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[531 120] Multimeter LDanalog 20
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P1.5.3.2 Forced rotational oscillations - Measuring with a hand-held stopclock
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P1.5.3.4 Forced harmonic and chaotic rotational oscillations - Recording with CASSY
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P1.7.3.2 Determining the wavelength of standing sound waves
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P2.3.4.1 Converting electrical energy into heat energy - Measuring with a voltmeter and an ammeter
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P2.5.3.2 Determining the adiabatic exponent cp/cV of various gases using the gas elastic resonance apparatus
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P2.6.2.2 Determining the efficiency of the hot-air engine as a heat engine
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P2.6.2.3 Determining the efficiency of the hot-air engine as a refrigerator
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P3.1.2.1 Confirming Coulombs law - Measuring with the torsion balance, Schürholz design
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P3.1.5.1 Investigating the charge distribution on the surface of electrical conductors
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P3.1.5.2 Electrostatic induction with the hemispheres after Cavendish
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P3.1.6.1 Determining the capacitance of a sphere in free space
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P3.1.6.2 Determining the capacitance of a sphere in front of a metal plate
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P3.1.7.1 Determining the capacitance of a plate capacitor - Measuring the charge with the electrometer amplifier
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P3.1.7.2 Parallel and series connection of capacitors - Measuring the charge with the electrometer amplifier
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P3.1.7.3 Determining the capacitance of a plate capacitor - Measuring the charge with the I-measuring amplifier D
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P3.1.7.5 Measuring the electric field strength inside a plate capacitor as a function of the dielectrics
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P3.2.2.1 Verifying Ohms law and measuring specific resistances
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P3.2.3.1 Measuring current and voltage at resistors connected in parallel and in series
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P3.2.3.1 Measuring current and voltage at resistors connected in parallel and in series
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P3.4.5.1 Voltage and current transformation with a transformer
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P3.4.5.2 Voltage transformation with a transformer under load
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P3.6.6.1 Determining the heating power of an ohmic load in an AC circuit as a function of the applied voltage
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P3.7.4.1 Directional characteristic and polarization of microwaves in front of a horn antenna
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P3.7.4.2 Absorption of microwaves
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P3.7.4.3 Interference of microwaves
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P3.7.4.5 Refraction of microwaves
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P3.7.5.1 Guiding of microwaves along a Lecher line
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P3.7.5.2 Qualitative demonstration of guiding of microwaves along a metal waveguide
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P4.1.1.1 Determining the internal resistance of a battery
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P4.1.1.3 Recording the current-voltage characteristics of a solar battery as a function of the irradiance
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P4.1.3.1 Recording the current-voltage characteristics of diodes
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P4.1.3.2 Recording the current-voltage characteristics of Zener diodes (Z-diodes)
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P4.1.3.3 Recording the current-voltage characteristics of light-emitting diodes (LED)
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P4.1.5.1 Investigating the diode properties of transistor junctions
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P4.1.5.2 Recording the characteristics of a transistor
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P4.1.5.3 Recording the characteristics of a field-effect transistor
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P4.1.6.2 The transistor as a switch
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P4.1.6.3 The transistor as a sine-wave generator (oscillator)
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P4.1.6.5 The field-effect transistor as an amplifier
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P4.1.6.6 The field-effect transistor as a switch
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P5.8.1.1 Setting up an He-Ne laser
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P5.8.1.2 Measuring of wavelength, polarization and beam profile
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P5.8.1.4 Dependence of the output power on the position of the laser tube inside the resonator
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P5.8.1.5 Stability condition of an optical resonator
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P6.1.3.1 Determining the specific charge of the electron
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P6.1.4.3 Determining Plancks constant - Selection of wavelengths using interference filters on the optical bench
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P6.1.6.1 Observing individual lycopod spores in a Paul trap
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P6.2.6.3 Resonance absorption of a passive RF oscillator circuit
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P6.3.1.3 Detecting X-rays using an ionization chamber
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P6.3.1.4 Determining the ion dose rate of the X-ray tube with molydenum anode
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P6.5.7.1 Deflection of beta radiation in a magnetic field
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