Potential market value of reproductive technologies Sven König, Dep. Anim. Breed., University of Kassel.

Slides:



Advertisements
Similar presentations
Reliable genomic evaluations across breeds and borders Sander de Roos CRV, the Netherlands.
Advertisements

Use of OPU-IVP and SO at CRV breeding program in the genomic era
Course: Advanced Animal Breeding
ARTIFICIAL INSEMINATION IS AI FOR YOU? PUREBRED COMMERCIAL.
G.R. Wiggans Animal Improvement Programs Laboratory Agricultural Research Service, USDA Beltsville, MD 2009 G.R. WiggansCroatian.
Cloning Cattle A. (Sandy) E. McClintock Embryo Multiplication and Transfer “Cloning” Until recently - embryo cloning only –Many labs are involved worldwide.
Artificial selection in animals. Artificial selection livestock.
Wiggans, 2013RL meeting, Aug. 15 (1) Dr. George R. Wiggans, Acting Research Leader Bldg. 005, Room 306, BARC-West (main office);
ADSA 2002 (HDN-P1) 2002 Comparison of occurrence and yields of daughters of progeny-test and proven bulls in artificial insemination and natural- service.
Selection and Application – Making More Profitable Holsteins (male selection) North American Perspective Marjorie Faust and Katie Olson USA.
THE ISRAELI BREEDING PROGRAM elite cows selected based on their genetic evaluations. About ½ of these cows are mated to local elite bulls, and.
How Genomics is changing Business and Services of Associations Dr. Josef Pott, Weser-Ems-Union eG, Germany.
But who will be the next GREAT one?. USA Bull Proofs * Bulls are ranked based upon their DAUGHTER’S (progeny) production and physical characteristics.
Mating Programs Including Genomic Relationships and Dominance Effects
Mating Programs Including Genomic Relationships and Dominance Effects Chuanyu Sun 1, Paul M. VanRaden 2, Jeff R. O'Connell 3 1 National Association of.
Principles of Selecting and Mating Farm Animals (Chapter 9) Genetic improvement of farm animals –Involves selection (choosing the best to be parents) –Involves.
Changes in the use of young bulls K. M. Olson* 1, J. L. Hutchison 2, P. M. VanRaden 2, and H. D. Norman 2 1 National Association of Animal Breeders, Columbia,
2003 Clone risk assessment workshop (HDN-1) Performance of dairy cattle clones and evaluation of their milk composition H. Duane Norman*,1 and Marie K.
Van Eenennaam 11/17/2010 Animal Genomics and Biotechnology Education Alison Van Eenennaam, Ph.D. Cooperative Extension Specialist Animal Biotechnology.
George R. Wiggans Animal Improvement Programs Laboratory Agricultural Research Service, USDA, Beltsville, MD National Association.
 Selection & Culling Strategies Mario S. Mongeon; OMAFRA.
Artificial Insemination GCSE Module 14 Biotechnology Lesson Ouch!
Selection for Disease Resistance Gert Pedersen Aamand Nordic Cattle Genetic Evaluation.
Breeding Jersey cattle for Africa in the era of genomics Prof Norman Maiwashe 1,2 (PhD, Pri. Sci. Nat) 1 ARC-Animal Production Institute Private Bag X2.
Bovine Genomics The Technology and its Applications Gerrit Kistemaker Chief Geneticist, Canadian Dairy Network (CDN) Many slides were created by.
John B. Cole Animal Improvement Programs Laboratory Agricultural Research Service, USDA Beltsville, MD , USA The use and.
Edited by: Jessica Hawley & Brandon Freel Compiled by: IMS.
B66 Heritability, EPDs & Performance Data. Infovets Educational Resources – – Slide 2 Heritability  Heritability is the measurement.
John B. Cole, Ph.D. Animal Improvement Programs Laboratory Agricultural Research Service, USDA Beltsville, MD, USA The U.S. genetic.
2005 Paul VanRaden Animal Improvement Programs Laboratory Agricultural Research Service, USDA, Beltsville, MD An Example from Dairy.
