When no catalogue machine fits your material, your part or your process, we engineer one that does. Custom extruders, extra axes, dispensing heads, automated cells and OEM machines, designed and built in Hyderabad by the team behind every Garuda3D printer.
Custom development is lower risk when the extruders, motion systems, electronics and firmware underneath have already been proven in production printers. Garuda3D designs and manufactures five families of printers, and each one is a starting point for custom work.
FFFThunder Pro V3 · Titan Pro
Filament extrusion, heated beds and enclosures for engineering polymers.
IDEXDP300 · DP500
Two independent toolheads for dual materials, soluble supports and mirrored printing.
PelletGF500 · GF1000
Screw extrusion of pellets, up to a 1000 mm cube build volume.
BioBio ATOM · MORPH · PRO
Precise dispensing of bio-inks and gels for laboratory research.
FoodNEXUS Q2 · Q4 · Cocoa-3D
Paste and chocolate dispensing with food-safe material paths.
Each capability below shows the platform it builds on. Where there is no catalogue equivalent, it says so.
What we develop
Seven kinds of custom machine work
Most projects combine two or three of these. A research lab may need a dispensing head on a multi-axis platform; a manufacturer may need a pellet extruder mounted on a robot.
01
Custom extrusion systems
Extruders designed around a material that standard hot-ends can't handle: highly filled, abrasive, high-temperature, very soft, or fed in an unusual form.
Nozzle, melt zone and drive matched to the material
Higher flow for faster or larger deposition
Wear-resistant paths for glass- and carbon-filled grades
Builds onFFF, IDEX and GF pellet extruders
02
Multi-axis printing
Rotary and tilting axes added to the usual X, Y and Z, so material can be deposited at an angle, around a cylinder or onto an existing surface instead of only in flat layers.
Printing onto tubes, mandrels and curved parts
Fewer supports on overhanging geometry
Layer orientation chosen for strength
Builds onNew development, scoped per project
03
Pellet and filament integration
Machines that combine a pellet extruder for fast, low-cost bulk material with a filament head for fine detail, or that run both feedstocks on one platform.
Large bodies in pellets, detailed features in filament
Cheaper feedstock for high material usage
Trials of recycled or compounded pellets
Builds onGF pellet printers + IDEX dual heads
04
Research equipment
Machines for labs and R&D teams who need to change what a commercial printer locks down: parameters, toolpaths, materials and sensors.
Open process parameters and experimental settings
Small material batches for formulation trials
Extra sensors and data logging for experiments
Builds onBio printer range and open FFF platforms
05
Specialised dispensing systems
Heads that deposit pastes, gels, slurries and viscous liquids rather than melted plastic, with control over pressure, temperature and flow.
Pastes, gels, bio-inks and food materials
Temperature-controlled or multi-material dispensing
Clean, easily removable material paths
Builds onBio and Food printer dispensing heads
06
Automation and robotic integration
Printing that fits into a production cell: extruders mounted on industrial robots, automatic part removal, and machines that talk to the rest of the line.
Robot-arm-mounted extrusion for large or free-form parts
Conveyors and part handling for unattended runs
Signals to PLCs and plant software
Builds onNew development, scoped per project
07
OEM machine development
A printer or printing module designed for you to sell under your own brand or build into your own equipment, engineered for repeatable manufacture.
Machine or sub-system designed to your specification
Design for manufacture and repeatable assembly
Documentation for builds, service and training
Builds on12+ models manufactured in Hyderabad
Builds on an existing Garuda3D platformNew development: feasibility stage carries more weight
Custom doesn't always mean new
Three routes to the machine you need
We will tell you which route your requirement actually needs. A smaller change that meets the requirement is faster, cheaper and carries less risk than a ground-up design.
Route A
Configure a standard printer
A catalogue Garuda3D machine with options or settings chosen for your material and parts.
Change
Options and setup
Risk
Lowest
Route B
Modify a proven platform
An existing printer with a new extruder, dispensing head, build volume, axis or control system.
