The six types of manufacturing processes are repetitive manufacturing, discrete manufacturing, job shop manufacturing, continuous process manufacturing, batch process manufacturing, and 3D printing.
Each process fits different production goals, and growing manufacturers choose between them based on product type, order volume, and how much customization their customers expect.
Picking the wrong one doesn't just slow you down — it affects your costs, your flexibility, and your ability to scale.
Consider just a handful of manufacturing sub-sectors:
- Food and beverage manufacturing
- Textile product mills
- Apparel manufacturing
- Wood product manufacturing
- Chemical manufacturing
- Computer and electronics product manufacturing
Each of these sub-sectors uses distinct processes to produce their goods. Below, we'll walk through all six types of manufacturing processes, explain how each one works, and help you figure out which fits your operation.
What is a manufacturing process?
A manufacturing process is a series of sequential steps that combine the expertise of people and the power of machinery to transform raw materials into a finished product. It covers everything from sourcing and handling materials to assembly, quality control, and packaging.
Within the broader manufacturing industry, key sub-sectors like food, textile, electronics, wood, and chemical manufacturing each rely on a distinct set of processes to create their end products. The right process for your business depends on several factors:
- Consumer demand — Are you filling large, predictable orders or small custom batches?
- Technical capabilities — What equipment and skills does your team have?
- Available resources — How much capital, labor, and floor space can you commit?
- Turnaround time — How quickly do your customers need delivery?
Every manufacturing process comes with its own set of benefits and drawbacks. Understanding those trade-offs is the first step toward picking the right one. If you want to dive deeper into how total manufacturing cost plays into this decision, that's a great next step.
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The six types of manufacturing processes
When it comes to the manufacturing process and choosing the right one for your products, it's often a balance between quality, customization, and volume. Here's a quick comparison before we dig into each one.
| Process | Best for | Production volume | Customization | Example industries |
|---|---|---|---|---|
| Repetitive | Identical products at high volume | Very high | Very low | Automotive, consumer electronics |
| Discrete | Distinct, assembled units | Medium to high | Moderate | Furniture, smartphones, aircraft |
| Job shop | Custom, one-off products | Low | Very high | Custom eyewear, machine shops |
| Continuous | Liquids, gases, and bulk materials | Very high (24/7) | Very low | Oil refining, chemicals, paper |
| Batch | Groups of identical products | Medium | Moderate | Food, pharmaceuticals, cosmetics |
| 3D printing | Prototypes and complex geometries | Low to medium | Very high | Medical devices, aerospace parts |
Repetitive manufacturing
Imagine a factory working round-the-clock, producing one product after another in a seamless, rhythmic flow. That's the essence of repetitive manufacturing — a traditional process deeply ingrained in our industrial landscape. Picture it as a tireless machine, humming along 24/7 to meet steady consumer demand. This rhythm can be sped up or slowed down as needed, giving manufacturers control over output.
Repetitive manufacturing is a common sight in the automotive industry, where mass production is the name of the game. Its key strength lies in cost efficiency — it's a real money saver when it comes to producing large volumes of the same component or product. It also simplifies production planning and offers clear performance visibility that can be closely tracked.
Advantages:
- Low per-unit production cost
- Predictable output and scheduling
- Easy to measure and optimize throughput
Drawbacks:
- Very limited product variety
- High initial setup cost for production lines
- Difficult to adjust quickly if demand shifts
Examples: Automobile parts, standardized electronics, consumer packaged goods conveyor lines.
Discrete manufacturing
Discrete manufacturing takes individual parts, components, and sub-assemblies and brings them together to create a finished product. Like repetitive manufacturing, it uses assembly or production lines — but with more frequent setups and changeovers between runs.
The defining feature of discrete manufacturing is its ability to produce unique, countable units. Think of the intricate craftsmanship of artisan furniture, the complex assembly of a smartphone, or the monumental task of building an airplane. Each finished good can be broken down and, in many cases, disassembled back into its components.
Managing the bill of materials is critical in discrete manufacturing, because each product may have dozens or hundreds of individual parts that need to be tracked and ordered on time.
