Inside Digital Fabric Printing: The Technology, Machines & Materials Behind RightGifting

From a Digital File to a Physical Fabric: What Does It Really Take?

A digital illustration may contain millions of pixels. A photograph may look flawless on a high-resolution screen. A textile pattern might have beautifully aligned repeats and a precisely controlled colour palette.

But none of those things automatically guarantees a successful printed fabric.

Between the original artwork and the finished product sits an entire production system involving fibre chemistry, ink formulation, printhead technology, material handling, colour management, thermal fixation, dimensional stability and quality control.

That is where the real engineering of digital fabric printing happens.

At RightGifting, our production capabilities span different methods of digital printing, including dye sublimation, pigment-based textile printing, wide-format UV printing and direct-to-film (DTF) printing. These technologies serve different materials, artwork formats, dimensions and applications.

Our equipment includes production-scale systems for wide-format textile printing, specialised cotton printing, direct sublimation, transfer-based sublimation and large-format UV printing.

Through RightPrints, customers can order custom-printed fabric by the metre, with zero minimum order quantity. Across the wider RightGifting catalogue, customers can also personalise eligible finished lifestyle products with their own artwork, illustrations, photographs and patterns.

The important principle is that different jobs require different production decisions.

A polyester print intended for a large backdrop has different requirements from an illustration on cotton. A detailed character design on a satin cushion is not prepared in exactly the same way as a five-metre-wide exhibition graphic. A seamless fashion print involves different layout decisions from a photograph placed on a finished product.

This guide examines how digital fabric printing actually works, the machinery behind our production capabilities, the terminology used by printing specialists and the decisions that influence print quality.

We will also explain the more technical concepts in plain language so that designers, fashion students, artists, procurement teams and first-time customers can understand the process before submitting artwork.

Understanding Digital Textile Printing: The Core Technology

Digital textile printing is a computer-controlled method of applying colour or imagery to fabric using inkjet or related digital deposition technology.

Instead of preparing a separate physical printing screen for each colour in a design, digital systems interpret a digital artwork file and control the placement of ink or dye on a substrate.

The word substrate simply refers to the surface being printed. In textile production, the substrate might be cotton, polyester, rayon, a blended fabric or a specially prepared material.

The basic workflow involves several stages:

1. Artwork creation and file preparation.

2. Substrate selection and compatibility assessment.

3. Colour conversion through a raster image processor.

4. Ink or dye deposition.

5. Drying, curing, transfer or fixation as required.

6. Inspection, finishing and preparation for the next manufacturing stage.

Although this sequence sounds straightforward, each stage influences the final appearance.

A textile absorbs, scatters and reflects light differently from a smooth digital screen. Its yarn structure creates microscopic variations in height and texture. Its fibres may absorb moisture, stretch under tension or respond to heat.

Consequently, two fabrics printed with the same digital artwork can produce visibly different results.

What is a raster image processor?

A raster image processor, commonly called a RIP, is software that converts digital artwork into instructions a printer can use.

It may manage colour conversion, image scaling, printhead passes, ink limits, halftone patterns, output resolution and media-specific print profiles.

In simple terms, the RIP translates the designer's file into a language the printing machine understands.

For textile printing, RIP configuration is particularly important because the same file may require different settings depending on fabric type, ink system and production conditions.

A saturated black on a smooth polyester satin may need different ink control from the same black on a textured cotton. A complex gradient may also require carefully controlled screening to minimise visible banding.

Resolution, addressability and printhead passes

Printer resolution is often described in dots per inch, or DPI. However, machine DPI should not be confused with artwork PPI, which measures pixels per inch.

A printer may be capable of depositing microscopic ink droplets at closely spaced positions, but it cannot reconstruct fine image detail that is missing from the original file.

Printhead passes also influence output.

In a multipass inkjet system, the print carriage may move across the fabric multiple times to build the image. The number of passes can influence coverage, consistency, speed and visible print artefacts.

Higher pass counts may improve certain output characteristics, but they are not a universal quality guarantee. Their value depends on ink, substrate, printhead condition, screening and production setup.

Why Fabric Chemistry Determines the Printing Method

A major source of confusion in textile printing is the assumption that every fabric can be processed using one universal ink system.

Fabric is a broad category. Its materials can have very different chemical structures, surface characteristics and heat responses.

