How do steel inserts compare to coated carbide inserts

Deep hole drilling inserts can be used in interrupted cutting applications as the multi-point cutting process of a single insert appears to offer a more stable and consistent cutting action than traditional single point cutting tools. This is especially beneficial in operations that require high precision, such as in aerospace and medical industries. Moreover, deep hole drilling inserts can be used in applications with longer cutting depths with minimal chatter and vibration, providing improved surface finish and accuracy.

Deep hole drilling inserts are designed Cemented Carbide Inserts to reduce cutting forces and address the chip evacuation issues that can occur in interrupted cuts. The multiple cutting edges reduce the need for frequent tool changes, which can be time consuming and costly. The inserts can also be used at faster cutting speeds due to their improved rigidity and stability.

Still, deep hole drilling inserts are not suitable for all interrupted cutting applications. They work best on medium to harder materials, such as alloy steels and stainless steels, and may not be suited to softer materials. In addition, deep hole drilling inserts are only suitable for internal applications, and are not designed for cutting external surfaces.

Overall, deep hole drilling inserts can be a great alternative to traditional single point cutting tools for interrupted applications that require high precision VNMG Insert and accuracy. They offer a more consistent cutting action, improved surface finish and accuracy, and reduced cutting forces. However, they are not suitable for all applications and should be evaluated on a case-by-case basis.

The Carbide Inserts Website: https://www.cuttinginsert.com/pro_cat/iscar/index.html

Two Flute End Mill

The need of shopping at a perfect place is extremely crucial as this is the only way to get pure and Cemented Carbide Inserts genuine goods that are apt for the business as well as the industry needs. Every material is unique and with exceptional properties the raw materials are to be used with a great care. Especially a few materials are to be picked with a great care as the research gets successful only when it is carried using the genuine material. The material used in the research units or in the manufacturing companies are to be picked with a great care and even a single mistake costs a lot. Not just with time or money, but the improper compositions of the materials create a great loss. Due to this one must always do a thorough research before picking the raw material which is generally used in the manufacturing units.

The companies looking for the sandblasting garnet or other goods must always purchase or order the raw material only from the apt places that are licensed to offer the pure goods. It is true that only a few service providers are certified to deliver the raw material and locating one such is easy through a thorough online research.

The internet provides the proper details of the vendors and offer high quality goods as such vendors always present the qualities as well as the safety measures that are to be followed while working with the chemical. While you are looking for a China fused silica manufacturers rely over the online sources and earn genuine solutions to the majority of your needs.

The licensed service providers always deliver the promising quality goods that are suitable for your research needs or manufacturing APKT Insert unit right at the door. The comforting aspect is that the certified vendors even take good care of the packaging and see that the goods are delivered within a minimum period of time.

Along with the packaging and other essentials the licensed vendor offers the goods at a much competitive price and one can even compare through the online research. Purchase the sufficient quality of the black silicon carbide abrasive powder of superior quality from the reputed places as this is extremely useful in the respective industries. There are multiple advantages which every buyer can enjoy after shopping at the perfect place. There will be no worry regarding the quality of the products and they even organize the required quantity.

The Carbide Inserts Website: https://www.kingcarbide.com/pro_cat/6mm-shank-cutting-burr/index.html

Are steel inserts suitable for both dry and MQL machining

Cutting inserts are essential components of CNC machining. They can be used in a variety of applications, such as milling, drilling, turning, and reaming. By providing a cutting edge that is sharper and more durable than traditional cutting materials, cutting inserts can improve accuracy and productivity in CNC machining.

Cutting inserts are typically made from tungsten carbide, a material that is highly resistant to wear and abrasion. This makes them ideal for machining operations that require high levels of accuracy. The sharp cutting edges of the inserts allow for improved accuracy in CNC machining, as they can cut more precisely and with less burring. Additionally, the inserts are designed to last longer, so they require less frequent replacement, which can save time and money.

The geometry of cutting inserts also plays a role in improving accuracy in CNC machining. The inserts can be designed to have multiple cutting edges that are angled in a specific way. This allows for more precise cutting and improved accuracy. The inserts can also be designed to minimize vibration, which can lead to better results and improved accuracy.

Finally, cutting inserts can be designed with special coatings to reduce friction and improve lubrication. This helps to reduce wear on the cutting edges of the inserts, allowing them to last longer and maintain their cutting accuracy. Additionally, the inserts can be designed to be self-sharpening, which means that they will maintain their sharpness for longer periods of time.

Overall, cutting inserts are essential components of CNC machining, and they can help to improve accuracy and productivity. By providing a more durable and precise cutting edge, cutting inserts can help to reduce vibration and burring, as well as improve lubrication and self-sharpening capabilities. All of these factors combine to make cutting inserts an invaluable part of CNC machining.

Cutting inserts are essential components of CNC machining. They can be used in a variety of applications, such as milling, drilling, turning, and reaming. By providing a cutting edge that is sharper and more durable than traditional cutting materials, cutting inserts can improve accuracy and productivity in CNC machining.

Cutting inserts are typically CNMM Inserts made from tungsten carbide, a material that is highly resistant to wear and abrasion. This makes them ideal for machining operations that require high levels of accuracy. The sharp cutting edges of the inserts allow for improved accuracy in CNC machining, as they can cut more precisely and with less burring. Additionally, the inserts are designed to last longer, so they require less frequent replacement, which can save time and money.

The geometry of cutting inserts also plays a role in improving accuracy in CNC machining. The inserts can be designed to have multiple cutting edges that are angled in a specific way. This allows for carbide insert quotation more precise cutting and improved accuracy. The inserts can also be designed to minimize vibration, which can lead to better results and improved accuracy.

Finally, cutting inserts can be designed with special coatings to reduce friction and improve lubrication. This helps to reduce wear on the cutting edges of the inserts, allowing them to last longer and maintain their cutting accuracy. Additionally, the inserts can be designed to be self-sharpening, which means that they will maintain their sharpness for longer periods of time.

Overall, cutting inserts are essential components of CNC machining, and they can help to improve accuracy and productivity. By providing a more durable and precise cutting edge, cutting inserts can help to reduce vibration and burring, as well as improve lubrication and self-sharpening capabilities. All of these factors combine to make cutting inserts an invaluable part of CNC machining.

The Carbide Inserts Website: https://www.estoolcarbide.com/lathe-inserts/

What Are the Benefits of Using Machining Inserts in Aerospace Structural Component Manufacturing

Carbide grooving inserts are an excellent choice for those looking for an economical way to improve their grooving operations. This type of insert is a cost-effective solution when compared to other grooving methods, such as milling and grinding. The inserts can be used for multiple grooving applications and provide a clean, precise cut. Additionally, the inserts are highly durable, making them a great choice for long-term use.

The inserts are made of highly wear-resistant tungsten carbide, which makes them ideal for a variety of grooving operations. The inserts are designed to provide a controlled cutting depth, ensuring that the desired finish is achieved. Additionally, the inserts can be used in a wide range of materials, including aluminum, steel, and cast iron. This makes them a versatile option for various grooving applications.

The use of carbide grooving inserts is a cost-effective solution for grooving applications. The inserts are relatively inexpensive compared to other methods, while still providing excellent results. Additionally, the inserts require minimal maintenance, which helps to reduce operational costs. This makes carbide grooving inserts a great choice for those looking to reduce their grooving expenses.

Overall, carbide grooving inserts are an excellent choice for those looking for a cost-effective solution for grooving applications. The inserts are designed to provide a controlled and precise cut, while also being highly durable and versatile. Additionally, the inserts are relatively inexpensive and require minimal maintenance, making them a great choice for those looking to save money on their grooving operations.

Carbide grooving inserts are an Coated Inserts excellent choice for those looking for an economical way to improve their grooving operations. This type of insert is a cost-effective solution when compared to other grooving methods, such as milling and grinding. The inserts can be used for multiple grooving applications and provide a clean, precise cut. Additionally, the inserts are highly durable, making them a great choice for long-term use.

The inserts are made of highly wear-resistant tungsten carbide, which makes them ideal for a variety of grooving operations. The inserts are designed to provide a controlled cutting depth, ensuring that the desired finish is achieved. Additionally, the inserts can be used in a wide range of materials, including aluminum, steel, and cast iron. This makes them a versatile option for various grooving applications.

The use of carbide grooving inserts is a cost-effective solution for grooving applications. The inserts are relatively inexpensive compared to other methods, while still providing excellent results. Additionally, the inserts require minimal maintenance, which helps to reduce operational costs. This makes carbide grooving inserts a great choice for those looking to reduce their grooving WCMT Inserts expenses.

