Conduct Campuswide Electrical Coordination Study.pdf

554-22-144

Conduct Campuswide Electrical

Coordination Study

Contract Number: 36C25922D0008

Rocky Mountain VAMC

13611 East Colfax Ave.

Aurora, CO 80045

100% Report – For Review

REPORT BY:

Josh VandenEnde, PE

Beau Browning

ENGINEER OF RECORD: Josh VandenEnde, PE

1000 Centre Avenue

Suite 120

Fort Collins, CO 80526

29 April 2024

TABLE OF CONTENTS

1.0 INTRODUCTION

2.0 MODEL PREPARATION

3.0 SHORT-CIRCUIT ANALYSIS AND ARC-FLASH HAZARD

3.1 SKM Power*Tools Analyses

3.2 Utility Information

3.3 Short Circuit Analysis

3.4 Arc-Flash Hazard

3.5 Arc-Flash Hazard Labels

4.0 COORDINATION STUDY

5.0 EXISTING CONDITIONS ASSESSMENT

5.1 Specif ic Assessments

5.1a ATS

5.1b Ground Resistance

5.1c Emergency Power System

6.0 ISSUES LOG

APPENDIX A – References

APPENDIX B – Source Data

APPENDIX C – Single-Line Diagrams

APPENDIX D – System Data Model Inputs

APPENDIX E – Short-Circuit Reports

APPENDIX F – Arc-Flash Hazard Report

APPENDIX G – Arc-Flash Hazard Labels

APPENDIX H – Coordination Study Time Current Curves

APPENDIX I – Existing Conditions Assessment

APPENDIX J – Issues Log

APPENDIX K – Additional Documents

APPENDIX K – Detailed Electrical Systems Analysis

1.0 INTRODUCTION

The Rocky Mountain VA Medical Center has contracted with Apogee Consulting Group P.A. to provide evaluation and reporting for existing electrical services and distribution within and relevant to specific facilities identified by the scope of work as detailed in the contract documents. Due to the size and scope of the effort, reporting may be divided by Rocky Mountain VA Medical Center facility number and/or name.

Objectives included; identification of electrical system deficiencies, existing overcurrent device coordination, compilation of observed data and calculated analyses into a formal report, production and application of arc-flash hazard labels specific to the equipment specified within the scope of work.

This report outlines the methodology employed for the electrical study and provides the theoretical foundation for analyses.

Further discussion has been included in the appendices; Detailed Electrical Systems Analysis.

Study methodologies were based upon current industry standard best practices and employed the use of computerized power analysis and modeling software distributed by SKM Power*ToolsTM. The technical publication titled, “Complete Guide to Arc-Flash Hazard Calculation Studies- A step-by-step approach packed with examples, tips, and calculation worksheets,” by Jim Phillips, provided a basis for the recommendations included within this report.

Additional references can be found in the appendices; References.

Electrical system analyses were conducted in accordance with the scope of work (SOW) indicated in the contract documents. They included, but were not limited to short-circuit studies, arc-flash incident energy (AFIE) calculation studies, coordination studies, and existing equipment assessments. Other compilations of data and calculations may have been included to indicate aspects of a system more clearly.

Short-circuit studies were conducted and intended as the bases for verification that equipment is adequately sized for the available fault current (AFC) at each location. AFIE calculation studies are conducted and used for arc-flash hazard risk assessment. Calculated AFIE values are visibly communicated at specific equipment by arc-flash labels in accordance with applicable codes and standards, including NFPA 70 National Electrical Code (NEC), NFPA 70E Standard for Electrical Safety in the Workplace, and OSHA publications.

Coordination studies observe the over-current protective device (OCPD) settings to evaluate the order in which fault clearances are expected to occur.

Recommendations regarding OCPD settings may be made and are based on the coordination studies. Existing equipment assessments record and identify through visual inspection the current conditions of equipment and the immediate surrounding area that may affect the function of, access to or path of egress.

Standards-compliant labels indicating calculated arc-flash hazard values will be provided in conjunction with the certified issuance of the electrical study report and are to be affixed to corresponding equipment.

While identification and visible representation of arc-flash hazards were the primary objectives of this study, other inclusions are condition assessments, ATS survey, and coordination plots.

The body of this report is intended to specify analysis methodology. Detailed results can be found in the appendices.

Through the course of a study deficiencies were found at various stages: data collection, modeling, photo review, or analyses. To efficiently capture, summarize, track, and prioritize significant findings and their resolutions, an Issues Log was established. Items were entered in the Issues Log as they were discovered along with further descriptions. An assessment was made to prioritize deficiencies that require correction and was based on severity. The Issues Log can be found in the appendices; Issues Log.

Prioritization was based on a scale of 1-4, 1 representing a critical deficiency and 4 representing a low priority deficiency. Critical deficiency items were deemed to pose an imminent threat to personnel safety and/or property and should be corrected as soon as possible. Low priority deficiency items were deemed as requiring preventative correction and are expected to be addressed when time and funding allow.

2.0 MODEL PREPARATION

Survey data was compiled, and system models were created and edited by Apogee Consulting Group P.A. personnel. Models were developed and updated using survey data and representative drawings for each facility to accurately simulate the function of system components.

Single-line diagrams indicating system arrangement and inputs can be found in the appendices, Single-Line Diagrams.

Tabulated input data can be found in the appendices, System Data Model Inputs.

Where system information was unattainable or omitted from the model and did not prevent system analysis, the client or representatives of was notified, and reasonable efforts were made to acquire the missing information. Where necessary, data assumptions were made in accordance with IEEE 1584.1-2018.

3.0 SHORT-CIRCUIT ANALYSIS AND ARC-FLASH HAZARD

3.1 SKM Power*Tools T M Analyses

Upon completion of model development, models were evaluated using power analysis software. Per industry standard IEEE 1584, the software was used to calculate AFC and further derive relevant values at specified points of the modeled system.

Additional explanation of this calculation process can be found in the appendices, Detailed Electrical Systems Analysis.

3.2 Utility Information

Utility source specifics were requested and provided by Xcel EnergyTM.

Source data is generally provided by the utility provider as a representation of the worst-case scenario and is reflective of the highest possible AFC at a given location, which provides a margin of error due to which source system changes may not automatically void utility provided data and thus the dependent electrical study.

It is recommended that caution be taken regarding the continued reliability of the accuracy of utility provided source data as it is subject to system changes without notification by the utility provider. System changes affecting the source may void the foundational input data and the electrical study itself, which may require the study to be conducted using new input data.

NFPA 70E Article 130.5 states that the incident energy analysis shall be updated when changes occur in the electrical distribution system that could affect the results of the analysis. The incident energy analysis shall also be reviewed for accuracy at intervals not to exceed 5 years.

Utility provided information can be found in the appendices, Source Data.

3.3 Short-Circuit Analysis

The short-circuit study indicates the maximum AFC at specified points throughout the system.

Tabulated short-circuit values can be found in the appendices; Short-Circuit Reports.

AFC values were calculated and used to verify that equipment ampere interrupting capacity (AIC) ratings, where provided, were higher than the calculated AFC values to which equipment will be exposed, referred to as equipment duty (EQD), indicated by the calculation 𝐸𝑄𝐷 =

AFC

AIC

and represented as a percentage of the equipment rating. A percentage above 100% indicates overdutied equipment and a violation of the equipment AIC/SCCR rating. A percentage below 100% indicates the equipment AIC/SCCR rating is above the calculated AFC and in compliance.

EQD calculations can be found in the appendices; Short-Circuit Reports, Device Evaluation.

Equipment identified as overdutied has been reported in the Issues Log and can be found in the appendices; Issues Log. Equipment identified to be overdutied by more than 20% was listed as Priority 1.

Sufficiently small short-circuit current/withstand ratings (SCCR or SCWR) of low voltage disconnect switches, such as local equipment disconnects for small motors, were not evaluated as part o f this e lect r ica l study.

Care should be taken to ensure that these devices are applied according to their UL-listed short-circuit withstand ratings. Typical withstand ratings for disconnect switches (safety switches) range from 10kA to 200kA.

Where information was available and could potentially cause a notable difference, inductive loads (i.e. motor loads) were represented within the models. During a fault event, they contribute to the sub-transient fault current. The potential contribution of inductive loads is based on the size of the load. In general, motors 25 hp or larger were modeled.

Further discussion of the calculations and theory involved in the short-circuit analysis can be found in appendices; Detailed Electrical Systems Analysis.

3.4 Arc-Flash Hazard

An Arc-Flash Hazard is the hazard caused by an arcing event. There are multiple contributors that account for the totality of an Arc-Flash Hazard.

Thermal incident energy is the energy converted to heat. During an arcing event, the temperatures experienced can be several thousand degrees.

The heat propagates away from the source and dissipates as a function of exponential decay. It is the primary cause of injury and is currently the only energy considered and estimated as part of an arc-flash study.

