P09- Statment of Work - PROJECT 589-19-503 (56 pages).pdf

STATEMENT OF WORK

CORRECT DEFICIENCIES IN BAS FOR LEGIONELLA

PREVENTION DEPARTMENT OF VETERANS AFFAIRS –

KCVA MEDICAL CENTER KANSAS CITY, MO 64128

PROJECT: 589-19-503

January 9, 2020

PROJECT SCOPE DESCRIPTION

1. Contractor shall completely prepare site for building operations, including demolition and removal of existing structures, and furnish labor, materials and equipment to perform work for Correct Deficiencies in BAS for Legionella Prevention Project as required by drawings and specifications.

2. This project is comprised of the following 3 items:

a. Upgrading 22 Universal Network Controllers (UNC’s) with 22 Schneider

Electric Smart Structure LON ASP servers or equivalent in the existing Building Automation System (BAS) reference. Augmenting existing BAS to monitor and data log water flow rates in real time 24/7/365 within the hot-water and cold-water loops. Augment existing BAS to monitor and data log cold-water and hot-water temperatures in real-time 24/7/365 the hot-water and cold-water loops.

b. Addition of approximately 204 immersion type temperature only sensors in the domestic hot and cold-water piping at the locations identified on the project drawings.

i. Monitoring points shall monitor temperatures 24/7/365 and trend each in 30-minute intervals.

ii. Alarm points for cold water shall alarm when temperature sensed is greater than 67°F and at each subsequent 30-minute interval until the temperature is less than 67°F.

iii. Alarm points for hot water shall alarm when temperature sensed is less than 124°F and at each subsequent 30-minute interval until the temperature is greater than 124°F.

iv. Temperature only sensors shall be equal to Schneider Electric ET series.

c. Addition of approximately 120 flow meters with separate immersion type temperature sensors in the domestic hot and cold-water piping at the locations identified on the project drawings.

i. Monitoring points shall monitor flow 24/7/365 and trend in 1-day intervals.

ii. Alarm points for flow shall alarm when no flow is detected for seven consecutive days and each subsequent day thereafter until 10 minutes of continuous water flow is recorded. Ten minutes of consecutive water flow will reset the alarm.

iii. The temperature sensor associated with the flow meter shall follow the monitoring and alarm points and sequences noted in the temperature sensor description above.

3. The flow and temperature meter shall be equal to the following Onicon models per building:

i. Buildings 1 and 26:

1. For piping 3/4’-2-1/2”: Onicon System 10 BTU Measurement System with Onicon F-4600 wetted inline ultrasonic flow meter and the Schneider Electric ET series immersion type temperature sensors.

2. For 3” and larger piping, the Onicon System 10 BTU meter shall be used along with an Onicon F-1100 turbine insertion flow meter and the Schneider Electric ET series immersion type temperature sensors.

3. All communication protocol for Buildings 1 and 26 shall be LON based to match the building’s existing control system.

ii. Building 56:

1. For piping ¾”-2-1/2”: System 40 BTU Inline Measurement System.

2. For 3” and larger piping, the Onicon System 10 BTU meter shall be used along with an Onicon F-1100 turbine insertion flow meter and the Schneider Electric ET series immersion type temperature sensors.

3. All communication protocol for Building 56 shall be BACnet MS/TP to match the building’s existing control system.

4. Upgrade 22 Universal Network Controllers (UNC’s) with 22 Schneider Electric Smart Structure LON ASP servers or equivalent in the existing Building Automation System (BAS) reference Table - 1. The documentation of the 22 UNCs will be limited to one for one replacement scope notes at the locations of the UNCs on the drawings. No documentation of existing systems, points and sequences programmed on the UNCs is required in the contract documents. The replacement UNCs will remain powered by the existing normal power source and served by the existing CAT 5 communication cabling.

Table 1:

UNC Identifier UNC Location VA_B01_01 MB-212 by cafe office VA_B01_02 MB-212 by cafe office VA_B01_03 M2-432 2nd flr elect rm VA_B01_04 M2-432 2nd flr elect rm VA_B01_05 M5-314 5th flr mech VA_B01_06 Elevator PH VA_B01_07 M7-310 7th flr mech rm VA_B01_08 M4-303 Cath Lab mech rm VA_B01_10 East Penthouse mech rm VA_B02_01 Bldg 2 basement VA_B04_01 Boiler plant chiller room VA_B06_01 Bldg 15 by AHU 1 & 2 VA_B15_01 Bldg 15 by Chillers VA_B15_02 Bldg 15 by AHU 1 & 2 VA_B26_01 V4-610 by Post Op AHU VA_B26_02 VB-644A by AHU control panels VA_B26_03 VB-720 PT mech rm VA_B26_04 V4-610 by SICU AHU VA_B26_05 V4-610 by SICU AHU

VA_B26_06 V1-686

VA_B26_07 V2-750

VA_B26_08 By V2-733 Ph mech rm

5. Augment existing BAS to monitor and data log water flow rates in real time 24/7/365 within the hot-water and cold-water loops.

a. Water flow monitoring points shall be installed in all critical areas of buildings 1 (AKA Main BLDG), 26 (AKA valor BLDG), and 56 (AKA Liberty BLDG)as indicated on the drawings.

b. Monitoring points shall be compatible with existing Schneider Electric Smart Structure Building Automation System (BAS) viewing/front-end equipment programming.

c. Addition of new controllers as documented to support the new flow meters shall be included in the design. Sequences and points lists for the flow meters as indicated on the drawings. New controllers shall be supplied with CAT 6 cabling to an existing data room and fed from an existing emergency power source located in close proximity to the controller location as indicated on the drawings.

d. Monitoring points shall data log 24/7/365 in 1-day intervals.

e. Monitoring points shall monitor flow rate activity. The monitors shall alarm immediately at each location where flow activity has been non-existent for seven consecutive days and each subsequent day thereafter until such time ten minutes of continuous flow is recorded. Ten minutes of continuous water flow will reset the alarm.

