• No results found

Where it s easy to buy custom-designed parts that meet your needs

N/A
N/A
Protected

Academic year: 2021

Share "Where it s easy to buy custom-designed parts that meet your needs"

Copied!
17
0
0

Loading.... (view fulltext now)

Full text

(1)

I N N O V A T E

Y O U R

F U T U R E

TRANSPORTATION • HEALTHCARE • INFRASTRUCTURE/ENERGY • AEROSPACE • CONSUMER

Models and mock-ups, engineering prototypes, pre-production parts, and low- and high-volume manufacturing

Services for all manufacturing needs

www.3DRapidPrint.com

The widest selection of additive and traditional materials and technologies

Instant custom-generated online quotes

Upload your 3D CAD geometry and receive instant lead times and quotes based on your quantity Superior part quality

The latest solutions and technology in additive and traditional manufacturing

ISO 9001:2008 Certified

• Certified to meet ISO’s quality management system standards

• High-quality, precision-produced parts delivered rapidly

• ITAR and AS9100C

High-end finishing and functional models

• Test realistic models with full functionality

• Prototype full-color presentation and show models

High resolution and accuracy, from micro-parts to XL parts

• Accurate prototype parts

• The finest feature details

• Thinnest wall thickness

• Extra-large, high-definition single piece parts High-speed responsiveness to all your needs

• Dedicated project managers

• Reduced development costs

• Each order reviewed for manufacturability

(2)

How do I

choose which

3DRapidPrint

service is right

for me?

Page 2

At 3DRapidPrint you get a

dedicated project manager

who can provide expert

advice on the technology

andmaterial that best suit

your project. You’ll get

one-on-one attention to

ensure that your parts

arrive in your hands just as

you expected. Get started

faster than ever with our

QuickQuote system at

www.3DRapindPrint.com

If you’re looking for a

spe-cific material, simply visit the

website, select a sample

from the available materials

listed and fill out the quick

request form. You’ll receive

your sample in less than

three days.

About 3D Printing

DRASTICALLY REDUCE YOUR TIME AND COST OF

YOUR PRODUCT DEVELOPMENT

3D Printing is your ideal choice for hard plastic or cast-friendly wax parts in a wide variety of applications ranging from realistic concept models to final part manufac-turing. 3D printed parts are precise and ultra detailed enabling you to create your designs with confidence.

3D printed parts enables you to eliminate expensive tooling cost and drastically reduce your time and cost of your product development or production.

At 3DRapidPrint.com, we use state-of-the-art high definition, 3D Printers from 3D Systems, a global leader in three dimensional office and desktop solutions. Choose from a selection of materials and processes and get beautiful, ready-to-use, quality parts today.

Key Benefits

• Superior surface smoothness and fine feature detail without support scaring

• True to design exceptional internal geometry

• Fast, durable hard plastic parts

• Castable patterns

• 100% Real Wax precision high-definition patterns for direct investment casting applications

• Multiple finishing options

Applications

3D printed parts are precise and detailed and provide outstanding prototypes and concept models for a wide range of applications. 3D printed parts are

primarily used by MCAD users for early, fast and economical design verification and communication in industrial and mechanical design, technical and artistic design education, electrical engineer applications, packaging engineering, medical, dental, art and hobbyist applications, entertainment and gaming, musical instru-ments, and many others.

The Technology

An additive layer-by-layer process, 3D Printing (MJM) technology uses thermoplas-tic material deposited in layers on a platform.

Step by step:

• A 3D CAD file is translated into a surface model made up of thousands of small triangles.

• The file is sliced into many layers like a stack of cards and transferred into 3D Printer.

• A thermal inkjet process is used to print layer upon layer of both build and support material to create a solid object.

• For plastic parts, the photo curable build material is further hardened by UV light during the process.

• When the build is complete the support material (wax) is melted or dis solved leaving the final part ready for use.

