MEETING AGENDA. Project Administrator:



Similar documents
Presentation Outline. Common Terms / Concepts HVAC Building Blocks. Links. Plant Level Building Blocks. Air Distribution Building Blocks

ALBUQUERQUE PUBLIC SCHOOLS Facility Design & Construction / Maintenance & Operations

PULASKI AND DUBLIN MIDDLE SCHOOLS

The ASHRAE HQ Building Can the energy efficiency of the different mechanical systems really be compared? RESIDENTIAL LIGHT COMMERCIAL COMMERCIAL

Variable Refrigerant Flow Systems

Sustainable Strategies for Rehabilitation Projects: 9th Street Office Building Adaptive Reuse Case Study

HVAC For Schools How to purchase an HVAC system that meets your school s unique requirements and stays within your budget

POLK STATE COLLEGE CHILLER PLANT EVALUATION WINTER HAVEN, FLORIDA APRIL 2, C arastro & A ssociates, C&A# 5747

1. What percent of a commercial business s energy usage comes from their HVAC system? A. 13% B. 23% C. 33% D. 43% E. 53%

CURBING THE COST OF DATA CENTER COOLING. Charles B. Kensky, PE, LEED AP BD+C, CEA Executive Vice President Bala Consulting Engineers

HVAC Systems: Overview

SECTION HEATING, VENTILATION AND AIR CONDITIONING EQUIPMENT

APPLICATION GUIDE. Comparison of Latent Cooling Performance of Various HVAC systems in a Classroom Application

Air Conditioning. The opportunity for energy efficiency. Low cost actions to reduce energy usage now

Daikin VRV, controls, and lighting retrofit gives St. Louis area high school new life

EnergyPro Building Energy Analysis. Assisted Living Building

UNIVERSITY OF MISSOURI Heating Ventilating and Air-Conditioning (HVAC) March

Advanced Energy Design Guide LEED Strategies for Schools. and High Performance Buildings

The Different Types of Air Conditioning Equipment for IT Environments

Daikin VRV, controls, and lighting retrofit gives St. Louis area high school new life

Commissioning - Construction Documents (Page 1 of 6)

The ABC s of VRF: A Green HVAC Technology An Ideal Green School Solution. Presented by: Fujitsu General America, Inc.

Geothermal Heat Pumps: A Pathway to Zero Net Energy (ZNE) for Schools, Homes and Businesses

Geothermal Heat Pump Systems

2 STEPS TO CONDUCTING YOUR HVAC ASSESSMENT

Introduction To VRF: System Overview, Applications, & Savings Opportunities

Energy Efficiency in Industrial HVAC Systems

Preliminary Final Proposal

Building Energy Systems. - HVAC: Heating, Distribution -

Santa Ana College Central Heating & Cooling

Maximize energy savings Increase life of cooling equipment More reliable for extreme cold weather conditions There are disadvantages

RFI Response RFP: HSCG88-16-R-PQQ015 Replace HVAC Bldg A & C San Diego, CA.

Creating Efficient HVAC Systems

HVAC Costs. Reducing Building. Building owners are caught between two powerful forces the need to lower energy costs. By Stephen J.

International Telecommunication Union SERIES L: CONSTRUCTION, INSTALLATION AND PROTECTION OF TELECOMMUNICATION CABLES IN PUBLIC NETWORKS

By Tom Brooke PE, CEM

Heat Recovery from Data Centres Conference Designing Energy Efficient Data Centres

Nominal Life Expectancy for Building Components

Achieving ENERGY EFFICIENCY with Standard Air-Conditioning Units. Mike West, PhD, PE Advantek Consulting, Inc

Topics for Today. Order of Magnitude Mechanical Estimating. Order of Magnitude Estimate Goal. Project Delivery Methods. Questions for Client

GEOTHERMAL HEATING AND COOLING INTRODUCTION

SECTION PACKAGED ROOFTOP AIR CONDITIONING UNITS NON-CUSTOM

HOW TO CONDUCT ENERGY SAVINGS ANALYSIS IN A FACILITY VALUE ENGINEERING STUDY

SECTION HEAT PUMPS

Venice Library Humidity Study. for Williams Building Diagnostics, LLC th Street West Bradenton, FL Report April 13, 2015

SPECIAL ISSUE: NATIONAL SCIENCE FOUNDATION WORKSHOP


SECTION PACKAGED ROOFTOP AIR CONDITIONING UNITS

SECTION TABLE OF CONTENTS. H Proposed Material, Product or Equipment Substitution Request

Enclosed Football Stadium Design History and Lessons Learned

How To Use A Water Source Heat Pump

APPENDIX E: CAPITAL NEEDS SUMMARY

AIR CONDITIONING EFFICIENCY F8 Energy eco-efficiency opportunities in Queensland Foundries

Design Consultant (Electrical Services) Design Deliverables and Responsibilities Allocation (Stage E+)

Xcel Business Customers: Program and Rebate Summary

Tim Sisson - Trane HVAC OVERVIEW

HVAC Technologies for Building Energy Efficiency Improvements 2013 National Symposium on Market Transformation. Richard Lord Carrier Fellow

ASHRAE Rocky Mountain Chapter. RickPhillips Phillips, P.E., PE LEED AP Senior Mechanical Engineer The RMH Group, Inc.