Polyester is a synthetic polymer. Cotton is primarily cellulose. Rayon is regenerated cellulose. Nylon is a synthetic polyamide. Blended textiles combine different fibre types in proportions that affect printing and finishing.

The chemical composition matters because dye molecules, pigment particles and ink binders interact with fibres in different ways.

In sublimation printing, certain disperse dyes are fixed into polyester under heat. In pigment printing, insoluble coloured particles are held on or near the textile surface using a binding system. UV-curable inks form a cured printed layer through a photochemical process.

These mechanisms are fundamentally different.

Fibre composition versus fabric construction

A particularly important distinction is the difference between a fibre and a weave.

Polyester and cotton describe fibre composition. Satin and twill describe fabric constructions.

Satin is not automatically polyester, and twill is not automatically cotton.

Satin weave is characterised by relatively long yarn floats, which often create a smooth, reflective surface. Twill fabric has a diagonal structural pattern produced by the interlacing of yarns.

A polyester satin may be suitable for dye sublimation printing, while a cotton satin requires a method compatible with cotton.

Likewise, a polyester twill and a cotton twill can require completely different ink systems even though both may share a similar diagonal weave appearance.

That is why a responsible production specification should identify the fibre content alongside the construction and intended use.

How absorbency affects printed colour

Absorbency influences how an ink vehicle behaves when it meets the textile.

High liquid absorption can contribute to uncontrolled spreading if pretreatment and ink deposition are not properly managed. A smooth, well-prepared surface may retain sharper detail under the appropriate conditions.

The printing term wicking describes liquid spreading through the spaces between fibres or yarns. Excessive wicking can soften fine lines, reduce edge definition and create unwanted colour migration.

This is particularly relevant for detailed illustrations, typography, fine repeated patterns and small graphic elements.

Fabric texture also affects how a print is perceived. On heavily textured substrates, the yarn structure may visually interrupt very thin lines, even when the print was produced with a capable machine.

Which fabrics can RightGifting print?

RightGifting works with a broad range of compatible fabrics, including cotton, polyester, satin constructions, twill, rayon and other selected materials.

Printing suitability depends on the actual fibre composition, fabric finish, production method and end use.

Silk printing is not part of our current service offering. Silk is often associated with specialised acid-dye printing workflows, and RightGifting does not currently offer that process.

For fabric-specific choices, read The Fabric Personality Test: Satin, Cotton, Twill, Chiffon or Rayon?.

Dye Sublimation Printing: How Polyester Takes on Colour

Dye sublimation is one of the most widely used digital methods for printing polyester textiles.

It uses specially formulated disperse dyes that become mobile under elevated temperatures and are fixed within suitable synthetic fibres.

Unlike printing methods that form a comparatively distinct coloured layer on top of a material, properly processed sublimation dyes penetrate compatible polyester.

This is particularly useful for printed textiles that need to retain their flexibility and characteristic fabric handle.

The word handle refers to the way a textile feels and behaves when touched, folded or manipulated.

What happens during sublimation?

In a typical sublimation workflow, ink is first deposited either onto a transfer paper or directly onto a compatible fabric.

The printed material is then exposed to controlled heat. In a transfer workflow, pressure keeps the transfer paper and substrate in close contact while the dye moves into the polyester.

The dye becomes incorporated within the polymer structure as the material cools.

The process depends on suitable dye chemistry and polymer compatibility. It is not an ordinary paper inkjet print that has simply been heated.

Industrial sublimation systems require careful attention to temperature distribution, dwell time, fabric movement and moisture control.

A defect in any of these conditions can affect colour development or image uniformity.

Direct-to-fabric versus transfer-paper sublimation

These approaches share dye chemistry but differ in how the colour reaches the textile.

Direct sublimation deposits the ink onto the fabric itself. The textile then undergoes an appropriate heat-fixation process.

Transfer sublimation prints the artwork onto a specialised paper first. The paper and polyester are subsequently passed through a heat-transfer process.

Direct printing can reduce dependence on transfer paper for appropriate applications, while transfer printing offers different handling and process-control advantages.

Neither method is automatically superior for every job. Selection depends on fabric characteristics, equipment, print dimensions, artwork and quality requirements.

RightGifting's sublimation machinery

Our production-team information identifies two modified Softjet Grand machines used for direct sublimation, each with a reported 10-foot printing width.

