition of two new people, computer science took a turn.
    Ex. His private life, however, took a turn for the better.
    Ex. When he was younger he really turned the library around, from a backwater, two-bit operation to the respected institution it is today.
    Ex. If we polish up and internalize these pearls of wisdom, especially those which challenge our existing boundaries and beliefs, the payoff can be priceless.
    Ex. Back in 2001, the tossed salad they prepared fed some 5,000, which then bested the record held by a community in Utah in the United States.
    Ex. If prejudice is allowed to trump the rights that all citizens should enjoy, then everyone's freedoms are ultimately endangered.
    Ex. As a general rule, you can ' buff up' your look by making your shoulders seem wider and your waist narrower.
    Ex. I think Murray will go one better than Wimbledon, but will lose to Federer again in the final.
    Ex. Liverpool and Chelsea are grabbing all the headlines, but Arsenal have quietly moved it up a gear scoring 10 goals in their last three league games.
    Ex. Start gently, ease yourself in by breaking the workout down into three one minute sessions until you are ready to notch it up a gear and join them together.
    Ex. There was not much to separate the sides in the first ten minutes however Arsenal took it up a gear and got the goal but not without a bit of luck.
    Ex. We have a good time together and we're good friends.. but I'd like to take it up a notch.
    Ex. David quickly comprehended our project needs and then cranked it up a notch with impactful design.
    Ex. Went for a bike ride with a mate last week, no problems so will crank it up a gear and tackle some hills in the next few weeks.
    Ex. After a regular walking routine is established, why not move it up a notch and start jogging, if you haven't already.
    Ex. Things may be looking up for Blair, but it is still not certain that he will fight the election.
    ----
    * cosas + mejorar = things + get better.
    * empezar a mejorar = turn + a corner, take + a turn, take + a turn for the better.
    * información que permite mejorar la situación social de Alguien = empowering information.
    * mejorar con respecto a = be an improvement on.
    * mejorar considerablemente = raise to + greater heights, take + Nombre + to greater heights.
    * mejorar el pasado = improve on + the past.
    * mejorar la autoestima = improve + self-esteem.
    * mejorar la calidad = raise + standard, raise + quality.
    * mejorar la calidad de vida = improve + living standards, raise + living standards.
    * mejorar la eficacia = enhance + effectiveness.
    * mejorar la exhaustividad = improve + recall.
    * mejorar la pertinencia = improve + precision.
    * mejorar la precisión = improve + precision.
    * mejorar la productividad = improve + productivity.
    * mejorar las destrezas = sharpen + Posesivo + skills.
    * mejorar la situación = improve + the lot.
    * mejorar las probabilidades = shorten + the odds.
    * mejorar la suerte = improve + the lot.
    * mejorar + Posesivo + apariencia = smarten (up) + Posesivo + appearance.
    * mejorar + Posesivo + autoestima = enhance + Posesivo + self-esteem.
    * mejorar + Posesivo + calidad de vida = raise + Posesivo + quality of living.
    * mejorar + Posesivo + imagen = raise + Posesivo + profile, smarten up + Posesivo + image, enhance + Posesivo + image, buff up + Posesivo + image.
    * mejorar + Posesivo + imagen = enhance + Posesivo + identity.
    * mejorar + Posesivo + suerte = improve + Posesivo + lot.
    * mejorar + Posesivo + vida = improve + Posesivo + life.
    * mejorar una situación = ameliorate + situation.
    * que mejora la calidad de vida = life-enhancing.
    * situación + mejorar = situation + ease.
    * * *
    1.
    verbo transitivo
    a) <condiciones/situación> to improve
    b) < oferta> ( en subastas) to increase
    2.
    mejorar vi tiempo to improve, get better; resultados/calidad/situación to improve, get better; persona (Med) to get better

    han mejorado de posición — they've come o gone up in the world

    3.
    mejorarse v pron
    a) enfermo to get better

    ¿ya te mejoraste de la gripe? — have you got over the flu?

    que te mejores — get well soon, I hope you get better soon

    b) (Chi fam & euf) ( dar a luz) to give birth
    * * *
    = ameliorate, boost, cultivate, enhance, improve, optimise [optimize, -USA], scale up, score over, upgrade, give + improvement (in), better, bring + Nombre + up to par, get + better, gain + confidence (with/in), do + a better job, pump up, ease, outdo, jazz up, take + a turn, take + a turn, take + a turn for the better, turn + Nombre + (a)round, polish up, best, trump, buff up, go + one better, move it up + a gear, notch it up + a gear, take it up + a gear, take it up + a notch, crank it up + a notch, crank it up + a gear, move it up + a notch, look up.

    Ex: These articles are compared with 34 articles on how similar blood changes might ameliorate Raynaud's disease.

    Ex: If the title is selected by a book club this helps boost the print-run and overall sales.
    Ex: Such familiarity can be cultivated with experience, and will consider the following features of data bases.
    Ex: An introduction explaining the nature and scope of the indexing language will enhance its value.
    Ex: Notice that it would be possible to improve recall indefinitely by scanning the entire document collection.
    Ex: The DOBIS/Leuven data bases is designed to optimize search and updating procedures, because these functions are critical to the operation of a library.
    Ex: After a brief discussion of basic hypertext operations, it considers some of the issues that arise in 'scaling up' hyptertext data base.
    Ex: A Permuterm index scores over a Double-KWIC index in that it avoids repetitive printing of one title.
    Ex: Sometimes it will be necessary to upgrade CIP records once the book is published, and this process is undertaken by BLBSD as appropriate.
    Ex: There was, it appeared, little point in spending more than four minutes indexing a particular document, for the additional time gave no improvement in results.
    Ex: She thumbed the pages slowly, explaining that the study had been conducted to try to ascertain student attitudes toward the media center, why they used it, which facilities they used, and to see if they had suggestions for bettering it.
    Ex: The article ' Bringing your golf collection up to par' gives guidelines on selecting library materials on golf.
    Ex: Systems will get better and cheaper with the passage of time.
    Ex: This assignment was designed to help students gain confidence in using print and computerized sources.
    Ex: At the same time librarians need to do a better job communicating information about available research and instructional support.
    Ex: The article ' Pump up the program...' identifies the costs and benefits of undertaking a software upgrade.
    Ex: To ease the cataloguer's job and save him the trouble of counting characters, DOBIS/LIBIS uses a special function.
    Ex: This novel is narrated by William, an underachiever who is constantly outdone by his charming and lovable identical twin brother.
    Ex: After jazzing up her appearance with a new blonde hairdo, she turns up in his office and talks him into taking her out for a meal.
    Ex: All went well, and with the addition of two new people, computer science took a turn.
    Ex: All went well, and with the addition of two new people, computer science took a turn.
    Ex: His private life, however, took a turn for the better.
    Ex: When he was younger he really turned the library around, from a backwater, two-bit operation to the respected institution it is today.
    Ex: If we polish up and internalize these pearls of wisdom, especially those which challenge our existing boundaries and beliefs, the payoff can be priceless.
    Ex: Back in 2001, the tossed salad they prepared fed some 5,000, which then bested the record held by a community in Utah in the United States.
    Ex: If prejudice is allowed to trump the rights that all citizens should enjoy, then everyone's freedoms are ultimately endangered.
    Ex: As a general rule, you can ' buff up' your look by making your shoulders seem wider and your waist narrower.
    Ex: I think Murray will go one better than Wimbledon, but will lose to Federer again in the final.
    Ex: Liverpool and Chelsea are grabbing all the headlines, but Arsenal have quietly moved it up a gear scoring 10 goals in their last three league games.
    Ex: Start gently, ease yourself in by breaking the workout down into three one minute sessions until you are ready to notch it up a gear and join them together.
    Ex: There was not much to separate the sides in the first ten minutes however Arsenal took it up a gear and got the goal but not without a bit of luck.
    Ex: We have a good time together and we're good friends.. but I'd like to take it up a notch.
    Ex: David quickly comprehended our project needs and then cranked it up a notch with impactful design.
    Ex: Went for a bike ride with a mate last week, no problems so will crank it up a gear and tackle some hills in the next few weeks.
    Ex: After a regular walking routine is established, why not move it up a notch and start jogging, if you haven't already.
    Ex: Things may be looking up for Blair, but it is still not certain that he will fight the election.
    * cosas + mejorar = things + get better.
    * empezar a mejorar = turn + a corner, take + a turn, take + a turn for the better.
    * información que permite mejorar la situación social de Alguien = empowering information.
    * mejorar con respecto a = be an improvement on.
    * mejorar considerablemente = raise to + greater heights, take + Nombre + to greater heights.
    * mejorar el pasado = improve on + the past.
    * mejorar la autoestima = improve + self-esteem.
    * mejorar la calidad = raise + standard, raise + quality.
    * mejorar la calidad de vida = improve + living standards, raise + living standards.
    * mejorar la eficacia = enhance + effectiveness.
    * mejorar la exhaustividad = improve + recall.
    * mejorar la pertinencia = improve + precision.
    * mejorar la precisión = improve + precision.
    * mejorar la productividad = improve + productivity.
    * mejorar las destrezas = sharpen + Posesivo + skills.
    * mejorar la situación = improve + the lot.
    * mejorar las probabilidades = shorten + the odds.
    * mejorar la suerte = improve + the lot.
    * mejorar + Posesivo + apariencia = smarten (up) + Posesivo + appearance.
    * mejorar + Posesivo + autoestima = enhance + Posesivo + self-esteem.
    * mejorar + Posesivo + calidad de vida = raise + Posesivo + quality of living.
    * mejorar + Posesivo + imagen = raise + Posesivo + profile, smarten up + Posesivo + image, enhance + Posesivo + image, buff up + Posesivo + image.
    * mejorar + Posesivo + imagen = enhance + Posesivo + identity.
    * mejorar + Posesivo + suerte = improve + Posesivo + lot.
    * mejorar + Posesivo + vida = improve + Posesivo + life.
    * mejorar una situación = ameliorate + situation.
    * que mejora la calidad de vida = life-enhancing.
    * situación + mejorar = situation + ease.