Overall, carbide grooving inserts are an excellent choice for those looking for a cost-effective solution for grooving applications. The inserts are designed to provide a controlled and precise cut, while also being highly durable and versatile. Additionally, the inserts are relatively inexpensive and require minimal maintenance, making them a great choice for those looking to save money on their grooving operations.

The Carbide Inserts Website: https://www.estoolcarbide.com/coated-inserts/

The Future of Cutting and Drilling How Tungsten Carbide Inserts Are Shaping the Industry

CBN (Cubic Boron Nitride) inserts Carbide Grooving Inserts are a type of cutting tool that is used in machining hardened steel. They are designed to be more durable and efficient than traditional cutting inserts, providing a range of benefits for machining hardened steel.

The main benefit of using CBN inserts is their increased durability. CBN inserts are much harder and more wear-resistant than traditional cutting inserts, allowing them to last much longer and provide more consistent performance. This helps reduce the need for frequent insert changes which can be costly and time-consuming.

CBN inserts also provide improved cutting performance when machining hardened steel. They are able to maintain a sharper cutting edge, resulting in faster and more precise cuts. This can result in increased production speeds and improved part quality. Additionally, CBN inserts can CCMT Insert produce more accurate part dimensions due to the improved cutting capabilities.

Lastly, CBN inserts are more cost-effective than traditional cutting inserts. Their increased durability means they can be used for a longer period of time before needing to be replaced, reducing the cost of consumables and labor. This can help to improve the overall efficiency of machining hardened steel.

In conclusion, CBN inserts offer a range of benefits for machining hardened steel. They are more durable, provide improved cutting performance, and are more cost-effective than traditional cutting inserts. Therefore, they are an ideal choice for machining hardened steel parts.

The Carbide Inserts Website: https://www.estoolcarbide.com/machining-inserts/tcmt-insert/

How do carbide inserts contribute to reduced machining vibrations and improved stability

Tungsten carbide inserts are a type of hard metal that has a wide range of applications in modern engineering. It has a unique combination of properties, including extreme hardness, high thermal stability, and excellent wear resistance. These characteristics make it the ideal choice for many different types of engineering projects.

Tungsten carbide inserts are formed from a combination of tungsten and carbon. The resulting material is incredibly hard and has an incredibly high melting point. This makes it ideal for use in machining operations such as drilling, milling, boring, and turning. It also has excellent dimensional stability, making it a preferred material for precision engineering.

Tungsten carbide inserts are designed to withstand the most extreme conditions. They are often used in extreme temperature environments, such as power plants and manufacturing plants. They are also used in the chemical and petrochemical industries due to their resistance to corrosion. Additionally, they are used in the aerospace, automotive, and defense industries due to their strength and durability.

Tungsten carbide is also extremely versatile and can be used in a variety of different applications. It can be used to create wear-resistant parts, such as seals and bearings. It can also be used to create cutting tools, such as end mills and drill bits. Additionally, tungsten carbide can be used to create molds for plastic and other materials.

Tungsten carbide inserts are the backbone of modern engineering. They are an essential component in the manufacturing of many different products. They are strong, durable, and versatile, making them a preferred material for many different industrial applications. Without tungsten carbide inserts, many of the products we use today would not exist.

Tungsten carbide inserts are a type of hard metal that has a wide range of applications in modern engineering. It has a unique combination of properties, including extreme hardness, high thermal stability, and excellent wear resistance. These characteristics make it the ideal choice for many different types of engineering projects.

Tungsten carbide inserts are formed from a combination of tungsten and carbon. The resulting material is incredibly hard and has an incredibly high melting point. This makes it ideal for use in machining operations such as drilling, milling, boring, and turning. It also has excellent dimensional stability, making it a preferred material for precision engineering.

Tungsten carbide inserts are designed to withstand the most extreme conditions. They are often used in extreme temperature environments, such as power plants and manufacturing plants. They are also used in the chemical and petrochemical industries due to their resistance to corrosion. Additionally, they are used in the aerospace, automotive, and TNMG Inserts defense industries due to their strength and durability.

Tungsten carbide is also extremely versatile and can be used in a variety of different applications. It can be used to create wear-resistant parts, such as seals and bearings. It can also be used to create cutting tools, such as end mills and drill bits. Additionally, tungsten carbide can be used to create molds for plastic and other materials.

Tungsten carbide inserts are the backbone of modern engineering. They are an essential component in the manufacturing of many different products. They are strong, durable, and TOGT Inserts versatile, making them a preferred material for many different industrial applications. Without tungsten carbide inserts, many of the products we use today would not exist.

The Carbide Inserts Website: https://www.estoolcarbide.com/product/npht-npmt-bta-insert-coating-alloy-deep-hole-drilling-insert-p-1173/

An Electrochemical Option for Blisks, Blades

There are a number of factors to consider when purchasing a plasma cutting tool. They include cut capacity, cut quality, reliability, duty cycle, ease of use and operating cost. The first step is to figure out what type of plasma cutting you plan to do. Are you planning to cut by hand or on a table? Some plasma cutting tools are capable of doing both, going from handheld to mechanized cutting and back again. A few systems include a CNC interface and internal voltage divider, providing more options for mechanized applications.

Once you know what type of plasma cutting you are going to do, then you should consider the thickness of the material you plan to cut. The general rule is to choose a system with a recommended cut capacity that matches the material thickness you plan to cut 80 percent of the time. For example, if you mainly plan to cut ½-inch thick metal, and only occasionally cut metal that’s a little thicker (say 3/4 of an inch), then you can choose a ½-inch system.

Cut quality is another important consideration. Not only does it impact the quality of your finished piece, it saves time in later stages of production. Ideally, you want a clean, smooth edge so you don’t spend a lot of time on secondary work. In addition to smooth, clean cuts, better plasma cutting systems create a much narrower kerf (cut width), which means more precise cuts and less wasted metal.

You should also consider reliability. In general, the most reliable plasma cutting systems are engineered with fewer parts, use software instead DNMG Insert of hardware where possible, are manufactured to ISO standards and are adequately tested. Consider a centralized fan configuration to bring cool air in through the center of the system, where the most thermally sensitive components are located. This will result in more efficient and consistent cooling and enable a higher duty cycle.

Some plasma cutting tools are easier to use than others. Obviously, for an experienced operator, ease of use allows a job to be done faster and more efficiently, but it may also means that people with little or no experience can get good results. Regardless of experience level, be sure that operators using plasma cutting tools can get jobs completed quickly and with good quality, keeping time-sensitive projects on schedule.

If you plan to move around a lot or do any work away from your shop,WNMG Insert then size and weight will play a role in your decision. Engineering advances mean you can now get a lightweight system without sacrificing power and performance. Certain plasma cutting systems also come with technology that automatically adjusts for different voltages and voltage variations, which is good if you plan to work off a generator.

Finally, you should consider operating cost. Cut quality, cut speed and performance play a role here but so does plasma consumable cost. Plasma consumable life can vary significantly from one brand of plasma cutting system to another. Longer plasma consumable life is important as it reduces downtime for change-outs and lowers the cost you pay for new plasma consumables. Many brands use patented technology to extend plasma consumable life, while also delivering high-quality cuts.

The Carbide Inserts Website: https://www.estoolcarbide.com/product/hunan-estool-use-for-surface-milling-and-shoulder-milling-lathe-cutting-tools-milling-inserts-sdmt1205/

Establishing Pinpoint Offsets and Reference Points

Tungsten carbide (WC) is a refractory compound made by reacting Tungsten, W, powder with carbon at high temperatures in reducing hydrogen atmosphere or vacuum.

Cemented carbide is a composite of WC dispersed in a ductile matrix of cobalt (CO), nickel etc. the most prominent ones are WC-Co with Cobalt content varying from 3 to 20%. Cemented carbides are used as cutting tools, wear parts, mining tools etc.

The Difference Between Cemented Carbide and Tungsten Steel:

  • Generally speaking, tungsten steel is smelted by adding tungsten raw materials into molten steel by a steelmaking process. It is also called high-speed steel or tool steel, and its tungsten content is generally 15-25%. In addition to the production of high-speed steel by smelting, there are also powder metallurgical high-speed steels, which avoid the segregation of carbides caused by the smelting method to cause mechanical properties and heat treatment deformation.
  • The cemented carbide is sintered with cobalt or other Carbide Inserts bonding metals using powder metallurgy technology with tungsten carbide as the main body, and its tungsten content is generally more than 80%.

Simply put, all alloys with a hardness exceeding HRC65 can be called cemented carbide, so tungsten steel belongs to cemented carbide; but strictly speaking, cemented carbide is not necessarily tungsten steel.

