Advanced Senior Secondary

Electrostatics (Physics with Vernier)

Measure static charge on objects after rubbing — chapter covers charging by friction, gold-leaf electroscope, charge quantisation

Capacitor Charge and Discharge

Measure voltage across capacitor during charge/discharge — exponential curves; chapter covers energy stored E=½CV²

Ohm's Law (Physics with Vernier)

Measure V vs I for resistors — verify Ohm's law; chapter explicitly describes V-I measurement and Ohmic/non-Ohmic conductors

Series and Parallel Circuits (Physics with Vernier)

Measure V and I in series/parallel — verify Kirchhoff's laws; chapter covers junction and loop rules

Electrical Energy: Joule Heating

Measure temperature rise from current through resistor — verify P=I²R; chapter covers Joule heating and power dissipation

Temperature Coefficient of Resistance

Measure resistance vs temperature for metals/semiconductors — chapter discusses α for nichrome, metals, and semiconductors

EMF and Internal Resistance of a Cell

Measure terminal voltage vs current — find EMF and r; chapter explicitly describes potentiometer method for internal resistance

Magnetic Field of a Solenoid/Coil

Measure B inside solenoid vs current and position — chapter derives B = µ₀nI for solenoid

Magnetic Field vs Distance from Wire

Measure B at various distances from current-carrying wire — verify Biot-Savart law B = µ₀I/2πr

Force on a Current-Carrying Conductor in B Field

Measure force on wire in magnetic field — verify F = BIl; chapter discusses force between parallel wires

Mapping Magnetic Field of a Bar Magnet

Measure B at axial and equatorial points — chapter describes iron filings pattern and field mapping

Earth's Magnetic Field Component

Measure horizontal component of Earth's field — chapter discusses Earth's magnetic elements

Faraday's Law of Induction (Physics with Vernier)

Push magnet through coil, measure induced EMF — chapter describes 3 experiments with galvanometer showing induced current

AC Generator Output

Rotating coil in B field — capture sinusoidal EMF waveform; chapter derives ε = NBAω sin(ωt)

Inductance: Back EMF

Measure back EMF in inductor during current change — chapter covers self-inductance and energy stored ½LI²

AC Circuits: Phase Relationships (Physics with Vernier)

Measure V and I phase in R, L, C circuits — chapter shows current lags voltage in L, leads in C

LCR Resonance Circuit

Vary frequency, measure current amplitude — plot resonance curve; chapter derives ω₀ = 1/√LC

Transformer Turns Ratio

Measure input/output voltage of step-up/step-down transformer — verify Vs/Vp = Ns/Np

Infrared Radiation Detection

Detect IR radiation using temperature sensor — chapter discusses infrared as heat waves; practical demo of EM spectrum

Light Intensity: Inverse Square Law

Measure light intensity vs distance — verify I ∝ 1/r²; chapter discusses ray optics with lenses and mirrors

Refraction and Total Internal Reflection

Measure light intensity through different media — chapter covers critical angle and optical fibre applications

Polarisation: Malus's Law (Physics with Vernier)

Rotate polaroid, measure I vs angle — verify I = I₀cos²θ; chapter describes quantitative polarisation experiment

Interference and Diffraction Patterns

Measure intensity across interference fringes — chapter derives fringe width β = λD/d for YDSE

Photoelectric Effect Simulation

Measure photocurrent and stopping potential — chapter describes evacuated tube apparatus with voltmeter and microammeter

Hydrogen Emission Spectrum

Observe Balmer series lines (656, 486, 434, 410 nm) — chapter details spectral series with energy level transitions

Radioactive Decay: Half-Life (Physics with Vernier)

Measure count rate vs time — verify exponential decay law; chapter derives N = N₀e^(-λt) and t½ = 0.693/λ

Radiation Shielding

Measure radiation through different materials — chapter discusses α, β, γ penetrating powers

Diode V-I Characteristics (Physics with Vernier)

Measure forward/reverse bias current vs voltage — chapter explicitly describes circuit with ammeter/voltmeter for V-I curve

Rectifier Circuits: Half-Wave and Full-Wave

Observe input AC and output DC waveform with/without capacitor filter — chapter gives full circuit diagrams

Zener Diode Voltage Regulation

Measure regulated output voltage — chapter describes Zener diode as voltage regulator with circuit

