SuNPe Inc

SuNPe is one of the biggest professional rapid prototyping companies in China. With extremely experienced staff and technology, we can offer an excellent level of quality, service and reliability, in a very short lead-time and at low cost.Rapid prototyping, rapid tooling and low volume production are our core competencies, which we provide to worldwide customers. With three standard production factories, SuNPe covers an area of 12,000 square meters. SuNPe has more than 300 skilled staff, 80 CNC machines, 3 vacuum casting machines, and 40 other assorted processing machines. We operate 24-7 to assist customers requiring very tight deadlines.After we receive your 3-D CAD data in a number of formats (IGS, STEP, X-T etc.), we are able to produce your parts and deliver them to you using FedEx, UPS, DHL, etc. in typically less than a few days.We are pround ourselves of providing extremely fast turn-around times and guarantee the quality of our work.

Our services mainly cover the area of Automotive, Home Appliance, Medical, Electronic and Industrial Products, etc. Automotive is in the highest proportion of our marketing service structure, about 40%. We are intending to…

2005 SuNPe established in ZhongShan city;

2008 SuNPe began to turn domestic business to international business

2011 SuNPe set up the second plant, with two more CNC workshops…

View SuNPe PROTOTYPE in Google Earth

Thisbranch is the second factory of SuNPe. here we have CNC workshops and toolingfactory. We have a good environmental protection systems that meetenvironmental standards an…

At 8:00-9:00 AM of December 12th, 2017,  SuNPe held fire drillin the open space at new factory, all staff have took part in the activity andhave learn how to deal with the fire accidentTh…

In order tofurther enhance the company safety work, strengthen the staff fire awareness, andwe are in line with the principle of \safety first and precaution crucial\and the idea of \people-oriented\,…

It\s virtuallyto make our businessman know how to serve our customers with more professional knowledgeand enthusiastic mindset to bring you distinctively first-rate services, keepall our customers hap…

At SuNPe, we not only learn and continue to progress each other in ourwork, but also constantly communicate and challenge in our lives.At 7:00-9:00 am November 14th 2017,our boss Peter Su and severalp…

At  SuNPe, our staff join in training usually and share experiences with each other,to be a better and more professional one. On October 30th 2017,in order to strengthen enterprise cohesion …

In the morning of August 20th 2017, we held an annual sales meeting . Everyone at present was active when sharing their useful experiences, feelings and suggestions. We not only summarized the achieve…

On August 19th 2017, in order to enhance the culture of company as well motivate all-round development of our staff and bond more communication with local enterprise, we held a bask…

5-axis CNC Machined Aluminum Project

One Stop Service for Boca Boot Project

The torch for The 2017 Ashgabat Asian Indoor and Martial Arts Games

Rapid Prototyping SLS

Considerably stronger thanSLA; sometimes structurally functional parts are possible.

Laser beam selectively fuses powder materials: nylon, elastomer, and soon metal;

Advantage over SLA: Variety of materials and ability to approximate common engineering plastic materials.

No milling step so accuracy in z can suffer.

Process is simple: There are no milling or masking steps required.

Living hinges are possible with the thermoplastic-like materials.

Powdery, porous surface unless sealant is used. Sealant also strengthens part.

Uncured material is easily removed after a build by brushing or blowing it off.

of Austin, Texas, USA) is a process that was patented in 1989 by Carl Deckard, a University of Texas graduate student. Its chief advantages overStereolithography(SLA) revolve around material properties. Many varying materials are possible and these materials can approximate the properties of thermoplastics such as polycarbonate, nylon, or glass-filled nylon.

As the figure below shows, an SLSmachine consists of two powder magazines on either side of the work area. The leveling roller moves powder over from one magazine, crossing over the work area to the other magazine. The laser then traces out the layer. The work platform moves down by the thickness of one layer and the roller then moves in the opposite direction. The process repeats until the part is complete.

Material Properties: TheSLA (stereolithography)process is limited to photosensitive resins which are typically brittle. The SLSprocess can utilize polymer powders that, when sintered, approximate thermoplastics quite well.

Surface Finish: The surface of an SLSpart is powdery, like the base material whose particles are fused together without complete melting. The smoother surface of an SLA part typically wins over SLSwhen an appearance model is desired. In addition, if the temperature of uncured SLSpowder gets too high, excess fused material can collect on the part surface. This can be difficult to control since there are so many variables in the SLSprocess. In general, SLA is a better process where fine, accurate detail is required. However, a varnish-like coating can be applied to SLSparts to seal and strengthen them.

