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Tuesday, November 13, 2012
Friday, June 29, 2012
Professional Sales Position
Our company is growing and looking for motivated people to help drive our sales! Apply today to become part of our highly successful team!
Job Profile
American Cutting Edge,
A Division of CB Manufacturing & Sales
Centerville, OH
Job Summary:
- Prospecting for new customers
- Negotiating and closing sales.
- Professional and goal driven
- Three to five years B2B sales experience preferred.
- Mechanical aptitude as we sell industrial razor blade products
- Proficient with Microsoft Office and Outlook, ACT!, and MAS
- Telephone sales work, both outbound and inbound.
- Experience selling to or through industrial distributors and end users a plus.
- Developed overcoming customer resistance and objections to buying strategy.
- Some travel may be required
- 4+ year college degree or equivalent.
We are a distributor of industrial razor blades and related hand tools. Our company is fundamentally a “Selling Machine” offering stocked items for same day shipment and custom blades.
Compensation / Benefits:
The position provides full benefits, excellent working conditions and offices and will pay a salary and performance based bonus. Pay is commensurate with experience.
How to apply:
E-mail your Resume with Cover Letter to: tcoble@americancuttingedge.com or fax to: 888-900-9136
Please view our website at: http://www.americancuttingedge.com/
Tuesday, April 17, 2012
American Cutting Edge (part of the BiehnCo Family of companies) participated in their first ever company sponsored 5K, last weekend. The Spring Into Health 5K at Kettering College provided a challenging run/walk for most of BiehnCo. However, our sales manager, Josh was able to hold on and win 1st place in his age group. Way to go!
Thursday, October 6, 2011
Wednesday, September 28, 2011
The Many Uses For Hobby Blades
Give more detail to your next model build or craft project.
Hobby Blades have as many uses in today’s hobby and craft market as there are styles of
them. Not only are hobby blades used by hobby and craftenthusiasts the world over, but they are also employed by industrial manufacturing companies from New York to California and all the way to China. Hobby blades are primarily used by hand for intricate trimming and precise dissection of small electronics, plastics, battery materials, woods, films, foils and many other products.
Artists use hobby blades for cutting, scoring, stenciling paper, wood, clay and wax.
They can be fixed in a standard hobby blade handle. Hobby blade handles come in a wide
variety of sizes and quality levels. Most blade handles will accommodate any hobby
blade.
You have no doubt seen hobby blades used in today’s popular “extreme” cake making
competitions to achieve their fine detail and artistry. Wherever a standard kitchen knife or
box cutter just won’t do, a hobby blade can make the ordinary, extraordinary.
While sharpness and material quality always plays a role in the quality of a cut, with
hobby blades, much of the end product is in the hands of the craftsman or worker who
wields them. Fine precision and intricacy is a benefit of these light duty tools and a
steady hand always helps!
There are dozens of shapes and sizes to choose from when selecting a hobby blade for your particular craft or project. This is why many companies offer hobby blade kits with a wide assortment of blades to choose from. Good luck on your next project, and don’t forget to pick up some hobby blades and add that finished touch to your work!
Thursday, September 22, 2011
Surface Grinding
Surface grinding is used to produce a smooth finish on flat surfaces. It is a widely used operation in which a spinning wheel covered in rough particles cuts chips of metallic or non metallic substance from a work piece to create a more polished, finished surface or create a functional surface texture.
You may not be aware of it, but American Cutting Edge's parent company, CB Manufacturing & Sales Co., Inc., is proud to be one of the best equipped sub-contract grinding facilities in the US, and we boast the largest Mattison grinder (132" swing) this side of the Mississippi----one of only three of this size in the States. Our grinder operators are craftsman with an average of over thirty years of experience and knowledge. We have customers in every state of the continental US who ship their sub-contract grinding to us for the unmatched capabilities and capacities of our sub-contract grinding department. A CB Manufacturing sales consultant is trained to help you make the best finish choice for your process. Adjusting the small nuances of your blades may extend knife life, reduce downtime and save you money.