Arc Blast is caused by the rapid conversion of electrical energy to heat energy. Pressure and sonic waves are created by the arcing event and can be damaging to the soft tissues of nearby individuals, potentially causing long term damage or death.

There are additional hazards caused by an arcing event not discussed here (e.g shrapnel/projectiles, intense light, toxic fumes, etc.).

Arc-Flash Hazards are quantified by calculating the AFIE (thermal) value.

The IEEE 1584 equation was developed based on test case values and inputs. The most significant factors are AFC, time of exposure, and distance. Other contributing factors are environment, equipment type and arc length.

It is possible for similar arcing events to incur higher AFIE exposure at lesser AFC values. This can be explained by evaluating a time current curve plot and identifying the trip times at different currents. This situation occurs in the immediate area under the curve where the slope is close to vertical and trip times are maximized. To test the effect of lower AFC on the trip time of OCPDs and the corresponding changes to AFIE, IEEE 1584 recommends evaluating AFIE values at both 100% and 85% of the anticipated AFC. All equipment and buses modeled were evaluated at both recommended evaluation percentages. The AFC percentage inducing the greater AFIE value was considered the worst-case and thus the only value reported.

AFIE values can be found in the appendices; Single-Line Diagrams, AFIE and Arc-Flash Hazard Report.

Note: Incident energy values listed in the Arc-Flash Hazard Report are valid only for protective devices configured according to the OCPD coordination study. Changes to upstream OCPDs will void the provided arc-flash labels and will require the affected portion of the system to reevaluated.

Further discussion about calculations and theories regarding an arc-flash calculation hazard study, as well as the physiological implications of an Arc-Flash hazard can be found in the appendices; Detailed Electrical Systems Analysis.

3.5 Arc-Flash Hazard Labels

The industry standard for arc-flash labels is consistent with ANSI 7535.

Labels should have “WARNING” in black letters on orange background where AFIE is below 40 cal/cm2 and “DANGER” in white letters with red background where AFIE is at or above 40 cal/cm2.

NEC 110.16 requires electrical equipment in non-dwelling units which are likely to require examination, adjustment, servicing, or maintenance while energized to be field marked in such a way that the marking is clearly visible to qualified persons before working on the equipment. Per NFPA 70E Article 130.5(C), labels must at minimum include the following information:

• Nominal system voltage

• Arc-flash boundary

• At least one of the following:

o AFIE and corresponding working distance o Minimum required arc rating of clothing o Required level of PPE o Highest Hazard/Risk Category (HRC) for the equipment

Information to be included on Arc-Flash Hazard labels is the subject of debate in the industry. Jim Phillips, the author of “Complete Guide to Arc- Flash Hazard Calculation Studies” and a contributor to many arc-flash related standards, recommends providing as much information as possible to inform qualified persons of the hazard level to which they may be exposed and how to best prepare themselves if it is not possible to de-energize the equipment as emphasized in NFPA 70E. Additionally, Phillips advises that care be taken to comply with the standards defined by ANSI Z535 for safety hazard labeling which is also referenced by NFPA 70 (NEC) Article 110.16.

The ANSI 7535 standard defines the following signal word choice, background and text coloration as it correlates to risk severity:

• CAUTION: Indicates a hazardous situation which, if not avoided, could result in minor or moderate injury. (Black letters on safety yellow background)

• WARNING: Indicates a hazardous situation that, if not avoided, could result in death or serious injury. (Black letters on safety orange background)

• DANGER: Indicates a hazardous situation that, if not avoided, will result in death or serious injury. (White letters on safety red background)

Examples: (Above) Warning Label. (Below) Danger Label

The preceding are examples of labels that Apogee Consulting Group P.A.

has provided in cooperation with this study for equipment as required per NEC 110.16. Labels were created using 4” x 6” die-cut UV, chemical and scratch resistant indoor/outdoor vinyl with thermal transfer technology.

Where information was unavailable due to a circumstance that prevented collection of data regarding a device or equipment, a label was issued stating:

“DANGER – DO NOT WORK ON EQUIPMENT WHILE

ENERGIZED!”

Labels were provided in an organized manner and should be affixed to equipment in accordance with NEC 110.16. Equipment ID and other equipment specific information have been included on all labels where it was deemed a benefit to the labeling effort.

Some labels may have been identified as optional. While these labels are not required, they may contribute to a safer work environment.

PDF versions of all arc-flash hazard equipment labels can be found in the appendices, Arc-Flash Hazard Labels.

4.0 COORDINATION STUDY

A coordination study is an effort to identify OCPD settings that will cause systems to be coordinated in a manner such that the nearest upstream OCPD will trip in the event of a fault in a predictable manner and clear the fault.

Many subsystems in existing facilities are not designed expressly for coordination. It is inherent to outdated equipment and designs that full coordination is unachievable. Many OCPDs have fixed settings that are unable to be changed. OCPDs may be identified to exist that provide the availability to better coordinate a subsystem.

Time current curve plots can be found in the appendices, Coordination Study Time Current Curves.

If full OCPD coordination is not able to be achieved, new equipment may be necessary and listed in the Issues Log.

The Issues Log can be found in the appendices, Issues Log.

Findings and recommendations from the coordination study are dependent upon site survey, probable assumptions of equipment specifics and parameters affecting arc-flash and coordination studies, and data provided by the client and/or client representatives. Verification of existing settings as well as potential settings should be conducted prior to any work being completed.

Existing settings can be found in the appendices, System Data Model Inputs.

It is recommended to notify the site supervisor if contrasting device settings or equipment is found. System models should be updated with new information and reevaluated when changes are made.

While it is possible to adjust OCPD settings with the system is energized, planned outages should be scheduled prior to adjusting settings. It is recommended that OCPDs be adjusted only while the system is deenergized.

Neither Apogee Consulting Group P.A. nor any of its personnel nor subcontractor can assume any liability for the occurrence of an unscheduled outage in conjunction with adjustment of trip devices. It is recommended to schedule outages before adjusting settings on trip devices.

Reducing trip settings on an OCPD can increase the likelihood that the OCPD may trip. Future circuit loading was not considered as part of this study, but is an important factor when choosing to implement any recommended settings.

Arc-flash hazard and device coordination are closely tied and suffer from competing interests. Maximization in regards to one is usually to the detriment of the maximization of the other.

When complete system coordination is achieved, distribution and mid-level OCPD settings often will be near or at their maximum settings. This allows downstream devices the opportunity to clear faults before upstream devices. It is also common for downstream devices not to feature adjustable settings that would allow a technician to reduce the maximum current and/or clearing time, which results in distribution and mid-level OCPDs being set at or near their maximum settings. Coordinating a system minimizes the effect of outages in the event of a fault. But in doing so, the elevated distribution and mid-level OCPD settings increase clearing times, which in turn increases the AFIE.

Further discussion of calculations and theory involved in the coordination study can be found in the appendices, Detailed Electrical Systems Analysis.

5.0 EXISTING CONDITIONS ASSESSMENTS

The Existing Condition Assessment is a compilation of observations about existing equipment noted during site survey and is presented in a tabulated format. Documents identify equipment name, general location, and specific information relevant to the assessment type (i.e ATS Survey).

Assessments can be found in the appendices; Existing Conditions Assessment.

5.1 Specific Assessments

Specific assessments; ATS, ground resistance analysis, and emergency power system analysis were included and conducted per the SOW and have been included to aid in the overall completeness of the electrical study.

Tabulations and Summarizations can be found in the appendices, Existing Conditions Assessment.

5.1a ATS

ATS design (3-pole or 4-pole) was noted during site survey.

The assessment can be found in the appendices, Existing Conditions Assessment – ATS Survey.

Findings have been summarized and recommendations can be found in the appendices, Issues Log.

5.1b Ground Resistance Analysis

Visual inspection of the grounding system was conducted during site survey. Issues were recorded and have been reported in the Issues Log along with recommendations for resolution. The grounding system and bonding should be professionally tested for proper resistance across all points in the system.

The assessment can be found in the appendices, Existing Conditions Assessment – Ground Resistance Analysis.

5.1c Emergency Power System Analysis

The configuration of the essential electrical system was evaluated as part of this study. Testing of the operational status of generators and transfer switches should be evaluated more completely by the generator maintainers and triennial tests.

A summary of the assessment can be found in the appendices, Existing Conditions Assessment – Emergency Power System.

6.0 ISSUES LOG

The Issues Log is a compiled list of issues that were identified throughout the course of the study. The document identifies equipment name, general location, condition assessment, maintenance issues, access issues, relevant notes, prioritization, and recommendations.

Prioritization is indicated by a numerical scale, 1-4, where 1 indicates a critical deficiency and 4 indicates a low priority deficiency. Critical deficiency items are deemed to pose an imminent threat to the safety of personnel and/or damage to property and should be corrected as soon as possible. Low priority deficiency items indicate an issue requiring preventative maintenance and are expected to be addressed as time and budget allow.