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The Carbide Inserts Website: https://www.estoolcarbide.com/product/dcmt-pressing-cermet-inserts-p-1194/

Engineers and Manufacturers Invited to Take Part in Girl Day

Walk into Byrne Tool + Design and, if you have spent time in mold shops, you sense at once that this mold shop is different from others.

Why RCMX Insert is this?

The answer is not immediately apparent. Machining centers and EDM machines make cores and cavities. Employees tend those machines and assemble finished molds. That much is the same as in any other moldmaking facility.

But look more closely and the differences come into view. In this shop, there are no individual toolboxes—standardized workbenches have replaced them. There are no computers for CAM programming near the machines, but instead there is a set-apart programming station where employees come together. Nor is there seldom-used legacy equipment or tooling taking up space, because what isn’t used has been cleared away.

On the machine tools in this shop, there are no blueprints affixed with magnets or even any greaseboards. Machines instead have touchscreen monitors providing access to job information in Google Docs. And above the Cemented Carbide Inserts shop floor, no banner proclaims a slogan. Instead, large monitors show real-time graphical displays of machine-tool utilization.

All of these developments, and many others like them, are less than a decade old. In fact, most of them are considerably more recent than that. Just over 10 years ago, this was a very different shop, says Byrne Tool + Design Operations Manager Andrew Baker. It was essentially a captive shop, getting nearly all of its business from a sister company making power and data hardware for business furniture. Byrne was also an inefficient shop, he says, though he would not have thought of it that way at the time.

Today, the shop is spacious and clean. It has reinvented itself to cater to a particular type of customer: design-oriented OEMs with tight leadtime demands. The shop’s process is disciplined and streamlined enough to reliably surpass the expectations of this class of customer, and as a result, the shop is no longer captive. Business today comes from industries including automotive, consumer products and medical devices.

Throughout the pages of this article, photos illustrate various manufacturing improvements that Byrne has made. Some of the improvements are large and some are small. Some are simple and some are unusual. The reason why pages of photos are the best way to convey the shop’s advance is because not one of these improvements by itself would be enough to set the shop apart. Instead, what has transformed this shop over time is the commitment to keep making the effort and taking the time to conceive and implement changes such as these, no matter how heavy the normal workload gets. That commitment—keep improving no matter what—is this shop’s simple secret.

“Common sense manufacturing,” or CSM, is Byrne’s term for this commitment. Any recurring cause of error, delay or inconsistency in the process is a potential candidate for a “CSM event” in which a team of employees breaks away from regular production in order to focus its attention on one problem and recommend a solution.

For every CSM event, the mix of employees is different. The solution they recommend might entail a hard investment or a departure from old habits. The culture of this shop has grown accustomed to the fact that any procedure or piece of equipment on the shop floor might change in order to overcome an identified inefficiency. More importantly, the culture has changed to expect CSM events as a non-negotiable priority. Every employee is a potential participant in a CSM event, and even the employees not involved in a given CSM event still support it, because they are covering for the team members who are not available for work on the shop floor throughout the two- to three-day event.

“We want eight to 10 CSM events per year,” says company General Manager Tim Warwick. Continual improvement is not optional, no matter how busy the shop gets.

One of the most recent changes is the shop’s name. Byrne Tool + Design is the former Byrne Tool & Die. The new company name is written with a plus sign instead of an ampersand, because the “+” has become the company’s brand. The idea is that the company will be a tool shop “plus” something more, say company leaders, and that “plus” is likely to be different for different customers and to change over time. The very same mindset also fits the company’s new perspective on manufacturing, in which the search for the next incremental “plus” in shop performance has become a routine part of operations.

Mr. Baker says it all began very simply, with a commitment to implement the basic lean manufacturing practice of 5S. The mandate to adopt 5S came from above, he says, and he admits that he and the rest of the shop followed along only halfheartedly. Things changed when the results of this practice directly brought new business the shop otherwise would not have won.

Beyond Toolboxes

“Do you want me to make molds or do you want me to clean?”

That objection, or words to that effect, haunted the entire first year of Byrne’s attempt at lean manufacturing. 5S, which commonly stands for “shine, sort, simplify, standardize and sustain” (and can be seen in the photo above to stand for something close to this at Byrne) is the lean-manufacturing practice of organizing the workplace so that needed tools are easily found and easily put to use. To the employees accustomed to Byrne’s previous level of organization, implementing 5S seemed like needless fussing.

The sister company that makes office furniture hardware is Byrne Electrical, which was the source of nearly all of the shop’s moldmaking work until that business dramatically declined in the early 2000s. Just after the dot-com crash, office furniture was suddenly not a lucrative business to be in.

At that time, the owners of the Byrne companies committed both businesses to lean manufacturing. For Byrne Electrical, this would be a way to achieve much-needed cost savings. Byrne Tool & Die’s team members felt dragged along in this commitment, Mr. Baker says, because they expected to find work in other industries to make up for the decline in the furniture-related business. What they did not yet realize was how valuable lean would be in the effort to do this.

One development in particular brought this realization home. Despite internal resistance to 5S, Byrne succeeded over the course of nearly two years at getting the shop better organized and strikingly cleaner and tidier than it used to be. A prospective customer who quietly visited around this time toured the shop and gave no sign of his impression—until he later awarded his company’s considerable moldmaking business to Byrne.

In an email, he explained the reason for his decision. The European owners of his own company had fastidious standards, he said. Byrne Tool & Die was not the cheapest moldmaker he had found, but it was the only mold shop he had visited that was clean and organized enough that he could imagine showing it to his superiors with pride.

Mr. Warwick says he printed out several copies of that email. He made sure that everyone in the shop saw it.

Meanwhile, a second development revealed the power of process improvement and the extent of the Byrne team members’ ability to make change. In the course of the shop’s progress toward greater organization and standardization, Mr. Baker says there came a point when the team had to confront one of the shop floor’s greatest sources of variability: individual employee toolboxes. These toolboxes were inherently unorganized and they certainly were not standardized, he says. Allowing every shop employee to possess a self-created and self-organized workspace produced a system of needless complexity, clutter and, in many cases, redundancy. In keeping with the aim of simplicity, this system had to be replaced with a system of standard workbenches, in which some tools were removed from individual work areas altogether and instead placed within reach at the point of use.

Of course, this change was the step in 5S that met with the greatest resistance of all.

Byrne obtained new, standardized workbenches that came mounted on wheels. The promise to each employee was that these benches could be wheeled over to the machine tools, just like the individual toolboxes had been. That is, if employees wanted to use these standard workbenches as the basis of personal work areas near the machines, they could do that.

But that’s not what happened. Instead, in spite of the wheels, these benches have practically never budged. The staff discovered that in fact it is more useful to keep the individual benches clustered together in pairs, creating a double-size surface that multiple employees can share. The large surfaces not only provide for expansive working space, they also facilitate communication and collaboration because employees doing their work now come together at these combined tables. Thus, the aim of tidiness through standardization was achieved, and along the way, the shop also realized a system that works better to a surprising degree. The consensus throughout the shop is that the added bench space plus the aid to communication makes tasks easier to such an extent that work in general flows more easily.

That development was eye-opening. Individual toolboxes had been a deeply ingrained and long-standing part of the shop’s culture. Seeing this inefficiency overcome showed the shop’s team that it could overcome practically any other inefficiency as well. Even if the price of an improvement was an uncomfortable cultural change, the shop could make that change and see everyone through to the other side of the discomfort. Then, after the transition was past, the shop would get to reap the benefits of the process improvement thereafter, benefits that were likely to be even greater than the shop could have anticipated before making the change.

Beyond Lean

It was soon after this improvement with the workbenches that the shop stopped talking in terms of lean and began talking and thinking instead in terms of CSM. Not everything that seemingly saves time or saves effort contributes to better manufacturing. After all, wheeling the workbenches to the machine tools would have been more “lean,” in the sense that this relocation would serve to minimize employee motion and effort. But part of the reason why the workbenches stayed grouped together is because the collaboration encouraged by the common space is valuable enough to be worth some added motion and effort.

That was the realization that led to one of the stranger features of this shop: a collective bank of CAD/CAM computers that looks like it ought to be called “CAM Island,” except that islands are what this shop used to have back when programming PCs were located at each of the separate machine tools. Again, programming tool paths right beside the machine tools is arguably efficient, because the employee who hits the start button on the current job doesn’t have to move far to begin programming the next one. However, Mr. Baker says the problem with this arrangement is that it leaves employees isolated. They don’t ask questions about seemingly small matters because no one is nearby to hear the question. Clustering CAM stations together addresses this problem, because it creates an open and easy context for communication. When one employee is programming a job at one of the computers, usually there are at least one or two other employees present who are programming a job as well. A little chatter is a natural part of this proximity, and technical questions get asked and answered as a natural part of this interaction. Knowledge is shared effortlessly, and that helps the whole shop.

