Types of Printers: A Complete Guide to Computer Printer Types & Technology

A printer is a hardware device that reproduces digital documents, images, or three-dimensional models onto a physical medium, and printers fall into two broad families: traditional 2D printers that mark a flat surface and 3D printers that build solid objects layer by layer.

What Is a Printer? Definition and Purpose

A printer is a computer peripheral that takes digital data from a computer, phone, or network and renders it as a permanent output, most commonly text and images on paper but increasingly solid objects in plastic or metal. The core purpose of a printer is to convert intangible digital files into a tangible, shareable, and archivable form. Traditional printers produce two-dimensional output by depositing ink, toner, or dye onto a sheet, while 3D printers produce three-dimensional output by adding material along a vertical axis.

The history of printer invention stretches from the 19th century to the modern desktop. Charles Babbage designed a mechanical printer for his Difference Engine in the 1820s, making him one of the earliest pioneers of computer-driven printing. Through the 1950s and 1960s, early electronic printers grew out of teleprinter technology, with the Teletype Corporation supplying the impact-based output devices that connected to mainframe computers. The desktop publishing revolution of the 1980s transformed printing for ordinary users: the Apple LaserWriter, launched in 1985 with built-in PostScript, let small offices typeset professional documents for the first time and turned the personal computer into a publishing tool.

Types of Printers: A Complete Overview

Printers are classified by the technology they use to form an image or object, and the main types are dot matrix, inkjet, laser, LED, thermal, dye-sublimation, solid ink, all-in-one multifunction, large format, and 3D printers. The first distinction is between impact printers, which strike the page through an inked ribbon, and non-impact printers, which apply ink, toner, or heat without physical contact. The second distinction is between 2D printers that mark a surface and 3D printers that build volume.

• Dot matrix — impact technology for multi-part forms and continuous stationery.
• Inkjet — sprays liquid ink, versatile for home and photo printing.
• Laser and LED — fuse toner with heat for fast, sharp, high-volume output.
• Thermal — uses heat to print labels, receipts, and barcodes.
• Dye-sublimation — diffuses dye into media for continuous-tone photos.
• Solid ink — melts wax-based ink for vivid, eco-friendly color.
• All-in-one — combines printing, scanning, copying, and faxing.
• Large format and A3 — handles posters, banners, and oversized documents.
• 3D printers — build physical objects from digital models.

Traditional 2D Printer Types

Traditional 2D printers deposit ink, toner, dye, or heat onto a flat sheet to produce text and images, and they remain the workhorses of homes, offices, and industry. Each technology balances cost, speed, quality, and permanence differently, which is why several types coexist rather than one replacing all others.

Dot Matrix Printers: History and Current Use

Dot matrix printers are impact printers that form characters by striking an inked ribbon against the paper with a grid of tiny pins, and despite being among the oldest computer printing technologies they remain in active use today. Their defining advantage is the ability to print multi-part carbon-copy forms in a single pass, which is why warehouses, logistics depots, banks, and government offices still rely on them for invoices, delivery notes, and payslips. Dot matrix printers are exceptionally cost-effective: the ribbons are cheap, the mechanisms are durable, and they tolerate dusty industrial environments that would clog an inkjet.

The Epson LQ-310 is a representative modern dot matrix model, a 24-pin printer still sold for continuous-stationery and form-printing tasks. While impact printers like dot matrix devices are obsolete for general document and photo work — they are slow and noisy and cannot reproduce fine images — their niche durability keeps them relevant where carbon copies and tractor-fed continuous paper matter.

Inkjet Printers

Inkjet printers create images by spraying microscopic droplets of liquid ink onto paper through nozzles, and they are the most common printer type in homes because of their low purchase price and excellent color reproduction. The printing mechanism uses either thermal (bubble-jet) or piezoelectric heads to fire precisely placed droplets, allowing smooth gradients and vivid photographs. Inkjet printers handle a wide range of media, from plain paper to glossy photo stock, making them the most versatile choice for mixed home use.

The advantages and disadvantages of inkjet printers are well defined. On the plus side, inkjets are inexpensive to buy, compact, quiet, and produce superb color and photo output. On the downside, cartridge ink is one of the most expensive liquids by volume, print speed is slower than a laser, and infrequently used printers can suffer clogged nozzles. Typical home models include the HP DeskJet 3755, the HP Deskjet line, and Canon Pixma series, aimed at users who print occasionally and value photo quality over throughput.

