Challenges to Biomed 2010 BCT. Analyze the Role of Transgenic Animals – Early Beginnings Bio - means "Li Techno - means "tools” -ology means "the study.

Slides:



Advertisements
Similar presentations
Genetic Engineering Genetic Engineers can alter the DNA code of living organisms. Selective Breeding Recombinant DNA PCR Gel Electrophoresis Transgenic.
Advertisements

Genetic Engineering Genetic Engineers can alter the DNA code of living organisms. Selective Breeding Recombinant DNA Gel Electrophoresis Transgenic Organisms.
Biotechnology Unlocking the secrets of life
Chapter 13 section 3. To understand that there are natural clones (twins, certain plants, bacteria) To understand that there are artificial clones (plants,
At the end of this lesson you should be able to 1. Define Genetic Engineering 2. Outline the process of genetic engineering involving some or all of the.
Biotechnology Unit 3.04.
Chpt. 19: Genetic Engineering.
Genetic Engineering II
Genetic Engineering Genetic Engineers can alter the DNA code of living organisms. Selective Breeding Recombinant DNA Transgenic Organisms Cloning Selective.
CHAPTER 13 GENETIC ENGINEERING
Genetic Engineering Chapter 13 (Sections 1, 2 and 4)
DNA Technology and its Applications. Objective  SB2. Students will analyze how biological traits are passed on to successive generations.  f. Examine.
#19 Genetic Engineering & Biotechnology DNA & RNA Standard 5C.
THE BASIS FOR TRANSGENIC ORGANISMS. TRANSFORMATION The incorporation of a piece of naked DNA (not attached to cells) from one organism into the DNA of.
Chapter 13 Section 4 Applications of Genetic Engineering
L.97 Warm-up. L.95 What is the difference between: 1.a mastectomy and a mammography? 2.Living will and durable power of attorney? 3.CT scan and MRI? 4.Preciptin.
Genetic Engineering Regular Biology. Selective Breeding  This is the process of allowing those organisms with specific characteristics to reproduce 
Genetic Engineering Genetic Engineers can alter the DNA code of living organisms. Selective Breeding Recombinant DNA PCR Gel Electrophoresis Transgenic.
Objective BT11.02:Analyze transgenic animals.. Early beginnings Biotechnology – collection of scientific techniques that use living cells and molecules.
Daily Entry 1. How do you feel about humans being genetically modified to be smart? Athletic? Pretty? 2. What would be pro and cons of this technique?
Challenges to Biomedical Research. Personal Beliefs About Biomedical Research 1. There are different beliefs about biomedical research 2. Differences.
13.1 Changing the Living World
Aim: What is genetic engineering? Do Now: Read pg. 53 What are the different methods used to manipulate DNA? Hw: Re-read pgs Answer Regents Practice.
Genetic Engineering Conceptual Biology Ch. 5.3.
4.3-Reproductive Strategies & Technologies
At the end of this lesson you should be able to 1. Define Genetic Engineering 2. Understand that GE alters DNA 3. Understand the function of restriction.
Chapter 13: sec. 4 Genetic Engineering.
Biotechnology Notes Unit 3 IN 81
Modern Day Genetics.
A Brave New World.
Chapter 15: Genetic Engineering
Genetic Engineering Genetic Engineers can alter the DNA code of living organisms. Selective Breeding Recombinant DNA PCR Gel Electrophoresis Transgenic.
Genetic Engineering Applications. Using your knowledge of genetic engineering, explain how the plant and dog glow. A firefly’s gene (for the enzyme luciferase)
Genetic Engineering and Biotechnology. Genetic Engineering Genetic Engineering: a sequence of DNA (gene) from one organism is: identified, cut and removed.
DNA Technology and its Applications. Objective  AKS 9. Analyze how biological traits are passed on to successive generations  9g. Examine the use of.
Biotechnology Foundations of Technology Standard 15 Students will develop an understanding of and be able to select and use agricultural and related biotechnologies.
Biotechnology & Genetic Engineering Advanced Animal Science Chapter 10 Mrs. Balmer.
Concepts of Engineering and Technology BIOTECHNOLOGY Science, Technology, and Ethics Copyright © Texas Education Agency, All rights reserved.
Challenges to Biomedical Research
Applications of Genetic Engineering
Turner College & Career High School  2017
Biotechnology Genetic Engineering.
A Brave New World.
Chpt. 19: Genetic Engineering.
DNA Technology and its Applications
Genetic Engineering Genetic Engineers can alter the DNA code of living organisms. Selective Breeding Recombinant DNA PCR Gel Electrophoresis Transgenic.
13–4 Applications of Genetic Engineering
Genetically Modified Organisms
Genetic Engineering Genetic Engineers can alter the DNA code of living organisms. Selective Breeding Recombinant DNA PCR Gel Electrophoresis Transgenic.
Genetic Engineering Genetic Engineers can alter the DNA code of living organisms. Selective Breeding Recombinant DNA PCR Gel Electrophoresis Transgenic.
Challenges in Biomedical Technology
Genetic Technology.
Applications of Genetic Engineering
DNA Technology.
Genetic Technology.
Transgenic Animals Introduction.
Chpt. 19: Genetic Engineering.
Transgenic Animals Unit 3, Chapter 3.
Topic: Genetic Engineering Aim: How do scientists alter(change) the DNA make up of living organisms? Genetic Engineers can alter the DNA code of living.
Genetic Engineering Genetic Engineers can alter the DNA code of living organisms. Selective Breeding Recombinant DNA PCR Gel Electrophoresis Transgenic.
Genetic Engineering Genetic Engineers can alter the DNA code of living organisms. Selective Breeding Recombinant DNA PCR Gel Electrophoresis Transgenic.
What do you think about eating genetically modified foods?
More biomedical research challenges
Q.Q. 1/17/19 What does “genetic engineering” mean?
CHALLENGES TO BIOMEDICAL RESEARCH
Genetic Engineering Genetic Engineers can alter the DNA code of living organisms. Selective Breeding Recombinant DNA PCR Gel Electrophoresis Transgenic.
Biomedical Technology 1
Recombinant DNA and Genetic Engineering
Genetic Engineering Genetic Engineers can alter the DNA code of living organisms. Selective Breeding Recombinant DNA PCR Gel Electrophoresis Transgenic.
Presentation transcript:

Challenges to Biomed 2010 BCT

Analyze the Role of Transgenic Animals – Early Beginnings Bio - means "Li Techno - means "tools” -ology means "the study of.“ Biotechnology collection of scientific techniques that use living cells and molecules to make products and solve problems

Analyze the Role of Transgenic Animals – Early Beginnings Transgenic Organisms Organism that contain another species’ genes within their chromosomes

T The practice of cutting, pasting, and copying DNA of one species into anotherhttp://

Analyze the Role of Transgenic Animals – Early Beginnings Historically – used in selective breeding of livestock, controlled plant pollination, and microorganisms to bake bread, brew beer and make cheese

An early example of the use of biotech is: A.Using cream to make butter B.Using microorganism to make beer C.Using wood to make paper

1700’s ’s - Today

What is another example of selective breeding? A.Lividity or hypostasis B.Mutation C.Eugenics

Transgenics is done by transferring specific genes from one species to another

Analyze the Role of Transgenic Animals – Early Beginnings

Transgenics: broken down it means A.Across origins (original beginning) B.Through origins C.Into origins

First transgenic organisms were bacteria Reproduce quickly and grow easily in the lab Pharmaceutical companies use transgenic bacteria to produce insulin, human growth hormone, and interferons

As bacterium goes, E. coli is a public health scourge, but a lab favorite. It’s one of the most thoroughly studied microbes out there, and so one of the most easily manipulated for genetic engineering. Scientists can tweak its metabolic pathways to produce insulin, antibiotics and anticancer drugs; they can increase its ability to make ethanol or even engineer it to manufacture hydrocarbons. insulin

Pharmaceutical companies use bacteria to produce all of the following except: A.Bread, cheese, beer B.Antibiotics, insulin, C.Anticancer drugs and interferons (antiviral-part of the immune system)

