SOW Attachment 10- Narrative-min_Part2 - HVAC Resolicit.pdf

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The provided document is a Statement of Work (SOW) attachment for a federal contract opportunity to replace the HVAC system in the laundry rooms of the VA Medical Center in Maine, Togus Campus.

The key details include:

  • The contract is a 100% set-aside for small businesses.
  • The required services include labor, materials, and services to perform the HVAC system repair and replacement.
  • Proposals must be submitted via email to Andrew Baker at Andrew.baker@va.gov no later than June 6, 2024 at 5:00 PM EST.
  • The contracting agency is the Department of Veterans Affairs Veterans Health Administration Veterans Integrated Service Network 1.
  • No compressed .ZIP files will be accepted.

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Model: Grilles and Registers -- Supply / Return Airflow Measurements Procedure

1. Place anemometer type probe against outlet or inlet as shown.

Note: For the rotating vane anemometer, an average reading is obtained by moving the anemometer over the grille face at a uniform rate or by holding the anemometer at various spots for an equal amount of time. Anemometer readings are to be for at least a one-minute period. Be sure the anemometer is held against the vanes.

2. Repeat Step 1 for a number of readings in equal areas of the grille face.

3. Average these readings.

4. Calculate the flow rate using the following equation.

Note: Refer to the appropriate factor (supply or return) table for the flow factor and the Core Area Table for the core area factor.

Air Flow Factors 272-FF 03-24-04

Supply Outlet Factors

Dwyer Air Velocity Meter

#460-7

Supply

6060 or 2220-A Jet

Anemotherm Model 60 Supply

6070 or 2220-A Jet

6070 or 2220-A Jet

Anemotherm Model 60

All rights reserved. No part of this work may be reproduced or transmitted in any form or any means, electronic or mechanical, including photocopying and recording, or by any information storage retrieval system without permission in writing from Air Distribution Technologies

605 Shiloh Road Plano, Texas 972-212-4800

Air Flow Factors 272-FF 03-24-04

Refer to the Balancing Application Guide for more information about balancing air systems.

Alnor Anem RVA Alnor Anem RVA

23 45 0.33 1.05 0.75 50 0 0.61 1.07 0.81

25 30 0.44 1.11 0.79 T-700 0.35 1.06 0.74

30 0 0.61 1.27 0.84 CT-700 0.37 0.94 0.71

33 30 0.48 1.12 0.79 34 45 0.37 1.22 0.76 3 45 0.29 1.14 0.73 4 45 0.36 1.19 0.74 8 0 0.43 1.12 0.86 355 35 0.50

Core Defl.

Anemometer

350RL

350FL

350RS

350FS

0.52

Return Inlet Factors

Core Defl.

Anemometer

Core Area, Square Feet Factors

6 0.12 0.19 8 0.16 0.26 0.37

10 0.21 0.34 0.47 0.59 12 0.25 0.41 0.57 0.72 0.88 14 0.30 0.48 0.67 0.85 1.04 1.22 16 0.34 0.57 0.77 0.98 1.19 1.40 1.62 18 0.39 0.63 0.88 1.11 1.35 1.59 1.83 2.07 20 0.43 0.72 0.97 1.24 1.50 1.77 2.04 2.31 2.57 22 0.48 0.77 1.07 1.37 1.66 1.96 2.25 2.55 2.84 24 0.52 0.88 1.17 1.49 1.82 2.14 2.46 2.79 3.11 3.75 26 0.57 0.92 1.27 1.62 1.97 2.32 2.67 3.02 3.38 4.08 28 0.62 0.99 1.37 1.75 2.13 2.51 2.89 3.26 3.64 4.40 30 0.66 1.11 1.47 1.88 2.29 2.69 3.10 3.50 3.91 4.72 5.94 32 0.71 1.14 1.57 2.01 2.44 2.88 3.31 3.74 4.18 5.05 6.35 34 0.75 1.21 1.67 2.14 2.60 3.06 3.52 3.98 4.44 5.37 6.75 36 0.80 1.29 1.77 2.26 2.75 3.24 3.73 4.22 4.71 5.69 7.16 8.63 38 0.84 1.36 1.88 2.39 2.91 3.43 3.94 4.46 4.98 6.01 7.57 9.12 40 0.89 1.43 1.98 2.52 3.07 3.61 4.16 4.70 5.25 6.34 7.97 9.61 42 0.93 1.50 2.08 2.65 3.22 3.80 4.37 4.94 5.51 6.66 8.38 10.10 48 1.07 1.72 2.38 3.04 3.69 4.35 5.00 5.66 6.32 7.63 9.60 11.57 15.50 54 1.20 1.94 2.68 3.42 4.16 4.90 5.64 6.38 7.12 8.60 10.82 13.04 17.47 60 1.34 2.16 2.98 3.81 4.63 5.45 6.27 7.10 7.92 9.57 12.04 14.50 19.44 66 1.47 2.38 3.29 4.19 5.10 6.00 6.91 7.82 8.72 10.54 13.25 15.97 21.41 72 1.61 2.60 3.59 4.58 5.57 6.56 7.55 8.54 9.52 11.50 14.47 17.44 23.38

Core Area = Nominal Duct Size - 3/4 inch

All rights reserved. No part of this work may be reproduced or transmitted in any form or any means, electronic or mechanical, including photocopying and recording, or by any information storage retrieval system without permission in writing from Air Distribution Technologies

Notes:

• Detail A-A is used for vertical joints. The frames of both vertical sides of the joint are sheared and then butted together. Alignment tabs serve to keep the face surfaces parallel.

• Detail B-B is used for horizontal joining. Horizontal frames are installed full width with an aluminum mullion in between each frame.

• This page is for Border Type 1 grilles only.

CB

A

STEEL FRAME ALUMINUM FRAME

1-150.16 • OCTOBER, 2019

STEAM/HOT WATER UNIT HEATERS

MODEL HSB/HC MODEL V/VN

MODEL GLW

MODEL PT/PTN

MODEL HCH

TABLE OF CONTENTS

As Modine Manufacturing Company has a continuous product improvement program, it reserves the right to change design and specifications without notice.

