Functional gearbox front 3D printed with RIZIUM fiberglass. Photo via RIZE.
20 Dec
Blog

RIZE debuts RIZIUM Glass Fiber filament for full-color 3D printing

3D printer manufacturer RIZE has presented its new long lasting RIZIUM fiberglass Filament for use with its 3D printers. The composite material should have high dimensional stability and high rigidity and is mainly intended for the production of large parts. RIZIUM Glass Fiber is also the only composite material from RIZE that is suitable for colored parts that are manufactured in-house xRize 3D printer.

Ronnie Sherrer, application engineer at the 3D printing service provider AzothCommented: “We like the printing reliability that RIZIUM Glass Fiber offers for the RIZE product line. Azoth can rely on the quality and strength of the RIZIUM GF parts. Our customers love turning 3D rendered models into precisely colored parts. “

Functional gearbox front 3D printed with RIZIUM fiberglass. Photo via RIZE.

Large format full color 3D printing

RIZIUM Glass Fiber is compatible with every 3D printer in RIZE’s current portfolio. The composite is based on the company’s unique olefin-based cyclic matrix that is reported to have no harmful emissions at typical extrusion temperatures. It is also characterized by extremely low moisture absorption properties and excellent chemical resistance.

The filament uses RIZE’s Augmented Polymer Deposition technology, where filaments can be combined with functional inks to create new properties and colors. Because the composite is stable over large build volumes, users can create functional products on a large scale with Over 820,000 different color combinations.

Andy Kalambi, CEO of RIZE, explains, “Previously, full color 3D printing applications could only provide poor approximations of the original, and users often avoided large parts or complex geometries because they could warp or tear. We’re excited to be driving a renaissance in industrial manufacturing with better 3D printing materials and technologies. “

Skateboard 3D printed with RIZIUM fiberglass. Photo via RIZE.Skateboard 3D printed with RIZIUM fiberglass. Photo via RIZE.

Safe and sustainable

As proof of its safety, RIZIUM has received fiberglass UL GREENGUARD certification on the xRize 3D printer, which means it can be used safely in enclosed spaces such as offices. This is the company’s fourth product to receive certification. This confirms that it emits negligible amounts of VOC without additional ventilation equipment.

Kalambi summarizes: “With RIZIUM Glass Fiber’s high dimensional stability and durability and UL GREENGUARD certification for low chemical emissions, users have the flexibility to expand the applications suitable for 3D printing. Expect more from us soon about further expansions to our RIZIUM Alliance so that all 3D printing users can work in safer, more sustainable and more adaptable environments. “

RIZE’s first UL The GREENGUARD certification was last year for the RIZE A 3D printer. In order to, RIZE is said to have been the first company in the 3D printing industry to receive certification. Fast forward to June 2020 and the company announced the launch of its latest 3D printer – the 2XC. The health and safety conscious desktop machine is aimed at professional designers and engineers who want to make strong and durable composite parts from a variety of materials. The system has an IDEX setup and a build chamber of 228 x 200 x 300 mm.

The 4th annual 3D Printing Industry Awards are coming up in November 2020 and we need a trophy. With the chance to be there to win a brand new product Craftbot Flow IDEX XL 3D printer, Enter the MyMiniFactory trophy design contest here. We are happy to accept submissions by September 30, 2020.

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Looking for a career in additive manufacturing? visit 3D print jobs for a selection of roles in the industry.

The picture shown shows the 3D heart model printed with RIZIUM Glass Fiber. Photo via RIZE.

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HT vs PLA Filament for High-Temperature 3D Printing
20 Dec
Blog

HT vs PLA Filament for Excessive-Temperature 3D Printing

PLA or HT? Which high temperature filament can withstand heat and stress better?

In my last article, I covered the basics of working with high temperature 3D printer filaments. In this article, I’m going to subject both HT and PLA (polylactic acid) filament to two of three separate homemade tests.

The three experiments I performed were designed to test the two filaments for strength and heat resistance, while controlling as many external factors as possible.

I’m sure ColorFabb has a very sophisticated, very expensive testing machine that tests their filaments in a fully controlled environment. Unfortunately, I don’t have access to such a machine, so my test equipment is made from materials you can buy at your local hardware store.

