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BPHA230D230LV

BPHA230D230LV

  • 厂商:

    EATON(伊顿)

  • 封装:

    -

  • 描述:

    REPLACEMENTMODULE230VHYBRIDL

  • 详情介绍
  • 数据手册
  • 价格&库存
BPHA230D230LV 数据手册
Application note 3193 Effective March 2019 Supersedes July 2015 BUSSMANN For UL Type 1, 2, 3 and Type 4 component assembly, and data signal surge protective devices SERIES Application Note 3193 UL Type 1, 2, 3 and Type 4 component assembly, and data signal surge protective devices Effective March 2019 Contents Description Page Description Page The need for surge protection UL Listed 4th Edition open Type 1 DIN-Rail high SCCR SPDs • Case studies for industrial and commercial applications 3 • Causes and relevance of transients and surges 3 • Damage caused by transients and surges 3 UL SPD Types and NEC locations • UL SPD standards 4 • NEC SPD installation/connection 4 • Applying UL SPD Types by NEC location • NEC 285 Type 1 5 5 • NEC 285 Type 2 5 • NEC 285 Type 3 5 Bussmann series UL power, control and data signal SPD product lineup • • UL Type 1 NEMA 1 and NEMA 4X SPDs • BSPD high surge current capacity Type 1 and Type 2 BSPA Type 1 and Type 2 6 • SurgePOD PRO Type 1 6 • • Non SCCR power and control (blue label Type 4 component assembly) UL 497B DIN-Rail and data signal SPDs • 4 wire universal/twisted pair • RJ45/Ethernet video/data cable 6 6 6 2-Pole 26-27 • 3-Pole 28-29 • 4-Pole 30-31 UL Recognized Type 4 component assembly DIN-Rail nonSCCR AC/DC power and control SPDs • 1-Pole UL low voltage power SPDs 32-33 • 2-Pole UL low voltage control SPDs 34-35 UL Listed data signal SPDs for telecom and instrumentation data signal applications 6 UL SPD selection flowchart for ≤ 600 V systems 7 UL SPD types, markets and applications table 8 • 1-Pole 24-25 • 6 • UL DIN-Rail SPDs • High SCCR open Type 1 (black label) • Applying UL Type 1, Type 2 and Type 4 component assembly SPDs by surge current capacity (Imax) 8 NEC surge protection requirements 9 • Overview 36 • DIN-Rail universal 4 wire SPDs • DIN-Rail RJ45/Ethernet cable SPD Frequently Asked Questions (FAQs) Installing surge protective devices in accordance with NEC Article 240 and Feeder Tap Rule Electrical system connections for SPDs Installing UL Type 1 and Type 2 SPDs 10-11 12 Type 1 NEMA 1 and NEMA 4X UL Listed SPDs • BSPD 120-400 kA surge current capacity 14-17 • BSPA 50-200 kA surge current capacity 18-21 • SurgePOD PRO, 40 kA surge current capacity 22-23 2 Eaton.com/bussmannseries ANSI/UL 1449 short-circuit current rating and NEC Article 285.6 SPD glossary Online resources — visit Eaton.com/bussmannseries 36-37 38 39-43 44 45 46-47 Application Note 3193 UL Type 1, 2, 3 and Type 4 component assembly, and data signal surge protective devices The need for surge protection Effective March 2019 • Plant Services Magazine – 35% of lost production hours can be attributed to transient voltage problems. • Florida Light and Power 1999 Study — Sources of Facility Surge and Overvoltage Events: • ~60% Internally Generated • ~40% Externally Generated Causes and relevance of transients and surges • Lightning strikes — Large scale impact, high current and voltage, but least common occurrence. • Power switching — Increasing occurrences: • Utility and customer load switching – Motors, large loads, faults, capacitor banks, fuse and circuit breaker operation*, etc. • Today’s world is full of electronic products and electrical devices that are susceptible to damage from overvoltage surges. Surges caused by static discharge, capacitive and inductive loads or lightning can quickly destroy sophisticated electronic equipment and components used in industrial and commercial applications. These surges cripple operations – particularly the data and communication systems that virtually every enterprise relies upon today, including UL® 508A panels with their reliance on control circuits. Also, the NEC requires a listed SPD to be installed on various equipment types including elevators on emergency systems [NEC 620.51(E)], critical operations data systems (NEC 645.18), industrial machinery with safety interlock circuits (NEC 670.6), wind electric systems [NEC 694.7(D)], fire pump controllers (NEC 695.15), emergency panelboards and switchboards (NEC 700.8) and critical operations power systems (NEC 708.20). Source switching — Smart grid, gensets, photovoltaic power systems and wind power generation, etc. * During overcurrent events, both circuit breakers and fuses can produce arc voltages 2-3 times the system voltage in accordance with the UL standards. Damage caused by