Dimensional Accuracy: SLA is more accurate immediately after completion of the model, but SLSis less prone to residual stresses that are caused by long-term curing and environmental stresses. Both SLSand SLA suffer from inaccuracy in the z-direction (neither has a milling step), but SLSis less predictable because of the variety of materials and process parameters. The temperature dependence of the SLSprocess can sometimes result in excess material fusing to the surface of the model, and the thicker layers and variation of the process can result in more z inaccuracy. SLA parts suffer from the trapped volume problem in which cups in the structure that hold fluid cause inaccuracies. SLSparts do not have this problem.

Support Structures: SLA parts typically need support structures during the build. SLSparts, because of the supporting powder, sometimes do not need any support, but this depends upon part configuration. Marks left after removal of support structures for parts cause dimensional inaccuracies and cosmetic blemishes.

Machining Properties: In general, SLA materials are brittle and difficult to machine. SLSthermoplastic-like materials are easily machined.

Size: SLSand SLA parts can be made the same size, but if sectioning of a part is required, SLSparts are easier to bond.

: The investment casting industry has been conservative about moving to RP male models, so SLS

models made from traditional waxes, etc. are preferred. 3D Systems has a process (dubbed QuickCast) which allows SLA models to be more suitable for investment casting. Since SLA resins do not melt but burn to form ash, QuickCast modifies the build process so that the interior of the model is hollow with a supporting latticework. When the ceramic is fired, the QuickCast model collapses and any ash is minimal because of the small total quantity of material.

Rapid Prototyping Equipment

Welcome to the World of 3D Engineering

Imagine what you could design, create and perfect with some of the most capable rapid prototyping machines available on the market today.

Proto3000 provides rapid prototyping equipment to those companies and individuals looking to bring the technology in-house. With so many solutions available in the market today, we have sent our experts scouring the globe finding the one that meets every need. After all this research has been conducted, our product offering of choice is Objet 3D Printers. With our diverse product line, and machine versatility, they are the unrivaled rapid prototyping solutions to meet todays product design and engineering needs. These 3D Printers boast multi-material capabilities, can produce functional parts, have the greatest material diversity (including high temperature and digital materials), and are office and eco-friendly. With various product lines, you can have a 3D printer with a small footprint, and one at an affordable price point. 3D Printing and rapid prototyping just doesnt get any better. Click on one of these 3D printing systems to learn more.

This family of 3D printers are designed to provide accessibility to 3D Printing right when it is needed

Eliminate the need to outsource work The Objet Desktop line brings advanced 3D printing within the reach of designers, engineers, and consultants without having to leave the office. Increase productivity in not just product development, but the act of rapid prototyping itself, thats double the efficiency!

Eden 3-Dimensional Printing Systems offer unprecedented return on investment (ROI) for professional rapid prototyping applications

Eden systems produce models with exceptionally fine details (ultra-thin 16 layers) and smooth surfaces

Compact design and the clean process of all Eden systems makes them ideal for any office or workspace

Offers the completely unique ability to print parts and assemblies made of multiple model materials, with different mechanical or physical properties, all in a single build

The Connex family of multi-material 3D printers can also fabricate Digital Materials on-the-go, enabling users to create composite materials that have preset combinations of mechanical properties

Our largest (in terms of build tray size) and most capable family of 3D Printers

Westill offer various other rapid prototyping equipment processes through our services. We understand one shoe doesnt fit all, and one form of rapid prototyping may not either. Take advantage of our rapid prototyping services.

At Proto3000 we use 3D Systems SLA equipment to economically produce 3D models and prototypes with the highest degrees of accuracy. With a larger footprint then most of the other Rapid Prototyping machines on the market today. Take advantage of Proto3000s SLA prototyping services.

Slimilar to polyjet matrix printing, stereolithography is an additive manufacturing process that using the combination of resin and a UV laser to build prototypes one layer at a time. The CAD model provides the data for the laser to trace each cross section on the surface of the liquid resin. The ultra violet laser then heats the resin to a solidifying state, fusing it with the layer beneath. After a layer has been completed, the build tray platform descends so a new layer of resin can be applied. After the build has been completed, the part is then immersed in a chemical bath to remove any excess resin. The final step in the stereolithography process is for the part to be cured in a UV oven.