6. Augment existing BAS to monitor and data log cold-water and hot-water temperatures in real-time 24/7/365 the hot-water and cold-water loops.

a. Water temperature monitoring points at beginning points, middle points, and furthest distal points for Buildings: 1 (AKA Main BLDG), 26 (AKA valor BLDG), and 56 (AKA Liberty BLDG).

i. Cold-water example

1. Beginning point is defined at every cold-water entry point into the building

2. Each critical area on a floor will have the horizontal supply main monitored as close as possible to the vertical riser and within the last ¼ of linear distance of the cold water horizontal main.

ii. Hot-water example

1. Beginning point is defined at every instantaneous hot water heater.

2. Each critical area on a floor will have the horizontal supply main monitored as close as possible to the vertical riser and within the last ¼ of linear distance of the cold water horizontal main.

b. Monitoring points shall be compatible with existing Schneider Electric Smart Structure Building Automation System (BAS) viewing/front-end equipment programming

c. Monitoring points shall monitor cold and hot water temperatures and data log each in 30-minute intervals 24/7/365

d. Addition of new controllers as documented to support the new flow meters shall be included in the design. Sequences and points list for the flow meters shall be indicated on the drawings. New controllers shall be supplied with CAT 6 cabling and fed from an emergency power source located in close proximity to the control panel location .

e. Monitoring points shall alarm when temperature thresholds have been crossed

i. Cold-water temperature threshold is 67 °F. This shall initiate an alarm immediately, which shall alarm at each 30-minute interval until the temperature is < 67 °F.

ii. Hot-water temperature threshold is 124 °F. This shall initiate an alarm immediately, which shall alarm at each 30-minute interval until the temperature is > 124 °F

f. Provide pipe modifications for future chlorine injection.

i. Provide at water entry points into the building to allow for a temporary chlorine injection system to be brought in for Shock Chlorination as indicated on drawings.

Building Automation System (BAS):

1. Addition of strap on type temperature only sensors in the domestic hot and cold-water piping at the locations identified on the project drawings.

a. Monitoring points shall monitor temperatures 24/7/365 and trend each in 30-minute intervals.

b. Alarm points for cold water shall alarm when temperature sensed is greater than 67°F and at each subsequent 30-minute interval until the temperature is less than 67°F.

c. Alarm points for hot water shall alarm when temperature sensed is less than 124°F and at each subsequent 30-minute interval until the temperature is greater than 124°F.

d. Temperature only sensors shall be equal to Schneider Electric ET series. Strap-on applications above 2” the model ETS800 would be used. For strap-on applications below 2” the model ETB800 would be used. This sensor model would be attached to the pipe with wire ties and then covered with insulation.

2. Addition of combination flow meter with temperature sensor in the domestic hot and cold- water piping at the locations identified on the project drawings.

a. Monitoring points shall monitor flow 24/7/365 and trend in 1-day intervals.

b. Alarm points for flow shall alarm when no flow is detected for seven consecutive days and each subsequent day thereafter until 10 minutes of continuous water flow is recorded. Ten minutes of consecutive water flow will reset the alarm.

c. The temperature sensor associated with the flow meter shall follow the monitoring and alarm points and sequences noted above.

d. The flow and temperature meter shall be equal to the following Onicon models per building:

I. Buildings 1 and 26:

i. For piping 3/4’-2-1/2”: Onicon System 10 BTU Measurement System with Onicon F-4600 wetted inline ultrasonic flow meter and the Schneider Electric ET series immersion type temperature sensors.

ii. For 3” and larger piping, the Onicon System 10 BTU meter shall be used along with an Onicon F-1100 turbine insertion flow meter and the Schneider Electric ET series immersion type temperature sensors.

iii. All communication protocol for Buildings 1 and 26 shall be LON based to match the building’s existing control system.

II. Building 56:

i. For piping ¾”-2-1/2”: System 40 BTU Inline Measurement System.

ii. For 3” and larger piping, the Onicon System 10 BTU meter shall be used along with an Onicon F-1100 turbine insertion flow meter and the Schneider Electric ET series immersion type temperature sensors.

iii. All communication protocol for Building 56 shall be BACnet MS/TP to match the building’s existing control system.

3. All temperature sensors and flow meters added as part of this project shall be connected to the Schneider Electric EcoStruxure system. The flow meters will connect directly to the BAS communication trunk. Temperature sensors will connect to new local controllers placed in control panels.

4. New BAS network controllers will be provided where the existing network controllers cannot support the addition of the new temperature sensors. All new controllers shall be connected to the Schneider Electric EcoStruxure system.

5. The 22 Universal Network Controllers (UNCs) identified on the drawings will be replaced with a Schneider Electric EcoStruxure AS unit.

6. All materials installed in the piping systems shall be lead free.

7. All control cabling shall be installed in conduit.

Scope - Electrical:

A. Electrical scope of work overview:

a. Power for new network controllers. Power shall be from a nearby emergency standby source when feasible. It should be noted that the existing BAS is currently fed completely from normal power sources. Placing new controllers on emergency stand by power will not prevent loss of the control system, even the new controllers, in the event of a power outage.

b. The existing 22 Universal Network Controllers noted above for replacement will be reconnected to the existing normal power source or from a nearby emergency standby source when feasible. CAT5 data source serving the existing controller shall be reconnected to new controller.

c. Automation Servers (AS) added with new network controllers shall have a CAT6 cable extended from the new AS to and existing network switch serving the area installed.

d. All electrical design shall follow appropriate VA Guidelines.

Scope - Plumbing:

1. New temperature sensors will be located on each floor at branch taps off main risers, near the end of major branch lines and at the hot water and cold-water source (CW inlet to building and HW at domestic water heaters). New flow sensors will be located on each floor at branch taps off main risers. Flow sensors 2” and larger will be strap on type requiring no cutting of existing pipes, flow sensors smaller than 2” will require cutting of existing piping to install. Temperature sensors will be strap on type requiring no cutting of existing piping. Sensors will be provided by electrical and installed by plumbing contractor. Exact locations for all sensors to be coordinated with owner.

2. New insulated copper piping and shut off valves to be provided with bypass piping around the insertion type flow sensors if space permits. Materials to match existing.

3. New taps in CW and HW lines in mechanical rooms and at branch taps off risers would be provided for future chlorine injection system.