    * * *
    mejorar [A1 ]
    vt
    1 ‹condiciones/situación› to improve
    este tratamiento te mejorará enseguida this treatment will make you better right away
    tienes que mejorar las notas/la letra you must improve your grades/your handwriting
    intentó mejorar su marca she tried to improve on o beat her own record
    2 ‹oferta› (en subastas) to increase
    los empresarios mejoraron la propuesta the management improved their offer o made a better offer
    ■ mejorar
    vi
    «tiempo» to improve, get better; «resultados/calidad» to improve, get better; «persona» ( Med) to get better
    mi situación económica no ha mejorado nada my financial situation hasn't improved at all o got any better
    ha mejorado de aspecto he looks a lot better
    tus notas no han mejorado mucho your grades haven't improved much o got(ten) any better
    han mejorado de posición they've come o gone up in the world
    el paciente sigue mejorando the patient is making a steady improvement
    1 «enfermo» to get better
    ¿ya te mejoraste de la gripe? have you got over the flu?
    que te mejores get well soon, I hope you get better soon
    2 ( Chi fam euf) (dar a luz) to give birth
    * * *

     

    mejorar ( conjugate mejorar) verbo transitivo ‹condiciones/situación/oferta› to improve;
    ‹ marca› to improve on, beat;

    verbo intransitivo [tiempo/calidad/situación] to improve, get better;

    [ persona] (Med) to get better;

    mejorarse verbo pronominal [ enfermo] to get better;
    que te mejores get well soon, I hope you get better soon
    mejorar
    I verbo transitivo
    1 to improve: han mejorado la educación, education has been improved
    2 Dep (un tiempo, una marca) to break
    II verbo intransitivo to improve, get better: espero que el tiempo mejore, I hope the weather gets better
    su salud no mejora, his health is not improving

    ' mejorar' also found in these entries:
    Spanish:
    enriquecer
    - ganar
    - perfeccionar
    - potenciar
    - refacción
    - superar
    English:
    ameliorate
    - better
    - existence
    - get along
    - improve
    - improve on
    - improvement
    - look up
    - pick up
    - progress
    - raise
    - security
    - technique
    - turn
    - upgrade
    - brighten
    - enhance
    - go
    - look
    - matter
    - out
    - perk
    - pick
    - rise
    - room
    - smarten up
    - up
    * * *
    ♦ vt
    1. [hacer mejor] to improve;
    mejoraron las condiciones de trabajo working conditions were improved;
    su principal objetivo es mejorar la economía their main aim is to improve the economy's performance
    2. [enfermo] to make better;
    estas pastillas lo mejorarán these tablets will make him better
    3. [superar] to improve;
    mejorar una oferta to make a better offer;
    mejoró el recórd mundial she beat the world record
    ♦ vi
    1. [ponerse mejor] to improve, to get better;
    el paciente está mejorando the patient's condition is improving, the patient is getting better;
    necesita mejorar en matemáticas he needs to improve o do better in mathematics
    2. [tiempo, clima] to improve, to get better;
    tan pronto como mejore, salimos a dar un paseo as soon as the weather improves o gets better we'll go out for a walk;
    después de la lluvia el día mejoró after the rain it cleared up
    * * *
    I v/t improve
    II v/i improve
    * * *
    : to improve, to make better
    : to improve, to get better
    * * *
    mejorar vb to improve

    Spanish-English dictionary > mejorar

  • 46 cost

    1. n
    1) цена; стоимость; себестоимость
    2) обыкн. pl расходы, издержки, затраты
    3) pl судебные издержки, судебные расходы