Our Laser Sintering Machines, another type of rapid prototyping process, allows for us to produce large durable parts with ease. These rapid manufacturing systems can produce end-use parts.

This additive manufacturing technique incorporates the use of a high powered laser. The laser fuses small particles of plastic, metal, ceramic or glass powders into a 3-dimensional mass. Selective laser sintering machines use a CAD file to generate the properties of the object, then selectively fuse the powdered material by scanning cross-sections generated by the CAD data. After each section is scanned the bed of the machine is lowered to apply the next layer. This method of additive manufacturing allows for a wide range of materials as well. Polymers such as nylon, polystrene, steel, titanium, and alloy mixtures can all be used to create the prototype.

FDM is another 3D Printing technology that produces similar results to our Objet 3D Printers. If you were looking to purchase a Stratasys FDM 3D Printer. If you require assistance, Proto3000 has you covered.

This additive manufacturing technology, like most others, begins with an STL file from a CAD software. This rapid prototyping machine dispenses two materials, one for support, and the other for the model. Thermoplastics are heated to a liquid state and deposited based on the path defined by the CAD file. The model is built from its base upwards with each layer of material being added onto the next. This form of rapid prototyping also allows for different materials to be used, although they cannot be combined.

Rapid Prototyping3D PrintingStereolithography (SLA)Selective Laser Sintering (SLS)Fused Deposition

Modeling (FDM)Plastic Prototyping3D Prototyping3D Laser ScanningNon-Destructive TestingCMM InspectionDigital Dentistry3D Engineering

MakerBot 3D PrintersStratasys 3D PrintersDesktop 3D PrintersLow-Cost 3D Printers

Professional 3D PrintersMulti-Material 3D PrintersProduction 3D PrintersReverse Engineering SoftwareInspection Software3D Laser ScannersImes-icore Dental MillsStratasys Dental 3D Printers

Rapid PrototypingPolyjet 3D PrintingPolyjet MatrixFDM ServicesSLS ServicesSLA Services3D PrintingServices3D Laser ScanningReverse Engineering3D EngineeringCMM Inspection

CanadaUnited StatesTorontoMontrealQuebecEdmontonCalgaryVancouverChicagoLos Angeles

CaliforniaMarkhamMississsaugaOshawaRichmond HillConcordDurhamOttawaLavalWaterlooKitchenerVictoriaNew York

CNC Machining Prototyping

Our Custom CNC machining services include both

Our firm offers a broad spectrum of CNC machining services here. CNC turning and CNC milling are among our most popular. CNC turning and milling make it possible to produce extremely accurate shapes and cuts in a very wide variety of material, including features that a human machinist would find impossible. CNC turning and milling are suitable for both prototyping and small production runs.

With over a decade of experience in the industry, we have amassed extensive expertise in the CNC machining & custom CNC machining field. This expertise allows us to provide the best possible CNC machining services for you. Were happy to customize our offerings to our clients requirements. For each job we handle, we aim to completely satisfy our clients needs, delivering innovative and international standards of compliant CNC machining solutions. Theres a reason why some of the worlds best known auto makers rely on our CNC machining services here.

CNC machining makes it possible to prototype and manufacture parts from materials like aluminum, ABS, PP, PA, PMMA (completely transparent), PC, PTFE, PEI, POM-H, PET, PET GF, PBT, PBT GF, PA GF, Carbon fiber, and more.

Our large operation records (8001200) allow us to manufacture even small runs of large-size prototypes.

Our CNC machines are able to produce parts quickly, often consolidating several manufacturing steps into one. CNC machining also makes it possible to carefully optimize machining runs for minimal material loss, maximizing profit and minimizing waste.

When processing optical components, the results must precisely match the 3D CAD model. Hand finishing introduces unacceptable variations and therefore cannot be used. Its critical to achieve the desired surface finish directly via CNC milling. 3ERP is one of the rapid prototyping companies able to provide this service.

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Rapid Prototyping Manufacturing Report

Rapid Prototyping in The Worlds Fastest Cars : Formula 1

Top Tools for Rapid Prototyping in 2017

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Using the exercise files

Learn the most in-demand business, tech and creative skills from industry experts.

