Thermwood Corporation is pleased to announce the appointment and promotion of Jennifer Watt as its Chief Legal Officer, Secretary and Vice President. In this role, Ms. Watt has oversight of all legal aspects of the company and its corporate governance.  Jennifer previously served as Vice President and General Counsel for the company.  Prior to joining Thermwood, Jennifer was an Associate with the Indianapolis based law firm of Kroger, Gardis & Regas and the Chicago based law firm of Leo & Weber. 

Jennifer earned her J.D. degree from the Chicago-Kent College of Law and a Bachelor of Science in Business from the Indiana University Kelley School of Business.  She is a licensed member of the Indiana and Illinois Bar Associations. 

About Thermwood Corporation

Thermwood is a US based, multinational, diversified CNC machinery manufacturer that markets its products and services through offices in 11 countries. Thermwood is the oldest manufacturer of highly flexible 3 & 5 axis high-speed machining centers known as CNC routers.

Thermwood has also become the technology and market leader in large scale additive manufacturing systems for thermoplastic composite molds, tooling, patterns and parts with its line of LSAM (Large Scale Additive Manufacturing) machines that both 3D print and trim on the same machine. These are some of the largest and most capable additive manufacturing systems ever produced and are marketed to major companies in the aerospace, marine, automotive and foundry industries as well as military, government and defense contractors.

Thermwood, who has been producing CNC routers longer than anyone else, is now celebrating its 50^th anniversary. It is also experiencing unprecedented growth. 

Much of this growth is attributed to the success of its new large scale additive manufacturing systems. Called LSAM (L-Sam), these are industrial sized 3D printers, some capable of printing composite parts up to forty feet long and weighing several tons. These machines are currently producing large composite structures from the chassis of an autonomous urban bus to tooling for the production of the interior of modern jet aircraft. 

These systems are transforming the company, resulting in structural management changes and new advancement opportunities.  

Thermwood Appoints Jason Susnjara as Executive Vice President

We are pleased to announce the promotion of Jason Susnjara to Executive Vice President. Jason has been with Thermwood since 1995 and has held numerous positions, most recently as Vice President of Marketing.  He is also on Thermwood’s board of directors.

In this new position he will oversee and manage Thermwood’s technology, engineering, manufacturing and marketing operations. Thermwood operates a complex manufacturing operation, building some of the most technically sophisticated industrial products built today. In his new position Jason will manage the operation and expansion of these activities to support ongoing growth.

Jason resides in southern Indiana with his wife April and their three children. 

Thermwood Appoints Brian Smiddy as Vice President of Product Development

We are pleased to announce the promotion of Brian Smiddy to Vice President of Product Development.  He has been with Thermwood since 1995 and has managed the engineering department over the past 17 years.

In this new position, Brian will be responsible for new technology development and incorporation of that technology into Thermwood’s product line and production processes. In the past three years Brian has assisted in activities that have generated over 50 patents on new technical developments. In his new position, he will be able to focus more directly on these vital activities.

Brian resides in southern Indiana with his wife Michanne and daughter. 

Thermwood Appoints Larry Epplin as Vice President of Software Development

We are pleased to announce the promotion of Larry Epplin to Vice President of Software Development.  He has been with Thermwood since 2000 developing and managing the Company’s cabinet design software products. 

In this new position, Larry will manage the development of Thermwood’s software product line, including integrating a type of artificial intelligence into Thermwood’s CNC control so that cabinet makers can produce and almost unlimited number of products without needing a CNC programmer. He will also oversee continued development of Thermwood’s industry leading industrial 3D printing software and manage a network of thousands of cabinet shops currently using Thermwood software to design their products and run their shops.

Larry resides in southern Indiana with his wife Kristi.

Thermwood Promotes Duane Marrett to Vice President of Marketing

We are pleased to announce the promotion of Duane Marrett to Vice President of Marketing.  Duane’s career at Thermwood began in 1998 in the engineering department as a technical writer. He has held positions with ever increasing responsibility in various marketing functions. In his most recent position, he developed and managed the company web site, interacted with traditional and social media along with creating promotional videos, issuing product releases and conducting market analytics for the company. 

