Skip Navigation
Return to Layout View | Home | A-Z Directory | my UMaine | MaineStreet | Campus Map | Calendar
Follow UMaine on Twitter | Join UMaine on Facebook | Watch UMaine on YouTube | Admissions | Parents & Family | Apply | Give Now | Emergency

The Advanced Manufacturing Center


Site Navigation:


Ecoshel Smart Shingle Assembly System

Who:

Bryan Kirkey, Owner of Ecoshel | John Belding, Director of the AMC | Dana Hodgkin, Owner of Progress Engineering

What:

Ecoshel is a company that produces cedar siding panels that utilize a unique, patented installation system that minimizes installation effort, waste, extra weight and materials, and extends shingle life.  Ecoshel’s owner, Brian Kirkey, wanted to move his company to the state of Maine to be closer to the supply of premium wood. Brian sought out the Maine Technology Institute for help and they referred him to the Advanced Manufacturing Center (AMC). Bryan met with the AMC staff and engineering student interns and discussed his plans and outlined what he wanted to accomplish; a state of the art manufacturing facility for his product in the State of Maine. The AMC’s capacity to support Ecoshel with innovative Engineering and Manufacturing services was instrumental in Bryan’s decision to move his manufacturing facility to the state. During a recent interview Bryan stated “(he) would have never come to the state if it weren’t for the AMC development facility here”. The AMC was tasked with the job of designing, building, and commissioning the prototype manufacturing assembly system which included custom turnkey equipment combined with existing technologies. The AMC sought out private industry partners like Dana Hodgkin, owner of Progress Engineering for additional system integration and controls support. Working with Ecoshel and Progress Engineering the AMC was able to develop a novel automated solution that can scan, optimize, and cut the raw lumber to produce a shingle every second with the specialized features unique to Ecoshel’s system. Once the shingles are made they are then assembled in to Ecoshel’s patented panels.

Where:

Development, design, manufacturing, and testing took place at the Advanced Manufacturing Center on the University of Maine campus.

When:

Project completed on 6/27/14

How:

The AMC staff and engineering student interns worked with the client and suppliers by first building a 3D computer model of the entire assembly system layout, integrating standard wood industry equipment, and scanning technology from Progress Engineering.  The AMC staff and engineering student interns then focused on developing the new mechanical systems that were unique to the Ecoshell system and was able to create custom machinery and control cabinets. A, efficient punch machine was developed to notch the cedar panels without damaging them and modular ergonomic assembly pallets were developed so the shingles can be assembled together quickly and easily. The AMC had to meet strict production requirements involving accuracy and minimum rates of production. Upon completion of the project, the equipment will be shipped to Ashland, Maine where it will ultimately be operating in a brand new facility, built specifically for Ecoshel product production.

 

Why:

The Ecoshel project has stimulated the Maine economy, created over 11 new jobs and given even more invaluable experience to University of Maine Engineering students.

Press:

This project was featured in the Bangor Daily News, Fox Bangor News, and WABI TV 5.

For More Information:

Visit Ecoshel.com

Image Description: Ecoshel Logo

Image Description: Ecoshel Assembly Diagram (Black)

Image Description: 10 - Proceeds to Final Assembly

Image Description: 7 - Different sized panel hoppers seperate panels

Image Description: 6 - Trims edges to make straight (2)

Image Description: 4 - Aligns Boards

Portable Ice Core Sampling Tool

The AMC has worked with the Department of Earth and Climate Sciences and the Climate Change Institute to design a small, portable and efficient ice core extraction tool. The new drill offers a high level of portability and is designed to extract 50 cm samples that are 2 inches in diameter. The AMC was able to apply the knowledge from the Climate Change Institute to the geometry of the drill to ensure the absolute greatest level of efficiency. In addition, it was designed to have removable cutting blades to reduce costs and increase the life span of the drill. During the summer of 2014, the drill will be used to investigate the microstructure (size, shape and orientation of grains) of glacial ice. This is important because glaciers have a major potential to cause global sea level rise, and we still do not know all the reasons why glaciers will suddenly speed up or how large calving events (when large chunks of the glacier fracture and fall into the ocean) are initiated.