Table of Contents Page

I. Design Benefits

Performance Data

TM

Dimensional Data

IV. Model Identification

V. Specifications

Refer to page 9 for information regarding the BreezeTM AccuSpec Sizing and Selection Program

Canadian Registered heat exchangers

CRN

OH 9234.5C

*Does not apply to V/

PT 952

Wide Product Selection

Application Flexibility

Ease of Installation/Maintenance = Reliability

Blends with the Environment

DESIGN BENEFITS

Unit Features - Horizontal Delivery Unit Heaters

In addition to the features noted on page 2, features that enhance the popularity of the horizontal delivery unit heater are:

Connections

Vertical Fins

Coil

Motor

Fan

Deflector Blades

Safety Fan Guard

Casings

Figure 4.1 - Unit Features

Unit Features - Vertical Delivery Unit Heaters

In addition to the features noted on page 2, features that enhance the popularity of the vertical delivery unit heater are:

Motor-Cooling Cone

Coil

Motor

Fan

Junction Box

Motor Easily Removable

Vertical Fins

Casings

Figure 5.1 - Unit Features

Unit Features - Power-ThrowTM Horizontal Delivery Unit Heaters

In addition to the features noted on page 2, features that enhance the popularity of the Power-Throw� horizontal delivery unit heater are:

Unit Features - Low Water Temperature Greenhouse Heating Units

Standard features include:

Unit Sizing

Example:

Dimensions and Specifications - Model GLW660S, GLW330S

Figure 6.2 - Top View Figure 6.3 - Discharge and Side Views

Figure 6.1 - Model GLW Performance Curves

Table 7.1 Factory Mounted Options

Factory Mounted Option Description

Table 7.2 Field Installed Accessories for Horizontal Models

Field Installed Accessories Description

Table 7.3 Field Installed Accessories for Vertical Models

Field Installed Accessories Description

Table 7.4 Field Installed General Accessories

Field Installed Accessories Description

Options and Accessories

Power Code Descriptions & Control Sequence

Control Sequence

Intermittent Fan Operation - Hot Coil

Continuous Fan Operation - Intermittent Hot/Cold Coil

Intermittent Fan Operation - Intermittent Hot/Cold Coil

Supply Voltage Motor Enclosure Motor Type Motor Starter

Table 8.1 Power Code Descriptions

Power Thermal Overload Code Protection

PERFORMANCE DATA

Modine Breeze AccuSpec Sizing and Selection Program

[HSB/HC/V/VN/PT/PTN] [HSB/HC/V/VN/PT/PTN]

Steam Conversion Tables

Table 10.1 Steam Heating Capacity Conversion Factors

Unit Steam Entering Air Temperature (°F) Heater Pressure Type (PSIG)

BtuA = BtuS x Heating Capacity Factor

BtuS = BtuA ÷ Heating Capacity Factor

Ho riz on ta l D el iv er y Ve rti ca l D el iv er y an d Po w er

-T hr ow

-10 0 10 20 30 40 50 60 70 80 90 100

Steam Conversion Tables

Table 11.1 Air Temperature Rise Conversion Factors

Unit Steam Entering Air Temperature (°F) Heater Pressure Type (PSIG)

ATRA = (FATS - EATS ) x Air Temperature Rise Factor

FATA = EATA + ATRA

Ho riz on ta l D el iv er y Ve rti ca l D el iv er y an d Po w er

-T hr ow

-10 0 10 20 30 40 50 60 70 80 90 100

Steam Conversion Tables

Table 12.1 Steam Unit Heater Mounting Height Correction Factors

Steam Pressure, PSIG 2 5 10 15 20 30 40 50 60 70 80 90 100 125 150 175 200 225 250 Correction Factor

Max. Mounting HeightA = Max. Mounting HeightS x Correction Factor

Table 12.2 Properties of Steam

Gauge Latent Gauge Latent Gauge Latent Gauge Latent Pressure Temp Heat Pressure Temp Heat Pressure Temp Heat Pressure Temp Heat (PSIG) (°F) (Btu/lb.) (PSIG) (°F) (Btu/lb.) (PSIG) (°F) (Btu/lb.) (PSIG) (°F) (Btu/lb.)

0 34 70 109

2 36 72 112 4 38 74 115 5 40 76 118 6 42 78 121 8 44 80 124 10 46 82 125 12 48 84 127 14 50 86 130 16 52 88 133 18 54 90 136 20 56 92 139 22 58 94 142 24 60 96 145 26 62 98 150 28 64 100 175 30 66 103 200 32 68 106 225

Condensate rate = BtuA ÷ Latent Heat of Steam

Steam Performance Data - Standard Models

Type Model No. Btu/hr Sq. Ft. EDR

Air Data Motor Data

Maximum Mounting Height (ft.)

Heat Throw or Spread @ Max.

Height

CFM Outlet Velocity (Fpm)

Final Air Temp. (°F)

Condensate lb/hr Hp Approx.

RPM

Horizontal Delivery

HSB/HC 18

HSB/HC 24

HSB/HC 33

HSB/HC 47

HSB/HC 63

HSB/HC 86

HSB/HC 108

HSB/HC 121

HSB/HC 165

HSB/HC 193

HSB/HC 258

HSB/HC 290

HSB/HC 340

Power Throw�

PT/PTN 279

PT/PTN 333

PT/PTN 385

PT/PTN 500

PT/PTN 610

PT 952

Vertical Delivery

V/VN 42 15 11

V/VN 59 19 14

V/VN 78 20 15

V/VN 95 20 15

V/VN 139 24 18

V/VN 161 27 20

V/VN 193 30 22

V/VN 212 30 22

V/VN 247 34 26

V/VN 279 37 30

V/VN 333 37 30

V/VN 385 36 30

V/VN 500 44 37

V/VN 610 43 36

V 952

Table 13.1 - Performance Data for Standard Units at Standard Conditions of 2 lb. Steam and 60°F Entering Air High Motor Speed

Table 13.2 - Performance Data for Standard Units at Standard Conditions of 2 lb. Steam and 60°F Entering Air Reduced Motor Speed

Type Model No. Btu/hr Sq. Ft.