    - absorbed costs
    - accident costs
    - acquisition cost
    - actual cost
    - actual costs
    - actual manufacturing cost
    - added cost
    - additional cost
    - adjusted historical cost
    - administration costs
    - administrative costs
    - administrative and management costs
    - administrative and operational services costs
    - advertising costs
    - after costs
    - after-shipment costs
    - aggregate costs
    - agreed cost
    - airfreight cost
    - allocable costs
    - allowable costs
    - alternative costs
    - amortization costs
    - amortized cost
    - ancillary costs
    - annual costs
    - anticipated costs
    - applied cost
    - arbitration costs
    - assembly costs
    - assessed cost
    - average cost
    - average costs
    - average cost per unit
    - average variable costs
    - avoidable costs
    - back-order costs
    - basic cost
    - billed cost
    - book cost
    - borrowing cost
    - breakage cost
    - break-even costs
    - budget costs
    - budgeted cost
    - budgeted costs
    - budgeted operating costs
    - building costs
    - burden costs
    - calculated costs
    - capacity costs
    - capital costs
    - capital floatation costs
    - carriage costs
    - carrying cost
    - carrying costs
    - centrally-managed costs
    - changeover costs
    - cleaning costs
    - clerical costs
    - closing costs
    - collection costs
    - combined cost
    - commercial cost
    - commercial costs
    - committed costs
    - common staff costs
    - comparative costs
    - competitive costs
    - competitive marginal costs
    - complaint costs
    - conditional cost
    - consequential costs
    - considerable costs
    - constant cost
    - constant costs
    - construction costs
    - contract cost
    - contractual costs
    - controllable costs
    - court costs
    - crane costs
    - credit costs
    - cumulative costs
    - current cost
    - current costs
    - current outlay costs
    - current standard cost
    - cycle inventory costs
    - debt-servicing costs
    - declining costs
    - decorating costs
    - decreasing costs
    - defect costs
    - defence costs
    - deferred costs
    - deficiency costs
    - degressive costs
    - delivery costs
    - departmental costs
    - depleted cost
    - depreciable cost
    - depreciated cost
    - depreciated replacement cost
    - depreciation costs
    - designing costs
    - deterioration costs
    - development costs
    - differential costs
    - direct costs
    - direct labour costs
    - direct operating costs
    - direct payroll costs
    - discretionary fixed costs
    - dismantling costs
    - distribution costs
    - distribution marketing cost
    - domestic resource costs
    - double-weighted borrowing cost
    - downtime costs
    - economic costs
    - eligible costs
    - engineering costs
    - entry cost
    - environmental costs
    - equipment capital costs
    - erection costs
    - escalating costs
    - escapable costs
    - estimated cost
    - estimated costs
    - evaluation cost
    - excess cost
    - excess costs
    - excessive costs
    - exhibition costs
    - exploration costs
    - extra costs
    - extra and extraordinary costs
    - extraordinary costs
    - fabrication cost
    - factor cost
    - factor costs
    - factory cost
    - factory costs
    - factory overhead costs
    - failure costs
    - farm production costs
    - farmer's cost
    - farming costs
    - feed costs
    - fertilizing costs
    - final cost
    - financial costs
    - financing costs
    - first cost
    - fixed costs
    - fixed capital replacement costs
    - flat cost
    - floatation costs
    - food costs
    - foreign housing costs
    - formation costs
    - freight costs
    - fuel costs
    - full cost
    - full costs
    - funding cost
    - general costs
    - general running costs
    - government-controlled production costs
    - guarantee costs
    - harvesting costs
    - haul costs
    - haulage costs
    - heavy costs
    - hedging cost
    - hidden costs
    - high cost
    - hiring costs
    - historical cost
    - hospitality costs
    - hotel costs
    - hourly costs
    - idle capacity costs
    - idle time costs
    - implicit costs
    - implied interest costs
    - imputed costs
    - incidental costs
    - increasing costs
    - incremental costs
    - incremental cost of capital
    - incremental costs of circulation
    - incremental costs of service
    - incurred costs
    - indirect costs
    - indirect labour costs
    - indirect manufacturing costs
    - indirect payroll costs
    - indirect production costs
    - individual costs
    - industrial costs
    - industry-average costs
    - initial cost
    - inland freight cost
    - inspection costs
    - installation costs
    - insurance costs
    - insured cost
    - intangible costs
    - integrated cost
    - interest costs
    - inventoriable costs
    - inventory cost
    - inventory costs
    - inventory acquisition costs
    - inventory possession costs
    - investigation costs
    - investment costs
    - invoiced cost
    - issuing cost
    - joint cost
    - labour costs
    - landed cost
    - launching cost
    - launching costs
    - layoff costs
    - legal costs
    - legitimate costs
    - life cycle costs
    - life repair cost
    - liquidation cost
    - litigation costs
    - living costs
    - loading costs
    - loan cost
    - long-run average costs
    - long-run marginal costs
    - low costs
    - low operating costs
    - lump-sum costs
    - machining cost
    - maintenance costs
    - maintenance-and-repair costs
    - management costs
    - man-power cost
    - man-power costs
    - manufacturing cost
    - manufacturing costs
    - manufacturing overhead costs
    - marginal costs
    - marginal-factor costs
    - maritime costs
    - marketing costs
    - material costs
    - material handling costs
    - merchandising costs
    - miscellaneous costs
    - mixed cost
    - mounting costs
    - net cost
    - nominal cost
    - nonmanufacturing costs
    - obsolescence costs
    - offering cost
    - one-off costs
    - one-off costs of acquiring land, buildings and equipment
    - one-shot costs
    - operating costs
    - operation costs
    - operational costs
    - opportunity costs
    - order cost
    - ordering cost
    - order initiation cost
    - ordinary costs
    - organization costs
    - organizational costs
    - original cost
    - original cost of the assets
    - original cost of capital
    - out-of-pocket costs
    - overall cost
    - overall costs
    - overhead costs
    - overtime costs
    - own costs
    - owning costs
    - packaging cost
    - packing cost
    - past costs
    - past sunk costs
    - payroll cost
    - payroll costs
    - penalty cost
    - penalty costs
    - period costs
    - permissible costs
    - personnel costs
    - piece costs
    - planned costs
    - postponable costs
    - predetermined costs
    - prepaid costs
    - preproduction costs
    - prime cost
    - processing costs
    - procurement costs
    - product cost
    - production cost
    - production costs
    - product unit cost
    - progress-generating costs
    - progressive costs
    - prohibitive costs
    - project costs
    - project development cost
    - projected costs
    - promotional costs
    - protected costs
    - publicity costs
    - purchase costs
    - purchasing costs
    - pure costs of circulation
    - quality costs
    - quality-inspection costs
    - real cost
    - real costs
    - recall costs
    - reconstruction cost
    - recoverable cost
    - recurring costs
    - reduction costs
    - reimbursable cost
    - relative cost
    - relevant costs
    - removal costs
    - renewal cost
    - reoperating costs
    - reoperation costs
    - reorder cost
    - repair cost
    - repair costs
    - replacement cost
    - replacement costs
    - replacement cost at market rates
    - replacement cost of borrowing
    - replacement cost of capital assets
    - replacement cost of equipment
    - replacement depreciation cost
    - replenishment cost
    - reproduction cost
    - reproduction costs
    - research costs
    - research and development costs
    - reservation costs
    - rework costs
    - rising costs
    - road maintenance costs
    - running costs
    - run-on costs
    - salvage cost
    - salvage costs
    - scheduled costs
    - scrap cost
    - selling costs
    - semi-variable costs
    - service costs
    - servicing costs
    - setting-up costs
    - set-up costs
    - shadow costs
    - shelter costs
    - shipping costs
    - shortage costs
    - single cost
    - social costs
    - social marginal costs
    - social overhead costs
    - sorting costs
    - special costs
    - specification costs
    - spoilage costs
    - staff costs
    - stand costs
    - standard cost
    - standard costs
    - standard direct labour costs
    - standard direct materials cost
    - standard factory overhead cost
    - standing costs
    - start-up costs
    - stepped costs
    - stocking cost
    - stockout costs
    - storage costs
    - sunk costs
    - supervision costs
    - supplementary costs
    - supplementary costs of circulation
    - tangible costs
    - target cost
    - target costs
    - taxable cost of shares
    - tentative cost
    - time-related cost
    - total cost
    - training cost
    - training costs
    - transaction costs
    - transfer costs
    - transhipment costs
    - transport costs
    - transportation costs
    - travel costs
    - travelling costs
    - trim costs
    - true cost
    - true costs
    - trust cost
    - unamortized cost
    - unavoidable costs
    - underwriting cost
    - unexpired costs
    - unit cost
    - unit costs
    - unloading costs
    - unrecovered cost
    - unscheduled costs
    - upkeep costs
    - upward costs
    - utility's costs
    - variable costs
    - variable capital costs
    - wage costs
    - war costs
    - warehouse costs
    - warehousing costs
    - weighted average cost
    - welfare costs
    - wintering costs
    - working cost
    - working costs
    - costs for bunker
    - costs for storing
    - costs of administration
    - cost of appraisal
    - cost of arbitration
    - cost of borrowing
    - cost of boxing
    - cost of bunker
    - cost of capital
    - cost of capital deeping
    - cost of carriage
    - cost of carry
    - cost of carrying inventory
    - costs of circulation
    - cost of civil engineering work
    - cost of construction
    - cost of a contract
    - cost of credit
    - cost of delivery
    - cost of demonstration
    - cost of discounting
    - cost of disposal
    - cost of education
    - cost of equipment
    - cost of equity capital
    - cost of filing
    - cost of financing
    - cost of fixed capital
    - cost of funds
    - cost of goods
    - cost of haulage
    - cost of hotel accommodation
    - costs of housing
    - costs of idleness
    - cost of installation
    - cost of insurance
    - costs of inventory
    - cost of issue
    - cost of labour
    - cost of a licence
    - cost of living
    - cost of manpower
    - cost of manufacture
    - cost of manufactured goods
    - cost of manufacturing
    - costs of material
    - costs of material inputs
    - cost of money
    - cost of obtaining funds
    - costs of operations
    - cost of an order
    - cost of packaging
    - cost of packing
    - cost of postage
    - costs of production
    - cost of product sold
    - cost of a project
    - cost of publication
    - cost of putting goods into a saleable condition
    - cost of reclamation
    - cost of reinsurance
    - costs of reliability
    - cost of renting
    - cost of renting a trading post
    - cost of repairs
    - costs of routine maintenance
    - cost of sales
    - costs of sales
    - cost of scrap
    - cost of service
    - cost of servicing
    - costs of shipping
    - cost of storage
    - cost of a suit
    - costs of supervision
    - cost of tare
    - costs of trackage
    - costs of transportation
    - cost of work
    - cost per inquiry
    - costs per unit
    - above cost
    - at cost
    - at the cost of
    - at extra cost
    - below cost
    - less costs
    - minus costs
    - next to cost
    - under cost
    - with costs
    - without regard to cost
    - exclusive of costs
    - free of cost
    - cost of market, whichever is lower
    - cost plus percentage of cost
    - absorb costs
    - allocate costs
    - assess the cost
    - assess costs
    - assume costs
    - award costs against smb.
    - bear costs
    - calculate costs
    - charge cost
    - compute the cost
    - cover the cost
    - cover costs
    - curb costs
    - curtail costs
    - cut down on costs
    - cut production costs
    - decrease the cost
    - defray the costs
    - determine the cost
    - disregard costs
    - distort the cost
    - distribute costs
    - entail costs
    - estimate costs
    - exceed the cost
    - impose costs
    - increase cost
    - incur costs
    - inflict economic and social costs
    - involve costs
    - itemize costs
    - keep down costs
    - meet the cost
    - meet costs
    - offset the cost
    - offset the costs
    - offset high interest costs
    - overestimate production costs
    - pay costs
    - prune away costs
    - push up costs
    - recompense the cost
    - recoup the cost
    - recover costs
    - reduce costs
    - refund the cost
    - revise the cost
    - save costs
    - sell at a cost
    - share the cost
    - slash costs
    - split up the cost
    - trim costs
    - write off costs
    - write off costs against revenues
    - write off capital costs
    2. v

    English-russian dctionary of contemporary Economics > cost

  • 47 длительный допустимый ток

    1. Strombelastbarkeit, f
    2. Dauerstrombelastbarkeit, f

     

    (длительный) допустимый ток
    Максимальное значение электрического тока, который может протекать длительно по проводнику, устройству или аппарату при определенных условиях без превышения определенного значения их температуры в установившемся режиме
    [ ГОСТ Р МЭК 60050-826-2009]

    Этот ток обозначают IZ
    [ ГОСТ Р 50571. 1-2009 ( МЭК 60364-1: 2005)]

    EN

    (continuous) current-carrying capacity
    ampacity (US)
    maximum value of electric current which can be carried continuously by a conductor, a device or an apparatus, under specified conditions without its steady-state temperature exceeding a specified value
    [IEV number 826-11-13]

    ampacity
    The current in amperes that a conductor can carry continuously under the conditions of use without exceeding its temperature rating.
    [National Electrical Cod]

    FR

    courant (permanent) admissible, m
    valeur maximale du courant électrique qui peut parcourir en permanence, un conducteur, un dispositif ou un appareil, sans que sa température de régime permanent, dans des conditions données, soit supérieure à la valeur spécifiée
    [IEV number 826-11-13]

    Ampacity, the term is defined as the maximum amount of current a cable can carry before sustaining immediate or progressive deterioration. Also described as current rating or current-carrying capacity, is the RMS electric current which a device can continuously carry while remaining within its temperature rating. The ampacity of a cable depends on:

    • its insulation temperature rating;
    • conductor electrical properties for current;
    • frequency, in the case of alternating currents;
    • ability to dissipate heat, which depends on cable geometry and its surroundings;
    • ambient temperature.

    Electric wires have some resistance, and electric current flowing through them causes voltage drop and power dissipation, which heats the cable. Copper or aluminum can conduct a large amount of current before melting, but long before the conductors melt, their insulation would be damaged by the heat.

    The ampacity for a power cable is thus based on physical and electrical properties of the material & construction of the conductor and of its insulation, ambient temperature, and environmental conditions adjacent to the cable. Having a large overall surface area may dissipate heat well if the environment can absorb the heat.

    In a long run of cable, different conditions govern, and installation regulations normally specify that the most severe condition along the run governs the cable's rating. Cables run in wet or oily locations may carry a lower temperature rating than in a dry installation. Derating is necessary for multiple circuits in close proximity. When multiple cables are near, each contributes heat to the others and diminishes the amount of cooling air that can flow past the individual cables. The overall ampacity of the insulated conductors in a bundle of more than 3 must be derated, whether in a raceway or cable. Usually the de-rating factor is tabulated in a nation's wiring regulations.

    Depending on the type of insulating material, common maximum allowable temperatures at the surface of the conductor are 60, 75 and 90 degrees Celsius, often with an ambient air temperature of 30°C. In the U.S., 105°C is allowed with ambient of 40°C, for larger power cables, especially those operating at more than 2 kV. Likewise, specific insulations are rated 150, 200 or 250°C.

    The allowed current in cables generally needs to be decreased (derated) when the cable is covered with fireproofing material.

    For example, the United States National Electric Code, Table 310-16, specifies that up to three 8 AWG copper wires having a common insulating material (THWN) in a raceway, cable, or direct burial has an ampacity of 50 A when the ambient air is 30°C, the conductor surface temperature allowed to be 75°C. A single insulated conductor in air has 70 A rating.

    Ampacity rating is normally for continuous current, and short periods of overcurrent occur without harm in most cabling systems. The acceptable magnitude and duration of overcurrent is a more complex topic than ampacity.