 

Image Description: Chipmunk Drill CAD

Image Description: Chipmunk Drill Product

Candy Manufacturing System

  

 

When an entrepreneur came to the AMC and needed help developing a manufacturing process for a unique type of candy necklace, we were happy to help. This candy necklace was previously being made by hand, which took over half an hour to produce only one. After using the work station the AMC developed, one candy necklace could be made in about two minutes which increased productivity by 15x.  Do you have a sweet idea like this one but need help making it a reality? Contact the AMC at amc@maine.edu today and find out what we can do for you!

 

Image Description: IMG_1430

Image Description: IMG_1187

Image Description: 2

Image Description: IMG_1436

Retrofit Compressor Heads developed at the AMC

High Performance Compressor Heads

 

 

These refrigeration compressor heads are an integral part of a proprietary retrofit system that is designed to increase refrigeration cycle capacity and decrease compressor load, reducing the power draw of the system by 30%.  By providing more work at less cost for systems already in the field, this client will be able to reach a larger market than new, more complex, and more expensive replacement systems will.

Image Description:

Image Description:

Image Description:

Image Description:

DeepCWind 1:50 Scale Wind Blade Mold designed and manufactured at AMC

1:50th Scale Wind Blade Mold

 

 

The AMC worked with the Advanced Structures and Composites Center,  to develop and manufacture this aluminum mold.  The blade profile is 48 inches long and has over 14 degrees of twist along it’s axis.  The mold withstands over 21,000 lbs of internal forces from an inflatable bladder that forms the composite material into a hollow blade.

 

Image Description:

Image Description:

Image Description:

Image Description:

Forged Composite Safety Shoe Inserts developed at the AMC

Composite Toe Cap Development

 

 

Falcon Performance Footwear partnered with the AMC and the AEWC to develop a composite toe cap for military, fire, and police boot applications.  This high-tech protective insert is a fraction of the weight of traditional steel toe caps and meets all of the same ASTM safety requirements.  This toe cap will be produced here in Maine and will create a new market for Falcon.

Image Description:

Image Description:

Image Description:

Image Description:

Gemini Canvas increases productivity by 60% with AMC

Crimping Station for Stainless Tubing

 

 

Gemini Marine Products commissioned the AMC to design and manufacture a tube crimping station for connecting stainless tubing to their patended hinge system for Marine awnings and shades.  This crimping system replaces a manufacturing process that involved drilling out each piece and fasting with roll pins.  The result was a 60% increase in productivity for the production line.

 

Image Description:

Image Description:

Image Description:

Image Description:

AMC works with O’Brien Medical to design and build new Medical Instrument

Electronic Tuning Fork

 

 

O’Brien Medical partnered with The Maine Technology Institute (MTI) and the AMC to develop a modern testing device for diabetic peripheral neuropathy, or damaged or deteriorating nerves in the feet of diabetics.  The condition all too often can lead to foot ulcers and eventual foot amputation.  The current practice of using tuning forks is subjective leaves too much room for human error.  This device will eliminate the guesswork, and produce consistent results from user to user.

Image Description: ETF Electrical Chassis

Image Description: ETF In Hand

Image Description: ETF Powered On

Image Description: ETF Actuator

AMC Helps EKLIPSE, LLC Bring product to market

EKLIPSE Clips

     

 

EKLIPSE, LLC contacted the Advanced Manufacturing Center to aid in refining the design of a new type of clothespin targeted towards the American and European markets.  This clothespin will be more ergonomic, robust, and easy to use and care for than traditional spring based wooden and plastic clothespins commonly used today.  EKLIPSE received assistance from the AMC in collaboration with private vendors in developing a 3D model, FEA simulations of performance, recommendations in initial base materials, and finally transferring this knowledge to industry for tooling and injection molding of the product.

Image Description:

Image Description:


Sidebar


Contact Information

The Advanced Manufacturing Center
5796 AMC Building
Orono, ME 04469
Phone: 207-581-2756 | Fax: 207-581-2725E-mail: amc@maine.edu
The University of Maine
Orono, Maine 04469
207.581.1110
A Member of the University of Maine System