The Issues Log can be found in the appendices, Issues Log.

INTENTIONALLY BLANK

APPENDIX A – References

1. IEEE Standard 1584-2018 – Guide for Performing Arc Flash Hazard Calculations

2. NFPA 70 (2020) – National Electrical Code

3. NFPA 70E (2021) – Standard for Electrical Safety in the Workplace

4. OSHA CFR Title 29, Part 1910, Subpart S

5. IEEE 551-2006 – Recommended Practice for Calculating AC Short-Circuit Currents in Industrial and Commercial Power Systems [The Violet Book]

6. ANSI/IEEE C37.5-1979 – IEEE Guide for calculation of Fault Currents for Application of AC High-Voltage Circuit Breakers Rated on a Total Current Basis

7. ANSI/IEEE C37.13-1981 – IEEE Standard for Low-Voltage AC Power Circuit Breakers Used in Enclosures

8. ANSI/IEEE C37.10-2011 – IEEE Guide for Investigation, Analysis, and Reporting of Power Circuit Breaker Failures

9. ANSI Z535.4 – American Standard for Product Signs and Labels

10. ANSI/NETA MTS – Standard for Maintenance Testing Specifications for Electrical Power Equipment and Systems

11. ANSI/NETA ATS – Standard for Maintenance Testing Specifications for Electrical Power Equipment and Systems

APPENDIX B – Source Data

As provided by Xcel EnergyTM

DATE:

TO: VA Hospital

Sincerely, Logan Heinen Area Engineer

Arc Flash Data Request

Voltage at the service is 13.2 kV line-line and 7.62 kV line-ground.

Calculated maximum available 3-phase fault current is 9227 amps.

Calculated maximum available 1-phase fault current is 6335 amps.

Calculated positive sequence X/R ratio at the primary service point is 9.066.

2/9/2024

The following information is provided in response to your request for utility data to perform arc flash calculations on the primary service point which is located at 1700 Wheeling St, Aurora

Calculated zero sequence X/R ratio at the primary service point is 2.512.

Xcel Energy personnel shall not be held responsible for any damage to property or person resulting from the use of this data.

If you have additional questions, please feel free to contact me at telephone number 303-716-2120 or email address Logan.Heinen@xcelenergy.com

The first over-current device upstream from this service point is:

SEL-351S

The Company does not provide minimum fault current information or associated protective device clearing times.

It is understood that this data is provided for arc flash calculations, and is based on how the distribution system is currently known to be arranged. It should be understood by parties using this data that it can and will change due to various circumstances.

The Company will not notify the customer when such changes occur.

DATE:

TO: VA Hospital

Sincerely, Logan Heinen

Area Engineer

Calculated zero sequence X/R ratio at the primary service point is 2.042.

Xcel Energy personnel shall not be held responsible for any damage to property or person resulting from the use of this data.

If you have additional questions, please feel free to contact me at telephone number

303-716-2120 or email address Logan.Heinen@xcelenergy.com

The first over-current device upstream from this service point is:

SEL-351S

The Company does not provide minimum fault current information or associated protective device clearing times.

It is understood that this data is provided for arc flash calculations, and is based on how the distribution system is currently known to be arranged. It should be understood by parties using this data that it can and will change due to various circumstances.

The Company will not notify the customer when such changes occur.

Arc Flash Data Request

Voltage at the service is 13.2 kV line-line and 7.62 kV line-ground.

Calculated maximum available 3-phase fault current is 10091 amps.

Calculated maximum available 1-phase fault current is 6641 amps.

Calculated positive sequence X/R ratio at the primary service point is 7.2.

2/9/2024

The following information is provided in response to your request for utility data to perform arc flash calculations on the primary service point which is located at

1700 Wheeling St, Aurora

APPENDIX C – Single-Line Diagrams

Single-line diagrams with component names, nominal voltage, incident energy, 3ph bolted fault current and other notable data points.

Some sections may be boxed to differentiate elements that are notably different in some regard. Commonly, boxed sections are used to separate single phase parts of a system that have been modeled to provide further information are not normally included in the electrical study. Box colors indicate voltage at the lowest point. Text tags may also be present to provide further information.

Single phase box colors:

• Black - 120V

• Blue - 208V

• Red - 240V

Riser diagrams (PDFs) provided by client and updated per request.

2-ATS-EQ3_N

2-ATS-EQ2_N

2-ATS-EQ1_N2-ATS-SB1_N2-ATS-LS1_N

TCC 2-PNL-NLS2 (partial)

Fed from A1-EC6A

2-ATS-LS1_E 2-ATS-CR1_E 2-ATS-EQ1_E 2-ATS-EQ2_E 2-ATS-EQ3_E

Fed from B1-EE6A Fed from GA4-EC6B Fed from GB4-EE6B

Open Open

Bldg 2 - Research (B)

TCC 2-PNL-NLS5 (partial)

UTIL-1-52-GA4

3P 1448.4 Amps

UTIL-2-52-GB4

3P 1448.4 Amps

MVBUS: 2-SWG-EMDCP1

13200.0 V Nom

AFIE 3.6 Cal/cm 2̂ 3ph SC (Sym) 1448.40 A ArcFC 1.495 kA Trip Time 0.100 s

MVMCB: 2-EMDCP1-S1_Relay

GE MULTILIN

Frame/Model 350 CT Ratio 100 / 5 A Settings 51P TOC Pickup 0.55 (55A) ANSI Norm Inv 1; 0.5 (S;M) 50P IOC Pickup 6 (600A)

MVMCB: 2-EMDCP1-S2_Relay

GE MULTILIN

Frame/Model 350 CT Ratio 100 / 5 A Settings 51P TOC Pickup 0.55 (55A) ANSI Norm Inv 1; 0.5 (S;M) 50P IOC Pickup 6 (600A)

2-SWG-EMDCP1

480.0 V Nom

AFIE 7.44 Cal/cm^2 3ph SC (Sym) 17457.64 A ArcFC 17.746 kA Trip Time 0.083 s

Open MVMCB: 2-EMDCP1-S1

SQUARE D

Frame/Model VR-15050-12 Settings

MVMCB: 2-EMDCP1-S2

SQUARE D

Frame/Model VR-15050-12 Settings

CB: 2-ATS-LS1_E

GE

Frame/Model WPS-08 Sensor/Trip 150.0 A

100.0 A

Settings

LTPU 1.00X (100A)

LTD C-2

STPU 8.5X (850A)

STD ST07-Min (Î s T Off)

INST ST(ON) 10X (1000A)

CB: 2-ATS-SB1_E

GE

Frame/Model WPS-08 Sensor/Trip 800.0 A

600.0 A

Settings

LTPU 1.00X (600A)

LTD C-12

STPU 7X (4200A)

STD ST06-Min (Î s T Off)

INST ST(ON) 11X (6600A)

CB: 2-ATS-EQ1_E

GE

Frame/Model WPS-08 Sensor/Trip 8 00.0 A

600.0 A

Settings

LTPU 1.00X (600A)

LTD C-9

STPU 7X (4200A)

STD ST06-Min (Î s T Off)

INST ST(ON) 9X (5400A)

CB: 2-ATS-EQ2_E

GE

Frame/Model WPS-08 Sensor/Trip 800.0 A

600.0 A

Settings

LTPU 1.00X (600A)

LTD C-9

STPU 7X (4200A)

STD ST06-Min (Î s T Off)

INST ST(ON) 9X (5400A)

CB: 2-ATS-EQ3_E

GE

Frame/Model WPS-08 Sensor/Trip 800.0 A

600.0 A

Settings

LTPU 1.00X (600A)

LTD C-9

STPU 7X (4200A)

STD ST06-Min (Î s T Off)

INST ST(ON) 9X (5400A)

PD-0025

GE

Frame/Model WPS-08 Sensor/Trip 800.0 A

600.0 A

Settings

LTPU 1.00X (600A)

LTD C-9

STPU 7X (4200A)

STD ST06-Min (Î s T Off)

INST ST(ON) 10X (6000A)

2-SWG-NDCP1

480.0 V Nom

AFIE 6.69 Cal/cm^2 3ph SC (Sym) 40292.63 A ArcFC 27.580 kA Trip Time 0.058 s

MCB: 2-SWG-NDCP1

GE

Frame/Model WPS-32 Sensor/Trip 3200.0 A

3000.0 A

Settings

LTPU 1.00X (3000A)

LTD C-3

STPU 2.5X (7500A)

STD ST05-Min (Î s T Off)

INST ST(ON) 3.5X (10500A)

MVBUS: 2-SWG-NDCP1

13200.0 V Nom

AFIE 22.84 Cal/cm 2̂ 3ph SC (Sym) 9926.09 A ArcFC 9.416 kA Trip Time 0.100 s

MVMCB: 2-NDCP1-S1

SQUARE D

Frame/Model VR-15050-12 Settings

Open

MVMCB: 2-NDCP1-S2

SQUARE D

Frame/Model VR-15050-12 Settings

MVMCB: 2-NDCP1-S1_Relay

GE MULTILIN

Frame/Model 350 CT Ratio 100 / 5 A Settings 51P TOC Pickup 0.55 (55A) ANSI Norm Inv 1; 0.5 (S;M) 50P IOC Pickup 1 (400A)

