1. The father of genetics is_____ A. Charles Darwin B. Gregor Mendel C

Slides:



Advertisements
Similar presentations
Chapter 10: Mendel and Meiosis September
Advertisements

Biology Ch. 11 Review.
Chapter 14 Part I: Mendel and the Gene Idea This chapter details Mendel’s discovery of general laws of heredity as well as monohybrid dihybrid genetic.
Chapter 11 Introduction to Genetics. Genetics The study of the inheritance of traits.
A Monk’s Life Gregor Mendel was a Austrian monk in charge of tending the garden. He Studied the common garden pea to become...
Mendelian genetics. *Gregor Mendel is considered the “father of genetics.” *In 1843, at the age of 21, he became a monk in Austria where he was put in.
11-1 The Work of Mendel What does every living thing inherit from their parents? Genetics – the study of heredity Look around at your classmates and make.
copyright cmassengale
Journal #7 On a sheet of paper draw a venn diagram, we will be comparing/contrasting mitosis and meiosis.
Genetics and Heredity. helped-us-understand-genetics-hortensia-jimenez-diaz Watch this video before.
Mendelian Genetics.
Genetics Patterns of Inheritance. Genetics is the study of heredity Heredity: the transmission of traits from parents to offspring. Originally, people.
What is genetics? GENETICS is the branch of Biology that studies heredity. HEREDITY is… the passing on of characteristics from parents to offspring. Mendelian.
Genetics Chapter 11.
Classical Genetics Gregor Mendel. Gene versus Allele Gene - a sequence of DNA in a specific location on a chromosome Determines traits in an organism.
Genetics Chapter 11. Gregor Mendel  “Father” of genetics  Austrian monk, mid-1800s  Researched pea plant inheritance –Easy to grow, fast reproduction.
Mendelian Genetics. Genetics and heredity For a long time, general ideas of inheritance were known ++ =
Mendelian Patterns of Inheritance
GENETICS Introduction. Genetics Study of heredity Gregor Mendel is considered the “father of genetics” Mendel studied the traits of pea plants A trait.
1 Mendelelian Genetics 2 Gregor Mendel ( ) Responsible for the Laws governing Inheritance of Traits.
Chapter 10. Mendel’s Laws of Heredity Who is Gregor Mendel? –Mid 19 th century (1865) –Austrian monk –Loved statistics –Enjoyed gardening –First to apply.
Genetics & The Work of Mendel Genetic Terminology Trait - any characteristic that can be passed from parent to offspring Heredity - passing of traits.
Mendel & the Origins of Genetics
1 Intro to Mendelelian Genetics 2 Gregor Mendel ( ) Responsible for the Laws governing Inheritance of Traits.
Mendel & Genetics Review Powerpoint
Mendel’s Theory.  Mendel correctly concluded from his experiments that each pea plant has two separate “heritable factor” for each trait – one from each.
Copyright © The McGraw-Hill Companies, Inc. Permission required for reproduction or display. Chapter 10 Patterns of Inheritance.
Review: Meiosis Sperm Father’s Characteristics Egg Mother’s Characteristics + Zygote Sexual Reproduction and Genetics Chapter 10.
Biology Ch. 12: Mendel and Heredity “What are the chances?”
10.2 and The Father of Genetics Gregor Mendel- Austrian Monk and Plant breeder Used pea plants to study how traits were inherited(heredity) Mendel.
Chapter 11 Introduction to Genetics Adapted from :
THE NECESSARY VOCABULARY & OTHER FACTS.  GREGOR MENDEL – THE FATHER OF GENETICS  AUSTRIAN MONK  RESEARCHED HOW TRAITS ARE PASSED FROM GENERATION TO.