Energy Efficiency Analysis for a Multi-Story Commercial Office Building. (LG Multi V Water II Heat Recovery VRF System)

APPLICATION GUIDE. Moisture Management in Waterborne Climate Systems

VertiCool Space Saver 2 to 15 tons Water-Cooled and Chilled Water

Heating, Ventilation & Air Conditioning Equipment

VRF Zoning: An Ideal HVAC Solution for Multifamily Applications

SECTION 5 COMMERCIAL REFRIGERATION UNIT 22 CONDENSERS

Raising the Bar: A Comparison Study of Iowa s Current and Proposed Energy Code

Print Shop/Mail Room

Guidelines for energy efficient heating, ventilation and air conditioning (HVAC) systems

Heating, Ventilation & Air Conditioning Equipment

Mechanical, Plumbing, and Fire Protection Conditions

Comparing Maintenance Costs of Geothermal Heat Pump Systems with Other HVAC Systems: Preventive Maintenance Actions and Total Maintenance Costs

COMMERCIAL HVAC CHILLER EQUIPMENT. Air-Cooled Chillers

Innovent LASER Packaged Fresh Air Conditioning Units

Energy Efficiency Analysis for a Multi-Story Commercial Office Building. (LG Multi V III Heat Recovery VRF System)

3/29/2012 INTRODUCTION HVAC BASICS

Energy Efficiency. Energy Efficient Home Cooling:

york air-conditioning products Residential & VRF News 2015

COMPARATIVE LIFE-CYCLE ANALYSIS OF ENERGY-EFFICIENCY MEASURES AT TVA S CHATTANOOGA OFFICE COMPLEX: PHASE II RESULTS & FINAL DESIGN

Design Guide. Retrofitting Options For HVAC Systems In Live Performance Venues

CHAPTER 9: WATER HEATING

NEW JERSEY CENTER OF EXCELLENCE

Air Conditioning Clinic

In the compression-refrigeration loop (air conditioning), which is likely to be warmer? 1. Condenser coil 2. Evaporator coil

Presentation to Senate Select Committee on Government Facilities: Deferred Maintenance for State Supported Living Centers and State Hospitals

HVAC SYSTEMS ACOUSTICAL, COST & ENERGY STUDY

FINAL REPORT LIFE-CYCLE COST STUDY OF A GEOTHERMAL HEAT PUMP SYSTEM BIA OFFICE BLDG., WINNEBAGO, NE

Data Center Design Guide featuring Water-Side Economizer Solutions. with Dynamic Economizer Cooling

The District Energy Manager and Classroom Heating

Maryland. American Recovery and Reinvestment Act. 158 DoD Projects ($ 65.8M) Completed or Under Way by August 31, 2009

newsletter engineers energy-saving strategies for Water-Source Heat Pump Systems volume 36 2 providing insights for today s hvac system designer

LOW-RISE RESIDENTIAL BUILDINGS ADDITIONS AND ALTERATIONS IN EXISTING LOW-RISE RESIDENTIAL BUILDINGS

School HVAC. Design Manual. Application Guide AG Air Cooled Chiller. Chilled Water Pumps. Expansion Tank CHWR CHWS. Make up Water Line Boiler

Why Daikin? 2015 Houston, Texas USA

Glossary of HVAC Terms

Element D Services Heating, Ventilating, and Air Conditioning

HEATING, VENTILATION & AIR CONDITIONING

Ground-Source Variable Refrigerant Flow Heat Pumps:

Heating Ventilation and Air Conditioning Diagnostics for Single Family Homes

Optimization of Water - Cooled Chiller Cooling Tower Combinations

Auxiliary HVAC RAM ProMaster. Standard Tie-in Extreme Climate System

CHILLER PLANT CONTROL MULTIPLE CHILLER CONTROLS

Transcription:

MEETING AGENDA Project Administrator: To: Ann Green M. Baker, SLCS C. Bullinger, SLCS R. Clark, SLCS Board C. Cox, SLCS S. Dotinga, Granger J. Graham, SLCS J. Gusick, SLCS, Board C. Hanshaw, SLCS Board A. McCusker, SLCS M. Nowosad, Granger A. Green, IDS C. Lewis, IDS Project Name: SLCS-Bond 2015 Facility Planning Committee (FPC) Meeting IDS Project No.: 15137-2000 Date and Time: Location: August 4, 2015 9:00-10:30 am SLCS Superintendent s Conference Room 1. Review New Elementary plan options and site layout 2. Mechanical concept recommendation for existing elementary buildings (Bartlett, Sayre, Salem, Dolsen) ec: File J. Weimer Document2

July 28, 2015 Ms. Melissa Baker Superintendent South Lyon Community Schools 345 South Warren South Lyon, MI 48178 Project Name: South Lyon Community Schools 2015 Bond Elementary School Remodeling IDS Project No.: 15137-2014 Dear Ms. Baker: Integrated Design Solutions has performed an evaluation of several heating, ventilating and air conditioning renovation options for the existing classrooms at Dolsen Elementary, Bartlett Elementary, Salem Elementary and Sayre Elementary Schools. The systems evaluated in the analysis included the following: 1. Vertical unit ventilator with hot water heating and chilled water cooling. 2. Vertical unit ventilator with hot water heating and DX cooling; reuse existing how water heating piping. 3. Vertical unit ventilator with hot water heating and DX cooling; provide new how water heating piping. 4. Above ceiling variable refrigerant flow (VRF) with roof mounted energy recovery unit. 5. Vertical unit ventilator with air-source heat pump. 6. Vertical unit ventilator with hot water heating and chilled water cooling. The analysis included the estimated cost of construction, annual energy and maintenance costs, sound power levels and simple payback, as well as a list of pros and cons for each system. Of the systems evaluated, the above-ceiling variable refrigerant flow (VRF) with roof-mounted energy recovery unit provided the lowest annual owning and operating cost with a slight premium over the lowest first cost system. The estimated construction cost is less than the system budgeted in the bond. On July 15, 2015, IDS, along with representatives from the South Lyon School District, visited the Daikin Training Facility in New Hudson, Michigan to review the VRF system components, options and basic operation, and to become familiar with its operation. Based on the HVAC analysis and site visit, IDS recommends that the above-ceiling variable refrigerant flow (VRF) with roof-mounted energy recovery unit system be implemented at the above elementary schools. A copy of the Classroom HVAC Analysis is attached for reference. 248-823-2100 www.ids-troy.com 1441 w. long lake road, ste. 200 troy, mi 48098 I N T E G R A T E D design S O L U T I O N S architecture engineering interiors & technology

Ms. Melissa Baker IDS Project No. 15137-2014 July 28, 2015 Page 2 If you have any questions and/or comments, please contact me. Sincerely, Integrated Design Solutions, LLC David M. DiCiuccio, PE Executive Vice President Attachment cc: File F:\2015\15137\2014\Corr\Design\ltr001.docx

SOUTH LYON COMMUNITY SCHOOLS SOUTH LYON, MICHIGAN CLASSROOM HVAC ANALYSIS 15137-2014 July 30, 2015

TABLE OF CONTENTS PURPOSE AND ASSUMPTIONS... TAB 1 VERTICAL UNIT VENTILATOR WITH CHILLED WATER COOLING AND HOT WATER HEATING... TAB 2 VERTICAL UNIT VENTILATOR WITH DX COOLING AND HOT WATER HEATING (EXISTING)... TAB 3 VERTICAL UNIT VENTILATOR WITH DX COOLING AND HOT WATER HEATING (NEW)... TAB 4 ABOVE-CEILING VARIABLE REFRIGERANT FLOW (VRF)... TAB 5 VERTICAL UNIT VENTILATOR WITH AIR-SOURCE HEAT PUMP... TAB 6 VERTICAL UNIT VENTILATOR WITH WATER-SOURCE HEAT PUMP... TAB 7 CLASSROOM HVAC COMPARISON... TAB 8 CLASSROOM HVAC SUMMARY... TAB 9 f:\2015\15137\2014\reports\design\rpt001final 7-30-15.docx Page i

