Reducing Energy Costs in Swine Barns

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Reducing Energy Costs in Swine Barns B. Predicala, E. Navia, L. Whittington, J. Patience Prairie Swine Centre Inc. Saskatoon, Saskatchewan 26 September 2007 Presentation Outline Background Project Objectives Methodology Results Preliminary Conclusions Future Work Take Home Message 2 1

Background Steady global escalation in energy prices Utilities cost (gas, electricity) creeping up Current estimate: $6 to $10 per pig sold 3rd largest variable cost component (after feed and labour) Reducing utilities cost can be significant competitive advantage 3 Project objectives Conduct comparative evaluation of energy use Quantify impact of energy-conservation strategies using simulation Demonstrate selected measures in actual barn Develop decision-support software tool 4 2

Methodology 4 phases Phase 1: Benchmarking Phase 2: Evaluation of energy-conservation measures Phase 3: Demonstration in actual barn Phase 4: Development of decision-support tool Phases 1 & 2 currently funded by ACAAFS Phases 3 & 4 additional funding sought 5 Phase 1: Benchmarking Survey of 25 to 30 swine operations Different types Farrow-to-Finish, Farrowing, Nursery, Finishing, Grow-Finish, etc. Determine energy cost ($) per pig Energy audits in selected barns Identify energy-intensive tasks Measure actual energy usage summer, winter Monitoring of parameters related to energy use 6 3

Phase 2: Evaluating conservation measures Use computer simulation - simulate a typical barn, apply various conservation measures lighting: energy-efficient lamps, lighting schedule, cleaning heating: energy-efficient heaters and lamps, reduced nocturnal temperature settings, heat recovery systems, alternative fuels ventilation: energy-efficient fans, improved controls and ventilation efficiency, alternative cooling systems materials handling: feed handling, manure removal, reduced contaminant generation management: peak demand load shifting, equipment and building envelope maintenance 7 Phase 3: Actual demonstration Most promising measures will be selected based on simulation results Retrofitted into actual rooms at PSC Elstow barn Impact on energy use, animal productivity, room environment will be monitored; compared with conventional rooms Results displayed at the Pork Interpretive Gallery 8 4

Phase 4: Decision-tool development Software tool has 2 main functions: Allow monitoring of monthly energy consumption & cost patterns, specific to the facility Provide projected cost savings if various energyconservation options available in the software are implemented; estimate pay-back for investment Facilitate management decisions on adopting available measures Distributed in CDs, or from website 9 Methodology Phases 1 & 2 Phase 1 - Benchmarking Survey Barn Monitoring Target respondents: At least 25 swine producers Expected Output: Utility cost per animal marketed ($ per 100-kg pig sold) Selection of 2 highest and 2 lowest energy users Phase 2 Computer Simulation 10 5

Methodology Phase 1 - Benchmarking Survey Barn Monitoring Phase 2 Computer Simulation 4 Swine facilities selected from survey Barn Monitoring Procedure Energy Use Assessment Inventory of equipment Determine operating hours Building envelope Management practices Energy and Environmental Parameters Measurement (Summer and Winter) Sensors and dataloggers 11 Methodology Phase 1 - Benchmarking Survey Barn Monitoring Phase 2 Computer Simulation Expected Output: Energy consumption - per stage of production - per type of equipment Identify energy intensive tasks Impact of energy input on IAQ parameters 12 6

Methodology Phase 1 - Benchmarking Survey Barn Monitoring Phase 2 Computer Simulation Use energy simulation program - apply energy conservation strategies Lighting Heating Ventilation Manure handling Feed handling Management practices 13 Results of Benchmark Survey 28 swine facilities participated in survey 16 Farrow-to-Finish barns 2 Nursery barns 6 Grow-Finish barns 4 Farrow-to-Wean barns 14 7

Results of Benchmark Survey Utility cost per 100-kg pig and animal marketed for different types of barn $/100-kg pig sold $/animal marketed Type of barns Size range Range Avg Range Avg Farrow-Finish 300 to 1,500 sow 3.5 12.0 6.3 3.0 12.0 6.8 Farrow-Finish excluding feedmill 300 to 2,000 sow 6.0 11.5 6.3 3.8 13.0 6.5 Grow-Finish 10,000 to 40,000 feeders/ weanlings 1.2 2.6 1.7 1.3 2.1 1.7 Nursery 130,000 to 140,000 feeders/ weanlings 1.7 2.2 2.0 0.5 0.7 0.6 Farrow-wean 150 to 1,200 sow 8.2 17.8 12.2 0.8 4.3 1.9 15 Results of Benchmark Survey Highest and lowest energy users within each barn category Type of barns Lowest energy user Size $/100kg $/ head Highest energy user Size $/100 kg $/ head Farrow-Finish 1,500 3.5 4.3 1,000 10.2 11.9 Farrow-Finish excluding feedmill 700 6.0 3.8 600 7.2 8.1 Grow-Finish 30,000 1.2 1.3 25,000 2.6 1.7 Nursery 140,000 1.7 0.5 140,000 2.2 0.7 Farrow-wean 1,000 8.2 0.9 1,200 17.8 1.71 16 8

