CNC Machining Shop Digital Twins: From CAM to QC

Digital twin is a tidy phrase for a gritty objective: make a living, evolving model of your manufacturing system that is accurate enough to predict outcomes, not just visualize them. In a CNC machining shop, that twin stretches from the first toolpath in CAM through the last inspection point in QC. Done right, it trims scrap, shortens setups, and lets you quote with confidence. Done badly, it becomes another dashboard with polite colors and little value. The difference is in how you connect the virtual model to the physical shop, how often you validate it, and whether the data you collect is trustworthy.

This is not a vendor demo. It is what it feels like to build and run a digital twin across a real manufacturing shop, the kind that does build to print work for mining equipment manufacturers on Monday, turns around a custom machine subassembly for a food processing equipment manufacturer on Tuesday, and squeezes in a rush order for a logging equipment repair midweek. The examples come from precision CNC machining cells, mixed with welding and custom fabrication in a single facility. The technologies referenced are mainstream, the pitfalls are common, and the payoffs are measured in hours and thousands, not abstract percentages.

What a digital twin actually covers in a CNC-driven shop

In a machining manufacturer’s daily life, the twin should cover three layers. The first is geometry and process, where your CAM toolpaths, fixtures, tool lists, and machine limits form a coherent model of how a part will be made. The second is machine behavior, including spindle power limits, axis dynamics, tool wear, coolant delivery, vibration tendencies, and the effects of warmup or ambient temperature. The third is metrology, where you check whether the part and the process met expectations, and you feed those measurements back into the other two layers.

When those layers link up, you get a digital thread that respects the physics of cutting metal rather than a slide deck. In practical terms, it means the twin knows that a DMG Mori 5-axis on the north wall runs colder in the morning than the Haas horizontal next to the welding bay, and it accounts for that when predicting bore size on a 4140 part with a 0.0008 inch true position tolerance. It also knows that a certain steel fabricator upstream occasionally leaves a heat-affected zone too broad on a plasma-cut blank, which forces you to add a skim pass at a lower SFM for dimensional stability. The more your “model” captures shop-specific realities, the more it moves from guesswork to guidance.

Why tighten the loop from CAM to QC

The business reasons are blunt. A metal fabrication shop that quotes jobs for underground mining equipment suppliers or biomass gasification systems lives on throughput and first-pass yield. Every unplanned stop costs either cash or credibility with a buyer who needs assemblies yesterday. A robust twin reduces the count of surprises by two routes: it prevents obvious mismatches before a tool touches metal, and it lets you predict and correct drift during production.

For a Canadian manufacturer marketing CNC machining services across industrial machinery manufacturing sectors, this plays directly into win rates. If you can show that inspection data from the last seven lots already lives in your model, that you have tool wear compensation tuned to the alloy and cutter geometry, and that you can simulate cycle times within a two percent spread, buyers notice. Especially when the parts end up in custom metal fabrication shop weldments for heavy equipment, or machined housings that sit inside food processing lines where downtime is expensive.

Building the foundation: master data you must get right

No digital twin rescues bad foundations. In a custom fabrication and machining mix, the following items determine whether the twin will be credible.

Clean part definitions and revisions. STEP files or native CAD models must reflect the released drawing state, including GD&T. Avoid “tribal” CAD copies. One file, one master. Tool library discipline. Length, gauge line, corner radius, stick-out, holder models, coolant mode, and suppliers tied to real inventory. Guessing on stick-out beats you every time. Machine kinematics and constraints. Accurate limits for axis travels, rapid rates, tool change times, spindle curve, dynamic limits for jerk/acceleration, rotary clearances, and centerlines. Fixture and workholding models with real offsets. Whether you use a modular tombstone or a custom steel fabrication cradle welded in-house, the model needs real clamp geometry and force vectors if you care about thin-wall distortion. Material behavior tags. Keep at least heat, hardness, prior process (e.g., flame cut, waterjet, cold finished), and residual stress risk flags. Without this, “the same 1045” is not actually the same.

Those five pillars sound bureaucratic until you watch a flawless CAM simulation plow a toolholder into a vice jaw that was modeled 2 mm shorter than reality. Or you discover during QC that a counterbore drifts by 20 microns between morning and afternoon because your model used a nice round coefficient of thermal expansion with no compensation strategy. Care in master data beats heroics later.