EDR

Air Data Motor Data

Maximum Mounting Height (ft.)

Heat Throw or Spread @

Max. Height CFM Outlet

Velocity (Fpm)

Final Air Temp.

(°F)

Condensate lb/hr Hp Approx.

RPM

Horizontal Delivery

HSB/HC 18

HSB/HC 24

HSB/HC 33

HSB/HC 47

HSB/HC 63

HSB/HC 86

HSB/HC 108

Steam Performance Data - Low Outlet Temperature Models

Table 14.2 - Performance Data for Low Outlet Temperature Units at Standard Conditions of 2 lb. Steam and 60°F Entering Air Reduced Motor Speed

Table 14.1 - Performance Data for Low Outlet Temperature Units at Standard Conditions of 2 lb. Steam and 60°F Entering Air High Motor Speed

Type Model No. Btu/hr Sq. Ft. EDR

Air Data Motor Data

Maximum Mounting Height (ft.)

Heat Throw or Spread @ Max.

Height

CFM Outlet Velocity (Fpm)

Final Air Temp. (°F)

Condensate lb/hr Hp Approx.

RPM

Horizontal Delivery

HSB/HC 18L

HSB/HC 24L

HSB/HC 33L

HSB/HC 47L

HSB/HC 63L

HSB/HC 86L

HSB/HC 108L

HSB/HC 121L

HSB/HC 165L

HSB/HC 258L

HSB/HC 290L

HSB/HC 340L

Power Throw� PT/PTN 610L

Vertical Delivery

V 42L 17 13 V 59L 22 16 V 78L 26 19 V 95L 26 19

V/VN 139L 31 23

V/VN 161L 35 26

V/VN 193L 36 27

V/VN 212L 36 27

V/VN 247L 42 32

V/VN 279L 45 36

V/VN 333L 45 36

V/VN 385L 43 36

V/VN 500L 54 45

V/VN 610L 52 44

V 952L - -

Type Model No. Btu/hr Sq. Ft. EDR

Air Data Motor Data

Maximum Mounting Height (ft.)

Heat Throw or Spread @ Max.

Height

CFM Outlet Velocity (Fpm)

Final Air Temp. (°F)

Condensate lb/hr Hp Approx.

RPM

Horizontal Delivery

HSB/HC 18L

HSB/HC 24L

HSB/HC 33L

HSB/HC 47L

HSB/HC 63L

HSB/HC 86L

HSB/HC 108L

Steam Conversion Tables - Example Calculations

Conversion factor example #1:

Solution:

Conversion factor example #2:

Solution:

Alternate Solution:

Table 16.1 Hot Water Heating Capacity Conversion Factors Entering Water Entering Air Temperature (°F) Temp. (°F) 0 10 20 30 40 50 60 70 80 90 100

BtuA = BtuS x Heating Capacity Factor

BtuS = BtuA ÷ Heating Capacity Factor

Hot Water Conversion Tables

Hot Water Conversion Tables

Table 17.2 - Ethylene Glycol Correction Factors

BtuAG = BtuS (or BtuA) x Glycol Correction Factor

BtuS (or BtuA) = BtuAG ÷ Glycol Correction Factor

Table 17.3 - Hot Water Unit Heater Mounting Height Correction Factors

Max. Mounting HeightA = Max. Mounting HeightS x Correction Factor

Ethylene Glycol Solution % Solution Temperature (°F) 20% 30% 40% 50% 60% 70% 80%

Table 17.1 - Minimum Water Flow and Water Volume (gallons)

Entering Water Correction Entering Water Correction Entering Water Correction Temperature, °F Factor Temperature, °F Factor Temperature, °F Factor

140 230 320 150 240 330 160 250 340 170 260 350 180 270 360 190 280 370 200 290 380 210 300 390 220 310 400

Table 18.1 Correction Factors for Varying Water Temperature Drop

Water Temperature Drop, °F 5 10 15 20 25 30 35 40 45 50 55 60

Btu Correction Factor GPM Correction Factor WPD Correction Factor

BtuA = BtuS x Btu Correction Factor

GPMA = GPMS x GPM Correction Factor

WPDA = WPDS x WPD Correction Factor

BtuS = BtuA ÷ Btu Correction Factor

FATA = EATA + [(460 + EATA) x (BtuA) ÷ (573 x Cfms)] for HSB and HC units only

FATA = EATA + [(460 + EATA) ÷ ((573 x Cfms ÷ BtuA) - 1)] for V/VN and PT/PTN units only

WTDA = BtuA ÷ (480 x GPMA)

Hot Water Conversion Tables - Miscellaneous Formulas

Hot Water Performance Data - Standard Models

Table 19.1 - Performance Data for Standard Units at Standard Conditions of 200°F Entering Water and 60°F Entering Air High Motor Speed

Table 19.2 - Performance Data for Standard Units at Standard Conditions of 200°F Entering Water and 60°F Entering Air Reduced Motor Speeds

Type Model No. Btu/hr

Water Data Air Data Motor Data

GPM

Pressure Drop (Ft. of Water)

Min/Max

GPM

Maximum Mounting Height (ft.)

Heat Throw or Spread @ Max.

Height CFM Outlet

Velocity (Fpm)

Final Air Temp.

(°F) Hp Approx.

RPM

Horizontal Delivery

HSB/HC 18

HSB/HC 24

HSB/HC 33

HSB/HC 47

HSB/HC 63

HSB/HC 86

HSB/HC 108

HSB/HC 121

HSB/HC 165

HSB/HC 193

HSB/HC 258

HSB/HC 290

HSB/HC 340

Power Throw�

PT/PTN 279

PT/PTN 333

PT/PTN 385

PT/PTN 500

PT/PTN 610

PT 952

Vertical Delivery

V/VN 42 16 12

V/VN 59 20 15

V/VN 78 22 16

V/VN 95 22 16

V/VN 139 26 19

V/VN 161 29 22

V/VN 193 32 24

V/VN 212 32 24

V/VN 247 37 28

V/VN 279 40 32

V/VN 333 40 32

V/VN 385 39 32

V/VN 500 47 40

V/VN 610 46 39

V 952 - -

Type Model No. Btu/hr

Water Data Air Data Motor Data

GPM

Pressure

Drop (Ft. of Water)

Maximum Mounting

Height (ft.)