The Technology

Based on 3D Systems’ proprietary and proven MJM technology, 3DRapidPrint.com operates the latest fleet of high definition 3D Printers, delivering plastic and wax parts with unmatched part quality 24 hours per day, every day.

3D Systems comprehensive family of ProJet 3D Printers consistently build ready-to-use parts using a variety of material options. Its high throughput and large build volume with unique part stacking and nesting capabilities enable extended unat-tended operation ideal for overnight and weekend production runs.

(3)

Page 3

STEREOLITHOGRAPHY (SLA)

Stereolithography (SLA) is often considered the pioneer of the Rapid Prototyping industry, with the first commercial system introduced in 1988 by 3D Systems. The system consists of an Ultra-Violet Laser, a vat of photo-curable liquid resin, and a controlling system.

A platform is lowered into the resin (via an elevator system), such that the surface of the platform is a layer-thickness below the surface of the resin. The laser beam then traces the boundaries and fills in a two-dimensional cross section of the model, solidifying the resin wherever it touches. Once a layer is complete, the plat-form descends a layer thickness, resin flows over the first layer, and the next layer is built. This process continues until the model is complete.

Once the model is complete, the platform rises out of the vat and the excess resin is drained. The model is then removed from the platform, washed of excess resin, and then placed in a UV oven for a final curing. The stereolithography model is then finished by smoothing the “stair-steps.”

Stereolithography Highlights

• Excellent for Fit and Form Testing and Show Models.

• Maximum dimensions for instant quotes: 25” x 25” x 21”. Parts with larger dimensions are also available. Please contact your sales manager to discuss.

• Stereolithography material choices include: Technician’s Choice, Semi-Flexible, PE-Like (Somos 8110); Durable, PP-Like / ABS-Like (Accura 25 / Somos 9420); ABS-Like (Accura Xtreme / Accura 55 / RenShape 7811 / RenShape 7820 / Somos 18420); High-Impact ABS-Like (Somos NeXt); Rigid, PC-Like (Accura 60 / Somos 11122 / Accura ClearVue); High-Temp ABS-Like (Accura Bluestone); High Temp PC-Like, Rigid (Accura PEAK); High Resolution (ABS-Like / Durable / Rigid / Accura Xtreme).

•Standard Stereolithography Tolerances: +/- 0.005” for the first inch, +/- 0.002” on every inch thereafter.

• In the z height (vertical), standard tolerances of +/- 0.01” for the first inch, +/- 0.002” on every inch thereafter.

• Stereolithography Layer Thickness: High Resolution: 0.002” - 0.004”; Standard Resolution: 0.005” - 0.006”.

• SLA Finish Options: Standard, Primed, Painted, WaterClear. Samples available upon request.

Nickel-Plated SLA

Nickel-plating provides added strength, waterproofing, and electrical conductivity to your stereolithography prototype.

SLA is an additive

manufacturing process in

which a UV laser traces a

cross section of the part

onto a vat of UV-curable

liquid photopolymer resin,

hardening the resin. Each

successive cross section

is traced onto the resin,

and the part builds up

layer by layer.

SLA is great for concept

models, rapid prototypes,

master patterns, snap fit

assemblies, form-and-fit

testing and tradeshow

models

Key Features: Smooth

surface finish, high

precision, shorter lead

time, a wide variety of

materialand post

processing options.

Lead Time: same day, next

day, or choose the ship

date

(4)

Page 4

SELECTIVE LASER SINTERING (SLS)

Selective Laser Sintering (SLS) uses a laser to sinter powder based materials together, layer-by-layer, to form a solid model. The system consists of a laser, part chamber, and control system.

The part chamber consists of a build platform, powder cartridge, and leveling roller. A thin layer of build material is spread across the platform where the laser traces a two-dimensional cross section of the part, sintering the material together. The platform then descends a layer thickness and the leveling roller pushes material from the powder cartridge across the build platform, where the next cross section is sintered to the previous. This continues until the part is completed.

