When you notice an opportunity that has never occurred to anyone else, there are certain steps to turning your vision into reality. You must formulate an innovative business plan, find funding, hire the right people to carry out the plan, and then step back from your role in the business at exactly the right moment.

Let’s take a look at these steps, and also at ways to avoid some of the most common mistakes new entrepreneurs make.

Step 1: Stay on Target – Stay Focussed:

A mistake often associated with the first step in Business is an entrepreneur’s inability to clearly and concisely convey his idea to others such as potential investors, partners or potential employees. An associated error is lack of focus. Clearly define your goals and strategies, then establish a timeline. Don’t let the other possibilities or hazy dreams distract you from achieving your goal.

Step 2: Be Realistic About Costs

Don’t underestimate the cost of starting your new businesses — you’ll just diminish your chances of success. Keeping your expenses under control is vital, but don’t confuse capitalization with costs. As we all know, There are many new businesses in the market who do not even have the funds for one year of expense. Under-funded new businesses are doomed to fail from the outset.

Step 3: Hire the People You Need, Not the People You Like

As tempting as it may be to staff your new business with friends and relatives, this is likely to be a serious mistake. If they don’t work out, asking them to leave will be very tough. One of your goals should be to find a manager who truly shares your vision, and to whom you can someday confidently hand the reins so that you can carry out the next step.

Step 4: Know When to Say Goodbye

A great entrepreneur knows when the time has come to leave the CEO/M.D. role. Its not easy, but it has to be done. Very few Business owners make great managers. Stepping back doesn’t mean turning your back on your business. Founders / Owners shouldn’t hesitate to re-insert themselves into their businesses when necessary

Source: Entrepreneur.com

“Wedge Anchor” is a generic term for a type of anchor used to fasten a variety of materials to concrete. Some companies have different brand names for their wedge anchors such as Kwik Bolt, Power Stud and Thunderstud. The different brands of wedge anchors all work on the same principles, are made from the same basic materials, and provide similar high quality performance.

What is a Wedge Anchor?

Wedge anchors consist of two separate pieces that are permanently pre-assembled into a single unit. The first piece is a carbon steel rod that is threaded for a portion of its length. The opposite end, the installed end of the anchor, has a necked-down diameter, or conical space, that tapers outward back to the rod’s full diameter.

The second piece of the wedge anchor is a steel clip, or sleeve, that is permanently assembled around the conical section of the rod. Each wedge anchor also requires a nut and washer to complete installation.

Wedge anchors can be used in numerous applications as long as the base material is solid concrete. Unlike many other concrete fasteners, the wedge anchor cannot be used in brick or block.

The wedge anchor is simple to use and is available in a wide variety of diameters and lengths. Wedge anchors can be used in both light and heavy duty applications. A 1/4″ x 1-3/4″ wedge anchor, for instance, would be utilized in a light duty application, while a 1-1/4″ x 12″ anchor would be used in a situation that requires a heavy duty anchor.

How Does a Wedge Anchor Work?

Again, wedge type concrete fasteners are designed for use in solid concrete only. They are designed to go into a pre-drilled hole in concrete. Once installed, these wedge anchors can not be removed without destroying the concrete. The size of the anchor is always equal to the size of the hole that needs to be drilled into the concrete. The tolerance between the hole and the anchor is very tight. As the anchor is hammered into the hole, the clip is recessed in the gap of the conical space, allowing the anchor to penetrate the hole. To set the anchor, the rod must be pulled-up (which occurs while the nut is being tightened), making the clip move outward on the tapered space, wedging itself between the rod and the wall of the hole.

Since the hole tolerance is critical in the performance of the wedge anchor, it is important that the correct drill and drill bits are used. A hammer drill should be used rather than a standard power drill because it creates a better quality hole. A carbide-tipped masonry bit should also be used because they are specifically designed for use in hammer drills and meet ANSI standards.

Wedge Anchor Holding Values

When anchoring into concrete, wedge anchors are an excellent choice because of their holding values. The holding power of the wedge anchor, as with any anchor, is always dependent on the quality of the concrete. As a rule of thumb, a safety factor of 4:1, or 25%, is generally accepted as a safe working load. Holding values are also derived from the depth of the embedment- the deeper the embedment, the better the holding values. The wedge anchor must be embedded into the concrete up to or past the minimum embedment depth to obtain published holding values. It is also essential to ensure that the anchors are not placed too close together or too close to an unsupported edge.