Inkjet connectivity is broad, covering USB, Ethernet, Wi-Fi, Wi-Fi Direct, Bluetooth, and NFC, plus mobile printing standards like Apple AirPrint and HP ePrint that let you print from a phone or tablet without a driver. This wireless flexibility, combined with cloud printing from Google Drive and Dropbox, makes inkjets convenient for households with multiple devices.

Business and Continuous Ink Inkjet Printers

Business inkjet printers and supertank models address the inkjet's biggest weakness — ink cost — by replacing tiny cartridges with high-yield ink systems aimed at higher volumes. Continuous ink and supertank printers use large refillable reservoirs instead of cartridges, slashing the cost per page and the waste of plastic cartridges, which makes them an eco-friendly choice for heavy users. Epson pioneered this approach with the Epson EcoTank range, including the Epson EcoTank ET-1810 Inkjet Printer for home use and the Epson EcoTank Pro ET-5850 for small offices, where a single set of bottles can print thousands of pages.

Supertank printer cost savings are substantial: where a cartridge inkjet might cost 10–20 cents per color page, a supertank can drop that to under a cent. Canon competes directly with its MegaTank line — the Canon G3675W MegaTank Printer, Canon Pixma Endurance G6065, and Canon Pixma G7020 — while business-grade cartridge inkjets such as the HP OfficeJet Pro family (the HP OfficeJet Pro 6230, HP OfficeJet Pro 7740) and the Epson WorkForce Pro WF-7840 and Epson WorkForce Pro WF-C579RDWF deliver fast, low-cost color for offices that print A3 and high page counts. The HP OfficeJet Pro brand has become a benchmark for affordable office color printing.

Laser Printers

Laser printers produce text and images by using a laser beam to draw an electrostatic pattern on a rotating drum, which attracts powdered toner that is then fused to the paper with heat. This toner-based process makes laser printers fast, precise, and economical at high volumes, which is why they dominate office printing. Laser printer speed is their signature strength — entry models print 20–30 pages per minute and workgroup machines exceed 50 ppm — and the per-page cost of toner is far lower than inkjet ink for text documents.

The advantages of laser printers include sharp, smudge-proof text, high speed, low cost per page, and reliability under heavy load, making them ideal for high-volume printing in busy offices. The disadvantages are a higher upfront price, larger size and weight, slower and less impressive photo output than inkjets, and pricey color toner sets. The original Apple LaserWriter established laser printing for the desktop, and today the technology powers everything from compact home units to departmental workhorses.

Laser printer use cases center on business document printing where speed and text quality matter most. Recommended models span monochrome units like the Brother HL-L2390DW and Canon imageCLASS MF445DW Laser Printer to color lasers such as the Brother HL-L8360CDW, alongside the established HP LaserJet and Xerox office lines. Xerox helped invent laser printing — the Xerox 9700, one of the first commercial laser printers, debuted in 1977 — and the company's heritage continues in modern office systems.

LED printers are a close variant of laser technology that replace the moving laser and mirror assembly with a fixed array of light-emitting diodes to charge the drum. Because LED printing technology has fewer moving parts, LED printers tend to be more compact, more reliable, and cheaper to manufacture while delivering output quality and speed comparable to laser. Brother and other manufacturers use LED engines across many of their color printers.

Thermal Printers

Thermal printers create images by selectively heating special heat-sensitive paper or by melting a coated ribbon onto the media, and they dominate label, receipt, and barcode printing. Direct thermal printers need no ink or toner at all, printing onto chemically treated paper, which makes them compact, quiet, and very low maintenance for point-of-sale receipts and shipping labels. Thermal transfer printers melt wax or resin from a ribbon for more durable, longer-lasting labels used on products and barcodes.

Dye-sublimation printers are a specialized thermal technology that uses heat to turn solid dye into gas, which then diffuses into the surface of the media to form continuous-tone images. Dye-sublimation printing produces true photographic quality with smooth gradients and no visible dots, plus a protective overcoat that resists fading and moisture — making it the go-to for photo booths, ID cards, and archival photo prints. Compact photo dye-sub models like the Canon SELPHY CP1300 and the HiTi P525L from HiTi serve event and retail photo printing.