Advantages:
- Supports a wide range of product types
- Easier to customize products between runs
- Clear traceability from raw materials to finished goods
Drawbacks:
- Changeover time between products reduces throughput
- More complex scheduling and planning required
- Higher per-unit cost than repetitive manufacturing
Examples: Furniture, smartphones, aircraft, machinery, computers.
Job shop manufacturing
Job shop manufacturing thrives on creating unique, one-off products instead of mass-produced goods. It steps away from the usual dependency on assembly lines, embracing limited automation and focusing on smaller, customized batches. The end goal is often to fulfill specific customer orders rather than replenish a warehouse shelf.
What makes the job shop process stand out is its adaptability. It's a system that welcomes change and makes effective use of resources. You can prioritize certain operations over others based on the jobs in your queue. Businesses that sell custom products — like custom eyeglasses, specialty metal fabrication, or stock frames — benefit from the unique advantages of job shop manufacturing.
This is a common setup for growing manufacturers who handle made-to-order work. If that describes your operation, tracking raw material inventory becomes especially important since you're buying materials for specific jobs rather than general stock.
Advantages:
- Maximum flexibility and customization
- Efficient use of general-purpose equipment
- Well-suited for low-volume, high-mix production
Drawbacks:
- Higher per-unit cost than high-volume methods
- Complex scheduling — each job follows a different path
- Longer lead times for each order
Examples: Custom machine shops, print shops, specialty woodworking, prototype development.
Continuous process manufacturing
Continuous process manufacturing produces identical products around the clock, without pausing between runs. You might be thinking this sounds a lot like repetitive manufacturing — and you'd be right. Both operate 24/7. The key difference is what they produce.
Continuous manufacturing typically handles liquids, gases, powders, and other materials that flow through the production process rather than being assembled as discrete units. Oil refining, paper production, and chemical manufacturing are classic examples. Once the production line starts, it runs non-stop — shutting it down and restarting is expensive and time-consuming.
Advantages:
- Very low per-unit cost at scale
- Consistent product quality with minimal variation
- Reduced labor costs through high automation
Drawbacks:
- Extremely inflexible — product changes require shutdowns
- Very high initial capital investment
- Waste from defects can be significant before detection
Examples: Oil refining, natural gas processing, paper mills, chemical manufacturing, water treatment.
Batch process manufacturing
Batch manufacturing — sometimes called batch process manufacturing — is a close cousin to discrete and job shop processes. The main idea is to produce a specific quantity of a product (a "batch") using one set of materials and instructions, then clean the equipment and prepare for the next batch.
There's a lot to like about batch manufacturing. It's cost-efficient when producing a whole batch at once, makes good use of resources, offers flexibility between runs, minimizes waste, and keeps running costs manageable.
But it's not without challenges. You'll need to consider increased storage costs and put a rigorous quality control system in place. A batch gone wrong can mean wasted time and materials. Lot tracking is often critical in batch manufacturing, especially in regulated industries like food, pharmaceuticals, and cosmetics, where you need to trace every ingredient back to its source.
Advantages:
- Good balance of cost efficiency and flexibility
- Easy to scale up or down between batches
- Supports quality testing per batch
Drawbacks:
- Downtime between batches for cleaning and setup
- Requires careful inventory management to avoid overproduction
- Storage costs for finished batches can add up
Examples: Bakeries, breweries, pharmaceutical manufacturing, cosmetics production, clothing runs, flatpack furniture.
3D printing (additive manufacturing)
3D printing — also called additive manufacturing — builds objects layer by layer from digital designs using materials like plastics, metals, resins, and composites. Many industry experts now recognize it as the sixth major manufacturing process, and its applications reach far and wide.
Emerging from the 1980s, 3D printing creates products without the need for traditional tooling, molds, or extensive manual labor. Businesses have already launched a diverse range of 3D-printed products, from aerospace components to consumer goods. (Sculpteo)
Is 3D printing expensive? It can be. Between the time spent designing the product and high-capacity printers that can cost anywhere from $50K to $500K, it's a real investment. But here's the silver lining: the cost of 3D printing technology has dropped significantly in recent years. (Reddit)
Beyond cost savings over time, 3D printing minimizes waste (you only use the material you need), conserves raw materials, and lets companies create and test prototypes before committing to mass production.