What’s more, relationships improve, says Mr. Baker. No one notices this happening because the effect is so gradual. But because of the shared space and the shared forum for asking questions about programming, an employee who might feel comfortable asking just one particular coworker his questions might find his trust expanded to the rest of the staff as a result of various other coworkers providing helpful input within the conversation.

This kind of collaboration and this kind of trust are key to the ongoing success of CSM. Again, the entire system depends on some employees leaving the shop floor for days at a time while other employees do the day-to-day work in their place. This system works without resentment and without friction only because everyone trusts in the value of what these CSM teams are doing, company leaders say. The habit at Byrne is simply to treat the employees involved in CSM events as though they are on vacation. As strange as it might seem to cluster CAM stations together, or as notable as any process improvement in the photos throughout this article might seem, the cultural shift in this shop is actually the most significant development of them all. Every team member here understands that making molds is not the full extent of the work. Improving the process for making molds is also an expected part of every employee’s job. 

Learn about Makino.

Learn about Single Source Technology.

The Carbide Inserts Website: https://www.estoolcarbide.com/product/for-cast-iron-lathe-turning-tools-cemented-carbide-turning-inserts-cnmg-series/ Engineers and Manufacturers Invited to Take Part in Girl Day

Walk into Byrne Tool + Design and, if you have spent time in mold shops, you sense at once that this mold shop is different from others.

Why RCMX Insert is this?

The answer is not immediately apparent. Machining centers and EDM machines make cores and cavities. Employees tend those machines and assemble finished molds. That much is the same as in any other moldmaking facility.

But look more closely and the differences come into view. In this shop, there are no individual toolboxes—standardized workbenches have replaced them. There are no computers for CAM programming near the machines, but instead there is a set-apart programming station where employees come together. Nor is there seldom-used legacy equipment or tooling taking up space, because what isn’t used has been cleared away.

On the machine tools in this shop, there are no blueprints affixed with magnets or even any greaseboards. Machines instead have touchscreen monitors providing access to job information in Google Docs. And above the Cemented Carbide Inserts shop floor, no banner proclaims a slogan. Instead, large monitors show real-time graphical displays of machine-tool utilization.

All of these developments, and many others like them, are less than a decade old. In fact, most of them are considerably more recent than that. Just over 10 years ago, this was a very different shop, says Byrne Tool + Design Operations Manager Andrew Baker. It was essentially a captive shop, getting nearly all of its business from a sister company making power and data hardware for business furniture. Byrne was also an inefficient shop, he says, though he would not have thought of it that way at the time.

Today, the shop is spacious and clean. It has reinvented itself to cater to a particular type of customer: design-oriented OEMs with tight leadtime demands. The shop’s process is disciplined and streamlined enough to reliably surpass the expectations of this class of customer, and as a result, the shop is no longer captive. Business today comes from industries including automotive, consumer products and medical devices.

Throughout the pages of this article, photos illustrate various manufacturing improvements that Byrne has made. Some of the improvements are large and some are small. Some are simple and some are unusual. The reason why pages of photos are the best way to convey the shop’s advance is because not one of these improvements by itself would be enough to set the shop apart. Instead, what has transformed this shop over time is the commitment to keep making the effort and taking the time to conceive and implement changes such as these, no matter how heavy the normal workload gets. That commitment—keep improving no matter what—is this shop’s simple secret.

“Common sense manufacturing,” or CSM, is Byrne’s term for this commitment. Any recurring cause of error, delay or inconsistency in the process is a potential candidate for a “CSM event” in which a team of employees breaks away from regular production in order to focus its attention on one problem and recommend a solution.

For every CSM event, the mix of employees is different. The solution they recommend might entail a hard investment or a departure from old habits. The culture of this shop has grown accustomed to the fact that any procedure or piece of equipment on the shop floor might change in order to overcome an identified inefficiency. More importantly, the culture has changed to expect CSM events as a non-negotiable priority. Every employee is a potential participant in a CSM event, and even the employees not involved in a given CSM event still support it, because they are covering for the team members who are not available for work on the shop floor throughout the two- to three-day event.

“We want eight to 10 CSM events per year,” says company General Manager Tim Warwick. Continual improvement is not optional, no matter how busy the shop gets.

One of the most recent changes is the shop’s name. Byrne Tool + Design is the former Byrne Tool & Die. The new company name is written with a plus sign instead of an ampersand, because the “+” has become the company’s brand. The idea is that the company will be a tool shop “plus” something more, say company leaders, and that “plus” is likely to be different for different customers and to change over time. The very same mindset also fits the company’s new perspective on manufacturing, in which the search for the next incremental “plus” in shop performance has become a routine part of operations.

Mr. Baker says it all began very simply, with a commitment to implement the basic lean manufacturing practice of 5S. The mandate to adopt 5S came from above, he says, and he admits that he and the rest of the shop followed along only halfheartedly. Things changed when the results of this practice directly brought new business the shop otherwise would not have won.

Beyond Toolboxes

“Do you want me to make molds or do you want me to clean?”

That objection, or words to that effect, haunted the entire first year of Byrne’s attempt at lean manufacturing. 5S, which commonly stands for “shine, sort, simplify, standardize and sustain” (and can be seen in the photo above to stand for something close to this at Byrne) is the lean-manufacturing practice of organizing the workplace so that needed tools are easily found and easily put to use. To the employees accustomed to Byrne’s previous level of organization, implementing 5S seemed like needless fussing.

The sister company that makes office furniture hardware is Byrne Electrical, which was the source of nearly all of the shop’s moldmaking work until that business dramatically declined in the early 2000s. Just after the dot-com crash, office furniture was suddenly not a lucrative business to be in.

At that time, the owners of the Byrne companies committed both businesses to lean manufacturing. For Byrne Electrical, this would be a way to achieve much-needed cost savings. Byrne Tool & Die’s team members felt dragged along in this commitment, Mr. Baker says, because they expected to find work in other industries to make up for the decline in the furniture-related business. What they did not yet realize was how valuable lean would be in the effort to do this.

One development in particular brought this realization home. Despite internal resistance to 5S, Byrne succeeded over the course of nearly two years at getting the shop better organized and strikingly cleaner and tidier than it used to be. A prospective customer who quietly visited around this time toured the shop and gave no sign of his impression—until he later awarded his company’s considerable moldmaking business to Byrne.

In an email, he explained the reason for his decision. The European owners of his own company had fastidious standards, he said. Byrne Tool & Die was not the cheapest moldmaker he had found, but it was the only mold shop he had visited that was clean and organized enough that he could imagine showing it to his superiors with pride.

Mr. Warwick says he printed out several copies of that email. He made sure that everyone in the shop saw it.

Meanwhile, a second development revealed the power of process improvement and the extent of the Byrne team members’ ability to make change. In the course of the shop’s progress toward greater organization and standardization, Mr. Baker says there came a point when the team had to confront one of the shop floor’s greatest sources of variability: individual employee toolboxes. These toolboxes were inherently unorganized and they certainly were not standardized, he says. Allowing every shop employee to possess a self-created and self-organized workspace produced a system of needless complexity, clutter and, in many cases, redundancy. In keeping with the aim of simplicity, this system had to be replaced with a system of standard workbenches, in which some tools were removed from individual work areas altogether and instead placed within reach at the point of use.

Of course, this change was the step in 5S that met with the greatest resistance of all.

Byrne obtained new, standardized workbenches that came mounted on wheels. The promise to each employee was that these benches could be wheeled over to the machine tools, just like the individual toolboxes had been. That is, if employees wanted to use these standard workbenches as the basis of personal work areas near the machines, they could do that.

But that’s not what happened. Instead, in spite of the wheels, these benches have practically never budged. The staff discovered that in fact it is more useful to keep the individual benches clustered together in pairs, creating a double-size surface that multiple employees can share. The large surfaces not only provide for expansive working space, they also facilitate communication and collaboration because employees doing their work now come together at these combined tables. Thus, the aim of tidiness through standardization was achieved, and along the way, the shop also realized a system that works better to a surprising degree. The consensus throughout the shop is that the added bench space plus the aid to communication makes tasks easier to such an extent that work in general flows more easily.