Sublimation printing also drives the custom merchandise industry, transferring designs onto polyester fabrics, mugs, phone cases, and promotional items. Because the dye bonds into the substrate rather than sitting on top, sublimated merchandise is durable and washable, which is why it underpins print-on-demand apparel and gifts.

Solid ink printers use a phase-change technology that melts sticks of solid wax-based ink and jets the molten ink onto the paper, where it solidifies instantly. Solid ink technology is prized by graphic designers for its vibrant, saturated color and for being more eco-friendly than toner cartridges, since the wax sticks produce far less packaging waste. Xerox championed this approach with the Xerox ColorQube 8880, and Tektronix originally developed the solid ink technology that Xerox later acquired.

All-in-One Multifunction Printers

All-in-one multifunction printers combine printing, scanning, copying, and often faxing into a single device, making them the most popular choice for home offices and small businesses. The capabilities of a multifunction printer consolidate several machines into one footprint: you can print documents, scan to email or cloud, photocopy, and fax from one unit. Most all-in-ones are built on either inkjet or laser engines, so a multifunction inkjet such as the Epson Expression Photo XP-970 Multifunction Printer adds photo scanning, while a multifunction laser handles office document workflows.

All-in-One Printer Advantages and Disadvantages

The advantages of all-in-one multifunction printers are space savings, lower combined cost than buying separate devices, single-driver convenience, and integrated scan-copy-fax workflows. The disadvantages are that a single failure can disable every function at once, the scanner or fax may be more basic than a dedicated unit, and high-volume users may outgrow the throughput of a combined device. For most households and small offices, however, the benefits of consolidation outweigh these limitations.

• Advantages: one device for print, scan, copy, and fax; smaller footprint; lower total cost; shared connectivity.
• Disadvantages: single point of failure; component quality compromises; limited heavy-duty throughput.

Networked and shared printer systems extend any of these devices across an office, letting multiple users print to one machine over Ethernet or Wi-Fi. Shared multifunction units such as the Xerox WorkCentre 7120 Series and Xerox 550/560 serve workgroups with centralized printing, scanning, and accounting, and manufacturers like Ricoh build comparable office multifunction systems.

A3 and Large Format Printers

A3 and large format printers handle media larger than the standard A4 letter size, from A3 spreadsheets and posters up to wide banners and architectural drawings. A3 printers are sized for businesses that routinely print spreadsheets, double-page layouts, and posters, with office models like the Epson WorkForce WF-7840 and HP OfficeJet Pro 7740 offering A3 inkjet output. These machines bridge ordinary office work and design tasks that demand a larger sheet.

Large format printers, also called wide format printers, print on rolls or sheets often a metre or more wide for posters, banners, signage, fine-art reproduction, and technical drawings. Creative professionals rely on dedicated photo and graphics machines such as the Canon PROGRAF PRO-300, Canon imagePROGRAF TA-20, and HP DesignJet Z6810, while industrial signage uses UV-curing and latex systems like the JETRIX LXi8 UV-LED Printer and HP Latex 280 driven by RIP software such as Caldera V12. Specialty printing substrates — canvas, vinyl, rigid board, textile — expand large format output far beyond paper. Suppliers such as Adorama, Perfect Colours, and Red River Paper provide the printers, media, and inks behind professional large format work.

What Is 3D Printing? Technology Overview and Benefits

3D printing, also called additive manufacturing, builds three-dimensional objects layer by layer from a digital model, in contrast to the traditional 2D printer types that deposit ink or toner onto a flat sheet. 3D printing is a manufacturing process that creates a physical object from a digital design by adding material layer upon layer until the object is complete. Because it adds material rather than cutting it away, 3D printing is classified under the broader term additive manufacturing, standardized internationally by ISO/ASTM 52900. A 3D printer reads a digital file, slices it into thin horizontal cross-sections, and reproduces each cross-section in sequence to form the finished part.

How 3D Printers Differ from Traditional Printers

3D printers differ from traditional 2D printers in that they build volume rather than mark a surface. A conventional dot matrix, inkjet, laser, or thermal printer applies a single flat layer of ink or toner onto paper, producing a two-dimensional image. A 3D printer instead deposits or solidifies material — plastic, resin, metal powder, or composite — repeatedly along the vertical axis, fusing hundreds or thousands of layers into a solid, three-dimensional object with real geometry, strength, and function.

Key Advantages of 3D Printing

The main advantages of 3D printing center on design freedom, speed of iteration, and on-demand production without tooling. Additive manufacturing removes many of the constraints imposed by molds, machining, and assembly lines.