MVMCB: 2-NDCP1-S2_Relay

GE MULTILIN

Frame/Model 350 CT Ratio 100 / 5 A Settings 51P TOC Pickup 0.55 (55A) ANSI Norm Inv 1; 0.5 (S;M) 50P IOC Pickup 1 (400A)

UTIL-1-52-A1

3P 9738.8 Amps

UTIL-2-52-B1

3P 10045.0 Amps

Open

CB-G: 2-SWG-NDCP1-SPARE1

GE

Frame/Model WPX-08 Sensor/Trip 800.0 A

600.0 A

Settings GFPU (0.2 - 0.6 x In) 0.3 (240A) GFD I2T (1-13 Bands) GFD03 (Î s T Off)

CBL: 2-PNL-NHP1

500 kcmil 2 Sets

44.0 ft

CBL: 2-PNL-NHP2

500 kcmil 2 Sets

54.0 ft

Open

CB: 2-SWG-NDCP1-SPARE1

GE

Frame/Model WPX-08 Sensor/Trip 800.0 A

600.0 A

Settings

LTPU 1.00X (600A)

LTD C-12

STPU 7X (4200A)

STD ST06-Min (Î s T Off)

INST ST(ON) 11X (6600A)

2-PNL-NHP1

480.0 V Nom

AFIE 3.57 Cal/cm 2̂ 3ph SC (Sym) 35331.06 A ArcFC 25.111 kA Trip Time 0.058 s

CB: 2-PNL-NL37

GE

Frame/Model SEHA Sensor/Trip 100.0 A

100.0 A

Settings

MAX

CBL: 2-PNL-NL37

1 AWG

1 Sets

136.0 ft

2-PNL-NL37

208.0 V Nom

AFIE 0.13 Cal/cm 2̂ 3ph SC (Sym) 4373.98 A ArcFC 1.594 kA Trip Time 0.037 s

CB: 2-PNL-NL21

GE

Frame/Model SFHA Sensor/Trip 150.0 A

150.0 A

Settings

MAX

CBL: 2-PNL-NL21

3/0 AWG

1 Sets

138.0 ft

2-PNL-NL21

208.0 V Nom

AFIE 0.14 Cal/cm 2̂ 3ph SC (Sym) 4972.77 A ArcFC 1.832 kA Trip Time 0.034 s

CB: 2-PNL-NL22

GE

Frame/Model SFHA Sensor/Trip 1 50.0 A

150.0 A

Settings

MAX

CBL:2-PNL-NL22

3/0 AWG

1 Sets

138.0 ft

2-PNL-NL22

208.0 V Nom

AFIE 0.14 Cal/cm^2 3ph SC (Sym) 5117.73 A ArcFC 1.891 kA Trip Time 0.033 s

CB: 2-PNL-NL23

GE

Frame/Model SFHA Sensor/Trip 1 50.0 A

150.0 A

Settings

MAX

CBL: 2-PNL-NL23

3/0 AWG

1 Sets

138.0 ft

2-PNL-NL23

208.0 V Nom

AFIE 0.14 Cal/cm^2 3ph SC (Sym) 5117.73 A ArcFC 1.891 kA Trip Time 0.033 s

CB: 2-PNL-NHP1-SPARE1

GE

Frame/Model SELA Sensor/Trip 100.0 A

100.0 A

Settings

MAX

CB: 2-PNL-NHP1-SPARE2

GE

Frame/Model SELA Sensor/Trip 100.0 A

100.0 A

Settings

MAX

CB: 2-PNL-NHP1-SPARE3

GE

Frame/Model SELA Sensor/Trip 100.0 A

100.0 A

Settings

MAX

CB: 2-PNL-NH31

GE

Frame/Model SGLC Sensor/Trip 150.0 A

100.0 A

Settings

LTPU 0.50X (50A)

LTD F-4

STPU 9X (450A)

STD Int ST11-Int (I ŝ T Off)

INST 10X (1500A)