    When designing an electrical system, one will normally need to know the current rating for the following:

    Some devices are limited by power rating, and when this power rating occurs below their current limit, it is not necessary to know the current limit to design a system. A common example of this is lightbulb holders.

    [http://en.wikipedia.org/wiki/Ampacity]

    Тематики

    • электротехника, основные понятия

    Синонимы

    EN

    DE

    • Dauerstrombelastbarkeit, f
    • Strombelastbarkeit, f

    FR

    • courant admissible, m
    • courant permanent admissible, m

    Русско-немецкий словарь нормативно-технической терминологии > длительный допустимый ток

  • 48 courant admissible, m

    1. длительный допустимый ток

     

    (длительный) допустимый ток
    Максимальное значение электрического тока, который может протекать длительно по проводнику, устройству или аппарату при определенных условиях без превышения определенного значения их температуры в установившемся режиме
    [ ГОСТ Р МЭК 60050-826-2009]

    Этот ток обозначают IZ
    [ ГОСТ Р 50571. 1-2009 ( МЭК 60364-1: 2005)]

    EN

    (continuous) current-carrying capacity
    ampacity (US)
    maximum value of electric current which can be carried continuously by a conductor, a device or an apparatus, under specified conditions without its steady-state temperature exceeding a specified value
    [IEV number 826-11-13]

    ampacity
    The current in amperes that a conductor can carry continuously under the conditions of use without exceeding its temperature rating.
    [National Electrical Cod]

    FR

    courant (permanent) admissible, m
    valeur maximale du courant électrique qui peut parcourir en permanence, un conducteur, un dispositif ou un appareil, sans que sa température de régime permanent, dans des conditions données, soit supérieure à la valeur spécifiée
    [IEV number 826-11-13]

    Ampacity, the term is defined as the maximum amount of current a cable can carry before sustaining immediate or progressive deterioration. Also described as current rating or current-carrying capacity, is the RMS electric current which a device can continuously carry while remaining within its temperature rating. The ampacity of a cable depends on:

    • its insulation temperature rating;
    • conductor electrical properties for current;
    • frequency, in the case of alternating currents;
    • ability to dissipate heat, which depends on cable geometry and its surroundings;
    • ambient temperature.

    Electric wires have some resistance, and electric current flowing through them causes voltage drop and power dissipation, which heats the cable. Copper or aluminum can conduct a large amount of current before melting, but long before the conductors melt, their insulation would be damaged by the heat.

    The ampacity for a power cable is thus based on physical and electrical properties of the material & construction of the conductor and of its insulation, ambient temperature, and environmental conditions adjacent to the cable. Having a large overall surface area may dissipate heat well if the environment can absorb the heat.

    In a long run of cable, different conditions govern, and installation regulations normally specify that the most severe condition along the run governs the cable's rating. Cables run in wet or oily locations may carry a lower temperature rating than in a dry installation. Derating is necessary for multiple circuits in close proximity. When multiple cables are near, each contributes heat to the others and diminishes the amount of cooling air that can flow past the individual cables. The overall ampacity of the insulated conductors in a bundle of more than 3 must be derated, whether in a raceway or cable. Usually the de-rating factor is tabulated in a nation's wiring regulations.

    Depending on the type of insulating material, common maximum allowable temperatures at the surface of the conductor are 60, 75 and 90 degrees Celsius, often with an ambient air temperature of 30°C. In the U.S., 105°C is allowed with ambient of 40°C, for larger power cables, especially those operating at more than 2 kV. Likewise, specific insulations are rated 150, 200 or 250°C.

    The allowed current in cables generally needs to be decreased (derated) when the cable is covered with fireproofing material.

    For example, the United States National Electric Code, Table 310-16, specifies that up to three 8 AWG copper wires having a common insulating material (THWN) in a raceway, cable, or direct burial has an ampacity of 50 A when the ambient air is 30°C, the conductor surface temperature allowed to be 75°C. A single insulated conductor in air has 70 A rating.

    Ampacity rating is normally for continuous current, and short periods of overcurrent occur without harm in most cabling systems. The acceptable magnitude and duration of overcurrent is a more complex topic than ampacity.

    When designing an electrical system, one will normally need to know the current rating for the following:

    Some devices are limited by power rating, and when this power rating occurs below their current limit, it is not necessary to know the current limit to design a system. A common example of this is lightbulb holders.

    [http://en.wikipedia.org/wiki/Ampacity]

    Тематики

    • электротехника, основные понятия

    Синонимы

    EN

    DE

    • Dauerstrombelastbarkeit, f
    • Strombelastbarkeit, f

    FR

    • courant admissible, m
    • courant permanent admissible, m

    Франко-русский словарь нормативно-технической терминологии > courant admissible, m

  • 49 courant permanent admissible, m

    1. длительный допустимый ток

     

    (длительный) допустимый ток
    Максимальное значение электрического тока, который может протекать длительно по проводнику, устройству или аппарату при определенных условиях без превышения определенного значения их температуры в установившемся режиме
    [ ГОСТ Р МЭК 60050-826-2009]

    Этот ток обозначают IZ
    [ ГОСТ Р 50571. 1-2009 ( МЭК 60364-1: 2005)]

    EN

    (continuous) current-carrying capacity
    ampacity (US)
    maximum value of electric current which can be carried continuously by a conductor, a device or an apparatus, under specified conditions without its steady-state temperature exceeding a specified value
    [IEV number 826-11-13]

    ampacity
    The current in amperes that a conductor can carry continuously under the conditions of use without exceeding its temperature rating.
    [National Electrical Cod]

    FR

    courant (permanent) admissible, m
    valeur maximale du courant électrique qui peut parcourir en permanence, un conducteur, un dispositif ou un appareil, sans que sa température de régime permanent, dans des conditions données, soit supérieure à la valeur spécifiée
    [IEV number 826-11-13]

    Ampacity, the term is defined as the maximum amount of current a cable can carry before sustaining immediate or progressive deterioration. Also described as current rating or current-carrying capacity, is the RMS electric current which a device can continuously carry while remaining within its temperature rating. The ampacity of a cable depends on:

    • its insulation temperature rating;
    • conductor electrical properties for current;
    • frequency, in the case of alternating currents;
    • ability to dissipate heat, which depends on cable geometry and its surroundings;
    • ambient temperature.

    Electric wires have some resistance, and electric current flowing through them causes voltage drop and power dissipation, which heats the cable. Copper or aluminum can conduct a large amount of current before melting, but long before the conductors melt, their insulation would be damaged by the heat.

    The ampacity for a power cable is thus based on physical and electrical properties of the material & construction of the conductor and of its insulation, ambient temperature, and environmental conditions adjacent to the cable. Having a large overall surface area may dissipate heat well if the environment can absorb the heat.

    In a long run of cable, different conditions govern, and installation regulations normally specify that the most severe condition along the run governs the cable's rating. Cables run in wet or oily locations may carry a lower temperature rating than in a dry installation. Derating is necessary for multiple circuits in close proximity. When multiple cables are near, each contributes heat to the others and diminishes the amount of cooling air that can flow past the individual cables. The overall ampacity of the insulated conductors in a bundle of more than 3 must be derated, whether in a raceway or cable. Usually the de-rating factor is tabulated in a nation's wiring regulations.

    Depending on the type of insulating material, common maximum allowable temperatures at the surface of the conductor are 60, 75 and 90 degrees Celsius, often with an ambient air temperature of 30°C. In the U.S., 105°C is allowed with ambient of 40°C, for larger power cables, especially those operating at more than 2 kV. Likewise, specific insulations are rated 150, 200 or 250°C.

    The allowed current in cables generally needs to be decreased (derated) when the cable is covered with fireproofing material.

    For example, the United States National Electric Code, Table 310-16, specifies that up to three 8 AWG copper wires having a common insulating material (THWN) in a raceway, cable, or direct burial has an ampacity of 50 A when the ambient air is 30°C, the conductor surface temperature allowed to be 75°C. A single insulated conductor in air has 70 A rating.

    Ampacity rating is normally for continuous current, and short periods of overcurrent occur without harm in most cabling systems. The acceptable magnitude and duration of overcurrent is a more complex topic than ampacity.

    When designing an electrical system, one will normally need to know the current rating for the following:

    Some devices are limited by power rating, and when this power rating occurs below their current limit, it is not necessary to know the current limit to design a system. A common example of this is lightbulb holders.

    [http://en.wikipedia.org/wiki/Ampacity]

    Тематики

    • электротехника, основные понятия

    Синонимы

    EN

    DE

    • Dauerstrombelastbarkeit, f
    • Strombelastbarkeit, f

    FR

    • courant admissible, m
    • courant permanent admissible, m

    Франко-русский словарь нормативно-технической терминологии > courant permanent admissible, m

  • 50 Dauerstrombelastbarkeit, f

    1. длительный допустимый ток

     

    (длительный) допустимый ток
    Максимальное значение электрического тока, который может протекать длительно по проводнику, устройству или аппарату при определенных условиях без превышения определенного значения их температуры в установившемся режиме
    [ ГОСТ Р МЭК 60050-826-2009]

    Этот ток обозначают IZ
    [ ГОСТ Р 50571. 1-2009 ( МЭК 60364-1: 2005)]

    EN

    (continuous) current-carrying capacity
    ampacity (US)
    maximum value of electric current which can be carried continuously by a conductor, a device or an apparatus, under specified conditions without its steady-state temperature exceeding a specified value
    [IEV number 826-11-13]

    ampacity
    The current in amperes that a conductor can carry continuously under the conditions of use without exceeding its temperature rating.
    [National Electrical Cod]

    FR

    courant (permanent) admissible, m
    valeur maximale du courant électrique qui peut parcourir en permanence, un conducteur, un dispositif ou un appareil, sans que sa température de régime permanent, dans des conditions données, soit supérieure à la valeur spécifiée
    [IEV number 826-11-13]

    Ampacity, the term is defined as the maximum amount of current a cable can carry before sustaining immediate or progressive deterioration. Also described as current rating or current-carrying capacity, is the RMS electric current which a device can continuously carry while remaining within its temperature rating. The ampacity of a cable depends on:

    • its insulation temperature rating;
    • conductor electrical properties for current;
    • frequency, in the case of alternating currents;
    • ability to dissipate heat, which depends on cable geometry and its surroundings;
    • ambient temperature.

