Making the Web equal Profit Surfing for Genetics Dorian Garrick & Mark Enns Department of Animal Sciences Colorado State University.

Slides:



Advertisements
Similar presentations
Professor N. Nelson Blue Mtn. Agriculture College.
Advertisements

West Virginia University Extension Service Genetics in Beef Cattle Wayne R. Wagner.
Shane Ruff Graduate Student Department of Agricultural and Applied Economics University of Wyoming.
Multiple Breed Evaluation Can MBE enhance crossbreeding? John Pollak Cornell University Director, NBCEC.
Level II Agricultural Business Operations.  Understand the reproduction cycle  Assess herd reproductive efficiency  Understand the decisions involved.
Colorado Agriscience Curriculum
Economic Tools to Evaluate Culling Decisions for Breeding Cattle and Replacements.
BEEF GENETICS NEXT What color are Shorthorns? n A. White n B. Red n C. Roan n D. All the above A B C D NEXT.
Cow-Calf Operations Makenna Ramos April 10, 2012 Animal Science.
Economic Feasibility of Adopting Genomic Selection in Beef Cattle Kenneth Poon & Getu Hailu University of Guelph CAES 2010, Niagara Falls June 18 th, 2010.
BEEF CATTLE GENETICS By David R. Hawkins Michigan State University.
EPD 101 PredictingProfit… Red Angus – EPD 101. EPD 101 Members (Seedstock producers) succeed through enabling the success (profit) of their commercial.
Daryl Strohbehn, Ph.D. Emeritus Professor Iowa State University Bob Weaber, Ph.D. Ext. Cow-Calf Specialist Kansas State University.
Systems of Crossbreeding – Experiences in Research & Do’s and Don’ts R. Mark Enns Colorado State University.
Van Eenennaam 11/17/2010 Animal Genomics and Biotechnology Education Alison Van Eenennaam, Ph.D. Cooperative Extension Specialist Animal Biotechnology.
Jared E. Decker 1.
Breed and Trait Selection Considerations Dan W. Moser Dept. of Animal Sciences and Industry Kansas State University.
Economically Relevant Traits Mark Enns Colorado State University.
Straightbreeding – A simple way to reduce your bottomline D. A. Daley California State University, Chico NCBCEC Brown Bagger Session October 17, 2012.
Cow-Calf Outlook and Profitability Kenny Burdine and Greg Halich UK Ag Economics.
Using EPDs in Selection Stolen and edited by: Brandon Freel and Daniel Powell Originally compiled by Colorado Agriscience Curriculum.
1 Ramifications of Selection Decision Support for Cow-Calf Improvement
Designing Genetics and Selection for Seedstock Breeders, Commercial Cattlemen and Show Ring Enthusiasts ASA Fall Focus 2015: Confidence Builds Success.
WHAT ARE EPD’S?. What is an EPD? E-xpected P-rogeny D-ifference A measure of the degree of difference between the progeny of the bull and the progeny.
The Brown Bagger Beef Cattle Adaptability Current Tools of Assessment John L. Evans Oklahoma State University 1.
Improving Beef Cattle Reproductive Rates Through Management Part 1 Dr. Tom R. Troxel Professor and Associate Department Head – Animal Science.
Brown Bagger – Beef Cattle Genetics: Fine Tuning Selection Decisions 1 How Do I Decide What Traits are Important? Carcass/Ultrasound EPDs Bob Weaber GRA-Cornell.
Brown Bagger – Beef Cattle Genetics: Fine Tuning Selection Decisions 1 How do I decide what traits are important ? Selection Indices Dorian Garrick Department.
Continuous Calving: Are Economic Incentives Large Enough to Eliminate the Traditional Practice? by D. Doye and M. Popp INTRODUCTION Why, despite expert.
Introduction to Selection Indexes Bob Weaber, Ph.D. State Extension Specialist-Beef Genetics University of Missouri-Columbia
B66 Heritability, EPDs & Performance Data. Infovets Educational Resources – – Slide 2 Heritability  Heritability is the measurement.