2-PNL-NH31

480.0 V Nom

AFIE 0.16 Cal/cm^2 3ph SC (Sym) 4078.41 A ArcFC 2.986 kA Trip Time 0.025 s

CBL: 2-PNL-NH31

6 AWG

1 Sets

126.0 ft

CB: 2-PNL-NHS1

GE

Frame/Model SFLA Sensor/Trip 200.0 A

200.0 A

Settings

MAX

2-PNL-NHS1

480.0 V Nom

AFIE 0.52 Cal/cm^2 3ph SC (Sym) 12002.11 A ArcFC 9.226 kA Trip Time 0.025 s

CBL: 2-PNL-NHS1

250 kcmil 1 Sets

178.0 ft

CB: TX-2-TNDLP1

GE

Frame/Model SGLA Sensor/Trip 500.0 A

500.0 A

Settings

MAX

CBL: TX-2-TNDL1

350 kcmil 2 Sets

39.0 ft

TX-2-TNLDP1_P

480.0 V Nom

AFIE 1.4 Cal/cm^2 3ph SC (Sym) 31556.42 A ArcFC 23.000 kA Trip Time 0.025 s

TX-2-TNLDP1_S

208.0 V Nom

AFIE 18.75 Cal/cm^2 3ph SC (Sym) 20606.80 A ArcFC 8.127 kA Trip Time 0.984 s

CBL: 2-PNL-NLDP1

350 kcmil 4 Sets

37.0 ft

S

P

TX-2-TNLDP1

300 kVA Impedance 2.9000 % Primary 480 V Secondary 208 V

MCB: 2-PNL-NLDP1

GE

Frame/Model SKHA Sensor/Trip 1000.0 A

1000.0 A

Settings

MAX

2-PNL-NLDP1-S1

208.0 V Nom

AFIE 35.17 Cal/cm^2 3ph SC (Sym) 18967.25 A ArcFC 7.538 kA Trip Time 2.000 s

CB: 2-PNL-NLP1

GE

Frame/Model SEHA Sensor/Trip 100.0 A

100.0 A

Settings

MAX

CBL: 2-PNL-NLP1

1 AWG

1 Sets

24.0 ft

2-PNL-NLP1

208.0 V Nom

AFIE 0.35 Cal/cm^2 3ph SC (Sym) 13018.07 A ArcFC 6.031 kA Trip Time 0.025 s

CB: 2-PNL-NL31

GE

Frame/Model SFHA Sensor/Trip 150.0 A

150.0 A

Settings

MAX

CBL: 2-PNL-NL31

3/0 AWG

1 Sets

122.0 ft

2-PNL-NL31

208.0 V Nom

AFIE 0.14 Cal/cm^2 3ph SC (Sym) 5636.23 A ArcFC 2.453 kA Trip Time 0.025 s

CB: 2-PNL-NL32

GE

Frame/Model SFHA Sensor/Trip 150.0 A

150.0 A

Settings

MAX

CBL: 2-PNL-NL32

3/0 AWG

1 Sets

122.0 ft

2-PNL-NL32

208.0 V Nom

AFIE 0.14 Cal/cm^2 3ph SC (Sym) 5449.73 A ArcFC 2.023 kA Trip Time 0.030 s

CB: 2-PNL-NL33

GE

Frame/Model SFHA Sensor/Trip 150.0 A

150.0 A

Settings

MAX

CBL: 2-PNL-NL33

3/0 AWG

1 Sets

122.0 ft

2-PNL-NL33

208.0 V Nom

AFIE 0.14 Cal/cm^2 3ph SC (Sym) 5636.23 A ArcFC 2.453 kA Trip Time 0.025 s

CB: 2-PNL-NL27

GE

Frame/Model SEHA Sensor/Trip 100.0 A

100.0 A

Settings

MAX

CBL: 2-PNL-NL27

1 AWG

1 Sets

152.0 ft

2-PNL-NL27

208.0 V Nom

AFIE 0.6 Cal/cm^2 3ph SC (Sym) 3993.56 A ArcFC 1.444 kA Trip Time 0.191 s

CB: 2-PNL-NL11

GE

Frame/Model SFHA Sensor/Trip 150.0 A

150.0 A

Settings

MAX

CBL: 2-PNL-NL11

3/0 AWG

1 Sets

154.0 ft

2-PNL-NL11

208.0 V Nom

AFIE 1.08 Cal/cm 2̂ 3ph SC (Sym) 4563.06 A ArcFC 1.669 kA Trip Time 0.294 s

CB: 2-PNL-NL12

GE

Frame/Model SFHA Sensor/Trip 1 50.0 A

150.0 A

Settings

MAX

CBL: 2-PNL-NL12

3/0 AWG

1 Sets

154.0 ft

2-PNL-NL12

208.0 V Nom

AFIE 1.07 Cal/cm^2 3ph SC (Sym) 4684.80 A ArcFC 1.718 kA Trip Time 0.281 s

CB: 2-PNL-NLS7

GE

Frame/Model SEHA Sensor/Trip 100.0 A

100.0 A

Settings

MAX

CBL: 2-PNL-NLS7

1 AWG

1 Sets

188.0 ft

2-PNL-NLS7

208.0 V Nom

AFIE 0.67 Cal/cm^2 3ph SC (Sym) 3337.64 A ArcFC 1.188 kA Trip Time 0.259 s

CB: 2-PNL-NL17

GE

Frame/Model SEHA Sensor/Trip 100.0 A

100.0 A

Settings

MAX

CBL: 2-PNL-NL17

1 AWG

1 Sets

168.0 ft

2-PNL-NL17

208.0 V Nom

AFIE 0.63 Cal/cm^2 3ph SC (Sym) 3673.17 A ArcFC 1.319 kA Trip Time 0.220 s

CB: 2-PNL-NLS1

GE

Frame/Model SFHA Sensor/Trip 150.0 A

150.0 A

Settings

MAX

CBL: 2-PNL-NLS1

3/0 AWG

1 Sets

174.0 ft

2-PNL-NLS1

208.0 V Nom

AFIE 1.15 Cal/cm^2 3ph SC (Sym) 4135.54 A ArcFC 1.500 kA Trip Time 0.350 s

CB: 2-PNL-NLS2

GE

Frame/Model SFHA Sensor/Trip 150.0 A

150.0 A

Settings

MAX

CBL: 2-PNL-NLS2

3/0 AWG

1 Sets

174.0 ft

2-PNL-NLS2

208.0 V Nom

AFIE 1.14 Cal/cm^2 3ph SC (Sym) 4235.23 A ArcFC 1.539 kA Trip Time 0.336 s

CB: 2-PNL-NH21

GE

Frame/Model SGLC Sensor/Trip 1 50.0 A

100.0 A

Settings

LTPU 0.50X (50A)

LTD F-4

STPU 9X (450A)

STD Int ST11-Int (Î s T Off)

INST 10X (1500A)

2-PNL-NH21

480.0 V Nom

AFIE 0.14 Cal/cm^2 3ph SC (Sym) 3652.43 A ArcFC 2.659 kA Trip Time 0.025 s

CBL: 2-PNL-NH21

6 AWG

1 Sets

141.0 ft

CB: 2-PNL-NH11

GE

Frame/Model SGLC Sensor/Trip 150.0 A

100.0 A

Settings

LTPU 0.50X (50A)

LTD F-4

STPU 9X (450A)

STD Int ST10-Int (Î s T Off)

INST 10X (1500A)