4. Details for modifications will be included.

5. Plumbing specifications will be included.

Environmental:

A. Investigation phase services were provided that include an ACM and LBP survey of the portions of the structure which might be impacted by renovation activities.

a. ACM Survey: Provided and available from COR.

b. Lead-Based Paint Survey: Provided and available from COR.

c. Summary of Survey

i. In summary, no lead-based paint was identified that is likely to be impacted by the proposed project, but suspected asbestos containing materials (ACM) were observed. The ACM is scattered throughout the project area and is not consistent. The current estimate is that approximately 30% of locations may have asbestos but we are working on refining that estimate.

At each of these approximately 70 locations it will be necessary to abate approximately 3 linear feet of ACM by glove bag methods.

Commissioning

A. The scope of work provided for this project consisted of fundamental Commissioning activities associated with the new controls serving the added temperature sensors and flow meters noted in the BAS narrative above.

a. The existing 22 Universal Network Controllers (UNCs) noted in the BAS narrative above will not be part of the Commissioning activities for the project.

B. Commissioning Activities Summary:

a. Verifying accuracy of the installed sensors and flow meters by randomly sampling approximately 3% of the installed sensors/meters. Verification will consist of witnessing the contractor testing the accuracy of the new sensors/meters with a documented calibrated measurement device.

b. Witnessing the integration of the newly installed sensors and meters into the Schneider Electric EcoStruxure BAS. Activity to include verification of graphical representation of a sampling newly installed sensors and meters.

c. Document any deficiencies and note corrective actions taken by contractor or design team.

d. Preparation of a final report addressed to the VA summarizing the process and testing results.

Other Requirements:

1. Construction materials and installation methods shall follow VAMC Facility Operations, NFPA, Underwriter Laboratories, OSHA, HIPPA, Infection Prevention, Life Safety, Security Services, VA Specifications, and as further described in this scope.

2. Prior to the commencement of work, submit contractor’s proposed Work Breakdown Structure (WBS), phasing plan and schedule. Contractor shall provide an itemized scheduled break down of each provision needed to remove, mitigate inaccessibility and replace each of the sensor and UNC locations and submit to the Contracting Officer, Contracting Officer’s Representative (COR) / Project Engineer for review and acceptance.

3. Phasing:

a. Building 1, contractor to have no more than 4 shutdowns to install new piping.

b. Building 26, contractor to have no more than 3 shutdowns.

c. Building 56, only 1 building shutdown.

4. Contractor shall provide labor (8hrs/day for 3 days) to support mechanical issues that may occur after each outage

5. All shutdowns to occur from 9pm-5am or on weekends. Buildings to be up and running no later than 6 am.

6. Project Schedule is 180 calendar days from contractors Notice-To-Proceed (N.T.P.) to final acceptance.

7. Utility shutdowns will be coordinated by the ‘Integrated Project Team’ including but not limited to: Project Engineer, VA Facility Operations, Clinical Staff & General Contractor prior to the commencement of work. Refer to general requirements specification for additional information

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11451 Belcher Road South, Largo, FL 33773 • USA • Tel +1 (727) 447-6140 • Fax +1 (727) 442-5699 www.onicon.com • sales@onicon.com 03-182072

TKing Text Box Flow and Temp for 3" and Larger Piping in Bldg 56 with BACnet communication protocol

Consists of:

Onicon System 10 Meter with BACnet protocol

Onicon F-1100 Turbine Flow meter

Schneider Electric ET series strap on temperature sensor

• SYSTEM-10 BTU METER •

FEATURES

Simple Installation and Commissioning - Factory programmed and ready for use upon delivery.

All process data and programming functions are accessible via front panel display and keypad.

Single Source Responsibility - One manufacturer is responsible for every aspect of the energy measurement process ensuring component compatibility and overall system accuracy.

N.I.S.T. 1 Traceable Calibration with Certification - Each Btu measurement system is individually calibrated using application specific flow and temperature data and is provided with calibration certificates.

Precision Solid State Temperature Sensors - Custom calibrated and matched to an accuracy better than ±0.15° F over calibrated range.

Highly Accurate Flow Meters - ONICON offers a wide variety of insertion and inline type flow measurement technologies including turbine, electromagnetic and vortex sensing. Each type offers unique advantages depending on the application. All ONICON flow meters are individually wet calibrated and designed to operate over a wide flow velocity range with accuracies ranging from ±0.2% to ±2.0% of rate depending on the model.

Complete Installation Package - All mechanical installation hardware, color coded interconnecting cabling and installation instructions are provided to ensure error-free installation and accurate system performance.

Serial Communications - Optional communications card provides complete energy, flow and temperature data to the control system through a single network connection, reducing installation costs.

DESCRIPTION

The System-10 BTU Meter provides highly accurate thermal energy measurement in chilled water, hot water and condenser water systems based on signal inputs from two matched temperature sensors (included) and any of ONICON’s insertion or inline flow meters (ordered separately). The basic model provides a local indication of energy, flow and temperature data through an alphanumeric display. An isolated solid state dry contact is provided for energy total. Optional analog outputs and network communications are also available.

APPLICATIONS

Chilled water, hot water and condenser water systems for:

• Commercial office tenant billing

• Central plant monitoring

• University campus monitoring

• Institutional energy cost allocation

• Performance/efficiency evaluations

• Performance contracting energy monitoring

CALIBRATION

Flow meters and temperature sensors are individually calibrated followed by a complete system calibration.

Field commissioning is also available.

LISTED

PROCESS CONTROL EQUIPMENT

3GF5

1 - National Institute of Standards and Technology

Smart button technology simplifies menu page navigation

SYSTEM-10 BTU METER SPECIFICATIONS

ACCURACY

TEMPERATURE

Overall differential temperature measurement uncertainty of ≤ ± 0.15° F over the stated range (Includes uncertainty associated with the sensors, transmitters, cabling and calculator input circuitry)

Temperature sensors meet EN1434 / CSA C900.1 accuracy requirements for 1K sensors for cooling applications, 32° F - 77° F Temperature sensors meet EN1434 / CSA C900.1 accuracy requirements for 2K sensors for heating applications, 140° F - 212° F

CALCULATOR

Computing nonlinearity within ±0.05% Calculator meets EN1434 / CSA C900.1 class 1 accuracy requirements for 2K sensors for all applications

PROGRAMMING

Factory programmed for specific application Field programmable via front panel interface

MEMORY

Non-volatile EEPROM memory retains all program parameters and totalized values in the event of power loss.

