Owner Municipality Built in 1978 Rebuilt in 2001 Rink and bleachers. Surface area (footprint) 4,140 m 2 (44,700 ft 2 )

Similar documents
RAPB. Multi-Purpose Facility. Characteristics of Hockey Rink. Project profile Refrigeration technological innovation

ABSTRACT. 2 CanmetENERGY

DEMONSTRATION OF ADVANCED INTEGRATED HVAC&R SYSTEMS IN A LOBLAWS SUPERMARKET IN CANADA

MAYEKAWA MFG. CO., LTD Botan Koto-ku, Tokyo , JAPAN TEL:(81) FAX:(81)

On Balance: Heat Rejection Control a Packaged Solution

DEHUMIDIFICATION: Ice Arena Application & Product Guide. Design, construct and operate to control indoor humidity in ice rinks

Engineers and Contractors - Innovative Technologies to Achieve Highest GeoExchange System Efficiencies for Commercial Projects

Life-Cycle Energy Costs and Greenhouse Gas Emissions for Gas Turbine Power

AC SYSTEM CONFIGURATION- CENTRAL CHILLER PLANT

Hot Water Generation for Commercial and Industrial Applications. Paul Marsden Specification Sales Manager

Ice-System Operations Brief review of Refrigeration principals for Cold and Warm Brine Refrigerant Solution Ice-Surface Formation Procedure

Dehumidification: Energy Efficiency Comparisons

AHRI Certification Program Scopes - COOLING

A Technical Introduction to Cool Thermal Energy Storage Commercial Applications

Heat Pumps and Public Swimming Pools, a Perfect Match

Auburn University Basketball Arena:

Continuous Commissioning: A Valuable Partner to Retrofit Projects

Air Conditioning Inspections for Buildings Efficiency of Air Conditioning Systems

NET ENERGY WATER LOOPS A clear path to net zero energy buildings

Update Dedicated Heat Recovery Chiller Technology. Don Frye. Gulf South

The Ed Roberts Campus Berkeley, CA

PREDICTION OF THE PRESSURE DROP OF CO 2 IN AN EVAPORATOR USED FOR AIR COOLING ABSTRACT 1. INTRODUCTION 2. EXPERIMENTAL SET-UP AND PROCEDURE

Heat Recovery Dehumidification (HRD) system. Designed for municipal swimming pools

Daikin Blueprint: Delivering Hot Water with a Chiller

Heat recovery systems - Free hot water by total recovery of the heat rejected by the cooling units

Free cooling on RTAF Chiller. Integrated option

Heat recovery from sewers for low temperature DH supply

Use of transcritical CO 2 in industrial applications

MUNICIPAL ICE RINK PROGRAM

July 2012 was a significant date for the HVAC and Refrigeration industry as it saw the introduction of the Carbon Tax and the HFC Levy.

InRow Direct Expansion

BASE LEVEL AUDIT REQUIREMENTS REFRIGERATION SYSTEMS 1. SITE DATA COLLECTION. Business Name. Site physical address (Street, Suburb, City)

AN EXPERIMENTAL STUDY OF A REFRIGERATING PLANT WHEN REPLACING R22 WITH HFCs REFRIGERANTS

Energy Recovery Ventilation

TrilliumSeries Condenser 1 TRILLIUMSERIES CONDENSER 10 ECOFLEX CONTROLS 11 SELECTION AND PAYBACK ANALYSIS SOFTWARE 3 BENEFITS 8 MODES OF OPERATION

Small Commercial Business Energy Audits. Recognizing and addressing the special requirements of the small business market segment.

Choose the winning team. Heat transfer technology for industrial cooling and air conditioning

HVAC - Central System Thermal Storage

CHART PERUVIAN TECHNICAL STANDARDS

Hot Water a Hot Commodity Better Buildings by Design, February 2012 Burlington, VT

AIR-CONDITIONING SYSTEMS AND APPLICATIONS. Abdullah Nuhait Ph D. King Saud University

Assessment of Domestic Evacuated Tube. Direct Solar Water Heater

NON-REVERSING, 100% OUTSIDE AIR HEAT PUMP FOR HEATING AND COOLING

Rational Use of Energy

IEA Annex 26: Advanced Supermarket Refrigeration / Heat Recovery Systems Canada Report

GAS ABSORPTION HEAT PUMP

Matt Cooper, PE, BEMP, HBDP, Group 14 Engineering Ken Urbanek, PE, HBDP MKK Consulting Engineers, Inc.