Rapid prototyping takes your designs out of the computer and into the real world, but choosing the right process is critical to success. Join product designer Gabriel Corbett for a tour of the most popular rapid-prototyping methods, straight from the workshop floor. This course includes first-hand looks at the machinery and techniques behind 3D printing, machining, resin casting, injection molding, 2D prototyping, and laser scanning. After you watch this course, youll have a solid understanding of the available prototyping processes, and knowledge of the machinery and tools to bring your product through the prototyping stage and into the real world.

Author at LinkedIn – CAD / CAM, Solidworks, Product Development, Onshape, G-Code and Manufacturing

Gabriel Corbett is an experienced product designer, instructor, and speaker.

Gabriel has a bachelor of science degree in mechanical engineering, and has been an active product designer for the past 18 years. He previously owned a prototype-through-production machine shop that built parts for notable organizations like the Jet Propulsion Laboratory (JPL) and Panasonic. By combining solid design experience with real-world skill in building products, Gabriel has the unique ability to design products quickly and effectively. He regularly consults companies on better and more efficient manufacturing and design methods.

Gabriel has worked with many startups and established companies, developing products for the consumer, industrial, and medical markets. He has worked on all aspects of product development, including product design, engineering, marketing, sales, and management.

Gabriel has been a author since 2011, and has developed courses on SOLIDWORKS, Onshape, rapid prototyping, and certification. He runs the Orange County SOLIDWORKS User Group, and has taught SOLIDWORKS and CNC machining at Irvine Valley College. Additionally, he runs his own design engineering company called Tiger Industrial Inc. He has presented at SOLIDWORKS World in Dallas, San Diego, Florida, and Los Angeles.

Gabriels interests include new ventures, photography, adventure travel, surfing, mountain biking, and stand-up paddleboarding.

If youre a premium member of m, you have access to the exercise files used throughout this course. Go ahead and download the files to your desktop, double-click on it, and you can see inside of there, weve got the files laid out by chapter. And if you open up that chapter, you can see we have all the files used in that section. If youre a standard, annual, or monthly member, you dont have access to the exercise files, but you can follow along with your own assets. Now, lets get started.

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Understanding design software and web resources

Working with stereolithographic (SLA) parts

Understanding the prototype machining process

Understanding how a computer-numerical-control (CNC) mill is set up

Working with computer-aided manufacturing (CAM) software for part programming

Understanding makes and types of CNC machines

Exploring materials and equipment for molding

Reviewing resources for resin casting

Setting up an injection-molding machine

Introducing 2D prototyping techniques

Learn the most in-demand business, tech and creative skills from industry experts.

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The Real Cost of RP

, a monthly column authored by

for Time-Compression Technologies.

March/April 2002 issue. For more great articles,

visit the Time-Compression Technologies

If you have discovered the benefits of rapid prototyping, you may be eager to bring the technology in-house. With some RP systems selling for less than $75,000, this can be an alluring thought and a reasonable option. However, to determine if ownership is the right decision, you must account for expenses beyond the systems purchase price.

The initial investment can easily approach or exceed $1 million, and recurring expenses are often measured in tens of thousands of dollars. This is especially true if your technology evaluation shows that the lower cost systems will not meet your needs.

Even if your needs demand a more expensive solution, it can be, and often is, a good investment. Many organizations worldwide have been successful with their RP installations and have purchased second, third, and even tenth machines. However, whats right for other companies is not necessarily right for yours. Before investing a single dollar, euro, or yen, consider the real costs associated with RP system ownership.

Understanding the true cost of ownership requires a thorough investigation. Whether you work for a Fortune 100 company or a small startup, study the options and investigate the requirements in detail. Perhaps this goes without saying, but it is surprising what has been overlooked in others evaluations. Too little effort here and you may discover one of the most significant hidden costs; implementing a poor solution. Time and money invested in an inappropriate technology can drain a budget while delivering little or no benefit.

Your evaluation can take many forms: visit websites, join e-mail lists, and attend industry conferences. It is important, however, to go a bit deeper. Visiting user sites will allow you to ask many questions and get detailed answers that may be unavailable elsewhere. Many find it especially advantageous to seek professional advice and guidance. Although consultation can cost several thousand dollars, it can help you make the right decision.

