Productos destacados
Arco Eléctrico CA
IEEE 1584-2018, NFPA 70E
ArcFault™- Arco Eléctrico de Alta Tensión
OSHA 1910.269, Código Nacional de Seguridad Eléctrica - NESC
Arco Eléctrico CD
NFPA 70E, Potencia Máxima, Stokes & Oppenlander y Paukert
Arc Flash Safety Standards
Arc Flash Study & Analysis Compliance
Calculadoras de Arco Eléctrico
IEEE 1584-2018, DGUV-I 203-077, Arco Eléctrico de CD y Alta Tensión
Técnicas para Mitigación de Arco Eléctrico
ESZ, Modo de Mantenimiento, Fusibles Limitadores de Corriente, Sensores de luz
Talleres Prácticos de Arco Eléctrico
Manténgase actualizado con los últimos estándares de Arco Eléctrico
Análisis Avanzado de Energía incidente de Arco Eléctrico con Estudio deCoordinación de Dispositivos Protección
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Realice análisis de arco eléctrico y evalúe automáticamente la energía incidente y los puntos de daño de arco eléctrico en múltiples ubicaciones. Más información
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La Evaluación Automática de Arco Eléctrico ETAP le permite evaluar rápidamente la energía incidente de arco eléctrico con el estudio automatizado de coordinación de dispositivos de protección para reducir significativamente las modificaciones costosas y equipos de mitigación. El webinario muestra la evaluación automática de gráficas de área-C y puntos de daño del equipo.
This webinar presents the European/German standard DGUV-I 203-077 for arc flash hazard calculations. This method, just like IEEE 1584-2018, is in use in many European countries. We will compare the German Arc Flash methodology to IEEE 1584-2018 and introduce ETAP tools available for Arc Flash calculations based on this standard. Application examples as well as features & capabilities will be presented. Learn more
Software de análisis Arco Eléctrico recomendado para sistemas de potencia eléctrica que operan a 15 kV o más en cumplimiento con los requisitos de OSHA para sistemas eléctricos de transmisión, distribución, industrial y energía renovable. Más información
El software de Arco Eléctrico CD de ETAP calcula la energía incidente para diferentes tipos de aplicaciones de corriente directa, incluidas instalaciones de misión crítica, plantas electroquímicas, bancos de baterías de subestaciones, plantas fotovoltaicas, plantas nucleares y sistemas de transporte.Más información
Las calculadoras Arco Eléctrico de ETAP proporcionan una poderosa herramienta gráfica para la evaluación rápida de múltiples o grupos de escenarios "qué pasaría si".
Mejore la seguridad y minimice el daño de los equipo validando las técnicas de mitigación del arco eléctrico. Más información
Multiple arc flash incident energy mitigation methods are available, but how does an engineer know which is best for their client? This presentation identifies an approach to follow to pick the method, considering effectiveness, practicality, feasibility, and overall best option for realistic study results. With extensive experience with arc flash studies for many clients of all sizes, Mangan provides a real world demonstration of a project for a refinery client. The interplay between motor starting and arc flash analysis was evaluated, and mitigation recommendations were customized for the system. The challenges encountered during mitigation are identified, and the proposed solution is analyzed using ETAP Load Flow, Short Circuit, Arc Flash and Motor Acceleration Analysis. Safe motor operation, safe motor starting and arc flash protection are provided through customized mitigation methods and thoughtful system design.
Engineers face unique challenges when calculating DC Arc Flash incident energy for Battery Energy Storage Systems (BESS). Battery short circuit current is highly variant, and factors such as battery chemistry, and how the installation arrangement of BESS have significant differences in short circuit behavior. As well, traditional methods of calculating DCAF have been determined to fall short when it comes to BESS. In this demonstration, these variations will be discussed, including PPE considerations. Following this, a demonstration of the Transient DC Arc Flash solution provided by ETAP solutions will be presented. The presentation will show the usefulness of model validation, and the importance of high quality analysis methods to provide better accuracy in DC AF analysis for BESS.
In most cases, SCCAF (Short Circuit Coordination Arc Flash) studies are done by engineering firms, which then submit reports to facility owners. The challenge is that those reports tend to be lengthy (up to 5,000 pages), not engaging, and hard to grasp for facility personnel. ETAP's powerful graphical and presentation tools can help make those reports livelier, informative, and more engaging. This case study will discuss how you can summarize lengthy power studies reports within just a 30-minute interactive meeting, and highlight how the final ETAP model can be used, with its powerful graphical interface and presentation tools, including Data Blocks, Multiple Presentation layers, Sequence of Operations, and Arc flash calculator.
This presentation will address the difficulties and lessons learnt on performing arc flash analysis using available methods (outside the voltage limits of IEEE 1584-2018 standard) on a 2.3 MW PV generation facility. The analysis includes system modeling, short-circuit, arc flash (both AC and DC) using various applicable calculation methods that best fit this application along with available tools in ETAP and generating worst-case arc flash deliverables.
Learn about ETAP ArcSafety, an all-in-one AC & DC arc flash solution for LV, MV & HV systems that improves safety, reduces risk, minimizes equipment damage, and validates mitigation techniques.
This presentation focuses on HV arc flash hazard analysis, as part of a multi-voltage AF study (115, 34.5, 13.8, and 0.22 kV) for one of the three largest utilities in South America with hydro and renewables generation and T&D. It demonstrates the versatility of the ETAP ArcFault™ to assist in the calculations and estimates of electric arc currents and incident energy level for HV substation equipment. The presentation discusses how ArcFault study results were used to select engineering and administrative control strategies, personal protective equipment (PPE), changes in protection schemes and adjustments to reduce electrical risks in operation & maintenance of electrical T&D systems.
Since the release of IEEE 1584-2018, the industry has been challenged to reach a consensus on applying the new standard. The most significant application “pain” so far has been identifying actual equipment data for input to the study, including bus gap and electrode configurations in the equipment. A case study of an arc flash analysis for a large university campus with MV and LV power distribution equipment of different types, vintages, and manufacturers is presented. The presentation highlights selection of electrode configuration(s) for various equipment types and voltage levels and correct application of arc current and enclosure size correction factors to significantly reduce the data entry time and effort. The presentation will cover upcoming IEEE P1584.1 revisions to apply IEEE 1584 for arc-flash hazard calculations directly from the revision subgroup chair.
Case study of a a power system study, which involved the replacement of an extensive UPS system at a data center. The studies included short-circuit, protective device coordination, and arc-flash hazard analysis for both the AC and DC systems consistent with the NFPA 70E 2018 and IEEE 1584 2018 Standards. The DC equipment as installed required mitigation efforts due to high incident energies. This presentation details the analysis, findings, and recommended mitigation for anyone embarking on similar retrofit or expansion studies.
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