Manhattan Center for Science and Mathematics FDR Drive @ East 116th Street New York City, NY 10029 (212) 876-4639 David Jimenez, Principal Yecenia Delarosa, Assistant Principal Science Living Environment Course Outline 1. Course Overview: Biology is the study of living and once living things. Many people use biology in different ways. You use biology if you have ever asked yourself these or other similar questions: How can I tell when my plants need water? What can I do about the fleas on my dog? How can I tell if this plant is poison ivy? Students in the Living Environment will learn how the scientific method is applied and what the tools of the scientists are. During the year students will focus on major topics including life functions, study of the cell, biochemistry, nutrition, transport, respiration & photosynthesis, excretion, regulation, diseases, reproduction, modern genetics, evolution, and ecology. 2. Standards Connections: National, state, and local standards have been established for the sciences. Content standards for living environment specify what students should know while performance standards specify what high quality student work should look like. Student daily course work, instruction, assignments, and performance should reflect these. The Regents exam taken in June is also based on these. 3. Making Literacy Connections: There will be added emphasis on scientific literacy with a focus on reading and writing skills. To achieve this, students will be expected to read and report on current articles related to topics of study. Students will be expected to display good writing skills in their lab reports, homework assignments and class work. We will be looking for concise, well organized samples of writing that contain proper use of terms as well as good grammar. 4. Lab Requirement: Regents science classes contain a state mandated lab requirement which students must meet before they gain entry into a Regents examination in the science they studied during the year. Students have to complete a minimum of 1200 minutes (15 passing lab reports) of hands-on laboratory work, with submission of satisfactorily completed lab reports after each lab. This minimum requirement is in addition to the seat time requirement of at least 180 minutes per week. Students cannot be exempted from the 1200 minute laboratory requirement by any school administrator or teacher. Students who are hospitalized, homebound, or home schooled are expected to complete the laboratory requirement; in such cases, alternative or comparable laboratories may be given. An exemption for a student may be requested in writing from the State Education Department only under extreme circumstances (e.g., terminal illness, catastrophic injury). A complete schedule of labs is distributed to students at the beginning of each semester. 5. Assessment: Throughout the year students produce work which allows the instructor to interpret their achievement. Daily homework assignments combined with class work demonstrate the grasp that students have on theories, concepts, and problem solving skills. Laboratory reports demonstrate interpretations of theories through observations, deductions, critical analysis, and reasoning skills. Exams, quizzes, in-class assignments, and projects provide the basis for assessment. Student's grades are calculated based on the following: 60% Exams/quizzes 20% Laboratory reports 15% Homework assignments 5% Class participation This course culminates in a Regents exam which is a standardized assessment given to all students in New York State. 5. Syllabus: A detailed syllabus outlining the course, topics of instruction, and appropriate text book chapters is provided to students. REGENTS LIVING ENVIRONMENT FALL TOPIC/UNIT Topic 1: Scientific Method(Inquiry) and Tools of Scientists Core Curriculum Standards:1( 1.1a-c, 1.2a-b, 1.3a-b, 1.4a, 2.2a, 2.3a-c, 3.1a, 3.4a-c, 3.5a-b) Topic 2: Life Functions & Interactions of Life Activities Core Curriculum Standards: 4 (1.2a, 1.2b, 1.2c, 1.2d) Topic 3: The Cell/Cell Theory Core Curriculum Standards: 4 (1.2e-f, 1.2i, 1.3a) Topic 4: Organic vs. Inorganic (Biochemistry) Core Curriculum Standards: 4 (1.2h) Topic 5: Transport Core Curriculum Standards: 4 (1.2g, 1.2j) Topic 6: Respiration & Photosynthesis Core Curriculum Standards: 4(5.1 a-e) Topic 7: Enzymes and Nutrition Core Curriculum Standards: 4 (5.1 f-g) Topic 8: Circulatory and Respiratory Systems Core Curriculum Standards: 4 (5.1 a-g) Topic 9: Excretory System Core Curriculum Standards: 4(5.1 a-g) Topic 10: Endocrine System Core Curriculum Standards: 4( 5.3b) Topic 11: Nervous System Core Curriculum Standards: 4 (5.3a) Topic 12: Immune System Core Curriculum Standards: 4(5.2 a-j) Fall Semester: Topics of Study Topic 1: Scientific Method & Inquiry Scientific Method & Inquiry: 2 weeks (plus reinforcement year round) a. Generating hypotheses b. Differences between control vs. experimental groups (definition) c. Data collection and analysis 9/13 – d. Independent vs. dependent variable 9/19 e. Interactive activities: analyzing experiments interpreting charts drawing graphs descriptive information consumer research Topic 2: Tools of Scientists (Using Microscopes): 2 days Tools of (including lab) Scientists a. Parts of the compound light microscope b. Calculations of microscope magnification 9/22 – c. Calculations and conversions of various 9/23 measurements: micrometers centimeters inches Topic 3: Life Functions & Interactions of Life Activities: 1 Life day Functions & a. Respiration (aerobic vs. anaerobic) Interactions b. Nutrition (autotrophic vs. heterotrophic) of Life c. Locomotion (sessile vs. mobile) Activities d. Reproduction (asexual vs. sexual) e. Interactions of life functions + homeostasis = 9/24 – maintenance** 10/3 ex: human body Topic 4: The Cell/Cell Theory: 3 days (connect topics 3 The & 4) Cell/Cell a. All life functions interact within a cell Theory b. Cell as a part of the human body: Unicellular (protists [amoeba & paramecium] vs. multicellular [specialized cells]) specialized cells tissues organs whole organism Topic 5: Organic vs. Inorganic = Biochemistry: 1 week Organic vs. Note: Complete ‘a’ thru ‘f’ in 2 periods Inorganic a. Periodic table (brief introduction of the Text Book Chapters Biology Living Systems: 1 The Living Environment: Biología: 1 Text Book Chapters Biology Living Systems: 2 The Living Environment: 5 Biología: 2 Text Book Chapters Biology Living Systems: 4, 5 The Living Environment: Biología: 1 Text Book Chapters Biology Living Systems: 2, 4, 5 The Living Environment: 5 Biología: 2 Text Book Chapters Biology Living (Biochemist ry) 10/6 – 10/10 Topic 6: Nutrition (Hydrolysis )& Synthesis 10/14 – 10/20 Topic 7: Transport 10/21 – 10/27 elements listed) b. Define: atom, elements, compounds c. Inorganic molecules and examples d. Organic molecules and examples (Note: students will be shown examples of molecules but they are not expected to memorize them) e. Differences between inorganic and organic compounds f. Relationship between bonds and energy (Note: when bonds are broken, energy is released.) (Note: show glucose and amino acids / show which one has more energy) Note: Complete ‘g’ thru ‘i’ in 3 days; reduce anatomy and focus on homeostasis g. Relationship between food molecules and our body make-up (“We are what we eat.”) h. Integration between digestion, absorption and assimilation (synthesis) (Note: Show how enzymes break down macromolecules in order to be absorbed by cells) i. Differences between animal and plant cells. Nutrition (Hydrolysis) & Synthesis: 1 week Inorganic Complex organic Simple organic Note: Connect ‘a’ and ‘b’ a. Autotrophic nutrition (photosynthesis) b. Heterotrophic nutrition & locomotion c. Human digestive system anatomy digestion diseases d. Concept of structure and function surface area of small intestine (use villi model and string) e. Interactive activities: caloric intake calories = homeostasis Transport: 1 week Systems: 3, 6 The Living Environment: 8 Biología: 3 Text Book Chapters Biology Living Systems: 20 The Living Environment: 8 Biología: 25 Text Book Chapters Note: Reduce anatomy and function on function a. Cell membrane / diffusion-osmosis / active transport b. Heart and blood vessels (structure & function) c. Interactive activities: human: data on normal blood pressure / heartbeat Biology Living Systems: 21, 22 The Living Environment: 9 Biología: 16, 26 Topic 8: Respiration & Photosynth esis 10/28 – 11/3 Topic 9: Excretion 11/5 – 11/7 Topic 10: Regulation (Homeostas is & Negative Feedback) 11/10 – Respiration & Photosynthesis: 1 week a. Aerobic & anaerobic respiration C6H12O6 + 6 O2 6 H2O + 6 CO2 + ATP also occurs in plants (Note: Create a bond = capture energy & Break a bond = energy released) b. Contrast respiration to photosynthesis Text Book Chapters Biology Living Systems: 6, 22 The Living Environment: 6, 7 Note: Reduce anatomy c. Respiratory system anatomy concept of structure and function – increase surface area of lungs due to air sacs; pressure differences d. Interactive activity: normal breath intake = 12 breaths per minute prove carbon dioxide release using bromothymol blue demo measure carbon dioxide output using NaOH and phenolphthalein experiment measure differences in carbon dioxide output using a reduced version of the exercise lab Excretion: 3 days Note: Emphasis on homeostasis & connect with other units a. Definition & homeostasis = negative feedback Homeostasis ex: sweat a lot urination decreases ingestion of high salt content food urination increases (Note: Kidney homeostatic organ [blood balance & water balance]) (Note: mention Pedialyte) b. Human excretory system anatomy diseases Regulation - Homeostasis & Negative Feedback: 1 ½ week Biología: 27 Text Book Chapters Biology Living Systems: 22 The Living Environment: 13 Biología: 27 Text Book Chapters Note: Focus on negative feedback as homeostatic mechanism. Show receptors used in this process. Biology Living Systems: 24, 25 a. Nervous system and brain b. Human endocrine system Some glands: pancreas (insulin), The Living Environment: 10, 11 Biología: 28, 29 11/26 Topic 11: Diseases (Homeostas is & Negative Feedback) 12/1 – 12/10 pituitary, adrenal (fight flight), gonads, thyroid (goiter) Diseases – Homeostasis & Negative Feedback: 1 ½ week Note: Focus on negative feedback and deemphasize function of individual cells a. Compare non-infectious to infectious disease (HIV/AIDS) b. Human immune system / three lines of defense inflammatory response immune response T-cells vaccines active vs. passive immunity Text Book Chapters Biology Living Systems: 23 The Living Environment: 14 Biología: 13 REGENTS LIVING ENVIRONMENT SPRING TOPIC/UNIT Topic 13: Reproduction Timing: 3-4 weeks (February) Core Curriculum Standards: 4(4.1a-h) AIMS/OBJECTIVES How is the human body adapted for reproduction? How does asexual reproduction