Appendix F - Division 25.pdf

DIVISION 25 – INTEGRATED AUTOMATION

SECTION 25 00 00

06/12

1. GENERAL

1.1 Definitions

STIG – The Department of Defense’s Security Technical Implementation Guide.

BAS – Building Automation System

DDC – Direct Digital Control

HVAC – Heating Ventilation Air Conditioning

DODI – Department of Defense Instruction

1.2 Overview

The integrated automation system, more commonly referred to as Building Automation System(BAS), consists of the hardware and software necessary to provide monitoring and control of the electrical systems, monitor life safety equipment, receive information from the direct digital control (DDC) system, provide commands to the DDC system, provide graphic user interface (HVAC, Elec, Life Safety), provide data to the DISA Data Center Infrastructure Management system (DCIM), provide data to the DISA facility monitoring tools/teams, provide reporting, and provide email notifications.

The purpose of this standard is to define the configuration, interaction, and materials for the connection, monitoring, user interface and reporting of electrical systems, life safety systems and the

DDC systems (specified in CSI 360-95-3 division 23).

All project engineers, managers, designers, installers and operators of electrical systems and direct digital control systems shall understand and comply not only with this section of CSI 360-95-3, but must understand, design, install and implement the integrated automation equipment in unison with the products and requirements outlined in CSI 360-95-3 Division 23(DDC Controls).

The requirements outlined in this section of CSI 360-95-3 pertain specifically to new integrated automation systems as well as the repair of systems that already comply with CSI 360-95-3 25 00

00(dated June 2012).

Acceptance of a proposal by the government that does not clearly indicated the materials, products, installation methods and configurations used to develop the proposal does not relinquish the bidder from compliance with CSI 360-95-3 Division 25 and 23 09 23.

1.3 New and Legacy Direct Digital Control Systems

Legacy systems are systems that were installed prior to June 2012. These systems are to be maintained and repaired by the original equipment manufacturer utilizing best industry practices for the installed systems The programming, section of this specification shall be utilized to determine trending, graphics, and alarming requirements.

1.4 Management of Enterprise Services Building Automation Systems

The Chief of Facilities Engineering for Enterprise Services shall designate a person to serve as the BAS program manager. The BAS program manager shall: interface with ES5 personnel for BAS oversight and information assure posture, manage the BAS program, serve as the TM for the BAS contracts, coordinate the O&M and equipment programming needs, and to serve as the gatekeeper for user access and Enterprise Level Operator system changes.

1.5 Compliance with DOD instruction 8500.2

The products, configurations and materials outlined in CSI 360-95-3 Division 25 and 23 09 23 and are in the process of being tested for compliance with DOD instruction 8500.2. Deviations from the products, configurations, installation requirements or materials listed in CSI 360-95-3 Division 25 and 23 09 23 are not permitted without written approval from the Chief of Facilities Engineering (ES521).

1.6 Security Requirements for Designers, Installers, Operators and Repairers

1.6.1 Designer Security Requirements

The designer of the BAS system shall maintain a security clearance in compliance with the contract documents for the contract that the work is being performed under.

1.6.2 BAS Operator, Installer and Repairer Security Requirements

All operators of the BAS system shall posses and maintain a valid

Secret Security Clearance with IT II access.

All installers and repairers, not needing access to the operating system root configurations of the BAS system shall posses and maintain a valid Secret Security Clearance with IT II access.

All installers and repairers, needing access to the operating system root configurations of the BAS system shall posses and maintain a valid Secret Security Clearance with IT I access.

1.7 Integrated Automation Enterprise Contract

ES521 shall maintain a contract that affords the DISA Enterprise Services Directorate the ability to maintain, repair and install the integrated automation systems outlined by this section and Division 23 of CSI 360-95-3. The contract shall have the ability to deliver integrated automation services (installation, modification, preventative maintenance and repair) to any of the DISA Enterprise Services Directorate facilities.

For integrated automation systems that are on the Enterprise Contract: all installations, connections of new equipment, maintenance on the systems and components shall be conducted solely by the enterprise integrated automation service provider. No other service provider is authorized to install equipment upon, modify, or otherwise interfere with these systems because of security, contract and warranty obligations.

The ES521 integrated automation contract management representative shall work closely with the ES521 TIM contract management representative to ensure that the two contracts do not duplicate efforts or create contractual conflicts or disputes.

1.8 Access to Building Automation Systems

Access to all DISA Enterprise Services building automation systems requires that a DD2875 and proof of training be submitted to the ES521 BAS program manager. The BAS program manager can provide an example of the DD2875.

1.9 Concept of Operations for Integrated Automation and DDC Systems

The DISA Enterprise Services Directorate building automation systems (BAS) are comprised of three sub systems: a DDC system, a local BAS network (BAS-L) and an enterprise wide network (BAS-G).

Of the three systems, the DDC and BAS-L are local to the facility while the BAS-G system has components spread across the enterprise.

The concept of operations for the DDC systems is that the control and monitoring of site HVAC equipment will reside within the DDC controllers and network as outlined by CSI 360-95-3 23 09 23.

