Research and Experiments: Use scientific methodology to conduct problem-based studies, develop products, and interpret results.3.1

  • 1

    Design a research plan, including the significance of the problem, purpose, hypotheses, objectives, appropriate controls, independent variables, dependent variables, methods of study, and a list of materials.3.1.1

  • 2

    Examine sources for credibility.3.1.2

  • 3

    Apply sampling methods that appropriately represent the population and implement procedures for systematic data collection.3.1.3

  • 4

    Explain the importance and design of trialing, and the information gained from it.3.1.4

  • 5

    Document results of the experiment in a laboratory notebook, including a statement of purpose, experimental design, observations, results, conclusions, and next steps.3.1.5

  • 6

    Create, interpret, and use tabular and graphical displays and describe the data.3.1.6

  • 7

    Compute measures of central tendency to interpret results and draw conclusions.3.1.7

  • 8

    Define the concepts of confidence intervals and significant figures.3.1.8

  • 9

    Use t-test and p-value to determine statistical significance of results.3.1.9

  • 10

    Describe the relationships among variables using correlations and draw conclusions.3.1.10

  • 11

    Draw conclusions based on observations and data analyses, recognizing that experimental results must be open to the scrutiny of others.3.1.11

  • 12

    Prepare and present findings using scientific reports.3.1.12

  • 13

    Evaluate experimental failure and use integrity to communicate findings.3.1.13

  • 14

    Describe how biotechnology products are produced and used in the United States.3.1.14

  • 15

    Describe how biotechnology products are regulated in the United States.3.1.15

  • 16

    Describe biotechnology product safety assessment.3.1.16

  • 17

    Identify the purpose of a bioreactor and its use in the agricultural industry.3.1.17

Laboratory Standards Operational Procedures: Conduct experiments using proper industry-based protocols, methods, and techniques.3.2

  • 1

    Use aseptic techniques to collect, prepare, and test samples.3.2.1

  • 2

    Prepare and dispense stock reagents, buffers, media, and solutions by calculating concentrations, adjusting factors such as pH, and selecting purification techniques and equipment.3.2.2

  • 3

    Test and maintain the integrity of stains, regents, chemicals, and mounts.3.2.3

  • 4

    Select and apply sterilization methods for regents, buffers, media, biological samples, and solutions.3.2.4

  • 5

    Perform laboratory measures by calculating and preparing a serial dilution, calculating quantities needed to perform a test analysis, and calculating unit conversions and concentrations (graphing results).3.2.5

  • 6

    Monitor physical properties of reagents, buffers, media, and solutions for conductivity and resistivity, pH, and turbidity, and explain the significance of each.3.2.6

  • 7

    Perform separation techniques, including chemical separations, chromatography, centrifugation, distillation and filtration, and interpret the results.3.2.7

  • 8

    Titrate liquids.3.2.8

  • 9

    Create a standard operating procedure and explain its use.3.2.9

  • 10

    Describe industry-based and required regulatory quality assurance practices for documentation.3.2.10

Specimen, Equipment and Chemical Handling: Handle, prepare, transport, store, and dispose of specimens and chemicals. Monitor, record, and maintain the integrity of equipment and instrumentation, environmental conditions of the facility and inventory.3.3

  • 1

    Prepare and interpret labels for chemicals, supplies, and equipment.3.3.1

  • 2

    Use chemical references to identify hazards associated with handling and storing chemicals.3.3.2

  • 3

    Safely transfer chemicals from storage containers to equipment used in the laboratory.3.3.3

  • 4

    Neutralize acids, bases, or caustic solutions for handling and disposal.3.3.4

  • 5

    Sample, monitor, and record the environmental conditions of a facility (e.g. air quality, HEPA, temperature, microbial contaminations).3.3.5

  • 6

    Identify and describe the purpose of common laboratory equipment.3.3.6

  • 7

    Select personal protective equipment for various laboratory protocols.3.3.7

  • 8

    Identify required tools and procedures of different biosafety levels.3.3.8

  • 9

    Adjust, calibrate, and perform systems diagnostics on laboratory equipment.3.3.9

  • 10

    Use and maintain a record keeping system for laboratory equipment, chemicals, or products.3.3.10

  • 11

    Use and maintain an inventory management system.3.3.11

  • 12

    Use and calibrate precision weighing and measuring techniques (e.g. analytical balance, micropipette), based on the metric system.3.3.12

  • 13

    Use volumetric glassware to accurately measure liquids.3.3.13

Applying Chemistry to Laboratory Practices: Using common laboratory equipment, apply general and organic chemistry concepts to examine the structures, functions, binding of molecules, and methodologies for their purity and characterization.3.4

  • 1

    Illustrate electron configurations of elements, compounds, and mixtures.3.4.1

  • 2

    Use the periodic table to describe atomic structure and to characterize molecules based on functional groups.3.4.2

  • 3

    Differentiate between organic and inorganic compounds.3.4.3

  • 4

    Use common and chemical nomenclature for organic and inorganic materials.3.4.4

  • 5

    Write names and formulas for common compounds.3.4.5

  • 6

    Prepare solutions based on molarity, percent weight per volume (w/v) and percent volume per volume (v/v).3.4.6

  • 7

    Describe chemical bonding, bond types, and the relationships that they have with the physical state of materials.3.4.7

  • 8

    Apply the concepts of stoichiometry and the laws of thermodynamics to chemical reactions.3.4.8

  • 9

    Balance chemical reactions.3.4.9

  • 10

    Identify materials that can be used as a catalyst and describe their role in reactions.3.4.10