• Complex geometry: internal channels, lattices, and organic shapes that are impossible or costly to machine.
• Rapid prototyping: a design can move from CAD file to physical part in hours.
• No tooling cost: there are no molds or dies to produce, making short runs economical.
• Customization: every part in a batch can be unique at no extra cost, ideal for medical and dental work.
• Material efficiency: material is added only where needed, reducing waste compared with subtractive methods.
• Distributed production: parts can be made on demand close to where they are used.

Types of 3D Printers: Classification by Technology

3D printers are classified by how they form each layer, and ISO/ASTM 52900 groups all additive manufacturing into seven process categories. These seven categories are material extrusion, vat photopolymerization, powder bed fusion, binder jetting, material jetting, directed energy deposition, and sheet lamination. The familiar acronyms — FDM, SLA, DLP, SLS, SLM — are specific technologies that fall within these categories.

Fused Deposition Modeling (FDM/FFF)

Fused Deposition Modeling (FDM), also called Fused Filament Fabrication (FFF), is a material extrusion technology that melts a thermoplastic filament and deposits it through a moving nozzle to build an object layer by layer. FDM is the most widely used 3D printing method because the printers and filament are inexpensive, the process is reliable, and it accepts a wide range of materials. FDM printers handle everything from hobbyist and educational projects to functional engineering parts, and many filaments can be reinforced with carbon fiber or glass fiber for added stiffness.

FDM excels at cost efficiency and speed for prototypes and commercial parts but produces visible layer lines, so surfaces are coarser than resin or jetting methods. Geometric accuracy is good for general use, and mechanical properties depend heavily on the chosen filament — PLA for stiffness, ABS for impact resistance, PETG for durability, nylon for toughness. Overhanging features require support structures, which add print time and post-processing.

Stereolithography (SLA)

Stereolithography (SLA) is a vat photopolymerization technology that uses a laser to cure liquid photopolymer resin point by point, solidifying each layer with high precision. SLA, the original 3D printing process, produces smooth surfaces and fine detail that FDM cannot match, making it ideal for detailed prototypes, dental models, and jewelry patterns. The trade-off is slower print speed for large solid volumes and the need for washing and UV post-curing. SLA resins come in standard, tough, flexible, castable, dental, and medical formulations, so a single SLA platform can serve visual prototyping one day and regulated clinical work the next.

Digital Light Processing (DLP)

Digital Light Processing (DLP) is a vat photopolymerization technology that cures an entire resin layer at once using a digital projector instead of a tracing laser. Because DLP flashes a whole cross-section in a single exposure, it is generally faster than SLA for layers with large surface area, while delivering comparable resolution and smooth finishes. LCD-based masked stereolithography (MSLA) works on the same flash-cure principle using an LCD screen as the light mask, and Continuous Liquid Interface Production (CLIP) extends the approach by curing resin continuously rather than layer by layer for even higher speed. This makes DLP and its variants a popular choice for jewelry, dental, and high-throughput resin production.

Selective Laser Sintering (SLS)

Selective Laser Sintering (SLS) is a powder bed fusion technology that uses a laser to fuse polymer powder, most commonly nylon, into solid parts. SLS builds each layer by spreading a thin coat of powder and sintering the cross-section, with the surrounding loose powder supporting the part so no dedicated support structures are needed. This makes SLS strong for complex geometries, interlocking assemblies, and small production runs of durable functional parts. Because no supports are required, SLS can pack a build chamber densely with nested parts, raising throughput for short production runs.

Selective Laser Melting (SLM)

Selective Laser Melting (SLM) is a metal powder bed fusion technology that fully melts metal powder with a high-power laser to produce dense, fully functional metal parts. Closely related metal processes include Direct Metal Laser Sintering (DMLS), Laser Powder Bed Fusion (LPBF), and Electron Beam Melting (EBM), which uses an electron beam instead of a laser. These technologies print demanding metals such as titanium, stainless steel, and Inconel for aerospace, medical, and high-performance engineering applications where strength and heat resistance are critical.

