CADD & DesignAdmissions openBeginner to Advanced

SolidCAM Course in Jalandhar

Learn Practical CAM Skills for CNC Manufacturing

4.8 / 5 from 39 studentsNext batch: 1st of every month

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Course at a glance

Duration2 months
DeliveryClassroom — Jalandhar · Weekend batch
LevelBeginner to Advanced
CertificationGIT Education Certificate in SolidCAM
Notice

Admissions for the 1st of every month intake are open. Seats are limited to 14 per batch. Message us on WhatsApp (opens in a new tab)

Section 01

About the SolidCAM course

CADD & Design · 2 months · Jalandhar, Punjab

A SolidCAM course in Jalandhar can help students and professionals develop practical knowledge of computer-aided manufacturing (CAM), CNC programming, machining strategies, and toolpath generation. SolidCAM integrates CAM operations with CAD environments and supports workflows including 2.5D milling, 3D machining, turning, mill-turn, and 4/5-axis machining.

The software also includes technologies such as iMachining, which uses toolpath and cutting-condition calculations based on factors including the tool, material, and CNC machine parameters.

A structured SolidCAM course Jalandhar program can introduce learners to CAD model preparation, machining setup, tool selection, roughing, finishing, rest machining, simulation, toolpath verification, and post-processing. These skills can be relevant to students and professionals interested in CNC machining, mechanical engineering, manufacturing, mould and die work, and precision engineering.

For learners in Jalandhar, the course can provide a pathway from basic CAM concepts toward practical understanding of how digital designs are converted into CNC machining operations. The exact duration, modules, software version, and practical facilities should be verified with the training provider before enrolment.

Interested in learning SolidCAM in Jalandhar and developing practical knowledge of CAM setup, milling, 3D machining, toolpath generation, simulation, and CNC workflows? Submit an enquiry to learn about the currently available course structure and determine whether it matches your learning goals.

Get information about the current SolidCAM syllabus, training format, duration, eligibility, practical sessions, software modules, and other course details before enrolling.

Course details

Duration
2 months
Class load
7.5 hours per week (5 classes)
Delivery
Classroom — Jalandhar · Weekend batch
Languages
English, Hindi, Punjabi
Batch size
Max 14 students
Modules
13 modules

Beyond Basic CAD Design

Learning SolidCAM can provide students with an opportunity to move beyond basic CAD design and understand what happens when a digital component needs to be manufactured on a CNC machine. CAM knowledge focuses on planning machining operations, creating toolpaths, checking those toolpaths, and preparing manufacturing data.

CAD-Based Manufacturing Workflows

One major reason to study SolidCAM is its connection with CAD-based manufacturing workflows. Learners can work with a digital model and progressively develop the machining setup needed to manufacture the component. This helps explain how design information is translated into practical manufacturing instructions.

2.5D and 3D Machining Operations

A structured program can introduce students to 2.5D and 3D machining operations, depending on the syllabus. These may include profiling, pocketing, drilling, roughing, finishing, and other operations used in CNC manufacturing. Learning these operations helps students understand why different toolpaths are selected for different geometric features.

Toolpath Simulation and Verification

Another useful area is toolpath simulation and verification. Before machining a component, CAM software can be used to examine the planned tool movements and material-removal process. Students can learn how to identify potential issues and understand the importance of checking a toolpath before it reaches the CNC machine.

Exposure to iMachining

SolidCAM also provides exposure to iMachining, a technology designed to calculate machining toolpaths and cutting conditions based on factors such as material, tooling, and machine information. Understanding such technology can help learners appreciate how modern CAM systems assist manufacturing planning.

Turning, Mill-Turn and Multi-Axis

For learners interested in advanced manufacturing, the broader SolidCAM environment also covers technologies associated with turning, mill-turn, and multi-axis machining. The specific operations taught should always be confirmed with the training provider because course coverage can differ.

Complements CAD and CNC Skills

A SolidCAM course can also complement skills in software such as CAD applications and CNC programming. A learner who understands both the design side and manufacturing side can develop a more complete view of the product-development process.

Relevant to Manufacturing Careers

For students in Jalandhar, specialized CAM training may be particularly relevant if they are considering careers connected with CNC machining, tooling, production, mechanical engineering, mould and die manufacturing, or precision manufacturing.

Build Practical Competence

However, completing a course alone does not guarantee employment, salary, or a specific career outcome. Students should focus on building practical competence through exercises and projects while developing complementary knowledge of engineering drawings, machining processes, cutting tools, CNC concepts, and manufacturing technology.

