The demand in aerospace manufacturing for brazing technology is likely to increase as the alloys developed and manufactured through the process are used for more applications — from turbine blades to rocket nozzles to hydraulic assemblies.
“Brazing is used just about everywhere—it’s difficult to classify.” ~ Ed Arata, brazing engineer, Morgan Advanced Materials
Brazing may be difficult to classify, but the process can be explained, and its subsequent value to aerospace design and manufacturing groups is explored in this Best of the Web article from MRO-Network.com
David B. Burritt, President and Chief Executive Officer
A leading integrated steel producer headquartered in Pittsburgh, Pennsylvania, recently announced it will restart its pipe ill based in Lone Star, Texas.
U.S. Steel Corporation’s No. 1 Electric-Weld Pipe Mill at Lone Star Tubular Operations was permanently idled in 2016 due to challenging market conditions for tubular products created by fluctuating oil prices, reduced rig counts, and high levels of unfairly traded imports. With this restart, the Lone Star No. 1 Mill will provide full-body normalized electric-welded pipe in size ranges 7 inches to 16 inches outside diameter for customers across the U. S., including the very active Permian Basin.
“We are encouraged by an improvement in market conditions and an increased customer demand for tubular products that are mined, melted and made in America,” said President and Chief Executive Officer David B. Burritt.
Douglas R. Matthews, Senior Vice President – Industrial, Service Center and Mining Solutions and Interim Head – Tubular
“We continue to evaluate all options to align our manufacturing capacity with the growing energy market. Restarting the Lone Star No. 1 Mill will give our customers access to the high-quality electric-welded pipe they expect from U. S. Steel,” said Douglas R. Matthews, Senior Vice President – Industrial, Service Center and Mining Solutions and Interim Head – Tubular.
The Lone Star No. 1 Mill has an annual capacity of approximately 400,000 tons. The restart process will begin immediately and will be completed in early third quarter 2019.
In May 2019, the forging industry will come together to showcase their products and services at Forge Fair, North America’s largest event dedicated exclusively to the forging industry. More than 1,650 forging professionals from across the globe come to Forge Fair to learn about new products, make purchasing decisions and network with each other. No other industry event offers suppliers and forgers the platform to connect with more qualified potential customers. Attendees will include everyone from C-level executives to purchasers, representing OEMs, and Tier 1 and Tier 2 manufacturing companies.
From material selection to the shipment of finished parts, Forge Fair will showcase innovations in heating, tooling, equipment, testing, automation, conservation of resources, process and plant improvements and technology for all types of forging operations.
Why should you attend Forge Fair 2019?
MEET with more than 150 industry producers and suppliers from around the world.
HEAR about the latest forging trends and technologies at more than 60 exhibitor presentations.
NETWORK with industry professionals.
ENJOY complimentary hot buffet meals, receptions, and new in 2019, an industry night networking event.
LEARN about advancements in the forging industry that will affect your business in 2019 and beyond.
Join industry peers and colleagues for three days of new products and technologies, industry presentations and peer-to-peer networking.
Click here to for more information or to be registered.
When the U.S. Air Force flies its new advanced pilot trainer from Boeing and Saab, it will be equipped with an ACES 5® ejection seat along with a fully integrated landing gear system.
John “Barney” Fyfe, Air Force programs director for Collins Aerospace
Both will be supplied by Collins Aerospace, the entity that resulted from the recent merging of UTC Aerospace Systems and Rockwell Collins. Collins is a unit of United Technologies Corp, headquartered in Farmington, Connecticut, and provides heat treating capabilities among its high-technology systems and services to the building and aerospace industries.
ACES 5 offers passive head and neck protection, arm and leg flail prevention, and a load-compensating catapult rocket that varies its thrust based on the occupant’s weight. In addition to ACES 5, Collins will supply the aircraft’s fully integrated landing gear system, including structure, actuation, dressings, hydraulics, and wheels and brakes. The system boasts several technological innovations designed to help reduce maintenance costs while improving operational performance.
“Collins Aerospace is honored to be a supplier for Boeing in support of the U.S. Air Force’s next-generation trainer program and proud to provide a host of integral content, including our ACES 5 ejection seat and fully integrated landing gear system,” said John “Barney” Fyfe, Air Force programs director for Collins Aerospace. “Our innovative technologies will play a critical role in helping to keep aircrews safe, reducing maintenance costs, and improving operational performance. Our support for Boeing military aircraft dates back to 1932 with the P-26, and we look forward to continuing to work with the Boeing and Saab team on the T-X program in the years to come.”