The pressure exerted on the concrete by a wedge anchor can be best described as cone-shaped, with the small end of the cone being the inserted end of the anchor and the large end of the cone being at the surface of the concrete. If two wedge anchors are set too close together, the pressure from the two anchors would intersect, decreasing the holding values of both anchors. These same factors apply when placing an anchor near an unsupported edge. It is possible for the concrete to crumble under pressure if the concrete anchor is placed too close to the unsupported edge.

The general recommendation is that an anchor should be placed no closer than five diameters from any unsupported edge. For example, a 1/2″ diameter anchor should be at least 2-1/2″ from any unsupported edge of concrete. Also, two anchors should never be set less than ten diameters from each other. That is, two 1/2″ diameter wedge anchors should be placed at least 5″ apart.

Determining the Correct Size Wedge Anchor to Use

The diameter of the wedge anchor required for an application usually depends on the size of the hole in the fixture to be fastened. The “fixture” could be anything from a 2×4 to a piece of angle iron, bracket or steel plate. The hole size in the fixture is most often determined by an engineer based on the necessary holding values for each particular application. It is imperative to ensure that the concrete wedge anchor fits through the hole in the fixture. A 1/2″ wedge anchor is, in reality, slightly larger than 1/2″.

Each wedge anchor diameter is available in a variety of lengths. The length required needs to be determined for each application and is dependent upon the thickness of the fixture to be fastened, plus the minimum embedment. To determine the length of anchor needed, simply add the thickness of the fixture to be fastened to the minimum embedment for the wedge anchor diameter being used, plus the thickness of the nut and washer (typically the diameter of the anchor is close to the thickness of the nut and washer).

This will give you the minimum length of anchor required. Using a longer wedge anchor than necessary will increase the holding values, but may increase your risk of drilling into rebar embedded in the concrete.

Wedge Anchor Installation

The installation of the concrete wedge anchor can be completed by following the steps below:

1. Determine the correct length of wedge anchor required to ensure that the minimum embedment is met and ensure that the wedge anchor fits through the hole in the fixture. The washer should also be larger than the fixture hole.

2. Using the hole in the fixture as a template, carefully drill your holes using a hammer drill and carbide-tipped masonry bit. The drill bit diameter should be the same as the wedge anchor’s diameter. It is imperative that the hole be cleared of all dust and debris. This can be accomplished by using a wire brush, compressed air or vacuum.

3. Place the washer and nut on the anchor, turn the nut a couple of turns. Not fully threading the nut protects the threads of the wedge anchor when hammering into the hole.

4. Insert the wedge anchor into the hole through the hole in the fixture.

5. Carefully hammer the anchors into each hole ensuring that the threads go below the surface of the concrete or past the edge of the fixture, and that minimum embedment is met.

6. Tighten the nut – finger tight. Use a wrench to tighten the nut 3 or 4 turns, or use a torque
wrench to ensure they are tightened to the required torque value. Do not over-torque, as the
anchor will either spin in the hole or pull out of the hole.

Please view this Wedge anchor installation video.

Wedge Anchor Torque Values

Wedge anchors require a minimum torque to set. Do not tighten the nut as tight as possible. When setting a wedge anchor, it is important that the nut only be screwed on finger tight. Each anchor diameter has a required torque value to which it must be tightened.

Length Identification Chart

Once the anchor is properly set, all that is protruding above the concrete is the nut, washer, and a portion of the threads. The diameter of the embedded anchor can easily be determined by simply measuring the stud. The length of the anchor, however, can be difficult to determine because the depth of embedment may not be known. To help identify the length of an installed anchor, an identification code has been developed. A letter is stamped on the end of the threaded portion of the wedge anchor to easily determine the length of the wedge anchor after installation. This letter corresponds to the overall length of the anchor (in inches).

Wedge Anchor Material Specifications

Concrete wedge anchors are available in different types of steel as well as different plating. The type of steel and plating to use is based on the application’s environment. Zinc-plated carbon steel wedge anchors are used in interior applications, where corrosion is not much of a factor. The anchor, nut, washer, and clip are all made of zinc-plated carbon steel. This type of plating is not recommended for use in ACQ treated lumber.