Change
One or more sub-systems
Risk
Moderate
Route C
Develop a new machine
A machine designed from the requirement up, for processes or formats no platform covers.
Change
Full design
Risk
Highest, managed by stage gates
Development process
From requirement to delivered machine
Six stages, each ending in a gate. You approve what was done before the next stage starts, so money is only committed once the previous risk is retired.
01
Requirement analysis
We study the parts you want to make, the material, output, accuracy, the site and the people who will run the machine.
We do
Technical discussion and site questions
Review of samples, drawings and material data
You receive
Written requirement specification
Agreed acceptance criteria
Gate 1 You approve the requirement specification
02
Feasibility & concept
We test the riskiest assumptions first, usually the material or the motion, and choose between route A, B or C.
We do
Material and process trials
Concept layouts and options
You receive
Concept proposal
Budget and timeline
Gate 2 You approve the concept, budget and timeline
03
Detailed design
Mechanical, electrical, firmware and software design, reviewed with your team before any parts are made.
We do
CAD, electrical and control design
Design reviews with your engineers
You receive
Design review package
Updated risk list
Gate 3 You sign off the design for build
04
Prototype
We build the machine, or its critical sub-system first, in our Hyderabad facility and run your material on it.
We do
Fabrication and assembly
First prints with your material
You receive
Progress updates and first samples
Gate 4 You review the prototype and samples
05
Testing & validation
The machine is run against the acceptance criteria written in stage one, not against criteria chosen afterwards.
We do
Process tuning and repeat runs
Acceptance testing you can witness
You receive
Test results against criteria
Gate 5 You accept the machine
06
Delivery
The machine is shipped, installed and handed over to the people who will run it.
We do
Installation and commissioning
Operator training
You receive
Handover documentation
Agreed support arrangement
Timelines and budgets depend on the route and are set at Gate 2, after feasibility, rather than guessed at the first call. For OEM work, production supply is planned after the first machine is accepted.
Before you submit
What makes a requirement easy to assess
You don't need a specification to start. But the more of this you can share, the faster requirement analysis goes and the more useful our first reply will be.
Parts or outputWhat the machine must make, with sizes, samples or drawings
MaterialName, form (filament, pellet, paste, gel) and datasheet
Build envelopeLargest part, and any shape the machine must work around
OutputParts per day, or how much material per hour
AccuracyThe dimensions or surfaces that actually matter
Site & operatorsWhere it sits, power available, who runs it
IntegrationRobots, conveyors, PLCs, plant or lab software
Quantity & timingOne machine or OEM volumes, and when you need it
Questions
Custom development FAQs
Something else? Call the machines line or email the engineering team.
Do we need a fully custom machine, or can a standard printer be modified?
Often a standard Garuda3D platform with a changed extruder, build volume or control setup meets the requirement faster and at lower risk than a new design. Requirement analysis and feasibility exist to answer exactly this question before you commit to development.
How much does custom 3D printer development cost and how long does it take?
It depends on how far the machine is from an existing platform, how many machines you need and how demanding the acceptance criteria are. We give a budget and timeline at the end of the feasibility and concept stage, once the risks are understood, rather than a guess at the first call.
Can you build a single machine, or only OEM volumes?
Both. Development can be for a single research or production machine, or for a design you will buy in volume under your own brand as an OEM.
What should we send with our requirement?
The parts or samples you want to make, the material and its datasheet, the build size and output you need, the accuracy that matters, where the machine will be installed and any integration needs such as robots, conveyors or plant software. Drawings, photos and CAD files help.
Can you sign an NDA before we share details?
Yes, tick the NDA box on the requirement form and we will arrange it before you share confidential drawings or process details.
Who owns the design of a custom machine?
Ownership of drawings, firmware and any new intellectual property is agreed in writing in the development proposal, before design work begins.
Start requirement analysis
Submit your machine development requirement
Tell us what the machine has to do. An engineer reviews every submission and replies with questions, a first view on feasibility, and which route we think fits.
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