* Your assessment is very important for improving the workof artificial intelligence, which forms the content of this project
Download Year 13 Biology, 2011.
Epigenetics of diabetes Type 2 wikipedia , lookup
Adaptive evolution in the human genome wikipedia , lookup
Molecular cloning wikipedia , lookup
Epigenomics wikipedia , lookup
Public health genomics wikipedia , lookup
Gene expression programming wikipedia , lookup
Primary transcript wikipedia , lookup
DNA vaccination wikipedia , lookup
Genome evolution wikipedia , lookup
Nutriepigenomics wikipedia , lookup
Vectors in gene therapy wikipedia , lookup
Non-coding DNA wikipedia , lookup
Synthetic biology wikipedia , lookup
Koinophilia wikipedia , lookup
Site-specific recombinase technology wikipedia , lookup
Deoxyribozyme wikipedia , lookup
Point mutation wikipedia , lookup
Genetic engineering wikipedia , lookup
Designer baby wikipedia , lookup
Biology and consumer behaviour wikipedia , lookup
Therapeutic gene modulation wikipedia , lookup
Helitron (biology) wikipedia , lookup
Artificial gene synthesis wikipedia , lookup
Welcome to Year 13 Biology, 2011. This course includes… 1. Investigating the ecological niche of an organism 2. Contemporary biological techniques and issues 3. Role of DNA in gene expression 4. Animal behaviour and plant responses 5. Evolutionary patterns and trends in human evolution The focus of this course is to give you a high level, broad understanding of biology ideas and explanations. Assessments are secondary to this. However, you are expected to be working at an appropriate level. Mount Aspiring College Course Outline for Students Year 13 Biology; NCEA Level 3 Assessment and reassessment All assessment is during the school year and is at NCEA Level 3. There will be three internal assessments during the year. Table 1 has more detailed information on the topics we will cover and assessments. There will be no reassessment opportunities, and only one resubmission opportunity for any internal assessments. There will be clear signposts to your Whanau Teacher, Dean and parents if you are not working at an appropriate level. You are expected to be working at a level considered appropriate and that has been negotiated with your Dean and parents. The final examination in November assesses the external standards. Rules and Regulations There are some very specific rules about assessments. Please refer to your NCEA handout, particularly about the ownership of work and plagiarism. Stationary Year 13 Biology Student Workbook – to be purchased through school. A 20+ page clearfile and refill to use for laboratory work and research. Homework Homework will be assigned when appropriate and you will be expected to complete it on time. It is also expected that you revise work covered during class on a daily basis. Tutorials Ask for them when you want them. Laboratory work Some practical work is assessed. All practical work is to be attempted. Be safe in the lab: follow and learn all the rules set down. In case of an emergency, listen to your teacher: they know what they are doing. Calendar Approx. Time (weeks) Standard Number Description Credits Internal/ External TERM 1 8 3.4 90716 2 3.1 90713 Animal behaviour and plant responses – orientation and timing responses, inter- and intraspecific relationships 4 E Biological investigation – an aspect of the ecological niche of an organism 4 I Role of DNA in gene expression – molecular genetics, mutations, genetic inheritance 4 E Biotechnological Techniques – PCR, ligation, restriction enzymes, gel electrophoresis, DNA sequencing, tissue culture – content for AS 3.2 --- --- Research a contemporary biological issue 3 I TERM 2 6 3.3 90715 3 3.6 90718 2 3.2 90714 TERM 3 3 US 6317 Patterns in evolution – Explain the process of speciation 4 I 5 3.7 Trends in human evolution – human biological and cultural evolution, patterns of dispersal of hominins 3 E -- -- 90719 1 School exam week 1 Year Review TERM 4 2 Year Review Total number of credits available 22 Relevant Achievement Standards Subject Reference Biology 3.4 Title Describe animal behaviour and plant responses in relation to environmental factors Level 3 Subfield Science Domain Biology Registration date Credits 1 November 2005 4 Assessment Date version published External 1 November 2005 This achievement standard involves the description of animal behaviour and plant responses in relation to environmental factors. Achievement Criteria Achievement Achievement with Merit Achievement with Excellence Describe animal behaviour and plant responses in relation to environmental factors. Describe animal behaviour and plant responses in relation to environmental factors. Explain animal behaviour or plant responses in relation to environmental factors. Describe animal behaviour and plant responses in relation to environmental factors. Discuss animal behaviour or plant responses in relation to environmental factors. Explanatory Notes 1 This achievement standard is derived from Biology in the New Zealand Curriculum, Learning Media, Ministry of Education, 1994, p. 28, achievement objective 8.1 (a). 