That development was eye-opening. Individual toolboxes had been a deeply ingrained and long-standing part of the shop’s culture. Seeing this inefficiency overcome showed the shop’s team that it could overcome practically any other inefficiency as well. Even if the price of an improvement was an uncomfortable cultural change, the shop could make that change and see everyone through to the other side of the discomfort. Then, after the transition was past, the shop would get to reap the benefits of the process improvement thereafter, benefits that were likely to be even greater than the shop could have anticipated before making the change.

Beyond Lean

It was soon after this improvement with the workbenches that the shop stopped talking in terms of lean and began talking and thinking instead in terms of CSM. Not everything that seemingly saves time or saves effort contributes to better manufacturing. After all, wheeling the workbenches to the machine tools would have been more “lean,” in the sense that this relocation would serve to minimize employee motion and effort. But part of the reason why the workbenches stayed grouped together is because the collaboration encouraged by the common space is valuable enough to be worth some added motion and effort.

That was the realization that led to one of the stranger features of this shop: a collective bank of CAD/CAM computers that looks like it ought to be called “CAM Island,” except that islands are what this shop used to have back when programming PCs were located at each of the separate machine tools. Again, programming tool paths right beside the machine tools is arguably efficient, because the employee who hits the start button on the current job doesn’t have to move far to begin programming the next one. However, Mr. Baker says the problem with this arrangement is that it leaves employees isolated. They don’t ask questions about seemingly small matters because no one is nearby to hear the question. Clustering CAM stations together addresses this problem, because it creates an open and easy context for communication. When one employee is programming a job at one of the computers, usually there are at least one or two other employees present who are programming a job as well. A little chatter is a natural part of this proximity, and technical questions get asked and answered as a natural part of this interaction. Knowledge is shared effortlessly, and that helps the whole shop.

What’s more, relationships improve, says Mr. Baker. No one notices this happening because the effect is so gradual. But because of the shared space and the shared forum for asking questions about programming, an employee who might feel comfortable asking just one particular coworker his questions might find his trust expanded to the rest of the staff as a result of various other coworkers providing helpful input within the conversation.

This kind of collaboration and this kind of trust are key to the ongoing success of CSM. Again, the entire system depends on some employees leaving the shop floor for days at a time while other employees do the day-to-day work in their place. This system works without resentment and without friction only because everyone trusts in the value of what these CSM teams are doing, company leaders say. The habit at Byrne is simply to treat the employees involved in CSM events as though they are on vacation. As strange as it might seem to cluster CAM stations together, or as notable as any process improvement in the photos throughout this article might seem, the cultural shift in this shop is actually the most significant development of them all. Every team member here understands that making molds is not the full extent of the work. Improving the process for making molds is also an expected part of every employee’s job. 

Learn about Makino.

Learn about Single Source Technology.

The Carbide Inserts Website: https://www.estoolcarbide.com/product/for-cast-iron-lathe-turning-tools-cemented-carbide-turning-inserts-cnmg-series/ Engineers and Manufacturers Invited to Take Part in Girl Day

Walk into Byrne Tool + Design and, if you have spent time in mold shops, you sense at once that this mold shop is different from others.

Why RCMX Insert is this?

The answer is not immediately apparent. Machining centers and EDM machines make cores and cavities. Employees tend those machines and assemble finished molds. That much is the same as in any other moldmaking facility.

But look more closely and the differences come into view. In this shop, there are no individual toolboxes—standardized workbenches have replaced them. There are no computers for CAM programming near the machines, but instead there is a set-apart programming station where employees come together. Nor is there seldom-used legacy equipment or tooling taking up space, because what isn’t used has been cleared away.

On the machine tools in this shop, there are no blueprints affixed with magnets or even any greaseboards. Machines instead have touchscreen monitors providing access to job information in Google Docs. And above the Cemented Carbide Inserts shop floor, no banner proclaims a slogan. Instead, large monitors show real-time graphical displays of machine-tool utilization.

All of these developments, and many others like them, are less than a decade old. In fact, most of them are considerably more recent than that. Just over 10 years ago, this was a very different shop, says Byrne Tool + Design Operations Manager Andrew Baker. It was essentially a captive shop, getting nearly all of its business from a sister company making power and data hardware for business furniture. Byrne was also an inefficient shop, he says, though he would not have thought of it that way at the time.

Today, the shop is spacious and clean. It has reinvented itself to cater to a particular type of customer: design-oriented OEMs with tight leadtime demands. The shop’s process is disciplined and streamlined enough to reliably surpass the expectations of this class of customer, and as a result, the shop is no longer captive. Business today comes from industries including automotive, consumer products and medical devices.

Throughout the pages of this article, photos illustrate various manufacturing improvements that Byrne has made. Some of the improvements are large and some are small. Some are simple and some are unusual. The reason why pages of photos are the best way to convey the shop’s advance is because not one of these improvements by itself would be enough to set the shop apart. Instead, what has transformed this shop over time is the commitment to keep making the effort and taking the time to conceive and implement changes such as these, no matter how heavy the normal workload gets. That commitment—keep improving no matter what—is this shop’s simple secret.

“Common sense manufacturing,” or CSM, is Byrne’s term for this commitment. Any recurring cause of error, delay or inconsistency in the process is a potential candidate for a “CSM event” in which a team of employees breaks away from regular production in order to focus its attention on one problem and recommend a solution.

For every CSM event, the mix of employees is different. The solution they recommend might entail a hard investment or a departure from old habits. The culture of this shop has grown accustomed to the fact that any procedure or piece of equipment on the shop floor might change in order to overcome an identified inefficiency. More importantly, the culture has changed to expect CSM events as a non-negotiable priority. Every employee is a potential participant in a CSM event, and even the employees not involved in a given CSM event still support it, because they are covering for the team members who are not available for work on the shop floor throughout the two- to three-day event.

“We want eight to 10 CSM events per year,” says company General Manager Tim Warwick. Continual improvement is not optional, no matter how busy the shop gets.

One of the most recent changes is the shop’s name. Byrne Tool + Design is the former Byrne Tool & Die. The new company name is written with a plus sign instead of an ampersand, because the “+” has become the company’s brand. The idea is that the company will be a tool shop “plus” something more, say company leaders, and that “plus” is likely to be different for different customers and to change over time. The very same mindset also fits the company’s new perspective on manufacturing, in which the search for the next incremental “plus” in shop performance has become a routine part of operations.

Mr. Baker says it all began very simply, with a commitment to implement the basic lean manufacturing practice of 5S. The mandate to adopt 5S came from above, he says, and he admits that he and the rest of the shop followed along only halfheartedly. Things changed when the results of this practice directly brought new business the shop otherwise would not have won.

Beyond Toolboxes

“Do you want me to make molds or do you want me to clean?”

That objection, or words to that effect, haunted the entire first year of Byrne’s attempt at lean manufacturing. 5S, which commonly stands for “shine, sort, simplify, standardize and sustain” (and can be seen in the photo above to stand for something close to this at Byrne) is the lean-manufacturing practice of organizing the workplace so that needed tools are easily found and easily put to use. To the employees accustomed to Byrne’s previous level of organization, implementing 5S seemed like needless fussing.

The sister company that makes office furniture hardware is Byrne Electrical, which was the source of nearly all of the shop’s moldmaking work until that business dramatically declined in the early 2000s. Just after the dot-com crash, office furniture was suddenly not a lucrative business to be in.

At that time, the owners of the Byrne companies committed both businesses to lean manufacturing. For Byrne Electrical, this would be a way to achieve much-needed cost savings. Byrne Tool & Die’s team members felt dragged along in this commitment, Mr. Baker says, because they expected to find work in other industries to make up for the decline in the furniture-related business. What they did not yet realize was how valuable lean would be in the effort to do this.

One development in particular brought this realization home. Despite internal resistance to 5S, Byrne succeeded over the course of nearly two years at getting the shop better organized and strikingly cleaner and tidier than it used to be. A prospective customer who quietly visited around this time toured the shop and gave no sign of his impression—until he later awarded his company’s considerable moldmaking business to Byrne.

In an email, he explained the reason for his decision. The European owners of his own company had fastidious standards, he said. Byrne Tool & Die was not the cheapest moldmaker he had found, but it was the only mold shop he had visited that was clean and organized enough that he could imagine showing it to his superiors with pride.

Mr. Warwick says he printed out several copies of that email. He made sure that everyone in the shop saw it.

Meanwhile, a second development revealed the power of process improvement and the extent of the Byrne team members’ ability to make change. In the course of the shop’s progress toward greater organization and standardization, Mr. Baker says there came a point when the team had to confront one of the shop floor’s greatest sources of variability: individual employee toolboxes. These toolboxes were inherently unorganized and they certainly were not standardized, he says. Allowing every shop employee to possess a self-created and self-organized workspace produced a system of needless complexity, clutter and, in many cases, redundancy. In keeping with the aim of simplicity, this system had to be replaced with a system of standard workbenches, in which some tools were removed from individual work areas altogether and instead placed within reach at the point of use.