Heat Throw or Spread @ Max.

Height

CFM Outlet Velocity (Fpm)

Final Air Temp. (°F) Hp Approx.

RPM

Horizontal Delivery

HSB/HC 18

HSB/HC 24

HSB/HC 33

HSB/HC 47

HSB/HC 63

HSB/HC 86

HSB/HC 108

Hot Water Performance Data - Low Outlet Temperature Models Table 20.1 - Performance Data for Low Outlet Temperature Units at Standard Conditions of 200°F Entering Water and 60°F Entering Air � High Motor Speed

Table 20.2 - Performance Data for Low Outlet Temperature Units at Standard Conditions of 200°F Entering Water and 60°F Entering Air � Reduced Motor Speeds

Type Model No. Btu/hr

Water Data Air Data Motor Data

GPM

Pressure Drop (Ft. of Water)

Min/Max GPM Maximum Mounting

Height (ft.)

Heat Throw or Spread @ Max.

Height CFM Outlet

Velocity (Fpm)

Final Air Temp. (°F) Hp Approx.

RPM

Horizontal Delivery

HSB/HC 18L

HSB/HC 24L

HSB/HC 33L

HSB/HC 47L

HSB/HC 63L

HSB/HC 86L

HSB/HC 108L

HSB/HC 121L

HSB/HC 165L

HSB/HC 258L

HSB/HC 290L

HSB/HC 340L

Power Throw� PT/PTN 610L

Vertical Delivery

V 42L 18 14 V 59L 23 17 V 78L 28 21 V 95L 28 21

V/VN 139L 33 25

V/VN 161L 37 28

V/VN 193L 38 29

V/VN 212L 38 29

V/VN 247L 45 35

V/VN 279L 48 39

V/VN 333L 48 39

V/VN 385L 46 49

V/VN 500L 57 49

V/VN 610L 55 48

V 952L

Type Model No. Btu/hr

Water Data Air Data Motor Data

GPM Pressure Drop (Ft. of Water)

Maximum Mounting Height (ft.)

Heat Throw or Spread @ Max.

Height

CFM Outlet Velocity (Fpm)

Final Air Temp.

(°F) Hp Approx.

RPM

Horizontal Delivery

HSB/HC 18L

HSB/HC 24L

HSB/HC 33L

HSB/HC 47L

HSB/HC 63L

HSB/HC 86L

HSB/HC 108L

Hot Water Performance Data � High Efficiency Low EWT Models

Table 21.1 - Performance Data for Low Outlet Temperature Units at Standard Conditions of 140°F Entering Water and 60°F Entering Air � High Motor Speed

Type Model No. Btu/hr

Water Data Air Data Motor Data

GPM

Pressure Drop (Ft. of Water)

Min/Max GPM Maximum Mounting

Height (ft.)

Heat Throw or Spread @ Max.

Height CFM Outlet

Velocity (Fpm)

Final Air Temp. (°F) Hp Approx.

RPM

Horizontal Delivery

HCH 22

HCH 39

HCH 67

HCH 104

HCH 170

HCH 195

Hot Water Conversion Tables - Example Calculations

Conversion factor example #1:

Solution:

Conversion factor example #2:

Solution:

Maximum Mounting Heights for Vertical Outlet Accessories, Dimensions

Table 23.1 Mounting Height/Spread for Vertical Unit Air Outlet Accessories

HH

HH H

S S S S S

Table 23.2 - Vertical Air Outlet Accessories Dimensions Model Cone-Jet Truncone Louvers

Number L T M X P Z V 42, V 59 V 78, V 95

V 139, V 212 V 247, V 279

V 333 V 385, V 500

V 610 V-952

Figure 23.2 - Vertical Air Outlet Accessories

L

T

X Z

P M

CONE-JET TRUNCONE LOUVER

Cone-Jet Truncone One Way Louvers Two Way Louvers

Standard L.O.T. Standard L.O.T. Standard L.O.T. Standard L.O.T.

Model H S H S H S H S H S H S H S H S

V/VN 42

V/VN 59

V/VN 78

V/VN 95

V/VN 139

V/VN 161

V/VN 193

V/VN 212

V/VN 247

V/VN 279

V/VN 333

V/VN 385

V/VN 500

V/VN 610

V 952

Motor Data, Step-Down Transformer Accessory Data

Table 24.1 - Motor Data

Figure 24.1 Field Installed Transformer Accessory

Table 24.2 - Step-Down Transformer Accessory Selection

208V/60Hz/1 230/460V/ 575V/60Hz/ or 3 phase 60Hz/3 phase 3 phase Model Number kVA kVA kVA

HSB/HC 18-63

HSB/HC 86-121

HSB/HC 165-193

HSB/HC 258-340

V/VN 42-59

V/VN 78-139

V/VN 161-212

V/VN 247-333

PT/PTN 279-333

kVA Size Ship Wt. (Lb.)

Available Motor Type, Voltage and Power Code

115/60/1 208/60/1 230/60/1 208/60/3 230/460/3 575/60/3 115/60/1 230/460/60/3 Model Number Motor HP 01 N/A 02 04 05 10 06 09

HSB/HC 18

HSB/HC/HCH 22, 39, 24, 33

HSB/HC 47, 63

HSB/HC/HCH 67, 104, 86, 108 ,

HSB/HC 121

HSB/HC/HCH 165, 170, 193, 195

HSB/HC 258-340

V/VN 42, 59

V/VN 78, 95

V/VN 139

V/VN 161-212

V/VN 247

V/VN, PT/PTN 279

V/VN, PT/PTN 333

V/VN, PT/PTN 385

V/VN, PT/PTN 500, 610

V, PT 952

Explosion-proofTotally Enclosed

DIMENSIONAL DATA

Dimensions - Horizontal Air Delivery Models

D Female Approx.

