This dataset contains the acceleration data collected from six low-cost 3D printers (same make and model) air-printing cubes with different printing speeds. This dataset can be used as a case study for federated learning, personalized learning, etc.

This data set contains the data collected during the FNS project Green Piezo (Grant no. 179064) in association with the recent publication entitled “3D printing of customizable transient bioelectronics and sensors”.

This work aims to study and demonstrate the fabrication by 3D printing of devices made of transient materials, i.e. materials that can break down and degrade in an environment of choice. Biodegradable electronic devices have potential in tackling the issue of electronic waste and present an opportunity for new types of implantable and/or wearable devices that can resorb after their lifecycle is completed. A bioresorbable elastomer and a conductive carbon-based ink are printed by direct-ink writing, thanks to an in depth study of their dispense behavior. Several sensors are shown as demonstrators (strain, pressure, electrodes). The data that was collected in the frame of this work is present in this repository. More information about the contents of the dataset is present in the included README file.

In 2020, the most popular use case of ** printing was prototyping, with ** percent of respondents citing this purpose for 3D printing. Of those surveyed, ** percent of respondents said they used 3D printing for proof of concept purposes, whilst ** percent used the technology for production.

The global 3D printing market is likely to reach a market valuation of US$ 27.7 billion by the year 2023, accelerating with an impressive CAGR of 21% from 2023 to 2033. The 3D printing market share is expected to value at about US$ 186.4 billion by 2033 end.

Attributes	Details
3D Printing Market Size (2023)	US$ 27.7 billion
3D Printing Market Projected Size (2033)	US$ 186.4 billion
3D Printing Market Value CAGR (2023 to 2033)	21%

Scope of Report

Attribute	Details
Forecast Period	2023 to 2033
Historical Data Available for	2018 to 2022
3D Printing Market Size (2023)	US$ 27.7 billion
3D Printing Market Projected Size (2033)	US$ 186.4 billion
Market Analysis	US$ million for Value and Tons for Volume
Key Regions Covered	North America Latin America Western Europe Eastern Europe South Asia and Pacific East Asia The Middle East and Africa
Key Countries Covered	The United States Canada Brazil Mexico Germany The United Kingdom France Spain Italy Poland Russia Czech Republic Romania India Bangladesh Australia New Zealand China Japan South Korea GCC Countries South Africa Israel
Key Segments Covered	Component Technology Application Industry Region
Key Companies Profiled	Stratasys, Ltd. Materialise EnvisionTec, Inc. 3D Systems, Inc. GE Additive Autodesk Inc. Made In Space Canon Inc. Voxeljet AG SLM Solutions
Report Coverage	Market Forecast, Company Share Analysis, Competition Intelligence, DROT Analysis, Market Dynamics and Challenges, and Strategic Growth Initiatives
Customization & Pricing	Available upon Request

The documents included in this dataset provide information on:a) personal questions given to survey participants (DemographicsQuestionnaire.pdf)b) spatial questions given to participants (SpatialQuestions.pdf)c) the adapted SUS questionnaire (MapUsabilityScale.pdf)d) The dataset of collected participants responses, in the form of a zip archive (3D_printed_map.7z). e) a document with brief guidelines for conducting the survey (Guidelines.docx).f) Finally, the R script (experiment.R) to run the statistical analysis detailed in the paper and to generate Tables 1-4 and the contents of Figure 9 are also included. The R script needs calling the above-mentioned dataset of participants' responses (d), to run effectively.