Oven test

The first experiment was designed to test the heat resistance of the two filaments. I put two rings, one in HT and one in PLA, side by side on a baking sheet and put them in an oven. Then I started turning up the heat. The following picture shows the two models after the test.

Both models (HT left and PLA right) after the oven test

To be honest, I was very surprised by the result. At exactly 100 degrees Celsius, I pulled the models out of the oven and tried to cut them with a butter knife. Both models held up exactly the same, so I put them back in the oven and turned the heat back on.

The interesting result occurred at 300 degrees Fahrenheit. The black HT ring was malleable and folded on itself, while the white PLA ring seemed unaffected by the high temperature. This could be due to the HT filament being more pliable overall, but it’s not the elasticity I expected at high temperatures.

It is important to note that this experiment was not performed under the operating specifications expressly stated by the manufacturer. The exact claim of the HT filament is that the filament retains its strength up to 100 degrees Celsius and the filament is folded under significantly more. While I’ll talk about verifying this exact claim in the final article in this series, this first test is not an outstanding performance of the HT filament.

Hammer drop test

The second test I did was a strength test only. To test the strength of the filament, I mounted each ring in a vise and repeatedly dropped a four pound sledgehammer on it. Here is a layout of the test machine:

The ColorFabb_HT model in the test setup

Of course, the optimal way to test the ring would be to hang successive weights on it until it fails, but I found this method was much safer since no heavy weights suddenly fell to the floor.

I started by dropping the hammer on the print from a short height, lifting the hammer one centimeter at a time. If the pressure survived all these drops, I repeatedly dropped the hammer from the highest point and recorded how many hits it survived. The following two videos show every pressure that the hammer has fallen on.

The HT (left) and PLA (right) models reached their respective break points in the stress test

This is the test where HT filament really excelled. The PLA could not survive even a drop from the highest point, while the HT model survived twenty-two drops. Honestly, I’m surprised that ColorFabb doesn’t market the product as primarily stronger as the improvement over standard PLA is unprecedented.

One of the main characteristics that make HT filament more shock resistant is its inherent softness. This may have been a disadvantage during a pure heat test, but if a weight is dropped on it, the HT filament is more “springy” and can absorb the energy much more effectively. Even other filaments designed for strength such as. B. carbon fiber composites are much stiffer and could not handle the impact as well. The difference would be similar to dropping a hammer on a rubber ball instead of a raw egg.

In the next article we will talk about testing heat resistance and strength at the same time, as well as an overall analysis of the performance of each filament.

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Hemp PLA Filament, Entwined, Released by 3D Fuel » 3D Printing Media Network
19 Dec
Blog

Hemp PLA Filament, Entwined, Launched by 3D Gas » 3D Printing Media Community

The wait – 3D printing with hemp filament! Entwined is a 3D printing filament made from industrial hemp grown and processed in the USA. Industrial hemp crops do not require herbicides, pesticides and grow more densely compared to corn.

The detangled hemp filament does not use any dyes, which means that it retains a real natural brown. It’s almost dazzling in its ability to present different shades and densities within the same printed object. There is a large amount of visible organic filling, something you don’t get with standard PLA.

This is the third in a series of fascinating materials in an ongoing partnership between 3D-Fuel and the biocomposite company c2renew. More distinctive bio-based products will be released shortly.

Entwined hemp filament can be printed on any device that can print with PLA using standard PLA settings.

Print settings

Entwined prints well at 180-210 ° C. In general, a good starting point is 10 degrees cooler than you would normally print PLA. A heated bed is not required. However, if you have one, set it to 45C.

Filament information

Quality: All 3D-Fuel 3D printer filaments are manufactured in our own production facility in Fargo, North Dakota or Moville, Ireland (depending on the customer location). We have complete control over the manufacturing process and are able to ensure consistent quality for every coil.

Diameter tolerance: A variable diameter can cause major problems in your 3D printer. We use a multi-axis laser measurement system to control our filament diameter and ovality in real time during production. Each reel has the diameter and ovality dimensions that are listed directly on the packaging.

Packing information: A 500g of detangled hemp filament plastic filament comes on an easy-to-use plastic roll and is vacuum sealed with a desiccant package to keep moisture out.

Test print: The 3D fuel test lab offers 3D printers from various brands including MakerBot, LulzBot, FlashForge and more. We 3D print what we make to ensure our filament is of the absolute best quality possible.