transients and surges • Disruptive – A voltage transient enters an electronic component and it interprets the transient as a valid logic command, resulting in system lock-up, malfunction, faulty output or corrupted files. • Dissipative – Associated with short duration repetitive low energy level surges, resulting in equipment failure over time including electronic components, ballasts, motors and controllers, service entrance equipment, panelboards and switchgear. • Destructive – Associated with high level energy surges, resulting in immediate equipment failure including electronic components, ballasts, motors and controllers, service entrance equipment, panelboards and switchgear. We offer a wide selection of Bussmann™ series surge protection products that help assure power quality by eliminating damaging surges. Case studies and references for industrial and commercial applications • G.W. Allen and D. Segall with IBM – Two year study at over 200 locations in 25 cities – 88.5% of AC power problems are transient voltage related. • 2011 Erimar Systems Integration — A lightning strike entered the metals fabricating facility and destroyed $20,000 worth of control panels, electrical infrastructure and Cisco infrastructure. Loss of data system also cost 11 days of production. • IEEE Emerald Book and NFPA 780 both recommend using surge protection as a part of a building’s lightning protection system. Suppressors at the service entrance only reduce, but not completely eliminate, the high-energy transient. A second surge protective device must be applied upstream of critical equipment. All SPDs should comply with UL 1449 4th Edition or later. • 1999-2001 Electric Power Research Institute (EPRI) Study – Concluded downtime from power sags, surges and transients cost US industry: • $50 Billion+ in 1999 • $100 Billion+ in 2000 • $200 Billion+ in 2001 • Continues to escalate as more electronic equipment is used Internal damage — PCB destroyed by a surge Service entrance destroyed by a surge Eaton.com/bussmannseries 3 Application Note 3193 Effective March 2019 UL Type 1, 2, 3 and Type 4 component assembly, and data signal surge protective devices UL SPD types and NEC locations NEC SPD installation/connection Both UL and the NEC define surge protective device Types, but they are NOT the same. They differ significantly by the following. NEC Article 285, Surge-Protective Devices (SPDs), 1 kV or Less states the following on where in an electrical system SPDs can be installed and or connected. UL SPD standards SURGE PROTECTIVE DEVICES — UL 1449, 4th Edition, Section 1 effective August 20, 2014, states the following on UL Types covering enclosed and open-type Surge Protective Devices (SPDs) designed for repeated limiting of transient voltage surges as specified in the standard on 50 or 60 Hz power circuits not exceeding 1000 V and for PV applications up to 1500 Vdc and designated as follows: Type 1 — One port, permanently connected SPDs, except for watt-hour meter socket enclosures, intended for installation between the secondary of the service transformer and the line side of the service equipment overcurrent device, as well as the load side, including watt-hour meter socket enclosures and Molded Case SPDs intended to be installed without an external overcurrent protective device. Type 1 SPDs for use in PV systems can be connected between the PV array and the main service disconnect. Type 2 — Permanently connected SPDs intended for installation on the load side of the service equipment overcurrent device; including SPDs located at the branch panel and Molded Case SPDs. II. Installing SPDs 285.13 Type 4 and Other Component Type SPDs. Type 4 component assemblies and other component type SPDs shall only be installed by the equipment manufacturer. III. Connecting SPDs 285.21 Connection. Where an SPD device is installed, it shall comply with 285.23 through 285.28. 