DISPLAY

Alphanumeric LCD displays total energy, total flow, energy rate, flow rate, supply temperature, return temperature, serial number and alarm status

Alpha: 16 character, 0.2” high Numeric: 8 digit, 0.4” high Rate Display Range: 0 - 9,999,999 Total Display Range: 0 - 9,999,999 The totals will roll over to zero when the maximum count is exceeded.

OUTPUT SIGNALS

Standard:

Isolated solid state dry contact for energy total:

Contact rating: 100 mA, 50 V Contact duration: 0.5, 1, 2, or 6 sec Optional:

Analog Output(s) (4-20 mA, 0-10 V or 0-5 V):

One or four analog output(s) available for flow rate, energy rate, supply/return temps, or delta-T.

Serial Communications:

BACnet IP or MS/TP LONWORKS - TP/FT-10F Siemens Apogee - P1 Johnson Controls Metasys - N2

MODBUS RTU RS485 or TCP/IP

TEMPERATURE SENSORS

Solid state sensors are custom calibrated using N.I.S.T. traceable temperature standards.

Current based signal (mA) is unaffected by wire length.

TEMPERATURE RANGE

Standard liquid temperature range: 32° F to 200° F Optional extended temperature ranges available Ambient temperature range: -20° F to 140° F

LIQUID FLOW SIGNAL INPUT

0-15 V pulse output from any ONICON flow meter

MECHANICAL

Electronics Enclosure:

Standard: Steel NEMA 13, wall mount, 8x10x4” Optional: NEMA 4 (Not UL listed) Approximate weight: 12 lbs Temperature Sensor Thermowell Kits:

Thermowells and other kit components vary by fluid type, fluid temperature, pipe material and pipe size.

Commonly used kits are listed on the previous page.

Contact ONICON for additional thermowell kit options, including hot tap installation kits for retrofit installations.

ELECTRICAL

Input Power: Based on Btu meters configured for network connection without the optional analog outputs Standard: 24 VAC, 50/60 Hz, 500 mA Optional: 120 VAC, 50/60 Hz, 200 mA 230 VAC, 50 Hz, 150 mA Internal Supply:

Provides 24 VDC at 200 mA to electronics and flow meter Wiring:

Temperature signals: Use 18-22 ga twisted shielded pair Flow signals: Use 18-22 ga - see flow meter specification sheet for number of conductors.

Note: Specifications are subject to change without notice.

TKing Highlight www.onicon.com • sales@onicon.com 03-182016

FEATURES

• The Dual Turbine Advantage Dual counter-rotating turbines with mirrored helixes reduce the effects of the most common type of flow distortion, the swirl caused by bends and elbows. This reduces the upstream straight run requirements in some applications.

• Programmable with Built-in Diagnostics The USB interface makes field programming simple. Advanced diagnostics provide real-time data from the meter.

• Excellent Long-term Reliability Patented electronic sensing is resistant to scale and particulate matter. Low mass turbines with engineered jewel bearing systems provide a mechanical system that virtually does not wear.

• Simplified Hot Tap Insertion Design Allows for insertion and removal by hand without system shut-down for insertion meters.

• Unmatched Price vs. Performance Individually wet-calibrated, highly accurate instrumentation at very competitive prices.

THREE DIFFERENT STYLES

• F-1100 single turbine insertion meters Suitable for use in 1¼ - 72” pipes

• F-1200 dual turbine insertion meters Suitable for use in 2½ - 72” pipes

• F-11XX single turbine inline meters Available as ¾ and 1” meters.

APPLICATIONS

• Chilled water or hot water & water/glycol solutions for HVAC

• Domestic/municipal water

• Clean process water

CALIBRATION

Every F-1000 series meter is wet-calibrated using N.I.S.T.1 traceable standards. A certificate of calibration is provided with each meter.

DESCRIPTION

ONICON’s F-1000 Series is a family of insertion and inline style turbine meters flow meters that provide accurate, reliable flow measurement in a variety of applications.

The F-1000 Series meters are suitable for use in pipes ranging in size from ¾ to 72” in diameter. Each model utilizes ONICON’s patented electronic turbine rotation sensing system and unique low mass turbine design that is accurate over wide flow ranges with excellent low flow measurement capability.

1 - National Institute of Standards and Technology

Axially mounted turbines riding on sapphire bearings virtually eliminate the mechanical load on the tungsten carbide shaft on which they ride.

THREE DIFFERENT OUTPUT VERSIONS

Frequency & Scaled Pulse/Alarm Outputs This version provides a high-resolution frequency output and a scaled pulse output for totalizing flow.

The frequency output allows for connection to ONICON Btu meters or displays. The scaled pulse output may also be configured as an alarm.

Frequency, Analog & Scaled Pulse/Alarm Outputs This version provides a high-resolution frequency output, an analog output for flow rate and a scaled pulse output for totalizing flow. The frequency output allows for connection to ONICON Btu meters or displays. The scaled pulse output may also be configured as an alarm.

Frequency, Isolated Analog & Scaled Pulse/Alarm Outputs

This version provides a high-resolution frequency output, an isolated analog output for flow rate and a scaled pulse output for totalizing flow. The frequency output allows for connection to ONICON Btu meters or displays. The scaled pulse output may also be configured as an alarm.

ONICON

Flow and Energy Measurement

OPERATING RANGE FOR

COMMON PIPE SIZES

0.17 TO 20 ft/s

±2% accuracy begins at 0.4 ft/s Pipe Size (Inches)

Flow Rate

(GPM)

¾ 0.4 - 38 1 0.4 - 38

1 ¼ 0.8 - 95 1 ½ 1 - 130 2 2 - 210

2½ 2.5 - 230 3 4 - 460 4 8 - 800 6 15 - 1,800 8 26 - 3,100

10 42 - 4,900 12 60 - 7,050 14 72 - 8,600 16 98 - 11,400 18 120 - 14,600 20 150 - 18,100 24 230 - 26,500 30 360 - 41,900 36 510 - 60,900

Utility software available allows for programming and field diagnostics.