A surface grinder is comprised of a wheel coated with an abrasive material, a chuck, which is a device designed to hold the part or parts in place, and a reciprocating table. A chuck can either be magnetic to hold metallic parts or vacuum to hold in place non-metallic parts. A reciprocating table is the work surface and has the ability to move back and forth.
There are three main types of grinders: horizontal, vertical, and disc. In horizontal, the grinding spindle has the axis parallel to the table and is oriented to the back and forth motion of the table. Horizontal grinders are used for high-precision work on simple, flat pieces. The flat edge of the wheel comes into contact with the part, creating the flat surface. In the vertical grinder, the face of the wheel is used on the flat surface and the spindle and grinding wheel travel up and down and side to side above the work piece. This is the workhorse of the grinders, allowing quick, rough removal of a lot of material quickly. Disc grinders have a larger contact area between disc and work piece and can be either horizontal or vertical in orientation. Disc grinders can achieve very tight tolerances.
Grinding wheels are manufactured of many materials, but the four most common are diamond, aluminum oxide, silicon carbide, and cubic boron nitride. The type of wheel used depends on the material being ground. Aluminum oxide, while economical and excellent on tool steels, would not be the right choice for carbides or ceramics. For either of those materials, the proper wheel would be a diamond coated grinding wheel, bringing the material's surface finish to an almost glass-like polish. During and after the process, grinding wheels are "dressed", a process that removes collected debris and sharpens the wheel in preparation for its next use.
Surface finish is determined by how a part will be used. An industrial knife may require a slick, manufactured lubricity that will reduce friction between the cutting surface and the material being cut and extend blade life. An engine part that will be lubricated by either a natural or synthetic substance, like oil, might be ground so that its surface is riddled with microscopic little pockets that capture the oil so it doesn't all slide away from the part.
Wednesday, September 14, 2011
Hardness vs Toughness
Getting the Best of Both Worlds
In the world of industrial razor blades, hardness is a desired quality. Usually, the higher the hardness, the greater the resistance to friction and abrasion and the longer the life of the blade. How do we define hardness? How does this differ from toughness?
Hardness vs. Toughness: Generally as hardness increases, toughness decreases. Toughness is desirable when blades are heavily impacted, hardness when a blade is exposed to corrosive or abrasive materials.
Hardness is related to the amount of carbon in steel. Often the lower the carbon, the higher the toughness. Also, some steels do not perform at lower hardness as they were designed for use at higher hardness.
Indentation hardness tests are primarily used in engineering and metallurgy fields. The tests work on the basic premise of measuring the critical dimensions of an indentation left by a specifically dimensioned and loaded indenter.
Hardness is a characteristic of a solid material expressing its resistance to permanent deformation. The Rockwell or Vickers hardness scales are most commonly used in the industrial blade industry.
Toughness on the other hand is the maximum amount of energy a material can absorb before fracturing, which is different than the amount of force that can be applied. Toughness tends to be small for brittle materials, because it is elastic and plastic deformations that allow materials to absorb large amounts of energy.
The key with industrial razor blades is finding that magical blend of hardness and toughness that will give a blade long life and good durability to stresses and impacts depending on the application. Tool steels like M2, D2 have these most ideal properties. However, you can create ideal qualities with different alloys of stainless or carbon steel as well.
Hardness of steels is typically achieved by heat treating processes. The carbon in the steel combines with various elements in the steel like Vanadium, Chromium, Molybdenum, Silicon etc. to form carbides and other crystalline structures. Steel by its nature becomes harder (and more brittle…less tough) when it is heat treated and quenched.
With Steels, putting together the right mix of materials is key, but how you treat or temper the material also plays a role in the toughness and hardness properties.