285.23 Type 1 SPDs. Type 1 SPDs shall be installed in accordance with 285.23(A) and (B). (A) Installation. Type 1 SPDs shall be installed as follows: (1) Type 1 SPDs shall be permitted to be connected to the supply side of the service disconnect as permitted in 230.82(4) or (2) Type 1 SPDs shall be permitted to be connected as specified in 285.24. (B) At the Service. When installed at services, Type 1 SPDs shall be connected to one of the following: (1) Grounded service conductor Type 3 — Point of utilization SPDs, installed at a minimum conductor length of 10 meters (30 feet) from the electrical service panel to the point of utilization, for example cord connected, direct plug-in, receptacle type and SPDs installed at the utilization equipment being protected. See marking in 80.3. The distance (10 meters) is exclusive of conductors provided with or used to attach SPDs. 285.24 Type 2 SPDs. Type 2 SPDs shall be installed in accordance with 285.24(A) through (C). Type 4 Component Assemblies — Component assembly consisting of one or more Type 5 components together with a disconnect (integral or external) or a means of complying with the limited current tests in 44.4. (A) Service-Supplied Building or Structure. Type 2 SPDs shall be connected anywhere on the loadside of a service disconnect overcurrent device required in 230.91, unless installed in accordance with 230.82(8). Type 1, 2, 3 Component Assemblies — Consists of a Type 4 component assembly with internal or external short circuit protection. (B) Feeder-Supplied Building or Structure. Type 2 SPDs shall be connected at the building or structure anywhere on the loadside of the first overcurrent device at the building or structure. Type 5 — Discrete component surge suppressors, such as MOVs that may be mounted on a PWB, connected by its leads or provided within an enclosure with mounting means and wiring terminations. (C) Separately Derived System. The SPD shall be connected on the loadside of the first overcurrent device in a separately derived system. (2) Grounding electrode conductor (3) Grounding electrode for the service (4) Equipment grounding terminal in the service equipment 285.25 Type 3 SPDs. Type 3 SPDs shall be permitted to be installed on the loadside of branch-circuit overcurrent protection up to the equipment served. If included in the manufacturer’s instructions, the Type 3 SPD connection shall be a minimum 10 m (30 ft) of conductor distance from the service or separately derived system disconnect. 285.26 Conductor Size. Line and grounding conductors shall not be smaller than 14 AWG copper or 12 AWG aluminum. 285.27 Connection Between Conductors. An SPD shall be permitted to be connected between any two conductors — ungrounded conductor(s), grounded conductor, equipment grounding conductor, or grounding electrode conductor. The grounded conductor and the equipment grounding conductor shall be interconnected only by the normal operation of the SPD during a surge. 285.28 Grounding Electrode Conductor Connections and Enclosures. Except as indicated in this article, SPD grounding connections shall be made as specified in Article 250, Part III. Grounding electrode conductors installed in metal enclosures shall comply with 250.64(E). 4 Eaton.com/bussmannseries Application Note 3193 UL Type 1, 2, 3 and Type 4 component assembly, and data signal surge protective devices Effective March 2019 Applying UL SPD Types by NEC location Outside and service entrance Feeders and short branch circuits Outlets and long branch circuits Note: Only Type 1 SPDs permitted to be installed upstream of the service entrance overcurrent protective device Pad-mounted transformer NEC 285 Type 1 Type 1 SPDs shall be installed as: Service entrance (1) Type 1 SPDs shall be permitted to be connected to the supply side of the service disconnect as permitted in 230.82(4) or... as well as the loadside, including watt-hour meter socket enclosures and intended to be installed without an external overcurrent protective device. (2) Type 1 SPDs shall be permitted to be connected as specified in 285.24. Feeder circuit Branch circuit UL Type 1 SPD Lineside or loadside of service entrance overcurrent protective device Device NEC 285 Type 2 * Type 2 SPDs shall be installed in accordance with 285.24(A) through (C). (A) Service-Supplied Building or Structure. Type 2 SPDs shall be connected anywhere on the loadside of a service disconnect overcurrent device required in 230.91, unless installed in accordance with 230.82(8). (B) Feeder-Supplied Building or Structure. Type 2 SPDs shall be connected at the building or structure anywhere on the loadside of the first overcurrent device at the building or structure. UL Type 1 SPD Loadside of service entrance overcurrent protective device UL Type 1 SPD ≥ 30 feet (10 m) from the service entrance overcurrent protective device (C) Separately Derived System. The SPD shall be connected on the loadside of the first overcurrent device in a separately derived system. NEC 285 Type 3* Type 3 SPDs shall be permitted to be installed on the loadside of branch-circuit overcurrent protection up to the equipment served. If included in the manufacturer’s instructions, the Type 3 SPD connection shall be a minimum 10 