Boeing India PO
Redacted purchase order screenshot showing Jariwala Robotics as supplier for Delta HC500 J Robotics 3D Printer AMC.
First batch interest open
A hands-on technical program for serious builders who want to learn high-temperature 3D printer architecture, heated chamber design, vacuum-assisted build platform, extrusion, drying systems, electronics, safety, BOM and machine validation.
Credibility
This program is based on practical experience designing, building, servicing and upgrading advanced FDM and DLP 3D printing systems for demanding industrial and research environments.
Organization names are mentioned only as professional background/project experience. This program is independently run and is not an endorsement by these organizations.
Redacted purchase order screenshot showing Jariwala Robotics as supplier for Delta HC500 J Robotics 3D Printer AMC.
Redacted purchase order screenshot for upgrading a rapid prototype 3D printing system for CF PEEK and PEKK filaments.
Purchase order screenshots are redacted to hide sensitive commercial and contact details.
About the instructor
Vaibhav Jariwala is the founder of Jariwala Robotics / Smiligners, with hands-on experience designing and building advanced 3D printing systems, high-temperature polymer machines, DLP 3D printers and custom industrial automation solutions.
His work includes industrial FDM systems, PEEK-class material processing, high-resolution DLP 3D printer development, custom machine design and advanced additive manufacturing applications for research and industrial use.
His project exposure includes work connected with CSIR-NAL, Boeing India, Reliance Industries, CMET, IISc, ISRO-related PEEK part development, along with international technical exposure involving In-Vision Austria and Triangle Labs China.
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Curriculum
Participants learn the full engineering thinking behind a high-temperature FDM machine, from system architecture to validation.
Target materials, build volume, temperature requirements, machine architecture, accuracy expectations and cost-performance tradeoffs.
Frame architecture, motion system, linear guides, gantry design, Z-axis stability, enclosure design, rigidity and thermal expansion.
Heated chamber, bed heating, hotend requirements, insulation, air circulation, sensor placement and safety limits.
Heated bed design, build plate material, vacuum hold-down, channels/holes, sealing, print surface and lift prevention.
High-temperature hotend, extruder decisions, nozzle material, filament path, clogging prevention and spool chamber design.
Active filament drying, material storage, moisture control for high-performance polymers and drying-system integration.
Controller selection, heater control, SSRs, power sizing, sensors, wiring safety, emergency stop, interlocks and monitoring.
Motion and temperature control strategy, heater/sensor integration, vacuum bed logic, calibration and machine testing workflow.
BOM structure, local supplier planning, prototype vs production choices, costing, applications and business positioning.
8-week timeline
The first batch is planned as an 8-week live online program with weekly technical sessions, assignments and design discussions.
Define target materials, build volume, temperature requirements, accuracy expectations and overall machine architecture.
Frame structure, gantry strategy, linear guides, Z-axis stability, enclosure layout and thermal expansion considerations.
Chamber heating, bed heating, insulation, airflow, sensor placement, thermal stability and safety limits.
Vacuum bed design, build surface, vacuum holes/channels, sealing, bed adhesion, warping control and lift prevention.
High-temperature hotend, extruder selection, filament path, active drying system, dry box and moisture control.
Controller selection, heaters, SSRs, sensors, wiring, emergency stop, interlocks, dryer monitoring and vacuum bed control logic.
PEEK/PEKK processing challenges, print profiles, bed adhesion, drying defects, calibration, testing and failure diagnosis.
Complete BOM structure, supplier planning, prototype vs production choices, costing and commercial applications.
Pricing
Choose the level based on how seriously you want to build, review or commercialize a high-temperature printer design.
Standard Program
For students, engineers and makers who want the complete 8-week learning program and machine design roadmap.
Builder + Design Review
For serious builders who want feedback on their own high-temperature printer concept and build plan.
Lab / Company Track
For colleges, labs, startups and companies that need private guidance for a real machine development or upgrade project.
Introductory first-batch pricing. Taxes, payment gateway charges, or custom consulting scope may be added separately where applicable.
Outcome
Participants will work toward a complete design roadmap for a PEEK-capable high-temperature FDM printer, including mechanical architecture, heated chamber, vacuum-assisted build platform, extrusion, drying system, electronics, control logic, BOM and build plan.
Who should join?
Apply
The first batch will be kept small so technical discussions and design reviews can be handled properly. Share your details below to be considered for the first program.
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