Once the model is complete, it is removed from the part chamber and finished by removing any loose material and smoothing the visible surfaces.

Selective Laser Sintering Highlights

• Ideal for durable, functional parts with a variety of applications. Capable of producing snap fits and living hinges.

• Maximum dimension for instant quote: 28”x19”x19”. Parts with larger dimensions are also available. Please contact your sales manager to discuss.

• SLS Material choices include: Nylon (Duraform PA), Glass-Filled Nylon (Duraform GF), Flame Retardant Nylon and Durable Nylon (Duraform EX).

• Standard Tolerances: of +/- 0.005” for the first inch, and +/- 0.003” for each additional inch.

• In the z height (vertical), standard tolerances of +/- 0.01” for the first inch, +/- 0.003” on every inch thereafter.

• Layer Thickness: 0.004”.

• Good Choice for high-heat and chemically resistant applications.

• Lead Time Options: Next-day Delivery, Standard, and Economy.

SLS is an additive

manufacturing method in

which a laser bonds small

grains of material,

creat-ing cross sections of the

required part layer by layer.

SLS is a perfect option for

functional testing, rapid

prototyping, low-volume

manufacturing, and

high-heat and chemically

resistant applications.

SLS produces parts in

nylon-based materials that

can include filler such as

glass fiber or carbon

Key Features: Great part

durability, capable of

producing highly complex

geometries, snap fits

and living hinges.

Lead Time: next day or

standard (3-5 days)

(5)

Page 5

ColorJet Printing (CJP)

ColorJet Printing (CJP) is an additive manufacturing technology which involves two major components – core and binder. The Core™ material is spread in thin lay-ers over the build platform with a roller. After each layer is spread, color binder is selectively jetted from inkjet print heads over the core layer, which causes the core to solidify. The build platform lowers with every subsequent layer which is spread and printed, resulting in a full-color three-dimensional model.

Whether printed with color or in standard white, parts can be additionally clear coated to add a hard smooth coating or wax coated to smooth out the surface fin-ish.

ColorJet Printing Highlights

• Excellent for demonstration models, especially where color or labels are required to demonstrate final product.

• Maximum dimensions for instant quotes: 10” x 15” x 8”. Parts with larger dimensions are also available. Please contact your sales manager to discuss.

• CJP materials: VisiJet PXL

• Standard Tolerances of: +/- 0.005” for the first inch, +/- 0.002” on every inch thereafter.

• In the z height (vertical), standard tolerances of +/- 0.01” for the first inch, +/- 0.002” on every inch thereafter.

• CJP Layer Thickness: Horizontal build layers between .0035” and .004”.

• CJP Finish Options: Standard (Coated with ColorBond)

CJP is an additive

manufacturing technology

in which core material is

spread in thin layers over

a build platform. Color

binder is then selectively

jetted over every layer of

core material, and the part

builds one layer at a time.

CJP is perfect for creating

full-color concept models,

architectural models and

demonstration models.

Key Features: Wide range

of colors, quick

production time, and parts

can be hard or wax coated

for smooth finish.

(6)

Page 6

MultiJet Printing (MJP)

MultiJet Printing (MJP) is a new Rapid Prototyping process that provides a quick turnaround for smooth, fully cured parts. The process consists only of UV bulbs and photopolymer materials.

ProJet MultiJet Printing machines fully cure each layer of super fine UV curable acrylic plastics and support materials. Support material is easily separated from the part by a melting and washing process. No extra finishing treatments are needed. Finished MJP parts can readily absorb paint and can also be machined, drilled, nickel-plated or used for direct casting patterns.

MultiJet Printing Highlights

• Excellent for Fit and Form Testing and show models.

• Maximum dimensions for instant quotes: 11.75” x 7.3” x 8”. Parts with larger dimensions are also available. Please contact your sales manager to discuss.