2005 Paul VanRaden Animal Improvement Programs Laboratory, USDA Agricultural Research Service, Beltsville, MD, USA Selection for.
2007 Paul VanRaden and Jan Wright Animal Improvement Programs Lab, Beltsville, MD 2013 Measuring genomic pre-selection in theory.
2003 Melvin Tooker, Paul VanRaden, Ashley Sanders, and George Wiggans Animal Improvement Programs Laboratory Agricultural Research Service, USDA, Beltsville,
 Objective 7.03: Apply the Use of Production Records.
Why is it important for Geno to establish research collaboration with the U.S? Sverre Bjørnstad Sverre Bjørnstad.
2003 P.M. VanRaden Animal Improvement Programs Laboratory Agricultural Research Service, USDA, Beltsville, MD Genetic Evaluations.
2006 Mid-Atlantic Dairy Grazing Conference, 2006 (1) Is There a Need for Different Genetics in Dairy Grazing Systems? H. D. Norman, J. R. Wright, R. L.
Beef Data & Genomics Programme Information Meetings 2015 Teagasc Beef Specialists.
How Does Additional Information Impact Accuracy? Dan W. Moser Department of Animal Sciences and Industry Kansas State University, Manhattan
Genetic and environmental factors that affect gestation length H. D. Norman, J. R. Wright, M. T. Kuhn, S. M. Hubbard,* and J. B. Cole Animal Improvement.
John B. Cole Animal Genomics and Improvement Laboratory Agricultural Research Service, USDA Beltsville, MD What.
Embryo production in Finland Embryo collections (flushing) are performed on farms and at Hollola December 2014 VikingGenetics initiated embryo flushings.
Multi-trait, multi-breed conception rate evaluations P. M. VanRaden 1, J. R. Wright 1 *, C. Sun 2, J. L. Hutchison 1 and M. E. Tooker 1 1 Animal Genomics.
H. Duane Norman Animal Improvement Programs Laboratory Agricultural Research Service, USDA, Beltsville, MD California Dairy Herd.
H.D. Norman* J.R. Wright, P.M. VanRaden, and M.T. Kuhn Animal Improvement Programs Laboratory Agricultural.
2007 John Cole, Paul VanRaden, George Wiggans, and Melvin Kuhn Animal Improvement Programs Laboratory USDA Agricultural Research Service, Beltsville, MD,
G.R. Wiggans Animal Improvement Programs Laboratory Agricultural Research Service, USDA Beltsville, MD G.R. WiggansADSA 18.
G.R. Wiggans Animal Improvement Programs Laboratory Agricultural Research Service, USDA Beltsville, MD Select Sires‘ Holstein.
G.R. Wiggans Animal Improvement Programs Laboratory Agricultural Research Service, USDA Beltsville, MD 2011 National Breeders.
John B. Cole Animal Improvement Programs Laboratory Agricultural Research Service, USDA Beltsville, MD Biological Insights.
Meori Rosen Past, Present, and Future Dairy Cattle Breeding in Israel.
Biotechnology in the Animal Science Industry. a. Animal cloning – 1) For product uniformity such as drumstick uniformity in the poultry industry.
Bull Selection: Beef Kay Farmer Madison County High School edited by Billy Moss and Rachel Postin July 2001.
Fundamentals of the Eurostar evaluations
ARTIFICIAL INSEMINATION
ARTIFICIAL INSEMINATION
Genetics – Applications to Agriculture
Possibilities and requirements for organic dairy breeding lines
Genetic diversity of sires used in the Irish dairy industry
Sijne van der Beek and Henk Geertsema
Selection Schemes By Muzvondiwa J.V..
Exploring the Beef Industry
SELECTION SCHEMES.
A National Sire Fertility Index
Genomic Selection in Dairy Cattle
Data Holstein breedings from 2006 through 2008 Total breedings
Percent of total breedings
Increased reliability of genetic evaluations for dairy cattle in the United States from use of genomic information Abstr.
Alternatives for evaluating daughter performance of progeny-test bulls between official evaluations Abstr. #10.
Expected Progeny Difference EPD
Presentation transcript:

