Atomic and Nuclear Physics

Atomic physics is the field of physics that studies atoms as an isolated system of electrons and an atomic nucleus. It is primarily concerned with the arrangement of electrons around the nucleus and the processes by which these arrangements change. Nuclear physics is the field of physics that studies the constituents and interactions of atomic nuclei.

BALMER SERIES AND EMISSION SPECTRA

BALMER SERIES AND EMISSION SPECTRA

  • Electrical safety tested power supply with overload current protection.
  • Tube filed with research-grade gasses & vapors.
  • Bohr atomic model.
  • Visible spectrum.
  • Energy level.
  • Rydberg atom.
  • Rydberg's constant.

BALMER SERIES AND RYDBERG CONSTANT

BALMER SERIES AND RYDBERG CONSTANT

  • High quality imported grating (100,300,600 line/mm).
  • Electrical safety tested high voltage power supply with overload current protection.
  • Tube filed with research-grade gasses & vapors.
  • Bohr atomic model.
  • Visible spectrum.
  • Energy level.
  • Rydberg atom.
  • Rydberg's constant.

ELECTRON DIFFRACTION

ELECTRON DIFFRACTION

  • Electron Diffraction Tube with built-in graphite foil and fluorescent screen.
  • Adjustable Anode voltage from 0V to 5000V range.
  • Diffraction Patterns are noticed in fluorescent screen.
  • De-Broglie Wavelength.
  • Wave nature of electron.
  • Diffraction of Wave.
  • Bragg's Law.

ELECTRON SPIN RESONANCE AND NUCLEAR MAGNETIC RESONANCE (ESR-NMR)

ELECTRON SPIN RESONANCE AND NUCLEAR MAGNETIC RESONANCE (ESR-NMR)

  • Modular set for ESR/NMR
  • Table top experiment.
  • Easy to setup.
  • Glycerin, Teflon, and polystyrene sample for NMR
  • DPPH sample for ESR
  • Resonance absorption.
  • Magnetic fields.
  • Resonant line widths.
  • Electron and proton spin.
  • Magnetic moment.
  • Nuclear g-factors.
  • Nuclear-spin tomography.

FRANCK HERTZ EXPERIMENT

FRANCK HERTZ EXPERIMENT

  • Manual & automatic experiment mode.
  • Neon bands formation in frank-hertz tube can be visually observed.
  • Easy experiment setup.
  • Auto identification of sensors and graphical analysis in automatic mode with data logger.
  • Excitation energy.
  • Electron collision.
  • Kinetic energy.
  • Energy level.
  • Ionization energy.

GAMMA SPECTROSCOPY & COMPTON EFFECT

GAMMA SPECTROSCOPY & COMPTON EFFECT

  • An external MCA interfacing through the computer USB port.
  • USB Support
  • Powerful System Software for Analyzing data.
  • Connects to a USB port eliminating the need to install cards inside the computer.
  • Scintillation detector.
  • Gamma radiation.
  • Energy resolution.
  • Multichannel analyser.
  • Compton effect.

MILLIKAN OIL DROP APPARATUS

MILLIKAN OIL DROP APPARATUS

  • Quick and accurate measurement.
  • Clarity of drops for measurements.
  • Stability of drops during measurements.
  • Inbuilt power supply.
  • USB Camera.
  • Electron charge.
  • Terminal velocity.
  • Electric field.
  • Brownian motion.
  • Stoke's law.

PLANCK'S CONSTANT

PLANCK'S CONSTANT

  • Inbuilt power supply & photocell.
  • Different types of filters and LED.
  • Different types of wave length of all filters and LED
  • Photoelectric effect.
  • Photo cell.
  • Work function.
  • Planck's constant.
  • Photoelectric voltage.
  • Photon energy.

PLANCK'S CONSTANT BY Cs PHOTOCELL

PLANCK'S CONSTANT BY Cs PHOTOCELL

  • Multipurpose electrometer amplifier.
  • Cs photo cell.
  • Multipurpose power supply.
  • Monochromatic light source may be used in many other experiments also.
  • Hexagonal optical bench.
  • Photoelectric effect.
  • Photo cell.
  • Work function.
  • Planck's constant.
  • Photoelectric voltage.
  • Photon energy.

PLANCK'S CONSTANT BY LED

PLANCK'S CONSTANT BY LED

  • It is a self contained unit.
  • Using LED method instead of photocell & monochromatic light source reduces cost.
  • Built - in power supply for Oven (oven ambient to 60°C, resolution 0.1°C).
  • Variable voltage source 0 - 2V DC, resolution 1mV.
  • Current meter 0-20mA / 2000mA.
  • In - built temperature sensor.
  • Photoelectric effect.
  • Photo cell.
  • Work function.
  • Planck's constant.
  • Photoelectric voltage.
  • Photon energy.

RADIATION COUNTER

RADIATION COUNTER

  • Preset Time
  • Digital Ratemeter
  • Preset Audio Alarm
  • Adjustable High Voltage
  • Volume Control
  • Operate both manual and software mode.
  • G.M. counter.
  • G.M. tube efficiency.
  • Alpha, Beta & Gamma radiation.
  • Decay energy.

RUTHERFORD SCATTERING APPARATUS

RUTHERFORD SCATTERING APPARATUS

This experiment demonstrates the Rutherford's scattering experiment. A cylindrical plastic chamber houses a Po-210 alpha particle source at one end, and 8.6cm diameter circle of alpha particle-sensitive film at the other. The film develops in 2.5 molar NaOH. Beam angle of particle source is 2.5 degrees, with deflecting angle of 20 degrees in both positive and negative side. Film is exposed to approximately for 7 days. The set-up also requires a vacuum pump to evacuate the chamber, stereo microscope for viewing film, beaker and heater for film processing.

THOMSON TUBE

THOMSON TUBE

  • Four experiment in one setup.
  • Thompson Tube with built-in capacitor and fluorescent screen.
  • Helmholtz Coil for production of magnetic field.
  • Thompson Tube
  • Electric Field
  • Magnetic Field
  • Helmholtz coil
  • Effect of the electric and magnetic field on electron.
  • e/m ratio.

VERNIER RADIATION MONITOR VRM-BTD

VERNIER RADIATION MONITOR VRM-BTD

The Vernier Radiation Monitor consists of a Geiger-Mueller tube mounted in a small, rugged, plastic case. It requires no battery, getting power from the data-collection interface. A thin window protected by a metal screen allows alpha radiation to be detected, along with beta and gamma. It can be used to explore radiation statistics, measure the rate of nuclear decay, and monitor radon progeny.

Sensor Requirements
The Vernier Radiation Monitor requires a compatible interface and software to collect data. Interface and software sold separately.

X-RAY APPARATUS

X-RAY APPARATUS

The experiment chamber is contained in a closed, radiation-proof housing with a transparent synthetic-glass shield. The high vacuum X-Ray tube with the directly heated tungsten cathode and copper anode is positioned in a borosilicate glass chamber with a thin walled, concave ray emission window. A lead glass hood with a collimator causes X-rays to emerge in parallel with the experiment plane and provides a shield against scattered radiation. The horizontal counter tube goniometer consists of a central sample holder and the swiveling arm. In the form of a slight ray, this arms serves as a mount for the GM Tube, ionization chamber as well as experimental devices in slide format or on a 5cm X 5cm base plate. This swiveling arm can be rotated manually independently of the sample holder or at a fixed mutual angle with the ratio of 2:1, for instant, for experiments involving Bragg's refection. The devices equipped with angle and mm scale, position marking for experimental devices, as well as radiation proof bushings for cables and houses.