2 Animal behaviour and plant responses will be selected from those relating to: orientation (tropisms, nastic responses, taxes, kineses, homing, migration) timing (annual, daily, lunar, tidal) interspecific relationships (predation, parasitism, mutualism, commensalism, competition for resources) intraspecific relationships (territoriality, cooperative interactions, reproductive behaviours, hierarchical behaviour, competition for resources). 3 The relationship of environmental factors to behaviour/response may be in terms of the process involved or the adaptive significance. 4 Terms Describe requires the student to define, use annotated diagrams, give characteristics of, or an account of. Explain requires the student to provide a reason as to how or why something occurs. Discuss requires the student to show understanding by linking biological ideas. It may involve students in justifying, relating, evaluating, comparing and contrasting, and analysing. Subject Reference Biology 3.1 Title Carry out a practical investigation into an aspect of an organism’s ecological niche with guidance Level 3 Subfield Science Domain Biology Registration date Credits 4 Assessment Date version published 1 November 2005 Internal 1 November 2005 This achievement standard involves carrying out a practical biological investigation, with guidance, into an aspect of the ecological niche of an organism. It will involve planning the investigation, collecting and processing the data, interpreting the results, and presenting a report of the findings. Achievement Criteria Achievement Achievement with Merit Achievement with Excellence Carry out a practical biological investigation into an aspect of an organism’s ecological niche with guidance. Present a report on the investigation. Carry out a quality practical biological investigation into an aspect of an organism’s ecological niche with guidance. Present a report, with a discussion, on the investigation. Carry out a quality practical biological investigation into an aspect of an organism’s ecological niche with guidance. Present a report, with a comprehensive discussion, on the investigation. Explanatory Notes 1 This achievement standard is derived from Biology in the New Zealand Curriculum, Learning Media, Ministry of Education, 1994, p. 28, achievement objective 8.1 (b) and p. 38, Developing Scientific Investigative Skills and Attitudes in Biology. 2 Investigations must comply with animal ethic guidelines in Ministry of Education, Caring for Animals: A Guide for Teachers, Early Childhood Educators, and Students, Learning Media (Wellington:1999). 3 An investigation is an activity covering the complete process from planning to reporting and will involve the student in the collection of primary data related to the ecological niche of the organism. Primary data may relate to biotic and/or abiotic factors. The nature of the investigation could be the manipulation of variables (fair test) or the investigation of an interaction or relationship. 4 The investigation will be conducted with teacher guidance. This means the teacher is supporting the student throughout the investigation but the whole process is student driven. The teacher sets the parameters (such as organisms suitable for study, equipment available) and provides general information (such as resource suggestions or possible new directions). 5 It is essential that students develop an understanding of the ecological niche of the organism being studied before the investigation is carried out. This will allow the student to select a relevant aspect of the ecological niche to investigate. Student understanding can be developed through classroom teaching, research or practical investigation. Information about the ecological niche will also be used to write the introduction and discussion in the report. 