differ from sexual reproduction? How does asexual reproduction occur in plants? Connect LAB How does sexual reproduction take place in plants? Connect LAB How do cells make copies of themselves? How does the process of mitosis occur? How does the process of meiosis occur? How does mitosis differ from meiosis? How is the human male adapted for reproduction? How is the female adapted for reproduction? How do hormones contribute to secondary sex characteristics? LABS Lab # 12 How does sexual reproduction take place in a flower? Topic 14: Genetics Timing: 3-4 weeks (March) Core Curriculum Standards: 4 (2.1a-k, 2.2 a-e) Topic 15: Evolution Timing: 3-4 weeks (April) Core Curriculum Standards: 4 (3.1 a-l) How is the menstrual cycle an example of negative feedback? How does internal fertilization differ from external fertilization? How does internal development differ from external development? How do environmental factors affect fetal development? How did Mendel’s research on pea plants give rise to the law of dominance? How did Mendel’s research on pea plants give rise to the law of segregation? How many of our traits are dominant and recessive? Connect Lab How do Punnett squares help us understand the law of chance? Connect Lab How is the structure of DNA organized? How does the double helix model explain replication? How does DNA helicase and polymerase contribute to replication? What happens if DNA polymerase makes an error? How does DNA contribute to transcription? How does RNA contribute to translation? What happens if RNA polymerase makes an error? How can mutations be good, bad, or neutral? How are mutations related to sickle cell anemia? How can protein differences and similarities contribute to relating organisms? Connect Lab How was Dolly cloned? What are the advantages and disadvantages of cloning flocks? How are plasmids used to in genetic engineering? How do restriction enzymes help in biotechnology? How can genetic engineering benefit agriculture? How can genetic engineering to vaccines? How is RFLP analysis used in identifying individuals? How does stem cell therapy work? What are other techniques that are involved in biotechnology? How foods are genetically modified? What evidence is out there for evolution? Stress earth’s age, Stanley Miller, heterotroph hypothesis, etc. How are prokaryotic cells different from eukaryotic cells? What does comparative anatomy show? What does comparative cytology show? What does comparative biochemistry show? How can mutations contribute to the theory of evolution? How are humans similar and different from other primates? Connect Lab How did Darwin contribute to the theory of evolution? Stress other scientists contributions as well How are Darwin’s Finches related to the theory of evolution? Connect Lab What is the theory of Natural Selection all about? How can geographic isolation lead to speciation? How can reproductive isolation lead to speciation? What is adaptive radiation? What are the two different time frames for evolution? Stress Punctuated Equilibrium versus Gradualism What could’ve caused the mass extinction of Dinosaurs? How has industrial melanism contributed to the theory of Lab #13: Which of our human traits are dominant and recessive? Lab #14: How does Mendel’s Law of Segregation work? Lab #15 What biochemical evidence compares and contrasts organisms? Lab #16 Biodiversity STATE LAB Lab #17 What fossil evidence compares and contrasts primates? Lab #18 Darwin’s Finches Topic 16: Ecology and Regents Review Timing: 3-5 weeks (May/June) Core Curriculum Standards: 4 (1.1a-f, 6.1 a-g, 6.2a-b, 6.3a-c, 7.1a-c, 7.2a-c, 7.3a-b) evolution? How has antibiotic resistance affected the medical world? How has pesticide resistance affected agriculture? What is the difference between microevolution and macroevolution? How does cladistics help us understand evolution? What does an ecosystem entail? What is the difference between abiotic and biotic factors? What is the difference between a niche and a habitat? What do food chains, webs and trophic levels display? How do we connect energy pyramids to photosynthesis? How do limiting factors affect an ecosystem? How does carrying capacity affect an ecosystem? How does the water cycle works? How is the carbon-oxygen-hydrogen cycle connected to photosynthesis and respiration? How does the nitrogen cycle affect agriculture? What does a climatogram work? What are the different symbiotic relationships in nature? What are the different biomes identified on Earth? How does succession work? What are some growth patterns seen in nature? How does acid rain affect our ecosystem? How is global warming going to affect our future? Common Core Standards Objectives for this unit: 1. Determine the meaning of symbols, key terms, and other domain specific words and phrases as they are used in specific or technical context 2. Analyze the structure of the relationships among concepts in a text 3. Translate quantitative or technical information expressed in words in a text into visual form 4. Develop the topic with well chosen, relevant, and sufficient facts, extended definitions, concrete details, quotations, or other information and examples appropriate to the knowledge of the topic 5. Conduct short as well as sustained research projects to answer a question or solve a problem STATE LAB Lab # 19 How do we classify organisms using a dichotomous key?
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