• MJP material choices include: VisiJet Crystal and VisiJet Procast.

• Standard Tolerances of: +/- 0.005” for the first inch, +/- 0.002” on every inch thereafter.

• In the z height (vertical), standard tolerances of +/- 0.01” for the first inch, +/- 0.002” on every inch thereafter.

• MJP Layer Thickness: Horizontal build layers down to 16 microns (0.0006”).

• MJP Finish Options: Standard.

MJP is an additive

manufacturing method in

which UV bulbs fully cure

layer upon layer of

super-fine, UV-curable acrylic

plastics.

MJP is excellent for

form-and-fit testing, show

models, concept models,

direct casting patterns and

rapid prototyping.

Key Features:

High resolution, can be

painted, machined, drilled

or chrome plated, wide

range of applications.

Lead Time: 3-5 days

(7)

Page 7

Plastic Jet Printing (PJP)

Plastic Jet Printing (PJP) is a solid-based rapid prototyping method that extrudes material, layer-by-layer, to build a model. The system consists of a build platform, extrusion nozzle, and control system.

The build material, a production quality thermoplastic, is melted and then extruded through a specially designed head onto a platform to create a two-dimensional cross section of the model. The cross section quickly solidifies, and the platform descends where the next layer is extruded upon the previous layer. This continues until the model is complete, where it is then removed from the build chamber and cleaned for shipping.

Plastic Jet Printing Highlights

• Ideal for Conceptual Models, Engineering Models, and Functional Testing Prototypes.

• Maximum dimensions for instant quotes: 20”x20”x20”. Parts with larger dimensions are also available. Please contact your sales manager to discuss.

• Maximum dimensions for parts in single build: ABS - 23”x19”x23”, Polycarbonate (PC) - 14”x16”x16”. Parts with larger dimensions are also available. Please contact your sales manager to discuss.

• Material choices include: production-quality ABS (red, yellow, green, blue, gray, steel gray, white, and black), ABS-M30 (white, red, blue, and gray),

Polycarbonate (white), PC-ABS (black), PC-ISO (white and translucent), ULTEM, & PPSF (tan). Food-grade ABSi material available upon request.

• Dimensional tolerances are: +/- 0.005” for the first inch, and +/- 0.002” for each additional inch. In the z height (vertical), standard tolerances of +/- 0.01” for the first inch, +/- 0.002” on every inch thereafter.

• Layer Thickness: Standard Resolution: 0.01”; Minimum wall thickness is 0.02”.

PJP is a solid-based

additive manufacturing

process that uses a heated

extrusion nozzle to melt

plastic filament and lay it

down layer by layer until

the part is complete.

PJP works great for

con-cept models, engineering

models, functional

test-ing, consumer products,

high-heat applications and

initial prototypes.

Key Features:

High strength, wide

vari-ety of materials, including

production-quality ABS

and food-grade ABS.

Lead Time: 3-5 days

(8)

Page 8

QuickPlastic Parts

QuickPlastic Cast Urethanes, RTV Molding and Polyurethanes (Polys) all refer to a low volume production method that produces parts from a Polyurethane plastic material for prototyping purposes.

These parts have material properties similar to production-like plastics. It is pos-sible to make these parts appear just like hard tooled plastic parts through surface finish, color, accuracy, and material properties.

QuickPlastic Cast Urethanes are ideal for marketing samples, test prototypes, or other situations where 1-100 pieces are required, but time and money do not allow a prototype injection-molded tool to be produced.

QuickPlastic Highlights

• Cast Urethane Process: SLA Master Pattern, Finishing, RTV Tool, Cast Urethane, Final Cleanup

• Ideal for 1 -100 marketing samples

• Materials Available: ABS-Like, High Temp ABS-Like, PE-Like, Lexan-Like, Glass Filled Nylon, High Strength, Elastomer (25A, 32A, 42A, 50A, 60A, 70A, 80A, 90A), RC-79D MRI Transparent, UL94V0 Polypropylene-like, UL94V0 ABS-like.