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taulman_logo
19 Dec
Blog

New & Improved PETG: Taulman3D Releases TECH-G 3D Printing Filament with Excessive Energy, Restricted Elongation – 3DPrint.com

The world of materials for 3D printing has grown huge, as has the growing global catalog of transformative innovations that we are now gifted with. And while there are many different filaments and alternative sources to draw from, there are just as many problems, concerns, and drawbacks that are specific to each project, printer, and user.

Companies like Taulman3D specialize in helping users do something simple: create more 3D printed things – right. However, they provide us with a huge amount of information on the go, and it’s always a highlight when one of their new products shows up – which is quite common compared to other manufacturers.

oneFounded by Thomas Martzall, the filament manufacturing company consists of a team that is knowledgeable about materials and chemicals and continues to strive for new innovations and horizons for filaments, each with unique characteristics suitable for a wide variety of users looking for specific ones Elements for their own requirements.

Taulman is currently announcing the release of TECH-G, a PETG filament designed to provide even higher strength with limited elongation.

PETG filaments are becoming increasingly popular and are a modified version of the simpler PET, a non-toxic thermoplastic polymer resin used to make clothing and products such as containers. PETG filaments are an attractive and viable option because of their low melting temperature and their durability and flexibility in the finished state. PETG is a good alternative to ABS or nylon and usually offers transparency as well.

While PLA and ABS have traditionally been used, and especially by engineering firms, for “initial form and fitness assessments”, the Taulman team was aware that the overall strength of these filaments would limit the usefulness and potential of 3D models many times over.

“In the case of PLA, it was the brittleness of medium-sized or larger parts that severely restricted the functional test,” explains the Taulman team. “With ABS, the limit has always been tensile strength.”

TECH-G technical data for 3D printing:

  • Tensile Strength – 5,900+ PSI
  • Elongation – 3%
  • IZOD notch – 2.14 ft-lbf / in
  • Color – clear (colorless without added coloring)
  • Odors – none
  • Transmission – 90%
  • Printing temperature – 235 ° C – 240 ° C.

qENKNrMeDVBfed-H3_vtBFJ_yPJk5NUjVW2eY9vHlWoTECH-G is a clear, odorless virgin polymer found in standard 1kg spools. It is available in both 1.75mm and 2.85mm sizes. In fact, almost as transparent as T-glass we reported on earlier in the year, this is a material known as co-polyester. The Taulman team suggests several tips for using with TECH-G, such as:

  • Users should use lower fans when printing PLA polymers
  • The best printing surface for a glass finish is printing on heated glass at 72 ° C.
  • For a quick release bed, users should wipe a glass heated to 45 ° C with 50% PVA and 50% water
  • Print temperatures vary slightly with nozzle size, but the average is 238 ° C.
  • If too much is printed at too high a temperature, bubbles will appear in the printed thread, and if too cold the thread will appear cloudy

Earlier this year, TECH-G was released in a test phase where users can try it out and give Taulman feedback on its performance. After its release, Taulman sees TECH-G as a new and easier to use material for 3D printing. It offers higher tensile strength and just the right stretch for functional tests. TECH-G is FDA compliant with CFR 177.1315.

Have you had the opportunity to test this new filament? Let us know in the TECH-G forum thread on 3DPB.com.

Untitled

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RIZIUM GF filament
19 Dec
Blog

RIZE launches RIZIUM Glass Fiber composite filament » 3D Printing Media Community

The 3D printing company RIZE has expanded its material portfolio with the introduction of RIZIUM Glass Fiber (GF), a composite filament with high rigidity and good dimensional stability. The fiberglass-reinforced material is compatible with the company’s full-color 3D printing and is well suited for manufacturing large parts.

RIZIUM Glass Fiber is based on the company’s cyclic olefin-based matrix, which has been specially developed to minimize emissions. Not only does the material generate no emissions at extrusion temperatures, it also has low moisture absorption and high chemical resistance, making it suitable for a wide variety of applications. RIZIUM GF gives these properties high dimensional stability and superior strength.

The new material is compatible with all RIZE 3D printers, including systems from RIZIUM Alliance partners. Like the existing materials, RIZE’s RIZIUM GF has received GREENGUARD certification for use with the XRIZE full-color 3D composite printing system. This means it can be used safely in schools, offices, hospitals or any other enclosed space.