Model 115 Std. 115V Exp. Connections Fan Shipping Number A B C Motor Motor E F G H NPT Diameter Wt. lb.

HSB 18

HSB 24

HSB 33

HSB 47

HSB 63

HSB 86

HSB 108

HSB 121

HSB 165

HSB 193

HSB 258

HSB 290

HSB 340

HC 18

HC 24

HC 33

HC 47

HC 63

HC 86

HC 108

HC 121

HC 165

HC 193

HC 258

HC 290

HC 340

Figure 25.1 - Model Dimensions HSB 18-193

Figure 25.3 - Model Dimensions HC 18-165

Table 25.1 - Model HSB and HC Dimensions

Figure 25.2 - Model Dimensions HSB 258-340

Figure 25.4 - Model Dimensions HC 193-340

Dimensions - Horizontal Air Delivery Models

Table 26.2- Model Dimensions HCH 22-195

Figure 26.1 - Model Dimensions HCH 22-195

Model Number A B C

D

E

F

G H Connections Copper Tube

OD (in.)

Fan Diameter

(in.)

Shipping

Wt. lb.

115V Std.

Motor Exp.

Motor Inlet Outlet

HCH 22

HCH 39

HCH 67

HCH 104

HCH 170

HCH 195

Dimensions - Vertical Air Delivery Models

Figure 27.1 - Model V/VN and PT/PTN Dimensions

Table 27.2 - Model V/VN and PT/PTN Dimensions Male

Connections Approx.

Model Fan NPT Shipping Number A B C D E F G Diameter Top Bottom Wt. (lb.)

V/VN 42

V/VN 59

V/VN 78

V/VN 95

V/VN 139

V/VN 161

V/VN 193

V/VN 212

V/VN 247

V/VN 279

V/VN 333

V/VN 385

V/VN 500

V/VN 610

V 952

PT/PTN 279

PT/PTN 333

PT/PTN 385

PT/PTN 500

PT/PTN 610

PT 952

Vertical Air Delivery Power-Throw� Air Delivery

C

C

DMALE

RETURN

MALE

SUPPLY

WVC/WVN 42 THROUGH V/WVN 279

MALE SUPPLY

MALE RETURN

WVC/WVN 333,

WVC/WVN 385,

WVC/WVN 500

C

D

WVC/WVN 333 THROUGH WVC 952

MALE RETURN

WVC/WVN 610/952

8-MOUNTING HOLES

5/8" DIA. IN ANGLE

IRON BRACKET4-MOUNTING

HOLES

1/2"-13 TAP

G

MODEL IDENTIFICATION

Model Identification

Figure 28.1 Model Number Designation

Figure 28.2 Serial Number Designation

Figure 27.3 Model Identification Plate

05 01 12 98 - 0007 Motor

Fan

Year of Manufacture

Week of Manufacture

Sequence Number

HSB 108 S B 01 S A

Model Type

HC / HSB / PT /

PTN / V / VN

MBH Input @ 2 lbs. steam 60°F E.A.T.

Coil Type S - Standard L - Low Outlet Temperature

Development Sequence B - Current

Power Code 01 - 115V/60Hz/1ø 02 - 230V/60Hz/1ø etc.

Fan Guard Type S - Standard F - Finger Proof

Factory Installed Option A - None

SPECIFICATIONS

Specification for Horizontal, Vertical and Power-Throw� Models

General

Casing HSB and HC Models

Vertical and Power-Throw� Models

All Models -

Condenser

Horizontal Models -

Vertical and Power-Throw� Models

Motors

Fans/Fan Guards

Air Deflectors �

Products from Modine are designed to provide indoor air-comfort and ventilation solutions for residential, commercial, institutional and industrial applications.

Whatever your heating, ventilating and air conditioning requirements, Modine has the product to satisfy your needs, including:

HVAC

• Unit Heaters:

– Gas

– Hydronic

– Electric

– Oil

• Ceiling Cassettes

• Duct Furnaces

• Hydronic Cabinet Unit Heaters, Fin Tube, Convectors

• Infrared Heaters

• Make-up Air Systems

• Unit Ventilators

Ventilation

• Packaged Rooftop Ventilation

School Products

• Vertical Packaged Classroom HVAC:

– DX Cooling/Heat Pump

– Water/Ground Source Heat Pump

– Horizontal/Vertical Unit Ventilators

Specific catalogs are available for each product. Catalogs 75-136 and 75-137 provide details on all Modine HVAC equipment.

Modine Manufacturing Company

1500 DeKoven Avenue

Racine, Wisconsin 53403-2552

Phone: 1.800.828.4328 (HEAT) www.modinehvac.com

© Modine Manufacturing Company 2019

The Modine brand has been the industry standard since Arthur B.

Modine invented and patented the first lightweight, suspended hydronic unit heater in 1923.

No other manufacturer can provide the combined application flexibility, technical expertise and fast delivery found at Modine.

Consult your local Modine distributor for help in solving your indoor air problems.

TITUS Metric Performance Data TMS 7/21/98

Note: All dimensions are nominal • product will be built to the closest inch equivalent dimension unless specially ordered to true metric

• contact factory for availability of sizes •

990 Security Row • Richardson, Texas 75081TITUS

Telephone 972-699-1030 • FAX 972-918-8880 G104-S All rights reserved. No part of this work may be reproduced or transmitted in any form or by any means, electronic or mechanical, including photocopying, or by an information storage system, without permission in writing from TITUS

TMS

600mm x 600mm Module Size

Neck Velocity 2.0 2.5 3.0 3.5 4.0 5.0 6.0 7.0 8.0

Velocity Pressure, Pa 2 4 6 8 10 16 22 30 40

Air Flow, Liters/s 37 46 56 65 74 93 111 130 148

150mm Total Pressure, Pa 4 6 9 12 16 25 35 48 63

Dia. NC ( Noise Criteria) - - - 12 16 22 28 32 36

Throw , m 0.3 - 0.5 - 1.3 0.3 - 0.5 - 1.3 0.5 - 1 - 1.5 0.5 - 1 - 1.8 0.5 - 1.3 - 2.3 1 - 1.3 - 2.8 1.3 - 1.5 - 3.3 1.3 - 1.8 - 3.8 1.5 - 2.3 - 4