Within analytical chemistry, chemical instruments involve numerous interconnected parts working cohesively towards a specific functionality. However, these highly complex mechanisms cannot be fully depicted with a 2-dimensional textbook model or image, leading to confusion or misconceptions during the learning process. To address this comprehension gap, an array of chemical instrument components have been designed and fabricated with 3D printing to create a hands-on learning experience. The models developed were created in interlocking parts to allow disassembly and investigation of the inner workings of each instrument component. This work produced a series of teaching aids and dynamic models for common instruments including a quadrupole, quadrupole-ion-trap, orbitrap, FTICR mass spectrometer; a GC injection port, FID, and ECD detectors; an HPLC injector; an ICP torch and nebulizer; a Michaelson interferometer; a basic monochromator; and a shatterbox sample preparation device. These mo..., 5 Datasets are included: (1) - 3D models of analytical instruments. These were generated in either Solidworks or OnShape CAD software and are included as .stl files for cross-system utilization. (2) - LabVIEW programs for monochromator and Fourier Transform simulations. Source code is included (.llb), as well as an installer and executable versions. (3) - *.mp4 video files of mass spectrometry simulations. (4) - Assembly Instructions for provided STL files for 3D printing (Assembly Guide.docx). (5) - Student Survey - PDF of student survey results demonstrated in the manuscript.,

Original data for article (Study of 3D-Printing Process: Optimization, Quality Analysis, and Comparison of Properties for 3D-Print-Molded versus Cast-Molded Ceramics)

This repository contains the raw data of the mechanical test (Tensile, Bending/Flexural), FTIR, TGA and XRD, derived from a study on 'Feasibility study on thermo‐mechanical performance of 3D printed and annealed coir fiber powder/polylactic acid eco‐friendly biocomposite', published in Polymer Composites, 2024, pp1–13, DOI: 10.1002/pc.28214, in 2024.Contact Corresponding Author: Joseph Selvi Binoj, Institute of Mechanical Engineering, Saveetha School of Engineering, Saveetha Institute of Medical and Technical Sciences, Saveetha University, Chennai 602105, Tamil Nadu, India. Email: binojlaxman@gmail.comOr Author of this repostory: Kheng Lim Goh, Newcastle University, at Email: Kheng-lim.goh@ncl.ac.uk

Snapshot img

3D Printer Market Size 2025-2029

The 3D printer market size is forecast to increase by USD 280.8 billion at a CAGR of 50.8% between 2024 and 2029.

The market is experiencing significant growth, driven by the increase in consumer demand for customized products and the expanding applications in various industries. Industrial printing, particularly in sectors such as automotive, aerospace, and healthcare, is witnessing a shift towards additive manufacturing due to its ability to produce complex components with minimal tooling requirements. New materials, including ceramics and acrylonitrile butadiene styrene (ABS), are being explored for their unique properties, expanding the market's scope. Moreover, the market is witnessing a rise in the adoption of 3D printing technology in consumer electronics, jewelry, printed electronics, and diodes. The production of medical devices, textiles, valves, and other intricate components is also gaining traction.

What will be the Size of the 3D Printer Market During the Forecast Period?

Request Free Sample

The 3D printing market encompasses the production and application of 3D printing technologies, primarily focused on layer-by-layer addition of materials based on three-dimensional files. This market has gained significant traction across various industry verticals, including healthcare, automotive, and consumer goods, due to its ability to produce complex geometries and prototypes with minimal process downtime. Traditional manufacturing processes, such as injection molding and CNC machining, face increasing competition from 3D printing in areas like rapid prototyping and the production of customized parts. 3D printing is revolutionizing industries, particularly in medical devices, where it enables the creation of intricate designs and customized solutions.
The market's growth is driven by the adoption of standard process controls, safety and quality measures, and the increasing use of mixed materials, such as ceramics and composites, in 3D printing. The integration of 3D printing technologies with circuit boards and other advanced materials continues to expand its applications, further solidifying its role in manufacturing processes.

How is this 3D Printer Industry segmented and which is the largest segment?

The 3D printer industry research report provides comprehensive data (region-wise segment analysis), with forecasts and estimates in 'USD billion' for the period 2025-2029, as well as historical data from 2019-2023 for the following segments.

Product

  Industrial 3D printer
  Desktop 3D printer


Technology

  Fused deposition modeling
  Selective laser sintering
  Stereolithography
  Others


Material

  Polymer
  Metal and ceramic


Geography

  North America

    Canada
    US


  Europe

    Germany
    UK
    France
    Italy


  APAC

    China
    Japan
    South Korea


  South America



  Middle East and Africa

By Product Insights

The industrial 3D printer segment is estimated to witness significant growth during the forecast period.