6 A practical biological investigation will involve a statement of the purpose – this may be an aim, testable question, prediction, or hypothesis related to the ecological niche of an organism a method that describes: for a fair test: the independent variable and its range, the measurement of the dependent variable and the control of some other key variables or pattern seeking: the data that will be collected, range of data/samples, and consideration of some other key factors collecting, recording and processing data (quantitative or qualitative) relevant to the purpose. Processing data would usually involve calculations or graphing 7 A quality practical biological investigation enables a valid conclusion to be reached. A valid conclusion is relevant to the aim and justified by correctly processed data. This would normally involve: 8 interpreting and reporting on the findings with a conclusion reached based on the processed data in relation to the purpose of the investigation. a statement of the purpose – this may be an aim, testable question, prediction or hypothesis related to the ecological niche of the organism a method that describes: for a fair test: a valid range for the independent variable, the valid measurement of the dependent variable for pattern seeking: a valid collection of data how other variables will be controlled and/or how other factors that might influence the investigation will be taken into account collecting, recording and processing data (quantitative or qualitative) to enable a trend or pattern (or absence), relevant to purpose of the investigation, to be determined interpreting and reporting on the findings with a valid conclusion reached based on the processed data in relation to the purpose of the investigation. The report will include: an introduction that summarises the ecological niche of the organism and links this to the purpose of the investigation the purpose of the investigation the final method used recorded observations, measurements and data processed data showing a trend or pattern a conclusion based on processed data relevant to the purpose of the investigation a reference list. 9 A discussion considers the significance of the results of the investigation in relation to the ecological niche of the organism. 10 A comprehensive discussion considers: the investigation as a whole the significance of the results in relation to the ecological niche of the organism and relevant scientific information the validity of the investigation in terms of either the validity of the conclusion by using statistical methods such as mean and standard deviation, confidence intervals, standard error, or other appropriate test; or the reliability of the data by consideration of factors such as how sources of error were eliminated, how limitations were overcome, or how the effects of bias were reduced. Subject Reference Biology 3.3 Title Describe the role of DNA in relation to gene expression Level 3 Subfield Science Domain Biology Registration date Credits 4 Assessment Date version published 1 November 2005 External 1 November 2005 This achievement standard involves the description of the role DNA has in relation to gene expression and the determination of phenotype. Achievement Criteria Achievement Achievement with Merit Achievement with Excellence Describe the role of DNA in relation to gene expression. Explain the role of DNA in relation to gene expression. Discuss the role of DNA in relation to gene expression. Explanatory Notes 1 This achievement standard is derived from Biology in the New Zealand Curriculum, Learning Media, Ministry of Education, 1994, p. 28, achievement objective 8.2 (a). 2 The role of DNA includes DNA structure and replication, the control of gene expression, protein synthesis, and the determination of phenotype. 3 The structure of DNA includes the molecular components and their role in carrying the genetic code. The replication of DNA includes the processes involved in replication and the role that enzymes have in producing accurate copies. 4 Control of gene expression is limited to factors that operate at transcription level: feedback in prokaryotes (repressors, inducers) enhancers and transcription factors in eukaryotes. 5 Protein synthesis includes the role of DNA in determining the structure of a protein and how that protein is produced (transcription and translation). 