  • 11

    Predict endothermic and exothermic characteristics of chemical reactions.3.4.11

  • 12

    Use naming systems, including common and International Union of Pure and Applied Chemistry (IUPAC) conventions.3.4.12

  • 13

    Calculate errors in various measurements, based on data acquired using common laboratory equipment.3.4.13

  • 14

    Apply standard rules for determining the number of significant figures in measurements and in the answers to corresponding calculations.3.4.14

  • 15

    Convert units of measure from English to metric, within the English system, and within the metric system.3.4.15

  • 16

    Calculate the volume, temperature, and pressure of gases using the ideal gas law, Charles's Law, and Boyle's Law.3.4.16

Microbiology Testing and Technology: Classify, differentiate between, and test for various kinds of microorganisms and microbial by- products.3.5

  • 1

    Explain classification, composition, and preparation of culture media and prepare media for propagation.3.5.1

  • 2

    Operate centrifuge, dissecting scope, compound microscope, spectrophotometer, incubator, colony counter, pipettes, and other basic microbiology and analytical equipment to examine biological specimens.3.5.2

  • 3

    Explain the principles of microscopy and process a specimen for light microscopy.3.5.3

  • 4

    Perform Gram staining to identify morphology and gram results of bacteria.3.5.4

  • 5

    Prepare, incubate, and identify colonies microscopically and macroscopically (e.g., colonial morphology, staining procedures, biochemical analysis).3.5.5

  • 6

    Use microbial taxonomy and classification systems to identify microbial organisms.3.5.6

  • 7

    Compare and contrast cellular structure and functions of prokaryotic and eukaryotic cells.3.5.7

  • 8

    Identify aerobic bacteria through morphological, physical, and biochemical properties.3.5.8

  • 9

    Obtain specimens for microbiological testing.3.5.9

  • 10

    Differentiate between types of viruses.3.5.10

  • 11

    Explain virulence, pathogenicity, and the factors that contribute to pathogenicity.3.5.11

  • 12

    Explain how chemical energy operates major cell processes (e.g. biosynthesis, movement, transport, growth).3.5.12

  • 13

    Identify bacteriologic methods necessary for the isolation and identification of organisms.3.5.13

  • 14

    Identify factors that affect and optimize rates of enzyme assay reactions.3.5.14

  • 15

    Describe the purpose of an enzyme-linked immunosorbent assay (ELISA) and interpret the results.3.5.15

  • 16

    Describe types of assays and distinguish uses and limitations.3.5.16

  • 17

    Follow complex instructions in performing an assay and explain the role of each step.3.5.17

  • 18

    Perform biochemical assays of proteins, lipids, carbohydrates, nucleic acids, and enzymes.3.5.18

  • 19

    Identify the purpose and implementation of bioassays for pathogens.3.5.19

  • 20

    Apply quality assurance control processes within the lab setting (e.g. pre-analytic, analytic, and post-analytic sources of error).3.5.20

  • 21

    Perform autoclave sterilization.3.5.21

Molecular-Genetics and Technology: Apply knowledge of genetic inheritance and modification to organisms and use genetic information and bioinformatics to analyze specimens.3.6

  • 1

    Use Punnett Square to predict and explain Mendel's Laws, genotype, and phenotype.3.6.1

  • 2

    Explain epigenetics and provide examples of its effects.3.6.2

  • 3

    Model, predict, and diagram the three-dimensional shape, types of bonds (covalent and hydrogen bonds), and antiparallel nature of DNA.3.6.3

  • 4

    Model central dogma of molecular biology (e.g. replication, transcription, translation).3.6.4

  • 5

    Describe post-transcriptional and post-translational modification of RNA and describe its function.3.6.5

  • 6

    Explain gene editing including the process, possible benefits, and potential risks.3.6.6

  • 7

    Identify, isolate, and manipulate peptides and proteins (i.e. primary, secondary, tertiary, quaternary structures).3.6.7

  • 8

    Analyze DNA using common laboratory techniques (e.g. DNA isolation, gel electrophoresis, restriction enzyme digest, Southern Blotting, Northern Blotting).3.6.8

  • 9

    Use bioinformatics to analyze DNA and proteins.3.6.9

  • 10

    Explain cloning techniques including vector preparation, transformation, and selection.3.6.10

  • 11

    Preform spectroscopy of biological materials explaining the principles behind the procedures, the purpose of a blank, and determine the concentration of biomolecular samples.3.6.11

  • 12

    Evaluate genomes in relation to food, plants, animals, and natural resources.3.6.12

  • 13

    Perform genotyping analysis for genetic diagnostics.3.6.13

  • 14

    Transform bacteria with exogenous DNA to alter bacterial metabolism, reproduction, cell structures, and their functions.3.6.14

  • 15

    Describe types and features of passive and active transport systems.3.6.15

  • 16

    Describe molecular behavior and structure of large molecules, including carbohydrates, lipids, proteins, and nucleic acids.3.6.16

  • 17

    Describe genome sequencing and the information gained from it.3.6.17

  • 18

    Describe artificial selection and how it is used in plant and animal breeding.3.6.18

  • 19

    Define genetically modified organisms and explain their impact on society.3.6.19

  • 20

    Describe how vectors (e.g., plasmids, transposons, viruses) are used to transform hosts and microorganisms.3.6.20

  • 21

    Explain gene by environment interactions.3.6.21

  • 22

    Describe the difference between a quantitative and qualitative gene trait and give examples of each.3.6.22

Frequently asked questions

What grade levels do these standards cover?
Grade 9, Grade 10, Grade 11, and Grade 12