Manufacturing products are goods created by transforming materials, substances, or components into something new. They range from food and clothing to chemicals, machinery, electronics, and furniture; they do not all come from the same kind of factory or follow the same production route.
What counts as a manufacturing product?
The U.S. Bureau of Labor Statistics (BLS) defines manufacturing establishments as those that mechanically, physically, or chemically transform materials, substances, or components into new products. An establishment may do the processing itself or contract another establishment to do it. Some hand production and businesses that make and sell goods on the same premises can also fall within the sector. The definition is broader than large, automated factories. BLS: Manufacturing, NAICS 31–33
BLS classifies manufacturing industries into subsectors that include food and beverages; textiles, apparel, leather, wood, paper, and printing; petroleum, chemicals, plastics, rubber, and minerals; metals and machinery; computers, electronics, electrical equipment, and appliances; transportation equipment; furniture; and miscellaneous goods. This is an industry classification, not an exhaustive list of everything consumers might call a manufactured product. The BLS framework describes the U.S. economy; it is useful for understanding the category, but it is not a global rulebook.
What are the main types of manufacturing?
A useful distinction is whether production transforms materials in a continuous or batch flow, or makes identifiable items through a sequence of operations. NIST describes these as process-based and discrete-based manufacturing systems. Some facilities combine both. NIST: Manufacturing Profile for Cyber Security Framework (2016)
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Process-based manufacturing
- Continuous processes: Operations run as an ongoing flow, as in refinery or chemical production.
- Batch processes: A defined quantity is produced through a set of operations, as in food manufacturing.
Discrete manufacturing
Discrete systems make individual products or components through a series of steps. Machining a part and assembling electronic or mechanical components are examples. The items can generally be identified as separate units, even when the production line is highly automated.
Hybrid production
A manufacturer may use process-based operations to make a material or intermediate product, then use discrete operations to form, machine, or assemble it. The categories describe production systems, not mutually exclusive types of company.
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How does a product go from design to production?
There is no universal sequence of machines or operations: the route depends on the product and the capabilities available. Manufacturing.gov describes the product development cycle as running from the beginning of design and development work until the final product becomes available for purchase. Manufacturing.gov: Product Development Cycle
Turning a design into a product that can be made reliably requires decisions about the production system as well as the product itself. Planning may need to address:
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- Materials and components, including whether they can be sourced in the needed quantities.
- Processes, equipment, and tooling needed to make the product.
- The sequence of operations and the skills required to carry them out.
- Controls, sensors, and quality systems for checking whether products meet requirements.
- Scheduling, supply-chain coordination, and worker safety.
NIST’s manufacturing-related research categories cover process and machine capabilities, controls and sensors, quality systems, supply-chain integration, scheduling, workforce skills, and safety. Those are interconnected considerations: a design that works on paper may require changes if a material is unavailable, a process cannot meet tolerances, or inspection is impractical. NIST: Definition of Manufacturing-related R&D (updated August 26, 2025)
Where does additive manufacturing fit?
Additive manufacturing, often called 3D printing, builds an object by adding material rather than shaping or removing material in the same way as many conventional processes. It is one production option, not a substitute for every other method. NIST’s Manufacturing Extension Partnership describes uses such as prototypes, molds and inserts, aerospace components, customized medical parts, dental appliances, manufacturing jigs and fixtures, and rare or classic car spares. It also notes that additive methods can avoid some tooling costs and reduce material waste in some applications. These are potential benefits, not guaranteed results for every product. NIST MEP: Additive Manufacturing/3D Printing (created August 10, 2022)
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Whether it fits depends on the part, material, required quality, production volume, and available equipment. A complex design or a low-volume replacement part may make additive production worth considering; that alone does not establish that it will be the fastest or least expensive choice.
Independent reader supportYour contribution helps us test, update, and keep practical guides available for everyone.What should manufacturers weigh when choosing a production approach?
Manufacturing choices involve trade-offs rather than a universal ranking. The relevant questions vary by product and business, but commonly include:
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- Volume and customization: How many units are needed, and how much variation must each unit allow?
- Process and machine capability: Can available equipment make the product to its required specifications?
- Materials and components: Are suitable inputs available and dependable?
- Quality and inspection: What must be checked, and can the process consistently meet those requirements?
- Tooling, cost, and timing: What setup or tooling is needed, and how do those demands affect cost and time to market?
- Skills and safety: What work will people perform, what training is needed, and what hazards must be controlled?
- Supply-chain resilience: How vulnerable is production to delays or interruptions in inputs and suppliers?
- Resource use: What materials, energy, and other resources does production require, and where could efficiency improve?
Manufacturing has environmental side effects, while using resources more efficiently can also reduce costs. NIST author KC Morris wrote on October 2, 2020, that “No one-size-fits-all solution can exist for improving sustainable manufacturing performance.” The practical implication is to assess improvements against the particular operation rather than assume one method will work for every enterprise. NIST: Sustainable Manufacturing Is Smart Manufacturing (October 2, 2020)
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