    Electric wires have some resistance, and electric current flowing through them causes voltage drop and power dissipation, which heats the cable. Copper or aluminum can conduct a large amount of current before melting, but long before the conductors melt, their insulation would be damaged by the heat.

    The ampacity for a power cable is thus based on physical and electrical properties of the material & construction of the conductor and of its insulation, ambient temperature, and environmental conditions adjacent to the cable. Having a large overall surface area may dissipate heat well if the environment can absorb the heat.

    In a long run of cable, different conditions govern, and installation regulations normally specify that the most severe condition along the run governs the cable's rating. Cables run in wet or oily locations may carry a lower temperature rating than in a dry installation. Derating is necessary for multiple circuits in close proximity. When multiple cables are near, each contributes heat to the others and diminishes the amount of cooling air that can flow past the individual cables. The overall ampacity of the insulated conductors in a bundle of more than 3 must be derated, whether in a raceway or cable. Usually the de-rating factor is tabulated in a nation's wiring regulations.

    Depending on the type of insulating material, common maximum allowable temperatures at the surface of the conductor are 60, 75 and 90 degrees Celsius, often with an ambient air temperature of 30°C. In the U.S., 105°C is allowed with ambient of 40°C, for larger power cables, especially those operating at more than 2 kV. Likewise, specific insulations are rated 150, 200 or 250°C.

    The allowed current in cables generally needs to be decreased (derated) when the cable is covered with fireproofing material.

    For example, the United States National Electric Code, Table 310-16, specifies that up to three 8 AWG copper wires having a common insulating material (THWN) in a raceway, cable, or direct burial has an ampacity of 50 A when the ambient air is 30°C, the conductor surface temperature allowed to be 75°C. A single insulated conductor in air has 70 A rating.

    Ampacity rating is normally for continuous current, and short periods of overcurrent occur without harm in most cabling systems. The acceptable magnitude and duration of overcurrent is a more complex topic than ampacity.

    When designing an electrical system, one will normally need to know the current rating for the following:

    Some devices are limited by power rating, and when this power rating occurs below their current limit, it is not necessary to know the current limit to design a system. A common example of this is lightbulb holders.

    [http://en.wikipedia.org/wiki/Ampacity]

    Тематики

    • электротехника, основные понятия

    Синонимы

    EN

    DE

    • Dauerstrombelastbarkeit, f
    • Strombelastbarkeit, f

    FR

    • courant admissible, m
    • courant permanent admissible, m

    Немецко-русский словарь нормативно-технической терминологии > Dauerstrombelastbarkeit, f

  • 51 Strombelastbarkeit, f

    1. длительный допустимый ток

     

    (длительный) допустимый ток
    Максимальное значение электрического тока, который может протекать длительно по проводнику, устройству или аппарату при определенных условиях без превышения определенного значения их температуры в установившемся режиме
    [ ГОСТ Р МЭК 60050-826-2009]

    Этот ток обозначают IZ
    [ ГОСТ Р 50571. 1-2009 ( МЭК 60364-1: 2005)]

    EN

    (continuous) current-carrying capacity
    ampacity (US)
    maximum value of electric current which can be carried continuously by a conductor, a device or an apparatus, under specified conditions without its steady-state temperature exceeding a specified value
    [IEV number 826-11-13]

    ampacity
    The current in amperes that a conductor can carry continuously under the conditions of use without exceeding its temperature rating.
    [National Electrical Cod]

    FR

    courant (permanent) admissible, m
    valeur maximale du courant électrique qui peut parcourir en permanence, un conducteur, un dispositif ou un appareil, sans que sa température de régime permanent, dans des conditions données, soit supérieure à la valeur spécifiée
    [IEV number 826-11-13]

    Ampacity, the term is defined as the maximum amount of current a cable can carry before sustaining immediate or progressive deterioration. Also described as current rating or current-carrying capacity, is the RMS electric current which a device can continuously carry while remaining within its temperature rating. The ampacity of a cable depends on:

    • its insulation temperature rating;
    • conductor electrical properties for current;
    • frequency, in the case of alternating currents;
    • ability to dissipate heat, which depends on cable geometry and its surroundings;
    • ambient temperature.

    Electric wires have some resistance, and electric current flowing through them causes voltage drop and power dissipation, which heats the cable. Copper or aluminum can conduct a large amount of current before melting, but long before the conductors melt, their insulation would be damaged by the heat.

    The ampacity for a power cable is thus based on physical and electrical properties of the material & construction of the conductor and of its insulation, ambient temperature, and environmental conditions adjacent to the cable. Having a large overall surface area may dissipate heat well if the environment can absorb the heat.

    In a long run of cable, different conditions govern, and installation regulations normally specify that the most severe condition along the run governs the cable's rating. Cables run in wet or oily locations may carry a lower temperature rating than in a dry installation. Derating is necessary for multiple circuits in close proximity. When multiple cables are near, each contributes heat to the others and diminishes the amount of cooling air that can flow past the individual cables. The overall ampacity of the insulated conductors in a bundle of more than 3 must be derated, whether in a raceway or cable. Usually the de-rating factor is tabulated in a nation's wiring regulations.

    Depending on the type of insulating material, common maximum allowable temperatures at the surface of the conductor are 60, 75 and 90 degrees Celsius, often with an ambient air temperature of 30°C. In the U.S., 105°C is allowed with ambient of 40°C, for larger power cables, especially those operating at more than 2 kV. Likewise, specific insulations are rated 150, 200 or 250°C.

    The allowed current in cables generally needs to be decreased (derated) when the cable is covered with fireproofing material.

    For example, the United States National Electric Code, Table 310-16, specifies that up to three 8 AWG copper wires having a common insulating material (THWN) in a raceway, cable, or direct burial has an ampacity of 50 A when the ambient air is 30°C, the conductor surface temperature allowed to be 75°C. A single insulated conductor in air has 70 A rating.

    Ampacity rating is normally for continuous current, and short periods of overcurrent occur without harm in most cabling systems. The acceptable magnitude and duration of overcurrent is a more complex topic than ampacity.

    When designing an electrical system, one will normally need to know the current rating for the following:

    Some devices are limited by power rating, and when this power rating occurs below their current limit, it is not necessary to know the current limit to design a system. A common example of this is lightbulb holders.

    [http://en.wikipedia.org/wiki/Ampacity]

    Тематики

    • электротехника, основные понятия

    Синонимы

    EN

    DE

    • Dauerstrombelastbarkeit, f
    • Strombelastbarkeit, f

    FR

    • courant admissible, m
    • courant permanent admissible, m

    Немецко-русский словарь нормативно-технической терминологии > Strombelastbarkeit, f

  • 52 длительный допустимый ток

    1. current-carrying capacity
    2. continuous current-carrying capacity
    3. continuous current
    4. ampacity (US)

     

    (длительный) допустимый ток
    Максимальное значение электрического тока, который может протекать длительно по проводнику, устройству или аппарату при определенных условиях без превышения определенного значения их температуры в установившемся режиме
    [ ГОСТ Р МЭК 60050-826-2009]

    Этот ток обозначают IZ
    [ ГОСТ Р 50571. 1-2009 ( МЭК 60364-1: 2005)]

    EN

    (continuous) current-carrying capacity
    ampacity (US)
    maximum value of electric current which can be carried continuously by a conductor, a device or an apparatus, under specified conditions without its steady-state temperature exceeding a specified value
    [IEV number 826-11-13]

    ampacity
    The current in amperes that a conductor can carry continuously under the conditions of use without exceeding its temperature rating.
    [National Electrical Cod]

    FR

    courant (permanent) admissible, m
    valeur maximale du courant électrique qui peut parcourir en permanence, un conducteur, un dispositif ou un appareil, sans que sa température de régime permanent, dans des conditions données, soit supérieure à la valeur spécifiée
    [IEV number 826-11-13]

    Ampacity, the term is defined as the maximum amount of current a cable can carry before sustaining immediate or progressive deterioration. Also described as current rating or current-carrying capacity, is the RMS electric current which a device can continuously carry while remaining within its temperature rating. The ampacity of a cable depends on:

    • its insulation temperature rating;
    • conductor electrical properties for current;
    • frequency, in the case of alternating currents;
    • ability to dissipate heat, which depends on cable geometry and its surroundings;
    • ambient temperature.

    Electric wires have some resistance, and electric current flowing through them causes voltage drop and power dissipation, which heats the cable. Copper or aluminum can conduct a large amount of current before melting, but long before the conductors melt, their insulation would be damaged by the heat.

    The ampacity for a power cable is thus based on physical and electrical properties of the material & construction of the conductor and of its insulation, ambient temperature, and environmental conditions adjacent to the cable. Having a large overall surface area may dissipate heat well if the environment can absorb the heat.

    In a long run of cable, different conditions govern, and installation regulations normally specify that the most severe condition along the run governs the cable's rating. Cables run in wet or oily locations may carry a lower temperature rating than in a dry installation. Derating is necessary for multiple circuits in close proximity. When multiple cables are near, each contributes heat to the others and diminishes the amount of cooling air that can flow past the individual cables. The overall ampacity of the insulated conductors in a bundle of more than 3 must be derated, whether in a raceway or cable. Usually the de-rating factor is tabulated in a nation's wiring regulations.

