Our Instant Quotation platform helps you quickly determine pricing
based on material choice, ensuring optimal quality and performance for
every project.
Our ordering process
How the Iamrapid Platform Works?
Upload Your STL CAD File
Start by uploading your 3D model file in formats like STL
or CAD to our user-friendly platform. Our system quickly
analyzes the file’s geometry and details to generate an
accurate blueprint for production. Our system will analyze
the file and provide you with a near-instant
quotation.This efficient process ensures that you're ready
to receive your quote within minutes and potential lead
times before moving forward.
Receive an Instant Quote
Once your file is uploaded, receive a real-time, instant
quotation based on the complexity, material, and quantity
of your order. Our system also factors in the technology,
whether it's FDM, SLA, SLS, or MJF, and materials to
deliver a precise and competitive price tailored to your
project's needs. Our advanced system connects you with the
closest manufacturing facility equipped to produce your
part, optimizing the speed and cost-effectiveness of the
process. You can adjust parameters and confirm the order
with just a few clicks.
Production and Quality Check
After order confirmation, your part moves to production at
the nearest manufacturing facility. Each part undergoes a
strict production cycle, tailored to meet your
specifications. After production, the parts undergo a
rigorous quality check, ensuring dimensional accuracy,
surface finish, and structural integrity. This step
ensures that your parts meet the highest standards before
being prepared for delivery.
Doorstep Delivery with Live Tracking
Once the parts pass our strict quality checks, they are
securely packaged and prepared for shipment. We manage all
aspects of logistics, ensuring your order is safely
delivered to your specified address.Our platform offers
live tracking so you can monitor your shipment in
real-time, providing peace of mind and ensuring timely
delivery right to your doorstep.
1. Upload Your STL CAD File
Start your 3D printing process by uploading your STL or CAD file to
our platform. The STL format serves as the digital blueprint,
containing all essential geometric details necessary for production.
Once uploaded, our advanced system analyzes your design and
instantly provides an accurate quotation. The process is fast,
reliable, and ensures you can review both costs and delivery times
before proceeding. By streamlining the 3D printing quotation
process, we make it easier for you to plan your project from design
to delivery.
1.1 What Types of CAD Models are Suitable for 3D Printing?
For 3D printing, solid CAD models with watertight geometry are
essential. STL files are the most widely used format, converting
the design into a mesh that defines the surface geometry. To
avoid print failures, ensure your model features manifold
geometry, where every edge connects to two faces. Simplified
designs not only reduce errors but also speed up the printing
process, especially when using low-end printers. Additionally,
scaling your model correctly ensures the printed part matches
the intended dimensions. Always verify the measurements and
geometry before exporting the file for printing.
1.2 What Software is Compatible for CAD Modelling for 3D Printing?
There are several CAD software tools that are widely used and fully
compatible with 3D printing workflows. Here’s an overview of popular
ones:
AutoCAD: A versatile software known for
creating 2D and 3D designs. It can export files in STL
format, making it suitable for 3D printing, especially for
users familiar with architectural or mechanical designs.
Fusion 360: Developed by Autodesk, Fusion
360 is an integrated CAD, CAM, and CAE platform. It is
highly regarded for its ability to create parametric models
and is fully compatible with 3D printing through its direct
STL export features. Its cloud-based collaboration features
make it particularly suitable for team-based projects.
SolidWorks: SolidWorks is a powerful CAD
software known for its extensive use in engineering and
manufacturing. It supports complex surface modeling, solid
geometry, and assemblies, and has integrated tools to export
in 3D printing-friendly formats like STL. It’s popular for
industrial-grade design work.
TinkerCAD: A user-friendly, browser-based
option, TinkerCAD is great for beginners or hobbyists. It
allows users to quickly create simple 3D models, which can
easily be exported in STL format for 3D printing.