The DDC system will communicate HVAC status to the BAS-L network as well as receive operator initiated changes to the HVAC systems (i.e. setpoints, lead/lag, alarm acknowledgement). In the DDC system there is a single operator workstation that is to be used as the main point for programming for the DDC and as an emergency operator’s workstation in the event of a failure in the BAS-L network.

The DDC systems network will be directly connected to the BAS-L network and not to any DISA network. The integrator or DDC installer are to provide all materials and labor for the DDC system.

The concept of operations for the BAS-L components is to provide a network within the facility that provides the means to communicate, control and/or monitor the sites life safety systems, electrical and HVAC systems. The BAS-L network contains network switches, and web based software that provides: operator graphics, alarming, trending, system monitoring, email notification, and the software link between the BAS-L system and the BAS-G systems. The BAS-L network will contain a Virtual Operating Environment (VOE) server that will have network connections to the BAS-L network and the BAS-G network. DISA Enterprise services will provide the VOE server for this portion of the system and the communication switch that links the system with the DISA central Network.

The concept of operations for the BAS-G components is to communicate with each individual sites BAS-L network, to provide the connection point for the site and remote operator workstations (individual computers), to provide data to the DISA enterprise monitoring tools/teams, and to provide information to the DISA Enterprise Services DCIM tool. The BAS-G will contain the enterprise BAS storage, reporting and database components. DISA has assigned system and database administrators to assist with the sustainment and installation of the software. All hardware in the BAS-G portion of the system will be provided by DISA Enterprise Services. The system integrator shall provide labor to configure the software and to work with the DISA IT team to ensure an operable system.

Figure 25.1 is a simple graphical representation of the relationship between the three BAS subsystems.

1.10 Submittals

All BAS submittals shall follow the requirements outlined in CSI 360-95-3 section 23 09 23.

1.11 Design Requirements

All BAS designs shall follow the requirements outlined in CSI 360-95-3 section 23 09 23.

Drawings shall incorporate CSI 360-95-3 Record Drawing Configuration Management (CM) 01 78 39.

1.12 Operator Levels

All DECC facility managers and contracted maintenance teams shall be trained as operators of the BAS for the facility. The following operator levels are the minimum required per DECC.

� One government civilian facility manager capable of performing the functions of a site level BAS operator.

� One contracted maintenance person per shift cable of performing the function of a site level BAS operator

Figure 25.1

� One contracted maintenance person on staff cable of performing the function of a site level

BAS configuration operator

All other facility managers and maintenance staff shall be capable of performing the function of a site level BAS viewer.

DISA Enterprise Services Facilities Engineering team shall have two personnel trained to perform the functions of Enterprise Level Operator and two to perform the function of Enterprise Level

Configuration. The same personnel can fulfill both functions.

1.13 Network Architecture

The system provided shall incorporate hardware resources sufficient to meet the functional requirements of these Specifications. Contractor shall include all items not specifically itemized in these Specifications that are necessary to implement, maintain, and operate the system in compliance with the functional intent of these Specifications.

The system shall be configured as a distributed processing network(s) capable of expansion as specified below.

A multi-level Local Area Network (LAN) utilizing Rapid Spanning Tree Protocol shall be created to provide an N+1 redundant LAN for the facility. All site infrastructure equipment shall connect to the

LAN as follows:

� Utility Electrical Metering – Radial connection per utility meter, Utility meters may share the same radial path.

� UPS Systems – Radial connection per UPS bus, UPS buses shall not share same radial path

� Chiller Plant(computer rooms) – Radial connection per chiller plant DDC control system, chiller DDC control systems shall not share same radial path

� Condenser Plant(computer rooms) – Radial connection per condenser plant DDC control system, condenser DDC control systems shall not share same radial path

� Critical Power Distribution – Radial connection per critical bus, multiple components from the same critical bus (ie bus A) can share the same radial path.

� Essential Power Distribution – Radial connection per Essential bus, multiple components from the same essential bus (ie bus A) can share the same radial path.

� Life Safety Equipment – Radial Connection, all life safety equipment can share the same radial path if connection to the path makes economical and logical sense.

� Generators- Radial connection per generator bus when the generator bus is configured in a 2N fashion. When a 2N configuration exists, multiple components from the same generator bus (ie bus A) can share the same radial path. All other generator configurations shall use a radial path.

� CRAC Units –Radial connection. Group similar rooms to the same radial connection

� UPS Room and Battery Room HVAC systems - Radial connection per type of HVAC system when the HVAC systems are configured in a 2N fashion. When a 2N configuration exists. All other HVAC configurations shall use a radial path.

� Administrative HVAC systems –Radial connection. Group similar rooms to the same radial connection

The communication speed between the DDC Systems, LAN interface devices, and operator interface devices shall be sufficient to ensure fast system response time under any loading condition. Contractor shall submit guaranteed response times with Shop Drawings including calculations to support the guarantee. In no case shall delay times between an event, request, or command initiation and its completion be greater than those listed herein. Contractor shall modify their BAS control design as necessary to accomplish these performance requirements.

� 5 seconds between a Level 1 (critical) alarm occurrence time delay expiration and enunciation at operator workstation.

� 10 seconds between a Level 2 alarm occurrence time delay expiration and enunciation at operator workstation.

� 20 seconds between a Level 3-5 alarm occurrence time delay expiration and enunciation at operator workstation.