In Duane’s new position, he will manage Thermwood’s overall marketing function including development and execution of trade show exhibitions around the world and overall management of company functions.

Duane resides in southern Indiana with his wife Carrie and son.

Thermwood Promotes John Fuquay to Manager of Engineering

We are also pleased to announce the promotion of John Fuquay to the Manager of Engineering.  He has been with Thermwood since 2003 in engineering, designing products and providing documentation for production.

In his new position John will manage the engineering department, implementing new product designs, maintaining the extensive engineering database and providing engineering support to manufacturing.

John resides in southern Indiana with his wife Rachael and their two sons.

About Thermwood Corporation

Thermwood is a US based, multinational, diversified CNC machinery manufacturer that markets its products and services through offices in 11 countries. Thermwood is the oldest manufacturer of highly flexible 3 & 5 axis high-speed machining centers known as CNC routers.

Thermwood has also become the technology and market leader in large scale additive manufacturing systems for thermoplastic composite molds, tooling, patterns and parts with its line of LSAM (Large Scale Additive Manufacturing) machines that both 3D print and trim on the same machine. These are some of the largest and most capable additive manufacturing systems ever produced and are marketed to major companies in the aerospace, marine, automotive and foundry industries as well as military, government and defense contractors.

At its 50^th Anniversary Gala Open House, Thermwood introduced and demonstrated an all new LSAM additive manufacturing machine model, offering even more choices for large scale additive manufacturing applications. Called LSAM MT, the new machine offers an all new configuration and significant advantages in certain applications.

Crowds watch the LSAM MT demonstration at the Thermwood 50th Anniversary Gala Open House

Video

Please click below to see a video of the LSAM MT in action!

The Details

Unlike standard LSAM systems, which feature dual gantries operating over a large fixed table, the MT (which stands for “Moving Table”) features a single fixed gantry mounted over a moving table. Available with a 10x10 foot table, this configuration offers several significant advantages, not the least of which is a dramatically lower price.

Despite the lower price, the LSAM MT is still a massive, robust industrial production machine capable of reliable, day in and day out production. Unlike standard LSAM systems, the MT can be configured as a “Print Only” machine. The logic for this is simple.

Despite the lower price, the LSAM MT is still a massive, robust industrial production machine

New Options

Near net shape printed tools dramatically reduce machining time for many companies currently machining tools from solid blocks of material. This frees up significant machining capacity which is already purchased and installed. For these companies, it makes no sense to purchase additional machining capacity with their additive system, since the change to additive frees up more than enough existing capacity to handle everything they can print. With this in mind, Thermwood decided to offer both “Print and Trim” and a “Print Only” versions of the MT.

The MT is available with a 10 foot by 10 foot table. The 10 x 10 machine actually has a 10 x 12 foot table with a 10 x 10 working area. The extra 2 foot is used to mount an optional Vertical Layer Print table. The 10 x 10 foot MT can be equipped with a new version of Thermwood’s patented Vertical Layer Printing technology. This means that it can make parts up to 10'x10' by 5 foot high using traditional Horizontal Layer Printing or, 5'x10' by 10 foot high using Vertical Layer Printing.

Since the print technology and print heads used on the MT are the same as used on the larger machines it offers the same throughput, print quality and layer to layer fusion that has made LSAM the leader in large scale additive manufacturing. As with the larger systems, the MT can process high temperature polymers which are ideal for autoclave capable tooling or compression molds for thermoset materials.

The large demonstration part printed at the open house is one of twenty similar parts which when combined become a production mold for a large yacht hull

With the same print technology as used on the larger LSAM machines, the MT offers the same throughput, print quality and layer to layer fusion that has made LSAM the leader in large scale additive manufacturing

The LSAM MT is the ideal additive machine for a variety of exciting new applications

Things to Consider

With the addition of the MT, selecting the best size and configuration for an LSAM may not be quite as straightforward as it first appears. It depends on two major factors plus some additional considerations. The major factors are the material being printed and the size of the parts needed. Of these two, the material being printed is the most significant.