2-PNL-NH11

480.0 V Nom

AFIE 0.13 Cal/cm^2 3ph SC (Sym) 3296.72 A ArcFC 2.387 kA Trip Time 0.025 s

CBL: 2-PNL-NH11

6 AWG

1 Sets

157.0 ft

2-PNL-NHP2

480.0 V Nom

AFIE 3.48 Cal/cm 2̂ 3ph SC (Sym) 34320.86 A ArcFC 24.566 kA Trip Time 0.058 s

CB: TX-2-TNLDP2

GE

Frame/Model SGLA Sensor/Trip 500.0 A

500.0 A

Settings

MAX

CBL: TX-2-TNLDP2

350 kcmil 2 Sets

31.0 ft

S

P

TX-2-TNLDP2

300 kVA Impedance 2.9000 % Primary 480 V Secondary 208 V

TX-2-TNLDP2_P

480.0 V Nom

AFIE 1.39 Cal/cm^2 3ph SC (Sym) 31400.35 A ArcFC 22.908 kA Trip Time 0.025 s

CBL: 2-PNL-NLDP2

350 kcmil 4 Sets

37.0 ft

MCB: 2-PNL-NLDP2

GE

Frame/Model SKHA Sensor/Trip 1000.0 A

1000.0 A

Settings

MAX

TX-2-TNLDP2_S

208.0 V Nom

AFIE 18.78 Cal/cm^2 3ph SC (Sym) 20580.54 A ArcFC 8.118 kA Trip Time 0.987 s

2-PNL-NLDP2-S1

208.0 V Nom

AFIE 35.45 Cal/cm^2 3ph SC (Sym) 19127.02 A ArcFC 7.597 kA Trip Time 2.000 s

CB: 2-PNL-NL34

GE

Frame/Model SFHA Sensor/Trip 150.0 A

150.0 A

Settings

MAX

2-PNL-NL34

208.0 V Nom

AFIE 0.18 Cal/cm^2 3ph SC (Sym) 7090.45 A ArcFC 2.685 kA Trip Time 0.024 s

CBL: 2-PNL-NL34

3/0 AWG

1 Sets

113.0 ft

CB: 2-PNL-NL35

GE

Frame/Model SFHA Sensor/Trip 150.0 A

150.0 A

Settings

MAX

2-PNL-NL35

208.0 V Nom

AFIE 0.2 Cal/cm^2 3ph SC (Sym) 8013.67 A ArcFC 3.599 kA Trip Time 0.020 s

CBL: 2-PNL-NL35

3/0 AWG

1 Sets

113.0 ft

CB: 2-PNL-NL36

GE

Frame/Model SEHA Sensor/Trip 100.0 A

100.0 A

Settings

MAX

2-PNL-NL36

208.0 V Nom

AFIE 0.13 Cal/cm^2 3ph SC (Sym) 5259.01 A ArcFC 2.274 kA Trip Time 0.025 s

CBL: 2-PNL-NL36

1 AWG

1 Sets

113.0 ft

CB: 2-PNL-NL24

GE

Frame/Model SFHA Sensor/Trip 150.0 A

150.0 A

Settings

MAX

2-PNL-NL24

208.0 V Nom

AFIE 0.16 Cal/cm^2 3ph SC (Sym) 6572.01 A ArcFC 2.872 kA Trip Time 0.022 s

CBL: 2-PNL-NL24

3/0 AWG

1 Sets

129.0 ft

CB: 2-PNL-NL25

GE

Frame/Model SFHA Sensor/Trip 150.0 A

150.0 A

Settings

MAX

2-PNL-NL25

208.0 V Nom

AFIE 0.18 Cal/cm^2 3ph SC (Sym) 7356.96 A ArcFC 3.280 kA Trip Time 0.020 s

CBL: 2-PNL-NL25

3/0 AWG

1 Sets

129.0 ft

CB: 2-PNL-NL26

GE

Frame/Model SEHA Sensor/Trip 100.0 A

100.0 A

Settings

MAX

2-PNL-NL26

208.0 V Nom

AFIE 0.12 Cal/cm^2 3ph SC (Sym) 4721.87 A ArcFC 2.021 kA Trip Time 0.026 s

CBL: 2-PNL-NL26

1 AWG

1 Sets

129.0 ft

CB: 2-PNL-NL14

GE

Frame/Model SFHA Sensor/Trip 150.0 A

150.0 A

Settings

MAX

2-PNL-NL14

208.0 V Nom

AFIE 0.15 Cal/cm^2 3ph SC (Sym) 6121.71 A ArcFC 2.660 kA Trip Time 0.025 s

CBL: 2-PNL-NL14

3/0 AWG

1 Sets

145.0 ft

CB: 2-PNL-NL15

GE

Frame/Model SFHA Sensor/Trip 150.0 A

150.0 A

Settings

MAX

2-PNL-NL15

208.0 V Nom

AFIE 0.17 Cal/cm^2 3ph SC (Sym) 6796.38 A ArcFC 2.592 kA Trip Time 0.025 s

CBL: 2-PNL-NL15

3/0 AWG

1 Sets

145.0 ft

CB: 2-PNL-NL16

GE

Frame/Model SEHA Sensor/Trip 100.0 A

100.0 A

Settings

MAX

2-PNL-NL16

208.0 V Nom

AFIE 0.14 Cal/cm^2 3ph SC (Sym) 4282.44 A ArcFC 1.558 kA Trip Time 0.040 s

CBL: 2-PNL-NL16

1 AWG

1 Sets

145.0 ft

CB: 2-PNL-NL13

GE

Frame/Model SFHA Sensor/Trip 150.0 A

150.0 A

Settings

MAX

2-PNL-NL13

208.0 V Nom

AFIE 0.14 Cal/cm^2 3ph SC (Sym) 5163.27 A ArcFC 1.906 kA Trip Time 0.032 s

CBL: 2-PNL-NL13

3/0 AWG

1 Sets

188.0 ft

CB: 2-PNL-NLS4

GE

Frame/Model SFHA Sensor/Trip 150.0 A

150.0 A

Settings

MAX

2-PNL-NLS4

208.0 V Nom

AFIE 0.14 Cal/cm^2 3ph SC (Sym) 5636.37 A ArcFC 2.453 kA Trip Time 0.025 s

CB: 2-PNL-NLS5

GE

Frame/Model SFHA Sensor/Trip 150.0 A

150.0 A

Settings

MAX

2-PNL-NLS5

208.0 V Nom

AFIE 0.15 Cal/cm^2 3ph SC (Sym) 6202.31 A ArcFC 2.699 kA Trip Time 0.024 s

CBL: 2-PNL-NLS5

3/0 AWG

1 Sets

165.0 ft

CB: 2-PNL-NLS6

GE

Frame/Model SEHA Sensor/Trip 100.0 A

100.0 A

Settings

MAX

2-PNL-NLS6

208.0 V Nom

AFIE 0.64 Cal/cm^2 3ph SC (Sym) 3623.39 A ArcFC 1.299 kA Trip Time 0.226 s

CBL: 2-PNL-NLS6

1 AWG

1 Sets

165.0 ft

CB: 2-PNL-NLS3

GE

Frame/Model SFHA Sensor/Trip 150.0 A

150.0 A

Settings

MAX

2-PNL-NLS3

208.0 V Nom

AFIE 1.05 Cal/cm^2 3ph SC (Sym) 4810.77 A ArcFC 1.765 kA Trip Time 0.268 s

CBL: 2-PNL-NLS3

3/0 AWG

1 Sets

208.0 ft

CB: 2-PNL-NLP2

GE

Frame/Model SEHA Sensor/Trip 100.0 A

100.0 A

Settings

MAX

2-PNL-NLP2

208.0 V Nom

AFIE 0.24 Cal/cm^2 3ph SC (Sym) 9325.05 A ArcFC 4.239 kA Trip Time 0.025 s

CBL: 2-PNL-NLP2

1 AWG

1 Sets

37.0 ft

S

P

TX-2-NDCP1

2000 kVA Impedance 6.1000 % Primary 13200 V Secondary 480 V

TX-2-NDCP1_P

13200.0 V Nom

AFIE 1.17 Cal/cm 2̂ 3ph SC (Sym) 9925.85 A ArcFC 9.416 kA Trip Time 0.100 s

TX-2-NDCP1_S

480.0 V Nom

AFIE 6.69 Cal/cm 2̂ 3ph SC (Sym) 40298.73 A ArcFC 27.582 kA Trip Time 0.100 s

CBL: 2-SWG-NDCP1

750 kcmil 25 Sets

1.0 ft

CBL: TX-2-NDCP1

750 kcmil 25 Sets

1.0 ft

MCB: 2-SWG-EMDCP1

GE

Frame/Model WPS-20 Sensor/Trip 2000.0 A

2000.0 A

Settings

LTPU 1.00X (2000A)

LTD C-4

STPU 3X (6000A)

STD ST01-Min (Î s T Off)

INST ST(ON) 3.5X (7000A)

S

P

TX-2-EMDCP1

1500 kVA Impedance 5.8200 % Primary 13200 V Secondary 480 V

TX-2-EMDCP1_P

13200.0 V Nom

AFIE 0.2 Cal/cm^2 3ph SC (Sym) 1448.39 A ArcFC 1.495 kA Trip Time 0.100 s

TX-2-EMDCP1_S

480.0 V Nom

AFIE 7.44 Cal/cm^2 3ph SC (Sym) 17459.35 A ArcFC 17.747 kA Trip Time 0.209 s

CBL: 2-SWG-EMDCP1

750 kcmil 25 Sets

1.0 ft

CBL: TX-2-EMDCP1

750 kcmil 25 Sets

1.0 ft

MCB-G: 2-SWG-NDCP1

GE

Frame/Model WPH-32 Sensor/Trip 3200.0 A

3000.0 A

Settings GFPU (0.2 - 0.37 x In) 0.3 (960A) GFD I2T (1-13 Bands) GFD05 (Î s T Off)

CB: 2-ATS-LS1_N

GE

Frame/Model WPX-08 Sensor/Trip 1 50.0 A

100.0 A

Settings

LTPU 0.50X (50A)

LTD C-1

STPU 1.5X (75A)

STD ST01-Min (Î s T Off)

INST ST(ON) 2X (200A)

CB-G: 2-ATS-LS1_N

GE

Frame/Model WPX-08 Sensor/Trip 1 50.0 A

100.0 A

Settings GFPU (0.2 - 0.6 x In) 0.3 (45A) GFD I2T (1-13 Bands) GFD03 (Î s T Off)

CB: 2-ATS-SB1_N

GE

Frame/Model WPX-08 Sensor/Trip 800.0 A

600.0 A

Settings

LTPU 1.00X (600A)

LTD C-12

STPU 7X (4200A)

STD ST06-Min (Î s T Off)

INST ST(ON) 11X (6600A)

CB-G: 2-ATS-SB1_N

GE

Frame/Model WPX-08 Sensor/Trip 800.0 A

600.0 A

Settings GFPU (0.2 - 0.6 x In) 0.3 (240A) GFD I2T (1-13 Bands) GFD03 (Î s T Off)

CB: 2-ATS-EQ1_N

GE

Frame/Model WPX-08 Sensor/Trip 800.0 A

600.0 A

Settings

LTPU 1.00X (600A)

LTD C-9

STPU 7X (4200A)

STD ST06-Min (Î s T Off)

INST ST(ON) 10X (6000A)

CB-G: 2-ATS-EQ1_N

GE

Frame/Model WPX-08 Sensor/Trip 800.0 A

600.0 A

Settings GFPU (0.2 - 0.6 x In) 0.3 (240A) GFD I2T (1-13 Bands) GFD03 (Î s T Off)

CB: 2-PNL-NHP1_N

GE

Frame/Model WPX-08 Sensor/Trip 800.0 A

600.0 A

Settings

LTPU 1.00X (600A)

LTD C-17

STPU 9X (5400A)

STD ST11-Min (Î s T Off)

INST ST(ON) 12.5X (7500A)

CB-G: 2-PNL-NHP1_ N

GE

Frame/Model WPX-08 Sensor/Trip 800.0 A

600.0 A

Settings GFPU (0.2 - 0.6 x In) 0.3 (240A) GFD I2T (1-13 Bands) GFD03 (Î s T Off)

CB: 2-PNL-NHP2_N

GE

Frame/Model WPX-08 Sensor/Trip 800.0 A

600.0 A

Settings

LTPU 1.00X (600A)

LTD C-17

STPU 9X (5400A)

STD ST11-Min (I^s T Off)

INST ST(ON) 12.5X (7500A)

CB-G: 2-PNL-NHP2_ N

GE

Frame/Model WPX-08 Sensor/Trip 800.0 A

600.0 A

Settings GFPU (0.2 - 0.6 x In) 0.3 (240A) GFD I2T (1-13 Bands) GFD03 (Î s T Off)

CB: 2-ATS-EQ2_N

GE

Frame/Model WPX-08 Sensor/Trip 800.0 A

600.0 A

Settings

LTPU 1.00X (600A)

LTD C-9

STPU 7X (4200A)

STD ST06-Min (Î s T Off)

INST ST(ON) 10X (6000A)

CB-G: 2-ATS-EQ2_N

GE

Frame/Model WPX-08 Sensor/Trip 800.0 A

600.0 A

Settings GFPU (0.2 - 0.6 x In) 0.3 (240A) GFD I2T (1-13 Bands) GFD03 (Î s T Off)

CB: 2-ATS-EQ3_N

GE

Frame/Model WPX-08 Sensor/Trip 800.0 A

600.0 A

Settings

LTPU 1.00X (600A)

LTD C-9

STPU 7X (4200A)

STD ST06-Min (Î s T Off)

INST ST(ON) 10X (6000A)

CB-G: 2-ATS-EQ3_N

GE

Frame/Model WPX-08 Sensor/Trip 800.0 A

600.0 A

Settings GFPU (0.2 - 0.6 x In) 0.3 (240A) GFD I2T (1-13 Bands) GFD03 (Î s T Off)