From CAM to a credible shop-floor simulation

A twin that starts with CAM must do more than throw chips in a digital window. You need a shop-aware simulation that knows the exact post-processor, the machine variant, and the actual order of tool calls. Better if it ingests the same G-code you will send to the control. A few pragmatic details make this work.

First, use posts that emit metadata alongside G-code. If you can embed tool IDs, expected spindle loads, and cycle time segments, you can map that later to spindle telemetry and verify predictive accuracy. Second, import your machine-specific cutting conditions. A Komet boring head with internal coolant, a Sandvik high-feed mill, and a 6-flute variable helix end mill will not share the same stability lobes or wear curves. Third, incorporate a thermal model if you hold tight tolerances. Shops that serve mining equipment manufacturers on large, heavy sections often ignore microns, but those serving precision housings for an industrial design company or a machine shop specializing in spindles cannot.

We learned this the hard way on a precision CNC machining job for a gearbox casing. The first twin predicted 28.5 minutes. Real cycles ran 33 to 36 minutes with minor alarms. Root cause: the simulation ignored the machine’s look-ahead behavior on simultaneous 4-axis contouring and used ideal rapids. We corrected the acceleration limits and added a 10 percent buffer in areas where the control decelerates for collision avoidance. Next run averaged 29.4 minutes, inside 3 percent of the model. Not perfect, but close enough for quoting and scheduling.

Closing the loop with machine data

Once the first articles run, the twin earns its keep by learning. Most modern controls expose data on spindle power, axis loads, feedrate override, tool life counters, alarms, and cycle timestamps. You do not need an enterprise platform to start. A small broker that polls MTConnect or OPC-UA on each cnc machine shop center will do. The key is to collect data that links to a job, a program revision, and a tool list version.

Focus early on tool wear. Tool wear is where your twin either becomes predictive or remains aspirational. If you track actual tool life in minutes of cut, by operation and material, you can adjust feed per tooth and axial depth to maintain chip thickness and surface finish. On 17-4 PH stainless, for example, we learned that doubling coolant pressure from 300 to 600 psi with through-tool nozzles extended a 0.500 inch end mill life from 16 to 23 minutes at our target Ra. The twin updated that parameter, and subsequent jobs cut tool cost per part by about 18 percent.

Also, watch warmup behavior. On a vertical with 40 taper spindles running precision bores for hydraulic manifolds, we saw a recurring 6 to 10 micron undersize on the first two parts of the shift. The machine data showed a ramp in spindle temperature over 20 minutes. The twin now inserts a monitored warmup routine before critical boring ops or schedules those ops after roughing, using the wasted warmup heat productively. It is a small change that kept us from chasing offsets that moved under us.

QC as the proof and the teacher

Quality control is not a gate at the end. It is the primary teacher for your digital twin. Metrology has to feed the model, not sit in an isolated report. That means CMM programs reference the same CAD model and datums used in CAM. It also means in-process probing data is logged and flowed upstream. With complex assemblies, especially in custom fabrication where welded frames receive final machining, geometric distortion is a fact of life. If your QC team is forced to inspect to the drawing without context, you miss the story behind the numbers.

On a welded base for an underground drill rig component, the GD&T called for 0.25 mm flatness across a 1.2 meter plane after machining. The twin anticipated 0.15 to 0.18 mm variation if the weld heat was consistent with our WPS, and if roughing left 1.5 mm stock before stress relief. The first batch came in with 0.35 mm flatness. QC flagged it, and we traced the issue back to a different batch of steel plate and a rushed weld sequence. By feeding those results into the twin, we updated fixture preload instructions and the cut pattern on the CNC mill to induce a compensating stress release. The second batch averaged 0.19 mm flatness and stayed stable during paint bake. Data plus model, not blame.

The same approach applies to small parts. On a run of aluminum impellers for a custom machine used in food processing, a few parts showed a waviness on the blade leading edge beyond spec. Spindle power logs were clean, but vibration spectra showed a bump near 300 Hz. The twin had no entry for that tool and holder combination at that stick-out. After a quick stability test, we changed the tool length by 2 mm and added a trochoidal finishing pass at a lower radial engagement. QC surface scans confirmed the fix, and the model now warns against that chatter pocket in the frequency domain.

