Common Core State Standards & Next Generation Science Standards


Biology

  • Cellular respiration (aerobic and anaerobic)
  • Plant and animal cells
  • Structure of a bacterial cell
  • Cell division (mitosis and introduction to meiosis)
  • Specialized cells and their functions
  • Functions of cell structure
  • Diffusion, osmosis, and active transport
  • Structure and function of DNA
  • Hierarchy: cell to organism
  • Enzyme specificity and activity
  • Understanding catalysts and enzymes
  • Structure of DNA molecule
  • DNA and classification
  • Species and reproduction
  • Evolutionary relationships
  • Binomial system of nomenclature
  • Dichotomous keys
  • Kingdom classification (including five kingdoms of life)
  • Natural selection and adaptation
  • Understanding photosynthesis
  • Role of chlorophyll in photosynthesis
  • Investigating photosynthesis factors
  • Structural adaptations for photosynthesis
  • Leaf structure and adaptations
  • Transport systems in plants (xylem, phloem)
  • Transpiration and water movement in plants
  • Digestive system (organs and their functions)
  • Enzymatic functions in digestion
  • Role of bile and hydrochloric acid in digestion
  • Nutrient and water absorption
  • Circulatory system (including heart anatomy, single and double circulation, blood vessels)
  • Components of blood and their functions
  • Clotting process
  • Respiratory system (gas exchange surfaces, breathing mechanics)
  • Excretory system (detailed kidney and nephron structure, liver function)
  • Neuronal impulse transmission (basic understanding of nervous system functions)
  • Chemical elements in carbohydrates, fats, and proteins
  • Formation of large molecules
  • Investigating enzyme activity
  • Testing for biological molecules
  • Role of water in organisms
  • Pathways of water through plants
  • Investigating transpiration rates and mechanisms
  • Understanding pathogens and disease transmission
  • Immunity, vaccination, and passive immunity
  • Body defenses and disease control measures
  • Functions of blood components
  • Anatomy of the mammalian heart
  • Monitoring heart activity
  • Investigating the impact of physical activity on heart rate
  • Chemical equations of respiration (aerobic and anaerobic)
  • Classification of organisms in groups
  • The five kingdoms of life
  • Evolutionary relationships and DNA-based classification
  • Binomial nomenclature and its application in classifying species
  • Dichotomous keys for identifying species
  • Structure of xylem vessels and their function in water transport
  • Root hair cells and their role in water and nutrient absorption
  • Translocation in plants, describing sources and sinks
  • Investigating water pathways in plants
  • Mechanism of water movement through xylem
  • Effects of osmosis on plant tissue (investigating with dialysis tubing)
  • Single and double circulation in animals (comparison between fish and mammals)
  • Anatomy of blood vessels and their adaptations to function
  • Gas exchange surfaces and their role in respiration
  • Respiratory changes and structural dynamics of breathing
  • Chemical equations and the role of energy in aerobic and anaerobic respiration
  • Detailed structure and function of the kidney and nephron
  • Excretion in humans, including the role of the liver in detoxification
  • Investigating factors that influence homeostasis (e.g., temperature regulation, water balance)
  • Understanding neuronal impulse transmission
  • Basic structure and function of neurons
  • Role of the nervous system in maintaining homeostasis and responding to stimuli
  • Investigating respiration in yeast (anaerobic respiration)
  • Chemical equations related to aerobic and anaerobic respiration
  • Understanding muscle fatigue and its relationship with anaerobic respiration
  • Investigating factors influencing diffusion and osmosis
  • Investigating enzyme activity and enzyme specificity
  • Investigating photosynthesis and the role of chlorophyll
  • Investigating transpiration rates and water movement in plants
  • Understanding and applying the magnification formula for cellular structures