2-PNL-NLDP2-S2

208.0 V Nom

AFIE 31.68 Cal/cm^2 3ph SC (Sym) 14866.53 A ArcFC 6.907 kA Trip Time 2.000 s

CBL: 2-PNL-NL18

350 kcmil 4 Sets

145.0 ft

2-PNL-NLDP1-S2

208.0 V Nom

AFIE 37.44 Cal/cm^2 3ph SC (Sym) 17489.36 A ArcFC 8.104 kA Trip Time 2.000 s

CBL: 2-PNL-NLDP1-S2

350 kcmil 4 Sets

37.0 ft

MCB: 2-PNL-NL31

GE

Frame/Model TQD Sensor/Trip 150.0 A

150.0 A

Settings Fixed

MCB: 2-PNL-NL32

GE

Frame/Model TQD Sensor/Trip 150.0 A

150.0 A

Settings Fixed

MCB: 2-PNL-NL33

GE

Frame/Model TQD Sensor/Trip 150.0 A

150.0 A

Settings Fixed

MCB: 2-PNL-NL34

GE

Frame/Model TQD Sensor/Trip 150.0 A

150.0 A

Settings Fixed

MCB: 2-PNL-NL35

GE

Frame/Model TQD Sensor/Trip 150.0 A

150.0 A

Settings Fixed

MCB: 2-PNL-NL21

GE

Frame/Model TQD Sensor/Trip 150.0 A

150.0 A

Settings Fixed

MCB: 2-PNL-NL22

GE

Frame/Model TQD Sensor/Trip 1 50.0 A

150.0 A

Settings Fixed

MCB: 2-PNL-NL23

GE

Frame/Model TQD Sensor/Trip 1 50.0 A

150.0 A

Settings Fixed

MCB: 2-PNL-NL24

GE

Frame/Model TQD Sensor/Trip 150.0 A

150.0 A

Settings Fixed

MCB: 2-PNL-NL25

GE

Frame/Model TQD Sensor/Trip 150.0 A

150.0 A

Settings Fixed

MCB: 2-PNL-NL13

GE

Frame/Model TQD Sensor/Trip 150.0 A

150.0 A

Settings Fixed

MCB: 2-PNL-NL14

GE

Frame/Model TQD Sensor/Trip 150.0 A

150.0 A

Settings Fixed

MCB: 2-PNL-NL12

GE

Frame/Model TQD Sensor/Trip 1 50.0 A

150.0 A

Settings Fixed

MCB: 2-PNL-NL15

GE

Frame/Model TQD Sensor/Trip 150.0 A

150.0 A

Settings Fixed

MCB: 2-PNL-NLS1

GE

Frame/Model TQD Sensor/Trip 150.0 A

150.0 A

Settings Fixed

MCB: 2-PNL-NLS2

GE

Frame/Model TQD Sensor/Trip 150.0 A

150.0 A

Settings Fixed

MCB: 2-PNL-NLS3

GE

Frame/Model TQD Sensor/Trip 150.0 A

150.0 A

Settings Fixed

CBL: 2-PNL-NLS4

3/0 AWG

1 Sets

165.0 ft

MCB: 2-PNL-NLS5

GE

Frame/Model TQD Sensor/Trip 150.0 A

150.0 A

Settings Fixed

MCB: 2-PNL-NLS4

GE

Frame/Model TQD Sensor/Trip 150.0 A

150.0 A

Settings Fixed

CB: 2-ATS-SB1_NCB: 2-ATS-LS1_N

TCC 2-PNL-CLS2

CB: 2-ATS-LS1_E CB: 2-ATS-CR1_E

TCC 2-PNL-LSL31 (partial)

TCC 2-PNL-CL11 (partial)

TCC 2-PNL-CLS2 (Em)

Bldg 2 - ATSes LS1 and SB1

EN ATS: 2-LS1

Position - Normal On

CBL: TX-2-TLSL11

10 AWG

1 Sets

15.0 ft

CBL: 2-PNL-LSH11

1 AWG

1 Sets

40.0 ft

CBL: 2-PNL-LSH31

1 AWG

1 Sets

142.0 ft

2-ATS-LS1_E

480.0 V Nom

AFIE 1.71 Cal/cm^2 3ph SC (Sym) 13484.22 A ArcFC 12.697 kA Trip Time 0.058 s

2-ATS-LS1_N

480.0 V Nom

AFIE 2.09 Cal/cm^2 3ph SC (Sym) 20049.71 A ArcFC 15.368 kA Trip Time 0.058 s

2-ATS-LS1_LOAD

480.0 V Nom

AFIE 2.09 Cal/cm^2 3ph SC (Sym) 20049.66 A ArcFC 15.368 kA Trip Time 0.058 s

2-PNL-LSH31

480.0 V Nom

AFIE 0.74 Cal/cm^2 3ph SC (Sym) 7595.22 A ArcFC 5.738 kA Trip Time 0.058 s

CB: TX-2-TLSL31

GE

Frame/Model TEY Sensor/Trip 20.0 A

20.0 A

Settings Fixed

CBL: TX-2-TLSL31

10 AWG

1 Sets

18.0 ft

2-PNL-LSH11

480.0 V Nom

AFIE 0.17 Cal/cm^2 3ph SC (Sym) 6436.11 A ArcFC 4.824 kA Trip Time 0.016 s

CB: TX-2-TLSL11

GE

Frame/Model TEY Sensor/Trip 25.0 A

25.0 A

Settings Fixed

S

P

TX-2-TLSL11

15 kVA Impedance 5.5000 % Primary 480 V Secondary 208 V

TX-2-TLSL11_P

480.0 V Nom

AFIE 0.12 Cal/cm^2 3ph SC (Sym) 4617.49 A ArcFC 3.403 kA Trip Time 0.016 s

S

P

TX-2-TLSL31

15 kVA Impedance 5.5000 % Primary 480 V Secondary 208 V

TX-2-TLSL31_P

480.0 V Nom

AFIE 0.12 Cal/cm^2 3ph SC (Sym) 4878.28 A ArcFC 3.605 kA Trip Time 0.016 s

CBL: 2-PNL-LSL31

6 AWG

1 Sets

16.0 ft

2-PNL-LSL31

208.0 V Nom

AFIE 1.02 Cal/cm^2 3ph SC (Sym) 706.20 A ArcFC 0.257 kA Trip Time 2.000 s

MCB: 2-PNL-LSL31

GE

Frame/Model TEY Sensor/Trip 50.0 A

50.0 A

Settings Fixed

TX-2-TLSL31_S

208.0 V Nom

AFIE 1.05 Cal/cm^2 3ph SC (Sym) 724.87 A ArcFC 0.264 kA Trip Time 2.000 s

CBL: 2-PNL-LSL11

6 AWG

1 Sets

14.0 ft

TX-2-TLSL11_S

208.0 V Nom

AFIE 1.04 Cal/cm^2 3ph SC (Sym) 722.71 A ArcFC 0.263 kA Trip Time 2.000 s

MCB: 2-PNL-LSL11

GE

Frame/Model TEY Sensor/Trip 50.0 A

50.0 A

Settings Fixed

2-PNL-LSL11

208.0 V Nom

AFIE 1.02 Cal/cm^2 3ph SC (Sym) 706.43 A ArcFC 0.257 kA Trip Time 2.000 s

2-ATS-SB1_N

480.0 V Nom

AFIE 3.54 Cal/cm^2 3ph SC (Sym) 35023.50 A ArcFC 24.946 kA Trip Time 0.058 s

EN ATS: 2-SB1

Position - Normal On

CBL: 2-PNL-CHP1

500 kcmil 2 Sets

43.0 ft

2-ATS-SB1_LOAD

480.0 V Nom

AFIE 3.54 Cal/cm^2 3ph SC (Sym) 35023.38 A ArcFC 24.946 kA Trip Time 0.058 s

2-PNL-CHP1

480.0 V Nom

AFIE 3.22 Cal/cm^2 3ph SC (Sym) 31316.31 A ArcFC 22.859 kA Trip Time 0.058 s

CB: TX-2-TCLDP1

GE

Frame/Model SGLA Sensor/Trip 350.0 A

350.0 A

Settings

MAX

CBL: TX-2-TCLDP1

4/0 AWG

2 Sets

32.0 ft

TX-2-TCLDP1_P

480.0 V Nom

AFIE 1.27 Cal/cm^2 3ph SC (Sym) 28301.53 A ArcFC 21.017 kA Trip Time 0.025 s

TX-2-TCLDP1_S

208.0 V Nom

AFIE 20.95 Cal/cm^2 3ph SC (Sym) 10156.60 A ArcFC 4.646 kA Trip Time 2.000 s

CBL: 2-PNL-CLDP1

350 kcmil 3 Sets

26.0 ft

CB: TX-2-TCLDP2

GE

Frame/Model SGLC Sensor/Trip 400.0 A

225.0 A

Settings

LTPU 1.00X (225A)

LTD F-4

STPU 6X (1350A)

ZSI Int ST06-Int (I ŝ T Off)

INST 8.5X (3400A)

CBL: TX-2-TCLDP2

350 kcmil 1 Sets

22.0 ft

TX-2-TCLDP2_P

480.0 V Nom

AFIE 1.25 Cal/cm^2 3ph SC (Sym) 27906.37 A ArcFC 20.768 kA Trip Time 0.025 s

TX-2-TCLDP2_S

208.0 V Nom

AFIE 1.31 Cal/cm^2 3ph SC (Sym) 8594.48 A ArcFC 3.118 kA Trip Time 0.190 s

CBL: 2-PNL-CLDP2

350 kcmil 2 Sets

42.0 ft

MCB: 2-PNL-CLDP1

GE

Frame/Model SKHA Sensor/Trip 700.0 A

700.0 A

Settings

MAX

MCB: 2-PNL-CLDP2

GE

Frame/Model SGHC Sensor/Trip 600.0 A

500.0 A

Settings

LTPU 1.00X (500A)

