
We operate as a CNC machine shop based in Westland, Michigan, supporting manufacturers who need precise, reliable parts. Westland sits within Wayne County, an area with a long manufacturing history, and we contribute to that tradition through our daily work.
Our capabilities cover a range of processes that address different production needs:
Because we handle these processes under one roof, you avoid the delays that come from coordinating multiple vendors. This matters when you're managing production schedules that depend on consistency and quick turnaround.



Westland, Michigan sits within a dense manufacturing corridor serving automotive, aerospace, and industrial clients, and we support that demand with a full range of in-house capabilities. Our shop covers milling, turning, grinding, drilling, and sawing, so you can source multiple processes from a single supplier.

We run both vertical and horizontal milling machines, and we choose the right one based on the part and the size of the job. Vertical mills work well for single-sided parts and smaller runs where setup speed matters.
Horizontal mills are a better fit for parts with features on multiple sides because they reduce the number of repositioning steps. That means fewer setups, less chance for error, and better efficiency on more complex parts.

Along with our CNC equipment, we also keep Bridgeport and other manual mills ready for jobs that do not need full CNC programming. One-off parts, quick changes, and small repair jobs can often be handled faster with a manual setup.
Our machinists bring years of hands-on experience to every job, which is especially important when a part needs real judgment and careful adjustments. Manual milling also gives us the flexibility to make last-minute changes when a project calls for it.

Our CNC lathes handle round parts like shafts, bushings, and fittings used in automotive and industrial work. We program each lathe job to keep the diameter, concentricity, and surface finish within the tolerances your drawing calls for.
Turning also works well with our milling services on parts that need both round features and machined flat surfaces. Since we can handle both processes in-house, we keep the job moving faster and reduce the chance of errors during handoff.

Surface grinding is something we use when a part needs to be brought down to its final size and finish after milling or turning. We use it on parts that need to be flat, parallel, or have a smoother finish than machining alone can give.
This matters most on parts that have to fit together right, or on sealing surfaces where even a small flaw can cause problems. We grind to the tolerances on your print, not just some general standard.

Aluminum is one of the most common materials we machine because it is light, strong, and easy to work with. We cut and shape aluminum grades like 6061 and 7075 using our CNC milling and CNC lathe equipment for automotive and general industrial parts.
It machines fast, wears down tooling less than harder metals, and helps keep production moving. Aluminum also holds up well against corrosion, so in many cases, extra coatings are not even needed.

Stainless steel is a material we use a lot because it holds up well against rust, moisture, and harsh conditions. We machine grades like 304 and 316 on our CNC lathes and milling machines while keeping the tolerances tight throughout the job.
Drilling stainless steel takes the right speed and feed so the material does not fight back too much, and we adjust our setup to match that. When a part needs a smoother and more precise finish, we also use surface grinding to bring it where it needs to be

Plain steel gives a good balance of strength and machinability, which makes it useful for a wide range of parts. We shape steel stock using our CNC milling, CNC lathe, and Bridgeport equipment depending on what the part calls for.
When we start with raw steel bar stock or plate, sawing is often the first step so we can cut it down to the right size before the finer machining begins. Steel also holds up well under load, which makes it a good choice for structural and mechanical parts.

Brass machines smoothly and leaves a clean finish, which makes it a good choice for parts that need tight tolerances and a nice appearance. We use our lathe and milling equipment to shape brass into fittings, connectors, and decorative parts.
Brass also cuts well because it has natural lubricity, which helps reduce friction and can help tools last longer. It also holds up well against corrosion and works good in electrical applications because of its conductivity.

Copper is a material we use when electrical and heat transfer matter, which makes it a good fit for connectors, terminals, and other similar parts. We machine copper with our CNC milling and lathe equipment, and we have to handle it carefully because it is softer than a lot of other metals.
Copper can be a little gummy, so we use sharp tooling and the right feed rates to keep the cuts clean. Drilling copper takes the same kind of care so the material does not bind up around the bit.