Through research, you will want to discover the organizational demands of equipment ownership. Two critical aspects are related to the concept that you will have internal customers. With these customers, you will need to invest in promoting the use of the technology, and creating awareness of the benefits and limitations. To maintain customer satisfaction, you will also have to invest in building a strong process. As veteran RP users are aware, the dynamics of managing a schedule and delivering a top quality product are challenging when backlogs are measured in days and deliveries expected in hours.

As research will show, it is unlikely that your RP capabilities will accommodate all of the internal demands. This may be due to capacity, lead-time, material properties or the technologys capabilities. So, it is wise to allocate some of the RP budget to the purchase of prototypes from an outside source.

RP machines have a wide range of options, capabilities and prices. Presently, 15 companies offer more than 50 different systems. With advertised prices of $45,000 to $800,00, the purchase of the equipment does not present a hidden cost. However, support of the machines and long-term requirements can present a few surprises.

RP machines require a bevy of equipment on both the front and back ends of the process. Ensure that you fully account for all of the equipment that other users recommend for the specific processes you are evaluating. For some processes, the ancillary equipment expense can approach, and even exceed, the price of the RP machine. Considering all technologies, the list is too exhaustive to present. However, key areas of consideration include third party processing software, part cleaning equipment (ovens, wash tanks, hand tools, downdraft tables) and uninterruptible power supplies. Furthermore, do not forget to account for power consumption. Past studies of an SLA 500 showed that the cost for electricity could run as high as $6.00 to $8.00 per hour in some areas of the U.S.

For new, rapidly developing technologies, obsolescence is a risk, and it is one that can create significant expense. In the best-case scenario, one can avoid obsolescence with upgrades to the machines. Upgrades can be expensive, but they can extend the effective service life of the system. In the worst-case scenario, the technology is supplanted by newer and better systems or the system vendor ceases to exist. Failures, consolidations and the entry of new players with the latest technology are to be expected. To protect your investment be aware of the latest developments and current trends in the RP industry.

As with most machinery, preventative maintenance is a good idea, but it comes at a cost. An annual maintenance agreement from 3D Systems can cost up to $75,000 for its SLA 7000 machine. A one-year service agreement for a $200,000 FDM Titan machine from Stratasys is $19,000. As a rule, budget about 10% of the purchase price of the machine for full annual maintenance.

Many of the components in an RP machine will wear out or fail. If you choose an option other than full service maintenance, determine the expected life of the major components and budget accordingly. For example, a solid-state laser for stereolithography is warranted to last 5,000 hours – – seven months of use running at 70% of capacity. At this rate, you would need to account for at least one new laser for your Viper si2 or SLA 7000 at a cost of $40,000.

Without a maintenance contract, software maintenance and upgrades will be an additional charge. When using the SLS process, software maintenance costs $6,000 per year per machine.

In general, replacement parts are expensive, especially considering that many of the system manufacturers require that you buy the parts from them to maintain warranties. Many of these parts are specifically manufactured for the technology, so you may have no options other than buying them from the vendor. With no economies of scale, these replacement parts can be pricey.

Many processes such as stereolithography (SL) and FDM require the removal of support structures. This can be tedious and time consuming, can require special tools and equipment, and usually demands some expertise. Some processes eliminate or minimize this effort and the cost associated with it. Parts made with equipment from Objet and Solidscape permit you to wash away or dissolve the supports. Stratasys offers WaterWorks support structures with some of its machines, which similarly eases the support removal process. Powder-based processes, such as SLS from 3D Systems and ink jet printing from Z Corp., usually omit the need for support structures. With or without support structure removal, post-processing requires some labor and supporting tools to raise the prototype to a presentable level of aesthetic appeal and allowable tolerance.

Removing excess material from the surface of the prototype is another consideration. In the case of SL, it is important that you remove all uncured resin prior to any benching operations. Typically, this is done in an agitating tank filled with solvent such as Tripropylene Glycol Methyl Ether (TPM) or propylene carbonate. For SLS, loose powder is removed with compressed air and hand brushing while working over a downdraft table.

If your prototypes require a high level of finish (e.g., for tooling patterns or photo quality models), you will need skilled and experienced technicians to bench the parts and to do the painting. These processes will also require additional equipment, such as spray booths, and it will require additional facility modifications to keep air contaminants from reaching other work areas.

Some of the materials are considered hazardous, so protective equipment may be required. If the supplies are disposable, like protective gloves, the annual expense can be sizable. As a hazardous mate
rial, you will also need to consider the cost of disposal of contaminated water, unused resin and cleaning solvents.

