CARBIDE INSERT,DRILLING INSERT,CARBIDE INSERTS

CARBIDE INSERT,DRILLING INSERT,CARBIDE INSERTS,We offer round, square, radius, and diamond shaped carbide inserts and cutters.

2024年01月

Vero Software will tungsten carbide inserts demonstrate WorkNC 2017 R1, which features a new parallel finishing tool path Deep Hole Drilling Inserts that the company says has achieved cycle-time reductions of as much as 80 percent. Based on Vero’s new Advanced Toolform technology, parallel finishing toolpath calculations take into account the physical geometry of cutting tools, including high-feed, standard and convex tooling.

Among other updates in this version of the CAM software is a dynamic calculation queueing function, which is said to deliver significant time savings by enabling users to accomplish more tasks within a shorter time frame. Operators can generate multiple tool paths, run postprocessors and check for eventual toolholder collisions without waiting for calculations to finish.


The Carbide Inserts Blog: https://wcmtinsert.bloggersdelight.dk

Allied Machine & Engineering announces the release of its newest GEN3SYS XT Pro high-penetration insert designed specifically for beam and plate production in the structural steel market. With an exclusive combination of substrate and multilayer Deep Hole Drilling Inserts coating, the insert is engineered to withstand heat generated while drilling in structural steel beams or plates in high production facilities. Optimized in its existing structural steel holders, Allied’s high-tech structural steel insert improves chip formation and reduces vibrations creating a higher-quality hole.

The unique composition of carbide grade, geometry and high-temp coating are designed to run at or beyond current OEM rates while offering extended tool life. The insert’s simplified setup Carbide Aluminum Inserts and extended tool life reduces changeover and increases throughput.

“During beta testing customers reported significant reduction in noise as well as less signs of heat.” Explains Andrew Pisorn, product manager for Allied’s GEN3SYS XT Pro product line. “We’ve optimized the design of this particular insert to give machine shops and manufacturers a competitive advantage in structural steel holemaking. From better run rates and less tool failures, the stability of this insert provides increased capacity and most importantly increased profit for the customer.”


The Carbide Inserts Blog: http://cncinserts.blog.jp/

We hold regular tooling-productivity training courses for engineers and programmers who specify tooling. I have been involved in hundreds of these sessions during the past 19 years. Based on the most frequent questions I have heard from Carbide Aluminum Inserts students during this time, I have arrived at ten general tips for tooling productivity. Some of these may be old hat to you, but one or two may give you a new insight that might lead to improved metalworking productivity where you work. Here are my "Top Ten" tips:

1. Focus on minimizing the overall machining cost of the part, not just tooling cost. Tooling represents only about 3 percent of total part cost, much less than machine time or machine labor. Follow the real money. Focus on the 97 percent that's all about time and not about tooling price tags.

2. When engineering a new process or troubleshooting an existing one, target four main areas and set clear and measurable goals for each. Those areas are cycle time, tool life, part quality and surface finish. Rank these by priority. Also, share your goals and priorities with your vendors, so they can give you better answers sooner.

3. Understand the forces involved in cutting metal and use these forces to your advantage. Cut in a direction that improves the rigidity of the setup. Consider reducing the depth of cut to convert radial forces into axial forces. Then increase the feed rate to take advantage of the higher axial rigidity.

4. Take advantage of tool geometry to improve throughput. For example, on lead-angle cutters, increase the feed rate to achieve the maximum recommended chip thickness.

5. When troubleshooting, determine whether you have a process problem or a tooling problem. Don't be too quick to blame the tool. Instead, use the mode of tool failure as a clue to the root problem. A chipped edge could indicate use of the wrong carbide grade or excess "play" in the machine or fixture, which would wreck any tool. Look at machine rigidity, feed, speed, depth of cut, presentation angle, chip clearance and coolant. If the problem lies with the tooling, changing the tool will fix it. If the problem lies with the process, it probably won't matter what tool you use.

6. Question the process. Sometimes the right answer is an unconventional approach. On larger holes in one-off or short-run work, milling a hole from solid with helical milling often makes more sense than drilling it, because large-diameter drills are more expensive and less versatile. Another example of an unusual approach that may be worthwhile is plunge milling, which removes material four times faster than slab milling on average.

7. Understand heat—where it comes from and how it can help you or hurt you. Metalcutting will always generate heat, not all of it from friction. When machining steel in particular, you want just enough heat to soften the workpiece material and form good chips. Avoid heat levels that can trigger hardening reactions in the material, overheat the tool or decarburize (crater) the insert.

8. Match tool geometry to the material being cut. Especially in job shops handling a variety of workpiece materials, beware of "general purpose" tooling. Take the time to change tools when you change materials. You'll get more throughput and make more money. Again, the price tag on the tooling is the least important part of the process-economics equation.

9. Plan the cutter path to maximize rigidity and take advantage of higher feed rates.

10. Return to school. Companies that send the same engineers and programmers back to our classes say tungsten carbide inserts they see a return on their investment each time. And that return comes fast, usually within weeks of employees completing the class. They come back to the shop excited about applying what they've learned right away. Some of the excitement rubs off on co-workers.
Another reason to return to school is to keep up with what's new in tooling. If you've tooled a job the same way for more than 3 years, odds are that there's a better way that will make you more competitive.

About the author: Dave Eisele is customer training manager for Ingersoll Cutting Tools of Rockford, Illinois.


The Carbide Inserts Blog: https://blog.goo.ne.jp/markben

このページのトップヘ