Titanium is a strong material that stays light and holds up well against corrosion, which makes it a good choice for tougher applications. We machine titanium using our CNC milling and lathe equipment, but it takes more care because the material can build up heat while it is being cut.
Titanium needs slower cutting speeds, solid tooling, and steady cooling so the part does not warp and the tools do not get damaged. We plan these jobs carefully because titanium takes more time to machine than aluminum or brass.

Plastic materials like Delrin, nylon, and acrylic are good choices when a part does not need the strength of metal. We machine plastics with our CNC milling and lathe equipment, and we adjust the speeds so the material does not melt or chip depending on what type it is.
Plastics do not rust, and they also work well when electrical insulation is needed. We usually use sawing first to cut sheet or rod stock down to size before doing the detailed machining.
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Carbon steel is a strong material that gets harder and more wear-resistant as the carbon content goes up. We machine low, medium, and high carbon steel using our CNC milling and lathe equipment, and we adjust the setup based on how hard the material is.
Higher carbon steel needs slower cutting speeds and sharper tooling so we can stay accurate and keep the heat under control. We also use sawing first to cut the raw stock down before it goes into milling or lathe work.

Alloy steel has added elements like chromium, nickel, or molybdenum that help give it more strength, toughness, and heat resistance depending on the mix. We machine alloy steel grades like 4140 on our CNC equipment, and we have to keep in mind that it is harder than plain carbon steel.
Drilling and milling alloy steel takes stronger tooling and the right speed so the tools do not wear out too fast. When the main machining is done, we also use surface grinding to bring the part to its final size and finish.

Cast iron has good wear resistance and helps cut down on vibration, which makes it a good choice for machine bases and heavy-duty parts. We machine cast iron with our CNC milling and lathe equipment, and we have to keep an eye on the graphite in it because it can affect the finish and wear on the tools.
Cast iron also creates fine dust while it is being cut, so we take steps to keep the area clean and the equipment in good shape. When a part needs a flat and precise surface, we use surface grinding to bring it where it needs to be.
CNC machined parts are used in all kinds of industries that depend on accurate work and repeatable results, from heavy industrial equipment to vehicle assemblies. We use CNC milling, lathe work, surface grinding, drilling, Bridgeport operations, and sawing to make parts that hold tight tolerances across those different jobs.
Tooling and fixtures need to be accurate because even a small mistake can carry over into every part they help produce. We machine jigs, clamps, and workholding fixtures using our CNC milling and Bridgeport equipment, cutting them to match the setup the job calls for.
Surface grinding helps us finish the contact faces and locating surfaces on these fixtures, since even a small uneven spot can affect how a part sits during production. Drilling is used to add bolt patterns and locating pin holes that line up with the equipment already in place.
We also make custom tooling for one-off jobs, and we start by sawing the material down before machining it into its final shape. These parts may stay behind the scenes, but they have a big effect on the quality of the parts that come after them.
Dimensional Inspection & Machining Tolerances
We check dimensions at different stages during our CNC milling and CNC lathe work instead of waiting until the part is finished. That way, we can catch anything early before it turns into scrap.
Our inspection tools include calipers, micrometers, height gauges, and coordinate measuring machines (CMMs) when tighter tolerances are needed. Depending on the job, tolerances can be as loose as ±0.005" for standard parts or as tight as ±0.0005" for precision parts.
A few points we always confirm:
Tighter tolerances mean more attention at every step, and that is why we follow FAI, in-process checks, and final inspection to keep every part within spec, not just the first one.
Surface quality
We handle surface quality by using the right machining approach and doing the extra work after the main cut is done. Our surface grinding equipment helps bring flat and cylindrical surfaces down to the finish requirements needed for the job, and those finishes are often measured in Ra values.
After milling, turning, or drilling, parts can still have burrs along edges and around bore openings. We remove those using hand deburring, rotary tools, or media finishing, depending on the shape of the part and the material we are working with.
Bridgeport work gives us the ability to make careful manual adjustments on one-off parts or smaller runs where the finish needs may change from job to job. Sawing, on the other hand, is usually the first rough cut before the finer finishing work starts.
Common secondary operations we perform include:
GD&T, statistical control, and finish verification equipment all help us make sure a part meets both the size requirements and the appearance requirements before it leaves our shop.