Of course, this change was the step in 5S that met with the greatest resistance of all.

Byrne obtained new, standardized workbenches that came mounted on wheels. The promise to each employee was that these benches could be wheeled over to the machine tools, just like the individual toolboxes had been. That is, if employees wanted to use these standard workbenches as the basis of personal work areas near the machines, they could do that.

But that’s not what happened. Instead, in spite of the wheels, these benches have practically never budged. The staff discovered that in fact it is more useful to keep the individual benches clustered together in pairs, creating a double-size surface that multiple employees can share. The large surfaces not only provide for expansive working space, they also facilitate communication and collaboration because employees doing their work now come together at these combined tables. Thus, the aim of tidiness through standardization was achieved, and along the way, the shop also realized a system that works better to a surprising degree. The consensus throughout the shop is that the added bench space plus the aid to communication makes tasks easier to such an extent that work in general flows more easily.

That development was eye-opening. Individual toolboxes had been a deeply ingrained and long-standing part of the shop’s culture. Seeing this inefficiency overcome showed the shop’s team that it could overcome practically any other inefficiency as well. Even if the price of an improvement was an uncomfortable cultural change, the shop could make that change and see everyone through to the other side of the discomfort. Then, after the transition was past, the shop would get to reap the benefits of the process improvement thereafter, benefits that were likely to be even greater than the shop could have anticipated before making the change.

Beyond Lean

It was soon after this improvement with the workbenches that the shop stopped talking in terms of lean and began talking and thinking instead in terms of CSM. Not everything that seemingly saves time or saves effort contributes to better manufacturing. After all, wheeling the workbenches to the machine tools would have been more “lean,” in the sense that this relocation would serve to minimize employee motion and effort. But part of the reason why the workbenches stayed grouped together is because the collaboration encouraged by the common space is valuable enough to be worth some added motion and effort.

That was the realization that led to one of the stranger features of this shop: a collective bank of CAD/CAM computers that looks like it ought to be called “CAM Island,” except that islands are what this shop used to have back when programming PCs were located at each of the separate machine tools. Again, programming tool paths right beside the machine tools is arguably efficient, because the employee who hits the start button on the current job doesn’t have to move far to begin programming the next one. However, Mr. Baker says the problem with this arrangement is that it leaves employees isolated. They don’t ask questions about seemingly small matters because no one is nearby to hear the question. Clustering CAM stations together addresses this problem, because it creates an open and easy context for communication. When one employee is programming a job at one of the computers, usually there are at least one or two other employees present who are programming a job as well. A little chatter is a natural part of this proximity, and technical questions get asked and answered as a natural part of this interaction. Knowledge is shared effortlessly, and that helps the whole shop.

What’s more, relationships improve, says Mr. Baker. No one notices this happening because the effect is so gradual. But because of the shared space and the shared forum for asking questions about programming, an employee who might feel comfortable asking just one particular coworker his questions might find his trust expanded to the rest of the staff as a result of various other coworkers providing helpful input within the conversation.

This kind of collaboration and this kind of trust are key to the ongoing success of CSM. Again, the entire system depends on some employees leaving the shop floor for days at a time while other employees do the day-to-day work in their place. This system works without resentment and without friction only because everyone trusts in the value of what these CSM teams are doing, company leaders say. The habit at Byrne is simply to treat the employees involved in CSM events as though they are on vacation. As strange as it might seem to cluster CAM stations together, or as notable as any process improvement in the photos throughout this article might seem, the cultural shift in this shop is actually the most significant development of them all. Every team member here understands that making molds is not the full extent of the work. Improving the process for making molds is also an expected part of every employee’s job. 

Learn about Makino.

Learn about Single Source Technology.

The Carbide Inserts Website: https://www.estoolcarbide.com/product/for-cast-iron-lathe-turning-tools-cemented-carbide-turning-inserts-cnmg-series/ Engineers and Manufacturers Invited to Take Part in Girl Day

Walk into Byrne Tool + Design and, if you have spent time in mold shops, you sense at once that this mold shop is different from others.

Why RCMX Insert is this?

The answer is not immediately apparent. Machining centers and EDM machines make cores and cavities. Employees tend those machines and assemble finished molds. That much is the same as in any other moldmaking facility.

But look more closely and the differences come into view. In this shop, there are no individual toolboxes—standardized workbenches have replaced them. There are no computers for CAM programming near the machines, but instead there is a set-apart programming station where employees come together. Nor is there seldom-used legacy equipment or tooling taking up space, because what isn’t used has been cleared away.

On the machine tools in this shop, there are no blueprints affixed with magnets or even any greaseboards. Machines instead have touchscreen monitors providing access to job information in Google Docs. And above the Cemented Carbide Inserts shop floor, no banner proclaims a slogan. Instead, large monitors show real-time graphical displays of machine-tool utilization.

All of these developments, and many others like them, are less than a decade old. In fact, most of them are considerably more recent than that. Just over 10 years ago, this was a very different shop, says Byrne Tool + Design Operations Manager Andrew Baker. It was essentially a captive shop, getting nearly all of its business from a sister company making power and data hardware for business furniture. Byrne was also an inefficient shop, he says, though he would not have thought of it that way at the time.

Today, the shop is spacious and clean. It has reinvented itself to cater to a particular type of customer: design-oriented OEMs with tight leadtime demands. The shop’s process is disciplined and streamlined enough to reliably surpass the expectations of this class of customer, and as a result, the shop is no longer captive. Business today comes from industries including automotive, consumer products and medical devices.

Throughout the pages of this article, photos illustrate various manufacturing improvements that Byrne has made. Some of the improvements are large and some are small. Some are simple and some are unusual. The reason why pages of photos are the best way to convey the shop’s advance is because not one of these improvements by itself would be enough to set the shop apart. Instead, what has transformed this shop over time is the commitment to keep making the effort and taking the time to conceive and implement changes such as these, no matter how heavy the normal workload gets. That commitment—keep improving no matter what—is this shop’s simple secret.

“Common sense manufacturing,” or CSM, is Byrne’s term for this commitment. Any recurring cause of error, delay or inconsistency in the process is a potential candidate for a “CSM event” in which a team of employees breaks away from regular production in order to focus its attention on one problem and recommend a solution.

For every CSM event, the mix of employees is different. The solution they recommend might entail a hard investment or a departure from old habits. The culture of this shop has grown accustomed to the fact that any procedure or piece of equipment on the shop floor might change in order to overcome an identified inefficiency. More importantly, the culture has changed to expect CSM events as a non-negotiable priority. Every employee is a potential participant in a CSM event, and even the employees not involved in a given CSM event still support it, because they are covering for the team members who are not available for work on the shop floor throughout the two- to three-day event.

“We want eight to 10 CSM events per year,” says company General Manager Tim Warwick. Continual improvement is not optional, no matter how busy the shop gets.

One of the most recent changes is the shop’s name. Byrne Tool + Design is the former Byrne Tool & Die. The new company name is written with a plus sign instead of an ampersand, because the “+” has become the company’s brand. The idea is that the company will be a tool shop “plus” something more, say company leaders, and that “plus” is likely to be different for different customers and to change over time. The very same mindset also fits the company’s new perspective on manufacturing, in which the search for the next incremental “plus” in shop performance has become a routine part of operations.

Mr. Baker says it all began very simply, with a commitment to implement the basic lean manufacturing practice of 5S. The mandate to adopt 5S came from above, he says, and he admits that he and the rest of the shop followed along only halfheartedly. Things changed when the results of this practice directly brought new business the shop otherwise would not have won.

Beyond Toolboxes

“Do you want me to make molds or do you want me to clean?”

That objection, or words to that effect, haunted the entire first year of Byrne’s attempt at lean manufacturing. 5S, which commonly stands for “shine, sort, simplify, standardize and sustain” (and can be seen in the photo above to stand for something close to this at Byrne) is the lean-manufacturing practice of organizing the workplace so that needed tools are easily found and easily put to use. To the employees accustomed to Byrne’s previous level of organization, implementing 5S seemed like needless fussing.

The sister company that makes office furniture hardware is Byrne Electrical, which was the source of nearly all of the shop’s moldmaking work until that business dramatically declined in the early 2000s. Just after the dot-com crash, office furniture was suddenly not a lucrative business to be in.