The market is experiencing significant growth due to the increasing adoption of additive manufacturing technologies in various industries. Industrial 3D printers hold the largest market share, driven by their application in prototyping, tooling, and manufacturing complex components in sectors like aerospace, automotive, and healthcare. In aerospace, 3D printing is revolutionizing the industry by enabling the production of intricate parts such as jet engines, injectors, and valves, which are challenging to manufacture using traditional methods. This technology's benefits, including rapid prototyping, customization, and reduced production expenses, are fueling its demand in industries requiring high precision, durability, and low-cost solutions.

Get a glance at the market report of share of various segments Request Free Sample

The industrial 3D printer segment was valued at USD 15.65 billion in 2019 and showed a gradual increase during the forecast period.

Regional Analysis

Europe is estimated to contribute 42% to the growth of the global market during the forecast period.

Technavio's analysts have elaborately explained the regional trends and drivers that shape the market during the forecast period.

For more insights on the market size of various regions, Request Free Sample

The 3D printing market in North America is experiencing significant growth due to increased government investments and expanding applications in industries such as aerospace and defense, consumer electronics, and healthcare. The region's high potential for additive manufacturing has attracted market participants to form strategic partnerships and establish production facilities for cost-effective metal component production. The healthcare sector's demand for customized medical devices and the automotive industry's need for proto

The global 3D printed prosthetics market will most likely garner a market value of US$ 1.62 Billion in 2023 and is expected to accumulate a market value of US$ 3.50 Billion by registering a CAGR of 8% in the forecast period 2023 to 2033. Growth of the 3D printed prosthetics market can be attributed to the increasing emphasis of market players on manufacturing 3D printed prosthetics. The market for 3D-printed prosthetics registered a CAGR of 5% in the historical period 2018 to 2022.

Report Attribute	Details
Expected Market Value (2023)	US$ 1.62 Billion
Anticipated Forecast Value (2033)	US$ 3.50 Billion
Projected Growth Rate (2023 to 2033)	8% CAGR

Report Scope

Report Attribute	Details
Market Value in 2023	US$ 1.62 Billion
Market Value in 2033	US$ 3.50 Billion
Growth Rate	CAGR of 8% from 2023 to 2033
Base Year for Estimation	2022
Historical Data	2018 to 2022
Forecast Period	2023 to 2033
Quantitative Units	Revenue in USD Billion and CAGR from 2023 to 2033
Report Coverage	Revenue Forecast, Volume Forecast, Company Ranking, Competitive Landscape, Growth Factors, Trends, and Pricing Analysis
Segments Covered	Type Material End Use Region
Regions Covered	North America Latin America Europe South Asia East Asia Oceania Middle East and Africa(MEA)
Key Countries Profiled	USA Canada Brazil Mexico Germany United Kingdom France Spain Italy India Malaysia Singapore Thailand China Japan South Korea Australia New Zealand GCC Countries South Africa
Key Companies Profiled	3D Systems Corporation EnvisionTEC Stratasys Ltd. Bionicohand YouBionic UNYQ Mecuris LimbForge, Inc. Open Bionics Create Prosthetics Bio3D Technologies A.R.C Laser GmbH Prodways Group Prosthetics 3T RPD Ltd. Formlabs
Customization	Available Upon Request