Table of Contents. 2 aermec.us

HVAC Water chiller selection and optimisation of operation

TOTAL SYSTEM EFFICIENCY: SYSTEM APPLICATIONS & DESIGNS. David Grassl PE Mechanical Engineer Principal

MSP WRAP-AROUND MULTIPLE SMALL PLATE DEHUMIDIFICATION TECHNOLOGY VS. CONVENTIONAL DEHUMIDIFICATION IN DEDICATED OUTDOOR AIR SYSTEMS (DOAS)

Make value of the waste energy from your cooling units and heat water for free

Summary Comparison of Simulation Program Features

Refrigeration and Boil Off Compression Systems for NGL Export Facilities

IEA Annex 26: Advanced Supermarket Refrigeration/Heat Recovery Systems

A REVIEW ON GREEN TECHNOLOGY IN HVAC

Daikin Altherma Selection Report

Heat Pump Water Heater Commercial Leaflet 2012

Partial Load Performance Of Refrigeration System

Design and Operation of a Conditioning Energy Recovery Ventilator (CERV) for Passive Houses

Smardt vs. McQuay Comparison of Standard Options and Other Benefits < 400 tons

PERFORMANCE EVALUATION OF CO 2 HEAT PUMP HEATING SYSTEM ABSTRACT 1. INTRODUCTION

Q. Which hydrocarbons can be used as a refrigerant? The following hydrocarbons can be used as a refrigerant in cooling & heating applications:

your comfort. our world. Altherma Flex Type Renewable heat pump system for every environment

Environmentally friendly refrigeration systems for industrial use

Chilled Water system

Energy Saving Options for Arenas

Method to test HVAC equipment at part load conditions

Farm Energy Audit Workshop

DISTRICT HEATING SCHEME FEASIBILITY STUDY FRANKTON FLATS QUEENSTOWN

For Households and Professionals

TrilliumSeries. Condenser

Innovative Technologies [and Design Concepts] in Commercial Foodservice

Process glycol chillers

ICE CHILLER Thermal Storage Products... F2. Benefits... F4. Proven Technology... F7. Construction Details TSU-M - Internal Melt Application...

Air Conditioning and process cooling Energy Components at a Glance

NC NC Series. NG Series. Seresco s NG Series Fluid Coolers & NC Series Outdoor Condensers Quiet, efficient reliable heat rejection

MEASURED PERFORMANCE DATA FOR

By Thomas H. Durkin, P.E., Member ASHRAE, and James B. (Burt) Rishel, P.E., Fellow/Life Member ASHRAE

Agent - Manufacturer of Boreal geothermal heat pumps

Topic 2. ME 414/514 HVAC Systems Overview Topic 2. Equipment. Outline

cussons Refrigeration Assembly Range TECHNOLOGY REFRIGERATION AND AIR CONDITIONING CUSSONS TECHNOLOGY LABORATORY RECOMMENDATION

Hall 7A. Chillventa Specialist Forums 2018 Chillventa Fachforen NürnbergMesse, Arbeitstitel, Datum 1

ENERGY MANAGEMENT IN MILK POWDER PLANTS

How can energy-efficient appliances save you money?