Blender: Though traditionally used for
animation and visual effects, Blender has strong 3D modeling
capabilities and can be used to create detailed models for
3D printing. With its extensive support for various file
formats, including STL, it’s ideal for artistic and creative
projects.
Rhino: Known for its ability to create
freeform surfaces, Rhino (Rhinoceros) is often used for 3D
modeling in product design and architecture. It’s fully
compatible with 3D printing through its STL export options
and is favored by designers working on complex organic
shapes.
SketchUp: An intuitive and easy-to-learn
software, SketchUp is commonly used for architectural
designs but also works well for simpler 3D printing
projects. It can export models in STL format for printing.
Onshape: A cloud-based CAD solution,
Onshape allows for real-time collaboration and is
well-suited for 3D printing, especially for teams that need
to work on designs simultaneously. It supports STL export
for printing.
2. Key Considerations for 3D Printing: Technology,
Material, and Infill
When it comes to 3D printing, selecting the right technology,
material, and infill percentage is crucial for achieving optimal
results. Each of these factors influences the cost, durability, and
appearance of your final product. Here’s a guide to help you make
the best choices for your projects.
2.1 Select technology for 3D printing
Choosing the right 3D printing technology depends on the purpose
of your project. The most commonly used technologies include:
Technology
FDM (Fused Deposition Modeling):Best for
prototypes and functional parts, this method is
cost-effective and offers a variety of material choices.
SLA (Stereolithography): Known for its
high-resolution finishes, SLA is ideal for detailed,
intricate designs like jewelry and models.
SLS (Selective Laser Sintering):This
technology is perfect for producing durable, strong parts,
often used in automotive and aerospace industries.
MJF (Multi Jet Fusion):Offers smooth
surface finishes and fine detail, making it suitable for
both functional prototypes and end-use parts.
DMLS (Direct Metal Laser Sintering):Ideal
for creating strong metal parts with complex geometries,
DMLS is used in high-end applications like aerospace and
medical for durable, precise components.
PolyJet: Best for high-detail prototypes
and multi-material parts, PolyJet produces smooth finishes
and can combine different materials and colors in a single
print, perfect for detailed models.
2.2 Select material for 3D printing
The right material plays a critical role in determining the
strength, flexibility, and heat resistance of your printed part.
Common 3D printing materials include:
PLA (Polylactic Acid): A biodegradable plastic
best suited for low-cost prototypes.
ABS (Acrylonitrile Butadiene Styrene): A durable
plastic ideal for functional parts that require impact resistance.
Nylon: Known for its strength and flexibility,
nylon is widely used in industrial applications.
Resin: Often used in SLA printing, resins produce
high-detail prints but are more brittle than thermoplastics.
Metal: For high-end applications like automotive
or aerospace, metal 3D printing offers unmatched strength and
durability.
Explore our industry best materials for 3D printing
2.3 Choose Infill Percentage
Infill percentage refers to how solid the interior of your 3D
print is. Higher infill results in a stronger part but increases
material use and cost, while lower infill reduces weight and
cost but can compromise strength. The common infill percentages
are:
0-20%: Suitable for non-functional parts or visual
models.
30-50%: Balances strength and material use, ideal for
prototypes.
60-100%: Provides maximum strength, perfect for
mechanical parts and end-use products.
Selecting the right infill percentage helps balance between
strength and cost-effectiveness.
3.Get instant pricing
3.1 Key factors for pricing
Our pricing is calculated based on several factors:
Technology: Different technologies (e.g., FDM, SLA, SLS)
have varying costs associated with machine operation and material
use.
Material: The type of material you select directly affects
the cost. More durable or specialized materials like metal or
nylon are priced higher than basic plastics like PLA.
Infill Percentage: Higher infill percentages use more
material, thus increasing the price, while lower infill reduces
material use and cost.
Complexity: Highly complex models with intricate details or
multiple components require more time and processing, leading to
higher costs.