“Previously, full-color 3D printing applications could only provide poor approximations of the original, and users often avoided large parts or complex geometries because they could warp or tear,” said Andy Kalambi, CEO of RIZE. “We are excited to drive a renaissance in industrial manufacturing with better 3D printing materials and technologies.

“With RIZIUM Glass Fiber’s high dimensional stability and durability and GREENGUARD certification for low chemical emissions, users have the flexibility to expand the applications suitable for 3D printing. Expect more from us soon about further expansions to our RIZIUM Alliance so that all 3D printing users can work in safer, more sustainable and more adaptable environments. “

The range of materials from RIZE does not only consist of filaments. The company’s color offering is based on a twofold approach: first, RIZIUM filaments are deposited to build the geometry of the part, while RIZIUM inks are sprayed for coloring. To optimize ink adhesion, RIZE’s filaments are all developed using the Augmented Polymer Deposition (APD) process, which makes it easier to combine filament and ink.

The new RIZIUM GF is particularly well suited for building large, complex parts as it is strong enough to support geometries that would otherwise be prone to warping. “We like the printing reliability that RIZIUM Glass Fiber provides for the RIZE line of products,” said Ronnie Sherrer, application engineer at Azoth, an AM supplier to Ann Arbor. “Azoth can rely on the quality and strength of the RIZIUM GF parts. Our customers love turning 3D rendered models into precisely colored parts. “

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Evonik develops the "world’s first" PEEK filament in implant-grade quality for 3D printing
19 Dec
Blog

Evonik develops the “world’s first” PEEK filament in implant-grade high quality for 3D printing

Evonik claims it is the first company in the world to have developed a polymer filament based on polyetheretherketone (PEEK) in implant quality for use as a 3D printing material for implants.

This high-performance material can be used in FFF technology (Fused Filament Fabrication) and is intended to enable the additive manufacture of three-dimensional plastic parts for medical implants in the human body.

The new PEEK filament is based on Vestakeep i4 G, a highly viscous implant material from Evonik. The product, which has impressive biocompatibility, biostability and X-ray transparency, is easy to process and has for years established itself as a high-performance material for medical technology applications such as spinal implants, sports medicine and maxillofacial surgery.

Evonik will also offer a lower-cost version of its PEEK filament for FFF technology in test quality. The test material has exactly the same processing and mechanical product properties as the implant material – but without the documentation required for approval in applications for medical devices.

This offers a cost-effective way of adapting the processing properties of the high-performance plastic for printing processes. The natural colored filament with a diameter of 1.75 mm is wound on 500 gram spools, which are suitable for direct use in standard FFF 3D printers for PEEK materials. In the first quarter of 2019, the test quality will be followed by an implant grade of Vestakeep i4 G, which can be provided with the required extensive approval documentation.

The development of the world’s first PEEK filament expands Evonik’s existing range of polymer materials for 3D printing. The specialty chemicals company is the world’s leading manufacturer of polyamide (PA) 12 powders, which have been used in additive production technologies for over 20 years. In addition to PEEK filament and PA 12 powders, the material portfolio also includes flexible PEBA powders.

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World first: Implant-grade PEEK filament developed for 3D printing
18 Dec
Blog

World first: Implant-grade PEEK filament developed for 3D printing

The chemical company Evonik (Essen, Germany) has announced the development of a PEEK filament in implant quality for 3D printing. The material was developed for FFF (Fused Filament Fabrication) technology and is based on Vestakeep i4 G, which has long been used in spinal implants, maxillofacial surgery and in sports medicine.

Evonik also said that it will offer a more cost-effective trial version of the PEEK filament in order to offer potential customers a cost-effective way of adapting the processing properties of the high-performance plastic for printing processes. The test material has the same processing and mechanical properties as the implant material, but without the documentation required for approval in applications for medical devices.

The test quality will be followed by a Vestakeep i4 G with implant quality in the first quarter of 2019.

The natural colored filament with a diameter of 1.75 mm is wound on 500 gram spools, which are suitable for direct use in standard FFF 3D printers for PEEK materials.

In similar news, the German company Apium Additive Technologies successfully processed PEEK filaments based on Vestakeep i4 G on its Apium M220 series printer for medical applications.