Your new RP machine may require facility changes such as the addition of partitions, ventilation, temperature controls, dehumidifiers, electrical lines, water lines and computer networks for both the machines and the supporting equipment. For some technologies, it is best to consider isolating the equipment to minimize contaminated air (fumes, dust) from reaching the general population in your building.

RP materials are expensive, and the cost swells with waste, scrap, inventory and material conversions. Photopolymers, such as those for stereolithography, cost about $200 per kilogram. Although the price can vary with the product you select and the quantity you order, these materials are far from being a commodity. At this price, the initial cost of filling an SLA 250 or Viper si2 vat is $5,000 to $6,000, while an SLA 5000 or SLA 7000 costs nearly $45,000. Also, do not forget to cover the cost of inventory. For example, each SLA material that you plan to offer will require an on-hand inventory of $3,000 worth of material or more.

In most cases, unused material cannot be completely reclaimed. For stereolithography, the cumulative exposure to UV can cause an entire vat of resin to become unusable. With SLS, waste is generated with each build, because the process requires a ratio of 20% to 50% virgin material to recycled powder. A typical prototype will have a volume of 15% of its volumetric (bounding box) extents; so much of the used powder is never reclaimed, creating a stockpile of unusable material.

Scrap material is also generated through bad builds and damaged parts. With so many variables in the art of producing a good prototype, it is unreasonable to expect 100% performance. Although the scrap rate will vary, it would be wise to plan for 10% loss.

With all of these factors, allocate 20% to 30% of the prototype cost to materials alone.

RP machines require operational expertise. While the expensive shop floor machines require more training and experience than the less expensive, office friendly machines, each require some level of training. It will take two forms; formal classroom and hands-on. Since RP has yet to become a cookbook process, there is much to learn with each attempt at building a prototype, particularly at first. Allot some time and money for this trial-and-error phase that will ultimately build the expertise within your staff.

To offer consistently good turn-around, budget wisely for staffing. A productive and efficient RP department is rarely a single shift, 8:00 to 5:00 operation. Skimping on the human resources will prove to be penny-wise and pound-foolish. Some RP users actually prefer to over staff in order to deliver quickly at times of peak demand. Independent of the technology that is selected, the primary functions that an operation must address are: data management and file preparation, machine operation and part finishing.

In terms of staffing, the first RP machine will be the most expensive. As your operation grows, you will find that one skilled technician can operate multiple machines. As a result, the multiple machine environments will have a lower percentage of labor to total cost.

A truly hidden cost is the time needed for internal sales and marketing to keep the operation at or near capacity. Some companies have neglected this part of the project and have failed due to a lack of awareness and understanding among potential customers inside the organization.

While there is significant cost with equipment ownership, there are also many powerful benefits. As some companies have found, payback periods have been measured in months, not years.

Beyond financial justification, one of the most stated benefits of ownership is that the company has full control over the prototypes. Also, it reduces the risk of proprietary designs falling into the wrong hands. Some organizations feel that their new designs are so sensitive that they will pay the price, whatever it is, to keep them inside the company.

Others believe that owning your own equipment can lead to a reduction in part cost, when compared to buying from a service provider. This can be true, but only if you run the machine(s) effectively. An inefficient in-house operation can be more costly, both in poor lead times and hard dollars.

The last often cited benefit is improved delivery times. With the proper process, staff and capacity, an organization can produce and deliver RP parts faster. With the elimination of shipping, it is possible to deliver the parts the same day they are finished.

Hidden costs are only hidden when you are unaware of them. With research, these expenses are no longer a surprise. Armed with this information, you can make a better business decision on the purchase of RP equipment.

Clearly, its possible to build a successful RP facility. Thousands of organizations around the world have done it. Current market research suggests that a growing number of companies are bringing the technology in house. Although there is growth in the service provider market segment, the rate of growth is greater for those that purchase the technology for their own use.

It is not always about the bottom line. Some companies feel that all the benefits of operating an RP system overshadow the cost of ownership. In these cases, it is often the champion of RP technology that effectively persuades the organization to move forward. The champions role in a successful implementation does not stop after the deal is signed. The can-do attitude, motivation and drive of a true champion of RP can be the key to long-term success.