Advantages:
- Extreme design freedom and complexity
- No tooling or mold costs
- Fast prototyping and iteration
Drawbacks:
- Slower production speed compared to traditional methods
- Higher per-unit cost at volume
- Limited material options compared to conventional manufacturing
Products commonly made with 3D printing:
- Medical and dental devices
- Prosthetic limbs
- Aerospace components
- Shoes and fashion accessories
- Musical instruments
- Architectural models and building components
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How to choose the right manufacturing process
The right manufacturing process depends on what you're making, how many you need, and how much variation your customers expect. Here are the key factors to weigh:
- Product type — Is your product a countable unit (discrete) or a fluid/bulk material (process)? This narrows the field immediately.
- Order volume — High-volume, identical products point toward repetitive or continuous manufacturing. Low-volume, custom work fits job shop or 3D printing.
- Customization needs — If every order is different, job shop or discrete manufacturing gives you the flexibility you need.
- Regulatory requirements — Industries like food, pharmaceuticals, and cosmetics often require batch manufacturing with full lot traceability.
- Budget and capital — Continuous and repetitive lines require significant upfront investment. Job shop and batch processes have lower barriers to entry.
- Speed to market — If you need prototypes fast, 3D printing is hard to beat. For steady, high-volume output, repetitive manufacturing wins.
Many growing manufacturers use a combination of processes. For example, you might use 3D printing for prototyping, then shift to batch or discrete manufacturing for production runs.
Types of manufacturing processes in operations management
In operations management, the six types of manufacturing processes are often mapped to a product-process matrix — a framework that matches your process choice to your product volume and variety.
- Low volume, high variety → Job shop manufacturing
- Medium volume, moderate variety → Batch or discrete manufacturing
- High volume, low variety → Repetitive manufacturing
- Very high volume, no variety → Continuous process manufacturing
- Prototyping and complex geometry → 3D printing / additive manufacturing
Understanding where your products sit on this spectrum helps you invest in the right equipment, hire the right people, and set up the right workflows. If you're running a growing manufacturing operation, having the right MRP software makes it easier to plan production regardless of which process you use.
Sources
Frequently asked questions
What are the 6 types of production with examples?
The six types are repetitive manufacturing (auto parts), discrete manufacturing (smartphones), job shop manufacturing (custom machine shops), continuous process manufacturing (oil refining), batch process manufacturing (bakeries and pharmaceuticals), and 3D printing or additive manufacturing (medical devices and prototypes).
What are the 7 steps of manufacturing?
The seven general steps of manufacturing are: (1) product design, (2) sourcing raw materials, (3) production planning, (4) manufacturing or fabrication, (5) quality control and inspection, (6) packaging, and (7) shipping and distribution. The specific steps vary depending on your manufacturing process type.
What are the 6 Ps of manufacturing strategy?
The 6 Ps of manufacturing strategy are: Product (what you make), Process (how you make it), Plant (where you make it), Program (your production schedule), People (your workforce), and Performance (how you measure success). Together they form the framework for aligning manufacturing operations with business goals.
What is the difference between discrete and process manufacturing?
Discrete manufacturing produces distinct, countable units — like a chair, a phone, or an engine — that can be broken down into individual components. Process manufacturing transforms raw materials through chemical or physical reactions into products that can't be easily separated back out, like beverages, chemicals, or petroleum.
How Brahmin Solutions can help
No matter which manufacturing process your business uses, the quality and consistency of your final product is what matters to your customers. Brahmin Solutions is a cloud-based manufacturing platform built for growing manufacturers doing $500K–$50M in revenue. It handles MRP, inventory management, bill of materials, production planning, and lot tracking in one system — without the cost or complexity of enterprise ERP.
If you want to see how it fits your operation, book a demo and we'll walk you through it.
About the author
Brahm Meka is Founder & CEO at Brahmin Solutions.