Analyze the Role of Transgenic Animals – Early Beginnings Scientists around the world use customized transgenic animals for their own research Species include sheep, goats, cows, chickens, pigs, mice, rabbits, rats, chickens and fish

Benefits of Transgenic Animals Animal models Mice are the most often used transgenic research animal Use transgenic mice to study cancer, multiple sclerosis, muscular dystrophy, Alzheimer’s disease and immune deficiencies

Benefits of Transgenic Animals Pharmaceutical production “Pharming” is the use of transgenic animals to produce insulin and other substances used in medicine Introducing the gene into a large farm animal produces more product and is more economical than using bacteria in the lab

Pharming A goat at GTC Biotherapeutics’ farm. The New York Times, February 8, 2009, by Andrew Pollack — The 21st Century opens onto a new era in farming and pharmaceuticals, the Food and Drug Administration on Friday approved the first drug produced by livestock that have been given a human gene. The drug, meant to prevent fatal blood clots in people with a rare condition, is a human protein extracted from the milk of genetically engineered goats. At the same time, the F.D.A. also approved the goats used to make the drug, the first such animals cleared under guidelines the agency adopted only last month to regulate the use of transgenic animals in the nation’s drug and food supply.

An example of pharming is: A.Sharing drugs obtained from parents prescriptions B.Using transgenic animals to produce substances used in medications C.Improving livestock with transgenic research

What animal is the most commonly used animal in research? A.Rodents B.Rabbits C.Monkeys

Organ donors –Xenografts – organs from other species used in human transplant –Limited success because of rejection An awestruck world knew her only as Baby Fae. The true identity of the two-week-old infant who made medical history on October 26, 1984 was kept strictly confidential by officials at California's Loma Linda University Medical Center, where the successful transplant of a young baboon's heart was performed to keep the baby alive. Dr. Bailey hinged his hopes for Baby Fae on cyclosporine and the fact that an infant's immune system is not fully developed. The baboon heart gave Baby Fae twenty one more days to live, making her the longest surviving recipient of an animal heart. She died on November 15 when her kidneys failed and her heart stopped beating. Her funeral was a nationally televised event.

Researchers producing transgenic pigs e/shows/organfarm/etc/cron.htmlhttp:// e/shows/organfarm/etc/cron.html Organs “look” similar to human’s –not attacked by immune system Need alternatives to human organ transplants due to the need for organs Cloned Pigs as Organ Donors? Kristen Philipkoski “The five piglets were cloned with thoughts of animal-to-human organ transplants dancing in scientists' heads, but not necessarily in the near future. Most researchers believe that such "xenotransplantation," if it ever is successful, will take many years.” Scientists Clone Pig For Human Organ Transplant Posted on: Wednesday, 22 April 2009, 15:34 CDT “Scientists in South Korea have cloned a pig whose organs can be transplanted into humans.”

The biggest challenge to using pig organs for human transplant was: A.Rejection B.Expense C.Protest by animal rights groups

Livestock improvement Transgenic research being used to improve livestock but the process is expensive Consumers resist eating genetically engineered produce

FYI As reported by Maria Gallagher, in the June 26, 2002 issue of the Philadelphia Inquirer, by reading the PLU code, you can tell if the fruit was genetically modified, organically grown or produced with chemical fertilizers, fungicides, or herbicides. Here's how it works: For conventionally grown fruit, (grown with chemicals inputs), the PLU code on the sticker consists of four numbers. –Organically grown fruit has a five-numeral PLU prefaced by the number 9. –Genetically engineered (GM) fruit has a five-numeral PLU prefaced by the number 8. – For example, A conventionally grown banana would be: 4011 An organic banana would be: A genetically engineered (GE or GMO) banana would be:

–Production of transgenic animals –The transgene (which contains the DNA the scientist wants to transfer) is introduced into a single-cell embryo –The embryo is transferred to a surrogate mother of the same strain –Success rate is low (10%-30%) in mice –Success rate decreases in mammals

Scientist produce transgenic animals by: A.Injecting a transgene intravenoulsy B.Breeding two different organisms with each other C.Injecting a transgene into a single cell embryo

Care of transgenic animals »Most do not require special care »Some develop a susceptibility to disease