� 10 seconds between an operator command via the operator interface to change a setpoint and the subsequent change in the controller.

� 5 seconds between an operator command via the operator interface to start/stop a device and the subsequent command to be received at the controller.

� 5 seconds between a change of value or state of an input and it being updated on the operator interface.

� 10 seconds between an operator selection of a graphic and it completely painting the screen and updating at least ten (10) points.

� 1 second between an alarm becoming active in the Iconics Genesis 64 system and its communication to the DISA Enterprise Services monitoring tools.

All data throughout any level of the network shall be available to and available by all other devices, or controllers whether directly connected or connected remotely.

Figure 25.2 demonstrates a typical (high level), but not necessary every, BAS architecture.

Figure 25.2

1.14 Pre Production Environment

DISA will maintain a simulated BAS system in the Enterprise Services Pre-Production environment.

The BAS pre production system will be used to test software updates for compliance with DODI 8500.2 and system reliability prior to installing the updates into the BAS production environment (BAS-G).

The pre production environment will simulate the production environment with the exception that it will use a simulated database verse being connected to in service facilities infrastructure systems.

2 INTEGRATED AUTOMATION SOFTWARE AND EQUIPMENT PRODUCTS

2.1 Integrated Automation Software

The software listed in this section is being tested for compliance with DODI 8500.2 and is the only acceptable software.

The only acceptable software manufacturers for all DISA Enterprise Services BAS systems software shall be:

Direct Digital Controls – Delta Controls

BAS-L

Iconics Genesis 64 ver 10.7 with the following applications/functions enabled

GraphicWorx64 version 10.7

TrendWorx 64 Control

AlarmWorx 64 Control

GridWorx 64 Control

AlarmWorx64 Server

AlarmWorx64 Logger

Unified Data Manager

Global Aliasing

FrameWorx Server

Security Server

SNMP

BacNET

ScheduleWorx 64

GridWorx 64 server

ScriptWorx 64

Modbus Driver

UCONN ASCII Driver

AlarmWorx 64 Multimedia

Hyper Historian Collector

Iconics OPC-UA Server

Sequel Server 2008 R2

DISA security and antivirus software

BAS-G

Internet Explorer (Workstations)

DISA security and antivirus software (workstations and servers)

AlarmWorx Multimedia Agents

Sequel Server 2008 R2

AlarmWorx64 Logger

Iconics Security Server

ReportWorx 64 ver 10.7

For all installations where the Iconics Genesis 64 platform is not currently installed, the installing integrator is to provide all Iconics applications. DISA Enterprise Services will provide the

Sequel, DISA Security and DISA Antivirus software.

As part of the installation of the software covered in this section, the installing integrator shall be prepared to work with a DISA system and database administrators to ensure the correct STIG settings are configured prior to the application being made available to the integrator for installation or communication with the facilities equipment at the site.

For every BAS installation, the integrator shall provide a software license necessary to support the software being provided for the BAS-L/BAS-G Iconics Genesis 64 software and enough licenses for ten remote users to log into the system at a time.

To maintain control of which ports the BAS system is using, a list of ports will be provided only to installers that have an active contract and have demonstrated that they possess the correct security clearances. Figure 25.2 demonstrates the communication protocols utilized in the BAS system. The installing integrator shall coordinate with all project disciplines prior to any mechanical, electrical or life safety submittal to ensure that the provided equipment can be integrated with the protocols shown in figure 25.3

2.2 Integrated Automation Network Equipment (BAS-L)

The only acceptable manufacturers for all DISA Enterprise Services BAS-L systems network switches and routers are: CISCO and Phoenix.

All switches and routers shall be manageable and capable of being monitored.

All switches used in the Multi Level Ethernet Local Area Network (LAN) shall be capable of Rapid

Spanning Tree Protocol.

All RSTP manages switches shall have redundant power supplies.

All NON-RSTP switches, used in all radial connections, shall have a single power supply.

2.3 Integrated Automation Network Wiring (BAS-L)

All wiring shall be in accordance with the latest edition of the National Electrical Code (NFPA 70) and Division 26. All wiring jackets shall be labeled “BAS” in 20 foot or fewer intervals along the length of the jacket material.

Figure 25.3

Wiring colors and labels shall be as shown below:

Purpose Function Color Label

Communications Communications White BAS Network

Input/Outputs Device to Panel Black and White BAS I/O

Power 24 VAC Red and White BAS Power

Power 24 VDC Black w/white tracer and

White

BAS Power

2.4 Integrated Automation Information Technology Equipment (BAS-G)

All servers, communication devices and storage equipment that make up the BAS-G systems will be provided by a DISA Enterprise Services contract. Updating, repair or replacement of the equipment will follow existing DISA Enterprise Services processes.

2.5 Integrated Automation Operator Workstations Equipment (BAS-G)

All operator workstations being utilized by the BAS-G systems will be provided by a DISA Enterprise

Services contract. Updating, repair or replacement of the equipment will follow existing DISA

Enterprise Services processes.

Workstations will be installed at strategic locations within the facility to support 24x7 operations and maintenance of the systems. Individuals desiring to log into the system remotely will utilize their assigned computer.

