Adopting a modern, start-to-finish factory process

Adopting a modern, start-to-finish factory process

Traditional approaches to factory planning, designing, building, and operating lead to lost data. Learn why companies are going digital to deliver more agility across the factory lifecycle.

Adopting a modern, start-to-finish factory process

The digital factory: a data story

Does this sound familiar? The foundation is poured, the building envelope is up, and the first manufacturing machinery is being delivered—only to discover that a column intrudes two feet into the production line.

Now there's a three-month delay while the team attempts to fix the problem.

Unfortunately, such scenarios are all-too-common in traditional factory construction.

But what if the construction team caught this clash (and any others) in the design phase? What if the machinery specs had been connected from the manufacturing engineer's drawings to the architect's plans? What if you could be sure every machine was installed correctly? And that last-minute production line changes would update everyone's data, everywhere, automatically? It can with the digital factory.

Build

Reduction in operational costs

Reduced carbon footprint

Improved resource planning

Predictive maintenance efficiency

Improve time to market

Reduction in errors and re-work

1% of lifetime cost

4% of lifetime cost

15% of lifetime cost

70% 95%of companies still rely on spreadsheets to develop and run their factories of data generated during factory construction goes unused

Whether it's completely new (greenfield) or a retrofit of an existing structure (brownfield), developing a new factory is probably the largest single investment your company can make. Which makes it all the more amazing that so many companies still plan, design, build, and operate their factories using processes that pre-date the Internet.

So what would a modern, start-to-finish factory process look like? It would be built on data. Highly collaborative, with predictable schedules and fewer surprises. And it would deliver more agility—

with higher quality—at a much lower cost.

Introducing the digital factory.

How can a phase with such a small budget have such a large impact on the success of your factory project? Traditional approaches are heavily design-bid-build focused, with emphasis on concerns like existing conditions, MEP requirements, contractor management, and code compliance—essentially the building envelope.

But what if you could move beyond mere concepts and feasibility studies, integrating production and manufacturing engineering input more seamlessly into the planning process? What if you could apply all of the operational insights from your last factory directly into your next one? What if you could connect the outside of your factory to the inside—planning for operational agility, asset commissioning, maintenance cycles—right from the start? With the digital factory, you can.

Even today, factory designers and engineers still operate in siloes—the architects don't know what the production line will look like, the manufacturing engineers have no idea if their machines will fit through the door, and no one is talking to the construction team.

And that assumes that any of the decisions made by any of these stakeholders—and others—won't change next week. (Hint: they will.)

But what if architects could see and interact with the manufacturing machines as they're being sourced? What if production engineers could flag areas in the building design that might negatively impact the production line? What if construction could adjust the build timeline as decisions evolve? And what if they could do it all in real time? With the digital factory, they can.

The longest, most expensive part of factories is always in its operation. But the sad truth is, by the time most companies get their factories up and running, they've locked away critical information and decisions in paper files—or lost it entirely.

But what if you could use all of the data from planning through build to improve decision-making in operations? What if you could continue to connect departments—product designers, engineers, sales, even customers—to bring more agility to your production line through flexible manufacturing? What if you could reduce mistakes and rework? Or wring more efficiency from the factory production line with real-time data? What if you could reduce unplanned downtime? Or react to an unstable supply chain? A digital factory can make it all possible.

Traditional approaches lead to lost data Taking a factory from a plan to operational requires many different stakeholders—experts who

often work in their own siloes. And that can lead to astonishing losses of data as the project unfolds. But what if you could capture all that data and use it throughout your factory lifecycle?

Factory planner Architect Production planner General Contractor Operator

Plan

Design

Operate

Increased production agility

Minimized unplanned downtime

Increased throughput

Optimized factory design

Cost predictability & control

Improved construction quality

A digital twin is a virtual representation of a physical object, system, or environment. With up-to-date data bundled in one place, a digital twin evolves with the flow of information from sensors, building information models, production line machinery, and more. In short, anything you can model on a computer.

But it requires good data, and lots of it.

In manufacturing, digital twins can be used to test the quality and performance of parts and assemblies, manage supply chains, automate fabrication processes, and ensure

The value of digital twins

factories operate safety and efficiently—all of which contribute to better, more collaborative decision making; fewer errors and bottlenecks; and increased return on investment.

The more data you put into your twin from the beginning, the more you can get out of it throughout the operational lifespan of your factory. More insight into the impact of production line changes before you make them. Faster product development processes. And longer equipment lifespans. Digital twins can unlock it all.

Asset commissioning is the process of ensuring that newly installed or upgraded assets—such as machinery, equipment, or production systems—are properly installed, integrated, and tested to meet desired performance and operational requirements. It typically includes activities such as installation, functional testing, performance verification, training, and documentation.

Improve asset commissioning

The data from your digital twin—and the entire digital factory process—can radically improve this process by helping you improve the handover experience as you bring your factory online, reduce defects at that handover, minimize product defects and non-conformities, and accelerate time to market.

Get operational more quickly, with more agility

increase in throughput with improved digital factory workflows

30% reduction in unplanned downtime

with digital factory processes

50%

Introducing the Autodesk Design and Make Platform

Three industry clouds to help you manage your digital factory workflows, and get operational more quickly, with more agility.

Traditional execution

80% of lifetime cost

Go further

Sammy Lai, Director, Gammon Construction

“ Normally, we would hand over plant rooms to the subcontractors and workers for installation of MEP components and it would take them around 30 to 45 days. But now, installation can be done in just one day. ”

A modern approach to factories

Source: FMI and Autodesk, Harnessing the Data Advantage in Construction, 18 October 2022

Source: Manufacturing Leadership Council, Seventy Percent of Manufacturers Still Enter Data Manually, 13 August 2024

“ In the model, all designers, planners, and suppliers speak the same language—it’s like a kind of symphony where people meet and everything comes together. ” Till Moczarski, Project Manager for Digital Planning, Porsche

Source: McKinsey & Company, Capturing the true value of Industry 4.0, 13 April 2022

Desired execution

https://www.autodesk.com/company/autodesk-platform


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