Air Flow, Liters/s 66 82 99 115 132 165 198 231 264

200mm Total Pressure, Pa 4 6 9 12 16 25 36 49 64

Dia NC ( Noise Criteria) - - 11 15 19 26 31 36 40

Throw , m 0.5 - 1 - 1.5 0.5 - 1 - 2.3 1 - 1.3 - 2.5 1 - 1.5 - 2.8 1.3 - 1.5 - 3.3 1.3 - 2.3 - 4 1.5 - 2.5 - 4.3 1.8 - 2.8 - 5 2.3 - 3.3 - 5.3

Air Flow, Liters/s 103 129 154 180 206 257 309 360 412

250mm Total Pressure, Pa 4 6 9 13 16 26 37 50 66

Dia NC ( Noise Criteria) - - 14 18 22 29 34 39 43

Throw , m 0.5 - 1.3 - 2.3 1 - 1.5 - 2.8 1.3 - 1.5 - 3.3 1.3 - 1.8 - 4 1.5 - 2.3 - 4.3 1.8 - 2.8 - 5.3 2.3 - 3.3 - 5.5 2.5 - 4 - 6 3 - 4.3 - 6.5

Air Flow, Liters/s 148 185 222 259 297 371 445 519 593

300mm Total Pressure, Pa 4 7 10 13 17 26 38 52 68

Dia NC ( Noise Criteria) - 11 16 21 24 31 36 41 45

Throw , m 1 - 1.5 - 2.8 1.3 - 1.8 - 3.3 1.5 - 2.3 - 4.3 1.5 - 2.5 - 5 1.8 - 2.8 - 5.5 2.5 - 3.3 - 6 2.8 - 4.3 - 6.8 3.3 - 5 - 7 3.8 - 5.5 - 7.5

Air Flow, Liters/s 202 252 303 353 404 505 605 706 807

350mm Total Pressure, Pa 4 7 10 13 18 27 39 54 70

Dia NC ( Noise Criteria) - 13 18 22 26 33 38 43 47

Throw , m 1.3 - 1.5 - 3.3 1.5 - 2.3 - 4.3 1.5 - 2.5 - 5 1.8 - 3 - 5.8 2.3 - 3.3 - 6.5 2.8 - 4.3 - 7 3.3 - 5 - 7.5 4 - 5.8 - 8.3 4.3 - 6.5 - 8.8

Air Flow, Liters/s 232 290 348 405 463 579 695 811 927

375mm Total Pressure, Pa 4 7 10 14 18 28 40 55 72

Dia NC ( Noise Criteria) - 13 19 23 27 34 39 44 48

Throw , m 1.3 - 1.8 - 3.8 1.5 - 2.3 - 4.5 1.8 - 2.8 - 5.5 2.3 - 3 - 6.5 2.5 - 3.8 - 6.8 3 - 4.5 - 7.5 3.8 - 5.5 - 8.3 4.3 - 6.5 - 8.8 5 - 6.8 - 9.5

· Throw values are given for terminal velocities of .8, .50, and .3 m/s.

· Throw Values are given for Isothermal Conditions

· N.C. values are based on Octave Band 2 - 7 sound power levels minus a room absorption of 10dB.

· Dash (-) in space denotes an N.C. value of less than 10.

· Data were obtained from test conducted in accordance with ANSI / ASHRAE Standard 70-1991.

Note: Refer to the Air Balancing Application Guide for more information about balancing air systems.

Air Flow Factors TMS-FF 06-13-07

TMS Air Flow Factors

Neck Diameter Size

Factor Neck Diameter

Size Factor

4-inch 0.07 8-inch 0.28

5-inch 0.11 10-inch 0.43

6-inch 0.16 12-inch 0.62

7-inch 0.19 14-inch 0.85

8-inch 0.28 15-inch 0.97

12 x 12-inch Face 24 x 24-inch Face

Alnor 6070, 6000, 2220, or 2220-A Probe

Locations

Model: TMS Air Flow Measurements:

1. Center the probe on each side of the upper cone as shown to measure air flow.

2. Record and average the four velocity readings.

3. Calculate the flow rate using the following equation.

Flow Rate: CFM = Factor x Average Measured Velocity

Note: Select and use the applicable factor from the following table.

All rights reserved. No part of this work may be reproduced or transmitted in any form or any means, electronic or mechanical, including photocopying and recording, or by any information storage retrieval system without permission in writing from Air Distribution Technologies

T it u s-

H V

C

S h il o h R o a d

P la n o

T ex as

.2

2.

Gu ide lin es fo r S ur fa ce -M ou nt ing Ce ilin g D iffu se rs

Gu ide lin es fo r S ur fa ce -M ou nt ing Ce ilin g D iffu se rs

O ne o f th e m or e fr eq ue nt ly a sk ed q ue st io ns w e re ce iv e in a pp li ca ti on e ng in ee ri ng r eg ar ds s ur fa ce m ou nt in g

T it us d if fu se rs

. W h en a c ei li ng g ri d is n ot p re se nt

, s ur fa ce m ou nt in g is s pe ci fi ed a nd th e in st al la ti on q ue st io ns a ri se . L in ea r di ff us er s ar e av ai la bl e w it h co nc ea le d m ou nt in g, s qu ar e an d re ct an gu la r di ff us er s w it h sq ua re o r ro un d in le ts a re n ot . T he m os t i m po rt an t t hi ng to k no w a bo ut s ur fa ce m ou nt in g is th at it n or m al ly r eq ui re s ad di ti on al f ra m in g to w h ic h th e un it s w ill b e se cu re d.

O ft en w e re ce iv e ca ll s fo r m ou nt in g in st ru ct io ns a ft er th e sh ee t r oc k ha s be en in st al le d w hi ch is to o la te to p ro vi de f ra m in g w it ho ut r em ov in g th e in st al le d su rf ac e.