6 The determination of phenotype includes: 7 allele interactions: dominance, incomplete dominance, co-dominance, multiple alleles, lethal alleles linkage and sex linkage gene-gene interactions: epistasis, collaboration, polygenes pleiotropy mutations: gene mutations, chromosomal mutations control of metabolic pathways by gene expression. Terms Describe requires the student to define, use annotated diagrams, give characteristics of, or an account of. Explain requires the student to provide a reason as to how or why something occurs. Discuss requires the student to show understanding by linking biological ideas. It may involve students in justifying, relating, evaluating, comparing and contrasting, and analysing. Subject Reference Biology 3.2 Title Research a contemporary biological issue Level 3 Subfield Science Domain Biology Registration date Credits 1 November 2005 3 Assessment Date version published Internal 1 November 2005 This achievement standard involves researching a contemporary biological issue. Achievement Criteria Achievement Achievement with Merit Achievement with Excellence Research information to describe a contemporary biological issue. Integrate researched information to explain a contemporary biological issue. Integrate and evaluate researched information to discuss a contemporary biological issue. Explanatory Notes 1 This achievement standard is derived from Biology in the New Zealand Curriculum, Learning Media, Ministry of Education, 1994, p. 28, achievement objective 8.3 (a). 2 In research, the student collects and interprets information from mainly secondary sources. Use of primary sources is acceptable. The research will be conducted with teacher guidance. This means the teacher is supporting the student throughout the research but the whole process will be student driven. The student is to select an issue, either from a list provided by the teacher or from the student’s own research. The teacher guidance gives general information in the form of broad questions, resource suggestions, or possible new directions. 3 An issue is one for which people hold different opinions or viewpoints. 4 For achievement, students are expected to describe: biological concepts and processes relating to the issue implications of the issue, which can be biological, social, ethical, economic or environmental differing opinions or viewpoints. 5 Students are required to support their description, explanation or discussion with referenced information. This means that references to information sources are included within the text of the report, with full details given in a reference list. 6 Terms Describe requires the student to define, use annotated diagrams, give characteristics of, or an account of. Integrate means to bring together and organise relevant information and opinions from a range of sources. Explain requires the student to provide a reason as to how or why something occurs. Evaluate requires the student to: comment on sources and information, considering ideas such as validity (date, peer reviewed, scientific acceptance), bias (attitudes, values, beliefs), weighing up how science ideas are used by different groups, own opinions, attitudes and beliefs provide a justified position that supports or opposes aspects of the issue or an implication of the issue. Justified means to demonstrate, with supporting evidence, why the position has been chosen. Discuss requires the student to show understanding by linking biological ideas. It may involve students in justifying, relating, evaluating, comparing and contrasting, and analysing. Subject Reference Biology 3.7 Title Describe trends in human evolution Level 3 Subfield Science Domain Biology Registration date Credits 3 Assessment Date version published 1 November 2005 External 1 November 2005 This achievement standard involves the description of trends in human biological evolution, cultural evolution, and patterns of dispersal. Achievement Criteria Achievement Achievement with Merit Achievement with Excellence Describe trends in human evolution. Explain trends in human evolution. Discuss trends in human evolution. Explanatory Notes 1 This achievement standard is derived from Biology in the New Zealand Curriculum, Learning Media, Ministry of Education, 1994, p. 28, achievement objective 8.2 (c). 2 Trends refers to progressive change over a period of time in relation to: 3 human biological evolution human cultural evolution patterns of dispersal of hominins. The term hominins refers to living and fossil species belonging to the human lineage. This is a subgroup of hominids which includes both humans and the great apes. Trends in human biological evolution begin with early bipedal hominins and may require comparison with living hominids (apes). Trends are limited to: skeletal changes linked to bipedalism changes in skull and endocranial features changes in the manipulative ability of the hand. 4 Trends in human cultural evolution will be limited to evidence relating to: use of tools (stone, wood, bone), fire, shelter, clothing, abstract thought (communication, language, art), foodgathering, and domestication of plants and animals. 