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Module System - Filter and Oscillator Circuits Type 4075

Type 4075

Module System - Filter and Oscillator Circuits Type 4075

Type 4075 is a universal platform for filter and oscillator experiments. Passive, active and digital filters can be built alongside the classic oscillator circuits. The accompanying manual includes a solution section.

  • Universal module system for filter and oscillator technology
  • Passive, active and digital filters on one platform
  • All common oscillator circuits included
  • Clear lab platform with plug-in modules
  • Detailed manual with solution section
  • Well suited for introductory and advanced exercises
Datasheet (PDF) Experiment manual and solutions (PDF)

Filter technology

The system covers passive RC filters, LCR resonant circuits and active low-pass, high-pass, band-pass and notch filters. This makes it possible to determine cutoff frequencies, gains and quality factors directly in the lab.

Several digital filter variants are also included, so band-limited and cascaded structures can be investigated as well.

Oscillators and additional work

For oscillator technology, quartz, CMOS, Meissner, Hartley and Colpitts circuits are available. They are supplemented by voltage/frequency converters, astable multivibrators and additional generator circuits.

The exercises are arranged so that the behaviour of filters and oscillators can be followed both theoretically and by measurement.

Module housings
56 x 75 x 35 mm / 38 x 56 x 35 mm / 38 x 19 x 35 mm
Connector system
4 mm plug-in system
Storage plate
266 x 297 x 130 mm
Weight
approx. 2.0 kg with modules
Recommended accessories
Experiment manual con-0136.pdf

Taken from the tables of contents of the hps experiment manuals (titles, numbers and pages). All manuals are German; titles are shown in the original language. All manuals and experiments

V 0136 Filter- und Oszillatorschaltungen Manual · 93 pages 36 experiments

Main device of this manual – applies to all experiments View table of contents

  1. 1.1 Theoretische Einführung p. 1
  2. 1.2.2 Grenzfrequenz eines RC-Tiefpasses p. 5
  3. 1.3.2 Grenzfrequenz eines RC-Hochpasses p. 7
  4. 1.4.2 Resonanzfrequenz und Güte eines LCR-Parallelschwingkreises p. 9
  5. 1.5.2 Resonanzfrequenz und Güte eines LCR-Serienschwingkreises p. 11
  6. 2.1 Theoretische Einführung p. 12
  7. 2.2.2 Grenzfrequenz und Verstärkung eines Tiefpasses 1. Ordnung p. 14
  8. 2.3.2 Grenzfrequenz und Verstärkung eines Tiefpasses 2. Ordnung p. 16
  9. 2.4 Tiefpass 3. Ordnung p. 18
  10. 2.5 Tiefpass 4. Ordnung p. 20
  11. 2.6.2 Grenzfrequenz und Verstärkung eines Hochpasses 1. Ordnung p. 23
  12. 2.7 Hochpass 2. Ordnung p. 24
  13. 2.8.2 Resonanzfrequenz und Güte eines Bandpasses 2. Ordnung p. 27
  14. 2.9 Bandpass mit variabler Güte p. 29
  15. 2.10.2 Notch-Filter mit variabler Güte p. 31
  16. 2.11.2 Phasenschieber mit Tiefpass 1. Ordnung p. 33
  17. 2.11.3 Variabler Phasenschieber p. 34
  18. 3.1.1 Kondensatoren im Takt p. 35
  19. 3.1.2 Universal-Dual-Filter p. 37
  20. 3.1.3 Was Sie beim Umgang mit dem Universal-Dual-Filter beachten müssen! p. 37
  21. 3.2.1 Tiefpass, Bandpass
  22. 3.2.2 und Notch-Filter 2. Ordnung p. 39
  23. 3.2.2 Bandpass 2. Ordnung mit variabler Güte p. 41
  24. 3.3 Bandpass in Kaskadenschaltung p. 43
  25. 4.1 Theoretische Einführung p. 45
  26. 4.2.2 Ausgangsfrequenz eines Quarzoszillators p. 48
  27. 4.3 CMOS-Oszillatoren p. 49
  28. 4.4.1 Meißner-Oszillator in Basisschaltung p. 50
  29. 4.4.2 Meißner-Oszillator in Emitterschaltung p. 51
  30. 4.5 Hartley-Oszillator p. 52
  31. 4.6 Colpitts-Oszillator p. 53
  32. 4.7.2 Kennlinie eines Spannungs-/Frequenzkonverters p. 55
  33. 4.8.2 Dimensionierung eines astabilen Multivibrators p. 57
  34. 4.9 RC-Generator mit Operationsverstärker p. 58
  35. 4.10 Rechteck-/Dreieckgenerator p. 59
  36. 4.11 Sägezahngenerator p. 60

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