The PEEK filament and M220 3D medical printers were manufactured in response to growing customer demand for end-use patient-specific devices, reports the 3D printing industry. According to the company, the new production technology means a reduction in lead times and costs for the manufacture of implants.

Apium will present these developments next week at the additive manufacturing trade fair in Frankfurt.

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ABS 3D printing filament
18 Dec
Blog

3D Printing Filament Information: ABS Filament

As the manufacturing industry is democratized by 3D printing, the technology is also being studied, researched, tested and used by people from different industries. The technology is not limited to engineers, but designers, hobbyists, and enthusiasts also use technology and building products.

As this technology is also used by numerous non-technical users, we are seeing a high failure rate and this creates a false impression of the 3D printing technology.

In this 3D Printing Filament Guide, we are going to explain how to be successful in 3D printing with the dreaded ABS filament. This will help users in 3D printing by taking the necessary precautions and will contribute to greater success in 3D printing.

What is ABS filament?

Above: ABS 3D printing filament / Photo credit: Matterhackers

ABS stands for acrylonitrile butadiene styrene, a thermoplastic polymer. Because it is thermoplastic, it can be heated to its melting point, cooled, and reheated without significant degradation. As a result, these are widely used and mainly used in the plastics industry through injection molding.

ABS is not a naturally occurring material. It is made by an emulsion process. It is also made through a patented process called continuous bulk polymerization.

Why is ABS so popular?

ABS 3D printing filamentAbove: Lego bricks are made of ABS plastic / Photo credit: Lego

ABS is widely used in many plastic applications such as dashboards, LEGO parts, computer keyboards, housings and cases, etc. The reason for such wide use lies in the fact that it has excellent mechanical properties. It is easy to work with and has a low melting point which helps in injection molding into various products. In addition, it is relatively inexpensive.

3D printing filament manual: properties of ABS filament

In this guide to the 3D printing filament, the properties of the ABS filament are now listed.

Superior mechanical properties: The ABS material is known for its high impact resistance. It is very sturdy and durable. In addition, it has high heat and chemical resistance, which makes it ideal for many industrial environments.

Easy to edit: ABS filaments are quite easy to rework. In fact, this is also one of the main reasons why ABS filaments are preferred over other materials. It can easily be glued, painted and sanded. Acetone fumes can be used to give the parts a shiny finish.

Inexpensive: ABS material is relatively inexpensive and easily available in almost all major regions of the world. The price is comparable to polypropylene (PP) and / or polycarbonate (PC).

3D Printing Filament Guide: Understanding ABS Filament

ABS is a natural choice of parts manufacturers because of its inherent properties and existing uses in various industries. ABS is therefore also used extensively in 3D printing. In addition, ABS can easily be reworked as required. This makes it an optimal material for prototyping and even for end use through 3D printing.

Careful reworking of the ABS part can achieve an even, high-gloss finish. This makes it an ideal choice for all types of prototypes. One of the well-known uses of 3D printed ABS is in housings for IoT devices.

ABS is a non-biodegradable filament that cannot be fully recycled. ABS filament is toxic, but not with 3D printing. Above 400 ° C, the material breaks down into acrylonitrile, butadiene and styrene, all of which can have carcinogenic effects on humans. Therefore, as a precaution, it is always recommended to wear appropriate masks when printing with ABS

Many manufacturers of 3D printing filaments supply ABS filaments. In India, companies like Rever Industries and Solidspace Technologies are some of the providers.

Price for ABS filament

ABS filaments generally cost between $ 15 and $ 70 per kilogram

In India, ABS filament would cost around Rs. 1000-1200 per kilogram

3D printing with ABS filament

ABS 3D printing filamentAbove: A cracked part made of ABS filament / Photo credit: Rigid.ink

While everything looks good with 3D printing, the material has a certain level of difficulty in printing. Many users experience problems with distortions, cracks, and inaccuracies. This results in people having a negative perception of the material.

First, it is important to understand that there is no common setting for all 3D printing filaments. Once we fathom this reality, we can work with different settings for different filaments and achieve excellent printing results.

ABS doesn’t print like PLA. It is far more complex than a normal PLA material. Many settings play a role in 3D printing with ABS filaments. It is recommended that users understand the possible causes of failure before switching to 3D printing ABS.

We’ll first take a look at the general pressure settings for ABS filaments.