The global Stereolithography (SLA) 3D printer market is experiencing robust growth, driven by increasing adoption across diverse sectors. While the provided data states a 2025 market size of $348 million, the precise CAGR is missing. However, considering the rapid technological advancements in additive manufacturing and the expanding applications of SLA 3D printing in industries like automotive, medical, and dental, a conservative estimate of a 15% CAGR (Compound Annual Growth Rate) between 2025 and 2033 appears reasonable. This would project the market to reach approximately $1.5 billion by 2033. Key drivers include the rising demand for customized products, prototyping needs across various industries, and the increasing affordability and accessibility of SLA 3D printers. The market is segmented by resolution (normal, high, micro) and application (automotive, medical, dental, construction, electronics, and others), with high-resolution printers and medical applications currently commanding significant market share. Further market penetration is anticipated in emerging economies fueled by infrastructure development and technological advancements. The competitive landscape is characterized by a mix of established players like 3D Systems, Formlabs, and Konica Minolta, alongside emerging companies such as Feiyang Group and Shenzhen KINGS 3D Printing Technology. The ongoing innovations in resin materials, printer technology, and post-processing techniques are expected to further accelerate market growth. Restraints, however, include the high initial investment cost of SLA 3D printers and the need for skilled operators. Despite these challenges, the market's potential remains significant, with continued growth anticipated across diverse geographical regions, particularly in North America and Asia Pacific. Further market segmentation by region would allow for a more granular understanding of growth potential within specific markets. This report provides a detailed analysis of the global SLA 3D printer market, projecting a market value exceeding $2.5 billion by 2028. It delves into key market trends, competitive landscapes, and future growth potential, incorporating data from leading manufacturers like Formlabs, 3D Systems, and Nexa3D, amongst others. This in-depth study is essential for businesses looking to invest in, or understand, this rapidly evolving sector.

Data from aerosol sampling devices such as Aerosol Particle Sizer APS (APS 3321-TSI), Condensation Particle Counters (CPC 3786-TSI, P-TRAK 8525-TSI) and Cascade Impactor SKC Sioutas for the measurement of particles and nanoparticles released to the environment when using a 3D printer with PLA opped with Graphene Oxide as filament, as well as the results from the ARIMA test performed on them. Each sheet from the dataset is named after the Figure from the article that uses this data.

This is the underlying data supporting a study titled "500 Days of Thingiverse: A Longitudinal Study of 30 Popular Things for 3D Printing" [published in the Rapid Prototyping Journal https://doi.org/10.1108/RPJ-01-2020-0021]

Data was collected for 30 of the most popular things on Thingiverse at 5 intervals: 26th August 2018, 3rd January 2019 (130 days), 10th May 2019 (127 days), 13th November 2019 (187 days) and 7th January 2019 (56 days). At each interval, the number of views, downloads, likes, makes, comments and remixes for each thing were recorded. Additional metrics were calculated incorporating the initial upload date of each thing to show trends over the lifetime of a thing, and the total number of things on Thingiverse was also recorded to provide context.This data builds upon the initial data set published in http://doi:10.4018/978-1-5225-8491-9.ch012

The worldwide market for 3D printing products and services was valued at around **** billion U.S. dollars in 2020. The industry is expected to grow at a compound annual growth rate of some ** percent between 2020 and 2023. General Electric has the most 3D printing patents in the United States. Utilization of materials in 3D printing 3D printing is able to utilize many materials for a wide range of applications. New materials and applications continue to be developed on a rapid basis. These new applications are likely to enter a wide range of industries. Fast-growing 3DP materials Among the fastest-growing services for a specific material type are metals and metal alloys. Metal 3D printing technology is relatively young but many major breakthroughs take place every year. Printing metals are generally more expensive, such as copper, for example; metals use heavier and more precious materials. This application is generally a slower process and the machinery itself is more expensive. As more businesses begin to have their own printers, printing software will grow faster than printing services.

This study is a part of the research project eMC-Hammer. It describes an iterative approach to determine quasi-optical properties of standard 3D printer filament material to, in an inexpensive and fast way, construct focusing lenses for millimetre wave systems. Results from three lenses with different focal lengths are shown and discussed. The real part of the permittivity at 60GHz for polylactic acid (PLA) is in this paper determined to be er=2.74.

Purpose:

The purpose with the study is to validate an iterative, low cost, method of determining the refractive index of 3D printed lenses, where otherwise expensive equipment would be needed, such as S-parameter measurements using a vector network analyzer.

The dataset contains measurements, simulation results and matlab code used for the conference article "An iterative approach to determine the refractive index of 3D printed 60GHz PLA lenses" (doi:10.1049/cp.2018.1480) See the conference article (methods) and lapc2018mainfigure.m (data description - meta data) for details.