m (30 ft) of conductor distance from the service or separately derived system disconnect. UL open Type 1† SPD Loadside of service entrance overcurrent protective device * Includes Type 2 or Type 4 component assemblies. UL open Type 1† and Type 4† component assembly SPDs ≥ 30 feet (10 m) from the service entrance overcurrent protective device † Must be installed in an enclosure. Eaton.com/bussmannseries 5 Application Note 3193 UL Type 1, 2, 3 and Type 4 component assembly, and data signal surge protective devices Effective March 2019 Bussmann series UL power, control and data signal SPD product lineup This guide suggests which series best meets your needs and applications. Market Commercial/industrial Main switchgear, switchboard, motor control center, outdoor load Equipment type NEC SPD requirements* 620.51(E), 645.18, 694.7(D), 700.8 IEEE exposure category C Typical panel amps Peak kA rating per phase UL 1449/CSA type UL 1283 EMI/RFI filtering** NEMA Enclosure Agency information OEMs/UL 508A panel shops Control panel, point of use 670.6, 695.15, 708.20 A Unlimited Up to 4000 120-400 50—200 40 50 200 200 200 200 120—600 Vac 120—600 Vac 120—600 Vac 120—600 Vac 1 and 2 1 and 2 1 1 SCCR (kA) Nominal voltage Light commercial Distribution panelboard, subpanel, loadcenter 620.51(E), 645.18, 695.15, 700.8, 708.20 B Up to 1000 Up to 200 Single-phase, point of use 40 / N/A 50 dB 40 dB N/A N/A N/A 24-120 Vac 24-200 Vdc 4 component assemblies N/A 1 and 4X 4X 4X cULus/CSA/RoHS cULus/CSA/RoHS cULus/CSA/RoHS N/A UL Listed open Type 1/ CSA/RoHS 5 N/A UL/cUL/CSA/KEMA/ RoHS 5 Warranty (years) 10 5 2 Side-mount Side-mount Rear nipple DIN-Rail DIN-Rail Yes-LED Yes-LED Yes-LED Yes-Local Yes-Local Audible alarm Yes Yes No No No Form C contacts Yes Yes No Yes - standard Yes - standard Surge counter Yes No No No No EMI/RFI filtering Yes Yes No No No BSPD BSPA SurgePOD PRO BSPM1A/BSPH2A 10209 10661 10033 BSPMA 10771 (1-pole), 10772 (2-pole), 10773 (3-pole), 107744 (4-pole) Features/mounting Status indication Options Product family Data sheet 2056 (1-pole), 2057 (2-pole) * Product family and rating is dependent upon the application and exposure to surge activity. ** Selecting filtering option changes normally Type 1 SPDs to Type 2. † With online registration. †† Available on some models. Bussmann series UL 497B data signal surge protective devices These surge protectors complement any power protection SPDs by protecting data signal lines. See pages 36 to 38 for details. DIN-Rail universal 4 wire • 6 Eaton.com/bussmannseries For nominal 5 and 24 V systems DIN-Rail RJ45/Ethernet cable • For nominal voltages up to 48 V Application Note 3193 UL Type 1, 2, 3 and Type 4 component assembly, and data signal surge protective devices Effective March 2019 UL SPD selection flowchart for ≤600 V systems Step 1. Determine location and suitable type* Start Service entrance lineside or loadside of OCPD? No Yes Surge current capacity 50 to 200kA and surge counter required? Inside of enclosure? UL 96A std. installation requirements on lightning protection systems? No Install Type 1 BSPA, go to pages 18 to 21 No UL 508A industrial control panel? Install Type 1 or Type 2 BSPD, go to pages 14 to 17 No Yes Yes Yes Yes No Stand alone equipment such as, panelboards, switchboards or motor control centers? No Call Applications Engineering toll free 1-855-BUSSMANN No Non UL panel? Yes Yes Go to Step 2 * If EMI/RFI filtering is required, select the BSPD or BSPA configuration required for the system. Step 2. Determine Type 1, and DIN-Rail open Type 1 and Type 4 (Type 2 and 3 applications) SPDs Start SCCR power application? Yes Install Type 1 BSPA go to pages 18 to 21 or Open Type 1 black label SCCR DIN-Rail SPD, go to pages 24 to 31 No ≤30’ (10 m) from service entrance disconnect? No Yes Yes 75-120 Vac or 100-200 Vdc Install Type 4 component assembly blue label low voltage SPD, go to pages 34 to 35 Yes No No 24-150 Vac/dc? Call Applications Engineering toll free 1-855-BUSSMANN Install Type 4 component assembly blue label low voltage SPD, go to pages 32 to 33 Eaton.com/bussmannseries 7 Application Note 3193 UL Type 1, 2, 3 and Type 4 component assembly, and data signal surge protective devices Effective March 2019 UL SPD types, markets and applications UL Listed Type 1 and Type 2 Markets UL Listed Type 1 and Type 2 SPDs SCCR rated 120-600 Vac MOV and thermal disconnect technology • • • • • • • • • • • • • • Pump panels requiring SCCR ratings Service panels Elevator control Emergency generator control Feeders Fire pump control HVAC Lighting panels Main