During the day-to-day operation of heat treat departments, many habits are formed and procedures followed that sometimes are done simply because that’s the way they’ve always been done. One of the great benefits of having a community of heat treaters is to challenge those habits and look at new ways of doing things. Heat TreatToday‘s 101 Heat TreatTips, tips and tricks that come from some of the industry’s foremost experts, were initially published in the FNA 2018 Special Print Edition, as a way to make the benefits of that community available to as many people as possible. This special edition is available in a digital format here.
Today, we offer one of the tips published under the Cooling Systems category.
Cooling Systems
Heat TreatTip #10
How to Keep Your Cooling System Up and Running
Most cooling system failures are not catastrophic, merely expensive and disruptive. The most common problem is fouling — accumulated dirt, debris, products of corrosion, mineral scale, and bio-films that coat heat transfer surfaces.
Buy equipment that is easy to clean and easy to maintain.
Install filtration equipment to keep systems clean and that help in monitoring for excessive build-up.
Use closed-loop systems for furnace equipment—keep the system sealed, clean, and oxygen-free to control corrosion and fouling.
Install redundant systems—especially pumps, fans, and filters.
Have a backup source of water in the event of power failure (e.g., fuel-fired pumps, municipal water, or electric generator).
The study was led by James Pikul, Assistant Professor in the Department of Mechanical Engineering and Applied Mechanics at Penn Engineering.
We’ve come a long way in the search for and application of lightweight metals, which are being used now in everything from high-performance golf clubs to airplane wings, but random defects that arise in the manufacturing process mean that these materials are only a fraction as strong as they could theoretically be.
In a new study published in Nature Scientific Reports, researchers at the University of Pennsylvania’s School of Engineering and Applied Science, the University of Illinois at Urbana–Champaign, and the University of Cambridge have designed and built materials that are stronger than anything heretofore developed, using a sheet of nickel with nanoscale pores that make it as strong as titanium but four to five times lighter.
“The empty space of the pores and the self-assembly process in which they’re made make the porous metal akin to a natural material, such as wood.
And just as the porosity of wood grain serves the biological function of transporting energy, the empty space in the researchers’ “metallic wood” could be infused with other materials. Infusing the scaffolding with anode and cathode materials would enable this metallic wood to serve double duty: a plane wing or prosthetic leg that’s also a battery.”
Photo credit/caption: Penn Engineering/A microscopic sample of the researchers’ “metallic wood.” Its porous structure is responsible for its high strength-to-weight ratio, and makes it more akin to natural materials, like wood.
Bob Sherlock CMO of Chief Outsiders will discuss “The Power of Value” at IHEA’s 90th Anniversary Annual Meeting in Sarasota, FL.
Registration has opened for the Industrial Heating Equipment Association 2019 Annual Meeting, where the organization will celebrate its 90th anniversary. The annual meeting, which this year will be 29 – May 1 at Lido Beach Resort in Sarasota, FL., provides plenty of opportunities to get involved with important industry-related developments while exploring new business contacts and growing relationships. provides plenty of opportunities to get involved with important industry-related developments while exploring new business contacts and growing relationships. IHEA members will enjoy the camaraderie created by the ever-popular social events and thought-provoking presentations.
The program will feature a dynamic presentation by Bob Sherlock, CMO of Chief Outsiders. Mr. Sherlock’s presentation, “The Power of Value,” will highlight why members should be paid for the value of their products and services rather than lowering prices to appease customers. Attendees will also hear from IHEA’s economist Chris Kuehl with his lively update on the economy, as well as a report from Omar Nashashibi from The Franklin Partnership, who lobbies in Washington D.C. on behalf of manufacturing trade associations. Mr. Nashashibi will offer insight to the government shutdown and latest developments on critical policies that will help companies plan for the unpredictable future.
IHEA members will gain valuable knowledge on cybersecurity and how to prolong the inevitable of being hacked. Chris Della Mora of HUB International Risk Services and James Moore of Goyer Management International team up to provide this critical session for anyone who uses the internet. The program also includes a presentation from IHEA member Scott Bishop with Alabama Power on the benefits of partnering with utility companies.
IHEA’s committees will meet in Sarasota as they continue to work on issues of importance to the membership and the industry at large. And the annual golf outing and beach games will provide the perfect social experience to round out the meeting agenda. Review the complete program and event details online here (or copy and paste: www.ihea.org/event/AM19).
Hotel reservations at the Lido Beach Resort can be made by clicking here. The group rate for junior suites is $209.00/night. Please book hotel reservations now to ensure you receive our group rate.
Photo caption: AM2019 Presentation – IHEA’s annual meeting presentations address timely topics and thought-provoking information for all members.