Hot-dipped galvanized wedge anchors are suited for exterior applications where corrosion from water or moisture is a concern. The anchor, nut, and washer are all made of carbon steel and are hot-dipped galvanized. The clip is made of 303 stainless steel. Hot-dipped galvanized wedge anchors are acceptable to use in ACQ treated lumber.

Wedge anchors are also produced in two grades of stainless steel. The 303 stainless steel has excellent corrosive characteristics for exterior applications and is resistant to many organic and inorganic chemicals, but should not be used in a salt water environment. The anchor is made from 303 stainless steel and the nut, washer, and clip are made of 18-8 stainless steel which is comparable to 303 stainless steel.

The 316 series of stainless steel has the best corrosion resistance and is typically used in harsh environments. The 316 stainless steel anchors can also be used in a salt water environment. All of the components in the 316 stainless steel wedge anchor are made from this resilient 316 steel.

Overview

Wedge anchors are an excellent choice when anchoring into solid concrete. These anchors have excellent holding values and are available in a range of materials and plating to meet the requirements of many applications. It is important to make certain that the correct diameter and length are used in each application to ensure that the wedge anchor is set properly and safely.

Article Written By:  Bob Carlisle, President of Concrete Fasteners
Tawny Sikon, Operations Manager

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There are many steel erectors each day constructing very similar structures. Those structures usually have problems that occur with many other projects the steel erector is working on. One of the problems that continually occurs is setting the anchor bolts.

These bolts can sometimes be tricky to deal with. Many times these bolts are set with their tops lower than the elevation they are supposed to be set at. Or the top of the bolt can extend the base plate and not allow full thread for the nut. This can certainly make it difficult, but as you gain more experience you will become better at dealing with these types of bolts.

When the anchor bolt is set low, many steel erectors call that, “short anchor bolts.” The best way of resolving it is by making the bolt longer. Now, you might ask, “how do I make it longer?” Well, the best way of extending the bolt is to thread couplers and weld extensions to the bolt.

Remember that anytime you are doing a correction you do need to consult with the structural designer. Consulting with the designer will help you make sure everything is done according to the designer’s special procedures so it is advised that you do consult the structural engineer.

(http://www.spe-wi.com/) provides Wisconsin steel erectors, reinforcing steel placement and precast concrete erecting services for a wide variety of customers.

Article Source: http://EzineArticles.com/?expert=Ryan_Coisson

Did you know that there are different lengths of anchor bolts? Do you know that there are different sizes of foundation bolts, for instance I’ve seen foundation bolts as small as 3/8 of an inch and as large as three quarters of an inch. It’s hard to imagine that we need so many different types of L bolts for our building foundation.

Now here’s something that even some builders have a problem with. It’s not a big problem, but I’ve seen contractors argue with structural engineers about which types of anchor bolts are actually going to be required for one particular project. Now remember, most builders don’t have the knowledge or the responsibility a structural engineer might have, about building foundation, especially if it ever failed.

The biggest problem with contractors and builders who think that they know more about building foundations and L bolts than the structural engineers or even the city engineers, should try to keep one thing in mind. They’re not responsible for any structural problems that were assembled according to the building plans, but the structural engineers are.

The next time that you’re looking at a set of blueprints and it calls out for a 7 inch minimum anchor bolt embedment, make sure that you purchase the right L bolt’s for that particular job. I’m not writing this article, because I’ve never seen this happen, I’m writing this article, because I know someone who installed the wrong anchor bolts on one of their projects. These L bolts were later removed as the city building inspector requested a correction for the change.

The building inspector found the problem and the contractor got the education. Even though the contractor knew better, he still got the education.

Seriously, Here’s an Excellent Home Inspection Ideas.

Foundation Damage Contractors That Can Make A Big Difference.

Thanks For Reading My Articles

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There is not much of a difference between horizontal and vertical milling machines. Both of these equipments are indispensable in cutting parts uniformly and quickly. These days’ horizontal machines are becoming more popular due to its overhead arm and its arbor driven cutters. These are also very easy to operate with few steps to remember. Some of the benefits of using horizontal milling machines are discussed below:

Design and set up: If you are looking to manufacture products which are cost-effective and of high quality, then a vertical milling machine should be of great help. They have scientific designs suitable for dealing with various hard materials. The time taken for this process is minimal and so as the number of steps required operating it. There is no need for a large set up to install these machines and also no need to employ numerous workers. You can have substantially savings on the labor cost, which is often the key setback in a manufacturing environment.