    Depending on the type of insulating material, common maximum allowable temperatures at the surface of the conductor are 60, 75 and 90 degrees Celsius, often with an ambient air temperature of 30°C. In the U.S., 105°C is allowed with ambient of 40°C, for larger power cables, especially those operating at more than 2 kV. Likewise, specific insulations are rated 150, 200 or 250°C.

    The allowed current in cables generally needs to be decreased (derated) when the cable is covered with fireproofing material.

    For example, the United States National Electric Code, Table 310-16, specifies that up to three 8 AWG copper wires having a common insulating material (THWN) in a raceway, cable, or direct burial has an ampacity of 50 A when the ambient air is 30°C, the conductor surface temperature allowed to be 75°C. A single insulated conductor in air has 70 A rating.

    Ampacity rating is normally for continuous current, and short periods of overcurrent occur without harm in most cabling systems. The acceptable magnitude and duration of overcurrent is a more complex topic than ampacity.

    When designing an electrical system, one will normally need to know the current rating for the following:

    Some devices are limited by power rating, and when this power rating occurs below their current limit, it is not necessary to know the current limit to design a system. A common example of this is lightbulb holders.

    [http://en.wikipedia.org/wiki/Ampacity]

    Тематики

    • электротехника, основные понятия

    Синонимы

    EN

    DE

    • Dauerstrombelastbarkeit, f
    • Strombelastbarkeit, f

    FR

    • courant admissible, m
    • courant permanent admissible, m

    Русско-английский словарь нормативно-технической терминологии > длительный допустимый ток

  • 53 длительный допустимый ток

    1. courant permanent admissible, m
    2. courant admissible, m

     

    (длительный) допустимый ток
    Максимальное значение электрического тока, который может протекать длительно по проводнику, устройству или аппарату при определенных условиях без превышения определенного значения их температуры в установившемся режиме
    [ ГОСТ Р МЭК 60050-826-2009]

    Этот ток обозначают IZ
    [ ГОСТ Р 50571. 1-2009 ( МЭК 60364-1: 2005)]

    EN

    (continuous) current-carrying capacity
    ampacity (US)
    maximum value of electric current which can be carried continuously by a conductor, a device or an apparatus, under specified conditions without its steady-state temperature exceeding a specified value
    [IEV number 826-11-13]

    ampacity
    The current in amperes that a conductor can carry continuously under the conditions of use without exceeding its temperature rating.
    [National Electrical Cod]

    FR

    courant (permanent) admissible, m
    valeur maximale du courant électrique qui peut parcourir en permanence, un conducteur, un dispositif ou un appareil, sans que sa température de régime permanent, dans des conditions données, soit supérieure à la valeur spécifiée
    [IEV number 826-11-13]

    Ampacity, the term is defined as the maximum amount of current a cable can carry before sustaining immediate or progressive deterioration. Also described as current rating or current-carrying capacity, is the RMS electric current which a device can continuously carry while remaining within its temperature rating. The ampacity of a cable depends on:

    • its insulation temperature rating;
    • conductor electrical properties for current;
    • frequency, in the case of alternating currents;
    • ability to dissipate heat, which depends on cable geometry and its surroundings;
    • ambient temperature.

    Electric wires have some resistance, and electric current flowing through them causes voltage drop and power dissipation, which heats the cable. Copper or aluminum can conduct a large amount of current before melting, but long before the conductors melt, their insulation would be damaged by the heat.

    The ampacity for a power cable is thus based on physical and electrical properties of the material & construction of the conductor and of its insulation, ambient temperature, and environmental conditions adjacent to the cable. Having a large overall surface area may dissipate heat well if the environment can absorb the heat.

    In a long run of cable, different conditions govern, and installation regulations normally specify that the most severe condition along the run governs the cable's rating. Cables run in wet or oily locations may carry a lower temperature rating than in a dry installation. Derating is necessary for multiple circuits in close proximity. When multiple cables are near, each contributes heat to the others and diminishes the amount of cooling air that can flow past the individual cables. The overall ampacity of the insulated conductors in a bundle of more than 3 must be derated, whether in a raceway or cable. Usually the de-rating factor is tabulated in a nation's wiring regulations.

    Depending on the type of insulating material, common maximum allowable temperatures at the surface of the conductor are 60, 75 and 90 degrees Celsius, often with an ambient air temperature of 30°C. In the U.S., 105°C is allowed with ambient of 40°C, for larger power cables, especially those operating at more than 2 kV. Likewise, specific insulations are rated 150, 200 or 250°C.

    The allowed current in cables generally needs to be decreased (derated) when the cable is covered with fireproofing material.

    For example, the United States National Electric Code, Table 310-16, specifies that up to three 8 AWG copper wires having a common insulating material (THWN) in a raceway, cable, or direct burial has an ampacity of 50 A when the ambient air is 30°C, the conductor surface temperature allowed to be 75°C. A single insulated conductor in air has 70 A rating.

    Ampacity rating is normally for continuous current, and short periods of overcurrent occur without harm in most cabling systems. The acceptable magnitude and duration of overcurrent is a more complex topic than ampacity.

    When designing an electrical system, one will normally need to know the current rating for the following:

    Some devices are limited by power rating, and when this power rating occurs below their current limit, it is not necessary to know the current limit to design a system. A common example of this is lightbulb holders.

    [http://en.wikipedia.org/wiki/Ampacity]

    Тематики

    • электротехника, основные понятия

    Синонимы

    EN

    DE

    • Dauerstrombelastbarkeit, f
    • Strombelastbarkeit, f

    FR

    • courant admissible, m
    • courant permanent admissible, m

    Русско-французский словарь нормативно-технической терминологии > длительный допустимый ток

  • 54 continuous current-carrying capacity

    1. длительный допустимый ток
    2. длительная пропускная способность по току

     

    длительная пропускная способность по току
    —
    [Я.Н.Лугинский, М.С.Фези-Жилинская, Ю.С.Кабиров. Англо-русский словарь по электротехнике и электроэнергетике, Москва, 1999 г.]

    Тематики

    • электротехника, основные понятия

    EN

     

    (длительный) допустимый ток
    Максимальное значение электрического тока, который может протекать длительно по проводнику, устройству или аппарату при определенных условиях без превышения определенного значения их температуры в установившемся режиме
    [ ГОСТ Р МЭК 60050-826-2009]

    Этот ток обозначают IZ
    [ ГОСТ Р 50571. 1-2009 ( МЭК 60364-1: 2005)]

    EN

    (continuous) current-carrying capacity
    ampacity (US)
    maximum value of electric current which can be carried continuously by a conductor, a device or an apparatus, under specified conditions without its steady-state temperature exceeding a specified value
    [IEV number 826-11-13]

    ampacity
    The current in amperes that a conductor can carry continuously under the conditions of use without exceeding its temperature rating.
    [National Electrical Cod]

    FR

    courant (permanent) admissible, m
    valeur maximale du courant électrique qui peut parcourir en permanence, un conducteur, un dispositif ou un appareil, sans que sa température de régime permanent, dans des conditions données, soit supérieure à la valeur spécifiée
    [IEV number 826-11-13]

    Ampacity, the term is defined as the maximum amount of current a cable can carry before sustaining immediate or progressive deterioration. Also described as current rating or current-carrying capacity, is the RMS electric current which a device can continuously carry while remaining within its temperature rating. The ampacity of a cable depends on:

    • its insulation temperature rating;
    • conductor electrical properties for current;
    • frequency, in the case of alternating currents;
    • ability to dissipate heat, which depends on cable geometry and its surroundings;
    • ambient temperature.

    Electric wires have some resistance, and electric current flowing through them causes voltage drop and power dissipation, which heats the cable. Copper or aluminum can conduct a large amount of current before melting, but long before the conductors melt, their insulation would be damaged by the heat.

    The ampacity for a power cable is thus based on physical and electrical properties of the material & construction of the conductor and of its insulation, ambient temperature, and environmental conditions adjacent to the cable. Having a large overall surface area may dissipate heat well if the environment can absorb the heat.

    In a long run of cable, different conditions govern, and installation regulations normally specify that the most severe condition along the run governs the cable's rating. Cables run in wet or oily locations may carry a lower temperature rating than in a dry installation. Derating is necessary for multiple circuits in close proximity. When multiple cables are near, each contributes heat to the others and diminishes the amount of cooling air that can flow past the individual cables. The overall ampacity of the insulated conductors in a bundle of more than 3 must be derated, whether in a raceway or cable. Usually the de-rating factor is tabulated in a nation's wiring regulations.

    Depending on the type of insulating material, common maximum allowable temperatures at the surface of the conductor are 60, 75 and 90 degrees Celsius, often with an ambient air temperature of 30°C. In the U.S., 105°C is allowed with ambient of 40°C, for larger power cables, especially those operating at more than 2 kV. Likewise, specific insulations are rated 150, 200 or 250°C.

    The allowed current in cables generally needs to be decreased (derated) when the cable is covered with fireproofing material.

    For example, the United States National Electric Code, Table 310-16, specifies that up to three 8 AWG copper wires having a common insulating material (THWN) in a raceway, cable, or direct burial has an ampacity of 50 A when the ambient air is 30°C, the conductor surface temperature allowed to be 75°C. A single insulated conductor in air has 70 A rating.

    Ampacity rating is normally for continuous current, and short periods of overcurrent occur without harm in most cabling systems. The acceptable magnitude and duration of overcurrent is a more complex topic than ampacity.

    When designing an electrical system, one will normally need to know the current rating for the following:

    Some devices are limited by power rating, and when this power rating occurs below their current limit, it is not necessary to know the current limit to design a system. A common example of this is lightbulb holders.