Binder Jetting, Material Jetting, and Other Methods

Beyond extrusion, resin, and powder bed fusion lie several other additive processes, each filling a distinct niche in speed, color, or material. Binder Jetting selectively deposits a liquid binding agent onto a powder bed to glue particles together with no heat during printing, making it fast for metal, sand, and ceramic powders; metal parts are sintered afterward, and the process excels at sand-casting molds and full-color models. Material Jetting (PolyJet) jets droplets of photopolymer and cures them with UV light much like an inkjet building in three dimensions, depositing multiple materials and colors in one print for smooth, realistic multi-material prototypes. The HP Jet Fusion 580 Color 3D Printer brings full-color polymer production to this space.

Directed Energy Deposition (DED) melts metal wire or powder with a focused energy source as it is deposited, building large metal parts quickly and repairing existing components like turbine blades and tooling. Sheet Lamination bonds and cuts successive layers of paper, plastic, or metal foil — Laminated Object Manufacturing (LOM) is the classic example — offering low cost for large parts but seeing less use today than the other categories.

3D Printing Materials and Filaments

Material choice defines a 3D-printed part's strength, flexibility, heat resistance, and finish, and each technology accepts its own family of materials. The three broad material classes are filaments for extrusion, resins for vat photopolymerization, and powders for powder bed fusion. FDM filaments are thermoplastics wound on spools, each suited to different mechanical and thermal demands, and choosing the right filament is the single biggest factor in an FDM part's performance.

• PLA: easy to print, biodegradable, rigid, ideal for models and prototypes but with low heat resistance.
• ABS: tough and heat-resistant for functional parts, but prone to warping and needs an enclosed printer.
• PETG: combines the ease of PLA with the durability and chemical resistance closer to ABS.
• Nylon: strong, flexible, and wear-resistant, excellent for gears, hinges, and load-bearing parts.
• Reinforced filaments: carbon-fiber or glass-fiber blends add stiffness and dimensional stability.

Resin materials are liquid photopolymers that cure under light in SLA, DLP, and Material Jetting printers, available in standard, tough, flexible, castable, dental, and medical formulations, and all resin parts require washing and UV post-curing. Powder materials feed SLS, SLM, and Binder Jetting: nylon powder dominates polymer powder bed fusion for strong, isotropic parts, HP Multi Jet Fusion (MJF) fuses nylon with a fusing agent and infrared light for fast production batches, and metal powders such as titanium and stainless steel enable SLM and DMLS parts. Sustainable options are growing too, including biodegradable PLA and recycled-content filaments that reduce the environmental footprint of printing.

File Formats and Software for 3D Printing

Every 3D print starts from a digital 3D model, usually created in computer-aided design (CAD) software and exported to a printable file format that describes the object's surface geometry. The standard 3D printing file formats each carry a different amount of information about the model, and the right choice depends on whether you need color and materials or just geometry.

• STL: the long-standing default, representing the surface as a mesh of triangles; geometry only, no color.
• OBJ: stores geometry plus color and texture, useful for full-color and multi-material prints.
• 3MF: a modern format that bundles geometry, color, materials, and print settings in one file.

A slicer is the software that converts a 3D model into the layer-by-layer instructions a printer follows. The slicer divides the model into horizontal layers, generates the tool path and support structures, and outputs machine code with settings for layer height, infill, and speed. These settings — layer height for detail, infill for strength and weight, print speed for time — give the operator direct control over the trade-off between quality and printing duration.

Applications of Different Printer Types

Different printer types serve sharply different applications, from everyday document output to certified medical devices and industrial metal parts. Matching the application to the technology is the foundation of choosing well, whether the job is a stack of invoices, a glossy photograph, or a custom prosthetic.

3D Printer Applications and Capabilities

3D printers are used across industries for prototyping, custom production, and end-use parts that are hard to make any other way. Rapid prototyping is the most established use, letting product teams test form and fit before committing to tooling, while additive manufacturing also produces jigs, fixtures, custom tooling, and end-use parts for small production runs. Medical and dental 3D printing produces patient-specific crowns, aligners, surgical guides, and anatomical models, and aerospace and automotive industries use SLM and DMLS to print lightweight titanium and Inconel components that consolidate assemblies and cut weight.

Creative and Professional Printing Use Cases

Creative professionals depend on specialized printers for photography, fine art, signage, and custom merchandise. Photographers and artists use pigment-based large format printers like the Canon PROGRAF PRO-300 and HP DesignJet Z6810 for archival-quality prints that resist fading for decades, while dye-sublimation produces continuous-tone photos and custom apparel. Jewelry makers print castable resin master patterns on SLA and DLP machines for fine filigree, and sign shops use latex and UV large format systems for banners, vehicle wraps, and rigid-substrate displays. Specialty printer types round out professional work: card printers issue ID and membership cards, barcode printers label products and inventory, and virtual printers output digital files such as PDFs without any physical media at all.