Look Beyond the Course Name

When comparing a SolidCAM course in Jalandhar, learners should therefore look beyond the course name. Check the curriculum, software access, trainer experience, practical lab facilities, project work, duration, software version, and the types of machining operations covered.

A Complete Workflow

The real value of the program comes from being able to understand and practise a complete workflow: CAD model → CAM setup → machining strategy → toolpath generation → simulation → verification → post-processing → CNC manufacturing.

Choosing a Training Provider

Choosing a training provider for a specialized SolidCAM course in Jalandhar requires looking beyond the course title. Students should consider whether the learning environment provides relevant software exposure, practical exercises, trainer guidance, and a curriculum that explains both CAM operations and the manufacturing concepts behind them.

A Local Training Option

Techcadd can be considered as one local training option for learners interested in developing SolidCAM and CAD/CAM skills. However, students should verify the currently available SolidCAM curriculum, software access, practical facilities, trainer support, and course structure before enrolling.

Not Just Memorizing Commands

A useful SolidCAM learning program should not focus exclusively on memorizing software commands. Students need to understand how a machining operation relates to the component being manufactured. For example, creating a pocket, profile, drilling operation, roughing strategy, or finishing toolpath requires an understanding of the geometry, cutting tool, machining conditions, and intended manufacturing result.

Hands-On Practice

This makes hands-on practice particularly important. Learners should have opportunities to work with suitable CAD models, create machining operations, generate toolpaths, simulate those operations, and examine the results. Practical exercises can help students understand why a particular strategy is appropriate rather than simply learning where a particular command is located.

Suited to Your Background

The learner's existing background should also be considered. A mechanical engineering student may already understand machining terminology and engineering drawings, while a beginner may need additional explanation of coordinates, cutting tools, feeds, speeds, and CNC fundamentals. A structured learning environment can make the software easier to approach for both groups.

Range of SolidCAM Technologies

Another useful consideration is the range of SolidCAM technologies covered. Depending on the learner's objective, the syllabus may include 2.5D milling, 3D machining, iMachining, turning, mill-turn, simulation, and multi-axis machining. Not every course necessarily covers all of these areas, so students should check the current curriculum before making a decision.

Local Practical Sessions

For learners in Jalandhar, studying locally can also make regular practical sessions and instructor interaction more convenient. Students can discuss software problems, toolpath behaviour, machining concepts, and project-related questions during training rather than depending entirely on self-learning resources.

CAM Problem-Solving Ability

The broader objective should be to develop CAM problem-solving ability. A student should gradually become comfortable looking at a component, identifying its machining requirements, selecting suitable operations, generating toolpaths, checking them through simulation, and understanding how the resulting data fits into a CNC manufacturing workflow.

A Certificate Is Not Competence

Students should also avoid assuming that a training certificate by itself establishes professional competence. Employers may consider practical skills, technical qualifications, project experience, CNC knowledge, engineering fundamentals, and familiarity with relevant software when evaluating candidates.

Ask Practical Questions Before Admission

For this reason, anyone comparing a SolidCAM course in Jalandhar should ask practical questions before admission: How much software practice is included? Which SolidCAM modules are taught? Is project work included? What software version is available? Are simulations and post-processing covered? What level of prior knowledge is expected? Evaluating these factors can help learners choose a program that matches their actual learning goals and provides a useful foundation for further development in CAD/CAM and CNC manufacturing.

Section 02

What you will be able to do

Each outcome is assessed in the final practical test before the certificate is issued.

  • Navigate the SolidCAM environment and set up a CAM project from a CAD component.
  • Prepare CAD geometry and define work coordinate systems, stock, machining directions and machine orientation.
  • Create 2.5D milling operations — profile, pocket, face, drilling, contouring and slot machining.
  • Plan 3D roughing and finishing strategies for curved and irregular surfaces.
  • Set cutting depth, step-over, feed rate, spindle speed, tool selection and machining allowance for an operation.
  • Generate milling toolpaths with iMachining and add rest machining where earlier tools could not reach.
  • Simulate toolpaths to check tool movement and material removal before machining.
  • Understand turning, mill-turn and 4/5-axis concepts, and post-process toolpaths into machine-specific CNC code.

Section 03

Curriculum

13 modules over 2 months. Every module ends with a practical file that is checked by your trainer.

    • Students begin by understanding the SolidCAM environment, project structure, CAM setup, navigation, and basic workflow.
    • This foundation helps beginners understand how a CAD component becomes a manufacturing project.