    [http://en.wikipedia.org/wiki/Ampacity]

    Тематики

    • электротехника, основные понятия

    Синонимы

    EN

    DE

    • Dauerstrombelastbarkeit, f
    • Strombelastbarkeit, f

    FR

    • courant admissible, m
    • courant permanent admissible, m

    Англо-русский словарь нормативно-технической терминологии > continuous current-carrying capacity

  • 55 ampacity (US)

    1. длительный допустимый ток

     

    (длительный) допустимый ток
    Максимальное значение электрического тока, который может протекать длительно по проводнику, устройству или аппарату при определенных условиях без превышения определенного значения их температуры в установившемся режиме
    [ ГОСТ Р МЭК 60050-826-2009]

    Этот ток обозначают IZ
    [ ГОСТ Р 50571. 1-2009 ( МЭК 60364-1: 2005)]

    EN

    (continuous) current-carrying capacity
    ampacity (US)
    maximum value of electric current which can be carried continuously by a conductor, a device or an apparatus, under specified conditions without its steady-state temperature exceeding a specified value
    [IEV number 826-11-13]

    ampacity
    The current in amperes that a conductor can carry continuously under the conditions of use without exceeding its temperature rating.
    [National Electrical Cod]

    FR

    courant (permanent) admissible, m
    valeur maximale du courant électrique qui peut parcourir en permanence, un conducteur, un dispositif ou un appareil, sans que sa température de régime permanent, dans des conditions données, soit supérieure à la valeur spécifiée
    [IEV number 826-11-13]

    Ampacity, the term is defined as the maximum amount of current a cable can carry before sustaining immediate or progressive deterioration. Also described as current rating or current-carrying capacity, is the RMS electric current which a device can continuously carry while remaining within its temperature rating. The ampacity of a cable depends on:

    • its insulation temperature rating;
    • conductor electrical properties for current;
    • frequency, in the case of alternating currents;
    • ability to dissipate heat, which depends on cable geometry and its surroundings;
    • ambient temperature.

    Electric wires have some resistance, and electric current flowing through them causes voltage drop and power dissipation, which heats the cable. Copper or aluminum can conduct a large amount of current before melting, but long before the conductors melt, their insulation would be damaged by the heat.

    The ampacity for a power cable is thus based on physical and electrical properties of the material & construction of the conductor and of its insulation, ambient temperature, and environmental conditions adjacent to the cable. Having a large overall surface area may dissipate heat well if the environment can absorb the heat.

    In a long run of cable, different conditions govern, and installation regulations normally specify that the most severe condition along the run governs the cable's rating. Cables run in wet or oily locations may carry a lower temperature rating than in a dry installation. Derating is necessary for multiple circuits in close proximity. When multiple cables are near, each contributes heat to the others and diminishes the amount of cooling air that can flow past the individual cables. The overall ampacity of the insulated conductors in a bundle of more than 3 must be derated, whether in a raceway or cable. Usually the de-rating factor is tabulated in a nation's wiring regulations.

    Depending on the type of insulating material, common maximum allowable temperatures at the surface of the conductor are 60, 75 and 90 degrees Celsius, often with an ambient air temperature of 30°C. In the U.S., 105°C is allowed with ambient of 40°C, for larger power cables, especially those operating at more than 2 kV. Likewise, specific insulations are rated 150, 200 or 250°C.

    The allowed current in cables generally needs to be decreased (derated) when the cable is covered with fireproofing material.

    For example, the United States National Electric Code, Table 310-16, specifies that up to three 8 AWG copper wires having a common insulating material (THWN) in a raceway, cable, or direct burial has an ampacity of 50 A when the ambient air is 30°C, the conductor surface temperature allowed to be 75°C. A single insulated conductor in air has 70 A rating.

    Ampacity rating is normally for continuous current, and short periods of overcurrent occur without harm in most cabling systems. The acceptable magnitude and duration of overcurrent is a more complex topic than ampacity.

    When designing an electrical system, one will normally need to know the current rating for the following:

    Some devices are limited by power rating, and when this power rating occurs below their current limit, it is not necessary to know the current limit to design a system. A common example of this is lightbulb holders.

    [http://en.wikipedia.org/wiki/Ampacity]

    Тематики

    • электротехника, основные понятия

    Синонимы

    EN

    DE

    • Dauerstrombelastbarkeit, f
    • Strombelastbarkeit, f

    FR

    • courant admissible, m
    • courant permanent admissible, m

    Англо-русский словарь нормативно-технической терминологии > ampacity (US)

  • 56 continuous current

    1. непрерывный ток
    2. длительный допустимый ток

     

    (длительный) допустимый ток
    Максимальное значение электрического тока, который может протекать длительно по проводнику, устройству или аппарату при определенных условиях без превышения определенного значения их температуры в установившемся режиме
    [ ГОСТ Р МЭК 60050-826-2009]

    Этот ток обозначают IZ
    [ ГОСТ Р 50571. 1-2009 ( МЭК 60364-1: 2005)]

    EN

    (continuous) current-carrying capacity
    ampacity (US)
    maximum value of electric current which can be carried continuously by a conductor, a device or an apparatus, under specified conditions without its steady-state temperature exceeding a specified value
    [IEV number 826-11-13]

    ampacity
    The current in amperes that a conductor can carry continuously under the conditions of use without exceeding its temperature rating.
    [National Electrical Cod]

    FR

    courant (permanent) admissible, m
    valeur maximale du courant électrique qui peut parcourir en permanence, un conducteur, un dispositif ou un appareil, sans que sa température de régime permanent, dans des conditions données, soit supérieure à la valeur spécifiée
    [IEV number 826-11-13]

    Ampacity, the term is defined as the maximum amount of current a cable can carry before sustaining immediate or progressive deterioration. Also described as current rating or current-carrying capacity, is the RMS electric current which a device can continuously carry while remaining within its temperature rating. The ampacity of a cable depends on:

    • its insulation temperature rating;
    • conductor electrical properties for current;
    • frequency, in the case of alternating currents;
    • ability to dissipate heat, which depends on cable geometry and its surroundings;
    • ambient temperature.

    Electric wires have some resistance, and electric current flowing through them causes voltage drop and power dissipation, which heats the cable. Copper or aluminum can conduct a large amount of current before melting, but long before the conductors melt, their insulation would be damaged by the heat.

    The ampacity for a power cable is thus based on physical and electrical properties of the material & construction of the conductor and of its insulation, ambient temperature, and environmental conditions adjacent to the cable. Having a large overall surface area may dissipate heat well if the environment can absorb the heat.

    In a long run of cable, different conditions govern, and installation regulations normally specify that the most severe condition along the run governs the cable's rating. Cables run in wet or oily locations may carry a lower temperature rating than in a dry installation. Derating is necessary for multiple circuits in close proximity. When multiple cables are near, each contributes heat to the others and diminishes the amount of cooling air that can flow past the individual cables. The overall ampacity of the insulated conductors in a bundle of more than 3 must be derated, whether in a raceway or cable. Usually the de-rating factor is tabulated in a nation's wiring regulations.

    Depending on the type of insulating material, common maximum allowable temperatures at the surface of the conductor are 60, 75 and 90 degrees Celsius, often with an ambient air temperature of 30°C. In the U.S., 105°C is allowed with ambient of 40°C, for larger power cables, especially those operating at more than 2 kV. Likewise, specific insulations are rated 150, 200 or 250°C.

    The allowed current in cables generally needs to be decreased (derated) when the cable is covered with fireproofing material.

    For example, the United States National Electric Code, Table 310-16, specifies that up to three 8 AWG copper wires having a common insulating material (THWN) in a raceway, cable, or direct burial has an ampacity of 50 A when the ambient air is 30°C, the conductor surface temperature allowed to be 75°C. A single insulated conductor in air has 70 A rating.

    Ampacity rating is normally for continuous current, and short periods of overcurrent occur without harm in most cabling systems. The acceptable magnitude and duration of overcurrent is a more complex topic than ampacity.

    When designing an electrical system, one will normally need to know the current rating for the following:

    Some devices are limited by power rating, and when this power rating occurs below their current limit, it is not necessary to know the current limit to design a system. A common example of this is lightbulb holders.

    [http://en.wikipedia.org/wiki/Ampacity]

    Тематики

    • электротехника, основные понятия

    Синонимы

    EN

    DE

    • Dauerstrombelastbarkeit, f
    • Strombelastbarkeit, f

    FR

    • courant admissible, m
    • courant permanent admissible, m

     

    непрерывный ток
    —
    [Я.Н.Лугинский, М.С.Фези-Жилинская, Ю.С.Кабиров. Англо-русский словарь по электротехнике и электроэнергетике, Москва, 1999]

    Тематики

    • электротехника, основные понятия

    EN

    Англо-русский словарь нормативно-технической терминологии > continuous current

  • 57 current-carrying capacity

    1. прочность печатной платы к токовой нагрузке
    2. предельно допустимый ток
    3. длительный допустимый ток

     

    (длительный) допустимый ток
    Максимальное значение электрического тока, который может протекать длительно по проводнику, устройству или аппарату при определенных условиях без превышения определенного значения их температуры в установившемся режиме
    [ ГОСТ Р МЭК 60050-826-2009]

    Этот ток обозначают IZ
    [ ГОСТ Р 50571. 1-2009 ( МЭК 60364-1: 2005)]

    EN

    (continuous) current-carrying capacity
    ampacity (US)
    maximum value of electric current which can be carried continuously by a conductor, a device or an apparatus, under specified conditions without its steady-state temperature exceeding a specified value
    [IEV number 826-11-13]

    ampacity
    The current in amperes that a conductor can carry continuously under the conditions of use without exceeding its temperature rating.
    [National Electrical Cod]

    FR

    courant (permanent) admissible, m
    valeur maximale du courant électrique qui peut parcourir en permanence, un conducteur, un dispositif ou un appareil, sans que sa température de régime permanent, dans des conditions données, soit supérieure à la valeur spécifiée
    [IEV number 826-11-13]

    Ampacity, the term is defined as the maximum amount of current a cable can carry before sustaining immediate or progressive deterioration. Also described as current rating or current-carrying capacity, is the RMS electric current which a device can continuously carry while remaining within its temperature rating. The ampacity of a cable depends on:

    • its insulation temperature rating;
    • conductor electrical properties for current;
    • frequency, in the case of alternating currents;
    • ability to dissipate heat, which depends on cable geometry and its surroundings;
    • ambient temperature.