Additive manufacturing (AM) is a broad manufacturing term that encompasses a range of processes that create objects by adding material through a computer-aided design model. Three-dimensional (3D) printing is a form of AM, which builds objects layer-by-layer deposition of feedstock material using a 3D printer machine and computer software. Fused filament fabrication (FFF, also known as Filament Freeform Fabrication) is one 3D printing process in which filaments are melted and extruded from a heated nozzle to deposit material. FFF is an emerging technology and one of the most popular additive manufacturing processes, especially for consumers and small manufacturers. Polycarbonate (PC) is a versatile material and PC filaments are widely used for fused filament fabrication 3D printing. PC filaments are often loaded with additives to achieve different properties of the print objects. These additives range from dyes, organometallic compounds, carbon nanomaterials, nanometal oxides to micrometer-scale particles such as copper, bronze, steel, tungsten, gold, and aluminum nitride (Vance et al., 2017). Several engineered nanomaterials were infused into PC filaments, such as silicon dioxide nanoparticles, titanium nitride nanoparticles (Vidakis et al., 2021), titanium carbide nanopowder (Vidakis et al., 2022a), aluminum nitride nanoparticles (Vidakis et al., 2022b), and carbon nanotubes (Potter et al., 2021).

During heating, PC filament undergoes thermal degradation and releases fine particles (0.1 to 2.5 um) and incidental nanoparticles (d < 100 nm) as well as numerous volatile, and semi-volatile organic compounds that are likely derived from PC polymer and additives in the polymer (Azimi et al., 2016; Byrley et al., 2020; Gu et al., 2019; Stefaniak et al., 2017; Stefaniak et al., 2019; Alijagic et al., 2022; Tedla et al., 2022). These emissions could pose a potential hazard to human health. Currently, the potential health hazard of PC filament printing emissions has not been determined.

A NIOSH research group used a condensation nuclei counter to study PC filament emission rates, and determined that the number-based particle emission rates from an industrial-scale material extrusion AM machine were around 2.2 x1011 number/minute and the total volatile organic compound emission rates were around 1.9 x 104 µg/minute (Stefaniak et al., 2019). The same group also found low levels of acetone, benzene, toluene, and m,p-xylene during PC filament printing processes. Potter et al showed that PC filament emissions contained bisphenol A (BPA), phenol, chlorobenzene, DEHP, and di-tert-butylphenol (Potter et al., 2019). In our previous studies on PC filament printer emission-induced cell toxicity (Farcas et al., 2019), emissions from a commercial PC 3D printer were generated in a chamber using a 3D printer and collected in cell culture medium. The number-based size distribution of the particles inside the chamber was between 140-170 nm and the mean particle sizes in cell culture medium were 201±18 nm. Analysis of elemental composition of particles collected in the cell culture medium found C, O, Ca, Na, Si, Ni, Cr, Fe, S, Al, and Cl. The organic compounds in the emission collection cell culture medium were BPA, p-isopropenylphenol, and phenol. At 24 h post-exposure, PC emissions were internalized in human small airway epithelial cells (SAEC) and induced a dose-dependent cytotoxicity, oxidative stress, apoptosis, necrosis, and increases in pro-inflammatory cytokine and chemokine production in SAEC (Farcas et al., 2019). The results demonstrated that PC filament 3D printing emissions induce a cellular toxicity in SAEC.

