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Determining the gravitational constant with the gravitation torsion balance after Cavendish<br>- Recording the excursion and evaluating the measurement with the IR position detector and PC /
Optical bench with standardised profile, 1 m

Optical bench with standardised profile, 1 m

46032

8 Optical bench with standardised profile, 1 m

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Description

For use in demonstration experiments and in the laboratory, meeting the highest precision requirements. Triangular profile with base and adjustment screw for three-point support adjustment. The ends have bore holes for insertion of connecting elements for additional rails.

Technical data

Length: 100 cm
Graduation: mm and cm
Weight: 3.5 kg

Related Documents

PDF (Instruction Sheet)	[460 32] Optical bench with standardised profile, 1 m
PDF (Experiment description)	P1.1.3.2 Determining the gravitational constant with the gravitation torsion balance after Cavendish - Recording the excursion and evaluating the measurement with the IR position detector and PC
PDF (Experiment description)	P5.3.1.1 Diffraction at a slit, at a post and at a circular iris diaphragm
PDF (Experiment description)	P5.3.1.2 Diffraction at a double slit and multiple slits
PDF (Experiment description)	P5.3.1.3 Diffraction at one- and two-dimensional gratings
PDF (Experiment description)	P5.3.1.9 Investigation of the spatial coherence of an extended light source
PDF (Experiment description)	P5.3.2.1 Interference at a Fresnel's mirror with an He-Ne laser
PDF (Experiment description)	P5.3.2.2 Lloyds mirror experiment with an He-Ne laser
PDF (Experiment description)	P5.3.2.3 Interference at Fresnels biprism with an He-Ne laser
PDF (Experiment description)	P5.3.3.1 Newton's Rings in transmitted monochromatic light
PDF (Experiment description)	P5.3.3.2 Newton's rings in transmitted and reflected white light
PDF (Experiment description)	P5.3.4.3 Determining the wavelength of the light of an He-Ne laser using a Michelson interferometer - Set-up on the optical bench
PDF (Experiment description)	P5.3.4.4 Determination of the coherence time and the line width of spectral lines with the Michelson interferometer
PDF (Experiment description)	P5.3.4.5 Investigation of the pressure induced line broadening using a Michelson interferometer
PDF (Experiment description)	P5.3.4.6 Determination of the line splitting of two spectral lines using a Michelson interferometer
PDF (Experiment description)	P5.4.4.1 Investigating the Kerr effect in nitrobenzene
PDF (Experiment description)	P5.4.5.1 Demonstrating the Pockels effect in a conoscopic beam path
PDF (Experiment description)	P5.4.5.2 Pockels effect: transmitting information using modulated light
PDF (Experiment description)	P5.4.6.1 Faraday effect: determining Verdets constant for flint glass as a function of the wavelength
PDF (Experiment description)	P5.5.2.1 Stefan-Boltzmann law: measuring the radiant intensity of a "black body" as a function of temperature
PDF (Experiment description)	P5.5.2.2 Stefan-Boltzmann law: measuring the radiant intensity of a "black body" as a function of temperature - Recording and evaluating with CASSY
PDF (Experiment description)	P5.5.2.3 Confirming the laws of radiation with Leslie's cube
PDF (Experiment description)	P5.7.2.3 Assembling a grating spectrometer for measuring spectral lines
PDF (Experiment description)	P5.7.2.4 Determining the grating constant of a holographic grating with an He-Ne-Laser
PDF (Experiment description)	P6.2.2.3 Investigating the spectrum of a high pressure mercury lamp
PDF (Experiment description)	P6.2.7.3 Observing the normal Zeeman effect in transverse and longitudinal configuration - spectroscopy using a Fabry-Perot etalon
PDF (Experiment description)	P6.2.7.4 Measuring the Zeeman splitting of the red cadmium line as a function of the magnetic field - spectroscopy using a Fabry-Perot etalon
PDF (Experiment description)	P6.2.8.1 Optical pumping: observing the relaxation signal
PDF (Experiment description)	P6.2.8.2 Optical pumping: measuring and observing the Zeeman transitions in the ground states of Rb-87 with s+- and s--pumped light
PDF (Experiment description)	P6.2.8.3 Optical pumping: measuring and observing the Zeeman transitions in the ground states of Rb-85 with s+- and s--pumped light
PDF (Experiment description)	P6.2.8.4 Optical pumping: measuring and observing the Zeeman transitions in the ground states of Rb-87 as a function of the magnetic flux density B
PDF (Experiment description)	P6.2.8.5 Optical pumping: measuring and observing the Zeeman transitions in the ground states of Rb-85 as a function of the magnetic flux density B
PDF (Experiment description)	P6.2.8.6 Optical pumping: measuring and observing two-quantum transitions
PDF (Experiment description)	P7.2.3.1 Recording the current-voltage characteristics of a CdS photoresistor

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Optical bench with standardised profile, 1 m

Description

Technical data

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