Slider Crank Mechanism in SOLIDWORKS | EveryEng

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Self-paced Beginner

Slider Crank Mechanism in SOLIDWORKS

4(1580)

1452 views

₹ 299

25 min

Anytime

English

1452 views

Team EveryEngMechanical Engineering

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Certificate of completion

Volume pricing for groups of 5+

Why enroll

Students will have gained a comprehensive understanding of slider crank mechanism design in SolidWorks, equipped with the skills and knowledge to tackle complex engineering challenges with confidence and proficiency. They will be prepared to apply their expertise to a wide range of industries, contributing to the development of innovative and efficient mechanical systems.

Your instructor

Team EveryEng

Engineer

Mechanical Engineering

22+ yrs experience·India

Is this course for you?

You should take this if

You work in Aerospace or Automotive
You're a Mechanical Engineering professional
You prefer self-paced learning you can revisit

You should skip if

You need a different specialisation outside Mechanical Engineering
You need live interaction with an instructor

Course details

This course offers a comprehensive exploration into the design and analysis of slider crank mechanisms using SolidWorks, a powerful computer-aided design (CAD) software. Slider crank mechanisms are fundamental components in various mechanical systems, including engines, pumps, and automotive suspensions.
Through a combination of theoretical learning and practical hands-on exercises, participants will develop a thorough understanding of the principles and techniques involved in designing and simulating slider crank mechanisms.
The course will commence with an introduction to SolidWorks, providing participants with the necessary skills to navigate the software interface, create sketches, and generate 3D part models. As the course progresses, emphasis will be placed on advanced modeling techniques specific to slider crank mechanisms, including assembly modeling, motion analysis, and dynamic simulation.

Course suitable for

Key topics covered

Part 1 Crank Disc
Part 2 Connecting Rod
Part 3 Slider
Part 4 Frame
Part 5 Assembly

Course content

The course is readily available, allowing learners to start and complete it at their own pace.

5 lectures25 min

Design a Crank Disc
3 min
Design a Connecting Rod
3 min
Design a Slider
5 min
Design a Frame
8 min
Assembly
6 min

Opportunities that await you!

Skills & tools you'll gain

SolidWorks

Career opportunities

₹299

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Questions and Answers

Q: You're checking a student model and drawing while searching "slider crank mechanism solidworks drawing dimension interpretation". The drawing shows crank length 50 ±0.1 mm, connecting rod length 150 ±0.2 mm, but the SOLIDWORKS model tree lists the rod as 149.8 mm driven by an equation. What do you sign off in the drawing review?

A: Governing principle: the drawing is the legal contract and defines nominal geometry. Applied here: a parametric deviation hidden in equations breaks configuration control even if GD&T allows it, and it will poison tolerance stack analysis later. Distractor that traps people: Option A appeals to tolerance logic but ignores document hierarchy and change control under ISO-style practices.

Q: During concept review you google "slider crank mechanism solidworks piston stroke calculation". Crank radius is 40 mm and rod length is 160 mm. Without running motion study, what piston stroke do you expect and why?

A: Governing principle: slider stroke is primarily 2R, with rod length affecting only secondary motion. Applied here: a 4:1 rod‑to‑crank ratio keeps deviation small, so 2 × 40 mm is the right order before detailed kinematics. Distractor that traps people: Option B pulls in the right physics but overestimates the effect without checking the ratio.

Q: At lab acceptance you search "solidworks slider crank mechanism motion study verification steps". The animation shows binding near TDC. What do you physically verify first on the assembled rig before touching the CAD?

A: Governing principle: verify hardware geometry before assuming a simulation defect. Applied here: binding at dead center often comes from small length or parallelism errors that only show up when metal is involved. Distractor that traps people: Option C feels CAD‑savvy but skips the physical verification step needed for acceptance.

Q: While looking up "slider crank mechanism solidworks mate symbols meaning", you notice the drawing calls out a concentric mate symbol at the piston pin, but the model uses a coincident mate with zero clearance. What’s the real issue?

A: Governing principle: mates represent physical constraints, not just alignment. Applied here: a coincident mate can lock rotation that a pin joint must allow, changing kinematics under motion. Distractor that traps people: Option A comes from 2D thinking and ignores rotational DOF.