Thermwood offers a full line of LSAM sizes to fit almost any application

For purposes of machine selection, reinforced thermoplastic composite materials for room temperature or low temperature applications such as foundry patterns, boat plugs, boat and yacht molds, building structures and the like can generally be bonded securely with a variety of industrial adhesives. For these type of parts, even for really large parts, the smaller less expensive machine may be a better choice. The part can be separated into sections which can be printed individually and bonded into the final, potentially extremely large structure.

Although it seems counter-intuitive, this approach can be faster than printing the large structure as a single piece on a larger, more expensive machine. To better understand this we turn to the basics of the print process. Additive manufactured parts are printed in layers. The speed at which a layer can be printed depends primarily on how long it takes for the polymer being printed to cool enough to support the next layer. This layer cooling time depends on the polymer and is not affected by the size of the part. Each layer of a particular polymer takes the same amount of time, regardless of how big it is.

LSAM print heads can print faster, sometimes significantly faster than needed for most parts. Often it can print two three or more parts in the cooling time required for each layer. The large machine is only printing a single part, one layer at a time, making it two or three time slower. To print the part in one piece, the large machine must operate continuously, around the clock, sometimes for days.  This is not a problem for factories that operate on all three shifts but can present staffing problems for single shift operations. With the MT, several different segments of the same part can often be printed in a single shift. Depending on the item being printed, it is possible to print as much in a single shift as the large machine, printing a single part, can do in 24 hours.

For large parts made from bondable materials, often the smaller, less expensive machine is a better choice.

Materials intended for high temperature applications, PSU, PESU, PEI, Ultem, etc. generally are resistant enough to solvents that they can’t be effectively bonded. Even if they could, few if any, adhesives exist that can withstand the operating temperature or the thermal cycling these materials experience. For these applications, the machine needs to be large enough to print the part in one piece, even though it could be slower. This is where larger machine configurations are needed. The larger machines also offer the ability to print and trim at the same time, which may be beneficial in some circumstances.

Since the print heads are the same on all Thermwood LSAMs, the smaller MT can be used for these high temperature parts, provided they fit in the available envelope.

Just like the standard LSAMs, the MT comes complete, fully engineered with everything needed for production operation. 

About Thermwood Corporation

Thermwood is a US based, multinational, diversified CNC machinery manufacturer that markets its products and services through offices in 11 countries. Thermwood is the oldest manufacturer of highly flexible 3 & 5 axis high-speed machining centers known as CNC routers.

Thermwood has also become the technology and market leader in large scale additive manufacturing systems for thermoplastic composite molds, tooling, patterns and parts with its line of LSAM (Large Scale Additive Manufacturing) machines that both 3D print and trim on the same machine. These are some of the largest and most capable additive manufacturing systems ever produced and are marketed to major companies in the aerospace, marine, automotive and foundry industries as well as military, government and defense contractors.

Thermwood and Purdue’s Composite Manufacturing & Simulation Center have been working together to develop and test methods of using 3D printed composite molds for the compression molding of thermoset parts. They have just announced that they have successfully been able to compression mold test parts using 3D printed composite tooling.

The test part, a half scale thrust reverser blocker door for a jet engine, was designed at Purdue and is approximately 10x13x2 inch in size. The two-part matched compression mold for the part was 3D printed using Techmer PM 25% carbon fiber reinforced PESU at Thermwood, using its LSAM large scale additive manufacturing system.

The mold halves were then machined to final size and shape on the same system. The completed tool was next taken to Purdue’s Composite Manufacturing & Simulation Center, in West Lafayette Indiana, where it was mounted to their 250 ton compression press. Parts were then molded from Dow’s new Vorafuse prepreg platelet material system with over 50% carbon fiber volume fraction.