Inline meters are provided with meter couplings.

Couplings are available with NPT or copper sweat process connections.

GENERAL SPECIFICATIONS

ACCURACY

± 0.5% of reading at calibrated velocity Insertion: ± 1% of reading from 3 to 30 ft/s (10:1 range)

± 2% of reading from 0.4 to 20 ft/s (50:1 range) Inline: ± 2% of reading from 0.8 to 38 GPM (50:1 range)

SENSING METHOD

Electronic impedance sensing (non-magnetic and non-photoelectric)

PIPE SIZE RANGE

Insertion: 1¼ through 72” nominal diameter Inline: Threaded or sweat union fittings - ¾ or 1”

SUPPLY VOLTAGE

24 ±4 V AC/DC at 100 mA

LIQUID TEMPERATURE RANGE

Medium Temp: 150° F continuous, 200° F peak High Temp: 280° F continuous, 300° F peak Meters operating above 250° F require 316 SS construction option

AMBIENT TEMPERATURE RANGE

-5° to 160° F (-20° to 70° C)

OPERATING PRESSURE

400 PSI maximum

PRESSURE DROP

Insertion: Less than 1 PSI at 20 ft/s in 1½” pipe, decreasing in larger pipes and lower velocities Inline: 3 PSI at maximum flow rate

MATERIAL

Wetted material:

Electroless nickel plated brass stem Optional: 316 stainless steel 1

Optional: NSF/ANSI 61/372 version* 1

OUTPUT SIGNALS AVAILABLE

Frequency Output

0-15 V peak pulse, programmable max Hz Scaled Pulse / Alarm Output Isolated solid state dry contact Contact rating: 100 mA, 50 V Contact duration: Field programmable; 50, 100, 500 or 1000 ms Analog Output (non-isolated) Signal type: 4-20 mA, 0-10 V or 0-5 V (jumper selectable) Output range: Field programmable Isolated Analog Output Signal type: 4-20 mA, 0-10 V or 0-5 V (jumper selectable) Output range: Field programmable

ELECTRONICS ENCLOSURE

NEMA4 enclosure Optional: Submersible enclosure

ELECTRICAL CONNECTIONS

Standard: 10’ of cable with ½” NPT conduit connection Optional: Indoor DIN connector with 10’ of plenum rated cable 1 Insertion meters only

TURBINE INSERTION FLOW METER

NSF/ANSI 61 <MH60590>

ALSO CLASSIFIED IN ACCORDANCE WITH

NSF/ANSI 372

A = Number of Turbines E= Wetted Materials

1 = Single Turbine 1 = Electroless Ni Plated Brass

2 = Dual Turbine 2 = 316 SS

BB = Meter Type 3 = Bronze Body, Inline

00 = Insertion F= Electronics Enclosure

34 = ¾" Inline 2 = NEMA 4 Weathertight Enclosure

01 = 1" Inline 3 = NEMA 6 Submersible Enclosure

CC = Outputs G= Wiring Connection

00 = Freq. and Scaled Pulse 2 = 10’ PVC Jacketed Cable, Pig Tail with ½” Conduit Adapter

10 = Freq., analog and Scaled Pulse 5 = 10' Plenum Rated Cable, DIN Connector

11 = Freq., Iso. Analog, and Scaled Pulse 6 = 25' PVC Jacketed Cable, Pig Tail with ½" Conduit Adapter

DD = Meter Type and Pipe Size Range 7 = 10' Submersible Cable with Connector

H = Process Adapter

A1 = 1.25 - 2.5" (F-1100 Only) 1 = 1" NPT Adapter, Medium Temperature (Temp. </= 150° F)

B2 = 2.5 – 4.0" (F-1100 Only) 2 = 1" NPT Adapter, High Temperature (Temp. </= 280° F)

C3 = 2.5 - 10" 3 = 1" NPT Adapter, NSF Rated for Domestic Water

D4 = 2.5 - 16" 9 = Inline, coupling adapters based on pipe material

E5 = 2.5 - 22"

F6 = 2.5 - 72"

00 = Inline

METER ORDERING INFORMATION

Meter Model Number Coding = F-1ABB-CC-DD-EFGH

ET Series

Temperature Sensors

Features

• Non-polarity sensitive

SPECIFICATIONS

For TAC Vista, I/NET, Continuum, and I/A 1000 Ohm Platinum 1000 Ohm BALCO

Output 1.8K Ohms @ 77º F (25º C) Vista

10K Ohms @ 77º F (25º C) I/Net

10K Ohms @ 77º F (25º C) Continuum

Temperature Range -40º to 302º F (-40º to 150º C) -58º to 392ºF (-50 to 200ºC)

-50º to 275ºF (-45.5º to 134.8ºC)

Interchangeability +/- 0.2 C (0º to 70º C)

Temperature Coefficient 0.00385 Ohm/Ohm/ºC 2.2 Ohms/ºF

Dissipation Constant Stability

3 mW / C

+/- 0.06% @ 32ºF (0ºC) Single Point

+/- 1.0 Ohm @ 70ºF (Averaging)

+/- 0.1%

Operating Humidity 0 to 90% RH non-condensing

Application

S ch ne id er E le ct ric . A ll rig ht s re se rv ed

ET Series 02Temperature Sensors

DimEnSionS

Duct without Enclosure

Rectangle

S ch ne id er E le ct ric . A ll rig ht s re se rv ed

ET Series 03Temperature Sensors

Room Temperature Sensors

Duct and Duct Averaging Sensors

Immersion Temperature Sensors

Strap-On Temperature Sensors

Outside Air Temperature Sensors

Stainless Plate Temperature Sensors

INSTAllATION wiring

2W - +

Sensor Output to Controller

Sensor Output to Controller

S1 Sensor

C SENSOR 2

Diagram for ET Sensors Except ETR

System F-Number

Vista F-27616

I/NET F-27617

Continuum F-27618

I/A F-27619

Rectangle

S ch ne id er E le ct ric . A ll rig ht s re se rv ed

ET Series 04Temperature Sensors

ORDERINg INFORmATION

Temperature Sensor Description TAC Vista I/NET Continuum I/A 1000 Ohm Platinum

1000 Ohm

BALCO

Room ETR100 ETR200 ETR500 ETR800 - -

Room with Setpoint ETR101 ETR201 ETR501 ETR801 - -

Room with Override Pushbutton ETR102 ETR202 ETR502 ETR802 - -

Room with Setpoint and Override Pushbutton ETR103 ETR203 ETR503 ETR803 - -

Wallplate (Stainless Steel) ETP100 ETP200 ETP500 ETP800

4” Duct (Galvanized Steel Enclosure) ETD100-4 ETD200-4 ETD500-4 ETD800-4 ETDPK0-4 ETDBK0-4