Distributed realities: one twin, many machines

A manufacturing shop with mixed brands and ages of machines cannot assume uniform behavior. The same CAM strategy acts differently on a newer horizontal with a high-pressure coolant system than on an older vertical with tired way covers and a coolant pump that throws foam when warm. Your twin should not pretend all centers are identical. It should hold a machine profile for each asset.

For example, two 5-axis machines in a precision cell might share tool libraries but differ in axis speed and jerk limits. One might have better thermal compensation built into the control. If you assign a job requiring tight circular interpolation to the slower machine without adjusting paths, you will force a surface finish risk. The twin can flag that, suggest different stepovers, and revise the cycle time estimate. This is where schedule meets physics, and where planners appreciate the difference between a digital twin and a spreadsheet.

It gets more interesting when you blend machining with welding and steel fabrication in the same building. Weld bays change ambient temperature and airflow, which matters for machines nearby. Grinding dust migrates. Compressed air pressure fluctuates during simultaneous use of sandblasting and a CNC metal cutting plasma table. The twin is not only a geometry simulator. It can store correlations between environment variables and dimensional results or machine alarms. If you have even a handful of sensors, you can detect patterns that save hours of head-scratching during root cause analysis.

The role of fixtures, workholding, and human finesse

Workholding is the unsung hero of reality-based modeling. In custom fabrication and cnc metal cutting environments where you do short runs, modularity and repeatability matter more than chasing a theoretical optimum. A twin that includes deflection models for clamping thin sections, or at least empirical corrections, gets you closer to first-pass success.

Anecdotally, we fought a thin-walled 6061 housing that came from a steel fabricator upstream as a welded and stress-relieved plate and tube assembly. The final machining included a pocket with a 1.5 mm wall. Simulation showed the wall would hold with a light finishing pass, but in practice the clamp distorted it by 0.12 mm, falling out of spec. We added a sacrificial support rib in the CAD, machined to near-net, and removed the rib in a final 2D contour with minimal clamping force, relying on vacuum assist. The twin now carries a note for similar geometries: plan a removable rib or button supports, and budget the extra 90 seconds. The habit saved two other jobs in the next month.

No model erases the effect of a skilled operator. When an older machinist hears chatter brewing before any sensor flags it, he or she can adjust in ways a model cannot forecast. The trick is to capture that wisdom. Add a small human annotation step to your run sheets. If an operator slows a cut by five percent at a certain Z because coolant flow shadows behind a fixture, that goes into the twin as a conditional rule. Over time, you build a system that honors both physics and experience.

Integrating welding and machining data without drowning

Shops that offer both cnc precision machining and welding company services often trip over data silos. Weld procedure qualification records sit in one folder, machinist offsets in another, and QC in a third. A useful twin does not require a massive PLM roll-out. Start with a simple mapping: every lot gets a unique ID that ties the CAD, the CAM revision, the weld fixtures, the WPS applied, the machine used, the CMM program version, and the final results. A minimal, shared repository and a policy to update it after every run beats grand designs that never launch.

Think of a welded frame for a conveyor in food processing. You have a WPS with heat input limits, a fixture that clamps during tack and stitch, a post-weld machining plan, and a set of critical datums. If you capture the weld heat inputs, the actual interpass temperature range, and the machining finish passes, you can correlate them to final flatness and hole positions. Over three or four jobs, the twin will tell you whether a lower heat input on the long flange or a different machining strategy delivers better yield, and it will do so per material lot, not in generalities.

Simulation fidelity and where to stop

You can simulate your way into paralysis. It is tempting to model coolant droplet trajectories or microstructural changes for every alloy. In production reality, pick fidelity that changes decisions. If a part has a 0.05 mm flatness tolerance and a 30 minute cycle time, you probably do not need a finite element model of residual stress if historical data shows 0.02 mm scatter with your current sequence. Conversely, if you are boring a bearing seat for a custom machine spindle with a 3 micron roundness requirement, invest in the higher fidelity model that accounts for thermal drift and slow tool wear.

A rule of thumb that has served us: model at a level that makes your quotes honest and your reruns boring. For many metal fabrication shops serving industrial machinery manufacturing, this means cycle time accuracy within three to five percent, dimensional drift predictions within one third of the tolerance band, and tool life predictions within 10 to 15 percent. If you hold that, you will save more time by executing than by simulating further.