General print settings
Printing temperature: 200 ° C to 250 ° C.
Bed temperature: 90 ° C to 110 ° C.
Printing speed: 20-30 mm / s
Attachment: Recommended

Tips for 3D printing ABS filaments

In this 3D Printing Filament Guide, we are going to share some tips about 3D printing with ABS filament.

First layer adhesion: It is important that the first layer adhere to the bed. For this purpose, the bed can be heated to approx. 100 ° C. Additionally, Kapton tape, glue, or ABS slurry can be applied to the bed surface to increase the adhesion of the print.

Use bed adhesion tools: Always use bed adhesion tools like brim and rafts from the slicer settings so that bed adhesion can be ensured throughout the duration of the print.

Use within the manufacturer’s temperature range: Always use the ABS filament within the temperature range specified by the filament manufacturer. Different manufacturers have slightly different ideal temperature settings, so it is always recommended that you follow this reference.

Closed housing: A closed housing ensures that the bed temperature is not affected and the pressure is carried out in a controlled environment. This helps in avoiding layer cracks.

Switching off the fan: Turn off the fan while printing with ABS filament. This also helps ensure a successful print.

Slow initial layer speed: Use advanced slicer settings to set slow initial layer speeds and ensure better first layer adhesion.

Keep the filament dry: Always store ABS filaments in a dry place so that they do not absorb humidity. Moisture can significantly affect the 3D printing process.

It’s important to understand that FDM 3D printing takes a lot of trial and error, and it’s always great to experiment and tweak the print settings to get better print results. This 3D Printing Filament Guide is a resource for any new learner to achieve a successful print every time.

About Manufactur3D Magazine: Manufactur3D is an online 3D printing magazine that publishes the latest 3D printing news, insights, and analysis from around the world. You can find more informative articles on our 3D printing information page.

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Global 3D Printing Filament Market
18 Dec
Blog

In-Depth Report on 3D Printing Filament Market Growth Projected to Achieve an Uptick Throughout 2020-2027

A new informative report entitled “Global 3D Printing Filament Market” was recently published in the extensive repository of Contrive Market Research. Research on 3D printing filaments around the world is often traced back to several applicable business strategies to expand the business. In addition, it provides a comparative study of the key players along with their business frameworks to understand the global competition between them. It provides a complete analysis of market strategies and how these strategic forces affect market growth. Due to the increasing demand for online platforms in companies, it offers technological advances and their effects on companies. In addition, it offers insights into changing business scenarios, historical records, and futuristic developments.

Sample Copy of Reports: https://contrivemarketresearch.com/sample_request/5615

The main actors covered in this study: Stratasys Ltd. (USA), 3D Systems Corporation (USA), Koninklijke DSM NV (Netherlands), Materialize NV (Belgium), Evonik Industries AG (Germany), Arkema SA (France), Saudi Basic Industries Corporation (SABIC) (Saudi Arabia)) , DuPont de Nemours, Inc. (USA), BASF 3D Printing Solutions GmbH (Germany), HP Inc. (USA), EOS GmbH – Elektrooptische Systeme (Germany), Shenzhen Esun Industrial Co., Ltd. (China), CRP Technology Srl (Italy), EnvisionTEC GmbH (Germany), Oxford Performance Materials, Inc. (USA) and MG Chemicals (Canada), among others

The report also describes the sales and revenue of the global 3D Printing Filament Market. It is divided into many segments, e.g. B. at regional, country level, by type, application and others. This allows for a detailed view of the market and focuses on government policies that could change the dynamics. It also evaluates companies’ research and development plans for better product innovation.

The report provides a comprehensive look at the competitive landscape of the global 3D Printing Filament Market, along with the detailed business profiles of the major market players. The analysts in the report measure threats and weaknesses to leading companies using industry-standard tools such as Porter’s Five Forces Analysis and SWOT Analysis. The 3D Printing Filaments market report covers all the key parameters such as product innovation, market strategy for leading companies, 3D printing filament market share, revenue generation, latest research and development results, and market expert perspective.

