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3D printing in Packaging Market By Type(SLA, SLS, FDM, Poly jet), By Materials(Plastic, PLA, ABS, PVA, Others), By Applications(Machine tools, Products, Bottles, Others), By End User(Food & Beverages, Pharma, Manufacturing And Cosmetics), By Region(North America, APAC, EMEA AndLATAM)

3D Printing in Packaging market overview:

The Global 3D Printing in Packaging market size is anticipated at 2349.9 Million USD by 2030 with a CAGR of 11.7%. 3D printing is reshaping packaging by enabling rapid prototyping, customizability, and sustainable production, leading to reduced waste and increased efficiency in the packaging industry. 3D technology in packaging includes of using the smart software system in computers to design the required shape of the packaging by actually printing the shape in physical form. This is done with 3D printing machines by successfully depositing thin layers of materials on platform until the desired shape of the object is achieved. The materials widely used for this is plastics, resins metal and nylon. It is now possible to physically achieve many intricate and complex product prototype with the highest details in smaller time frames. This improvises the production line process making it more efficient, thereby ending in customer satisfaction.

3D printing enables rapid prototyping and design iteration. Packaging manufacturers can create intricate and customized packaging designs with greater ease and speed, allowing them to test various concepts and make adjustments quickly. This has revolutionized the creative process, enabling more efficient and cost-effective design development. 3D printing allows for the production of highly customized and personalized packaging solutions. Companies can cater to individual customer needs and preferences, whether it's for personalized labels, unique packaging shapes, or branding elements. This level of customization enhances consumer engagement and brand loyalty, creating a more memorable and unique unboxing experience.

3D printing is also valuable for the production of lightweight and durable packaging materials. Customized packaging can be designed to minimize material usage while maintaining the structural integrity required for protecting products during shipping and handling. Lightweight materials contribute to cost savings and lower environmental impact by reducing transportation costs and associated carbon emissions. The packaging industry can leverage 3D printing for the development of smart packaging solutions. Embedding sensors or NFC (near field communication) technology within 3D-printed packaging can enable real-time tracking and monitoring of products, ensuring their integrity and safety. This is especially relevant in industries like pharmaceuticals and food, where traceability and quality control are paramount.

3D printing is reshaping the packaging industry by offering unprecedented levels of customization, enabling complex designs, and promoting sustainability. Its potential to revolutionize the way packaging materials and containers are produced, coupled with its cost-efficiency, positions 3D printing as a driving force in packaging innovation.

3D Printing in Packaging market
Global 3D Printing in Packaging market size from year 2024-2030

3D Printing in Packaging market drivers:

Rapid Prototyping and Iteration: 3D printing enables rapid prototyping, allowing designers and manufacturers to quickly test and refine packaging concepts. This reduces the time and cost associated with traditional prototyping methods, such as mold-making or tooling adjustments.

Complex Geometries and Structures: Traditional manufacturing processes often have limitations in creating complex shapes and structures. 3D printing excels in producing intricate and unique designs, enabling packaging that wasn't previously possible. This is especially valuable for protecting delicate or irregularly shaped items.

Lightweight and Material Efficiency: 3D printing allows for the creation of lightweight and optimized packaging designs, reducing material waste. This is crucial for sustainability efforts as it minimizes the environmental impact associated with packaging materials and transportation costs.

On-Demand Manufacturing: 3D printing facilitates on-demand production of packaging, eliminating the need for large inventories and reducing storage costs. Companies can produce packaging as needed, which is particularly beneficial for seasonal or niche products.

Supply Chain Efficiency: Additive manufacturing, including 3D printing, can be used to produce packaging components closer to the point of use or sale. This can reduce transportation costs and logistics challenges, making the supply chain more efficient.

Brand Differentiation: Unique 3D-printed packaging can help products stand out on store shelves and in the e-commerce space. It can become a part of a brand's marketing strategy, enhancing product visibility and attracting consumers.

Cost Savings: While 3D printing technology can involve higher upfront costs, it can lead to significant cost savings in the long run, especially for custom and low-volume packaging runs. The reduced need for tooling, molds, and warehousing can contribute to cost efficiency.

3D Printing in Packaging market trends:

Collaborative Design and Co-Creation: The use of 3D printing encourages collaboration between brands, designers, and consumers, leading to co-created packaging solutions that better meet specific needs and preferences.

Waste Reduction: 3D printing reduces material waste as it typically produces little to no waste in the production process, aligning with sustainability goals by minimizing environmental impact.

Counterfeit Prevention: 3D printing is used to incorporate security features directly into packaging. This makes it challenging for counterfeiters to replicate products and helps protect the authenticity of brands.

Regulatory Compliance: 3D printing technology allows for swift modifications and adaptations to packaging designs to meet changing regulatory requirements. This is particularly valuable in industries with strict packaging standards, such as pharmaceuticals and food.

Smart Packaging Integration: 3D printing is facilitating the integration of smart features into packaging. QR codes, sensors, and RFID tags can be seamlessly embedded into the packaging, providing real-time data to consumers and supply chain managers.

E-commerce Packaging Optimization: The rapid growth of e-commerce has driven the need for innovative, cost-effective, and protective packaging solutions. 3D printing can contribute to the optimization of e-commerce packaging, making shipping more efficient and reducing damage to products in transit.

Texture and Tactile Elements: 3D printing enables the incorporation of texture and tactile elements into packaging designs. Brands are using this capability to create packaging that engages multiple senses, enhancing the overall consumer experience.

Advanced Security Features: The trend of enhancing packaging security through 3D printing is gaining momentum. Companies are incorporating security features, such as unique patterns, holograms, or QR codes, to deter counterfeiting and tampering.