3 INTEGRATED AUTOMATION INSTALLATION

3.1 Wiring

Identification:

Permanently label each field-installed wire, and cable, at each end with descriptive text using a commercial wire marking system that fully encircles the wire, cable, or tube. Locate the markers within 2 inches of each termination. Match the labels used in the design.

Similarly label all power wiring serving control devices, including the word "power" in the label.

Label all terminal blocks with alpha/numeric labels.

Run wiring in panel enclosures in covered wire track.

To the extent possible utilize the existing unclassified cable trays in computer rooms for BAS

Network cabling. When utilizing the existing cable tray is not feasible, specify/provide a cable management system that is compliant with NFPA 70 and CSI 360-95-3.

Run all wiring located inside mechanical or electrical rooms in conduit.

Above drop ceilings or hard walled surfaces utilize J-hooks to support the cabling. When feasible, bundle DDC and other BAS cables in the same J-hook

3.2 Software Installation

The BAS integrator shall work with DISA to install, configure and test the software on all BAS-G components. These components include, but are not limited to operator workstations, servers, and storage devices.

3.3 Programming

3.3.1 Password Protection

A multiple level password access protection shall be programmed/configured in the

Iconics Genesis 64 and the DDC software to limit workstation control, display and system manipulation.

All factory passwords for the system shall be provided to the BAS program manager.

These passwords include: administrator, dealer, technician, factory level passwords. Do not include these passwords in any submittal or operations and maintenance manual.

The system shall automatically log the user out of the Iconics Genesis 64 and DDC system after 10 minutes of system inactivity.

3.3.2 User Groups

Establish the following User Groups in the Iconics Genesis 64 software to support site level and enterprise level users.

� Enterprise Level Viewer: Provide the ability for these users to have read only view of any site BAS system within the DISA Enterprise. These users shall also have the ability to create one time reports.

� Enterprise Level Operator: Provide the ability for these users to have read and write capabilities for all BAS systems within the enterprise. These users shall be able to create or modify trends, graphics, setpoints, reports, and to acknowledge alarms.

� Enterprise Level Configuration: Provide the ability for these users to perform

Enterprise Level Operator functions as well as the ability to make program and system configuration changes.

� Site Level Viewer: Provide the ability for these users to have read only view of their specific site BAS system. These users shall also have the ability to create one time reports.

� Site Level Operator: Provide the ability for these users to have read and write capabilities for their site specific BAS system. These users shall be able to create or modify trends, graphics, setpoints, reports, and to acknowledge alarms.

� Site Level Configuration: Provide the ability for these users to perform site

Level Operator functions as well as the ability to make program and system configuration changes.

3.3.3 Graphics:

Create graphics within the Iconics Gen 64 system for use by the BAS system operators.

The graphics shall display the data points that are outlined by this Division. The graphic shall have available for the operators use the data points, lead/lag and other control points for the given system.

When a device or item of equipment has lost communication with the BAS system, the device shall flash YELLOW on all graphic screens.

When a device or item of equipment is in alarm, the device shall flash RED on all graphic screens.

When a device or item of equipment is placed in Manual, the device shall flash PURPLE on all graphic screens.

With the exception of the Critical System Overview graphics, all graphics shall display a

“snapshot” for the critical systems. The “snapshot” shall be located in the same location on all graphics. The “snapshots” shall read as follows:

� UPS Systems – Display the word UPS System in solid Green when there are no active alarms and all systems are online. Flash Red when there is an active alarm or when a system is offline.

� Generator Systems – Display the word Generator in solid Green when there are no active alarms and all systems are in standby ready to support the facility.

Flash Red when there is an active alarm or when the generators are supporting the building.

� Chiller Plant - Display the words Chiller Plant in solid Green when there are no active alarms and all systems are online. Flash Red when there is an active alarm or when a system is offline.

� Condenser Water Plant - Display the words Condenser Water in solid Green when there are no active alarms and all systems are online. Flash Red when there is an active alarm or when a system is offline.

3.3.3.1 Enterprise Level:

Create Enterprise Level graphics as described below:

� Enterprise Level Critical System Overview. The graphic displays on a single page the current load and system status by site for each of the following systems:

o UPS Bus A o UPS Bus B o Critical Distribution A o Critical Distribution B o Chiller Plant o Condenser Plant o Temperature in each Computer Room

This graphic shall be the default view for all Enterprise Level Viewer user group members.

When new systems are installed, the new site shall be added to the existing graphic.

An example of the graphic is shown below:

The graphic is currently under development

3.3.3.2 Site Level:

Create Site Level graphics as described below:

� Site Level Critical System Overview: The graphic shall be an identical view as the Enterprise Level Critical System Overview except it shall only contain site level information.

This graphic shall be the default view for all Site Level Viewer user group members.

An example of the graphic is shown below:

The graphic is currently under development

� Site Services: Display the information and readings for the sites three utility services:

o Natural Gas o Water o Electric

An example of the graphic is shown below:

The graphic is currently under development

� UPS Systems: Utilize the UPS system web functions to display the graphics as the manufacturer would.

An example of the graphic is shown below:

The graphic is currently under development

� Battery Systems: Provide a display of all battery jars and cells.

An example of the graphic is shown below:

The graphic is currently under development

� Battery Room HVAC, Exhaust and Hydrogen Detection Systems:

Provide a display of battery room HVAC system, and hydrogen detection system.