5 Interpretations on the origins and trends of human evolution will be based on current evidence and may change as a result of recent developments. 6 Evidence relating to human evolution must be scientific evidence which is widely accepted and presented in peerreviewed scientific journals. 7 Terms Describe requires the student to define, use annotated diagrams, give characteristics of, or an account of. Explain requires the student to provide a reason as to how or why something occurs. Discuss requires the student to show understanding by linking biological ideas related to the trends in human evolution. It may involve students in justifying, relating, evaluating, comparing and contrasting, and analysing. Unit Standard 6317 Describe the process of speciation credit: final date for comment: expiry date: sub-field: purpose: entry information: 4 December 2003 December 2004 Science People credited with this unit standard are able to explain the process of speciation with reference to a New Zealand organism, and describe a pattern of evolution with reference to a New Zealand organism. Open. special notes: 1 This unit standard can be used to award credit for the achievement of learning outcomes consistent with - Ministry of Education, Biology in the New Zealand Curriculum (Wellington: Learning Media, 1994) achievement objective 8.2(b) investigate and explain speciation and identify patterns of evolution, with emphasis on New Zealand examples. 2 Isolating mechanisms could include geographical barriers, ecological barriers, reproduction barriers, and polyploidy. 3 In describing a New Zealand example of speciation, reference could be made to New Zealand’s geological history. 4 Patterns of evolution could include parallel, convergent, and adaptive radiation. Elements and Performance Criteria element 1 Explain the process of speciation with reference to a New Zealand organism. performance criteria 1.1 The explanation of speciation outlines how isolating mechanisms and selective pressures contribute to changes in the gene pool. element 2 Describe a pattern of evolution with reference to a New Zealand organism. performance criteria 2.1 The description of the pattern establishes the characteristics of the pattern. Animal Behaviour and Plant Responses Species Interactions Prior Knowledge Vocabulary Abiotic Adaptation Biotic Commensalism Competition Exploitation Habitat Herbivory Interspecific Intraspecific Courtship Dominance Hierarchy Kin Selection Mutualism Niche Parasatoid Parasitism (Ecto/Endo) Pathogen Predation Stratification Succession Tolerance Zonation Core Vocabulary Aggressive Agonistic Alpha/Beta Cooperative Interactions Monogamy Pair Bonding Sexual Dimorphism Submissive Territory Supplementary Vocabulary Allelopathy r/K-Strategies Amensalism Antibiosis Animal and Plant Timing and Orientation Behaviour and Responses Core Vocabulary Actogram Aggressive Alpha/Beta Antagonist Auxin Biological Clock Biological Orientation ChemoCircadian Circannual Cooperative Interactions Courtship Crepuscular Critical Day Length Diapause Diurnal Dominance Dormancy Endogenous Entrainment Etiolation Exogenous Free Running Period GeoGeomagnetic Cues Hibernation Hierarchy Homing Hormones Innate Kin Selection Kineses Learned Long Day Plant Migration Mimicry Monogamy Nastic Responses Nocturnal Pair Bonding Phase Shift PhotoPhytochrome Pigment Receptors Sexual Dimorphism Short Day Plant Star Compass Stimulus Submissive Sun Compass Taxes Territory ThigmoTropisms Zeitgeber Supplementary Vocabulary Abscisic Acid Cytokinins Ethylene/Ethene Gibberellins Ortho- / Klinokinesis Polyandry Polygamy Polygyny Polygynandry r/KStrategies Tropo- / Klinotaxes DNA and Gene Expression Mendelian Genetics Core Vocabulary Allele Characteristic Co-Dominance Collaboration Dihybrid Inheritance Dominant Epistasis Gene Genotype Heterozygous Homozygous Incomplete Dominance Independent Assortment Lethal Gene Linked Genes Monohybrid Inheritance Multiple Alleles Phenotype Histone Homologous Meiosis Mitosis Nucleic Acid Polypeptide Chain Ribose Sugar Recessive Segregation Sex-Linked Genes Test