The Details

Both halves of the mold were printed at the same time during a single 2 hour and 34 minute print cycle. When using Thermwood’s “continuous cooling” print process, the polymer cooling determines the cycle time for each layer, allowing both halves to be printed in the same time it would take to print one half (since both parts could be printed in the layer cooling time available).

Both halves of the mold were printed in less than 3 hours

Machining, however, must be done in the traditional manner, one part at a time, although there is an advantage to machining printed parts. Since the part is printed to near net shape, the overall amount of material that must be removed is significantly less than if the tool was machined from a solid block. Machining of the two mold halves required an additional 27 hours.

The first attempt at compression molding was not successful, but techniques were developed to account for the mechanical and thermal conductivity characteristics of the polymer print material and a second attempt produced acceptable parts.

The team determined that using printed composite molds in a compression press does require a significantly different approach than a tool for the same part machined from a block of metal. First, the tool must be internally heated since the polymer composite doesn’t transmit heat as well as metal. Thermwood developed a technique for deep hole boring of the printed composite part using the trim head on its LSAM machine, allowing the deep insertion of cartridge heaters.

A special heat control allows the temperature of various areas of the tool to be controlled independently, helping address the challenge of balancing the thermal characteristics of the thermoplastic composite mold with the processing temperature requirements of the thermoset material being processed.

Printed polymer composite mold must be heated and reinforced

Printed polymer composite mold must be heated and reinforced

Also, the outside of the mold must be reinforced so that the composite polymer used for the mold itself is under only compression loads and not tension during the molding operation, since forces developed during molding are greater than the tensile strength of the composite polymers used for the mold. This approach has successfully withstood molding pressure of 1,500 PSI during initial testing and the team believes even higher pressures are possible.

Parts were made on Purdue’s 250 ton compression press

Parts were made on Purdue’s 250 ton compression press

Parts were made on Purdue’s 250 ton compression press

Final Thoughts

Both Thermwood and Purdue believe this is an important first step in bringing additive manufacturing to compression molding. The speed and relatively low cost of printed compression tools has the potential to significantly modify current industry practices. Printed tools are ideal for prototyping and can potentially avoid problems with long lead time, expensive production tools by validating the design before a final version is built.

Additional development effort will be needed to further refine tool design and broaden the range of parts that this process will support, but all parties involved believe that this project demonstrates the viability of the basic approach.

Potential applications in the auto industry include prototyping and production tool verification. Because of high volume requirements for auto production, it is unlikely that these tools would function adequately for full production use, but actual useful production life is still unknown. It will require additional testing to determine just how many parts can be molded from an additive manufactured compression mold and what the ultimate failure mode actually is.

In aerospace, parts tend to be much larger and production volumes much lower, so it is possible that printed compression molds could find actual production use for larger, lower volume aerospace components, perhaps replacing open face tools and autoclaves for certain parts.

The relatively low cost and fast build rate of these additive molds significantly alters the decision matrix and timeline for developing new products using compression molding.

Purdue’s Composites Manufacturing & Simulation Center

The Composites Manufacturing & Simulation Center (CMSC) is a bridge between the academic and industrial communities, connecting the global composites industry and Indiana manufacturing to Purdue University.  The CMSC research is driven by industry needs and grounded in academic rigor.  Global sponsors and partners include aerospace and automotive OEMs, Tier 1 and 2 suppliers, materials suppliers, wind turbine manufacturers, and commercial software providers.  The CMSC is a collaboration of the College of Engineering and the Purdue Polytechnic Institute and is a Purdue University Center of Excellence.

State-of-the-art manufacturing and characterization facilities provide a one-stop-shop for composites design, manufacturing, prototyping and model validation.  Finally, the CMSC is dedicated to training engineers across the entire composites community in composites manufacturing and simulation.