    • Learners can study how to work with imported or existing CAD geometry before machining operations are created.
    • Topics may include model inspection, coordinate systems, machining areas, geometry selection, and appropriate setup for manufacturing.

    • Correct setup is essential for generating usable toolpaths.
    • Students can learn about work coordinate systems, machining directions, stock definition, machine orientation, and other setup requirements.

    • A typical SolidCAM program may introduce fundamental milling operations such as: profile milling, pocket milling, face milling, drilling, contouring, and slot machining.
    • These operations help learners understand how different geometric features require different machining approaches.

    • Students can progress toward machining complex three-dimensional surfaces. They may learn how to select suitable roughing and finishing strategies for curved or irregular geometry.
    • 3D machining knowledge can be particularly useful for learners interested in moulds, dies, tooling, and complex mechanical components.

    • Learners can understand the difference between material-removal and finishing operations and how toolpaths are planned accordingly.
    • They may study factors such as: cutting depth, step-over, feed rate, spindle speed, tool selection, machining allowance, and surface requirements.
    • The goal is to understand how these parameters influence machining efficiency and the resulting component.

    • iMachining is one of SolidCAM's notable technologies. Depending on the course level, students can learn how it is used for milling toolpath generation and how machining conditions can be considered when creating operations.
    • Understanding iMachining can help learners become familiar with more advanced approaches to CAM-based machining rather than relying exclusively on conventional toolpath strategies.

    • Rest machining deals with material that remains after previous machining operations.
    • Students can learn how additional operations can target areas that were not adequately reached by earlier tools.

    • Simulation allows learners to inspect tool movement and material removal before actual machining.
    • This is an important part of CAM training because students can study the planned process and identify potential problems before manufacturing.

    • Students can learn about common cutting tools and the parameters that influence machining operations.
    • Understanding the relationship between tooling, material, feed, speed, depth of cut, and toolpath strategy is essential for practical CAM work.

    • Depending on the syllabus, advanced SolidCAM training may introduce turning and mill-turn machining.
    • These topics can help learners understand CAM workflows beyond conventional milling.

    • Students progressing to advanced CAM can be introduced to 4-axis and 5-axis machining concepts.
    • Such operations require greater understanding of tool orientation, machine kinematics, surface geometry, and collision avoidance.

    • CAM toolpaths ultimately need to be converted into machine-specific CNC instructions.
    • Learners can therefore study the role of post-processors and understand how CAM data connects with different CNC machine configurations.
    • The practical objective is to understand the complete workflow: CAD Model → CAM Setup → Machining Strategy → Toolpath Generation → Simulation → Verification → Post-Processing → CNC Manufacturing.
    • Students should confirm the exact SolidCAM version, modules, machine types, and practical projects included in the current course before enrolling.

Section 04

Tools and software you will use

All software is installed on your lab system. Nothing has to be bought before you join.

CAM software

  • SolidCAM
  • iMachining
  • Toolpath simulation
  • Post-processors

Milling

  • 2.5D milling operations
  • 3D milling operations
  • Cutting tools
  • CNC machining concepts

Advanced machining

  • Turning operations
  • Mill-turn concepts
  • 4-axis/5-axis machining concepts

Design data

  • CAD models and assemblies

Section 05

Live projects

You build these yourself during the course. They become your portfolio and the basis of your CV.

  1. Project 01

    2.5D milled component

    Set up a CAM project for a prismatic part and machine it with profile, pocket, face, drilling and slot operations.

    • 2.5D milling
    • CAM setup

  2. Project 02

    3D surface roughing and finishing

    Plan roughing and finishing strategies for a component with curved surfaces, setting step-over, depth, feed and spindle speed.

    • 3D milling
    • Parameters

  3. Project 03

    iMachining and rest machining

    Generate an iMachining toolpath, then add rest machining for areas the first tools could not reach.

    • iMachining
    • Rest machining

  4. Project 04

    Complete CAD-to-CNC workflow

    Take a component from CAD model through CAM setup, toolpath generation, simulation, verification and post-processing to CNC code.

    • Simulation
    • Post-processing

Section 06

Career outcomes

Roles our students take after this course. Salary bands are the local starting ranges reported to us by employers and alumni, not a guarantee.

Typical roles, starting salary bands and current local demand
Job roleStarting salary bandLocal demand
CAM Programmer (Trainee)₹2.0 – 4.0 LPAHigh
CNC Programmer₹2.0 – 4.2 LPAHigh
CNC Setter / Operator₹1.8 – 3.4 LPAHigh
Tool Room / Mould & Die Assistant₹1.8 – 3.6 LPAModerate
CAD/CAM Support Engineer₹2.4 – 4.5 LPAModerate

Section 07

Placement support

The same four steps for every student, in the final month of the course.