PURPOSE AND ASSUMPTIONS PURPOSE The purpose of this analysis is to compare six different classrooms HVAC options for the existing elementary schools at South Lyon Community Schools. These schools include Bartlett Elementary, Sayre Elementary, Salem Elementary and Dolsen Elementary. The analysis includes estimated cost of installation, annual energy and maintenance costs, sound power levels, simple payback as well as a list of pros and cons for each system analyzed. The systems included in the analysis are as follows: Vertical Unit Ventilator with Chilled Water Cooling and Hot Water Heating Vertical Unit Ventilator with DX Cooling and Hot Water Heating (Existing) Vertical Unit Ventilator with DX Cooling and Hot Water Heating (New) Above-Ceiling Variable Refrigerant Flow (VRF) Vertical Unit Ventilator with Air-Source Heat Pump Vertical Unit Ventilator with Water-Source Heat Pump ASSUMPTIONS A virtual building model was created for this analysis. o The model consists of 10 classrooms. o Each classroom is 728 sqft. o The classrooms were oriented to account for the diversity of peak loads individual classrooms due to solar heat gain. o The model includes heat gains and losses through walls, windows and roofs of typical construction. o The model includes internal loads from people, lights and equipment per ASHRAE 90.1 guidelines. o The model underwent a computer simulation of 10 months assuming standardized weather data for Michigan. o The building was assumed to be unoccupied between June 15th and August 15th per owner direction. Energy recovery of the ventilation air was assumed across all options. All options include above-ceiling ducting of supply air to ceiling mounted diffusers in classrooms. In most options it is assumed that the existing hot water heating distribution system is beyond its useful life and requires replacement. One option with the (EXISTING) designation explores the implications of reusing the existing piping. All existing Unit Ventilators will be removed. f:\2015\15137\2014\reports\design\rpt001final 7-30-15.docx Page 1.1

VERTICAL UNIT VENTILATOR WITH CHILLED WATER COOLING AND HOT WATER HEATING SYNOPSIS Classrooms Thru-wall unit ventilator in each classroom; heating and cooling, blower fan. Integral energy recovery wheel. Exterior louvers provided by unit manufacturer. Integrated hot water coil provided by unit manufacturer. Integrated chilled water coil provided by unit manufacturer Remotely mounted room controller furnished by unit manufacturer; hard wired in field to unit with surface mounted wire molding or above ceiling. Room controller controls chilled water and hot water heating control valve. New hot water heating distribution to serve integral heating coil. New chilled water distribution to serve integral cooling coil. Moderate amount of architectural repair for the existing unit ventilator louver opening. Moderate amount of architectural renovation for the new unit ventilator louver opening. Ceiling and lights will be replaced. Existing casework will be revised to accommodate new unit ventilator. Distribution and Central Systems Replacement of hot water heating distribution piping. New chilled water distribution piping. New chilled water plant equipment; 30-Ton air-cooled chiller, pumps, air separator and chemical treatment. Reuse existing boilers and pumps. Significant amount of architectural demolition and repair to accommodate new hot water heating and chilled water piping. f:\2015\15137\2014\reports\design\rpt001final 7-30-15.docx Page 2.1

VERTICAL UNIT VENTILATOR WITH DX COOLING AND HOT WATER HEATING (EXISTING) SYNOPSIS NOTE: This option reuses the existing hot water heating distribution piping. The condition of the existing piping in the buildings being considered in this study may be considered POOR to ADEQUATE. This option would be applied to a building where the existing hot water heating piping is considered ADEQUATE. Classrooms Thru-wall unit ventilator in each classroom; integral refrigerant circuit, compressor, thru-wall condensing unit, blower fan. Integral energy recovery wheel. Exterior louvers provided by unit manufacturer. Integrated hot water coil provided by unit manufacturer. Self-contained DX cooling refrigerant circuit (No remote condensing unit). Remotely mounted room controller furnished by unit manufacturer; hard wired in field to unit with surface mounted wire molding or above ceiling. Room controller controls DX cooling and hot water heating control valve. Reuse existing hot water heating distribution piping to serve integral heating coil. Moderate amount of architectural repair for the existing unit ventilator louver opening. Moderate amount of architectural renovation for the new unit ventilator louver opening. Ceiling and lights will be replaced. Existing casework will be revised to accommodate new unit ventilator. Distribution and Central Systems Reuse existing hot water heating distribution piping. Reuse existing boilers and pumps. f:\2015\15137\2014\reports\design\rpt001final 7-30-15.docx Page 3.1