An example of the graphic is shown below:

The graphic is currently under development

� Critical Power Distribution: Provide a display of the sites critical power distribution system. The display shall utilize the sites one line drawing to indicate active, faulted and off power paths.

Include in the display any SPD or TVSS devices, breakers, meters etc.

An example of the graphic is shown below:

The graphic is currently under development

� Essential Power Distribution: Provide a display of the sites essential power distribution system. The display shall utilize the sites one line drawing to indicate active, faulted and off power paths. Include in the display any SPD or TVSS devices, breakers, meters etc.

An example of the graphic is shown below:

The graphic is currently under development

� Chiller and Refrigerant Detection Systems: Provide a display of chiller plant and refrigerant detection system. The graphic shall display the system in a manner that reflects the sites condenser water piping.

An example of the graphic is shown below:

The graphic is currently under development

� Condenser Water System: Provide a display of the condenser water system. The graphic shall display the system in a manner that reflects the sites condenser water piping.

An example of the graphic is shown below:

The graphic is currently under development

� Admin Air Handler Systems: Provide a display of each admin air handler system. The graphic shall display the system in a manner that reflects the water piping to the air handler and the air flow into, through and out of the air handler.

An example of the graphic is shown below:

The graphic is currently under development

• Air Distribution systems: Provide a display of the air distribution system for each space. The graphic shall utilize the space floor plan to display the location of CRAC units, VAVs, exhaust fans, CV boxes, thermostats, space temperatures, space CO2 levels, radiant heat, fan coils, and ATFP switch position.

An example of the graphic is shown below:

The graphic is currently under development

3.3.4 Trending:

Create in the Iconics Genesis 64 system the trends outlined below. The trends shall present a graphic and data (spreadsheet) view. The Trends shall be capable of being e mailed from the Iconics Genesis 64 system for use in MS Excel 2007.

� Chilled water supply and return temperature (same trend)

� Condenser water supply and return temperature (same trend)

� Condenser water supply and return temperatures with chilled water supply and return temperatures (same trend)

� Condenser water supply, active chiller loading(in %) and chilled water supply temp

� Outside ambient temperature(dry and wet bulb), condenser water supply temperature, cooling tower fan speed

� Chiller load (in %) when all admin HVAC loads are in night setback or off

� Chiller load (in %) and computer room temperature (average of all

CRAC units)

� Make up water meter for chilled and condenser water make up systems

� Condenser water chemical treatment ‘blow down’ and chemical add to condenser water system

� Electrical Utility Consumption – peak demand in kW (15 min interval) and electrical consumption in kWH (15 min interval)

� Chiller plant and Condenser Water plant electrical consumption - peak demand in kW (15 min interval) and electrical consumption in kWH

(15 min interval)

� UPS input and UPS output electrical consumption - peak demand in kW (15 min interval) and electrical consumption in kWH (15 min interval)

� Site power utilization efficiency measure in 5 min intervals

3.3.5 Reporting:

Create in the Iconics Genesis 64 system the reports outlined below. The reports shall present a graphic and data (spreadsheet) view. The reports shall be capable of being emailed from the Iconics Genesis 64 system on a regular basis or by operator request.

Weekly Reports

� Any equipment setpoints, alarms, or controls that were placed in manual at anytime during the week.

Monthly Reports

� Equipment runtime hours

� Facility Electrical Utility Power demand and consumption

� UPS system power demand and consumption

3.3.6 Alarming:

This section outlines the alarming requirements for the Iconics Genesis 64 alarm and the transmission of the alarms to the DISA Enterprise Services Monitoring Tools/Teams.

All alarms presented by the BAS shall be differentiated and presented to the site operator workstations by criticality as defined by table 25.1. The alarms shall be differentiated by color coding and wave files as defined by table 25.1.

Criticality

Index

Criticality

Description Equipment

Alarm

Text Color WAV File

Critical

Limited to Commercial

Power, UPS systems, Chiller plant, Generators, Critical

Distribution, Mission

Essential Distribution

Life Safety Systems and

CRAC units

BLACK

ON RED doom1.wav

Important

Limited to Commercial

Power, UPS systems, Chiller plant, Generators, Critical

Distribution, Mission

Essential Distribution water leak detection and

CRAC units

RED ON

YELLOW danger1.wav

3 Noteworthy Any ORANGE n/a

4 Warning Any PLUM n/a

5 Nuisance Any BLUE n/a

Criticality 1 and 2 alarms shall capture the operator’s attention by sounding the wave file and creating a POP UP display that covers all other BAS graphics, displays or information.

Criticality 3, 4 and 5 alarms shall be displayed in the Iconics Genesis 64 alarm pages, but do not require a POP UP to capture the operators attention. Any Criticality 3, 4 or 5 alarm that is not acknowledged within 24 hours shall generate a criticality 2 alarm advising the operator that the alarm is active. The criticality 2 alarm shall be regenerated every four hours or until the criticality alarm 3, 4 or 5 is acknowledged.

Any Criticality 3, 4 or 5 alarm that is not cleared within 96 hours shall generate a criticality 2 alarm advising the operator that the alarm needs attention. The criticality 2 alarm shall be regenerated every twelve hours or until the criticality alarm 3, 4 or 5 is cleared.