Increasingly, companies will own equipment. Yet, they will continue to use service providers in a fashion similar to how companies use both in-house and outsourced document printing. The odd are good that in the near future your organization will be one of these companies. In the meantime, study your options carefully and be sure you are aware of all the costs, especially those that are hidden.

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Users Guide to Rapid Prototyping.

What does it take? What will it do? How do I evaluate rapid prototyping?

Todd Grimm de- livers the answers to these questions and many more.

Which3D printeris fastest? Cheapest? Which offers the best quality?

The benchmark reports provide the answers. A great resource for anyone preparing to buy a rapid prototyping device.

An extensive eval- uation ofRoland DG: the company, the strategy and the merits of subtractive rapid prototyping (SRP).

QBPrecision Technology Co Ltd

We have the same We have become an appointed manufacturer of OEM business for many worldwide famous brand owners.

Our Material Supplier are theBESTin the World:Axson,Hi-Cast,Du Pont,Polyplastics.

By using all kinds of new materialsandadvanced techniques, such as full3D virtual model design,hard anodizedaluminum process, andtitaniumusing. QBPrecision is the first choice of solution for your manufacture and sourcing in China.

About QBPrecision Technology Co., Ltd

5-30daysfor CNC Machining and P20 rapid Injection tooling;

Same Quality butLower 50% costthan western manufacturers;

Each Project will provideMaterial Test ReportandDimensional Inspection Report;

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Why USE Rainbow for Rapid Prototype?

We are manufacturer in Rapid Prototype and molding with over 10 year experience in china,apply to Medical Equipment,Auto Parts,Electronic and Toys area and so on.

Rainbow Company offer the best service and quality for more than 10,000 clients around the world in past years. Since 2008 we established a newbranch companyin American.

If you have any questions,Welcome here.

Rainbow rapid prototyping – You can choose

Why USE Rainbow for Rapid Prototype?

The most advanced rapid prototyping machines

Wide variety ofrapid prototypingmaterial

Vast rapid prototyping engineering experience

Rainbow Rapid Prototype Company offer CNC/SLA Rapid prototyping,CNC milling(machining parts),Vacuum Casting to help you get from plans to production in the shortest amount of time.

And apart from Rapid Production services,we can provide Injection mold and production when you start to proceed with your production after the prototype audited.

We serve your industry with the precise rubber compound formed through state-of-the-art compression, transfer, and molding technology to serve a wide range of industries including:

China Rainbow Rapid manufacturer Company offers a variety of comprehensive services. Our expertise is in functional and durable working rapid prototypes and short-run prototype production from secondary tooling and Rapid tooling.

China Office Tel: +86 186 2741 1834 (English American Office Tel:+1-

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Rhino Precision

Rhino Precision specializes in rapid prototyping, non-clinical medical device tooling, high-tech production, automotive, aerospace, electronics and reverse engineering of broken and obsolete parts.

Rhino Precision is an Austin, Texas based machining and engineering company. Rhino Precision specializes in projects that most machine shops simply will not or cannot do. We want your hard to make parts. Rhino Precision specializes in rapid prototyping, non-clinical medical device tooling, high-tech production, automotive, aerospace, electronics and reverse engineering of broken and obsolete parts. Whatever your application Rhino Precision can provide extreme precision and accuracy to ensure a perfect fit and unparalleled reliability. When you need a part to fit the first time and work every time Rhino Precision is here to meet your needs.

Rhino Precision uses advanced CNC machining techniques to produce prototypes for a variety of industries. Fast turn around times of one-off prototypes from a variety of materials has created a loyal base of demanding customers. Medical device prototypes are the foundation of Rhino Precision.

Parts made in our shop are currently in use by some of the worlds leading aerospace companies. Our shop boasts some of the medical device industries finest endoscopic tooling. When absolute precision is required and complex parts are involved Rhino Precision excels at exceeding customer expectations.

Rhino Precision can meet your high-tech short run production needs. When every part requires attention to detail, absolute consistency and the meeting of demanding specifications Rhino Precision is the solution. Advanced manufacturing knowledge and continuous training in new techniques and technologies allow us to maintain the highest standards of quality.

Rhino Precision excels at reverse engineering of broken and obsolete parts. Serving customers in a variety of industries Rhino Precision keeps equipment running for manufacturers, municipal utilities and other critical applications when parts are not readily available. We can take broken parts or drawings and provide parts in the appropriate material to meet any application.