    Electric wires have some resistance, and electric current flowing through them causes voltage drop and power dissipation, which heats the cable. Copper or aluminum can conduct a large amount of current before melting, but long before the conductors melt, their insulation would be damaged by the heat.

    The ampacity for a power cable is thus based on physical and electrical properties of the material & construction of the conductor and of its insulation, ambient temperature, and environmental conditions adjacent to the cable. Having a large overall surface area may dissipate heat well if the environment can absorb the heat.

    In a long run of cable, different conditions govern, and installation regulations normally specify that the most severe condition along the run governs the cable's rating. Cables run in wet or oily locations may carry a lower temperature rating than in a dry installation. Derating is necessary for multiple circuits in close proximity. When multiple cables are near, each contributes heat to the others and diminishes the amount of cooling air that can flow past the individual cables. The overall ampacity of the insulated conductors in a bundle of more than 3 must be derated, whether in a raceway or cable. Usually the de-rating factor is tabulated in a nation's wiring regulations.

    Depending on the type of insulating material, common maximum allowable temperatures at the surface of the conductor are 60, 75 and 90 degrees Celsius, often with an ambient air temperature of 30°C. In the U.S., 105°C is allowed with ambient of 40°C, for larger power cables, especially those operating at more than 2 kV. Likewise, specific insulations are rated 150, 200 or 250°C.

    The allowed current in cables generally needs to be decreased (derated) when the cable is covered with fireproofing material.

    For example, the United States National Electric Code, Table 310-16, specifies that up to three 8 AWG copper wires having a common insulating material (THWN) in a raceway, cable, or direct burial has an ampacity of 50 A when the ambient air is 30°C, the conductor surface temperature allowed to be 75°C. A single insulated conductor in air has 70 A rating.

    Ampacity rating is normally for continuous current, and short periods of overcurrent occur without harm in most cabling systems. The acceptable magnitude and duration of overcurrent is a more complex topic than ampacity.

    When designing an electrical system, one will normally need to know the current rating for the following:

    Some devices are limited by power rating, and when this power rating occurs below their current limit, it is not necessary to know the current limit to design a system. A common example of this is lightbulb holders.

    [http://en.wikipedia.org/wiki/Ampacity]

    Тематики

    • электротехника, основные понятия

    Синонимы

    EN

    DE

    • Dauerstrombelastbarkeit, f
    • Strombelastbarkeit, f

    FR

    • courant admissible, m
    • courant permanent admissible, m

     

    предельно допустимый ток
    —
    [Я.Н.Лугинский, М.С.Фези-Жилинская, Ю.С.Кабиров. Англо-русский словарь по электротехнике и электроэнергетике, Москва, 1999 г.]

    Тематики

    • электротехника, основные понятия

    EN

     

    прочность печатной платы к токовой нагрузке
    Свойство печатной платы сохранять электрические и механические характеристики после воздействия максимально допустимой токовой нагрузки на печатный проводник или металлизированное отверстие печатной платы.
    [ ГОСТ Р 53386-2009]

    Тематики

    EN

    Англо-русский словарь нормативно-технической терминологии > current-carrying capacity

  • 58 F98.4

    рус Стереотипные двигательные расстройства
    eng Stereotyped movement disorders. Voluntary, repetitive, stereotyped, nonfunctional (and often rhythmic) movements that do not form part of any recognized psychiatric or neurological condition. When such movements occur as symptoms of some other disorder, only the overall disorder should be recorded. The movements that are of a non self-injurious variety include: body-rocking, head-rocking, hair-plucking, hair-twisting, finger-flicking mannerisms, and hand-flapping. Stereotyped self-injurious behaviour includes repetitive head-banging, face-slapping, eye-poking, and biting of hands, lips or other body parts. All the stereotyped movement disorders occur most frequently in association with mental retardation (when this is the case, both should be recorded). If eye-poking occurs in a child with visual impairment, both should be coded: eye-poking under this category and the visual condition under the appropriate somatic disorder code. Stereotype/habit disorder. (Excludes: ) abnormal involuntary movements ( R

    Classification of Diseases (English-Russian) > F98.4

  • 59 общая физическая подготовка

    Универсальный русско-английский словарь > общая физическая подготовка

  • 60 bahati

    ------------------------------------------------------------
    [Swahili Word] bahati
    [Swahili Plural] bahati
    [English Word] luck
    [English Plural] luck
    [Part of Speech] noun
    [Class] 9/10
    [Derived Language] Arabic
    [Related Words] -bahatika, -bahatisha, bahatisho
    [Swahili Example] bahati njema!
    [English Example] good luck!
    ------------------------------------------------------------
    [Swahili Word] bahati njema
    [English Word] good luck
    [Part of Speech] noun
    [Class] 9
    [Derived Language] Arabic
    [Related Words] njema
    ------------------------------------------------------------
    [Swahili Word] bahati mbaya
    [English Word] bad luck
    [Part of Speech] noun
    [Class] 9
    [Derived Language] Arabic
    [Related Words] mbaya
    ------------------------------------------------------------
    [Swahili Word] bahati ya mtende
    [English Word] extraordinary luck
    [Part of Speech] noun
    [Class] 9
    [Derived Language] Arabic
    [Related Words] mtende
    ------------------------------------------------------------
    [Swahili Word] -wa na bahati
    [English Word] be lucky
    [Part of Speech] verb
    [Derived Language] Arabic
    [Related Words] -wa na
    [Swahili Example] ana bahati kweli
    [English Example] he really is lucky
    ------------------------------------------------------------
    [Swahili Word] bahati
    [Swahili Plural] bahati
    [English Word] fortune
    [English Plural] fortunes
    [Part of Speech] noun
    [Class] 9/10
    [Derived Language] Arabic
    [Related Words] -bahatika, -bahatisha, bahatisho
    ------------------------------------------------------------
    [Swahili Word] bahati
    [Swahili Plural] bahati
    [English Word] success
    [English Plural] successes
    [Part of Speech] noun
    [Class] 9/10
    [Derived Language] Arabic
    [Related Words] -bahatika, -bahatisha, bahatisho
    ------------------------------------------------------------
    [Swahili Word] bahati
    [Swahili Plural] bahati
    [English Word] opportunity
    [English Plural] opportunities
    [Part of Speech] noun
    [Class] 9/10
    [Derived Language] Arabic
    [Related Words] -bahatika, -bahatisha, bahatisho
    ------------------------------------------------------------
    [Swahili Word] bahati njema
    [English Word] success
    [Part of Speech] noun
    [Class] 9
    [Derived Language] Arabic
    [Related Words] njema
    ------------------------------------------------------------
    [Swahili Word] bahati mbaya
    [English Word] misfortune
    [Part of Speech] noun
    [Class] 9
    [Derived Language] Arabic
    [Related Words] mbaya
    ------------------------------------------------------------
    [Swahili Word] -a bahati
    [English Word] fortunate
    [Part of Speech] adjective
    [Derived Language] Arabic
    [Related Words] -bahatika, -bahatisha, bahatisho
    ------------------------------------------------------------
    [Swahili Word] bahati nasibu
    [Swahili Plural] bahati nasibu
    [English Word] lottery
    [English Plural] lotteries
    [Part of Speech] noun
    [Class] 9/10
    [Derived Language] Arabic
    [Related Words] nasibu
    [Swahili Example] bahati nasibu ya taifa
    [English Example] national lottery
    ------------------------------------------------------------
    [Swahili Word] bahati
    [Swahili Plural] bahati
    [English Word] fate
    [English Plural] fates
    [Part of Speech] noun
    [Class] 9/10
    [Derived Language] Arabic
    [Related Words] -bahatika, -bahatisha, bahatisho
    ------------------------------------------------------------
    [Swahili Word] bahati
    [Swahili Plural] bahati
    [English Word] lot
    [English Plural] lot
    [Part of Speech] noun
    [Class] 9/10
    [Derived Language] Arabic
    [Related Words] -bahatika, -bahatisha, bahatisho
    [English Definition] one's overall circumstances or condition in life
    ------------------------------------------------------------
    [Swahili Word] bahati
    [Swahili Plural] bahati
    [English Word] destiny
    [English Plural] destinies
    [Part of Speech] noun
    [Class] 9/10
    [Derived Language] Arabic
    [Related Words] -bahatika, -bahatisha, bahatisho
    ------------------------------------------------------------
    [Swahili Word] bahati
    [Swahili Plural] bahati
    [English Word] chance
    [English Plural] chances
    [Part of Speech] noun
    [Class] 9/10
    [Derived Language] Arabic
    [Related Words] -bahatika, -bahatisha, bahatisho
    ------------------------------------------------------------
    [Swahili Word] bahati
    [Swahili Plural] bahati
    [English Word] accident
    [English Plural] accidents
    [Part of Speech] noun
    [Class] 9/10
    [Derived Language] Arabic
    [Related Words] -bahatika, -bahatisha, bahatisho
    ------------------------------------------------------------
    [Swahili Word] kwa bahati
    [English Word] by chance
    [Part of Speech] adverb
    [Related Words] -bahatika, -bahatisha, bahatisho
    ------------------------------------------------------------
    [Swahili Word] -a bahati
    [English Word] adventuristic
    [Part of Speech] adjective
    [Derived Language] Arabic
    [Related Words] -bahatika, -bahatisha, bahatisho
    [Terminology] political
    ------------------------------------------------------------

    Swahili-english dictionary > bahati

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