Thermwood Corporation

Thermwood is a US based, multinational, diversified CNC machinery manufacturer that markets its products and services through offices in 11 countries. Thermwood is the oldest manufacturer of highly flexible 3 & 5 axis high-speed machining centers known as CNC routers.

Thermwood has also become the technology and market leader in large scale additive manufacturing systems for thermoplastic composite molds, tooling, patterns and parts with its line of LSAM (Large Scale Additive Manufacturing) machines that both 3D print and trim on the same machine. These are some of the largest and most capable additive manufacturing systems ever produced and are marketed to major companies in the aerospace, marine, automotive and foundry industries as well as military, government and defense contractors.

10’ x 20’ LSAM (Large Scale Additive Manufacturing)

At the recent AWFS show, Thermwood announced exciting new features for its Cut Ready systems. Called “Combination Cabinets” this creates a single structure comprised of multiple cabinets, and like all Cut Ready products it all happens with no CNC programming, making the Cut Ready Cut Center even more valuable.

But, what about all the folks who already have Cut Centers who don’t have this feature? The good news is that with the next free system update, they also get all the new features (even though they didn’t exist when the machine was bought new).

Cut Centers don’t go obsolete, they become more valuable over time.

This latest update features the addition of Combination Cabinets, dovetail drawer box updates and the ability to generate a dimensional listing of all face frame parts.  No matter if your Cut Ready/Cut Center is brand new or was the first one delivered, this will update your machine to the latest features available for you to use, and it’s free.

New Combination Cabinets Feature Added

One of the most important time and material cost saving features ever released – Combination Cabinets – allows you to easily create large kitchen cabinets with multiple sections.  This feature reduces your machine time by 25 to 35 percent and your part count by 50 percent or higher, all without the need for a programmer or expensive design software.

By customizing the size and style of each opening, you can now create endless combinations for both frameless & face frame kitchen cabinets.  Choose from many different options for these sections from one or two doors, with/without drawers, false fronts, open sections, slotted areas for storage along with numerous other variations.

Check Out The Video!

Drawer Box Joint Improvements

Cut Ready’s dovetail drawer box application has been refined to provide our users with the highest precision fit and accuracy possible for dovetail construction. 

Generate a Face Frame Part Dimensional Listing

Cut Ready now has the ability to generate a dimensional listing of all face frame parts. This provides both length and width of all parts in an easy to read listing.

What Some of Our Cut Center Owners Are Saying...

The United States Air Force Research Laboratory (AFRL) Manufacturing and Industrial Technology Division (ManTech) is interested in large scale polymer-based additively manufactured (AM) composite cure tooling. Boeing submitted an idea to ManTech’s Open BAA to evaluate the current state of additive manufacturing technology with respect to the fabrication of low cost autoclave capable tools for the production of composite aerospace components. The initial demo tool is for an AFRL concept aircraft fuselage skin (Figure 1). Boeing contracted Thermwood to demonstrate capability of their Large Scale Additive Manufacturing (LSAM) machine.  

Figure 1: Air Force Research Laboratory Conceptual Aircraft & Full-Scale Tool

Please click below for video

The Thermwood LSAM machine offers an innovative additive manufacturing machine capability with its Vertical Layer Printing (VLP). The vertical layer printing AM process provides a significant cost benefit by increasing the size components can be printed, thus reducing assembly cost for large tools. To validate the VLP process using high temperature autoclave-capable materials, Boeing and AFRL chose to 3D print a section of the large tool to evaluate the LSAM functionality. The Mid-Scale tool was printed on Thermwood’s LSAM  Additive Manufacturing Demonstration machine in Southern Indiana using a 40mm print core running 25% carbon fiber reinforced Polyethersulfone (PESU).

More Information on LSAM

LSAM is based on exciting new technology developed from an entirely new direction.

LSAM is intended for industrial production. It is not a lab, evaluation or demonstration machine, but is instead a full-fledged industrial additive manufacturing system intended for the production of large scale components.