Cross Trait Molecular Genetics Prior Knowledge Vocabulary Adenine Amino Acid Autosome Centromere Chromatid Chromatin Chromosome Core Vocabulary Anaphase Anticodon Coding Strand Codon Complimentary Base Pairs Cytokinesis Degenerate Code Disulphide Bridge DNA Ligase DNA Polymerase Eukaryotic Cytosine Deoxyribose Sugar DNA Gamete Genetic Code Genome Guanine Exon Helicase Inducer Interphase Intron Karyotype Lagging Strand Leading Strand Metabolic Pathway Metaphase MRNA Okazaki Fragment Operator Site Operon Prokaryotic Promoter Site Prophase Protein Synthesis Purines Pyrimidines Regulator Gene Replication Fork RNA Sex Chromosome Somatic Thymine Uracil Zygote RNA Polymerase RMA Structural Gene Telophase Template Strand Transcription Transcription Factor Transcription Unit Translation Triplet TRNA Mutations Prior Knowledge Vocabulary Mutagen Core Vocabulary Allopolyploidy Amphiploidy Aneuploidy Autopolyploidy Barr body Chromosome mutation Deletion Duplication Euploidy Frame shift Gametic Gene mutation Induced Mutation Insertion Inversion Monosomy Non-disjunction Polyploidy Polysomy Somatic Spontaneous Substitution Syndrome Translocation Trisomy Biotechnology- for internal assessment Core Vocabulary DNA amplification DNA chips DNA profiling Endonuclease Gel electrophoresis Gene cloning Genome Analysis Ligation PCR Supplementary Vocabulary Bacteriophage Callus Complementary DNA Dideoxyribose DNA probe Exons Gene therapy Genetic engineering In vitro In vivo Plasmids Restriction Enzymes Sequencing Stem Cell Intron Mapping Micro Assay Microsatellites Oligonucleotides Palindrome Primer Probes Propagation Retrovirus Tissue culture Transgenesis Xenotransplantation Reverse transcription RFLP’s Southern Blotting Tandem Repeats Thermophiles Vectors Evolution Prior Knowledge Vocabulary Adaptation Allele Frequency Alleles Bottleneck Effect Competition Conservation Directional Selection Disruptive Selection Endemic Species Extinction Fitness Fossil Record Founder Effect Continental Drift Gene Flow Gene Pool Genetic Drift Introduced Species Meteorites Native Species Natural Selection Niche Plate tectonics Population Species Variation Volcanism Core Vocabulary Adaptive Radiation Allopatric Speciation Anagenesis Analogous Structures Behavioural Barrier Biogeography Cline Co-evolution Common Ancestor Comparative Anatomy Comparative Embryology Convergent Evolution Deme Divergent Evolution Ecological Barrier Geographic Barrier Gradualism Homologous Structures Hybrid Breakdown Hybrid Inviability Hybrid Sterility Mass Extinction Molecular Biology Polyploidy Post-Zygotic Isolating Mechanism Pre-Zygotic Isolating Mechanism Punctuated Equilibrium Ring Species Structural Barrier Subspecies Supplementary Sympatric Speciation Temporal Barrier Human Evolution Core Vocabulary Taxonomy Ape Australopithcine Australopithecus afarensis Ecological Climate Diet Anatomical features Broca’s area Brow ridge Canine Chin Dentition Dexterity Gracile H. erectus H. heidelbergen sis H. neanderthalen sis H. sapiens Hominid Hominin Homo habilis Human Paranthropus sp. Primate Robust Habitat Nomadic Selection pressures Sexual dimorphism Savannah Great toe Mandible Nuchal crest Opposable thumb Palate Post cranial skeleton Bipedalism Enamel Prognathism Sagittal crest Valgus angle Wernicke’s area Zygomatic arches Cerebellum Diastema Facial angle Femoral condyles Foramen magnum Forehead Frontal lobe Burial Culture Domestication Gathering Mousterian Oldowan Social organisation Upper Palaeolithic Competition European Extinction Fossil evidence Gene flow Modern MtDNA Multiregional hypothesis Out of Africa hypothesis Cultural Abstract thought Achulean Art/decoration Dispersal “African Eve” hypothesis African Archaic Asian Populations Replacement hypothesis Y chromosome Supplementary Vocabulary A. africanus A. bahrelghazali A. garhi Arboreal Ardipithecus ramidus Australopithecu s anamensis Brachiation Carbon dating H. ergaster H. floresiensis H. rudolfensis Isotope dating Knuckle walking Orrorin tugenensis P. boisei Paranthropus robustus. Potassiumargon dating Prehensile tail Quadrupedal Sahelanthropus tchadensis Sexual dimorphism Thermoregulation Record of Achievement LEVEL 3 BIOLOGY Name:_______________________ Standard Title of the assessment number 3.4 3.3 3.7 Assessment type (I or E) Animal and Plant Behaviour: 1) Unit Test 2) Mock Exam Gene Expression: 1) Unit Test 2) Mock Exam Human Evolution: 1) Unit Test 3.1 Niche Investigation I 3.2 Research I US Speciation I Total Credits = Credits gained or test mark