Genetics Objective: There is a genetic basis for the transfer of biological characteristics from one generation to the next through reproductive processes.
Genetics and the Work of Gregor Mendel
Review Questions 1)What are the 4 bases that make up DNA? How do they pair up? 2)Name 2 differences between Mitosis and Meiosis: 3)Why do we need mitosis?
Warm up: Definitions Dominant – trait expressed, Capital letter (ex “B”) Recessive – trait masked, lowercase letter (ex “b”) Heterozygous – 1 dominant.
Ch. 11 Introduction to Genetics
1. The father of genetics is_____. A. Charles Darwin B. Gregor Mendel C. James Watson D. Albert Einstein ___.
Mendelian Genetics The Basics. Gregor Mendel Mendel was an Austrian monk who published his research on the inheritance of pea plant characteristics in.
CHAPTER 11 GENETICS Genetic discoveries 45 minutes.
Mendel’s Laws of Heredity
CHAPTER 11 GENETICS Genetic discoveries 45 minutes.
Genetics A study of inheritance Gregor Mendel Father of modern genetics Conducted research with pea plants Developed ideas of dominance and trait segregation.
Section 2: Mendelian Genetics
The Basis of Heredity Inheritance and Meiosis. Definitions Genetics = study of genes, the units on chromosomes that code for traits Heredity = study of.
Genetics and Heredity (Mendelian). History Genetics is the study of genes. Genetics is the study of genes. Inheritance is how traits, or characteristics,
The Work of Mendel. Heredity: the passing of traits from parents to offspring Genetics: Study of heredity Traits -inherited characteristics.
Genetics Notes Gregor Mendel Father of genetics Austrian monk worked with pea plants.
$200 $300 $400 $500 $100 $200 $300 $400 $500 $100 $200 $300 $400 $500 $100 $200 $300 $400 $500 $100 $200 $300 $400 $500 $100 Vocabulary 1 Mendel’s Peas.
1 Please pick up a copy of the notes. Please pick up a copy of the notes.
Mendelian Genetics Chapter 10/ Section 2. Mendelian Genetics Copyright © McGraw-Hill Education Gregor Mendel: The Father of Genetics The passing of traits.
Fundamentals of Genetics Gregor Mendel: Genetics Pioneer Genetics = study of __________. Gregor Mendel – Australian Monk Identified 7 pairs of contrasting.
The study of inheritance of traits.  Austrian Monk  Studied how traits were passed from parent to offspring  His ideas forms the foundation for the.
Patterns of Inheritance Chapter 9. Genetics The science of heredity. A distinct genetic makeup results in a distinct set of physical and behavioral characteristics.
An Introduction to Genetics. Every living thing – plant or animal, microbe or human being – has a set of characteristics inherited from its parent or.
Genetics The Wonder of Heredity. What is Genetics?  Genetics is the study of heredity  Heredity is the passing of traits from parents to offspring 
Gregor Mendel : Known as “THE FATHER OF GENETICS”. - laid the foundations for the SCIENCE OF GENETICS through his study of inheritance patterns of traits.
Introduction to Genetics
Aim: How were traits discovered?
Mendel's Genetics.
Mendel, Heredity and Punnett Squares
Mendelian Genetics.
Essential Questions What is the significance of Mendel’s experiments to the study of genetics? What is the law of segregation and the law of independent.
Today 1/25 Take a seat..
Review: Meiosis + Zygote Sperm Father’s Characteristics Egg
Gregor Mendel: The Father of Genetics!.
GENETICS: THE SCIENCE OF HEREDITY
Genetics.
Mendel and Genetics Genetics – study of heredity.
Genetics.
Presentation transcript:

1. The father of genetics is_____. A. Charles Darwin B. Gregor Mendel C. James Watson D. Albert Einstein ___

3. Mendel studied the inheritance of ___________ in the garden pea. A 3. Mendel studied the inheritance of ___________ in the garden pea. A. seed size B. seed color C. flower size D. all of the above ___

5. According to the blending theory of inheritance, a cross between plants with red flowers and plants with white flowers would yield only _____. A. plants with red flowers B. plants with white flowers C. plants with red and white flowers D. plants with pink flowers ___

7. Mendel's experiments are as applicable today as they were in 1860 due to _____. A. his careful experimental design B. his use of statistics to interpret his results C. his careful records of the numbers of offspring that expressed each characteristic D. all of the above ___

8. Mendel's true-breeding pea plants were created by _____. A 8. Mendel's true-breeding pea plants were created by _____. A. self-pollination B. cross-pollination ___

12. When an organism has two different alleles at a gene locus, it is referred to as _____. A. homozygous recessive B. homozygous dominant C. heterozygous ___

13. The allele that is expressed in a heterozygous organism is the _____ allele. A. dominant B. recessive ___

14. The word __________ refers to the alleles an individual receives at fertilization. A. genotype B. phenotype C. allotype D. lenotype ___

15. Which of the following is a phenotype. A. Tt B. heterozygous C 15. Which of the following is a phenotype? A. Tt B. heterozygous C. short D. T ___

16. When Mendel crossed a true-breeding tall plant with a true-breeding short plant the offspring were _____. A. 100% tall B. 50% tall, 50% short C. 100% medium ___

17. The product of a cross between two different strains that differ in regard to only one trait is known as a _____. A. true-breeding organism B. hybrid C. dihybrid D. homozygous organism ___

19. When Mendel crossed the hybrids (F1 generation) _____. A 19. When Mendel crossed the hybrids (F1 generation) _____. A. all the plants were tall B. all the plants were medium height C. 3/4 of the plants were tall, 1/4 of the plants were short ___

20. Mendel's law of segregation states _____. A 20. Mendel's law of segregation states _____. A. parents of contrasting appearance produce offspring of intermediate appearance B. factors for each trait separate during gamete formation C. organisms have two factors for each trait D. both B and C ___

21. A cross between two hybrids results in a _____ phenotypic ratio. A 21. A cross between two hybrids results in a _____ phenotypic ratio. A. 9:3:3:1 B. 1:2:1 C. 3:1 D. 1:1:1:1 ___

23. Each physical trait is controlled by _____ allele(s). A. one B 23. Each physical trait is controlled by _____ allele(s). A. one B. two C. three D. four ___

24. Mendel's true-breeding short plants in the P generation were _____ 24. Mendel's true-breeding short plants in the P generation were _____. A. homozygous recessive B. homozygous dominant C. heterozygous ___

25. There is only one allele for each trait in the gametes because _____. A. each organism has only one allele for each trait B. the homologous chromosomes separate during meiosis I C. mitosis reduces the number of chromosomes when gametes are formed ___

26. The recessive phenotype is displayed by organisms which are _____ 26. The recessive phenotype is displayed by organisms which are _____. A. homozygous dominant B. homozygous recessive C. heterozygous ___

27. Which of the following represents a heterozygous genotype. A. TT B 27. Which of the following represents a heterozygous genotype? A. TT B. Tt C. tt D. tall ___

28. Each gamete has only one allele for each trait because gametes are always _____. A. haploid B. diploid ___

29. A heterozygous (for one trait) organism can produce ______. A 29. A heterozygous (for one trait) organism can produce ______. A. only one type of gamete B. two types of gametes ___

30. Which of the following gametes would Mendel's true-breeding tall plants in the P generation have produced? A. T B. T or t C. t ___

34. If a person is heterozygous for unattached earlobes, their genotype must be _____. A. EE B. Ee C. ee ___

35. Which of the following represents a type of gamete. A. Tt B. TT C 35. Which of the following represents a type of gamete? A. Tt B. TT C. t D. tt ___

39. Mendel relied heavily on his knowledge of ____ to interpret the results of his experiments. A. anatomy B. microbiology C. statistics D. physics ___

40. The probable results of a genetic cross can be determined by using _____. A. a Punnett square B. the laws of probability C. both A and B ___

42. If yellow seed color is dominant over green seed color in pea plants, we could use _____ to represent a homozygous dominant yellow seed producing plant. A. Y B. y C. YY D. Yy ___

44. Mendel crossed his F1 generation tall plants with true-breeding, short plants. The results were a __________ phenotypic ratio. A. 1:1 B. 2:1 C. 3:1 D. 4:1 ___

45. If an individual with the dominant phenotype is crossed with an individual with the recessive phenotype and all the offspring have the dominant phenotype, it would be concluded that the individual with the dominant phenotype is _____. A. homozygous dominant B. heterozygous ___