switchgear Motor control centers Step down transformer primary UL 508A panels requiring SCCR ratings UPS Installation on outside of enclosure or ahead of service entrance disconnect • Emergency generator control • Feeders • HVAC • Main switchgear • Power distribution unit • Remote power panel • UPS • Emergency generator control • HVAC • Lighting panels • Main switchgear • Motor control centers • Step down transformer primary • UL 508A panels requiring SCCR ratings • UPS • VFD Agriculture Commercial/ institutional Contractor Data centers Industrial • Installation on outside of enclosure • UL 508A panels requiring SCCR ratings OEM • Emergency generator control • Lighting panels • Main switchgear • Motor control centers • Step down transformer primary • UL 508A panels requiring SCCR ratings • UPS • VFD • Service entrance Oil and gas Residential • UL 508A shops Waste water/ water treatment • • • UL Types DIN-Rail UL Listed open Type 1 and Recognized Type 4 component assembly Type 4 component assembly power and UL Listed open Type 1 SPDs control blue label SPDs SCCR rated black label 120-600 Vac 24-120 Vac, 24-200 Vdc MOV technology MOV or hybrid technology • AC/DC Pump panels not requiring • Pump panels requiring SCCR ratings SCCR ratings • Elevator control • Emergency generator control • Fire pump control • HVAC • Mission critical panelboards • UPS • UL 508A panels requiring SCCR ratings • VFD • • • • • • • Elevator control Emergency generator control Fire alarm Fire pump control HVAC Security systems UPS — • • • • • Emergency generator control HVAC Power distribution unit Remote power panel UPS — • • • • Emergency generator control HVAC Servers UPS • Conveyor systems • Crane control • HVAC • Power supplies • Step down transformer primary • UL 508A panels requiring SCCR ratings • VFD • • • • • • Discrete control HMI HVAC PLCs Power supplies Sensors • I/Os • PLCs • Power supplies • Step down transformer primary • UL 508A panels requiring SCCR ratings • VFD • • • • • • HMI I/Os PLCs Power supplies Sensors Step down transformer primary • Conveyor systems • Crane control • Power supplies • Step down transformer primary • UL 508A panels requiring SCCR ratings • VFD • • • • • Discrete control HMI PLCs Power supplies Sensors N/A • I/Os • Installation on the lineside of the Installation on outside or inside of enclosure disconnect OCPD enclosure or ahead of service entrance • PLC disconnect • Power supplies • Step down transformer primary • VFD Main switchgear • Control panels Motor control centers • UL 508A panels requiring SCCR ratings UL 508A panels requiring SCCR ratings • VFD N/A • • • • • • HMI I/Os PLCs Power supplies Sensors Step down transformer primary • PLC • Power supplies • Sensors Applying UL Type 1, Type 2 and Type 4 SPDs by surge current capacity (Imax) Bussmann series product BSPD Type 1 and Type 2 BSPD Type 2 BSPA Type 1 and Type 2 SurgePOD™ PRO Type 1 1-, 2-, 3- and 4-pole high SCCR open Type 1 (black label) 1-pole non SCCR Type 4 for Type 2 application (blue label) 2-pole non SCCR Type 4 for Type 3 application (blue label) * Total discharge current. 8 Eaton.com/bussmannseries Installation location Switchboards, service entrance Large panelboards Panelboards, control panels Panelboards, control panels Control panels Control panels (power) Control panels (control) Surge current capacity (Imax) 200 kA to 400 kA 120 kA to 200 kA 50 kA to 200 kA 40 kA 50 kA 40 kA 2-4 kA* Application Note 3193 UL Type 1, 2, 3 and Type 4 component assembly, and data signal surge protective devices NEC surge protection requirements In recent years, with the proliferation of electronics and devices sensitive to transient voltage and current surges, the need for surge protection has become increasingly important, particularly for equipment and systems used for life safety or where reliability is highly critical. The NEC recognizes this need and has adopted the following provisions where surge protection is required. Regardless of whether surge protection is required or not, it’s prudent to have surge protection on all circuits as many portable appliances and communications devices with sensitive electronics may be powered from circuits where transient overvoltage surge is an issue. Effective March 2019 694.7(D) “A surge protection device shall be installed between a wind electric system and any loads served by the premises electrical system.” Added in 2011, surge protective devices should be on the circuit serving the wind electric system or on the service disconnect’s loadside. 