Quoting with a twin behind you

Quoting is where the twin’s credibility becomes visible outside the shop. A cnc machining shop that can attach evidence to a quote stands out. Evidence can be as simple as a chart showing predicted versus actual cycle times for similar parts, with notes on material and machine. It can show your ability to hit tolerances across lots, which matters to mining equipment manufacturers who want long-term supportability, or to food processing equipment manufacturers who care about hygiene, finish, and repeatability.

For a Machine shop competing on price and lead time in metal fabrication Canada, the twin supports more than confidence. It lets you negotiate. If a buyer pushes for a two-week lead time on a complex housing, your schedule model knows whether the needed machine and fixture are free, and how tool life will affect throughput. You can then show a clear path to the date or explain why a third shift adds cost but shaves days. Buyers who live in the same pressures appreciate straight talk backed by data.

Practical pathway to adoption

I often get asked where to start. The impulse is to buy software. Resist that for a quarter and focus on three wins that require discipline more than platforms.

Standardize your tool library and holder models across your cnc machine shop. Pick vendors that meet 80 percent of your work. Document stick-out, holders, coolant, and storage. This alone will cut scrap and make CAM-to-machine simulation honest. Connect your top three machines to capture spindle power, load, and cycle timestamps. Use the simplest stable method you can sustain. Build a mapping from program numbers to part revisions. Feed metrology back to the model. Start with bore sizes, flatness, and surface finish on your top five repeat parts. Adjust CAM parameters and compensation rules based on actual results, and document the deltas.

Those three steps create a loop that pays immediately. From there, add thermal considerations for the tightest work, integrate weld data for assemblies, and expand to scheduling. If you have an Industrial design company partner or in-house engineering, bring them in early to align CAD standards with CAM and QC.

Case snapshot: from chaos to cadence in a mixed shop

A custom metal fabrication shop with a growing precision CNC machining cell took on a contract for gearbox housings used in logging equipment. Tolerances were not aerospace, but functional bores and alignment mattered. The first two batches suffered from long setups, inconsistent cycle times, and a painful rework rate near 12 percent. The team built a lightweight twin over six weeks.

They standardized a 60-tool library for the two horizontals, modeled both machines with accurate kinematics, and updated https://waycon.net/capabilities/custom-metal-fabrication/ posts to include metadata. They added in-process probing for datums and critical bores. QC fed CMM data nightly into a shared repository keyed to part and program revisions. They logged spindle load and power, then looked at correlations during roughing and finishing.

Results after two months: average cycle time prediction error dropped from 18 to 4 percent, tool life variation tightened by a third, and rework fell under 4 percent. The team discovered a recurring thermal drift on the B axis of one machine, which led to a maintenance fix. They also caught a subtle issue with a particular 3-flute end mill that chattered at a length-to-diameter ratio above 3.5 on that machine. The twin now warns planners when a setup would cross that threshold, suggesting a different tool or operation split. Scheduling improved too, with fewer emergency shuffles late in the week.

The customer asked for a lead-time reduction after seeing steadier deliveries. The shop agreed to a staged reduction tied to data, not wishful thinking. That relationship expanded into additional parts, including a custom steel fabrication bracket that went through weld, stress relief, and finish machining, all modeled in the same thread.

Where the twin intersects with safety and compliance

In regulated environments or heavy industries like underground mining equipment, documentation matters. A digital twin that carries process parameters, machine IDs, tool batch numbers, and QC results helps with traceability and audits. If a field failure shows up, you can trace back not only to the lot and operator, but to the exact process configuration. For food processing equipment, the twin can record surface finish targets, cleaning-compatible coolant choices, and burr control steps, supporting hygiene and safety claims.

Safety also benefits from prediction. When a twin shows that a certain heavy weldment creates a top-heavy setup on a rotary table, it can flag a requirement for additional clamps or a different fixture orientation. Options like these are easier to sort out in a model than during a rushed setup with a forklift waiting.

Limits, traps, and honest trade-offs

Digital twins can tempt you into false precision. A model that predicts a 12.38 minute cycle time is not better than one that says 12.4 unless you can land within that accuracy repeatedly. Beware of time spent polishing models that do not change a decision. Conversely, do not accept low fidelity where it costs money. If you keep scrapping parts because a thin wall distorts, stop approximating. Build a small test, measure real deflection, and feed that into your twin.

Another trap is neglecting the humans. If your veteran operators view the twin as a surveillance tool rather than a helpful second set of eyes, they will ignore it or defeat it. Invite them into the build process. Ask what the twin should watch on their machines. Many of the best rules in our models started as a machinist’s one-line note: do not face mill the 17-4 plate until you flip it, it cups.