This is the seventh in a series of articles by AMS2750 expert, Jason Schulze (Conrad Kacsik). Click here to see a listing of all of Jason’s articles on Heat TreatToday. In this article, Jason advances the discussion of initial and periodic TUS requirements. Please submit your AMS2750 questions for Jason to editor@heattreattoday.com.
Introduction
Any technician who has performed a Temperature Uniformity Survey (TUS) understands that the assembly, use, and placement of thermocouples is imperative to the success of the TUS.
As we move through the requirements of Temperature Uniformity Surveys, we will examine the requirements that apply to TUS thermocouples.
Initial Temperature Uniformity Surveys
Before we get started, let’s take a look at how AMS2750E describes :
An initial TUS shall be performed to measure the temperature uniformity and establish the acceptable work zone and qualified operating temperature range(s). Periodic TUS shall be performed thereafter in accordance with the interval shown in Table 8 or 9. ~ AMS2750E page 23, paragraph 3.5.1
Most companies, whether purchasing a new furnace or used one, know what they would like the acceptable work zone size and qualified operating range to be. I emphasize “would like” because what we would like our furnaces to be capable of is not always what they are able to do. We would like to use every square meter of our furnace control zone in an effort to maximize capacity and, of course, maximize profit on each cycle we process. We would like our furnaces to operate at the very limits of what the furnace manufacturer states it can do. Unfortunately, these items don’t always exist once the furnace is subjected to an initial Temperature Uniformity Survey per AMS270E.
An initial TUS is used to tell us what our furnaces can do based on pre-determined parameters. Normally, these parameters should be flowed down to our furnace manufacturers, and prior to shipping, these parameters are compared to what the furnace can actually attain making the furnace conformative and ready for shipment. I strongly recommend this whenever purchasing a new or used furnace.
Initial temperature uniformity testing requirements are as follows;
Initial survey temperatures shall be the minimum and maximum temperatures of the qualified operating temperature range(s).
Additional temperatures shall be added as required to ensure that no two adjacent survey temperatures are greater than 600 °F (335 °C) apart.
These requirements are simple and straight forward. One could argue that I may be oversimplifying the requirements of an initial TUS, but let’s not forget, these are merely the requirements, not the conditions, under which an initial TUS must be performed. Let’s look at an example that would conform to the stated requirements.
Example
A furnace (in this case, it is irrelevant what type of furnace or what it is used for) processes production hardware from 900°F to 2200°F. Based on the requirements of AMS2750E, the initial TUS would start by testing at 900°F and the last temperature tested would be 2200°F. The supplier would need to select temperatures between 900°F and 2200°F to ensure that there is no more than a 600°F gap between each adjacent temperature. Figure 1 is an example of temperatures that could be selected.
Figure 1
We’ve covered the requirements of an initial TUS; we will now address the conditions when an initial TUS is required. Initial TUSs are required when a) the furnace is installed (new or used) and b) when any modifications are made that can alter the temperature uniformity characteristics. You could dispute this by stating if a TUS fails (and the furnace is then repaired to be put back in service), if the qualified work zone is expanded, if a thicker control thermocouple is installed, etc. a new initial TUS is required. I would agree, but these would all fall under “B”.
Periodic Temperature Uniformity Surveys
Periodic TUSs are performed for single operating ranges greater than 600°F. In this case, the temperatures are selected must be 300°F from the minimum- and 300°F from the maximum-qualified operating range. If there is a gap of greater than 600°F, additional temperatures must be selected so there is no gap greater than 600°F. Using the example above, we could select temperatures as stated in Figure 2 below.
Figure 2
It is required that at least once each calendar year the minimum and maximum temperatures of the qualified operating range (in our example, it would be 900°F and 2200°F) are tested. Some suppliers may choose to perform an initial TUS once per year to ensure they capture the minimum and maximum.
Initial and Periodic Test Frequency
Tables 8 and 9 within AMS2750E describe the TUS frequency which is based both on furnace Class and Instrumentation Type. As an example, if our furnace referenced previously was identified as a Class 3 (±15°F), Type A instrumentation, the initial survey frequency would be quarterly. After two successful consecutive surveys, the frequency of testing could then be extended to being done annually.
It is important to recognize the difference between initial and periodic TUS temperatures and initial and periodic TUS frequency. Let’s use our example to expand on this. The supplier would perform a TUS using initial temperatures shown in Figure 1. If the TUS passes, the supplier would then, three months later, perform a TUS using the temperatures shown in Figure 2. This would then count as two successful consecutive TUSs. The next TUS could then be performed annually using the temperatures stated in Figure 2.
Conclusion
Understanding initial and periodic TUS requirements is imperative to ensure conformance to AMS2750E and Nadcap. In the next installment, we will discuss TUS data collection, relocation of hot and cold thermocouples, as well as quality requirements.