Potential market value of reproductive technologies Sven König, Dep. Anim. Breed., University of Kassel

Definition Biotechnology = Application of technologies with the aim of direct or indirect impact on an animals‘ performance Biotechnologies are a major component in animal breeding since domestication, (e.g. castration) Picture:

Biotechnologies today Reproductive technologies  Artifical Insemination (AI)  Embryo Transfer (ET)  Ovum Pick Up (OPU) and In Vitro Fertilization (IVF)  Semen-Sexing  Cloning Molecular genetics  Marker Assisted Selection (MAS)  Genomic Selection (GS)

Content Discussing reproductive technologies in the context of animal breeding Genetic gain  Bulls in top lists  Market value

Aim of Biotechnologies Maximization of genetic gain per time unit  G = I * r TI *  A L genetic gain selection intensityaccuracygenetic variance generation interval

1 st Biotechnology Artificial Insemination (AI) ~ 1950Use of AI in Germany for preventing the spread of epidemic plagues (e.g. Brucella abortus) ~1966Use of AI as a base for progeny testing programs

Progeny testing (PT) program Entire population PT: production, conformation, fertility,… Bull sires Cow sires milk recording herdbook AI Bull dams Bull sires Random mating design Test bulls ‚waiting‘ bull Male calves  G = i * r TI *  A L

PT-Program: Problems Entire population PT: production, conformation, fertility,… Bull sires Cow sires milk recording herdbook AI Bull dams Bull sires Random mating design Test bulls ‚waiting‘ bull Male calves „Manipulation“ due to preferential treatment Time consuming and expensive

PT-Program: Problems  Ø 0.19 % increase of inbreeding per year  0.95 % increase of inbreeding per generation (  F = )  N e = 52 animals ( König and Simianer, 2006)

Pedigree Analysis Wisconsin Admiral Burke Lad Johanna Rag Apple Pabst

No. of AI-stations worldwide (Thibier und Wagner, 2002)

(Calculation based on INTERBULL data; N = foreign daughters; Miglior and Chesnais, 2009) Market share of semen by country

Embryo transfer (ET) 2 nd Biotechnology

years Birth Young Bull (YB) and full sibs 1. calf Full sibs Full sib testing Progeny testing Birth YB Semen production Birth of daughters 1. calf of daughters EBV 4 years 7 years EBV MOET-Breeding Programs  G = i * r TI *  A L

(Bosselmann, 2007) Success of ET Informationr TI (Accuracy of Selection) 100 daughters Full sibs0.5 5 Full sibs Full sibs Full sibs0.64

ET/DT-BP in Osnabrück (Kandzi, 1988) „MOET“ in practice „Ramos“ > 700,000 doses of semen in 40 different countries

Relevance of MOET in the genomic era Central test on station for potential Bull Dam (BD)  Not necessary: Because r MG > r TI from own performance (König and Swalve, 2009)

Relevance of MOET in the genomic era Importance of ET:  Two different opinions 1.Strategy: Genotyping of BD, producing a high no. of offspring, differentiation among full sib embryos based on GBV 2.Strategy: 2-pathway-breeding program (König and Swalve, 2009) Forget the BD and ET, and genotype males calves in a large scale in the population. Why? Meiosis on the way from cow to calf Superior especially for new functional traits

Ø TBV of 5 selected sires ETWithout ET RND PI PHEN HERD PGBV RND PI PHEN HERD PGBV EBV PHEN EBV PHEN Genetic merit, ET, GS (Wensch et al., 2011)

Market value of ET  Generating of YB from interesting BD for AI-breeding programs  80% of all AI-sires in Germany are generated from ET!  Elite calves and heifers for sale (elite auction) are generated from ET!