Finally, remember that a digital twin is not an either-or decision. The right scope for a small cnc machining shop might be tool libraries, machine telemetry, and QC feedback on three families of parts. A larger Machinery parts manufacturer with multiple cells might add scheduling and environmental correlations. Grow the twin where it pays, not everywhere at once.

Where this goes next

As more shops connect machines and metrology, the twin moves from static to adaptive. Materials change. Supply chains wobble. Workforce skills shift. A living model helps a manufacturing shop absorb that turbulence. For a Canadian manufacturer courting customers across mining, forestry, and food processing, the advantage is steady performance under varied work, not magic.

This is the practical horizon. A model that updates tool life rules after every lot. A scheduler that knows true cycle times for each asset, not averages. A QC loop that flags drift early and suggests a process tweak, not just a ban on shipment. A procurement view that spots when a supplier’s plate brings more residual stress, and prompts a different machining sequence automatically. It is not glamorous, but it moves the needle.

The shops that get there first will not be the ones with the flashiest dashboards. They will be the ones that grounded their digital twins in clean data, respectful collaboration between CAM, operators, and QC, and the discipline to update the model every time reality teaches something new. Whether you are a metal fabrication shop with a small cnc metal fabrication cell or a larger machining manufacturer serving heavy industry, that habit is the real competitive edge.

Waycon Manufacturing Ltd. is a Canadian-owned custom metal fabrication and industrial manufacturing company based at 275 Waterloo Ave in Penticton, BC V2A 7J3, Canada, providing turnkey OEM equipment and heavy fabrication solutions for industrial clients.
Waycon Manufacturing Ltd. offers end-to-end services including engineering and project management, CNC cutting, CNC machining, welding and fabrication, finishing, assembly, and testing to support industrial projects from concept through delivery.
Waycon Manufacturing Ltd. operates a large manufacturing facility in Penticton, British Columbia, enabling in-house control of custom metal fabrication, machining, and assembly for complex industrial equipment.
Waycon Manufacturing Ltd. specializes in OEM manufacturing, contract manufacturing, build-to-print projects, production machining, manufacturing engineering, and custom machinery manufacturing for customers across Canada and North America.
Waycon Manufacturing Ltd. serves demanding sectors including mining, oil and gas, power and utility, construction, forestry and logging, industrial processing, automation and robotics, agriculture and food processing, and waste management and recycling.
Waycon Manufacturing Ltd. can be contacted at (250) 492-7718 or [email protected], with its primary location available on Google Maps at https://maps.app.goo.gl/Gk1Nh6AQeHBFhy1L9 for directions and navigation.
Waycon Manufacturing Ltd. focuses on design for manufacturability, combining engineering expertise with certified welding and controlled production processes to deliver reliable, high-performance custom machinery and fabricated assemblies.
Waycon Manufacturing Ltd. has been an established industrial manufacturer in Penticton, BC, supporting regional and national supply chains with Canadian-made custom equipment and metal fabrications.
Waycon Manufacturing Ltd. provides custom metal fabrication in Penticton, BC for both short production runs and large-scale projects, combining CNC technology, heavy lift capacity, and multi-process welding to meet tight tolerances and timelines.
Waycon Manufacturing Ltd. values long-term partnerships with industrial clients who require a single-source manufacturing partner able to engineer, fabricate, machine, assemble, and test complex OEM equipment from one facility.

Popular Questions about Waycon Manufacturing Ltd.

What does Waycon Manufacturing Ltd. do?

Waycon Manufacturing Ltd. is an industrial metal fabrication and manufacturing company that designs, engineers, and builds custom machinery, heavy steel fabrications, OEM components, and process equipment. Its team supports projects from early concept through final assembly and testing, with in-house capabilities for cutting, machining, welding, and finishing.

Where is Waycon Manufacturing Ltd. located?

Waycon Manufacturing Ltd. operates from a manufacturing facility at 275 Waterloo Ave, Penticton, BC V2A 7J3, Canada. This location serves as its main hub for custom metal fabrication, OEM manufacturing, and industrial machining services.

What industries does Waycon Manufacturing Ltd. serve?