All infrastructure alarms, regardless of criticality, as outlined by the alarm thresholds in the data points section of the specification shall be visible to the operator via the Iconics

Genesis 64 operator workstations.

The BAS integrator shall work with the DISA facility manager and the DISA Enterprise

Services Facilities Engineering team member to develop and populate the user response field for each alarm.

Alarms for critical infrastructure equipment shall analyzed by the integrator and the

DISA Enterprise Services project TM to ensure that nuisance alarms are not created when the sites infrastructure equipment responds as designed. Examples of this include, but are not limited to:

� UPS alarms as a result of power outage. The alarms shall be delayed to permit return of UPS input power due to return of utility power or successful transfer of the facility to generator power.

� Chiller, cooling tower, pump, CRAC unit and computer room overtemp alarms as a result of a power outage. The expected operation for these systems is to cycle off until power is returned. The alarms for these systems shall be delayed to provide adequate time for power to return.

� Utility power failure. The BAS shall recognize that there was a utility power failure, but shall delay notification of the failure until it can determine if the sites generator sets successfully started and transferred to support the facility. This alarm shall be designated as Facility Input Power

Bus ‘XX’. This alarm shall be created for each facility service entrance bus.

o Under normal operating conditions, the alarm shall be ‘off.’

o Upon recognition of an input voltage loss to the bus, the system shall evaluate generator starting and ATS position along with a return of voltage to the impacted bus and alarm: “Facility Service

Entrance Bus XX has a failed utility source, the bus is operating under generator power” o In the event a voltage loss to the bus is recognized and the generators don’t start or transfer, the BAS shall alarm “Facility

Service Entrance Bus XX has a failed utility and generators have not transferred to support the facility.”

Table 25.1

The Iconics Genesis 64 system shall communicate via SNMP four types of alarms to the

DISA Enterprise Services Monitoring Tool. The four alarms will be triggered by certain alarms in all mission critical infrastructure items of equipment. All parameters that trigger the alarm notification to the DISA monitoring tool shall be configurable by the users in the Enterprise Level Operator user group.

The mission critical items of equipment include, but are not limited to:

� UPS Systems

� Electrical Utility

� Critical Power Distribution Bus

� Generators

� Chiller Plant

� Condenser Water Plant

� Life Safety Equipment

� Computer room temperatures

� CRAC units

All alarms received by these mission critical items of equipment shall be summarized, and categorized into one of four alarms.

� Informational/Situational Awareness: Notification that an alarm, maintenance event or abnormal condition is present in a facilities infrastructure item of equipment or system. The alarm or abnormal condition is not presenting any impact to normal system operation or mission reliability. An example of this type of alarm is: In a fully redundant 2N UPS system(A and B bus) a single UPS module on UPS bus

A is reporting a high temperature.

� System HAZCON: Notification that an alarm, maintenance event or abnormal condition is present in a facilities infrastructure item of equipment or system. The alarm or abnormal condition is a result of a portion of the sites redundant system operating outside of its normal operating condition, but remains available and/or online to support the mission. An example of this type of alarm is: In a fully redundant 2N UPS system (A and B bus) all of the A bus UPS modules have transferred to their external bypass as a result of a high temperature condition. The mission is still supported by the bypass source, and the B UPS bus. The A bus UPS system would be the system in HAZCON.

� Site HAZCON: A facilities HAZCON exists when a system that is normally of greater than N reliability loses that status due to equipment failure (in effect, a SPOF is introduced). An N+C system that loses the C additional units providing it redundancy through equipment failure or sustained, unplanned repair downtime is in a HAZCON. A 2N system that loses one N system through equipment failure or sustained, unplanned repair downtime is in a HAZCON. An example of this type of alarm is: In a fully redundant 2N UPS system (A and B bus) all of the A bus UPS modules have shutdown and their external bypass circuit tripped as a result of a high temperature condition. The mission is still supported by the B

UPS bus, but a failure of this UPS system (B bus) will result in a mission interruption.

� Mission Interruption: Notification that an abnormal condition is present in a facilities infrastructure item of equipment or system. The abnormal condition is a result of a infrastructure system failure. The infrastructure system failure has resulted in an interruption of either power or cooling to the mission to a point that the mission was interrupted. An example of this type of alarm is: In a fully redundant 2N UPS system (A and B bus) all of the A and B bus UPS modules have shutdown and their external bypass circuits tripped as a result of a high temperature condition. The mission has experienced a power interruption as a result of the UPS system failures.

The format for each alarm that is communicated by the BAS system to the DISA monitoring tool shall follow the format shown below. The equipment specific alarm shall not be communicated to the DISA monitoring tool, but must be displayed in the Iconics

Genesis 64 alarm log.

The information that will follow the : will be populated by the DISA monitoring tool.

[Site], [Alarm Type], [Affected System]: [DISA to populate in monitoring tool]

Example: Denver, Site HAZCON, UPS:

The BAS integrator shall use the tables 25.2 through 25.10 as a cross reference for how to categorize and communicate infrastructure system alarms to the DISA remote monitoring tool. The tables indicate the minimum requirements for alarm categorizing and communication to the DISA monitoring tool, others may be added for a given project.