At that time, the owners of the Byrne companies committed both businesses to lean manufacturing. For Byrne Electrical, this would be a way to achieve much-needed cost savings. Byrne Tool & Die’s team members felt dragged along in this commitment, Mr. Baker says, because they expected to find work in other industries to make up for the decline in the furniture-related business. What they did not yet realize was how valuable lean would be in the effort to do this.

One development in particular brought this realization home. Despite internal resistance to 5S, Byrne succeeded over the course of nearly two years at getting the shop better organized and strikingly cleaner and tidier than it used to be. A prospective customer who quietly visited around this time toured the shop and gave no sign of his impression—until he later awarded his company’s considerable moldmaking business to Byrne.

In an email, he explained the reason for his decision. The European owners of his own company had fastidious standards, he said. Byrne Tool & Die was not the cheapest moldmaker he had found, but it was the only mold shop he had visited that was clean and organized enough that he could imagine showing it to his superiors with pride.

Mr. Warwick says he printed out several copies of that email. He made sure that everyone in the shop saw it.

Meanwhile, a second development revealed the power of process improvement and the extent of the Byrne team members’ ability to make change. In the course of the shop’s progress toward greater organization and standardization, Mr. Baker says there came a point when the team had to confront one of the shop floor’s greatest sources of variability: individual employee toolboxes. These toolboxes were inherently unorganized and they certainly were not standardized, he says. Allowing every shop employee to possess a self-created and self-organized workspace produced a system of needless complexity, clutter and, in many cases, redundancy. In keeping with the aim of simplicity, this system had to be replaced with a system of standard workbenches, in which some tools were removed from individual work areas altogether and instead placed within reach at the point of use.

Of course, this change was the step in 5S that met with the greatest resistance of all.

Byrne obtained new, standardized workbenches that came mounted on wheels. The promise to each employee was that these benches could be wheeled over to the machine tools, just like the individual toolboxes had been. That is, if employees wanted to use these standard workbenches as the basis of personal work areas near the machines, they could do that.

But that’s not what happened. Instead, in spite of the wheels, these benches have practically never budged. The staff discovered that in fact it is more useful to keep the individual benches clustered together in pairs, creating a double-size surface that multiple employees can share. The large surfaces not only provide for expansive working space, they also facilitate communication and collaboration because employees doing their work now come together at these combined tables. Thus, the aim of tidiness through standardization was achieved, and along the way, the shop also realized a system that works better to a surprising degree. The consensus throughout the shop is that the added bench space plus the aid to communication makes tasks easier to such an extent that work in general flows more easily.

That development was eye-opening. Individual toolboxes had been a deeply ingrained and long-standing part of the shop’s culture. Seeing this inefficiency overcome showed the shop’s team that it could overcome practically any other inefficiency as well. Even if the price of an improvement was an uncomfortable cultural change, the shop could make that change and see everyone through to the other side of the discomfort. Then, after the transition was past, the shop would get to reap the benefits of the process improvement thereafter, benefits that were likely to be even greater than the shop could have anticipated before making the change.

Beyond Lean

It was soon after this improvement with the workbenches that the shop stopped talking in terms of lean and began talking and thinking instead in terms of CSM. Not everything that seemingly saves time or saves effort contributes to better manufacturing. After all, wheeling the workbenches to the machine tools would have been more “lean,” in the sense that this relocation would serve to minimize employee motion and effort. But part of the reason why the workbenches stayed grouped together is because the collaboration encouraged by the common space is valuable enough to be worth some added motion and effort.

That was the realization that led to one of the stranger features of this shop: a collective bank of CAD/CAM computers that looks like it ought to be called “CAM Island,” except that islands are what this shop used to have back when programming PCs were located at each of the separate machine tools. Again, programming tool paths right beside the machine tools is arguably efficient, because the employee who hits the start button on the current job doesn’t have to move far to begin programming the next one. However, Mr. Baker says the problem with this arrangement is that it leaves employees isolated. They don’t ask questions about seemingly small matters because no one is nearby to hear the question. Clustering CAM stations together addresses this problem, because it creates an open and easy context for communication. When one employee is programming a job at one of the computers, usually there are at least one or two other employees present who are programming a job as well. A little chatter is a natural part of this proximity, and technical questions get asked and answered as a natural part of this interaction. Knowledge is shared effortlessly, and that helps the whole shop.

What’s more, relationships improve, says Mr. Baker. No one notices this happening because the effect is so gradual. But because of the shared space and the shared forum for asking questions about programming, an employee who might feel comfortable asking just one particular coworker his questions might find his trust expanded to the rest of the staff as a result of various other coworkers providing helpful input within the conversation.

This kind of collaboration and this kind of trust are key to the ongoing success of CSM. Again, the entire system depends on some employees leaving the shop floor for days at a time while other employees do the day-to-day work in their place. This system works without resentment and without friction only because everyone trusts in the value of what these CSM teams are doing, company leaders say. The habit at Byrne is simply to treat the employees involved in CSM events as though they are on vacation. As strange as it might seem to cluster CAM stations together, or as notable as any process improvement in the photos throughout this article might seem, the cultural shift in this shop is actually the most significant development of them all. Every team member here understands that making molds is not the full extent of the work. Improving the process for making molds is also an expected part of every employee’s job. 

Learn about Makino.

Learn about Single Source Technology.

The Carbide Inserts Website: https://www.estoolcarbide.com/product/for-cast-iron-lathe-turning-tools-cemented-carbide-turning-inserts-cnmg-series/

Machining accuracy of cemented carbide tools

Nowadays, with the rapid development of science and technology, you must have heard of the conception Tungsten Carbide Inserts of Cloud manufacturing, whatever you work in the manufacturing industry or others. Therefore, there’re lots of reasons to get acquainted with it from comprehensive viewpoints.

How does it work? How does it help the producers? Why will it bring the great transformation of the manufacturing industry? Let’s explore it together here.

What is Cloud Manufacturing?

Cloud manufacturing is a new concept based on the opinion of “manufacturing as service”, which borrows the idea of cloud computing. Cloud manufacturing is the cross-integrate product of advanced information technology, manufacturing technology, and the emerging Internet of Things technology, which is the embodiment of the concept of manufacturing as service. Cloud manufacturing adopts cutting-edge Carbide Inserts concepts of contemporary information technology, to support the manufacturing industry to provide high value-added, low-cost, and global manufacturing of products in extensive network resource environments.

Who Puts forward the Conception?

In 2009, Bohu Li Chinese, an academician of Chinese Academy of Engineering, and Professor Lin Zhang, the Vice Dean of School of Automation Science and Electrical Engineering, Beijing University of Aeronautics and Astronautics leading the research team, were keenly aware of the deep integration of advanced information technology and manufacturing industry, such as cloud computing, IoT would bring profound change to the modern manufacturing industry, and took the lead in the international arena to put forward the concept of “cloud manufacturing”.

With the conception of cloud manufacturing being introduced, it immediately attracts great attention in the area of academic and business circles. It seems to bring hope to the Chinese manufacturing industry stuck in the hardships. People ponder over its significances for how Chinese manufacturing moves from a big manufacturing country to a manufacturing power while expecting it will bring deep influence on the pattern and format of the Chinese manufacturing industry.

How Cloud Manufacturing Works

Cloud manufacturing aims to avoid the waste of resources, taking over the idea of cloud manufacturing, using information technology to attain the manufacturing resources sharing to a high degree. Companies don’t have to spend high costs on purchasing the machine equipment and consulting on leasing manufacturing capabilities through public platforms to purchase manufacturing.

If there weren’t more barriers, cloud manufacturing would integrate all full life cycle-related resources such as product development, production, uses, and selling, etc, and provide standard, specific, and sharable manufacturing modes. This kind of manufacturing mode enables manufacturing customers to use various services as easily as water, electricity, and gas.

7 Typical Features of Cloud Manufacturing

Nowadays, there is a wide range of cloud manufacturers. Therefore, it’s necessary to find a reliable partner that has all the features that can demand your factory’s production needs. It sounds fine if you happen to find a company that has done a project or work for similar companies when you want to make a prototype. At this time, you can directly visit the factory and check their production equipment & facility, and warehouse. It helps you to avoid some trivial things and focus on production.

Instant Quotes

Cloud manufacturing greatly enhances the efficiencies of instant quotes and optimizes resource allocation. You don’t have to spend more time sitting in front of computers waiting for a quote via email. It helps engineers to shorten the time spent on communication and making engineering drawings. All you need to do is just find a manufacturer who offers real quotes online, and uploading your all files, and clarify the requirements you’d like. For example, may directly ask your potential partner to demonstrate the prototype management and quoting and management software. Engineers can put their energy into value-adding activities.