Air Conditioning Clinic

2013 Guideline for Specifying the Thermal Performance of Cool Storage Equipment. AHRI Guideline T (I-P)

Air Conditioning Clinic. Absorption Water Chillers One of the Equipment Series TRG-TRC011-EN

5. ASSESSMENT RECOMMENDATIONS

Chiller Plant Design. Julian R. de Bullet President debullet Consulting

compact BOOSTER RACK TRANSCRITICAL CO 2 Cooling capacity LT: from 2 to 130 kw Cooling capacity MT: from 20 to 300 kw

THE BIG FIVE NATURAL REFRIGERANTS IN DIFFERENT INDUSTRIAL APPLICATIONS. MAYEKAWA EUROPE S.A.,Leuvensesteenweg 605, 1930 Zaventem, Belgium

PPL Electric Utilities Energy Efficiency and Conservation Program

Our natural refrigerant technology and energy-efficiency solutions

Installation Operation Maintenance

Dehumidifying with Dedicated Outdoor Air

Richard Hiles ClimateMaster

REDUCING AMMONIA REFRIGERANT CHARGE IN SKATING RINK REFRIGERATION SYSTEMS

Engineered for flexibility and performance

Don t Flood The Rodeo! Preparing for Fort Worth s New Arena

Transcription:

Project profile Refrigeration Technological Innovation RAPB REFRIGERATION ACTION PROGRAM For BUILDINGS Colisée des Bois-Francs Victoriaville (Québec) MAJOR RETROFIT Summary Potential for substantial heat recovery from refrigeration system Extensive integration of refrigeration system with heating, ventilation and dehumidification system Short-term heat storage Variable condensing temperature and pressure (Floating head pressure) Characteristics of Arena Owner Municipality Built in 1978 Rebuilt in 2001 Rink and bleachers Surface area (footprint) 4,140 m 2 (44,700 ft 2 ) Building (including multipurpose hall) Volume 51,000 m 3 (1,814,000 ft 3 ) Surface area (footprint) 13,000 m 2 (140,000 ft 2 ) Number of rinks 1 Volume 59,000 m 3 (2,084,000 ft 3 ) Seating capacity 2,100 Months operated / year 9 Hours open / week 80 Number of ice resurfacings / week 50 Heated bleachers Yes, to 15 C (60 F) Annual energy consumption 1,560,000 kwh-eq. (in 2003-2004) (98 % electricity, 2% natural gas) 130 kwh-eq / m 2 (12 kwh-eq. / ft 2 ) Contract power 400 kw Annual energy cost $90,000 (in 2003-2004)

Refrigeration System Installed Equipment type Factory-built commercial packages (2) Compressors 4 semi-hermetic screw compressors Condensers 4 tube and shell condensers Evaporators 2 direct expansion tube and shell evaporators Heat rejection system Indirect evaporative fluid cooler Refrigerant HCFC-22 (174 kg combined total for all equipment) Total cooling capacity 120 tons Operation of condenser Floating head pressure Heat transfer fluid in cold secondary loop Mixture of water and methanol Heat transfer fluid in warm secondary loop Mixture of water and ethylene glycol Energy Efficiency Measures Design Heat recovery Bleachers heating Using condensation heat rejected in the warm secondary loop (water/ethylene glycol) and transfered through a coil in the ventilation duct Players rooms heating Same system as for bleachers heating Service rooms heating No measures Domestic water heating Domestic water is heated to 55 ºC by the means of a heat pump using the warm secondary loop as an energy source Heating resurfacing water Domestic hot water, heated from 55ºC to 80ºC with a natural gas boiler Preheating outdoor air No measures Preheating domestic water Using heat from warm secondary loop by the means of a plate type heat exchanger Heating under ice rink slab System in place but not used Heat recovery from waste water No Use of surplus heat exceeding arena heating requirements No measures

Thermal storage Heat storage Short term Seasonal Cold storage Short term Seasonal Reserve of 4,500 litres (1,000 gallons) for domestic hot water at 55 C No No No Other measures Dehumidifying of ice rink Air is dehumidified by a cold loop bypass to a coil in the ventilation duct Melting rink scrapings No mesures Modulation of circulating pumps Yes, variable speed 25 HP pump Reduction of maximum flow in cold secondary loop No, 2 passes in secondary fluid circuit in the slab Low-emissivity ceiling No Building Automation System (BAS) Yes Efficient lighting High-intensity discharge (HID) lamps Metal hallide, power 31 kw Lighting intensity varied to suit different activities 2 light intensity levels Lighting switched off when arena not in use Yes