• Maximum dimensions for instant quote: 25”x25”x21”. Parts with larger dimen sions are also available. Please contact your sales manager to discuss

• Standard Tolerances of Cast Urethanes: +/- 0.005” for the first inch, +/- 0.002” on every inch thereafter

• Layer Thickness: High-Resolution: 0.002” - 0.004”; Standard Resolution: 0.005” - 0.006”

• Textures: None, Light, Medium, Heavy, Light Pipe

• Finish Quality: Standard and Show

QuickPlastic is the process

of using silicone molds,

created from a master

pattern, to create molded

urethane parts.

QuickPlastic works great

for pre-production runs,

marketing samples, test

prototypes and

low-vol-ume manufacturing.

Urethane parts can be cast

in color or texture to

beautifully simulate the

cosmetic look of your

parts in a wide variety of

production-like materials.

Key Features:

Wide range of materials,

great simulation of

injection-molded parts,

and low tooling cost.

Lead Time: 6-9 days for

first articles, parts

(9)

Page 9

QuickCut CNC

CNC Machining is the process by which material is removed from a workpiece with Computer Numerical Control (CNC) equipment that cuts away unwanted material. Machining is possible on a wide range of materials. Parts are machined directly from your 3D CAD models.

Why select the CNC Machined Part process? When you need to hold tight toler-ance (+/- 0.005”), and when you MUST have your parts in a specific material, such as the production plastic or metal.

CNC Machining Highlights

• Machine a wide variety of plastic and metal material options

• Typical accuracy is +/- 0.005”

• Ability to hold tight tolerances

• The cost can be cheaper than even rapid prototypes, depending on the geometry

Computer Numeric Control

(CNC) machining is a

subtractive manufacturing

method in which unwanted

material, usually metal or

plastic, is cut from primary

stock to form the needed

part.

CNC machining is a great

fit for manufacturing low

and high quantities of

parts that require a very

specific material.

Key Features:

Wide range of materials,

ability to hold tight

tolerances, parts

machined directly from 3D

CAD models.

Lead Time: 6-8 days

CNC Machining Quoting Options

• Offline Quote - A sales manager will engage you to discuss the CNC machining project requirements after you submit the quote request

(10)

Page 10

Quick Sheet Metal Parts

Quick Sheet Metal production is a formative manufacturing process that creates parts from sheets of metal. Quickparts offers a variety of capabilities involving sheet metal such as bending, shearing, staking and stamping. Common opera-tions for sheet metal parts include drilling, tapping, counterboring and countersink-ing.

Sheet metal quotes are created from STEP or IGES files. IGES files are required for production and 2D prints may be needed to specify finish, tolerance and any other special requirements.

Sheet Metal prototypes have typically been a bottleneck for companies whose new products include sheet metal components. At Quickparts, customers can get those needed sheet metal parts in a prototype assembly in 5 to 10 days.

Quick Sheet Metal Highlights

• Material thickness: 0.001” - 0.250”

• Bent part sizes up to 36”x36”x6”

• Quotes created from STEP, IGES or most native CAD files

• Materials include: Aluminum, Stainless Steel, Carbon Steel, 17-7 PH, Brass, Phosphor Bronze, Copper, Nickel Alloys, Beryllium Copper

• Tolerance: Typically we can hold +/-0.005” across each bend or for cut/punched features

Sheet metal parts are

pro-duced using laser cutting,

water jet or chemical

etch-ing processes to form

blanks from sheet metal

stock. Blanks are then

bent to shape using press

brakes or quick custom

tooling to form the

final geometry.

Geometries can include

gussets, contouring,

embossing and pierced

features, and parts can be

made functional by adding

any PEM or other

hardware.

Key Features:

Wide range of metals

available, tolerances

comparable to die tooling.