Chemistry

  • Constructing and balancing chemical equations
  • Calculating reacting masses and proportions
  • Understanding concentration units (molarity)
  • The mole concept and Avogadro's constant
  • Applying the mole concept to gas volumes and solutions
  • Reaction of acids with metals, bases, and carbonates
  • Acid dissociation and base dissociation (strong vs. weak acids/bases)
  • Proton donors and acceptors
  • Classifying oxides (acidic, basic, amphoteric)
  • Preparing soluble salts through titration reactions
  • pH indicators like litmus, thymolphthalein, and methyl orange
  • Fundamentals of electrolysis and applications (electroplating)
  • Advanced dynamics of electrolysis
  • Hydrogen-oxygen fuel cells
  • Redox reactions, oxidation numbers, and electron transfer
  • Identifying oxidizing and reducing agents
  • Understanding exothermic and endothermic reactions
  • Collision theory and factors affecting reaction rates
  • Reversible reactions and chemical equilibrium
  • Factors influencing equilibrium (Le Chatelier's Principle)
  • Atomic structure, mass numbers, and electron configuration
  • Understanding isotopes and calculating relative atomic mass
  • Ionic and covalent bonds (properties of ionic and covalent compounds)
  • Metallic bonding and properties of metals
  • Molecular mass and diffusion rate
  • Introduction to organic molecules (alkanes, alkenes, and alcohols)
  • Homologous series and functional groups
  • Saturated and unsaturated compounds (alkanes vs. alkenes)
  • Structural formulas, isomers, and nomenclature of organic compounds
  • Formation of esters, polymers, and properties of plastics
  • Formation of ionic compounds and properties of ionic bonding
  • Formation of simple covalent molecules and properties of covalent bonds
  • Understanding the giant covalent structures (e.g., silicon(IV) oxide, graphite, and diamond)
  • Relating the structures of graphite and diamond to their uses
  • Understanding metallic bonding and the structure of metals
  • Basics of reversible reactions
  • Chemical equilibrium in closed systems
  • Introduction to fossil fuels and the structure of alkanes
  • Reactivity of alkanes and substitution reactions
  • Introduction to alkenes and their double bonds
  • Testing for unsaturated hydrocarbons (alkenes)
  • Manufacturing ethene by cracking alkanes
  • Reactivity of carboxylic acids (ethanoic acid) and ester formation
  • Natural polymers (e.g., proteins) and synthetic polymers (e.g., polyethylene)
  • Properties and disposal of plastics
  • Water composition, treatment, and testing water purity
  • Investigating air pollutants and their effects
  • NPK fertilizers and the role of ammonium salts in fertilizers
  • Reactivity series and metal displacement reactions
  • Extraction of metals (iron from blast furnace, aluminum from bauxite)
  • Rusting of iron and methods for prevention (galvanizing and sacrificial protection)
  • Exploring states of matter and changes in state
  • Understanding solutions, mixtures, and solubility
  • The role of catalysts in chemical reactions

Physics

  • Scalar and vector quantities
  • Measuring length, volume, time, distance, speed, temperature, mass, and weight
  • Gravitational force on the surface of the Moon and Earth
  • Measuring density of different materials
  • Terminal velocity
  • Effects of forces
  • Concept of spring constant
  • Resultant forces
  • Circular motion and force-acceleration relationship
  • Motion and friction
  • Understanding momentum, impulse, and conservation of momentum
  • Resultant force and momentum change
  • Identifying different forms of energy
  • Energy transfer and conservation
  • Calculating kinetic energy
  • Fundamentals of work
  • Exploring energy resources (solar, wind, hydropower, geothermal, biomass, fossil fuels)
  • Understanding energy efficiency
  • Exploring the concept of power
  • Exploring the concept of pressure
  • Pressure in liquids
  • Exploring properties of solids, liquids, and gases
  • Understanding change of state
  • Particle structure and motion of matter
  • Brownian motion and particle dynamics
  • Pressure and particle motion in gases
  • Kelvin and Celsius temperature scales
  • Thermal expansion in solids, liquids, and gases
  • Thermal conduction, convection, and radiation
  • Measuring specific heat capacity
  • Internal energy and temperature rise
  • Basic concepts of waves (transverse and longitudinal)
  • Reflection, refraction, and diffraction of waves
  • Sound production, properties, and advanced sound concepts (including ultrasound)
  • Electromagnetic spectrum regions and uses
  • Health effects and communication systems
  • Light reflection and refraction
  • Refractive index and optical fibers
  • Thin lenses and their applications
  • Dispersion through a prism
  • Monochromatic light
  • Basics of electric charge and electrostatics
  • Electric fields and field patterns
  • Fundamentals and advanced concepts of electric current
  • EMF and potential difference (PD)
  • Understanding and measuring resistance
  • Series and parallel circuits
  • Electrical energy transfer and power calculations
  • Circuit diagrams and components (including diodes and LEDs)
  • Investigating the impact of physical activity on heart rate
  • Variable potential dividers
  • Basic concepts and practical applications of magnetism
  • Electromagnetic induction (including quantitative aspects)
  • Understanding impulse and its relation to momentum
  • Conservation of momentum in different scenarios
  • Complex energy conservation scenarios
  • Application of the principle of moments to equilibrium and stability in systems
  • Center of gravity and finding the center of gravity in irregular objects
  • Detailed exploration of energy resources, including renewable and non-renewable sources
  • Complex applications of thermal energy transfer
  • Understanding electrical hazards, wiring, and protection devices
  • Directionality and quantitative aspects of induction in electromagnetic systems