The Many Measures of Accuracy: How Are They Related? Matt Spangler, Ph.D. University of Nebraska-Lincoln.
Identifying Genetic Antagonisms Megan Rolf Oklahoma State University.
Selection of Breeding Program An S 426 Fall 2007.
Bob Weaber, Ph.D. Associate Professor/Cow-Calf Extension Specialist Kansas State University
Evaluating Longevity: 10 Years of Using Stayability EPD Larry Keenan Research & Special Projects Coordinator, RAAA.
 Objective 7.03: Apply the Use of Production Records.
Understanding Cattle Data Professor N. Nelson Blue Mountain Agriculture College.
Genetic Evaluations & Decision Support to Improve Feed Efficiency Dorian Garrick Department of Animal Sciences Colorado State University.
2006 H. Duane Norman Animal Improvement Programs Laboratory Agricultural Research Service, USDA, Beltsville, MD
NBCEC Brown Bagger: Economic Selection Index Wade Shafer American Simmental Association.
Setting a Feeder Calf Price Objective Max Runge Extension Economist Auburn University.
How Does Additional Information Impact Accuracy? Dan W. Moser Department of Animal Sciences and Industry Kansas State University, Manhattan
Agriculture and Agri-Food Canada Agriculture et Agroalimentaire Canada Multiple Trait Selection for Maternal Productivity D. H. Crews, Jr., P. B. Mwansa.
EPD’s: What They Are and How to Use Them. Introduction EPDs = Expected Progeny Differences Progeny = Offspring, usually the offspring of the sire Differences.
Challenges with Heifer Selection – HOW MANY Should I Breed, and What are they worth? Dr. Ron Lemenager Beef Extension Specialist
Breeding Objectives for Terminal Sires Michael MacNeil USDA ARS Miles City, MT.
Selecting Herd Bull Beef Production Game. What is the job of our bull? Produce sperm Pass on quality genetics of rate of gain, muscling, structure Physically.
Cow Herd Performance Testing. Introduction Help evaluate economically important traits Calving ease Birth weight Weaning weight Calving interval Calf.
Selection Decision Tools Revisited Economically Relevant Traits vs. Indicator Traits B. L. Golden California Polytechnic State University, SLO.
Feed Efficiency Genetic Projects. Terms Gain/Feed = Feed Efficiency FE Feed/Gain = Feed Conversion FC: -FE Residual Feed Intake RFI Net Feed Intake NFI:-RFI.
Sally L. Northcutt American Angus Association Selection Tools Beef Improvement Federation April 20, 2006.
Genetics – Trait Selection An S 426 Fall Genetics – Trait Selection Has led to development of Economically Relevant Traits (ERT) and Indicator Trait.
Principles of Agricultural Science – Animal 1. 2 Expected Progeny Differences Principles of Agricultural Science – Animal Unit 7 – Lesson 7.2 Predicting.
Using EPDs in Selection Edited by: Jessica Hawley & Brandon Freel Originally compiled by Colorado Agriscience Curriculum.
 Genes- located on chromosomes, control characteristics that are inherited from parents.  Allele- an alternative form of a gene (one member.
Evaluation & Use of Expected Progeny Differences in Beef Cattle Dr. Fred Rayfield Livestock Specialist Georgia Agricultural Education To accompany lesson.
Bull Selection: Beef Kay Farmer Madison County High School edited by Billy Moss and Rachel Postin July 2001.
Sustainable Agriculture
Utilizing Enterprise Budgets in Beef Cattle Operations
Fundamentals of the Eurostar evaluations
Evaluation & Use of Expected Progeny Differences in Beef Cattle
Using EPDs in Selection
Keith Vander Velde UW Extension
WHAT ARE EPD’s?.
Selection Tools for Beef Cattle Improvement
Using EPDs in Selection
History of Selection From Phenotypes to Economic Indexes
Expected Progeny Differences
Expected Progeny Difference EPD
Presentation transcript:

Making the Web equal Profit Surfing for Genetics Dorian Garrick & Mark Enns Department of Animal Sciences Colorado State University

Surfing for Genetics Surfing for Convenience Surfing to Support Decisions based on your own Customized Computations

Convenience Finding a Particular Bull/Breed/Breeder Sort Orders –Finding extreme bulls for some attribute Filters –Finding bulls with particular combinations of attributes Up-to-date EPD and ACC information

Customized Computations Interpretation of Threshold Traits Interactions between ERTs Assessment of Nutritional Implications Assessment of Financial Implications –Perhaps also Economic Implications Accounting for Risk Multibreed Evaluation & Crossbreeding

Interpretation of a Typical EPD W W D = 20 lb W W D = 50 lb

Interpretation of a Typical EPD W W D = 20 lb W W D = 50 lb Herd 1Average 500 lbAverage 530

Interpretation of a Typical EPD W W D = 20 lb W W D = 50 lb Herd 1Average 500 lbAverage 530 Herd 2Average 550 lbAverage 580

Interpretation of Threshold Traits Calving Ease EPD Stayability EDP Heifer Pregnancy EPD

Underlying Scores to Preg Rate Easy to get pregnant Difficult to get pregnant Average

Underlying Scores to Preg Rate Easy to get pregnant Difficult to get pregnant Average Suppose 20% heifers are open And 80% heifers are pregnant

Underlying Scores to Preg Rate 20% Heifers not in calf Pregnant Heifers Easy to get pregnant Difficult to get pregnant Average

Underlying Scores to Preg Rate 20% Truncn pt = 0.84  Heifers not in calf Pregnant Heifers Threshold

Underlying Scores to Preg Rate % Truncn pt = 0.84  Heifers not in calf Pregnant Heifers

Underlying Scores to Preg Rate 0.38 Phenotypic s.d. = % Truncn pt = 0.84  Truncn pt = /1.17= % Heifers not in calf Pregnant Heifers

Underlying Scores to Preg Rate 0.38 Phenotypic s.d. = % Truncn pt = 1.28  Truncn pt = /1.17= %

Sensitive to the Average An underlying EPD of 0.38 for heifer pregnancy would increase pregnancy rate –By 8.0% if average pregnancy rate is 80% –By 4.5% if the average is 90% Phenotypic “interpretation” of underlying threshold scores depends upon the mean Published values are at a mean of 50%

Solution Publish values that are hard to interpret OR Publish tables of EPDs relevant to different average levels of performance –Calving Ease: First Calf:75, 80, 85, 90, 95% Mixed Age:95, 99% –Stayability: 40, 45, 50, 55, 60% –Heifer Pregnancy: 75, 80, 85, 90, 95%

Solutions (cont) OR Use web-based decision support –User defined average levels of performance –Compute the number of pregnant vs open heifers number of easy vs difficult calvings Likely age structure of the herd –Number of replacement heifers required –Number of cull yearlings and mixed age cows

Suppose our goal is incr sale wt W W D = 20 lbW W D = 50 lb Base Base+30 lb

Interactions between ERTs WWD EPD + 30 lb (all other EPDs equal) –gives +30 lb weanlings

Interactions between ERTs WWD EPD + 30 lb (all other EPDs equal) –gives +30 lb weanlings –gives +22 lb weanling sale wt “per cow” in a “typical” self-replacing herd

Interactions between ERTs WWD EPD + 30 lb (all other EPDs equal) –gives +30 lb weanlings –gives +22 lb weanling sale wt “per cow” in a “typical” self-replacing herd Increasing ST +8 will give another +8 lb

Interactions between ERTs WWD EPD + 30 lb (all other EPDs equal) –gives +30 lb weanlings –gives +22 lb weanling sale wt “per cow” in a “typical” self-replacing herd Increasing ST +8 will give another +8 lb Increasing HPG +12 will give another + 3lb

Interactions between ERTs WWD EPD + 30 lb (all other EPDs equal) –gives +30 lb weanlings –gives +22 lb weanling sale wt “per cow” in a “typical” self-replacing herd Increasing ST +8 will give another +8 lb Increasing HPG +12 will give another + 3lb Increasing CED +11 will give another +1 lb

Interactions between ERTs Many ERT interact in a system context Total sale weight at weaning is altered by WWD, WWM, STAY, HPG, CED, CEM, ME (plus BW & YWT) The impact of any one EPD on the change in sale weight depends upon all the other EPDs and the average levels of performance

Assessment of Nutritional (& other input) Implications Feed requirements are influenced by the –Expected maintenance requirements –Expected requirements for gain –Deviation from our expectations (known as residual feed intake or RFI) Changing any of WWD, WWM, STAY, HPG, CED, CEM, ME, BW, YW will alter whole herd feed requirements

Assessment of Financial Implications Changes in profit can be calculated from change in income × prices change in expenses × costs –Straightforward (but tedious) arithmetic Prices & Costs can be obtained on a financial basis or an economic basis –What is the cost of feed in an extensive cow- calf grazing operation?