Waycon Manufacturing Ltd. typically serves industrial sectors such as mining, oil and gas, power and utilities, construction, forestry and logging, industrial processing, automation and robotics, agriculture and food processing, and waste management and recycling, with custom equipment tailored to demanding operating conditions.

Does Waycon Manufacturing Ltd. help with design and engineering?

Yes, Waycon Manufacturing Ltd. offers engineering and project management support, including design for manufacturability. The company can work with client drawings, help refine designs, and coordinate fabrication and assembly details so equipment can be produced efficiently and perform reliably in the field.

Can Waycon Manufacturing Ltd. handle both prototypes and production runs?

Waycon Manufacturing Ltd. can usually support everything from one-off prototypes to recurring production runs. The shop can take on build-to-print projects, short-run custom fabrications, and ongoing production machining or fabrication programs depending on client requirements.

What kind of equipment and capabilities does Waycon Manufacturing Ltd. have?

Waycon Manufacturing Ltd. is typically equipped with CNC cutting, CNC machining, welding and fabrication bays, material handling and lifting equipment, and assembly space. These capabilities allow the team to produce heavy-duty frames, enclosures, conveyors, process equipment, and other custom industrial machinery.

What are the business hours for Waycon Manufacturing Ltd.?

Waycon Manufacturing Ltd. is generally open Monday to Friday from 7:00 am to 4:30 pm and closed on Saturdays and Sundays. Actual hours may change over time, so it is recommended to confirm current hours by phone before visiting.

Does Waycon Manufacturing Ltd. work with clients outside Penticton?

Yes, Waycon Manufacturing Ltd. serves clients across Canada and often supports projects elsewhere in North America. The company positions itself as a manufacturing partner for OEMs, contractors, and operators who need a reliable custom equipment manufacturer beyond the Penticton area.

How can I contact Waycon Manufacturing Ltd.?

You can contact Waycon Manufacturing Ltd. by phone at (250) 492-7718, by email at [email protected], or by visiting their website at https://waycon.net/. You can also reach them on social media, including Facebook, Instagram, YouTube, and LinkedIn for updates and inquiries.

Landmarks Near Penticton, BC

Waycon Manufacturing Ltd. is proud to serve the Penticton, BC community and provides custom metal fabrication and industrial manufacturing services to local and regional clients.

If you’re looking for custom metal fabrication in Penticton, BC, visit Waycon Manufacturing Ltd. near its Waterloo Ave location in the city’s industrial area.

Waycon Manufacturing Ltd. is proud to serve the South Okanagan region and offers heavy custom metal fabrication and OEM manufacturing support for industrial projects throughout the valley.

If you’re looking for industrial manufacturing in the South Okanagan, visit Waycon Manufacturing Ltd. near major routes connecting Penticton to surrounding communities.

Waycon Manufacturing Ltd. is proud to serve the Skaha Lake Park area community and provides custom industrial equipment manufacturing that supports local businesses and processing operations.

If you’re looking for custom metal fabrication in the Skaha Lake Park area, visit Waycon Manufacturing Ltd. near this well-known lakeside park on the south side of Penticton.

Waycon Manufacturing Ltd. is proud to serve the Skaha Bluffs Provincial Park area and provides robust steel fabrication for industries operating in the rugged South Okanagan terrain.

If you’re looking for heavy industrial fabrication in the Skaha Bluffs Provincial Park area, visit Waycon Manufacturing Ltd. near this popular climbing and hiking destination outside Penticton.

Waycon Manufacturing Ltd. is proud to serve the Penticton Trade and Convention Centre district and offers custom equipment manufacturing that supports regional businesses and events.

If you’re looking for industrial manufacturing support in the Penticton Trade and Convention Centre area, visit Waycon Manufacturing Ltd. near this major convention and event venue.

Waycon Manufacturing Ltd. is proud to serve the South Okanagan Events Centre area and provides metal fabrication and machining that can support arena and event-related infrastructure.

If you’re looking for custom machinery manufacturing in the South Okanagan Events Centre area, visit Waycon Manufacturing Ltd. near this multi-purpose entertainment and sports venue.

Waycon Manufacturing Ltd. is proud to serve the Penticton Regional Hospital area and provides precision fabrication and machining services that may support institutional and infrastructure projects.

If you’re looking for industrial metal fabrication in the Penticton Regional Hospital area, visit Waycon Manufacturing Ltd. near the broader Carmi Avenue and healthcare district.