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Mechanical content by way of System Approach

Mechanical content by way of System Approach. Utilizing Festo Systems. Content Structure: Mechanical Components. Material Basics Fasteners, Nuts and Washers Ball Screws and Power Threads (ACME) Flexible Elements (Belts and Chains) Couplings and Clutches

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Mechanical content by way of System Approach

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  1. Mechanical contentby way of System Approach Utilizing Festo Systems

  2. Content Structure:Mechanical Components • Material Basics • Fasteners, Nuts and Washers • Ball Screws and Power Threads (ACME) • Flexible Elements (Belts and Chains) • Couplings and Clutches • Elastic (mechanical) Springs • Gears and Gear Trains • Bearings, Guideways and Lubrication • Sealings and Retaining Rings • Keys (Spline Shafts) and Pins • Technical Drawings (Tolerances, Fits, Standards)

  3. System

  4. Startup Procedure

  5. Station Startup Order

  6. Start Step Detail

  7. PLC I/O

  8. Terminal – PLC Inputs

  9. Terminal – PLC Outputs

  10. Terminal – PLC I/O LEDs

  11. Ex: Separating Station

  12. Function Chart

  13. Displacement Step Diag

  14. Content Structure:Mechanical Components • Material Basics • Fasteners, Nuts and Washers • Ball Screws and Power Threads (ACME) • Flexible Elements (Belts and Chains) • Couplings and Clutches • Elastic (mechanical) Springs • Gears and Gear Trains • Bearings, Guideways and Lubrication • Sealings and Retaining Rings • Keys (Spline Shafts) and Pins • Technical Drawings (Tolerances, Fits, Standards)

  15. Mecanical Sub System

  16. Mecanical Sub System

  17. External System for Study

  18. Materials Metallic Materials Composites Non-metallic Materials e.g. Sintered Metal (Hard Metal), Concrete, Fibery Glass Ferrous Alloys Natural Materials e.g. Steel, Cast Iron e.g. Wood, Stone, Leather Ceramic Materials Non-natural Materials Non-ferrous Alloys e.g. Glass, Porcelain Aluminium Oxide Light Metals e.g. Magnesium, Aluminium Polymer Materials Noble Metals Heavy Metals e.g. Polyester, Polyamide Plexiglass e.g. Copper , Nickel, Zinc e.g. Gold, Platinum

  19. The way from Iron Ore to Cast Iron / Steel

  20. Material Basics Temperature C° 1536 Liquid Iron A 1400 D Liquid + Austenite C Liquid + Cementite 1200 F 1147 E Austenite 1000 Austenite, Ledeburite Cementite Cementite + Ledeburite G 800 S K 723 P Cementite, Pearlite + Ledeburite 600 Pearlite + Ferrite Pearlite + Cementite 500 0.8 2.06 4.3 6.67 Carbon % 1 2 3 4 5 6 hypo-eutectoid hyper-eutectoid Eutecticum Cast Iron Steel

  21. increases lowers Non-metals (companions to iron) CarbonC Silicium Si PhosphorusP SulphurS Metals (alloying elements) ChromiumCr MolybdenumMo ManganeseMn NickelNi VanadiumV WolframW

  22. Brinell Rockwell Vickers

  23. Example: Unalloyed Steel ProportionalLimit Rupture or Breaking Strength Yield Strength Ultimate or Tensile Strength Hook‘s Law Strain  (%) Elastic Behavior Plastic Behavior

  24. High-Strength Steel Stress  (N/mm2) Unalloyed Steel Aluminium Alloy Strain  (%)

  25. Initial Hammer Position Impact Test Scale Impact Specimen zoom-in End of the Swing Impact Specimen Areas of Fraction

  26. 4 1 5 2 • 1 Hexagon Bolt (pull-in) • Socket–Head Cap Screw • Stud Bolt • Fit Bolt • Anti–Fatique Bolt 3

  27. 10. Which of the following screw lockings are friction based? A 1, 2 and 7 B 3, 4 and 5 C 6, 8 and 9 D 7, 10 and 11 E All are friction based x x

  28. Thread Angle 60° Minor (Root) Diameter Major Diameter d1 d d2 P Mean (Pitch) Diameter Pitch

  29. 15. Which statements about the pictured thread are correct? A The thread angle for metric threads is  = 55° B For manufacturing the diameter d2 is not important C No 1 is the pitch of the thread D The diameter d1 leads to the thread designation M E The diameter d2 is the root diameter of the thread x x

  30. Screw Guided Balls Nut

  31. 30° 55-60° Power Thread (ACME) Ball Screw Fastener Thread

  32. 13. Which of the following descriptions about the pictured component is correct? A It is a Ball Screw for translating rotational motion to linear motion B It is a Trapezoidal Thread Rod for translating linear motion to rotational motion C It is a Worm Gear for translating rotational motion to linear motion D It is a Flexible Shaft for transmitting torques E It is a Spline Shaft for transmitting torques x

  33. Simple Drive System North Gear Ltd. V-Belt Drive Gearbox DC-Motor Tire-Coupling

  34. Mecanical Sub System

  35. 11. Whatis the pictured component called? A Shock Absorber B Tire Coupling C Internal Expanding Clutch D Journal Bearing E Spherical Roller Bearing x

  36. Energy Flow

  37. 30+0.25 36+0.5 5 B A Rz 4 Ø25k6 Ø25k6 Ø25H7 Ø25H7 Ø25k6 Ø36h11 Ø71 Ø42 Ø64 x A 1.5 y 1.3H13 50 84+0.3 2x45° 24±0.05 146 A - A 0.5 B x Rz 4 = 8h9 8P9 8P9 y Rz 1.6 = 28-0.2 22+0.2

  38. Clearance or Transision Clearance or Transision Interference

  39. 5-0.15 5H7 -0.05 5s6 5+0.15 +0.05 Tolerances Fits

  40. ½ ES ½ es ½ EI ½ ei Shaft Dmax Dmin dmax dmin  Basic Size d=D ½ ei ½ EI ½ es ½ ES Hole ES = Hole upper Deviation Hole Tolerance Zone es = Shaft upper Deviation EI = Hole lower Deviation Shaft Tolerance Zone ei = Shaft lower Deviation

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