Lead Time: 5-10 days

(11)

Page 11

QuickMold Tooling

QuickMold Tooling specializes in straight-pull, no-action injection molded parts made from common thermoplastic materials including ABS, Polycarbonate, Nylon, and more. Using your native 3D CAD data, Quickparts automates the programming of high-speed CNC equipment for cutting aluminum tools and inserts.

With press sizes ranging from 20 tons to 1,000+ tons, Quickparts can meet your injection molding part needs from 25 parts to high-volume production runs.

QuickMold Tooling Highlights

• Ideal for production runs of straight-pull, no side-action part designs

• Maximum part sizes for quotes: 20”x20”x3”

• Standard tolerances are +/- 0.005”.

• High-speed CNC machining for Aluminum tooling materials

• Over 30 in-stock material options: ABS, Acetal, Nylon, PC, PP, PE, TPE, etc., and options available.

• Color options: Red, Orange, Yellow, Green, Blue, Ultra Blue, Brown, Light Grey, Medium Grey, Dark Grey, Black, and White.

• Finish options: Non-cosmetic, Standard, Smooth, Mirror, Light Texture, and Medium Texture

QuickMold Tooling is the

process of forming a part

by

injecting plastic into an

aluminum or steel mold.

QuickMold Tooling is

fan-tastic for low- and

high-volume part manufacturing

in industries like

automotive, construction

and consumer products.

Key Features:

High production rates, and

wide variety of materials

and finishes.

(12)

Page 12

QuickMetal Plaster Mold Casting

n prototype plaster mold casting, an SLA master model is replicated into silicone rubber and used as a reusable master pattern for a single-use plaster mold. This method is limited to low-melt alloys such as Aluminum and Zinc. The QuickMetal process of plaster mold casting can be summarized as such:

SLA Master Pattern (positive) ->RTV mold (negative) -> RTV mold (positive) -> Plaster mold (negative) -> Final casting (positive)

A plaster, usually gypsum or calcium sulfate, is mixed with talc, sand, asbestos, sodium silicate, and water to form a slurry. This slurry is sprayed on the polished surfaces of the pattern halves. The slurry sets in less than 15 minutes to form the mold. The mold halves are extracted carefully from the pattern and then dried in an oven.

The mold halves are carefully assembled, along with the cores. Then, the molten metal is poured in the molds. After the metals cools down, the plaster is broken and the cores are washed out.

Sheet metal parts are

pro-duced using laser cutting,

water jet or chemical

etch-ing processes to form

blanks from sheet metal

stock. Blanks are then

bent to shape using press

brakes or quick custom

tooling to form the

final geometry.

Geometries can include

gussets, contouring,

embossing and pierced

features, and parts can be

made functional by adding

any PEM or other

hardware.

Key Features:

Wide range of metals

available, tolerances

comparable to die tooling.

Lead Time: 5-10 days

TYPICAL USES

Materials with low melting temperature, such as aluminum and zinc, can be cast using this process. This process is used to make quick prototype parts as well as low volume production parts.

LIMITATIONS

Size - Parts cast are usually small to medium size, ranging in weight from 30 g (1

oz) to 7 kg (15 lb).

Finishing

(13)

Page 13

Injection Mold Tooling

3DRapidPrint provides ready-to-shoot Aluminum tools (QC10) for customers who need production grade injection molded parts in short order. For our custom-ers who cannot wait 12-16 weeks for traditional or offshore tooling to be made, 3DRapidPrint offers Low-Volume Injection Mold Tooling and Parts.

In contrast to our Rapid Injection Molding offering, Low-Volume Injection Mold Tooling & Parts has no geometry limits on part dimensions and allows any commer-cially available material and surface finish.

With press sizes ranging from 20 tons to 1,000+ tons, 3DRapidPrint can meet your injection molding part needs from 25 parts to high-volume production runs.

Injection mold tooling is

the process of building

a steel, multi-cavity

pro-duction tool for injection

molds. Each tool is

pro-duced to your standards

and specifications.