Global 3D Printing Filament Market Segmentation:

On the basis of type :, plastics by material, ABS, PLA, TPE, PA, photopolymers, others (PC, PS, PVA, PEEK, PAEK, PEKK and ULTEM), metals by material, titanium, aluminum, stainless steel, nickel , others (copper, gold, silver, bronze and cobalt chrome), ceramics, by material, glass, quartz glass, quartz, others (zirconium oxide, graphite, clay and aluminum oxide), others (wax, wood and paper)

Based on Application: Aerospace & Defense, Medicine & Dental, Automotive, Electronics, Others (Fashion, Consumer Goods, Education, Art & Sculpture, Jewelry & Architecture)

Get special discount: https://contrivemarketresearch.com/check-discount/5615

In order to determine the market needs in the global regions, an analytical survey was conducted in North America, Latin America, Africa, Europe and Asia-Pacific for a clear idea. The global market for 3D printing filaments has the highest market share in the region. The Asia Pacific region has a large population, which makes its market potential significant. It is the fastest growing and most lucrative region in the world economy. This chapter specifically explains the population impact on the global 3D Printing Filament Market. The research looks at it through a regional lens, giving readers a microscopic understanding of the changes they need to prepare for.

This research report also includes:

– Analysis of established and new market participants

-Finance Management

-Strategic planning of business resources

-Various case studies and hands-on development by C-level professionals

-Applicable tools, methods and standard operating procedures

-Global market forecast

-A detailed elaboration of market segments and sub-segments

-Various risks, challenges, threats and weaknesses in front of the market

– Approaches to discovering global opportunities, customers and potential customers.

Table of contents (TOC):

Part 1 market overview

1.1 Market definition

1.2 Market development

1.3 By type

1.4 Upon request

1.5 By region

Part 2 key companies

Part 3 Global Market Status and Future Forecast

3.1 Global Market by Regions

3.2 Global Market by Company

3.3 Global Market by Type

3.4 Global Market by Application

3.5 Global market according to forecast

Part 4 Asia-Pacific Market Status and Future Forecast

4.1 Asia-Pacific Market by Type

4.2 Asia Pacific Market by Application

4.3 Asia-Pacific Market By Geography

4.3.1 China market status and future forecast

4.3.2 Market status and future forecast for Southeast Asia

4.3.3 Market status and future forecast for India

4.3.4 Japan Market Status and Future Forecast

4.3.5 Korea market status and future forecast

4.3.6 Oceania Market Status and Future Forecast

4.4 Asia-Pacific market according to forecast

Part 5 Market Status and Future Forecast for Europe

5.1 European market by type

5.2 European market according to application

5.3 European market by geography

5.3.1 Germany market status and future forecast

5.3.2 Market status and future forecast for Great Britain

5.3.3 Market status and future forecast for France

5.3.4 Italy market status and future forecast

5.3.5 Russia market status and future forecast

5.3.6 Spain market status and future forecast

5.3.6 Dutch market status and future forecast

5.3.7 Turkey’s market status and future forecast

5.3.6 Swiss market status and future forecast

5.4 European market according to forecast

Part 6 North America Market Status and Future Prospects

6.1 North America Market by Type

6.2 North American Market by Application

6.3 North American Market by Regions

6.3.1 US Market Status and Future Prospects

6.3.2 Canadian Market Status and Future Prospects

6.3.3 Market Status in Mexico and Future Prospects

6.4 North American market according to forecast

Part 7. South American Market Status and Future Prospects

7.1 South American Market by Type

7.2 South American Market by Application

7.3 South American market

7.3.1 Market Status and Future Prospects for Brazil

7.3.2 Argentina’s market status and future prospects

7.3.3 Columbia Market Status and Future Forecast

7.3.4 Market Status and Future Prospects in Chile

7.3.5 Market Status in Peru and Future Prospects

7.4 South American market forecast

Part 8 Middle East and Africa market status and future prospects

8.1 Middle East and Africa Market by Type

8.2 Middle East and Africa Market By Application

8.3 Middle East and Africa Markets by Region

8.3.1 GCC Market Status and Future Prospects

8.3.2 Market Status and Future Prospects for North Africa

8.3.3 Market status and future forecast for South Africa

8.4 Middle East and Africa Market Forecasts

Part 9 market characteristics

9.1 Product features

9.2 Price features

9.3 Channel functions

9.4 Purchasing functions

Part 10 investment opportunity

10.1 Regional investment opportunity

10.2 Investment Opportunity for Industry

Part 11 conclusion

2020 by product segment, technology, application, end-user, future opportunities and region by 2027

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