3.2 Machine Time Cost Breakdown
When calculating 3D printing costs, the machine time is a
significant factor. This cost is calculated by multiplying the
hourly rate of the 3D printer by the total time it takes to
print a part.
Formula:
Machine Time Cost = Hourly rate of the printer × Print time
(in hours)
Example:
A 3D printer with an hourly rate of ₹500 prints a part in 2
hours.
The total Machine Time Cost = ₹50/hour × 2 hours = ₹100.
3.3 Post-Processing and Labor Costs
After the printing process, some parts may require additional
finishing work, which is where post-processing costs come into
play. These costs are based on labor rates and the time required
for tasks like sanding, cleaning, polishing, or curing.
Formula:
Post-Processing Cost = Labor rate per hour × Time for
post-processing (in hours)
Example:
If the labor rate is ₹100/hour and the post-processing takes
1.5 hours, the total Post-Processing Cost = ₹100/hour × 1.5
hours = ₹150.
4.Regarding NDA Encrypted Database
We prioritize the security and confidentiality of your designs.
All client files and sensitive information are stored in an
encrypted database that ensures data protection throughout the
entire 3D printing process. Our platform also supports
Non-Disclosure Agreements (NDAs), safeguarding your intellectual
property from unauthorized access or disclosure. Whether it's
protecting proprietary designs or critical manufacturing details,
you can trust our commitment to maintaining the highest standards
of data security and confidentiality.
5.Product manufacturing
At IamRapid, we ensure that every product we manufacture is built to
meet stringent quality standards, no matter the scale or complexity
of the project. From the moment you place an order, our team follows
a structured, precise manufacturing workflow designed to guarantee
accuracy, precision, and superior quality in every part produced.
Using advanced 3D printing technologies, we create not only durable
prototypes but also fully functional, end-use parts for a wide
variety of industries, including automotive, aerospace, medical, and
consumer electronics.
By leveraging state-of-the-art machinery and the latest additive
manufacturing techniques, we are able to provide customized
solutions that are tailored to the specific needs of our clients.
From the early stages of rapid prototyping to final product
manufacturing, our commitment to quality, efficiency, and customer
satisfaction ensures you receive a product that meets all your
expectations.
5.1 Standard inspection report.
ard Inspection Report provides a detailed analysis of each
part's dimensional accuracy, surface finish, and structural
integrity. We perform stringent checks to ensure that all
components conform to your project specifications, whether you
require precise mechanical parts or finely detailed prototypes.
Our inspection process helps identify potential issues early,
allowing for any necessary adjustments to be made before final
delivery. This process ensures that your parts are manufactured
to the highest standards, suitable for their intended use across
industries like aerospace, medical devices, robotics, and
consumer electronics.
6.Product handover
We take meticulous care in the handover of all products to ensure
that your 3D printed parts are delivered safely and securely,
regardless of their destination. Our attention to detail extends
from production to packaging and shipment, ensuring that every step
is handled with professionalism and precision.
6.1 Standard packaging
Our standard packaging process is designed to protect your 3D
printed parts from damage during transit. Each item is carefully
packed using high-quality protective materials, ensuring that even
the most delicate or complex components are secured properly.
Whether you are ordering small-scale prototypes or larger end-use
parts, we use industry-standard methods that prevent scratches,
dents, or other potential damage during shipping.
Our packaging solutions are designed to maintain the integrity of
your product, regardless of the size, shape, or material used in the
manufacturing process. By prioritizing the safety of your parts
during transportation, we ensure that your products arrive in
perfect condition.
6.2 Global shipment
IamRapid offers global shipping solutions to ensure that your
products reach you, no matter where you are located. We partner with
trusted logistics providers to offer timely and reliable shipping
across North America, Europe, Asia, and beyond. Our platform
provides real-time tracking of your shipment, allowing you to
monitor the status of your order from production to delivery.
With flexible shipping options and expedited services available, we
ensure your products are delivered as quickly as possible, no matter
the destination.