The BAS integrator shall use table 25.2 to categorize and communicate UPS system alarms to the DISA monitoring tool.

Situational Awareness System HAZCON Site HAZCON Mission Interruption

Input Voltage Deviation System in Bypass Tie Breaker Closed

No Output on Any

Critical Bus

High Input Current Single UPS Shutdown UPS Bus Shutdown/offline

Output Voltage Deviation

Single UPS bus on

Battery/loss of input

Dual UPS bus on

Battery/loss of input

SBM Notice

Loss of Bypass

High UPS Temperature

UPS Room Temp out of

Range

Hydrogen Detected in

Battery Room

Table 25.2

The BAS integrator shall use table 25.3 to categorize and communicate Generator system alarms to the DISA monitoring tool.

Situational Awareness System HAZCON Site HAZCON

Mission

Interruption

System Not in Auto

Any Alarm while Gen are supporting the facility

Any Gen Shutdown while supporting the facility

Battery Voltage Alarm

Gen Online and Carrying

Load

Any alarm while generator are in standby

The BAS integrator shall use table 25.4 to categorize and communicate electrical utility system

Situational Awareness

System

HAZCON Site HAZCON

Mission

Interruption

Main breaker loaded above 50% of rating Breaker Tripped

No Current on Main and Gen

Breaker

The BAS integrator shall use table 25.5 to categorize and communicate computer room temperature alarms to the DISA monitoring tool.

Situational Awareness System HAZCON Site HAZCON Mission Interruption

Temp > 77 deg F Temp > 82 deg F Temp > 85 deg F Temp > 95 deg F

Temp < 68 deg F

The BAS integrator shall use table 25.6 to categorize and communicate life safety equipment

Situational Awareness System HAZCON Site HAZCON Mission Interruption

Fire Alarm in Trouble Fire Alarm In Supervisory Fire Alarm in Alarm

Fire Pump Alarm

Table 25.3

Table 25.4

Table 25.5

Table 25.6

The BAS integrator shall use table 25.7 to categorize and communicate critical distribution alarms

Situational Awareness System HAZCON Site HAZCON Mission Interruption

Main Breaker Loaded above

50% rating

Feeder Breaker loaded above 50% rating Breaker Tripped No load on any critical bus

PDU loaded above 50% rating Any PDU alarm PDU Output is zero

Two PDU's in a PDU Pair have no output

PDU Branch circuit loaded above 50% rating Tie Breaker closed

Bypass breaker closed/main open

The BAS integrator shall use table 25.8 to categorize and communicate CRAC unit alarms to the

DISA monitoring tool.

Situational Awareness System HAZCON Site HAZCON Mission Interruption

Any CRAC Alarm

More than 3 CRAC units in Alarm or failed

More Than 5

CRAC units in

Alarm or failed

The BAS integrator shall use table 25.9 to categorize and communicate Chilled water plant alarms

Situational Awareness System HAZCON Site HAZCON Mission Interruption

Chiller Status status alarm

Single Chiller in

Alarm

Multiple Tower

Cells in Alarm

Chilled water temp alarm active

Chilledr water temp >

5 deg above alarm setpoint

Chilled water temp > 10 deg above alarm setpoint

Chiller Alarms

Chilled Water

Pump Failure

Table 25.7

Table 25.8

Table 25.9

The BAS integrator shall use table 25.10 to categorize and communicate Condenser water plant

Situational Awareness System HAZCON Site HAZCON Mission Interruption

Cooling tower status alarm Single Tower Cell in Alarm

Multiple Tower Cells in

Alarm

Condenser water temp alarm active

Condenser water temp > 5 deg above alarm setpoint

Condenser water temp > 10 deg above alarm setpoint

Condenser Water Pump

Failure

3.3.7 Data Points:

This section contains the minimum data points, alarm thresholds, and alarm delay requirements for each type of electrical and mechanical system that is typically deployed in a DISA Enterprise Services facility.

When a data point is not populated with values or a data point appears to be missing, the designer shall inquire with DISA Enterprise Services Facilities Engineering to determine values and point necessity.

Communicate with the infrastructure equipment to populate these data points in the

Iconics Genesis 64 system. Create in the Iconics Genesis 64 system alarm points, trending, and graphics based on the listed data points and in other sections in the specification.

Coordinate with the DDC controls installer communication to ensure that the HVAC data and alarms points are populated in the DDC system and passed through to the Iconics

Genesis 64 system. Do not duplicate the alarms in the DDC and Iconics systems. Allow the DDC system to monitor and control the HVAC equipment and use the Iconics

Genesis 64 system to communicate the points and their associated alarms to the user, remote monitoring, DCIM tool, reports and email notifications.

The legend for the tables shown in this section is as follows:

Display on Site Graphic Overview – this column indicates that the data point shall be visible on the floor plan graphic for this system.

Display on sub graphic – this column indicates that the data point shall be visible on a graphic to the operator after the operator has clicked on a button or the equipment on the floor plan graphic

Mouse Over – this column indicates that the data point shall be visible to the operator when the operator passed the operators mouse pointer over the item of equipment on the floor plan graphic

Alarm Criticality – this column indicates the DISA Enterprise Services facilities engineering designated alarm criticality for the data point. See the alarming section of this specification for additional information.