Meanwhile, the intelligent quoting systems are constantly accumulating precise data to improve the pricing process further.

Transparent Online Project Management Tracking

Thanks to cloud manufacturing, the status of your project can be completely visible. You may easily make some changes and review the results at any time. The powerful reporting can help you to evaluate the vendors, which is easy to use and available on any device.

Inventory Storage and Management

Some cloud manufacturing companies also provide inventory storage and management services. Once your product is set up, your partner will keep it for you You don’t have to worry about the storing space until it is delivered while it can track your stockings in the long distances.

Flexible

Cloud manufacturing brings a great variety of capabilities to one place according to different manufacturing platforms.

The parts usually will be distributed to manufacturers who are equipped with carrying out the jobs. Therefore, a supply chain is highly configured and not stable, reducing the reliance on some connections and partnerships.

Besides, automatic systems can select the best production partner in terms of quality, and shorten goods delivery to minimize the costs and the environmental influence.

Production System

Quality is one of the most countable factors when the customers are looking for manufacturing. However, it’s not easy to find excellent suppliers. Some cloud manufacturing is just gathering more partners together. On the contrary, others try to make some surveys and do lots of order tests.

Manufacturability

Providing instant quotes only needs a complex system that can evaluate the uploading files. It also means that the platform can provide a quote for the parts that are impossible to machine.

Some parts are easily manufactured in CAD,but are impossible to get by bending.

Evaluating the manufacturability needs to consider the geometry. When the results are positive, the platform can only show the price.

In the current development stage, cloud manufacturing still has some limitations. Above the problems that appeared are not the final answers.

Shared Accounts

Anyone can have free access to procurement information. In traditional back-and-forth emailing workflows, the information is not transparent for every related person. However, when we have a cloud manufacturing system, anyone involved in the project can see the projects at any time.

This allows the entire team members to work on one project without keeping each other constantly updated.

The Pros and Cons of Cloud Computing for Manufacturing

Is it worth moving the cloud manufacturing platform? Of course, there are not 100% accurate answers, because each company has its own unique needs and goals. So, before we make the final decision, let’s get to know its benefits and risks.

Pros

? ? ? Off-site Management?

A third-party provider can maintain the online store elsewhereSafe storing can avoid unpredictable fire or other physical threatsDon’t have to employ specified IT employers to supervise the network

? ? ? Instant Connections

Data can be shared and accessible at any time, anywhere and on any deviceNo trouble or worries for cross time zones and geographic locations

? ? ? Speed

Ability to get instant data no matter where you are in the factory or the front of the computer

? ? ? Rapid Deployment?

Bypassing the trivial tasks of evaluating data demands, investing in data centers, and maintaining systems

? ? ? Scalability

Almost without unlimited capacityOnly requires payment can demand what you want or needCan add extra storage even if it’s during the offseason

? ? ? Lower Costs

Customers can pay by the monthDon’t have to invest extra energy on maintaining it, or rely on inner technical employment

? ? ? Environment Friendly?

Low energy consumption and reduced carbon footprint.

? ? ? Long Using Lifetime

You won’t lose your data when you want to move your companyThe providers will constantly upgrade their latest technology

? ? ? Security and Recovery

Your all-important files or information have backup copies at a remote location and don’t worry that it will suddenly disappear

Cons

? ? ? Lifetime Costs

With the development of new technology, the providers sometimes will add up the price of the system, which cause the costing is far more than on-premise data

? ? ? Security Breaches

The internet is full of danger and cannot guarantee 100% safety for your data.Unavoidable malwares’ appearance and sensitive data are not completely exposed to the third-party provider

? ? ? Limited Speed

The local internet connectivity is not always fast. If it’s slow, it would influence the customer’s experience?

? ? ? Risks of Unexpected Downtime?

Suddenly outage may cause costly halt production and influence deliverables

? ? ? Compliance?

Everyone has their tempers, sometimes it cannot demand everyone’s needs

? ? ? Not Customizable

Some firmware sometimes will control your limiting when the software updateVendors also will be locked in-you cannot freely switch between services

Applications of Cloud Computing in Manufacturing

Cloud manufacturing enables to offer of a great variety of solutions to the process of each part ( from marketing to production ) in the manufacturing industry. Incorporating cloud computing in multiple operational areas can increase its merits. Here, let’s look at the common applications of cloud manufacturing in the manufacturing industry as follows:

Marketing in the Clouding

As we know, cloud manufacturing has a noticeable feature of comprehensive leads to easily promote the development of complicated marketing campaigns. The manufacturers use the app is based in the cloud to assist in the planning, carrying out, and managing of marketing activities. The manufacturers also track the effectiveness of the marketing activities through the data uses of production and sales.

Product Development

Generally speaking, product planning and development are closely related to production. Manufacturers can make better operation preparations for full production through integrating product development and planning into the supply chain data and communication. By full integration, products can shift from creative ideas to engineering to prototype to low volume production and the last large batch production and faster shipping.

Production and Stocking Tracking

Once production starts, cloud manufacturing can bring huge conveniences to the process of product production and stocking products. With the company’s ERP software, cloud manufacturing can match the production level with the stocking goods that are available for sales. This software can manage quotations, order receipts, and customer requests. By the use of standard products to track, it can minimize errors, and reduce the order cycle times.

Production Management

Not all manufacturers can maintain the same production level of all products all year round. To meet the constant change needs of the market, manufacturers can spy when the production changes by the apps based in the cloud. Besides, those software solutions allow communication throughout the supply chain, ensuring the manufacturers can check the numbers of required raw materials and easily update the orders to match with the future production level.

Who Needs Cloud Manufacturing

The traditional manufacturing method is okay for those large-scale companies who need over 100 thousand pieces of products. However, it’s not applied to small businesses, enterprises, engineers, and hobbyists. This new method of hardware manufacturing opens a prosperous path for the previous groups.

Small Businesses

Small and expanding businesses generally don’t have the requirements to get reasonable pricing from large companies. They often also bear the financial pressures, making the large stocks be a big problem while timely delivery is necessary. Cloud manufacturing can support the needs of small businesses and the transporting fees are also affordable. The best way to solve the problem is by providing the services of storing transporting, and API to realize the fully automatic order. Customers can purchase the goods without depending on the companies’ deliberate arrangement. This creates an excellent good experience, reducing the costs and team co-workers can more focus on strategic business needs. In shorts, for small and medium enterprises, business growth is based on cloud manufacturing is very crucial.

Entrepreneurs

It’s well-known that cloud manufacturing has a striking feature in reducing the go-to-markets. Today, some people sole with an idea can bring it into reality without having a complex relationship with the previous industry. They can easily find the best pre-vetted suppliers nearby or long distances, depending on the final product delivery destination. Manufacturing in the cloud has somewhat helped you to sell products worldwide from the get-go. It makes it possible for to everyone can easily set up their online shops. They don’t have to build up large stocks and start transporting those things from a faraway warehouse anymore. The way to make the customers quickly get the products is to let enterprises nearby and close the idea of renting a warehouse. These modes cover the slightly higher costs of lower-volume production, as well as reducing the risks of large stocks.

Cloud manufacturing can support both final prototyping and product delivery, which enables today’s enterprises to have access to a cheaper and timely way to bring their creative design to life.

Engineers

Sometimes, it is also harder for large institutions to manufacture prototypes that want great results with low costs when they have created new product ideas. Similarly, some engineers are also faced with such a headache and have to take care of the manufacturing outsourcing work. If you had only ordered one unit even if you are Foxconn, Google, and Apple, some large-scale operations also would ignore you. However, manufacturing in the cloud can solve and avoid problems. It’s because the quotation system- pay-as-you-go system without “going anywhere” in the cloud manufacturing is free, and helps companies and engineers to optimize the design costs to reduce the costs when comparing the materials, thickness, and different layouts.

Most cloud manufacturers would be glad to help you deal with the issues until you get the results you want.?

Hobbyists

The Make movement makes everybody possibly become an inventor, a designer, and a creator in all walks of life. Countless new and innovative ideas have turned into realities due to 3D printing. Likewise, cloud manufacturing helps hobbyists to improve their projects to reach a new level and makes their automatic assembly works possible.

They only can seek help from a supplier who can guarantee quality for only a small one-time order.

Conclusion

Cloud manufacturing as a core part of the Industrial Internet of Things, the industrial cloud platform can flexibly achieve the deployment and delivery of cross-regional industrial information services. It has gradually become the focus of modern mechanical engineering competition. Some of the large manufacturing companies have extended their business into many areas of the industrial Internet field.?

As a professional rapid prototype manufacturer, WayKen will utilize advanced manufacturing technology to better serve your machining projects.

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