F ra m in g re qu ir em en ts w il l va ry f ro m o ne jo b to th e ne xt b ut th er e ar e so m e ge ne ra l g ui de li ne s an d te rm in ol og y w e us e.

O bv io us ly in st al li ng s cr ew s in th e fa ce o f a di ff us er w il l w or k as it d oe s fo r gr il le s bu t d uc t r et ur n fl an ge s be hi nd th e ed ge s of d if fu se rs a re g en er al ly n ot a va ila bl e to p ro vi de a s ec ur e m ou nt in g ba se i nt o w hi ch a s cr ew c an b e ru n.

A nd m an y su rf ac e m ou nt f ra m es d o no t h av e a fl at s ur fa ce n or is th er e a sc re w h ol e fa st en in g op tio n av ai la bl e.

F ur th er

, s cr ew f as te ni ng c er ta in ly d oe s no t e nh an ce th e ae st he ti cs o f th e in st al le d di ff us er ll s he et ro ck is m ou nt ed to c ei lin g jo is ts

. T he se jo is ts a re u su al ly p ar al le l t o ea ch o th er a nd s pa ce d at tw o to th re e fe et a pa rt d ep en di ng o n lo ca l b ui ld in g co de s.

T he f ra m in g fo r th e di ff us er in m os t c as es c an b e m ou nt ed to th e to p of

, a nd p er pe nd ic ul ar to th e jo is ts . S cr ew s ar e th en u se d to m ou nt t he b ac k pa n to th e fr am in g.

T he f ra m in g m em be rs sh ou ld b e ce nt er ed o n th e di ff us er lo ca ti on a nd s ho ul d al lo w s uf fi ci en t c le ar an ce f or th e di ff us er in le t a nd a ss oc ia te d du ct

A dd it io na l c ar e m us t b e ta ke n to a vo id a ny pr ot ru si on s or f ea tu re s th at w il l o cc up y th e sp ac e ne ce ss ar y fo r th e fr am in g on th e re ar s id e of th e di ff us er . T he y sh ou ld a ls o be a t a d ep th th at w il l a ll ow th e di ff us er to fi rm ly s ea t a ga in st th e sh ee t r oc k.

M os t d if fu se r ba ck p an h ei gh ts a re le ss th an th e de pt h of th e jo is t.

T he s he et r oc k or c ei li ng s ur fa ce is in st al le d le av in g an o pe ni ng p ro vi de d fo r th e di ff us er . T he d if fu se r co re s ho ul d be r em ov ed p ri or to in st al la ti on to a ll ow f or s cr ew s to b e in st al le d in th e to p of th e ba ck p an tr an si ti on

; t hi s is th e fl at p or ti on o n th e re ar o f th e ba ck p an

. S cr ew s ar e th en u se d to s ec ur e th e ba ck p an to th e fr am in g.

I t i s he lp fu l t o us e w as he rs to p re ve nt th e sc re w h ea ds f ro m b ei ng d ri ve n th ro ug h th e ba ck p an if th e fr am in g is n ot f lu sh to th e re ar o f th e pa n.

I n m os t c as es th e sc re w s ca n be p la ce d so a s to n ot b e vi si bl e fr om th e oc cu pi ed s pa ce a ft er th e di ff us er c or e or f ac e is r e-in st al le d.

Metric Performance Data DL 7/21/98

M47-S

Model DL NC 20 NC 30 NC 40 rev 09/05/97

Min. Duct L is ted Duct Velocity

Area Size m /s 1.5 2.0 2.5 3.0 3.6 4.1 4.6 5.1 m 2 Vel .Press , Pa 1 2 4 6 8 10 13 16 l /s 61 81 102 122 142 162 183 203

0.04 25 0m m x 15 0mm NC (Noise Criteria) <10 <10 17 23 29 34 38 42

Total Press. , Pa 11 20 32 45 62 81 102 126

T h r o w , m 1.5 - 1.8 - 5 2.3 - 3.3 - 6.8 2.8 - 4.3 - 8 3.3 - 5 - 8.8 4 - 5.8 - 9.5 4.5 - 6.8 - 10 5 - 7.5 - 10.8 5.5 - 8 - 11.3 l /s 118 157 196 236 275 314 354 393

0.08 45 0m m x 15 0mm NC (Noise Criteria) <10 11 19 25 31 35 40 43

Total Press. , Pa 11 20 32 45 62 81 102 126

T h r o w , m 3.3 - 5 - 8.5 4.3 - 6.5 - 10 5.5 - 8 - 11.3 6.5 - 8.5 - 12.3 7.5 - 9.5 - 13 8.3 - 10 - 14 8.5 - 10.8 - 15 9.3 - 11.3 - 15.8 l /s 194 258 323 388 452 517 582 646

0.13 75 0m m x 15 0mm NC (Noise Criteria) <10 10 18 24 29 34 38 42

Total Press. , Pa 11 20 32 45 62 81 102 126

T h r o w , m 5.3 - 8 - 11.3 7 - 9.3 - 12.8 8.3 - 10 - 14.3 9.3 - 11.3 - 15.8 9.8 - 12 - 17 10.3 - 12.8 - 18.3 11.3 - 13.8 - 19.3 11.5 - 14.3 - 20.5 l /s 384 512 640 767 895 1023 1151 1279

0.32 1500m m x 150m m NC (Noise Criteria) <10 16 23 30 35 40 44 48

Total Press. , Pa 11 20 32 45 62 81 102 126

T h r o w , m 9.3 - 11 - 15.5 10.3 - 12.8 - 18 11.5 - 14.3 - 20 12.8 - 15.5 - 22.3 13.8 - 16.8 - 23.8 14.8 - 18 - 25.5 15.5 - 19.3 - 27.3 16.5 - 20 - 28.8 l /s 207 275 344 413 482 551 620 689

0.14 50 0m m x 25 0mm NC (Noise Criteria) <10 13 20 26 31 36 40 44

Total Press. , Pa 8 14 21 31 42 54 69 85

T h r o w , m 5.5 - 8.3 - 11.5 7.5 - 9.5 - 13.5 8.5 - 10.3 - 15 9.5 - 11.5 - 16.3 10 - 12.5 - 17.8 11 - 13.5 - 19 11.5 - 14 - 19.8 12.3 - 15 - 21 l /s 507 676 845 1014 1183 1352 1521 1690

