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K Gyan Design Lab
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A purposeful start-up built on three pillars — Value, Engineering, Innovation — challenging industry status-quo to reach solutions no one else is looking for.

"Every challenge is approached with strategic insight, relentless precision, and a commitment to deliver solutions that are as elegant as they are effective."

— KUSHAL DOSHI, FOUNDER

About Us

Built on a triad

A purposeful start-up, built on 3 pillars viz Value; Engineering; Innovation. We value our customers while upholding ethical, environmental, social and cultural values in our pursuit of innovative engineering and adopting best practices for a greener, safer and a smarter world.

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Message from the Founder​

Great engineering begins with greater imagination

At K Gyan Design Lab, our journey began with a bold vision; to bring clarity, creativity, and purpose to the world of mechanical design.
With nearly a decade of hands-on experience, across Semiconductor, Aerospace,Defense and Mechatronic systems, I founded this lab as a space where engineering excellence meets visionary goals.
Every challenge is approached with strategic insight, relentless precision, and a commitment to deliver solutions that are as elegant as they are effective.
Our work is defined not only by technical excellence, but by the values we embed into every detail with integrity, intelligence, and impact.
Whether working with clients across India, Europe, America, or Japan, our goal remains the same: to craft purposeful designs that stand out not just for their uniqueness, but for the values they carry forward.

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How we work

Built on Three Pillars

Vision

Revolutionize systems via innovative precision engineering and in-depth researched creative solutions.

Mission

To operate through research, innovation, pro-activeness, and dedication in engineering, strategy, planning, and operations.

Responsibility

Give emphasis to customer commitments, help the community, and be environmentally responsible by adopting green practices.

How we work

Strategic Engineering

Three stages, one line of accountability — from feasibility through to a system that's ready for manufacture.

01 Investigate

Feasibility Study

  • Architectural Evaluation & Risk Analysis
  • Key Parameter Optimization
  • Manufacturing & Process Efficiency
02 Framework

System Architecture

  • Project Phase Definition
  • Resource & Capability Alignment
  • Standardization & Engineering Governance
03 Design & Development

Engineering Execution

  • Concept Development & Engineering Analysis
  • System Design & Integration
  • Manufacturing Readiness & Industrialization
Feasibility
Feasibility Research & Development
Discover
—
Analyze
—
Evaluate
—
Define
01
Analysis
Root Cause Analysis
Trace defects to source, before they resurface downstream.
02
Verification
Testing & Qualification
Validate performance against defined requirements.
03
Reliability
Lifetime Improvements
Extend service life through targeted design changes.
04
Design
Architecture Development
Build robust systems from the ground up.
05
Evaluation
Technology Assessment
Benchmark options against real-world constraints.
06
Risk
FMEA's
Identify failure modes before they become failures.
07
Finance
Cost Reduction
Optimise spend without compromising quality.
08
Automation
Process Optimisation
Remove manual bottlenecks from the workflow.
Framework
System Architecture & Strategic Planning
A structured approach carried consistently throughout development, from scope to governance.
01
Project Phase Definition
  • Milestone driven planning
  • Mapping of deliverables
  • Determine inter & intra dependencies
02
Resource & Capability Planning
  • Scope definition
  • Identification of required tools, software, vendors
03
Engineering Governance
  • Standardization of processes
  • Structured documentation system
  • Version control
Process Phases

End-to-End Engineering Execution

Holistic solutions through precision-driven engineering

01
System Engineering
  • Functional decomposition
  • Engineering budget allocation
02
Design per SCRAMS-Q
  • Conceptualization & first-principle calculations
  • Material selection & tolerance stack analysis
03
Engineering Analysis
  • Simulations for functional qualification
  • Iterative design for form, fit, function & future
04
Proof of Concept
  • Prototyping & functional model testing
  • Design of experiments
05
Industrialization
  • Tools, fixture & transport handling systems
  • Design for manufacturing & assembly
Scrams-Q

SCRAMS-Q at the core.

Every system we design is evaluated against this seven-axis framework — the engineering discipline that separates production-ready designs from prototypes.

S
Safety

Human, product & machine safety integrated at architecture level

C
Cost

Full lifecycle cost accountability — goods, operations, technology

R
Reliability

High repeatability & durability engineered in from the start

A
Availability

Designed for maximum uptime and minimal unplanned downtime

M
Manufacturability

DFM/DFA principles and production ramp-up readiness built in

S
Serviceability

Ease of maintenance, repair access & component replaceability

Q
Qualification

Tested, simulated & verified against specification before deployment — no surprises at first article

K Gyan — Not Just Services, A Mindset
K Gyan

Not Just Services — A Mindset

Your challenge, our solutions — aligned to your success.

Robotic arm engineering illustration
Qualified Versatile
Mechanical Engineers
Intellectual Property
& Cybersecurity Compliance
Proactive Communication
Flexible Contract Models
Global Support Reach
& Time Zone Alignment
Support Beyond Delivery
End to End Ownership
Subject Matter Expertise
Industries

Industries we Engineered for.

Designs built for performance, engineered for impact.

FIG. 01 — PRECISION

High-Precision Engineering

01

Multi Axis high precision optical module alignment stage

02

Patented crash architecture for machine safety

03

3 DoF sub-micron positioning module for optical measurements

04

High-Acceleration Magnetically Levitated Stage

05

Mechatronic balance mass isolating vacuum to atmosphere, bridging static & dynamic world

06

Vacuum-Potted canned Halbach Magnet Array

FIG. 02 — ROBOTICS

Advanced Robotics

01

Mobile platform for automated Ship Hull welding Robot

02

High-strength, light-weight lunar rover

03

Engineered framework for high performance Exoskeleton

Global Reach

Designing Across Borders

One team, Multiple domains, End-to-end expertise

World map
Industrial Automation
High-Precision
Engineering
Autonomous &
Advanced Robotics

Let's talk

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