Submit Your Questions
Please feel free to submit your questions, and I will answer appropriately in future articles. Send your questions to editor@heattreattoday.com.
An international technology enterprise recently broke ground on the company’s new facility for its Industrial Quality and Research division.
Dr. Jochen Peter, Member of the Executive Board of the ZEISS Group and Head of the Industrial Quality and Research segment
ZEISS has begun construction on the new modern site near Detroit, Michigan, which will provide a broad portfolio of dimensional metrology and inspection equipment and services to a wide variety of industries including automotive, medical, aerospace, defense, machine tools, and general manufacturing job shops. ZEISS Industrial Quality Solutions will offer system demonstrations for customers as well as metrology services.
“We are investing over 45 million dollars in the Detroit metro region to strengthen and increase our engagement in this global automotive and smart factory hot spot,” said Dr. Jochen Peter, Member of the Executive Board of the ZEISS Group and Head of the Industrial Quality and Research segment. “This will not only have a strong, positive impact for our customers and partners in North America but will also generate new momentum for the whole Industrial Quality and Research segment of ZEISS worldwide.”
Michael Kirchner, member of the leadership team for the ZEISS Industrial Quality Solutions strategic business unit and Head of its business in North America
“With the new ZEISS Center in Michigan, we aim to assure a higher level of satisfaction with our solutions for our customers and provide a more attractive working environment for our team,” said Michael Kirchner, member of the leadership team for the ZEISS Industrial Quality Solutions strategic business unit and Head of its business in North America.
ZEISS measuring specialists will be able to perform proof-of-capability demonstrations for multidimensional measurement equipment, surface form and geometry equipment, and non-destructive testing and surface defect detection equipment. The need to show how digital platforms and solutions that connect ZEISS equipment to the new infrastructure within modern smart factory environments is becoming increasingly important.
It will also be a center for aftermarket sales support. Here customers will receive training on how to use the software and systems. Additionally, software help desk services will operate out of the facility.
Photo caption: ZEISS groundbreaking event for new state-of-the-art facility in Detroit metro area
In 2018, Heat TreatToday introduced one of its most popular features, the 40 Under 40 Awards for young, up-and-coming talent in the North American heat treat industry. Click here for the 2018 recipients. Heat TreatToday is posting occasional features of some of the 2018 recipients in anticipation of the 2019 40 Under 40 awardees to be presented in September (nominations are being accepted here). Today we feature Christina Somogye of Akron Steel Treating Company.
Christina Somogye
Akron Steel Treating Company
VP of Administration and Operations; Shareholder in ASTC
Christina Somogye was nominated from within Akron Steel Treating Company. The following was provided by the nominator:
Christina graduated with a degree in mechanical engineering from The Ohio State University and has also completed the MTI “Yes” Program. She has earned respect from her fellow employees, the customers and the vendors at Akron Steel Treating, being wise beyond her years. In January [2018], she purchased a 10% interest in ASTC and is an integral part of the succession plan. Christina balances her responsibilities at Akron Steel Treating Company with being wife to Aaron and mother to her 3-year-old daughter, Olivia. The family resides in Sarnia, Ontario.
Christina Somogye follows three generations of steel treaters at Akron Steel Treating Company, which celebrated its 75th anniversary in 2018. Her great-grandfather, Prosper P. Powell, founded the company in 1943, and her father, Joe Powell, is currently at the helm. In this way, Christina has grown up in the environment of metallurgy, steel treatment and manufacturing, and heat treating operations. Asked what interests her about the industry that compelled her to stay with the family business, she says, “I enjoy evaluating our racking procedures to optimize load size and ensure uniformity throughout the load with an ergonomic work set up for our employees.”
With the changes in the industry due to technology, new materials, etc., Christina is enthusiastic about the way ASTC is seeking innovative methods, equipment and processes to keep up.
“ASTC, especially our President, Joe Powell, has been very passionate about new heat treating process technology,” she says. “We are a licensee of the IntensiQuench® process. We work with fabricators to build new and unique equipment for ourselves and to prove out new heat treatment processes. Akron Steel Treating Company is the ‘skunk works’ for IHTS Akron, Joe’s heat treat and metallurgical consulting company.”
Heat treating is an industry that offers a unique path to invention, innovation, and discovery. Christina agrees that “there are many opportunities in large and small heat treating companies (commercial and captive) as well as the equipment, alloy, material suppliers and service industries that serve the heat treating companies. The knowledge of senior industry members is ready to be passed on to the next generation with tremendous opportunities for growth and technical expertise. Small, privately held businesses and large, multi-facility companies have the need to pass down this tribal knowledge for their continued success.”