Energy Audit summer and winter Barns selected from the survey: Highest Energy-User Barns Barn A Farrow-to-Finish Barn B Farrow-to-Wean Lowest Energy-User Barns Barn C Grow-Finish Barn D Farrow-to-Finish 17 Barn A Farrowing room Electrical Energy Consumption Electrical Energy Consumption, kwh Day Hours Heat lamps Heat Pad Stage 1&2 fans Distribution fans TOTAL 1 12 38.0 7.3 14.7 1.0 2.1 63.1 2 24 34.7 9.0 29.2 1.9 4.4 79.1 3 24 20.1 20.6 30.3 1.9 4.4 77.2 4 24 16.4 16.6 30.2 1.9 4.4 69.5 5 24 0.0 14.6 27.7 1.9 4.4 48.6 6 24 0.0 10.7 26.8 1.9 4.4 43.8 7 24 0.0 8.8 26.1 1.9 4.4 41.1 8 13 0.0 9.3 12.7 0.9 2.5 25.3 18 9

Barn A Farrowing room Total Energy Consumption Fan Farrowing 3% 6% 24% 37% 36% Heat lamps Gestation 46% 22% 8% Nursery 18% Heat pads Grow-Finish 19 Barn A Nursery room Total Energy Consumption Gestation 46% 24% 8% Farrowing Nursery Stage 3 & 4 11% 4% 22% Feed Motor 2% 22% 61% Stage 1& 2 Grow-Finish 20 10

Barn A Grow-finish room Total Energy Consumption Farrowing Gestation 46% 22% 24% 8% Nursery Fan Stage 3 & 4 31% 1% 9% Feed Motor 3% Grow-Finish 56% 21 Barn A Gestation room Total Energy Consumption Fan 2% Gestation 24% Farrowing 18% Feed Motor 46% Stage 3 & 4 53% 26% 1% 22% 8% Nursery Grow-Finish 22 11

Barn B Farrow-to to-wean Barn Total Energy Consumption Farrowing room Gestation Farrowing Feed motor 1% 17% 4% 52% 48% 78% Heat lamps 23 Barn B Gestation room Total Energy Consumption Fan 17% 19% Stage 5 & 6 Feed Motor 1% Gestation Farrowing 23% 25% 52% 48% 15% Stage 3 & 4 24 12

Barn C Grow-finish room H 2 S, NH 3 and CO 2 concentrations H2S and NH3 Concentration, ppm 90 80 70 60 50 40 30 20 10 Peak concentrations of NH3 (80ppm) and H2S (25ppm) due to pit pulling H2S NH3 CO2 2,500 2,000 1,500 1,000 500 CO2 Concentration, ppm 0 0 20-Aug 22-Aug 24-Aug 26-Aug 28-Aug 30-Aug 1-Sep Date/Time 25 Barn C Grow-finish barn All measured parameters 90 80 70 Temp RH H2S NH3 Energy CO2 2,500 2,000 deg C, %, ppm and kwh 60 50 40 30 1,500 1,000 CO2 Concentration, ppm 20 500 10 0 0 20-Aug 22-Aug 24-Aug 26-Aug 28-Aug 30-Aug 01-Sep Date/Time 26 13

Summary Farrowing s Barn A Barn B Fan 3% 6% 4% 37% 36% Heat lamps Feed motor 1% 17% 18% 78% Heat pads Heat lamps 27 Summary Farrowing s Barn A used heat lamps for 1-2 days only (36% of the total energy consumption); then used heat pads for other days (18% of the total energy consumption) Barn B used heat lamps only (78% of the total energy consumption) Barn A used Fluorescent lamp while Barn B used T-8 energy efficient lamp Barn A lights - 10 hours (6% of total energy consumed), while Barn B lights - 8 hours (4% of total energy consumed) Barn A fans used more energy (40%); Barn B fans 17% 28 14

Summary Nursery Barn A Stage 3 & 4 11% 4% 22% Feed Motor 2% 61% Stage 1& 2 29 Summary Grow-Finish Barn A Barn C Fan 1% Stage 3 & 4 31% 9% Feed Motor 3% Stage 3 fans 37% 13% 6% 14% Feed Motor Stage 0&1 fans 56% 30% Stage 2 fans 30 15

Summary Gestation Barn A Barn B Fan 2% Fan Stage 5 & 6 Stage 3 & 4 53% 18% 26% Feed Motor 1% 23% 17% 19% 15% 25% Feed Motor 1% Stage 3 & 4 31 Preliminary Conclusions are most intensive energy users i.e., summer conditions Potential energy savers: o Duration can be reduced to recommended levels (i.e., 14 hours for gestation and 8 hours for the rest) o Use of energy efficient lamps fan o Use can be reduced without compromising air quality Use of heat lamps vs. heat pads 32 16

Additional tasks Currently monitoring Barn D Installation of gas meters in the barns Winter monitoring Temperature and relative humidity Indoor air quality parameters Energy (electricity and gas) consumption Computer simulation Secure funding for Phases 3 & 4 33 Take-home messages Global energy indicators point to continuing escalation of energy costs in the future Current swine production operations need to be optimized for improved energy use Range of energy cost values indicates a wide range of opportunities to reduce energy cost in swine barns An Energy Audit program will help producers assess their current energy usage and decide on appropriate energy conservation measures. 34 17

Acknowledgement Advancing Canadian Agriculture and Agri-food Saskatchewan Collaborating pork producers Strategic funding: Sask Pork, Manitoba Pork, Alberta Pork, Saskatchewan Agriculture and Food 35 Questions, comments 36 18