695.15 “A listed surge protection device shall be installed in or on the fire pump controller.” Added in 2017, this NEC provision requires a listed SPD to be installed in or on the fire pump controller to provide protection. A study commissioned by the Fire Protection Research Foundation found that 12% of those surveyed had surges damaging their fire pumps. Below are the major NEC Sections requiring surge protection. On page two is a selection chart for Bussmann series surge protective devices (SPD)based upon application. 620.51(E) “Where any of the disconnecting means in 620.51 has been designated as supplying an emergency system load, surge protection shall be provided.” Added in 2017, this section was added to address emergency system loads such as elevators, escalators, moving sidewalks, chairlifts and associated equipment. 700.8 “A listed SPD shall be installed in or on all emergency systems switchboards and panelboards.” Added in 2014, this requirement helps ensure emergency electrical systems continue powering vital, life-safety loads in the event of damaging surges. 645.18 “Surge protection shall be provided for Critical Operations Data Systems.” Added in 2017, Critical Operation Data Systems is defined by the NEC as “Information technology equipment systems that require continuous operation for public safety, emergency management, national security or business continuity.” 670.6 “Industrial machinery with safety interlock circuits shall have surge protection installed.” 708.20 “Surge protection devices shall be provided at all facility voltage distribution levels.” Added in 2008, Critical Operation Power Systems (COPS) are power systems that can include HVAC, fire alarms, security, communications and signaling for designated critical operations areas. Surge protection helps ensure these systems will operate as intended in an emergency situation. Added in 2017, this section was added to address the concern with safety interlock failure on machinery causing a safety risk to operators who may not be aware of disabled safety mechanisms. Eaton.com/bussmannseries 9 Application Note 3193 UL Type 1, 2, 3 and Type 4 component assembly, and data signal surge protective devices Effective March 2019 Electrical system connections for SPDs The following diagrams show the SPD connection points for the various electrical systems likely to be encountered, along with the Bussmann series SPD models that may be applied. Understanding the following points will help ensure that the correct surge protective device is specified for the electrical system or equipment. • Typical North American electrical systems include single-phase, split-phase, Delta and Wye. • Selecting the wrong SPD generally arises from misunderstanding the nominal system voltage, ground and neutral connections. • General convention has it that a “ground” wire is not counted as a wire in the system description (e.g., 3 wire, 4 wire, etc.), but it is counted as a connection point if the selected SPD has a ground wire. • Selection of a device voltage rating for Wye systems must be based upon its nominal system voltage rating and not on the legto-leg voltages in the Wye. • Bonded N-G configurations do not require protection at the service entrance transformer, but protection is suggested in downstream bonded N-G systems if the length of conductor making the bond is greater than 10 feet (3 m)*. The following are the BSPD, BSPA and SurgePOD PRO catalog numbers, and the electrical systems and voltages to which they can be applied along with any notes that help in understanding the context of the application. The examples show circuit breakers as the most typical means of making connections to the panel phases, although connection with fusible switches and lug connections are permitted, provided the terminals are rated for the 10 AWG conductors used by the BSPD, BSPA and SurgePOD SPDs. Note: UL does not require using overcurrent protective devices such as circuit breakers or fused switches as the SPD’s thermal disconnect technology will safely take the SPD offline in the event of a failure. Use of these devices is for facilitating connection to the panel buses and installation convenience. Contact Bussmann Application Engineering for electrical systems not covered in this section. * See FAQ #25 for more information. Two wire single-phase, 2 connection points Three wire split-phase/ 2-pole, 3 connection points Three wire split-phase/ 2-pole, 3 connection points Application: Sub-panel or feeder panel Application: Service entrance panel Application: Sub-panel or feeder panel Volts: 120, 240 (L-N) Volts: 120, 240 (L-N) Note: Must be installed within 10 feet (3 m) of a bonded neutral ground connection per IEEE C62.41-1991. Note: Installation for where the SPD is greater than 10 feet (3 m) from a bonded neutral-ground connection. Volts: 120, 240 (L-N), 240, 480 (L1-L2) Note: Installation at or less than 10 feet (3 m) from the transformer and within 10 feet (3 m) of a bonded-neutral ground connection. G Dedicated one-pole circuit breaker, or one-pole fusible switch L1 N L2 Dedicated one-pole circuit breaker, or one-pole fusible switch Three wire split-phase/ 2-pole plus ground, 4 connection points Application: Service entrance equipment Volts: 120, 240 (L-N), 240 (L1L2) Note: Installation where greater than 10 feet (3 m) of a bondedneutral ground connection. Dedicated two-pole common trip circuit breaker, or two-pole fusible switch Dedicated two-pole common trip circuit breaker, or two-pole fusible switch Black Black Black Black Black Black White White White White L1 L1 L1 Green L1 G G G N L2 N N G SPD catalog numbers: •• BSPA •• •• SPD catalog numbers: •• Specify from build-a-code catalog number system SurgePOD™ PRO •• 10 SPP40SP1120SN Eaton.com/bussmannseries BSPA •• L2 Green SPD catalog numbers: •• Specify from build-a-code catalog number system BSPA •• •• Specify from build-a-code catalog number system SurgePOD PRO •• SPP40SP2240PN N SPD catalog numbers: •• BSPA •• Specify from build-a-code catalog number system Application Note 3193 UL Type 1, 2, 3 and Type 4 component assembly, and data signal surge protective devices Three wire split-phase/ 2-pole plus ground, 4 connection points Application: Sub-panel or feeder panel Volts: 120, 240 (L-N), 240 (L1L2) Note: For installation greater than 10 feet (3 m) of a bondedneutral ground connection. Effective March 2019 Three wire Wye plus ground, 4 connection points Four wire Wye plus ground, 5 connection points Four wire Wye plus ground, 5 connection points Application: Sub-panel or feeder panel Application: Service entrance equipment Application: Sub-panel or feeder panel Volts: 208, 480, 600 (L-L) Volts: 120, 127, 277, 347 (L-N), 208, 220, 480, 600 (L-L) Volts: 120, 127, 277, 347 (L-N), 208, 220, 480, 600 (L-L) Note: Common system configuration with Neutral pulled into facility and bonded to ground. Note: Common system configuration with Neutral pulled into facility and bonded to ground. Note: A common MCC configuration for pumping and water/waste water treatment. L 1 N L2 L1 N L2 Dedicated two-pole common trip circuit breaker, or two-pole fusible switch Dedicated three-pole common trip circuit breaker, or three-pole fusible switch Black Black White L2 Black Dedicated three-pole common trip circuit breaker, or three-pole fusible switch Black Black Black White Black L1 Black Green L1 L2 L3 Green G SPD catalog numbers: BSPA •• L3 G N G N L1 •• L2 Green Black White G Dedicated three-pole common trip circuit breaker, or three-pole fusible switch Black Black L1 L3 L3 Green N SPD catalog numbers: •• Specify from build-a-code catalog number system BSPA •• •• Three wire Delta plus ground, 4 connection points L2 Specify from build-a-code catalog number system •• •• SPP40SP3208WYG •• SPP40SP3480WYG •• SPP40SP3600WYG BSPA •• •• Specify from build-a-code catalog number system BSPA •• SPD catalog numbers: SurgePOD PRO •• SPD catalog numbers: •• Specify from build-a-code catalog number system BSPD •• Specify from build-a-code catalog number system BSPD •• Specify from build-a-code catalog number system Application: Service entrance equipment, sub-panel or feeder panel Volts: 240, 480, 600 (L-L) Dedicated three-pole common trip circuit breaker, or three-pole fusible switch Black Black Black L1 L2 L3 Green G SPD catalog numbers: •• BSPA •• •• Specify from build-a-code catalog number system BSPD •• Specify from build-a-code catalog number system Eaton.com/bussmannseries 11 Application Note 3193 UL Type 1, 2, 3 and Type 4 component assembly, and data signal surge protective devices Effective March 2019 Installing UL Type 1 and Type 2 SPDs While differences will arise in the installation of different SPD models on various electrical systems and locations inside an electrical system, the following are general procedures and considerations to follow. At the start of this section are diagrams indicating the connection points for the Type 1 and Type 2 SPDs contained in this guide and the electrical system to which they can be connected. Installation steps 1. Inspect the electrical panelboard to be sure it is properly grounded in accordance with prevailing code requirements. 