Realistic: The newer technology and machines which are being developed for 3 D printing allows for the production and desiging of the realistic looking prototypes. The realistic prototypes resemble the real-life product and gives all the idea to customer about how the product will look and feel in designed package. This would help in accurate decision making which results in better and efficient customer satisfaction related to the packaging of the product

3D Printing in Packaging market report scope:




2024 – 2030


CAGR OF 11.7%


2349.9 million USD


Value In Us Dollars and Volume In Metric Tons


By Type, Material, Application, End Use, Region


North America, APAC, LATAM, EMEA


3D Systems, FormLabs, Stratasys, HP, Desktop Metal, Ultimaker, Carbon, EOS, Nanoscribe, MarkForged

3D Printing in Packaging market developments:

Researchers at the University of British Columbia have developed a new 3D printing material called cellulose nanofibril reinforced thermoplastic polyurethane (CNF-TPU). CNF-TPU is a strong, lightweight, and biodegradable material that is well-suited for a variety of packaging applications, such as food packaging and shipping containers. CNF-TPU is made from a combination of cellulose nanofibrils (CNF) and thermoplastic polyurethane (TPU). CNF is a renewable resource that can be extracted from wood, agricultural waste, and other plant-based materials.

Stratasys acquired Origin, a company that develops and manufactures programmable photopolymerization (P3) 3D printers. P3 3D printers are known for their speed and accuracy, making them well-suited for high-volume manufacturing applications. Stratasys plans to use Origin's technology to develop new 3D printing solutions for packaging applications. Stratasys is a leader in the 3D printing industry, and its acquisition of Origin is a significant development for the 3D printing packaging sector.

Desktop Metal acquired EnvisionTEC, a company that develops and manufactures digital light processing (DLP) 3D printers. DLP 3D printers are known for their high resolution and surface finish, making them well-suited for prototyping and producing custom packaging products. Desktop Metal plans to use EnvisionTEC's technology to develop new 3D printing solutions for packaging applications. The acquisition of EnvisionTEC by Desktop Metal is a positive development for the 3D printing packaging sector. Desktop Metal's resources and expertise, combined with EnvisionTEC's expertise in DLP 3D printing, are expected to lead to the development and adoption of new and innovative 3D printing solutions for packaging applications.

3D Printing in Packaging market insights:

In the packaging industry, SLS has found applications in the design and prototyping of customized packaging solutions. Companies can create intricate and durable packaging designs, including functional prototypes, using SLS technology. SLS-printed packaging may be used for unique or high-value products, such as electronics or luxury items, where customization and a premium appearance are crucial.

SLA is another 3D printing method that uses a liquid photopolymer resin cured by a UV laser to build objects layer by layer. SLA-printed components are known for their high level of detail and surface finish. In the packaging industry, SLA technology is utilized for creating detailed and precise prototypes of packaging designs. It is particularly valuable for high-end cosmetic or luxury brands that require visually appealing packaging. SLA can be used to quickly and accurately produce prototypes to test product fit and aesthetics.

SDM, also known as multi-jet modeling, is a 3D printing technology that involves the deposition of wax or thermoplastic materials to create objects layer by layer. While not as prevalent in the packaging industry as other 3D printing methods, SDM can be used to produce prototype packaging or mold patterns. It is beneficial for testing the feasibility of certain packaging designs or creating tooling and molds for mass production processes.

In North America, particularly in the United States, 3D printing has witnessed significant growth in the packaging sector. The region has a mature 3D printing ecosystem with a strong presence of innovative startups and established companies specializing in additive manufacturing. The North American packaging industry has leveraged 3D printing for customized, high-quality packaging solutions, especially in the e-commerce and luxury goods sectors. The technology's versatility and potential for rapid prototyping have contributed to its adoption, allowing companies to design and manufacture packaging materials with precision and speed.

Europe has also embraced 3D printing in the packaging industry. The region's emphasis on sustainability aligns with 3D printing's potential to create eco-friendly and efficient packaging solutions. European countries, such as Germany and the Netherlands, have been at the forefront of incorporating 3D printing into packaging design and production. This has led to the development of unique and innovative packaging materials and shapes that reduce waste and enhance product protection during transit. Additionally, the European Union's support for research and innovation has driven advancements in 3D printing technologies that are highly relevant to the packaging industry.

Asia, particularly in countries like China and Japan, has seen substantial growth in 3D printing applications for packaging. The region's growing manufacturing and e-commerce sectors have increased the demand for customized packaging, and 3D printing is uniquely positioned to deliver on this requirement. Moreover, the adoption of 3D printing in packaging manufacturing aligns with the broader trend of automation and digitalization in manufacturing processes in Asia.

In developing regions of the world, the growth of 3D printing in the packaging industry varies. Economic factors, such as the cost of 3D printing technology and materials, can impact adoption. While 3D printing is expanding in certain countries, it may take time for this technology to become more prevalent in packaging manufacturing in these regions.

3D Printing in Packaging market segmentation:

By Type

Stereolithography (SLA)

Selective Laser Sintering (SLS)

Fused Deposition Modelling (FDM)

  • Cartesian

  • Delta

  • Polar

  • Robotic Arm

  • Polyjet

By Materials


  • Polylactic plastic (PLA)

  • Acrylonitrile butadiene styrene (ABS)

  • Polyvinyl Alcohol Plastic (PVA)





By Applications

Machine tools






By End Users

Food and beverage




By Region

North America




3D Printing in Packaging market key players:

3D Systems,




Desktop Metal,






3D Printing in Packaging market report

Global 3D printing in Packaging Market

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