Automation and programming: The finished products of vertical machines are of finer quality, with better finishing. As a result, you get the final output, just as you would have planned. Majority of the modern horizontal milling machines are completely automated and requires minimal human intervention. Prior programming and automation result in minimal errors in production, with 25% less processing time.

Reduced processing time: These equipments perform diverse functions just like a general machine as well as other activities like tapping and boring. One milling machine performs these in one operation. Advanced milling also reduces the need for manual labor significantly, which significantly reduced the operational cost unlike earlier times. These machines no longer require multiple set ups and change in tools. Horizontal milling machines are advanced and do not require frequent movement of parts, location wise. These advancements have reduced delay in processing time drastically.

Arm supports and clutters: Horizontal machines have features of arm supports and clutters, which are driven by an arbor. These two features help to add value in production. You should pay attention to reduce incidence of accidents and ensure maximum safety. Maintenance of cutters is required at a proper interval of time to maintain its sharpness. Check the location of arm support while they awhile dealing with arbors for maximum results.

Horizontal milling machines should be purchased from a reputed and trusted vendor. Prior research is needed before choosing any model and make of equipment. Online stores are also great options to purchase them.

Get best deals on CNC milling machines at http://www.millscnc.co.uk

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There are 13 different kinds of milling cutters used in various milling machines. They each cut materials differently. They are: end mill, roughing end mill, slab mill, face mill, hollow mill, slot drill, ball nose cutter, side-and-face cutter, involute gear cutter, fly cutter, woodruff cutter, dovetail cutter, and hob.

Milling cutters are essential cutting tools needed in a milling machine. Different types of milling cutters are available in many sizes and shapes to efficiently perform any type of cutting work. Read on to know the different types of milling cutters.

End mill

This is a tool with cutting teeth on one end and on its sides. Made of a high speed steel (HSS), the end mill cutter is the most common tool used in a vertical milling machine.

Roughing end mill

A roughing end mill removes a huge chunk of material in a wavy cutting pattern. This cutting mill produces a rough surface finish and is also known as ripping cutters. The wavy teeth minimize the vibrations and chatter sounds that occur during the cutting process.

Slab mill

A cylindrical cutting tool that can be used individually or with other cutting tools for cutting horizontal surfaces, the slab mill is made from a HSS.

Face mill

Face mill cutters are capable of holding multiple tip inserts. This economical type of cutting tool has tips that are can be replaced when they become blunt. A face mill can perform various cutting actions due to the versatility of the inserts and tips that it can work with.

Hollow mill

A hollow milling cutter is a pipe shaped tool with thick walls. The cutting teeth, however, are on the inside surface area. This cutting tool is essentially used in finishing cylindrical protrusions.

Slot drill

A slot drill is a cutting tool that directly cuts straight into a material. It commonly has two or more fluted cutters and a singular tooth located at the center of the end face. Slot drills are generally used for making cuts in a keyway slot.

Ball nose cutter

The ball nose cutter is a hemispherical end cutter with a similar function to that of a slot drill. This is an ideal cutting tool for machines that shapes three dimensional contouring forms and shapes. Ball nose cutters are also commonly called ball mills.

Side-and-face cutter

The cutting of a side-and-face cutter is located on its circumference and side portion. They are available in different widths and diameters. The side teeth functions to cut only one side of the material.

Involute gear cutter

This twelve teeth cutting gear comes in eight cutter sizes. A circular cutting tool, it has cutting edges on its circumference.

Fly cutter

A fly cutter is an inexpensive tool that functions like a face mill. It is composed of one or two tool bits that rotate to remove shallow and facing cuts.

Woodruff cutter

Woodruff cutters are small tip cutters that are used in cutting keyways. It is an essential tool in key engineering.

Dovetail cutter

Dovetail cutters are cutting tools that produce a dovetail slot patterns.

Hob

Hobs are cutters used in a hobbing machine. These cutters are used to make gears abd provide the appropriate shape specification of each workpiece. It is also important to consider the least cost and the correct cutting specifications of a cutting work when choosing a milling cutter. Remember to always work safely with the every cutting tool.

For repair of machine tools and spindle rebuild, visit Motor City Repair today.

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In simplest terms, plasma cutting is the process of cutting any electrically conductive metal by using high velocity of ionized gas which is delivered from a nozzle. The high pressured ionized gas which becomes the plasma, conducts electricity from the plasma cutting torch to the work piece. The plasma while coming into contact with the work piece heats and melts the material. Thus the metal pieces are cut smoothly. As plasma cutting is perfect for cutting steel and non-ferrous material, it is widely used in industries as well as by amateurs.