Cost Per Page: Comparing Printer Types

Cost per page — the total running cost of consumables divided by pages printed — is the most important long-term metric when comparing printer types, and it often dwarfs the purchase price over a machine's life. Laser printers deliver the lowest cost per page for black-and-white text at roughly 1–3 cents, cartridge inkjets are the most expensive at 5–20 cents per page once color is involved, and supertank inkjets undercut nearly everything at well under a cent per page. Dot matrix ribbons are cheap per page but limited to low-resolution output, while dye-sublimation and large format consumables are costly but justified by photographic quality.

Total cost of ownership goes beyond ink and toner to include the printer's purchase price, energy use, maintenance, and replacement parts. A cheap inkjet with expensive cartridges can cost far more over three years than a pricier laser or supertank model, which is why ink and toner cost comparison matters more than the sticker price. Toner cartridges yield thousands of pages and lower the per-page cost for high-volume text printing, whereas inkjet cartridges yield fewer pages but suit occasional color and photo work.

Eco-Friendly Printing Options

Eco-friendly printing reduces waste and energy by choosing technologies and consumables with a smaller environmental footprint. Supertank and continuous ink printers like the Epson EcoTank cut plastic waste dramatically by refilling from bottles instead of discarding cartridges, solid ink printers produce far less packaging than toner cartridges, and LED printers consume less energy than conventional lasers. Using duplex (double-sided) printing, recycled paper, and refillable ink systems all lower the ongoing environmental cost of printing, and continuous ink models in particular pair low cost per page with reduced waste for sustainability-minded households and offices.

Types of 3D Printers Comparison Table

The right 3D printing technology depends on the balance of detail, speed, build size, and material you need. The table below summarizes the main types and their typical strengths.

How to Choose the Right Printer for Your Needs

Choosing the right printer comes down to matching the technology to your application, volume, quality needs, connectivity, and budget. Decide first what you mostly print — text documents, photos, labels, large posters, or physical objects — then work back to the technology that produces it best and cheapest over time. This buying guide by use case turns the printer selection criteria into clear decisions.

• Home and occasional use: an inkjet or supertank all-in-one such as the HP DeskJet 3755 or Epson EcoTank for mixed documents and photos.
• Home office and small business: a mono or color laser like the Brother HL-L2390DW or Brother HL-L8360CDW for fast, low-cost text and reliable volume.
• High-volume color office: a business inkjet such as the HP OfficeJet Pro 7740 or Epson WorkForce Pro WF-7840 for affordable color at scale.
• Photography and creative work: a dye-sublimation or large format photo printer like the Canon PROGRAF PRO-300 for archival prints.
• Labels and point of sale: a thermal printer for receipts, shipping labels, and barcodes.
• Physical objects and prototypes: an FDM 3D printer for general use or a resin SLA/DLP machine for fine detail.

Space requirements and printer sizing shape the decision as much as performance. Compact inkjets and small lasers fit a desk or shelf, all-in-ones need room for the scanner lid and paper trays, and A3, large format, and industrial 3D printers demand dedicated floor space and ventilation. Connectivity is the final filter: confirm the printer supports the Wi-Fi, Wi-Fi Direct, Bluetooth, Ethernet, or mobile printing (Apple AirPrint, HP ePrint) your devices need, and that it works with your computers, phones, and any Chromebook or Chrome OS hardware in the household.

Brand and consumable availability also matter over a printer's life. Epson, Canon, Brother, HP, Xerox, and Ricoh each have strengths — Epson and Canon in photo and supertank inkjets, Brother in affordable lasers, HP across home and office, and Xerox and Ricoh in business multifunction systems — and suppliers like CartridgesDirect, Adorama, and Red River Paper keep ink, toner, and media in stock. Buying into a well-supported ecosystem ensures cartridges, toner, and parts remain easy to source for years.

For readers comparing additive manufacturing with conventional document and image output, our guides on what software is and printing a Word document cover the everyday 2D printing side, while you can browse more technology articles in the information technology section. Modern multifunction devices that combine a printer, scanner, and photocopier remain the standard for 2D office work, even as 3D printing transforms how physical objects are made.