LTD F-4

STPU 6.5X (3250A)

STD Int ST06-Int (I ŝ T Off)

INST 9X (5400A)

2-PNL-CLDP1

208.0 V Nom

AFIE 20.07 Cal/cm^2 3ph SC (Sym) 9769.23 A ArcFC 4.457 kA Trip Time 2.000 s

2-PNL-CLDP2

208.0 V Nom

AFIE 1.56 Cal/cm^2 3ph SC (Sym) 8011.29 A ArcFC 2.903 kA Trip Time 0.214 s

S

P

TX-2-TCLDP2

150 kVA Impedance 4.2000 % Primary 480 V Secondary 208 V

S

P

TX-2-TCLDP1

225 kVA Impedance 5.2000 % Primary 480 V Secondary 208 V

CB: 2-PNL-CLS1

GE

Frame/Model SFHA Sensor/Trip 150.0 A

150.0 A

Settings

MAX

CBL: 2-PNL-CLS1

3/0 AWG

1 Sets

135.0 ft

2-PNL-CLS1

208.0 V Nom

AFIE 0.14 Cal/cm^2 3ph SC (Sym) 5382.35 A ArcFC 1.928 kA Trip Time 0.032 s

CB: 2-PNL-CLS3

GE

Frame/Model FGN Sensor/Trip 250.0 A

100.0 A

Settings LTPU Fixed (100A)

LTD 10

STPU 12X (1200A)

STD 0.42 (Î s T Off)

INST 12X (3000A)

CBL: 2-PNL-CLS3

1 AWG

1 Sets

134.0 ft

2-PNL-CLS3

208.0 V Nom

AFIE 6.15 Cal/cm^2 3ph SC (Sym) 3893.79 A ArcFC 1.411 kA Trip Time 2.000 s

CB: 2-PNL-CL11

GE

Frame/Model SFHA Sensor/Trip 150.0 A

150.0 A

Settings

MAX

CBL: 2-PNL-CL11

3/0 AWG

1 Sets

115.0 ft

2-PNL-CL11

208.0 V Nom

AFIE 1.05 Cal/cm^2 3ph SC (Sym) 4779.76 A ArcFC 1.706 kA Trip Time 0.284 s

CB: 2-PNL-CL13

GE

Frame/Model FGN Sensor/Trip 250.0 A

100.0 A

Settings LTPU Fixed (100A)

LTD 10

STPU 12X (1200A)

STD 0.42 (I ŝ T Off)

INST 12X (3000A)

CBL: 2-PNL-CL13

1 AWG

1 Sets

114.0 ft

2-PNL-CL13

208.0 V Nom

AFIE 1.82 Cal/cm^2 3ph SC (Sym) 4331.49 A ArcFC 1.839 kA Trip Time 0.455 s

CB: 2-PNL-CL21

GE

Frame/Model SFHA Sensor/Trip 150.0 A

150.0 A

Settings

MAX

CBL: 2-PNL-CL21

3/0 AWG

1 Sets

99.0 ft

2-PNL-CL21

208.0 V Nom

AFIE 0.15 Cal/cm^2 3ph SC (Sym) 6174.23 A ArcFC 2.709 kA Trip Time 0.024 s

CB: 2-PNL-CL23

GE

Frame/Model FGN Sensor/Trip 250.0 A

100.0 A

Settings LTPU Fixed (100A)

LTD 10

STPU 12X (1200A)

STD 0.42 (I ŝ T Off)

INST 12X (3000A)

CBL: 2-PNL-CL23

1 AWG

1 Sets

98.0 ft

2-PNL-CL23

208.0 V Nom

AFIE 2.03 Cal/cm^2 3ph SC (Sym) 4752.21 A ArcFC 2.036 kA Trip Time 0.455 s

CB: 2-PNL-CL31

GE

Frame/Model SFHA Sensor/Trip 150.0 A

150.0 A

Settings

MAX

CBL: 2-PNL-CL31

3/0 AWG

1 Sets

82.0 ft

CB: 2-PNL-CL33

GE

Frame/Model FGN Sensor/Trip 250.0 A

100.0 A

Settings LTPU Fixed (100A)

LTD 10

STPU 12X (1200A)

STD 0.42 (I ŝ T Off)

INST 12X (3000A)

CBL: 2-PNL-CL33

1 AWG

1 Sets

74.0 ft

2-PNL-CL33

208.0 V Nom

AFIE 2.41 Cal/cm^2 3ph SC (Sym) 5539.06 A ArcFC 2.407 kA Trip Time 0.455 s

2-PNL-CL31

208.0 V Nom

AFIE 0.16 Cal/cm^2 3ph SC (Sym) 6623.63 A ArcFC 2.776 kA Trip Time 0.023 s

CB: 2-PNL-CLS2

GE

Frame/Model SFHA Sensor/Trip 250.0 A

250.0 A

Settings

MAX

CBL: 2-PNL-CLS2

3/0 AWG

1 Sets

155.0 ft

2-PNL-CLS2

208.0 V Nom

AFIE 6.8 Cal/cm^2 3ph SC (Sym) 4534.52 A ArcFC 1.609 kA Trip Time 1.971 s

CB: 2-PNL-CL12

GE

Frame/Model SFHA Sensor/Trip 250.0 A

250.0 A

Settings

MAX

CBL: 2-PNL-CL12

3/0 AWG

1 Sets

135.0 ft

2-PNL-CL12

208.0 V Nom

AFIE 6.42 Cal/cm^2 3ph SC (Sym) 3997.07 A ArcFC 1.638 kA Trip Time 1.841 s

CB: 2-PNL-CL32

GE

Frame/Model SFHA Sensor/Trip 250.0 A

250.0 A

Settings

MAX

CBL: 2-PNL-CL32

3/0 AWG

1 Sets

103.0 ft

2-PNL-CL32

208.0 V Nom

AFIE 2.24 Cal/cm^2 3ph SC (Sym) 5366.25 A ArcFC 1.919 kA Trip Time 0.539 s

CB: 2-PNL-CL22

GE

Frame/Model SFHA Sensor/Trip 250.0 A

250.0 A

Settings

MAX

CBL: 2-PNL-CL22

3/0 AWG

1 Sets

119.0 ft

2-PNL-CL22

208.0 V Nom

AFIE 4.87 Cal/cm^2 3ph SC (Sym) 5083.13 A ArcFC 1.814 kA Trip Time 1.248 s

CB: 2-PNL-CH31

GE

Frame/Model SELA Sensor/Trip 100.0 A

100.0 A

Settings

MAX

CB: 2-PNL-CH21

GE

Frame/Model SELA Sensor/Trip 100.0 A

100.0 A

Settings

MAX

CBL: 2-PNL-CH21

1 AWG

1 Sets

132.0 ft

2-PNL-CH21

480.0 V Nom

AFIE 0.43 Cal/cm^2 3ph SC (Sym) 9956.99 A ArcFC 7.608 kA Trip Time 0.025 s

2-PNL-CH31

480.0 V Nom

AFIE 0.61 Cal/cm^2 3ph SC (Sym) 13794.68 A ArcFC 10.630 kA Trip Time 0.025 s

CBL: 2-PNL-CH31

1 AWG

1 Sets

83.0 ft

CB: 2-PNL-CH11

GE

Frame/Model SELA Sensor/Trip 100.0 A

100.0 A

Settings

MAX

CB: 2-PNL-CHS1

GE

Frame/Model SELA Sensor/Trip 100.0 A

100.0 A

Settings

MAX

CBL: 2-PNL-CHS1

1 AWG

1 Sets

134.0 ft

2-PNL-CHS1

480.0 V Nom

AFIE 0.42 Cal/cm^2 3ph SC (Sym) 9843.48 A ArcFC 7.518 kA Trip Time 0.025 s

2-PNL-CH11

480.0 V Nom

AFIE 0.47 Cal/cm^2 3ph SC (Sym) 10964.12 A ArcFC 8.405 kA Trip Time 0.025 s

CBL: 2-PNL-CH11

1 AWG

1 Sets

116.0 ft

2-ATS-SB1_E

480.0 V Nom

AFIE 2.25 Cal/cm^2 3ph SC (Sym) 16396.03 A ArcFC 16.421 kA Trip Time 0.058 s

CB: TX-02-TLSL32

GE

Frame/Model TEY Sensor/Trip 25.0 A

25.0 A

Settings Fixed

MCB: 2-PNL-CL31

GE

Frame/Model TQD Sensor/Trip 150.0 A

150.0 A

Settings Fixed

MCB: 2-PNL-CL21

GE

Frame/Model TQD Sensor/Trip 150.0 A

150.0 A

Settings Fixed

MCB: 2-PNL-CL32

GE

Frame/Model TQD Sensor/Trip 150.0 A

150.0 A

Settings Fixed

MCB:…