6” Duct Galvanized Steel Enclosure) ETD100-6 ETD200-6 ETD500-6 ETD800-6 ETDPK0-6 ETDBK0-6

8” Duct (Galvanized Steel Enclosure) ETD100-8 ETD200-8 ETD500-8 ETD800-8 ETDPK0-8 ETDBK0-8

12” Duct (Galvanized Steel Enclosure) ETD100-12 ETD200-12 ETD500-12 ETD800-12 ETDPK0-12 ETDBK0-12

4” Duct without Enclosure ETD100-

NE-4

ETD200-

NE-4

ETD500-

NE-4

ETD800-

NE-4

ETDPK0-

NE-4

ETDBK0-

NE-4

6” Duct without Enclosure ETD100-

NE-6

ETD200-

NE-6

ETD500-

NE-6

ETD800-

NE-6

ETDPK0-

NE-6

ETDBK0-

NE-6

8” Duct without Enclosure ETD100-

NE-8

ETD200-

NE-8

ETD500-

NE-8

ETD800-

NE-8

ETDPK0-

NE-8

ETDBK0-

NE-8

12” Duct without Enclosure ETD100-

NE-12

ETD200-

NE-12

ETD500-

NE-12

ETD800-

NE-12

ETDPK0-

NE-12

ETDBK0-

NE-12

2.5” Immersion (Galvanized Steel Enclosure)* ETI100-2 ETI200-2 ETI500-2 ETI800-2 ETIPK0-2 ETIBK0-2

4” Immersion (Galvanized Steel Enclosure)* ETI100-4 ETI200-4 ETI500-4 ETI800-4 ETIPK0-4 ETIBK0-4

6.25” Immersion (Galvanized Steel Enclosure)* ETI100-6 ETI200-6 ETI500-6 ETI800-6 ETIPK0-6 ETIBK0-6

8’ Averaging (Flexible Copper) ETA100-8 ETA200-8 ETA500-8 ETA800-8 - -

12’ Averaging (Flexible Copper) ETA100-12 ETA200-12 ETA500-12 ETA800-12 ETAPK0-12 ETABK0-12

24’ Averaging (Flexible Copper) ETA100-24 ETA200-24 ETA500-24 ETA800-24 ETAPK0-24 ETABK0-24

Outside Air ETO100 ETO200 ETO500 ETO800 - -

Strap On ETS100 ETS200 ETS500 ETS800 - -

Bead / Bullet ETB100 ETB200 ETB500 ETB800 - -

* Length indicates immersion depth.

Well Type Part Number

2.5” Stainless Steel Well* ETI-WELL-2S

4” Stainless Steel Well* ETI-WELL-4S

6.25” Stainless Steel Well*

ETI-WELL-6S

* Length indicates immersion depth.

Miscellaneous Options Code

-LCD

-LED

Thermometer Indicator (for room units only)

-TI

-RS232

-RJ4

SCI ENGINEERING, INC.

EARTH • SCIENCE • SOLUTIONS

GEOTECHNICAL

ENVIRONMENTAL

NATURAL RESOURCES

CULTURAL RESOURCES

CONSTRUCTION SERVICES

130 Point West Boulevard, St. Charles, Missouri 63301 ■ 636-949-8200 www.sciengineering.com

September 27, 2019

Mr. Joe Heinowski Nagel Architects + Engineers 13100 Watertown Plank Road, Ste. 200 Elm Grove, Wisconsin 53122

RE: Asbestos Survey Activities Kansas City VA Medical Center- Correct Deficiencies in BAS for Legionella Prevention Kansas City, Missouri SCI No. 2017-0504.20 Task 005

Dear Mr. Heinowski:

INTRODUCTION

SCI Engineering, Inc. (SCI) is pleased to submit this report of the analytical test results for samples of suspect asbestos-containing materials (ACMs) collected during the survey performed on September 10 and 11, 2019. The survey was conducted by Mr. Travis Clayton, Missouri-Licensed Asbestos Inspector.

A copy of Mr. Clayton’s asbestos inspector license is enclosed.

The purpose of this survey was to identify ACMs in accessible areas which will be impacted by proposed upgrades to monitoring equipment for the potable water supply lines at the Kansas City VA Medical Center (VAMC) located at 4801 Linwood Boulevard, Kansas City, Missouri. The areas observed included proposed sensor locations throughout Buildings 1, 26, and 56 as well as areas where instrumentation upgrades are proposed in Buildings 1, 2, 4, 15, 26, and 56. This survey is intended to satisfy the requirements for the asbestos National Emission Standard for Hazardous Air Pollutant for demolition and renovation. It may also be used for Occupational Safety and Health Administration (OSHA) compliance.

ASBESTOS SURVEY

Sixty-six samples were collected from the on-site structure. Of these 66 samples, 123 layers were analyzed using a positive stop procedure. These samples were analyzed by Polarized Light Microscopy (PLM). Of the 123 samples/layers analyzed, 3 samples/layers were found to contain asbestos. Analytical test results and chain-of-custody documentation are enclosed. The results of the analysis of all samples are summarized in Table 1.