LED and Photodiode Response

LED forward voltage/light output and photodiode current vs illumination — chapter covers both special-purpose diodes

Transistor Characteristics (CE Configuration)

Measure IC vs VCE for different IB — compute current gain β; chapter provides full CE characteristic procedure

Freezing Point Depression (Chemistry with Vernier)

Measure freezing point of pure water vs solution — compute ΔTf and molar mass; chapter derives ΔTf = Kf × m × i

Boiling Point Elevation

Measure boiling point of pure solvent vs solution — chapter derives ΔTb = Kb × m

Conductivity of Electrolyte Solutions

Compare conductivity of different concentrations — relates to Van't Hoff factor and degree of dissociation

Galvanic Cell EMF: Nernst Equation (Chemistry with Vernier)

Build Zn-Cu cell at various concentrations — verify E = E° - (RT/nF)lnQ; chapter describes SHE and standard potentials

Molar Conductivity vs Concentration

Measure Λm at different concentrations — plot Kohlrausch variation; chapter gives method using Wheatstone bridge/conductivity cell

Electrolysis: Faraday's Law

Electrolyse CuSO₄, measure charge passed and mass deposited — verify m = (M×I×t)/(n×F); chapter covers electrolysis of multiple solutions

Corrosion Rate Study

Monitor potential of iron in different solutions — chapter discusses corrosion as electrochemical process

Rate of Reaction: Concentration Effect (Chemistry with Vernier)

Monitor KMnO₄ decolourisation or gas evolution vs time — chapter gives concentration-time data for N₂O₅ decomposition

Activation Energy: Temperature Effect (Chemistry with Vernier)

Measure rate at two temperatures — compute Ea from Arrhenius equation; chapter derives ln(k₂/k₁) = Ea/R(1/T₁ - 1/T₂)

First-Order Kinetics: H₂O₂ Decomposition

Monitor O₂ pressure from H₂O₂ decomposition — verify first-order: ln[R] = ln[R₀] - kt

Colorimetry: Transition Metal Ion Colours

Measure absorbance of coloured transition metal solutions — chapter lists colours of all first-row d-block ions

KMnO₄ Redox Titration

Track KMnO₄ decolourisation quantitatively — chapter describes oxidation reactions in acidic/alkaline/neutral media

Catalytic Decomposition of H₂O₂

MnO₂ catalyses H₂O₂ decomposition — measure O₂ evolved and temperature; chapter discusses MnO₂ as catalyst

Spectrophotometry of Complex Ions (Chemistry with Vernier)

Measure absorption spectrum of [Ti(H₂O)₆]³⁺ at 498 nm — chapter uses this as textbook example of d-d transition and colour

Conductometric Analysis of Coordination Compounds

Compare conductivity of ionisation isomers — chapter discusses Werner's primary vs secondary valence and ion count in solution

Conductometric Monitoring of SN1 Reaction

SN1 produces ions — monitor conductivity increase over time; chapter discusses SN1 carbocation mechanism

Crystal Violet Fading: SN1 Model Reaction

Track colour fading as model for SN1 kinetics — connects to rate law and order of reaction concepts

pH of Alcohols vs Phenols

Compare pH of phenol, ethanol, water solutions — chapter gives pKa values: phenol ~10 vs ethanol ~16

Fermentation: CO₂ Production

Yeast fermentation of sugar → ethanol + CO₂ — chapter discusses industrial ethanol by fermentation

Oxidation of Alcohols with KMnO₄

Track KMnO₄ decolourisation as 1° alcohol → aldehyde → acid — chapter covers oxidation pathways for 1°/2°/3° alcohols

Carboxylic Acid Strength: pH Comparison

Measure pH of acetic, chloroacetic, trichloroacetic acid — chapter gives pKa: acetic 4.75, chloroacetic 2.86, trichloroacetic 0.7

Acid-Base Titration of Carboxylic Acid

Titrate acetic acid with NaOH — find equivalence point and Ka; chapter covers acid strength and substituent effects

Tollens's Test: Colorimetric

Monitor silver mirror formation — aldehyde vs ketone distinction; chapter describes Tollens and Fehling tests in detail

Amine Basicity: pH Comparison

Measure pH of methylamine, aniline, ammonia solutions — chapter gives pKb: aniline 9.4, ethylamine 3.3, NH₃ 4.7