Injection mold tooling is

great for high-volume

manufacturing.

Key Features:

All major tooling

compo-nents, pilot and short-run

production available upon

completion of tooling,

in-house tool trial

capabili-ties.

Lead Time: 4-6 weeks

Injection Molding Highlights

• Excellent option for QuickTurn Injection Molding projects to combat offshore tooling

• No geometry limits on part dimensions

• Standard tolerances are +/- 0.005”.

• High-speed CNC machining for Aluminum (QC7) tooling

(14)

Page 14

QuickCast Patterns

QuickCast is an SLA build style trademarked by 3D Systems and was created to meet the needs of the Investment Casting industry. QuickCast patterns were the first direct pattern (patterns create via a 3D printing process) and are by far, the most popular direct pattern technology in North America. While Stereolithography and Rapid Prototyping in general have greatly reduced time to market, Quickcast patterns for investment casting have had the most profound effect on this industry. Quickcast replaces the time consuming process of creating tooling to produce wax patterns, allowing the review of metal designs in days instead of months.

The QuickCast build style consists of a hollow stereolithography pattern with an internal hexagonal support structure that adds strength to the pattern, allows for easy drainage, and facilitates collapse of the pattern during thermal expansion to help avoid cracking the shell. QuickCast patterns provide several advantages com-pared to other direct patterns.

QuickCast is an SLA build

style that creates hollow

direct patterns for

invest-ment casting. Hexagonal

support structures add

strength, allow for easy

drainage and facilitate

col-lapse of the pattern during

thermal expansion.

Key Features:

Provides invaluable shrink

and gating information

prior to hard tooling, large

pattern size, smooth

surfaces, faster than using

tooling to create wax

patterns.

Key benefits

• Accuracy – SLA systems provide very good accuracy and rival the accuracy of

CNC machined systems.

• Large size capability – We can build patterns in one piece up to 59”x29”x20”.

Larger patterns can be created by building the pattern in sections and joining them together.

• Smooth surface finish – Our fleet of iPro systems build the smoothest surfaces

of any 3D printing technology. With additional finishing, surface roughness of less than 75µin Ra can be achieved.

Materials

3DRapidPrint exclusively uses the CastPro resin for QuickCast patterns, the best investment casting resin on the market. Because the pattern will not melt out in the autoclave but instead must be burned out prior to pouring, some modifications of the conventional investment casting process are required. 3D has published “The 3D Systems Guide to Processing QuickCast Patterns”.

(15)

Page 15

ProJet Wax Patterns

ProJet Wax Patterns - Given their preferences, many foundries would prefer to work with wax patterns and our Professional 3D Printers, including theProJet 3510 CPX system, fit the requirements for accurate, reliable processing. They build ex-cellent wax patterns directly, that are easily cast by any foundry.

Whether only one or hundreds of patterns are needed quickly, you can count on our ProJet Wax Patterns to fit into your normal foundry processing procedures, just as though they had been injection molded in pattern wax. Using the Multi-Jet Mod-eling (MJM) Technology, 3D Systems’ 3D ProJet Printers use VisiJet® Materials to build accurate, high definition wax patterns for direct investment casting.

While the build envelope for the ProJet is limited, the wax patterns have several advantages.

ProJet wax patterns are

high-definition wax

patterns created on 3D

Systems ProJet 3D

printers and used for

direct investment casting.

Key Features:

High definition, quick lead

time, range of finishes and

resolutions.

Resolution Options

The ProJet has excellent resolution, it can build detail that would normally be very difficult to mold. In fact, the detail resolution is so good that the systems are often used for jewelry applications. We can print your part designs to meet High Detail and Accuracy requirements using High Resolution Mode or the more economical Standard Resolution Mode options. You specify what is most important, and we will tailor your project to meet those needs.