Thermwood has already applied for 19 separate patents on various aspects of this new technology (several have already been granted and more will be coming as development continues). LSAM is truly “state of the art” in this exciting new world of Large Scale Additive Manufacturing. 

The Secret to LSAM Print Quality...A Different Process

Santa Ana, CA - July 2019 – Ascent Aerospace, a leading provider of aerospace tooling systems, factory automation and integration solutions, is excited to announce its recent investment of a Large Scale Additive Manufacturing (LSAM) machine from Thermwood Corporation, a technology leader and manufacturer of CNC and 3D printing equipment based in Dale, IN.

With a 10’ x 40’ fabrication area, Ascent’s LSAM machine will be the largest available in the aerospace market, allowing for both the printing and machining of a wide range of thermoplastic composite materials.

The use of 3D printing in the aerospace tooling sector has continued to mature over the last several years and is accelerating in usage; with this, Ascent Aerospace plans to answer the industry's call and take additive technology to a new level by leveraging its deep expertise in tooling to commercialize production ready additive solutions. As a new tooling option for its customers, Ascent intends to utilize the LSAM machine to bring tools such as layup molds, masters, trimming/drilling fixtures and vacuum holding fixtures to market faster than ever before. The LSAM machine will be co-located with Ascent's composite tooling shop, autoclave and clean room in Santa Ana, California, and will allow Ascent to build targeted tools lighter and more efficiently, providing time and cost savings to its global customers.

The LSAM machine will have an industry leading build area, providing aerospace customers the opportunity to benefit from large-scale printed composite tooling. By combining this technology with Ascent's in-house tooling expertise and heritage engineering, it will be possible to fabricate and deliver fully functional select fixtures and molds with significantly reduced lead-times of a traditional metallic tool. The wide variety of materials that are compatible with the LSAM, such as ABS, Polycarbonate, Nylon, and PESU resins with reinforcing compounds, will further expand the selection of tooling solutions that Ascent will bring to the market. 

Michael Mahfet, the CEO of Ascent Aerospace, stated, "Our investment in the LSAM represents the next milestone in Ascent's multi-year technology roadmap and realization of expansive efforts studying the benefits of additive manufacturing within the aerospace tooling market. This capability positions us to remain the leader in new and innovative tooling solutions, supporting strong collaboration with our customers and supplementing our in-house, vertically integrated design and fabrication capabilities."

Ascent Aerospace is committed to challenging the industry norms, improving manufacturing processes and providing customers with the best solutions to meet their demands.

About Ascent Aerospace

Ascent Aerospace is a world renowned, single-source provider of production and automated assembly systems for the aerospace and defense industry. As the largest tooling group in the industry, Ascent produces a full suite of both mold and assembly tooling required for the aerospace manufacturing market, including the largest Invar molds ever made for aerospace.  As an automation provider and production system integrator, Ascent works with customers to develop their project and see it through from process engineering, to build and installation to ensure it is an efficient and cost effective solution. Visit www.ascentaerospace.com for more information.

More Information on LSAM

LSAM is based on exciting new technology developed from an entirely new direction.

LSAM is intended for industrial production. It is not a lab, evaluation or demonstration machine, but is instead a full-fledged industrial additive manufacturing system intended for the production of large scale components.

Much of the technology used in Thermwood’s LSAM machines and print process is completely new. Thermwood has already received numerous patents on these revolutionary developments and many more are in the works. In addition to the projects already announced, many other exciting results that LSAM has already achieved are covered by non-disclosure agreements and must be kept secret. LSAM is truly state-of-the-art in the exciting new world of large scale additive manufacturing.

The Secret to LSAM Print Quality...A Different Process

Thermwood is proud to announce Audrey Jones and Mackenzie Tullis as our scholarship recipients for the Class of 2019.  Each will receive a $2,000 renewable scholarship.  Since the introduction of these renewable scholarships, Thermwood has awarded over $200,000 to students wishing to further their education. 