Table 25.10

Low Alarm Value – this column indicates the low alarm value for the data point

Low Alarm Deadband – this column indicates the deadband value used to trigger the low alarm

High Alarm Value – this column indicates the high alarm value for the data point

High Alarm Deadband – this column indicates the deadband value used to trigger the high alarm

Delay Alarm Notification – This column indicated how long to delay the alarm, providing the alarm time to clear nuisance alarms before the alarm is reported to the operator, remote monitoring tools etc.

Pool Point / Trend Write Interval – this columns indicates how often to obtain a new value for this point.

Archive Delete Value – This column indicates in months the disposition of the data. A point that has a A-X value indicates that the data shall remain active in the Iconics

Genesis 64 system for X months and archived to historical storage after X months. A point that has a D-X value indicates that the data shall remain active in the Iconics

Genesis 64 system for X months and deleted after X months. For example: an A-3 value indicates that the point should be archived to historical storage after 3 months of data creation while a D-3 value indicates that the point shall be deleted after three months of the value being created.

The data points for Electrical Systems are shown in the attached MS Excel document.

The following table provides clarity for which tab in the spreadsheet applies to specific electrical components.

Electrical Device, Component, Item of Equipment Spreadsheet Tab Name

TVSS or SPD SPD

Power Quality Meters PQM

Critical and Essential Bus Switchboard Main, Utility and

Generator Service Entrance Breakers

Main BKR

Tie Breakers Tie BKR

UPS System Maint Bypass and Maint Wrap Breakers UPS Maint Wrap BKR

UPS Bypass Feeder Breakers UPS Bypass BKR

UPS input Feeder Breakers UPS BKR

MCC Feeder or Main Breaker, Chiller Feeder Breaker MCC-CHL BKR

Power Panel Feeder or Main PP BKR

Essential and Critical Switchboard Feeders SWBD BKR

Generator GEN

Generator load/breaker GEN BKR

UPS Modules UPS

UPS Bypass Modules (SBM, SCC) UPS SBM

UPS ‘Hot Tie’ Systems UPS Tie

Battery String BATT

PDU PDU

PDU Branch Circuits PDU BCM

Hydrogen Detection HYD

EPO EPO

Network Switch Switch

Insert Electrical BAS Points Excel File Here.

The data points for Mechanical Systems are shown in the attached MS Excel document.

The following table provides clarity for which tab in the spreadsheet applies to specific mechanical components.

Electrical Device, Component, Item of Equipment Spreadsheet Tab Name

Chiller Chiller

Cooling Towers CT

Pumps Pumps

VFDs VFDs

VAV VAV

Air Handler Unit AHU

CRAC CRAC

Refrigerant Detection Ref Dect

Water leak Detection WTR Dect

Cabinet Heater Cab Heat

Fan Coil FC

Hot Water System HWS

Insert Electrical BAS Points Excel File Here.

3.3.8 Email Notifications:

Create for automatic distribution emails that contain regularly created reports to DISA

Enterprise Service organizations based on the following intervals and criteria. The e mail shall contain similar reports for all sites. The e mail address for where to send the reports will be provided to integrators that possess an active contract.

Facility Managers and Operation and Maintenance Personnel

� Weekly ‘in manual’ report

� Equipment Runtime hours

� Facility Electrical Utility Power demand and consumption report

� UPS system power demand and consumption report

ES521 Facilities Engineering Management, Maintenance Support and BAS

Program Manager

� Weekly ‘in manual’ report

� Equipment Runtime hours

� Facility Electrical Utility Power demand and consumption report

� UPS system power demand and consumption report

Communication of HAZCON to Facilities Engineering

Create for automatic distribution emails that contain information on System and Site

Level HAZCON alarms that are sent forwarded to the DISA monitoring tool. The e mail subject line shall mirror the DISA monitoring tool alarm format. The body of the e mail shall list the specific alarm(s) that generated the communication to the monitoring tool.

The e mail address for where to send the reports will be provided to integrators that possess an active contract.

3.3.9 DCIM Interface:

DISA is currently evaluating its DCIM tool. This section will be expanded as the requirements for BAS interface with the DCIM are known.

3.3.10 Training:

Each new system installation project shall train the site facility managers and maintenance contractors to permit the individuals of being added to user group Site Level

Operator. See CSI 360-95-3 commissioning and project consolidated closeout requirements for additional BAS training requirements.

The integrated automation enterprise contract shall regularly provide centralized training for personnel throughout the enterprise to be trained to the appropriate User Level.

3.3.11 Commissioning:

The contractor shall create a commissioning plan that demonstrates compliance of the control system work with the design and contract requirements. The commissioning plan shall be performed by the Contractor and witnessed and approved by the Government. If the project is phased, provide separate testing for each phase.

The contractors commissioning plan shall be compliant with CSI 360-95-3 consolidated closeout and commissioning plan.

3.3.12 Warranty:

All BAS system installations and repairs shall have a one year parts, labor and travel warranty for all contractor provided materials and services.

4 SPARE PARTS

Label the packaging for all spare parts with their manufacturer’s part number and nomenclature.

Provide the following spare parts

a. One managed RSTP Switch

b. One managed Non-RSTP Switch