2. Inspect the SPD unit to determine: • It has the correct nominal system and MCOV voltage rating and is the correct configuration for the installation. • It is not damaged; If the unit is damaged or not correct for the system, do not install it. Secure a proper replacement before proceeding with the installation. 3. Deenergize panelboard and follow established lockout / tagout procedures. Remove panelboard cover(s) to gain access to the interior. Check to make sure the entire panelboard is deenergized before proceeding. 4. Select a location on the panelboard that accommodates mounting the SPD and allows the leads to reach their intended connection points. Be sure the SPD unit can be positioned so that the LED status indicator(s) is visible. A location that permits the shortest lead lengths is preferred. 5. Remove a 3/4” knockout or make a 1-1/16” diameter hole where the SPD is to be mounted. 6. Remove the locknut from the unit and insert leads through the panelboard wall being careful not to damage the conductor insulation. (For NEMA 4X installations, use appropriate gaskets or sealing means to retain the NEMA 4X rating on the installation — see Figure 1.) Reinstall locknut and tighten to specified torque. Installation option A: using feed through lugs 7. Determine if the lugs are rated for stranded 10 AWG conductors. If lugs are not rated for this size conductor, DO NOT install the SPD unit, or replace lugs with appropriately rated lugs before proceeding, or install the unit using installation option B. 8. Route and trim the leads so they reach their connection points with the least amount of length. 9. Strip the lead ends to lug manufacturer’s specifications, insert them into the appropriate ports and torque to the specified value NOTE: DO NOT install more than one lead into the same lug port. Go to step 13. Installation option B: circuit breaker or fused switch When using a circuit breaker or fused switch, see suggested ampacities in Table A for the SPD family product being installed. 10. Place in the OFF position and install a new, dedicated common trip circuit breaker or fusible switch with fuses sized by SPD family and located as close as possible to where the SPD unit is mounted. 11. Route and trim the leads so they reach their intended connection points with the least amount of length. 12. Strip the lead end to fit the connection points, insert into the terminal lugs and torque to the specified value. Go to step 13. Finishing the installation 13. Reinstall the panelboard cover(s). 14. Test the SPD installation by energizing the panelboard and placing the circuit breaker or fusible switch (requires fuses to be installed) in the ON position. Verify the LED status indicators are functioning according to the installed SPD model. If LEDs are not properly displaying for a correctly installed and functioning SPD (per model), see the troubleshooting procedures for possible causes and remedy. NEMA 4X installation requires appropriate customer-supplied gasket between the SPD and enclosure wall. Tighten locknut to 20.3 lb-in (2.3 N•m) Suggested minimum ampacity SPD family SurgePOD PRO (SPP) BSPA BSPD Fused switch 30 A 60 A 100 A Circuit breaker 30 A 30 A 30 A Table A — Circuit breaker and fused switch sizing guide Figure 1. If using conduit, keep the run as straight and short as possible, and avoid using 90 elbows. NOTE: For optimum performance, trim the leads to the shortest length possible and avoid sharp bends. Make electrical connections appropriate for the application. 12 Eaton.com/bussmannseries Application Note 3193 UL Type 1, 2, 3 and Type 4 component assembly, and data signal surge protective devices Effective March 2019 BSPD, BSPA and SurgePOD PRO comparisons SPD model / color Product warranty* System types BSPD — grey Commercial and industrial with high surge current 10 years Delta and Wye Nominal system voltages 120/208, 240, 277/480, 480, 600 Max. continuous operating AC voltage (MCOV) [VC] Sized to nominal voltage (150 V to 840 V) 200 kA 20 kA 120, 200, 300, 400 kA 3, 5 Wires Yes
BPHA230D230LV
物料型号:文档中提到了多种型号的浪涌保护装置(SPD),例如Bussmann系列的BSPD、BSPA和SurgePOD PRO等。

器件简介:文档介绍了用于电气系统中的浪涌保护装置,它们能够限制瞬态过电压到安全水平,从而保护与之连接的设备免受损害。

引脚分配:文档中提到了不同极数的SPD,例如1极、2极、3极和4极,以及它们在DIN轨道上的安装方式。

参数特性:包括了SPD的额定电压、最大持续工作电压(MCOV)、浪涌电流容量(Imax)、名义放电电流(In)等参数。

功能详解:文档详细解释了浪涌保护装置的工作原理,包括它们如何在过电压事件发生时从高阻抗状态转变为高导通、低阻抗状态,并将浪涌能量导向地面。

应用信息:介绍了SPD在不同市场和应用中的使用,如商业/工业、农业、数据中心、工业、OEM、石油和天然气、住宅、UL508A车间、废水/水处理等。

封装信息:提供了SPD的封装类型,如NEMA 1和NEMA 4X,以及它们的安装方式和保护等级。
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