VERTICAL UNIT VENTILATOR WITH DX COOLING AND HOT WATER HEATING (NEW) SYNOPSIS NOTE: This option includes the replacement of the existing hot water heating distribution piping. The condition of the existing piping in the buildings being considered in this study may be considered POOR to ADEQUATE. This option would be applied to a building where the existing hot water heating piping is considered POOR. Classrooms Thru-wall unit ventilator in each classroom; integral refrigerant circuit, compressor, thru-wall condensing unit, blower fan. Integral energy recovery wheel. Exterior louvers provided by unit manufacturer. Integrated hot water coil provided by unit manufacturer. Self-contained DX cooling refrigerant circuit (No remote condensing unit). Remotely mounted room controller furnished by unit manufacturer; hard wired in field to unit with surface mounted wire molding or above ceiling. Hot water heating control valve provided by unit manufacturer. Room controller controls DX cooling and hot water heating control valve. New hot water heating distribution to serve integral heating coil. Moderate amount of architectural repair for the existing unit ventilator louver opening. Moderate amount of architectural renovation for the new unit ventilator louver opening. Ceiling and lights will be replaced. Existing casework will be revised to accommodate new unit ventilator. Distribution and Central Systems Replacement of hot water heating distribution piping Reuse existing boilers and pumps. Moderate amount of architectural demolition and repair to accommodate new hot water heating piping. f:\2015\15137\2014\reports\design\rpt001final 7-30-15.docx Page 4.1

ABOVE-CEILING VARIABLE REFRIGERANT FLOW (VRF) SYNOPSIS Classrooms Heating and cooling, above-ceiling unit in each classroom; integral refrigerant circuit, condensate pump, blower fan. Integral energy recovery wheel. Five (5) rooms per 15-ton condensing unit. Branch selector unit at each terminal above ceiling. Remotely mounted room controller furnished by unit manufacturer; hard wired in field to unit with surface mounted wire molding or above ceiling. Moderate amount of architectural repair for the existing unit ventilator louver opening. Ceiling and lights will be replaced. Distribution and Central Systems Moderate amount of refrigerant piping in above classroom ceilings. Two (2) 15 Ton condensing units on roof utilizing energy recovery. Demolish or abandon existing hot water heating system; boilers, piping, pumps, etc.. Cabinet unit heaters are replaced with cabinet unit heaters with electric heat. Packaged rooftop unit (3500 cfm) with DX Cooling, Indirect gas-fired heating and total energy recovery wheel provides ventilation air to classroom terminal units. Significant amount of architectural demolition and repair to accommodate new refrigerant lines and ventilation ductwork. f:\2015\15137\2014\reports\design\rpt001final 7-30-15.docx Page 5.1

VERTICAL UNIT VENTILATOR WITH AIR-SOURCE HEAT PUMP SYNOPSIS Classrooms Thru-wall unit ventilator in each classroom; integral refrigerant circuit, compressor, blower fan. Reversible heat pump provides heating and cooling to classrooms. Integral energy recovery wheel. Exterior louver provided by unit manufacturer. Unit mounted or remotely mounted room controller furnished by unit manufacturer; hard wired in field to unit with surface mounted wire molding or above ceiling. Room controller controls heat pump function and mode. Moderate amount of architectural repair for the existing unit ventilator louver opening. Moderate amount of architectural renovation for the new unit ventilator louver opening. Ceiling and lights will be replaced. Existing casework will be revised to accommodate new unit ventilator. Distribution and Central Systems Demolish or abandon existing hot water heating system; boilers, piping, pumps, etc.. Cabinet unit heaters are replaced with cabinet unit heaters with electric heat. f:\2015\15137\2014\reports\design\rpt001final 7-30-15.docx Page 6.1

VERTICAL UNIT VENTILATOR WITH WATER-SOURCE HEAT PUMP SYNOPSIS Classrooms Thru-wall unit ventilator in each classroom; integral refrigerant circuit, compressor, blower fan. Reversible heat pump provides heating and cooling to classrooms. Integral energy recovery wheel. Exterior louver provided by unit manufacturer. Remotely mounted room controller furnished by unit manufacturer; hard wired in field to unit with surface mounted wire molding or above ceiling. Room controller controls heat pump function and mode. Moderate amount of architectural repair for the existing unit ventilator louver opening. Moderate amount of architectural renovation for the new unit ventilator louver opening. Ceiling and lights will be replaced. Existing casework will be revised to accommodate new unit ventilator. Distribution and Central Systems Demolish existing hot water heating distribution piping. New dry cooler mounted on roof. New condenser water loop, with glycol-water mixture, to dry cooler, boilers and each classroom heat pump. Maintain existing boilers to provide supplemental heat to condenser water loop. Maintain existing boilers to provide hot water heating to cabinet unit heaters. f:\2015\15137\2014\reports\design\rpt001final 7-30-15.docx Page 7.1

CLASSROOM HVAC SUMMARY f:\2015\15137\2014\reports\design\rpt001final 7-30-15.docx Page 8.1

CLASSROOM HVAC COMPARISON f:\2015\15137\2014\reports\design\rpt001final 7-30-15.docx Page 9.1