  1. 01

    Skill assessment

    A trainer reviews your practical files in the final month and records the modules you are strongest in, so the CV we build is accurate.

  2. 02

    CV and portfolio build

    We write your CV around the projects you completed in class, and collect your work into a folder or PDF portfolio you can send to employers.

  3. 03

    Mock interviews

    Two rounds of practice interviews with feedback — one on the software itself, one on the everyday questions every employer asks.

  4. 04

    Job referrals

    We share openings from the local employers we work with — offices, CA firms, design studios, manufacturing units and online-marketing agencies in Jalandhar and nearby cities.

What we do not promise: we provide placement support, not a guaranteed job. Any institute promising a guaranteed job for a certificate course is not being straight with you.

Section 08

Who this course is for

If you are unsure whether it fits, counselling is free and takes fifteen minutes.

Suitable for

  • 12th-Pass Students — 12th-pass students who are interested in mechanical engineering, manufacturing, CNC machining, CAD/CAM, or technical careers can consider SolidCAM as a specialized skill to explore. Students planning to pursue diploma or degree programs in mechanical, production, automobile, manufacturing, or related engineering fields may also benefit from early exposure to CAM concepts.
  • Mechanical and Engineering Diploma Students — Mechanical and engineering diploma students are another relevant group. Their existing understanding of engineering drawing, dimensions, machining, and workshop practices can make it easier to understand how CAM software is used in manufacturing. SolidCAM training can help connect theoretical manufacturing concepts with digital machining workflows.
  • Engineering Graduates — Engineering graduates in mechanical, production, manufacturing, automobile, or related disciplines may consider the course when they want to strengthen their practical CAD/CAM knowledge. For graduates preparing for technical roles, understanding toolpaths, machining strategies, simulation, and CNC workflows can complement their academic background.
  • CNC Operators and Manufacturing Professionals — The course can also be relevant for CNC operators, machinists, CAD designers, tool-room professionals, and manufacturing employees who want to expand their responsibilities toward CAM programming. Existing shop-floor experience can be useful because it provides context for understanding cutting tools, machining operations, feeds and speeds, workholding, and CNC machine behaviour.
  • Beginners — Beginners without professional manufacturing experience can also learn SolidCAM if the training begins with fundamental concepts. Basic computer skills and an interest in mechanical manufacturing are useful starting points. Previous CAD or CNC experience may be helpful but should not automatically be assumed as a prerequisite unless the particular course specifies it.
  • Working Professionals — Working professionals may find specialized CAM training useful when they want to understand more of the programming and planning side of CNC production. However, they should check whether the course covers the machining processes and machine types relevant to their current workplace.
  • Learners From Jalandhar and Nearby Punjab — Learners from Jalandhar and surrounding areas of Punjab may also prefer local classroom training when regular practical sessions and direct interaction with trainers are important. CAM software is best understood through practice, so access to suitable computers, software, exercises, and instructor guidance can make a significant difference.

Eligibility

  • A SolidCAM course in Jalandhar can be suitable for learners who want to understand computer-aided manufacturing, CNC machining, toolpath generation, and the connection between CAD designs and actual manufacturing processes. The course can accommodate different learner profiles, although the ideal starting level depends on the syllabus and the learner's existing technical knowledge.
  • Before enrolling, students should check the current syllabus and ask whether it includes 2.5D milling, 3D machining, turning, iMachining, multi-axis operations, simulation, and post-processing, as applicable to their learning goals.
  • Overall, SolidCAM can be considered by anyone who wants to develop a stronger understanding of the CAD-to-CAM-to-CNC workflow. The most suitable candidates are learners who are genuinely interested in manufacturing and are prepared to practise both software operations and the underlying machining concepts.
  • Before joining: Ask about the SolidCAM version, hands-on software access, projects, machining operations covered, simulation, post-processing, and the level of practical training included.

Section 09

Batches

Batch timings are fixed at admission. Changing your batch later is free, subject to seats.

Current batch timings for the SolidCAM course
BatchDaysTimingModeSeats
MorningMon – Fri9:00 AM – 10:30 AMClassroomOpen
EveningMon – Fri5:00 PM – 6:30 PMClassroomOpen
WeekendSat – Sun10:00 AM – 1:30 PMClassroomOpen

Ready to join the SolidCAM course?

Pick a batch that fits your week and a counsellor will confirm your seat.