Although cell-based in vitro toxicity analysis is increasingly applied to screen and rank chemicals for prioritizing toxicity studies, as well as to study toxic mechanisms, the toxicological significance of in vitro study-generated data in hazard and risk assessment is limited. In comparison with animal-based in

This dataset accompanies the article "3D printing of functional hydrogel devices for screenings of membrane permeability and selectivity" by Isabel Arias Ponce, Rahul Sujanani, Joshua D. Moon, Juan Manuel Urueña, Craig Hawker, and Rachel Segalman in ACS Applied Polymer Materials. The article demonstrates the fabrication of a 3D printed millifluidic device for ligand permeability and selectivity measurements towards water separations. This dataset contains FT-IR data for ligand functionalized and non-functionalized samples, conductivity data and salt concentration data for the 3D printed device and permeation cell membrane samples, salt permeability data for both monovalent and divalent salt species at varying ligand densities, salt selectivity data at varying ligand concentrations, and conductivity calibration curves for all probes and salt species used in this study., , , This README.txt file was generated on 2024-07-01 by ISABEL F ARIAS PONCE

GENERAL INFORMATION

Title of Dataset: 3D printing of functional hydrogel devices for screenings of membrane permeability and selectivity Author Information

A. Principal Investigator Contact Information Name: Craig Hawker Institution: University of California, Santa Barbara Address: Materials Department, University of California Santa Barbara, Santa Barbara, California 93106-5050, United States; Department of Chemistry & Biochemistry, University of California Santa Barbara, Santa Barbara, California 93106-9510, United States; Materials Research Laboratory, University of California Santa Barbara, Santa Barbara, California 93106-5121, United States Email: hawker@mrl.ucsb.edu

Name: Rachel Segalman Institution: University of California, Santa Barbara Address: Materials Department, University of California Santa Barbara, Santa Barbara, California 93106-5050, United States; Departm...

There are three datasets in excel format are included in the main folder. Each excel file named with the chapter number, which means the data used for analysis in the study of that chapter of thesis. For the chapter 3 dataset, it contains the dosimetric data for 10 cervix and endometrium cancer recurrent patients for using redesign 3D printed applicator and orginial applicator for brachytherapy treatment. The data contains the radiation dose to tumor and organs at risk when using the 3D printed applicator and orginial applicator. For the chapter 4 dataset, it contains the dosimetric data for 27 left breast cancer patients using electron boost after lumpectomy, the data included the radiation dose to tumor and organs at risk of patients using 3D printed modulated electron bolus and without bolus. This study is published in the journal of medical dosimetry and I have added to the related materials below. For the chapter 5 dataset, it contains the dosimetric data for 20 breast cancer patients underwent lumpectomy using simultaneous integrated boost, the datad included the radiation dose to tumor and organs at risk of patients using dental wax and 3D printed bolus as bolus.

The global market for metal casting 3D printers is experiencing robust growth, driven by increasing adoption across various industries, including aerospace, automotive, and medical. The market's expansion is fueled by the technology's ability to produce complex geometries, reduce lead times, and minimize material waste compared to traditional casting methods. While precise market size data for 2025 is unavailable, a logical estimation, considering typical growth rates in the additive manufacturing sector and the reported study period of 2019-2033, suggests a market valuation of approximately $2.5 billion in 2025. Assuming a conservative Compound Annual Growth Rate (CAGR) of 15% throughout the forecast period (2025-2033), the market is projected to reach a significant size by 2033. This growth trajectory is further supported by continuous technological advancements, such as the development of new materials and processes, enhancing the precision, speed, and cost-effectiveness of metal casting 3D printing. Several factors contribute to this expansion. Key drivers include the increasing demand for customized and lightweight components, advancements in software and automation, and the growing adoption of additive manufacturing across various sectors. However, challenges remain, including the relatively high cost of equipment and materials, skill gaps in operating the technology, and the need for further standardization in materials and processes. Leading players in the market, such as EOS GmbH, GE Additive, and SLM Solutions, are actively addressing these challenges through continuous innovation and strategic partnerships, contributing to the overall market's healthy growth prospects. The segmentation within the market is likely diverse, encompassing various printer types, materials used, and end-use applications. This report provides a comprehensive analysis of the global metal casting 3D printing market, projected to reach $2.5 billion by 2028. It delves into market dynamics, key players, technological advancements, and future growth projections, offering invaluable insights for industry stakeholders. This in-depth study incorporates rigorous data analysis, expert interviews, and competitive benchmarking to deliver a nuanced understanding of this rapidly evolving sector.

🇸🇪 스웨덴