0.33 1250m m x 250m m NC (Noise Criteria) <10 16 23 29 35 40 44 48

Total Press. , Pa 8 14 21 31 42 54 69 85

T h r o w , m 10.3 - 12.8 - 18 12 - 14.8 - 20.8 13.5 - 16.5 - 23.3 14.8 - 18 - 25.5 15.8 - 19.5 - 27.5 17 - 20.8 - 29.3 18 - 22 - 31 19 - 23.3 - 33 l /s 707 943 1179 1415 1651 1886 2122 2358

0.46 1750m m x 250m m NC (Noise Criteria) <10 18 25 31 36 41 45 49

Total Press. , Pa 8 14 21 31 42 54 69 85

T h r o w , m 12.3 - 15 - 21.3 14.3 - 17.3 - 24.8 15.8 - 19.5 - 27.5 17.3 - 21.3 - 30.3 19 - 22.8 - 32.5 20 - 24.8 - 34.8 21.3 - 26 - 37 22.5 - 27.5 - 38.8 l /s 247 330 412 494 577 659 741 824

0.16 50 0m m x 30 0mm NC (Noise Criteria) <10 13 20 27 32 37 41 45

Total Press. , Pa 7 13 20 29 39 51 64 79

T h r o w , m 6.8 - 8.8 - 12.5 8.3 - 10.3 - 14.8 9.5 - 11.5 - 16.3 10.3 - 12.5 - 17.8 11 - 13.8 - 19.3 12 - 14.8 - 20.5 12.5 - 15.3 - 21.8 13 - 16.3 - 22.8 l /s 487 649 811 974 1136 1298 1460 1623

0.32 1000m m x 300m m NC (Noise Criteria) <10 16 23 29 35 39 44 47

Total Press. , Pa 7 13 20 29 39 51 64 79

T h r o w , m 10 - 12.5 - 17.8 12 - 14.3 - 20.5 13 - 16.3 - 22.8 14.3 - 17.8 - 25 15.5 - 19 - 26.8 16.8 - 20.5 - 28.8 17.8 - 21.8 - 30.5 18.5 - 22.8 - 32.3 l /s 846 1128 1411 1693 1975 2257 2539 2821

0.56 1750m m x 300m m NC (Noise Criteria) <10 19 26 32 37 42 46 50

Total Press. , Pa 7 13 20 29 39 51 64 79

T h r o w , m 13.5 - 16.5 - 23.3 15.5 - 19 - 26.8 17.3 - 21.3 - 29.8 19 - 23.3 - 33 20.5 - 25 - 35.8 22 - 26.8 - 38 23.3 - 28.3 - 40.3 24.5 - 29.8 - 42.3 l /s 233 311 389 467 544 622 700 778

0.15 40 0m m x 40 0mm NC (Noise Criteria) <10 13 20 27 32 37 41 45

Total Press. , Pa 6 11 17 24 33 43 54 67

T h r o w , m 5.8 - 8.5 - 12.3 7.5 - 10 - 14 9.3 - 11.3 - 15.8 10 - 12.3 - 17.3 10.8 - 13 - 18.5 11.5 - 14 - 19.8 12.3 - 15 - 21 12.8 - 15.8 - 22.3 l /s 756 1008 1260 1512 1764 2016 2268 2520

0.50 1250m m x 400m m NC (Noise Criteria) <10 18 25 31 36 41 45 49

Total Press. , Pa 6 11 17 24 33 43 54 67

T h r o w , m 12.8 - 15.5 - 22 14.8 - 18 - 25.3 16.5 - 20 - 28.3 18 - 22 - 31 19.5 - 23.8 - 33.5 20.8 - 25.3 - 36 22 - 26.8 - 38 23.3 - 28.3 - 40.3 l /s 1055 1406 1758 2109 2461 2812 3164 3515

0.69 1750m m x 400m m NC (Noise Criteria) 10 19 27 32 38 43 47 51

Total Press. , Pa 6 11 17 24 33 43 54 67

T h r o w , m 15 - 18.3 - 26 17.3 - 21.3 - 29.8 19.3 - 23.8 - 33.5 21.3 - 26 - 36.5 22.8 - 28 - 39.5 24.5 - 29.8 - 42.3 26 - 31.8 - 45 27.5 - 33.5 - 47.3

Data Notes: NC 50

- All data is based on tests conducted in accordance with ASHRAE 70-91

- Throw is based on iso-thermal air, 0.8, 0.5, 0.3 m/s terminal velocities

- Velocity Pressures are based on nominal duct velocity.

- Each NC value represents the noise criterion w hich will not be exceeded by the sound pressure in any of the octave bands, 2nd through 7th. Each NC value is based on a room absorption of 10 dB, re 10 -12 w atts.

- Throw is based on a 15o upward deflection. For 0o multiply throws shown by 1.2, for 30o multiply by 0.8.

Note: All dimensions are nominal • product will be built to the closest inch equivalent dimension unless specially ordered to true metric

• contact factory for availability of sizes •

All rights reserved. No part of this work may be reproduced or transmitted in any form or by any means, electronic or mechanical, including photocopying, or by an information storage system, without permission in writing from Air Distribution Technologies.

605 Shiloh Road • Plano, Texas 75074 • 972-212-4800®

Model: Rectangular Drum Louver (DL) Air Flow Measurements:

1. Position the Alnor velometer 2220A probe at blade

Note: Probe position is always blade center, regardless of spread.

2. Select appropriate area factor from the table below.

3. Calculate flow rate using the following equation.

Flow Rate: CFM = A x Average Velocity

Air Flow Factors DL-FF 03-24-04

Rectangular Drum Louver AK Factors

All rights reserved. No part of this work may be reproduced or transmitted in any form or any means, electronic or mechanical, including photocopying and recording, or by any information storage retrieval system without permission in writing from Air Distribution Technologies

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(T)

(B)

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(S)

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(B)

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File details come from the government source that posted it. Updated .