Ovum Pick Up (OPU) and In Vitro Fertilization (IVF) 3 rd Biotechnology 12 follicles at ovary 10 oocytes flushed 2-3 blastocytes (embryos) 4-6 embryos / week 2-3 calves / donor * week Ovum Pick Up (OPU) and In Vitro Fertilization (IVF) 12 follicles at ovary 10 oocytes flushed 2-3 blastocytes (embryos) 4-6 embryos / week 2-3 calves / donor * week

ET OPU 1982 Birth of the first OPU / IVF - calf (Bracket et al., „Frosty“) since 1995 Applications of OPU / IVF in the breeding program of ZEH/RPN OPU/IVF versus ET (Roschlau, 2005) ET-flushinjgs / OPU – sessions per year 1982 Birth of the first OPU / IVF - calf (Bracket et al., „Frosty“) since 1995 Applications of OPU / IVF in the breeding program of ZEH/RPN OPU/IVF versus ET ET-flushinjgs / OPU – sessions per year ET OPU

4 th Biotechnology Semen Sexing Y Y Y Y Y X X X X X X X right Y left female offspring male offspring

1.Reduction of „test-inseminations“ of YB in a conventional Breeding Program Young bulls for producing female offspring: reduction of test capacity by 50% 2.Generating of male offspring from the best BD for AI Semen sexing and Breeding 3.Generating of female offspring from the best Cow Dam within farms: Increasing within-farm selection intensity  G = i * r TI *  A L

Sexed semen: On-farm strategy Disadvantages Higher costs Lower pregnancy rates Advantages Female calves (genetic gain) Improved calving ease,… Economic calculations:  0 My strategy Insemination of heifers: using sexed semen Insemination of cows: using conventional semen „Goldday“

Sexed semen: Market value Breed % sexed Brown Swiss ,2 Red Holstein ,6 Holstein ,3 Jersey ,0 Limousin ,8 Ayrshire Montbeliarde ,6 Total ,9 (Swissgenetics, Toro 07-12)

5 th Biotechnology Cloning = Generating of identical copies (apart from cytoplasmatic effects) embryo cloning – adult cloning Starbuck II; geb Copy of an outstanding sireCopy of a great show-cow Lauduc Broker Mandy

Cloning and breeding  G = i * r TI *  A L Cloning is no instrument for animal breeding, because breeding needs genetic variation, but cloning results in uniform animals!

30% 40% 50% 60% 70% 80% 90% 100% Clones Bulls progeny test Records Reliability of EBV (h 2 =0.25) Reliability  G = i * r TI *  A L (Slide by A.E. McClintock)

Market value of clones: Theory Clone breeding program implies breeding in a nucleus (Teepker and Smith, 1998; Teepker, 1990)  Dairy cattle farmers will have access to tested and untested clones; genetic level in the population could be higher than in the nucleus (breeding activities only in the nucleus) Costs for clones (theoretical derivations) (McClintock, 1998; de Boer, 1994)  15 – 20 Euro for untested clones  150 – 200 Euro for tested clones

Market value of clones: Practice Costs for cloning are high (10,000 – 20,000 Euro per cow) Question: Acceptance of consumers (meat and milk) Other efficient reproduction technologies exist (AI, ET) Market value is only given for famous cows or bulls Vandyk-K Integrity Paradise Ex-96-2E Paradise Clone sells for $50,000 in 2003! (Cyagra, Inc., 197 Bossler Road, Elizabethtown USA) Shoremar S Alicia 3E-97 „Alicia’s owners sold Alicia’s Clone before it was born for $100,000 in October of 2002“ (

Final Conclusions AI and GS: substantial impact on genetic gain and market value ET or OPU/IVF: more relevant in the pre-genomic era Semen Sexing: a valuable tool for improving on-farm selection (requires good farm management) Cloning: no breeding, no risk, no fun