Operation Modulation of condensing temperature to suit refrigeration and heating needs, and according to outside temperature Yes, controlled by BAS Electrical demand control through peak-load shifting Yes, by BAS Resurfacing water temperature lowered Ajusted manually Modulation of ice temperature set point Yes, controlled by BAS Indoor temperature lowered during unoccupied periods Yes, controlled by BAS Refrigeration system shut down during unoccupied periods Yes, controlled by BAS Circulating pumps shut down during unoccupied periods Yes, controlled by BAS Ventilation shut down during unoccupied periods Yes, controlled by BAS Ice thickness management Ice thickness ajusted manually Lighting reduced for certain activities Yes, ajusted manually Ice temperature monitored by infrared sensor Yes, by BAS Project Cost Overall cost of work, including engineering (before financial assistance): $693,300 Financial assistance for energy efficiency Agence de l efficacité énergétique du Québec (AEE) CETC-Varennes (through RAPB)

Simplified System Schematic Bleachers Legend Air coil Indirect evaporative fluid cooler Ethylene glycol Water / methanol Synthetic refrigerant Water Players' rooms Expansion valve Pump Air coil Mechanical Room Plate type heat exchanger Municipal water 20ºC Ice pad Condenser Heat Pump 45ºC to 50ºC Domestic hot water EV Evaporator Compressor 55 C 80 C to resurfacing

Benefits Building energy consumption 14% electrical energy savings for 50% greater cooling capacity compared with previous system. Savings are all the more impressive because some energy saving measures were already in place before the refrigeration system was retrofited. Contract power Comparable to the contract power prior to the retrofit, despite a 50% increase in installed cooling capacity Note : Savings were calculated based on the energy invoices analysed before and after the retrofit only. No adjustments were made to reflect the increase in cooling capacity, the total ice time used, or weather conditions. Environmental benefits Greenhouse gas (GHG) emissions The use of modular package refrigeration units enabled toconfine the refrigerant in the mechanical room and to reduce by 70% the required amount of refrigerant per ton of cooling capacity. Potential refrigerant leaks were also reduced by the same amount. Since the new refrigeration system was started up, no refrigerant losses were registered, whereas with the old system the leaks accounted for 120 t eq. CO 2 per year. Effect of refrigerant on ozone layer Significant reduction in the impact on the ozone layer for the above reasons Other benefits Reduction of maintenance costs Insufficient data at this time Qualitiative benefits Good quality ice System more reliable Greater comfort for spectators

300,000 250,000 Electricity consumption (98% of total energy consumption) for the reference year (2000-01) and following years 2000-01 kwh/month 200,000 150,000 100,000 2003-04 50,000 0 Aug. Sept. Oct. Nov. Dec. Jan. Feb. Mar. Apr. Rationale Refrigeration system was obsolete Original capacity was inadequate for growing needs Sought improved spectator comfort Solution considered the most cost effective based on life cycle cost analysis over a period of 20 years

Suppliers and Contractors General contractor LS Réfrigération Refrigeration contractor LS Réfrigération Manufacturer of refrigeration equipment Trane Control system Johnson Controls Mechanical, electrical and structural engineers Dessau-Soprin Inc. RAPB The Refrigeration Action Program for Buildings (RAPB) fosters the use of innovative refrigeration practices in order to reduce the greenhouse gas emissions that result from the efficient use of energy and the reduction of refrigerant leaks in supermarkets, ice and curling rinks. A French version is also available FOR MORE INFORMATION CANMET Energy Technology Centre - Varennes / Natural Resources Canada 1615, Lionel-boulet Boulevard, P.O. Box 4800, Varennes, (Québec) J3X 1S6 CANADA Telephone: (450) 652-4621, Facsimile: (450) 652-5177, Website: http://cetc-varennes.nrcan.gc.ca, Email : CTEC-CETC.Varennes@rncan.gc.ca Her Majesty the Queen in Right of Canada, 2005 ISBN: 0-662-42019-5 Catalogue no.: M39-116/2-2005E-PDF 2004-154 (PROMO)