Azo Dye Formation: Colorimetry

Diazotise aniline at 0-5°C, couple with phenol — track colour development; chapter describes diazonium coupling reactions

Reducing Sugar Test: Fehling's/Benedict's (Chemistry with Vernier)

Test glucose, fructose, sucrose — chapter specifies glucose/maltose/lactose are reducing; sucrose is NOT

Starch-Iodine Test

Measure blue-black colour intensity with starch + I₂ — chapter describes starch detection and amylose structure

Enzyme Activity: Temperature/pH Optimum

Measure enzyme reaction rate at different T and pH — chapter discusses enzyme denaturation, optimum ~37°C

Protein Denaturation

Heat egg albumin — observe/measure turbidity change; chapter discusses denaturation by heat, acid, heavy metals

Pollen Germination: Temperature Effect

Measure pollen tube growth at different temperatures — chapter describes pollen germination in 10% sugar solution

Seed Germination: O₂ Consumption

Measure respiration of germinating seeds — chapter discusses seed viability and moisture content 10-15%

Gel Electrophoresis: Buffer Conductivity

Measure buffer conductivity for electrophoresis — chapter describes agarose gel separation of DNA fragments

PCR Temperature Cycling Demonstration

Monitor temperature changes simulating PCR — chapter gives denaturation 95°C, annealing 55°C, extension 72°C

Simulated Prebiotic Chemistry

Model conditions of Miller-Urey experiment — chapter describes CH₄, H₂, NH₃, water vapour at 800°C with electric discharge

Body Temperature and Fever

Monitor body temperature changes — chapter gives typhoid fever sustained at 39-40°C vs normal baseline

Effect of Exercise on Heart Rate and Breathing

Monitor physiological responses — chapter discusses adrenaline effects on HR, BP, and respiration

Microbial Growth Curve

Measure bacterial turbidity (OD) over time — relates to pathogen growth discussed in chapter

Yeast Fermentation: CO₂ Production (Biology with Vernier)

Monitor CO₂ from yeast + sugar — chapter discusses bread dough, beer, wine fermentation with CO₂ release

Lactic Acid Fermentation: pH Change

Milk → curd: monitor pH drop (~6.5 to ~4.5) — chapter describes LAB converting lactose to lactic acid

BOD Measurement: Dissolved O₂

Measure O₂ consumption in water samples — chapter gives BOD values: raw sewage ~400 mg/L, treated ~20 mg/L

Biogas Production Monitoring

Measure gas pressure from anaerobic digestion — chapter describes biogas plant with methanogens producing CH₄+CO₂+H₂S

Bioreactor pH and Temperature Monitoring

Monitor bioreactor conditions — chapter describes large-scale culture with controlled temperature, pH, O₂ supply

DNA Extraction and Quantification

Measure DNA concentration via absorbance — chapter covers ethidium bromide staining and UV visualisation of DNA bands

ELISA: Colorimetric Detection

Measure absorbance of ELISA plate — chapter describes antigen-antibody detection with colour development

Bt Toxin and pH Activation

Demonstrate pH effect on protein activity — chapter states Bt toxin activates in alkaline insect gut

Water Quality: Dissolved O₂ and pH

Measure DO, pH, temperature of pond water — chapter discusses abiotic factors affecting population distribution

Population Growth: Yeast Culture

Track yeast population by turbidity over time — model logistic growth with carrying capacity K

Primary Productivity: Light/Dark Bottle (Biology with Vernier)

Measure DO in light vs dark bottles — compute GPP, NPP, respiration; chapter defines NPP = GPP - R

Decomposition Rate: CO₂ Evolution

Measure CO₂ from decomposing leaf litter at different temperatures — chapter states warm/moist conditions accelerate decomposition

Soil Respiration

Measure CO₂ from soil samples — mineralisation and nutrient cycling; chapter covers decomposition → humification → mineralisation

Effect of Light on Aquatic Productivity

Measure O₂ production at different light levels — chapter discusses PAR and 2-10% energy capture by plants

Water Quality Survey: Multi-Parameter

Assess aquatic ecosystem health — DO, pH, conductivity, temperature; chapter discusses ecosystem services and biodiversity-productivity link

Forest vs Open: CO₂ and Light Comparison

Compare CO₂ levels, light, temperature in forest canopy vs open — chapter states Amazon produces ~20% of atmospheric O₂