Audrey Jones is the daughter of Amie and Carl Jones of Ferdinand, IN.  She is a graduate of Forest Park High School. She has been involved in Community Impact, Student Council 9^th and 10^th grade, Key Club, 4H, and Golf. 

While at Forest Park she has received most improved Sophomore in Band, State Runner Up in Band, and MVP in Golf for 2 years. 

This fall Audrey will be attending IUPUI to study Clinical Lab Science.

.

Mackenzie Tullis is the daughter of Mark and Melanie Tullis of Lincoln City, IN. She is a graduate of Heritage Hills High School.  She has been a member of Patriot Vibe. 

Mackenzie will be studying Dental Hygiene at the University of Southern Indiana.

Thermwood would like to congratulate all seniors of the Class of 2019 and wish them the very best in their future studies and endeavors! 

Dimensional Innovations now has Kansas City’s biggest 3-D printer

Overland Park-based Dimensional Innovations unveiled its newest piece of equipment, a $2.2 million 3-D printer and five-axis router that can make items 10 feet wide, 20 feet long and 5 feet high.

Produced by Thermwood, the equipment is known as a Large Scale Additive Manufacturing (LSAM) machine. It can produce huge components from reinforced thermoplastic composite materials. It’s the only one of its kind in the Kansas City area and one of only a handful currently in use in the U.S.

“Within the design, architecture and construction space, we’re not aware of anyone else who has this capability,” Dimensional Innovations CEO Tucker Trotter said. “There is not really someone else we can look to for examples on how to use this equipment, so we’re going to have to define that. It puts pressure on our team because there aren’t answers yet, but it also opens up incredible opportunities.”

Trotter said the purchase of the LSAM was driven by a secret project DI isn't allowed to discuss at this time, for production of a large-scale, iconic element. It had limitations on weight, needed to be prefabricated so it could be assembled in the field, had to be strong enough to meet wind load and had fire-proofing requirements.

“I went into the discussion for this project thinking it was really not a good fit for us,” Trotter said. “I couldn’t see how we could do it. But the culture at DI is so cool that we had people here who didn’t take no for an answer and spoke up saying they thought we could do it and here’s how. It started as a crazy idea, but now that we’ve got this equipment, I think it’s really going to advance who we are and how we’re seen by a lot of people.”

The company's growth made the addition possible. DI's business had outgrown its headquarters at 3421 Merriam Drive in Overland Park, so it moved the sign fabrication business to a new shop at 15500 W. 108th St. in Lenexa. That created room at the headquarters, allowing the company to buy the LSAM. It also is allowing DI to start building out about 50 new offices inside the headquarters, creating room to hire more designers and sales people.

DI has also been expanding into other cities, opening offices in Atlanta, Minneapolis and, most recently, Los Angeles.

“The smaller satellite offices have been low risk, and they’ve been very successful,” Trotter said. “We like that and will continue to do that. It puts our people and brainpower closer to projects.”

It also helps the company attract more talent, which in turn leads to more work.

About Dimensional Innovations

Dimensional Innovations - Dimensional Innovations is an award-winning, multi-disciplinary firm that creates dynamic, engaging and interactive solutions that bring brands to life.  DI helps businesses develop exceptional brand experiences to captivate and engage their target market. Works with clients that include 50,000 seat stadiums and history museums to create experiences customers will love. Focuses on the sports, corporate, student life and entertainment industries.

More Information on LSAM

LSAM is based on exciting new technology developed from an entirely new direction.

LSAM is intended for industrial production. It is not a lab, evaluation or demonstration machine, but is instead a full-fledged industrial additive manufacturing system intended for the production of large scale components.

Much of the technology used in Thermwood’s LSAM machines and print process is completely new. Thermwood has already received numerous patents on these revolutionary developments and many more are in the works. In addition to the projects already announced, many other exciting results that LSAM has already achieved are covered by non-disclosure agreements and must be kept secret. LSAM is truly state-of-the-art in the exciting new world of large scale additive manufacturing.

The Secret to LSAM Print Quality...A Different Process