Table 1 - Summary of Analytical Test Results

Sample Number

Material Location

Material Description Approx. Quantity Result Category

1-MB-001a

Buildings 1/26 2’ x 4’ White

Pinhole Lay-in Ceiling Tile

None Detected

-- 1-MB-001b None Detected

1-MB-001c None Detected

Mr. Joe Heinowski 2 September 27, 2019 Nagel Architects + Engineers SCI No. 2017-0504.20

Table 1 - Summary of Analytical Test Results (continued)

Number

Material Location

Material Description Approx. Quantity Result Category

1-MB-002a

Building 1 MB 212 Drywall System --

None Detected in Drywall or Joint Compound

-- 1-MB-002b None Detected in Drywall or Joint Compound

1-MB-002c None Detected in Drywall or Joint Compound

1-MB-003a

Building 1 Red Fire-Stop Caulk --

None Detected

-- 1-MB-003b None Detected

1-MB-003c None Detected

1-1-001 Building 1

Cloth Lagging White Block TSI

145 lf (Assumes 5 lf to be impacted at 29 sensor locations)

20% Amosite and 10% Chrysotile in Insulation;

5% Amosite and 2% Chrysotile in Cloth

Friable

1-1-002 Building 1 Floor 1

Mudded Joint Fitting on 1-1-001 with Cloth Lagging

60 fittings (Assumes four fittings to be impacted at 15 sensor locations)

40% Chrysotile and 5% Amosite in Fitting; 3% Chrysotile and

2% Amosite in Cloth Friable

1-1-003a

Building 1 Floor 1

Gray Cloth Lag over Horsehair

Fiber TSI

None Detected in Insulation and Cloth

-- 1-1-003b None Detected in Insulation and Cloth

1-1-003c None Detected in Insulation and Cloth

1-1-004 Building 1 Floor 1

Mudded Joint Fittings on Old FG Lines with Cloth

Lagging

56 fittings (Assumes four fittings to be impacted at 14 sensor locations)

15% Chrysotile and 3% Amosite in Fitting; 2% Chrysotile and

<1% Amosite in Cloth Friable

1-1-005a Building 1

Floor 1 Tar/Cork TSI --

None Detected in Tar or Cork

-- 1-1-005b None Detected in Tar or Cork

1-1-005c None Detected in Tar or Cork

1-2-001a

Building 1 Original Walls

Throughout Plaster System --

None Detected in Plaster or Skim Coat

-- 1-2-001b None Detected in Plaster or Skim Coat

1-2-001c None Detected in Plaster or Skim Coat lf – linear feet

Glen Grissom Building 1?

Glen Grissom How many locations?

Mr. Joe Heinowski 3 September 27, 2019

Table 1 - Summary of Analytical Test Results (continued)d

Number

Material Location

Material Description

Approx.

Quantity Result Category

1-2-002a

Building 1 CP-

1-2C, UNC#

VA_B01_3/04

Drywall System --

None Detected in Drywall, Joint Compound or Texture

-- 1-2-002b None Detected in Drywall, Joint Compound or Texture

1-2-002c None Detected in Drywall, Joint Compound or Texture

1-2-003a Building 1

Microbiology Lab

2’ x 4’ White Pinhole/Deep

Wormtracks White Lay-in Ceiling Tile

None Detected

-- 1-2-003b None Detected

1-2-003c None Detected

1-3-001a Building 1

Upper Floors 2’ x 4’ Tan Pinhole Lay-in Ceiling Tile --

None Detected

-- 1-3-001b None Detected

1-3-001c None Detected

1-5-001a

Building 1 Mechanical

Room Drywall System --

None Detected in Drywall, Joint Compound or Texture

-- 1-5-001b None Detected in Drywall, Joint Compound or Texture

1-5-001c None Detected in Drywall, Joint Compound or Texture

1-7-001a Building 1 Mechanical

Room Drywall System --

None Detected in Drywall, Joint Compound or Texture

-- 1-7-001b None Detected in Drywall

1-7-001c None Detected in Drywall, Joint Compound or Texture

2-B-001a

Building 2 Drywall System --

None Detected in Drywall or Joint Compound

-- 2-B-001b None Detected in Drywall or Joint Compound

2-B-001c None Detected in Drywall

15-B-001a

Building 15 Drywall System --

None Detected in Drywall or Joint Compound

-- 15-B-001b None Detected in Drywall or Joint Compound

15-B-001c None Detected in Drywall or Joint Compound

26-1-001a

Building 26 2’ x 4’ Wormtrack/

Pinhole Lay-in Ceiling Tile

None Detected

-- 26-1-001b None Detected

26-1-001c None Detected

26-1-002a

Building 26, ER 2’ x 2’ White Solid Lay-in Ceiling Tile --

None Detected

-- 26-1-002b None Detected

26-1-002c None Detected

Mr. Joe Heinowski 4 September 27, 2019

Table 1 - Summary of Analytical Test Results (continued)

Number

Material Location

Material Description

Approx.

Quantity Result Category

26-2-001a

Building 26, Second Floor Drywall System --

None Detected in Drywall, Joint Compound or Texture

-- 26-2-001b None Detected in Drywall, Joint Compound or Texture

26-2-001c None Detected in Drywall, Joint Compound or Texture

26-3-001a

Building 26, Third Floor:

Pink Board

Drywall System --

None Detected in Drywall and Joint Compound

-- 26-3-001b None Detected in Drywall and Joint Compound

26-3-001c None Detected in Drywall and Joint Compound

26-3-002a Building 26, Third Floor:

White Board

Drywall System --

None Detected in Drywall and Texture

-- 26-3-002b None Detected in Drywall

26-3-002c None Detected in Drywall, Joint Compound, or Texture

26-4-001a

Building 26, Fourth Floor Drywall System --

None Detected in Drywall and Joint Compound

-- 26-4-001b None Detected in Drywall and Joint Compound

26-4-001c None Detected in Drywall and Joint Compound

56-1-001a

Building 56 Drywall System --

None Detected in Drywall, Joint Compound or Texture

-- 56-1-001b None Detected in Drywall, Joint Compound or Texture

56-1-001c None Detected in Drywall, Joint Compound or Texture

56-1-002a

Building 56 2’ 4’ White Pinhole Lay-in Ceiling Tile --

None Detected

-- 56-1-002b None Detected

56-1-002c None Detected

DEMOLITION/RENOVATION

According to the Missouri Department of Natural Resources (MDNR), any friable or potentially friable ACM equal to or greater than 260 linear feet or 160 square feet is classified as a regulated ACM (RACM) and must be removed prior to demolition or renovation which would significantly damage the material.

Mr. Joe Heinowski 5 September 27, 2019

The TSI and mudded joint fittings are friable materials and exceed the minimum quantity requirements.

This material, therefore, must be abated prior to renovation activities that will impact the materials.