48. If the chance of E = 1/2 and the chance of e = 1/2, then the chance of Ee = _____. A. 1/2 B. 1/4

49. E = unattached earlobes. e = attached earlobes 49. E = unattached earlobes. e = attached earlobes. In the cross of Ee and Ee, the chance of a child with unattached earlobes is _____. A. 1/2 B. 1/4 C. 3/4 ___

51. The mother can roll her tongue (dominant phenotype), but her child cannot (recessive phenotype). The mother's phenotype must be _____. A. TT B. Tt C. tt ___

52. A mother and child can roll their tongues (dominant phenotype), but the father cannot (recessive phenotype). The child's phenotype must be _____. A. TT B. Tt C. tt ___

53. If two flies heterozygous for wing length and body color are crossed, which of the following are possible results? A. chance of L, long wings = 3/4 B. chance of l, short wings = 1/2 C. Chance of G, grey body = 1/4 D. all of the above are true ___

54. A cross in which true-breeding plants differ in two traits is known as a __________ cross. A. test B. dihybrid C. multi trait D. hybrid ___

55. Which is a mutant characteristic in fruit flies. A. gray body B 55. Which is a mutant characteristic in fruit flies? A. gray body B. black body C. long wings ___

56. How many different types of gametes can a fly with the genotype LlGg produce? A. one B. two C. three D. four ___

57. When two dihybrid organisms are crossed and simple dominance is present in both genes a _____ phenotypic ratio will result. A. 1:2:1 B. 3:1 C. 9:3:3:1 D. 1:1:1:1 ___

58. If we represent fruit fly traits with the following letters: L = long wings, l = short wings, G = gray body, g = black body, then an organism with the genotype LLGg will _____. A. have long wings and a gray body B. have long wings and a black body C. have short wings and a gray body D. have short wings and a black body ___

59. The organism with the genotype LLGg will produce _____ type(s) of gamete(s). A. one B. two C. three D. four ___

60. If the chance of having long wings is 3/4 and the chance of having a black body is 1/4, then the chance of having long wings and a black body are _____. A. 9/16 B. 4/16 C. 3/16 D. 1/16 ___

61. If the chance of having short wings and a black body is 1/16 and the chance of having short wings is 1/4, then the chance of having a black body must be _____. A. 1/4 B. 3/4 C. 1/12 ___

62. Which of the following types of gametes is not produced by an organism with the genotype LLGg? A. LG B. lG C. Lg ___

65. In dihybrid genetics problems, the individual has _____ allele(s) 65. In dihybrid genetics problems, the individual has _____ allele(s). A. one B. two C. three D. four ___

66. If we find the genotype of an individual to be AABbcc, we've examined alleles for _____ trait(s). A. one B. two C. three D. four ___

68. Which of the following genotypes represents an organism that is homozygous recessive for two traits? A. lg B. Llgg C. llgg D. LLGG ___

72. If the parents are heterozygous for cystic fibrosis (Ff x Ff), then each offspring has a _____ chance of having cystic fibrosis. A. 2% B. 25% C. 50% D. 75% ___

73. Selective breeding can be used to produce _____. A 73. Selective breeding can be used to produce _____. A. crops with higher yields B. sheep with thicker coats C. chickens that lay larger eggs D. all of the above ___

74. To determine whether an individual is homozygous dominant or heterozygous for either of two traits a cross with an individual with a _____ genotype could be done. A. LLGG B. LlGg C. llgg D. llGG ___

75. If an organism that is homozygous dominant for two traits is crossed with an organism that is homozygous recessive for the same two traits, the offspring will _____. A. all have the dominant phenotype for both traits B. have a 9:3:3:1 phenotypic ratio C. have a 1:1:1:1 phenotypic ratio D. have a 1:1 phenotypic ratio ___

76. Which of the following is a gamete? A. LLGg B. Gg C. Lg D. llgg ___

78. If plants with tall stems and green pods are dominant to plants with short stems and yellow pods, a cross between two plants heterozygous for each trait will yield _____ short plants with green pods. A. one B. three C. six D. nine ___