When you are planning to buy a plasma cutting machine, certain guidelines should be essentially followed. One of the main factors to consider is the thickness of the metal that you are cutting. Generally the plasma cutters are rated on their cutting ability and amperage. If you are cutting metal with considerably less thickness, you must consider a lower amperage plasma cutter. Likewise, you must use higher amperage machines for thicker metals. Even though the smaller amperage cutter would be capable of cutting metals of any thickness, the quality would be lacking in thicker metal cuts. The optimal cutting speed of the machine should also be considered before purchasing the cutter. A machine with high amperage would cut the metal much faster than one with low amperage.

In most plasma cutters, the pilot arc conducts high frequency electricity through the air. This electricity would interfere with computers or other equipments. So it would be better to select lift arc method that eliminates the problems of high frequency starting circuits. The plasma cutting torches consists of a number of plasma cutting consumables that would require replacement. It is recommended that a machine with lesser consumable would be long lasting and cost effective.

While purchasing plasma cutters, it would be good to make test cuts with many machines and check the quality of each cut. Here, you must look for a cutter that would offer a tight focused arc. Another quality checking method is to lift the plasma torch from the plate during cutting and check how far you can move while maintaining an arc. Generally when the pilot arc is brought close to the work metal, a transfer occurs from pilot arc to cutting arc. A plasma cutter that provides a quick, positive transfer from pilot to cutting arc at large transfer height would the best choice for getting better support during cutting.

One of the main things to be noted is the working visibility of the machine. While you are tracing a pattern, it is essential to see what you are cutting. A plasma cutting torch which is smaller and less bulky would be the best to provide working visibility. Portability is yet another thing to be noted. It is always better to go for a light weight, portable cutting machine. The most important thing is ensuring the safety features of the machine. It is highly suggested that you must buy a machine with nozzle-in-place safety sensor. This sensor makes sure that the machine won’t start unless the nozzle is in place. It is also good to look for a machine that would provide a pre-flow sequence.

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The most common compressors used in refrigeration are reciprocating, scroll, screw-driven centrifugal. With various refrigerants chillers used in industry in industrial application, chilled water or other liquid from the chiller is pumped through process. Industrial chillers are used for cooling of products and factory machinery in a wide range of industries.

They are often used in the plastic industry in plastic processing like injection molding, blow molding, extruders, laminations, p.P. Films, rigid p.V.C. Pipe, calendars, chemicals, pharmaceutical process, dyes intermediates, mineral water soda process, paper converting, coating chill rolls, plating and anodizing, lubricants/oil cooling, dairy, bakery, food products, dehumidifier, conditioned air, welding equipment, cement processing, vacuum systems, x-ray diffraction, analytical equipment, compressed air and gas cooling.

Chillers are usually small in size (cooling capacity), usually from 1 tons to 100 tons.

Central chillers generally have capacities ranging from ten tons to hundreds or thousands of tons.

Water chillers can be either water cooled or air-cooled. Water cooled chillers offer efficiencies better than air cooled is due to heat rejection at or near the air’s wet-bulb temperature rather than the higher, dry-bulb temperature but it is used in conjunction with cooling tower.

The heart of the chiller is the refrigeration compressor. This is a pump that uses electrical energy to pump refrigerant around the system. Depending on the application like size or operating temperature, a different compressor pumping technology is used. Smaller chillers use refrigeration compressors like rotary compressors, scroll compressors, and reciprocating compressors. Larger chillers use refrigeration compressor like reciprocating compressors, screw compressors, absorption compressors, and centrifugal compressors.

Article Source: http://EzineArticles.com/?expert=Sunil_Dumbre ]]> http://techblog.hitechuae.com/index.php/2010/07/23/something-about-air-and-water-cooled-chillers/feed/ 0 http://techblog.hitechuae.com/index.php/2010/07/23/sheet-metal-fabrication-know-facts-about-it/ http://techblog.hitechuae.com/index.php/2010/07/23/sheet-metal-fabrication-know-facts-about-it/#comments Fri, 23 Jul 2010 10:52:52 +0000 Hi-Tech http://techblog.hitechuae.com/?p=42 There are a number of useful devices and systems that changed our life for the better. Metal fabrication is one of the processes used in the industry. It is basically a process of producing or creating a metal component. It is done by modifying raw piece of material. These materials or metals are processed on different temperatures.Depending on the temperature range, the process is classified as hot, cold and warm. metal fabrication defines different processes. With these processes finished products are formed from sheet metal. Materials or objects that are fabricated and used for machinery and other instruments are daily used objects like automotive parts, computers, paper clips, bolts, automotive parts, nails and many more.