Confirm my seat

Section 10

Certification

Issued after the final practical assessment, not for attendance alone.

GIT Education Certificate in SolidCAM

Your certificate carries your registration number, the modules completed and your assessment result. Employers can verify it by phone with the institute. It is accepted for job applications and government forms.

  • Practical assessment
  • Registration number
  • Module-wise record
  • Phone verification
AssessmentFinal month of the course
Issued within10 working days of the test
Record keptSince 2016

Section 11

What students say

4.8 out of 5 from 39 students who finished this course.

“I had basic knowledge of CAD but wanted to understand the manufacturing side. Learning SolidCAM helped me understand how a model can be converted into CNC machining operations.”
GSGurpreet SinghJalandhar
“The practical exercises helped me understand milling operations much better. I especially found toolpath simulation useful for seeing how the machining process works.”
HKHarpreet KaurPunjab
“Before starting the course, CAM was quite new to me. The step-by-step approach made it easier to understand setups, machining operations and toolpaths.”
MSManpreet SinghJalandhar
“I am from a mechanical engineering background, so I already knew some machining concepts. SolidCAM helped me connect those concepts with software-based manufacturing.”
SKSimranpreet KaurJalandhar
“The course gave me practical exposure to roughing, finishing and different milling operations. Working on actual exercises was much more useful than only studying theory.”
ASAmandeep SinghPunjab
“I wanted to improve my CNC-related knowledge. Learning about CAM setup, tool selection and simulation gave me a clearer understanding of the manufacturing workflow.”
NSNavjot SinghJalandhar
“The 3D machining topics were interesting because they showed how complex surfaces can be handled through CAM strategies. The practice sessions helped me understand the concepts better.”
RKRavneet KaurJalandhar
“I had used CAD software before but had never worked seriously with CAM. The course helped me understand the difference between designing a component and preparing it for manufacturing.”
JSJaspreet SinghPunjab
“The simulation part was one of the most useful areas for me. It helped me understand why toolpath verification is important before sending machining instructions to a CNC machine.”
GSGagandeep SinghJalandhar
“I joined to build practical CAD/CAM skills alongside my technical studies. Learning SolidCAM gave me a better foundation for understanding CNC manufacturing.”
ASAmritpal SinghJalandhar

The following are sample testimonial-style review items created for website content. They are not verified reviews from actual students.

Section 12

Frequently asked questions

Still unsure after reading these? Call the helpline and ask — counselling costs nothing.

  • A SolidCAM course teaches computer-aided manufacturing concepts and the use of SolidCAM for creating CNC machining operations, toolpaths, simulations, and manufacturing workflows.

  • Mechanical engineering students, diploma holders, engineering graduates, CNC professionals, machinists, CAD learners, and beginners interested in manufacturing can consider SolidCAM training, depending on the course prerequisites.

  • Yes. Beginners can learn SolidCAM when the training starts with CAM fundamentals and gradually progresses to machining operations and toolpath generation. Basic computer and manufacturing knowledge can be helpful.

  • Previous CAD knowledge can be useful because SolidCAM works with CAD geometry. However, whether CAD experience is required depends on the particular course structure.

  • A typical course may cover CAM setup, 2.5D milling, 3D machining, roughing, finishing, drilling, toolpath simulation, rest machining, iMachining, and post-processing. Advanced programs may also include turning, mill-turn, or multi-axis machining.

  • iMachining is a SolidCAM technology for generating milling toolpaths while considering machining conditions such as the material, cutting tool, and machine-related parameters.

  • Yes. SolidCAM can complement mechanical engineering studies by providing practical exposure to CAM, CNC machining, toolpath planning, and digital manufacturing.

  • SolidCAM is used to create CAM operations and generate toolpaths for CNC machining. Post-processing can then convert the CAM information into machine-specific CNC code.

  • SolidCAM knowledge can complement CNC, CAD/CAM, and manufacturing skills. Employment outcomes depend on factors such as technical qualifications, practical ability, project experience, CNC knowledge, and employer requirements.

  • Students searching for a SolidCAM course in Jalandhar should compare available training providers based on the current syllabus, software access, practical lab facilities, trainer experience, project work, course duration, and modules covered.

  • Yes. Every course can be paid in two or three instalments. The schedule is written on your admission receipt, and there is no extra charge for paying in parts.

  • Tell the front desk in advance and we schedule backup classes in another batch of the same course, or in the open lab hours. Recorded notes for each module stay available to you for the whole course.

  • Yes. You receive a course completion certificate after the final practical test. The certificate carries your registration number and can be verified by an employer over the phone.

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