During survey activities, SCI visually assessed representative areas within each structure where upgrades are proposed. Based on SCI’s observations, the majority of the TSI in areas proposed for sensor upgrades throughout Buildings 1, 26, and 56 consists of non-ACM fiberglass insulation. No suspect ACM TSI was observed in Buildings 26 or 56. Suspect ACM TSI was observed on potable water supply lines at several locations assessed in Building 1. SCI estimates that, of the proposed sensor locations that are expected to be upgraded in Building 1, approximately 15 percent of the locations will require abatement.

The Occupational Safety & Health Administration also has regulations (29 CFR Parts 1910 et al, Occupational Exposure to Asbestos, August 10, 1994) regarding removal of asbestos-containing materials which must be followed.

REPORTING

Attached is the Demolition and Renovation form which has been filled out to the extent possible by SCI.

The remaining information must be completed by you.

This report, as well as the completed EPA Notification of Demolition and Renovation form, must be submitted to the MDNR and Kansas City Air Quality Program as follows:

• MDNR, Air Pollution Control, PO Box 176, Jefferson City, MO, 65102, Ms. Stephanie Hamilton; and

• Kansas City Health Department, Air Quality Program, 2400 Troost, Suite 3000, Kansas City, Missouri, 64108.

It should be noted that following submittal of the notification form, there is a 10-day waiting period before demolition, renovation, or abatement activities can begin.

SCI's asbestos survey entailed visually assessing accessible areas only. If any other suspect asbestos materials are discovered during demolition or renovation, please contact SCI, and we will make arrangements for assessment of these materials. Areas behind walls, under subfloors and above fixed ceilings are considered non-accessible.

If this report is to be used for bidding purposes for asbestos abatement, SCI recommends the contractor visit the site to verify all conditions and quantities.

Mr. Joe Heinowski 6 September 27, 2019

SCI appreciates the opportunity to be of service to you on this project, and we look forward to working with you in the future. Please contact us if you have any questions or comments regarding the information provided.

Respectfully, Travis S. Clayton Glen A. Grissom Missouri State Certified Asbestos Inspector Senior Scientist Certificate Number 7011010319MOIR18366

Edwin P. Grimmer, P.E.

Vice President

TSC/GAG/EPG/rah

Enclosures Asbestos NESHAP Notification of Demolition and Renovation Analytical Test Results and Chain of Custody Asbestos Inspector Certificate

\\scieng\shared\StCharles\shared\1soils\1NEW\PROJECT FILES\2017 PROJECTS\2017-0504 VISN 15 MATOC-Nagel\Task 005-KC Legionella Upgrades\KCVA- ACM REport.doc

SanAir ID#: 19046962

Project #: 2017-0504.20 Task 00

Project Name: VISN 15 MATOC-Nagel

Report Date: 9/23/2019

Analysis Report prepared for SCI Engineering Inc

Dear Travis Clayron, We at SanAir would like to thank you for the work you recently submitted. The 66 sample(s) were received on Friday, September 13, 2019 via FedEx. The final report(s) is enclosed for the following sample(s): 1MB-001A, 1MB-001B, 1MB-001C, 1MB-002A, 1MB-002B, 1MB-002C, 1MB-002A, 1MB-002B, 1MB-002C, 1-1-001, 1-1-002, 1-1-003A, 1-1- 003B, 1-1-003C, 1-1-004, 1-1-005A, 1-1-005B, 1-1-005C, 1-2-001A, 1-2-001B, 1-2-001C, 1-2-002A, 1-2-002B, 1-2- 002C, 1-2-003A, 1-2-003B, 1-2-003C, 1-3-001A, 1-3-001B, 1-3-001C, 1-5-001A, 1-5-001B, 1-5-001C, 1-7-001A, 1-7- 001B, 1-7-001C, 2-B-001A, 2-B-001B, 2-B-001C, 15-B-001A, 15-B-001B, 15-B-001C, 26-1-001A, 26-1-001B, 26-1- 001C, 26-2-001A, 26-2-001B, 26-2-001C, 26-3-001A, 26-3-001B, 26-3-001C, 26-3-002A, 26-3-002B, 26-3-002C, 26- 4-001A, 26-4-001B, 26-4-001C, 56-1-001A, 56-1-001B, 56-1-001C, 56-1-002A, 56-1-002B, 56-1-002C, 26-1-002A, 26-1-002B, 26-1-002C.

These results only pertain to this job and should not be used in the interpretation of any other job. This report is only complete in its entirety. Refer to the listing below of the pages included in a complete final report.

Sincerely, Sandra Sobrino Asbestos & Materials Laboratory Manager SanAir Technologies Laboratory

Final Report Includes:

- Cover Letter

- Analysis Pages

- Disclaimers and Additional Information

Sample conditions:

- 66 samples in Good condition.

1551 Oakbridge Dr. Suite B, Powhatan, VA 23139 | 804.897.1177 | Fax: 804.897.0070 | www.SanAir.com | IAQ@SanAir.com

2017-0504.20 Task 00Project Number:

2017-0504.20 Task 005P.O. Number:

Project Name: VISN 15 MATOC-Nagel

9/10/2019 - 9/11/2019Collected Date:

9/13/2019 9:25:00 AMReceived Date:

9/23/2019 2:01:50 PM

19046962 SanAir ID Number

FINAL REPORT

SCI Engineering IncName:

Address: 130 Point West Blvd

St Charles, MO 63301

636-757-1034Phone:

Analyst: Tallert, Jonathan

Asbestos Bulk PLM EPA 600/R-93/116 Stereoscopic Components

SanAir ID / Description Appearance % Fibrous % Non-fibrous Asbestos Fibers

1MB-001A / 19046962-001

2'x4' Lay-In CT/Buildings 1/126

White Fibrous

Homogeneous

40% Cellulose 40% Min. Wool

20% Other None Detected

1MB-001B / 19046962-002

2'x4' Lay-In CT/Buildings 1/126

White Fibrous

Homogeneous

40% Cellulose 40% Min. Wool

20% Other None Detected

1MB-001C / 19046962-003

2'x4' Lay-In CT/Buildings 1/126

White Fibrous

Homogeneous

40% Cellulose…