The process or system of Metal Fabrication is not new. It was developed ages ago. In the past hand tools were used in place of machinery tools to fabricate metals. Now various improved and useful technologies have evolved to complete the process successfully. Improved quality tools are created.

Technological advancements in engineering and metallurgy led to the introduction of various improved metal fabricating techniques and tools. These devices and systems are used and developed for industrial and engineering purposes. Different products with different features are created from different techniques.

Various types of products or objects are created during the metal fabrication process. Some of the most common products produced in this process are ventilation shafts, enclosures, metal cabinets, hoods, tanks, exhaust system, prototypes and tanks. Various other industries or sectors, including food storage, food dispensing, communication, computer, automotive, electronics, medical, telecommunication, aerospace, residential, pharmaceutical and construction also use metal fabrication process.

There are different types of sheet metal fabrication processes. These include
* Bending (straining)
* Annealing (heating)
* Cold rolling (shaping metal using rollers)
* Cold forming
* Forging (hammering or pressing)
* Drawing (material is forced into a die to form a cup-like shape)
* Rolling (reducing width of the material)
* Forging (pressing or hammering)
* Spinning (forms axially equal shapes)
* Extrusion (producing hollow tubes or cylindrical bars by forcing round billets via one or more dies)

No matter how small or big is your unit; the main objective should be performing Sheet Metal Fabrication process with perfection. Dedication and patience are two of the important things that help you to make the process successful.

Choosing the right metal fabricator is very essential. You need to keep in mind certain important things while selecting a metal fabrication service. Make it sure that it has stable and organized platform to give the desired layout of the sheet metal.

There are a number of sheet metal fabrication services all across the planet. It is better to opt for the one that produce quality items using latest and improved equipments or tools available in the industry, such as laser, water jet and other cutting edge technology.

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Milling machines come in various types with a variety of functions based on certain standard specifications. Some of the most commonly used machines are the following: column, turret, C-frame, horizontal, bed type, planer-style, and tracer controlled.

A milling machine is a tool in the metal industry that has numerous functions. Each machine has a cutter that operates at a various range of speed so you can form the required shape. With its adjustable spped feature, each milling machine can be regulated for a more precise cut. The machine is capable of handling multiple tasks such as carving, threading, milling, drilling, and cutting. There are several several types of milling machines, each with varying functions based on standard criteria. Manufacturers often name the different machines according to the kind of control, number of axis present, orientation of the spindle, size of the tool, its purpose, and source of power. While there are several varieties of milling machines available today, they essentially serve the same functions but use different terminologies. Below is the list of seven types of milling machines.

Column

This is the most common milling machine, which has 5 basic components, They are the work table, saddle, head, knee, and over arm. Considered as the simplest machine type, its cutting device is vertically suspended to allow drilling of metals. This is typically used when creating car parts because it is small and handy.

Turret

The turret is also known as the Bridgeport-type and can be repositioned anytime you want making this machine very functional. Its versatility makes it more practical since a variety of products can be made in addition to car parts.

C-frame

Because it is sturdier than a turret, this type is popular in industrial settings. It comes with a hydraulic motor, which makes it very powerful.

Horizontal

This machine runs parallel to the ground. The table from which the object to be worked on is placed moves sideways while the cutting device goes up and down.

Bed type

The worktable is located on the bed itself, instead of being paced on top, its usual position. The knee part of the machine is omitted to allow movement in a longitudinal direction.

Planer-style

This machine type is basically the same as the bed mill. However, the planner-style includes cutters and heads that allow for a wider range of milling actions.

Tracer controlled

This type of machine has the ability to reproduce parts based on a master model. Most of the industrial sectors, especially the automotive industry, choose this type of machine because it make production and specialization of machine parts easier. With the vast classifications of milling machines, you need to choose the one you need according to how you intend to use it. However if you find it difficult to decide, do not hesitate to seek the help of a specialist who can help you select the one that will give you maximum benefits.

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