Economic Cost of Feed Feed “cost” can be calculated from its “opportunity” cost –Measure of what net income would be given up if you had less feed (and less cows) –Can be calculated from comparing the system profit of two herds of alternative genotypes with different stocking rates such that each consume the same amount of feed

Solutions Leave it to bull buyers to struggle thru facts & calculations OR put it all together via the web Website ert.agsci.colostate.eduert.agsci.colostate.edu

Current Philosophical Approach Current (equilibrium) Cow Herd (EPD & Performance) Like Merit Bulls Base Cow-calf outputs & inputs Base Situation Perturbed Situation X

Current Philosophical Approach Current (equilibrium) Cow Herd (EPD & Performance) Like Merit Bulls Base Cow-calf outputs & inputs Base Situation Perturbed Situation Current Cow Herd (EPD) Chosen Bulls Daughter (equilibrium) Cow Herd (EPD & Base mean Performance) X X

Current Philosophical Approach Current (equilibrium) Cow Herd (EPD & Performance) Like Merit Bulls Base Cow-calf outputs & inputs Base Situation Perturbed Situation Current Cow Herd (EPD) Chosen Bulls Daughter (equilibrium) Cow Herd (EPD & base mean Performance) Like Merit Bulls Perturbed Cow-calf outputs & inputs X X X

Accounting for Risk Consider the following three bulls Bull#prog AccProfit Lima to 0.6$908 Sierra to 0.8$729 Bravo to 0.95$648

Accounting for Risk On average, true EPD is equally likely to be greater or lesser than published ACC allows us to quantify the extent to which the estimate may vary from true Considering just BW, WW, YW, Milk, ME and not (in this example) CED, CETM, HPG, ST we can compute many possible “realizations” of each bull

Extra Profit per 30 daughter-years $ progeny

Accounting for Risk $ progeny 240 progeny

Accounting for Risk $ progeny 240 progeny 30 progeny

Solution Publish an “expected change” table OR provide web options for quantifying risk (prototype available this Fall)

Multibreed Evaluation & Xbreeding EPD BullWithin Breed Angus 1*+65 Angus 2+80 Simmental 3*+58 Simmental 4+68 *A1 & S3 are breed average EPDs

Multibreed Evaluation & Xbreeding YWTEPD BullWithin BreedMultibreed # Angus 1*+65 Angus 2+80 Simmental 3* Simmental *A1 & S3 are breed average EPDs # Angus Base

Multibreed Evaluation & Xbreeding YWTCow Breed MBEAngusSimmHeref Angus 1+65Base Angus Simm 3+80 Simm 4+90

Multibreed Evaluation & Xbreeding YWTCow Breed MBEAngusSimmHeref Angus 1+65Base Angus Simm 3+80+h AS +15 Simm 4+90+h AS +25

Multibreed Evaluation & Xbreeding YWTCow Breed MBEAngusSimmHeref Angus 1+65Base+h AS Angus h AS +15 Simm 3+80+h AS +15 Simm 4+90+h AS +25

Multibreed Evaluation & Xbreeding YWTCow Breed MBEAngusSimmHeref Angus 1+65Base+h AS Angus h AS +15 Simm 3+80+h AS Simm 4+90+h AS

Multibreed Evaluation & Xbreeding YWTCow Breed MBEAngusSimmHeref Angus 1+65Base+h AS +h AH Angus h AS +15+h AH +15 Simm 3+80+h AS Simm 4+90+h AS

Multibreed Evaluation & Xbreeding YWTCow Breed MBEAngusSimmHeref Angus 1+65Base+h AS +h AH Angus h AS +15+h AH +15 Simm 3+80+h AS h HS +15 Simm 4+90+h AS h HS +25

Multibreed Evaluation & Xbreeding YWTCow Breed MBEAngusSimmHeref Angus lb Angus Simm Simm

Solution Publish within-breed EPDs –Let users find breed adjustments & heterosis Publish multibreed EPDs –Let users deal with heterosis coefficients & heterosis Publish all EPDs on a multibreed base with heterosis factors included according to the breed of dam for every ERT Use web-based decision support

Summary To date, the major value of the web has been convenience In future, the web will provide an interface to knowledge (eg nutritional requirements and heterosis factors) and information that for customized calculations to support your decisions Better decision support will give better decisions (eg more profit)