Finish Options

Several resolution modes are available, in the higher resolution settings, the surface finish hard to distinguish from molded patterns, even without finishing. Patterns are easy to cast. No special finishing steps need to be taken.

Pattern Size

Of course any size pattern can be made by assembling segmented pieces, but ef-fectively, one piece patterns up to approximately 11.5” x 7.25” x 7” can be built on the ProJet™ CPX 3500 machines.

(16)

Page 16

CastForm Patterns

Patterns created with CastForm PS material are low density (45% dense); they are infiltrated with foundry wax to create a pattern that is easy to handle and finish. CastForm PS material patterns require few modifications to standard foundry prac-tices and remove quickly and easily.

CastForm patterns are compatible with autoclaves, low-temperature furnaces, and vacuum plaster casting methods. CastForm PS material’s low ash content (<0.02%) makes it ideal for patterns for casting reactive metals such as titanium; it has also been used successfully with low melt-temperature metals such as aluminum, magnesium, and zinc.

Utilizing 3D Systems

CastForm PS material,

patterns are3D printed for

use in the metal casting

processes.

CastForm patterns are

best suited for automotive

and machine components

that do not demand a fine

surface finish.

Key Features:

Shrinks in autoclave,

reduced casting failure,

easy processing.

Anatomy of the CastForm Pattern Process

Patterns are created using the Selective Laser Sintering (SLS) process and 3D Sys-tems CastForm PS material. A high powered laser is used to fuse together the low density CastForm material layer by layer into a finished casting pattern. Once the process is complete, the pattern is infiltrated with wax to seal the surface.

Applications

CastForm patterns are good for commercial foundry applications requiring complex geometries and utilize reactive and low temperature metals.

Benefits

• Good commercial foundry application

• Reduced casting failure

• Minimizes mold cracking

(17)

I N N O V A T E

Y O U R

F U T U R E

Noblesville, IN

World Wide Locations

3DRapidPrint Solutions

www.3DRapidPrint.com

Additive Manufacturing Lab 20224 Hague Road

Noblesville, IN 46060 Phone: (866) 936-2756 Fax: (419) 821-5765 Sales@3DRapidPrint.com

Worldwide Integration with QuickParts

3DRapidPrint HQ

Additive Manufacturing Lab 20224 Hague Road

Noblesville, IN 46060 Phone: (866) 936-2756 Fax: (419) 821-5765 Sales@3DRapidPrint.com

References

Related documents

Accordingly, even though there is an ongoing re-commitment to the act of writing as a philosophical exercise in Foucault’s work, he equally asserts an unremitting skepticism toward

Investigating the causes of regional growth in the post transition period we look at a variety of factors which seem to be particularly relevant in Eastern European countries,

The system will provide a medical home for all people in the local community and will provide planned access to the full continuum of care — including physical, oral, and

In our home device authentication system, CA issues home device certificates, belongs to many number of homes and has some responsibilities; the first responsibility is to protect its

© Ǽȁȅȉ Ǽȁȅȉ ȉȆ 1501-04-04-03-02:2009 ȂİIJȐ IJȘȞ ȠȜȠțȜȒȡȦıȘ IJȘȢ IJİȜȚțȒȢ İʌȚijȐȞİȚĮȢ IJȠȣ IJȠȚȤȫȝĮIJȠȢ İʌȓ IJȠȣ ȠʌȠȓȠȣ șĮ ıIJȘȡȓȗİIJĮȚ Ƞ ȣʌȠįȠȤȑĮȢ, İij ȩıȠȞ İȓȞĮȚ

Although there is no evidence that business association members learn about new technologies from their business partners in Russia at greater rates than non-members, Table 5C

In conclusion, the administration of paclitaxel, ifosfamide, and cisplatin-based chemotherapy is effective, showing improvement in overall survival of patients with

The issue led Mignon to compare Peer Gynt to Beckett, especially the last Act, whose vaudeville humour illuminates the tragic situation at its core, exactly as occurs