As we explained in American Cutting Edge’s January/February newsletter on coatings, often the combination of a “hard” steel and a wear-resistant coating can offer the user the best of both worlds.
One great example of extreme hardness but little to no toughness is carbide razor blades. While they have high endurance for cutting, they withstand very little impact or side load pressure.
Even with “exotic materials” like this you can achieve some level of toughness by working with different binders like cobalt or nickel. Each will add toughness as their concentration increases in the material make up. But you sacrifice some hardness for this.
To combat its lack of toughness, carbide is often brazed onto softer steels, allowing the steel to absorb the vibrations and impact while the harder carbide can retain its extreme wear ability with out fracturing.
For American Cutting Edge to really help a prospect with material selection, we need to know as much as possible about the application: what is being cut, what type of process is being used (i.e. slit cut, crush cut, shear cut, etc), is the application corrosive in any way?, is there a contamination that may influence the process? In addition, what type of failure mode is being experienced now? In other words, is the blade chipping, getting dull, breaking, corroding? By giving your salesperson as much information as possible, we can recommend other materials that may perform better.
In the world of industrial razor blades, hardness is a desired quality. Usually, the higher the hardness, the greater the resistance to friction and abrasion and the longer the life of the blade. How do we define hardness? How does this differ from toughness?
Hardness vs. Toughness: Generally as hardness increases, toughness decreases. Toughness is desirable when blades are heavily impacted, hardness when a blade is exposed to corrosive or abrasive materials.
Hardness is related to the amount of carbon in steel. Often the lower the carbon, the higher the toughness. Also, some steels do not perform at lower hardness as they were designed for use at higher hardness.
Indentation hardness tests are primarily used in engineering and metallurgy fields. The tests work on the basic premise of measuring the critical dimensions of an indentation left by a specifically dimensioned and loaded indenter.
Hardness is a characteristic of a solid material expressing its resistance to permanent deformation. The Rockwell or Vickers hardness scales are most commonly used in the industrial blade industry.
Toughness on the other hand is the maximum amount of energy a material can absorb before fracturing, which is different than the amount of force that can be applied. Toughness tends to be small for brittle materials, because it is elastic and plastic deformations that allow materials to absorb large amounts of energy.
The key with industrial razor blades is finding that magical blend of hardness and toughness that will give a blade long life and good durability to stresses and impacts depending on the application. Tool steels like M2, D2 have these most ideal properties. However, you can create ideal qualities with different alloys of stainless or carbon steel as well.
Hardness of steels is typically achieved by heat treating processes. The carbon in the steel combines with various elements in the steel like Vanadium, Chromium, Molybdenum, Silicon etc. to form carbides and other crystalline structures. Steel by its nature becomes harder (and more brittle…less tough) when it is heat treated and quenched.
With Steels, putting together the right mix of materials is key, but how you treat or temper the material also plays a role in the toughness and hardness properties.
As we explained in American Cutting Edge’s January/February newsletter on coatings, often the combination of a “hard” steel and a wear-resistant coating can offer the user the best of both worlds.
One great example of extreme hardness but little to no toughness is carbide razor blades. While they have high endurance for cutting, they withstand very little impact or side load pressure.
Even with “exotic materials” like this you can achieve some level of toughness by working with different binders like cobalt or nickel. Each will add toughness as their concentration increases in the material make up. But you sacrifice some hardness for this.
To combat its lack of toughness, carbide is often brazed onto softer steels, allowing the steel to absorb the vibrations and impact while the harder carbide can retain its extreme wear ability with out fracturing.
For American Cutting Edge to really help a prospect with material selection, we need to know as much as possible about the application: what is being cut, what type of process is being used (i.e. slit cut, crush cut, shear cut, etc), is the application corrosive in any way?, is there a contamination that may influence the process? In addition, what type of failure mode is being experienced now? In other words, is the blade chipping, getting dull, breaking, corroding? By giving your salesperson as much information as possible, we can recommend other materials that may perform better.
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