We also operate a Grando OR-AE32 system reported to support both direct and transfer-paper sublimation printing at approximately 10 feet.

Additional sublimation equipment includes the ColorJet Sublixpress Plus and the Mehta Zybra Tex, with reported 1.5-metre printable capability associated with this smaller-width production group.

Production speeds were also shared for these systems, but the units and machine-specific attribution require confirmation before they can be published as verified throughput specifications.

Printable width should not be confused with finished usable fabric width. Selvedges, gripping allowances, print margins and the selected substrate can reduce the practical printed area.

Where sublimation is useful

Sublimation is particularly suited to compatible polyester-based products and textile applications.

Examples can include printed fashion textiles, sportswear materials, soft furnishings, decorative textiles and large-format fabric graphics.

For personalisation, the same technology can help reproduce detailed photographs, intricate illustrations, gradients and vivid colour combinations when the artwork and substrate are suitable.

The appearance still depends on weave, texture, colour management and viewing light.

A sublimated image on smooth polyester satin will not necessarily resemble the same image on a textured polyester fabric.

Pigment Printing on Cotton: When Ink Chemistry Changes

Cotton presents a different printing challenge because cellulose fibres do not interact with sublimation dyes the way polyester does.

For cotton and other suitable substrates, pigment-based textile printing provides an alternative production route.

A pigment is a finely dispersed, insoluble colour particle. Unlike a soluble dye that enters or chemically associates with a fibre, pigment colour is typically secured through a formulation containing binding components.

The binder helps retain the pigment on the textile surface through subsequent handling and use.

This distinction affects print durability, handle, surface appearance and finishing conditions.

Why pigment binders matter

The binder must hold pigment particles sufficiently securely while allowing the finished fabric to remain functional.

Excessive or poorly controlled binder deposition may create a stiffer surface. Insufficient fixation can compromise durability.

The balance depends on the ink formulation, textile pretreatment, curing and intended application.

The printing specialist must also manage the relationship between colour density and textile softness.

A dark, high-coverage graphic can have different surface characteristics from a pale, lightly printed illustration.

This is one reason why print suitability should be considered alongside end use rather than judged only by how colourful a sample looks.

Pretreatment and fixation

Some pigment workflows use fabric pretreatments to control wetting, sharpness and adhesion.

The precise requirements vary with the ink chemistry and textile.

After deposition, a suitable curing process allows the binding system to develop the intended durability.

Cotton may also undergo other preparation or finishing stages, such as washing, drying or stabilisation, depending on the production workflow.

These stages should not be assumed identical across all pigment-printing systems.

RightGifting's cotton-printing capability

Our machinery includes a modified flatbed hybrid printer reported by the production team as a pigment-based cotton printing system.

The factory information confirms its current functional use as a modified cotton-printing machine, but does not yet establish a verified printable width, rated speed or universal list of compatible cotton constructions.

For customers, the practical takeaway is that cotton printing forms part of RightGifting's digital textile capabilities.

The selected cotton's construction, preparation, intended use and print artwork should be reviewed before production.

For designers deciding between cotton, twill, rayon and other materials, our Custom Fabric Selection Guide discusses fabric behaviour, weight and application.

Wide-Format UV Printing: Printing Across Large Surfaces

UV printing uses specially formulated inks that cure when exposed to ultraviolet radiation at suitable wavelengths.

The ink contains photoreactive components that initiate a curing reaction under the printer's UV light source.

In a UV-curable system, the deposited ink forms a cured layer on or near the substrate surface.

This differs substantially from the mechanism of sublimation dye fixation within polyester.

The practical advantages of UV printing can include controlled image deposition, broad application possibilities and relatively rapid curing, provided the chosen substrate is appropriate.

However, UV compatibility must be assessed carefully for flexible textiles.

UV-curing and photopolymerisation

The term photopolymerisation describes chemical reactions initiated by light that produce a cured polymer network.

In UV printing, the ink's photoinitiators absorb suitable radiation and help initiate curing.

The final coating characteristics depend on the formulation and curing process.

For flexible textiles, relevant factors may include elongation, bending resistance, adhesion, surface feel and repeated folding.

A UV-printed surface intended for a static display is subject to different demands from a fabric intended for frequent wear, stretching or laundering.

Therefore, the presence of a UV printer does not mean every fabric or every end use is automatically approved.

Single-sided and double-sided printing

Single-sided printing applies the artwork to one intended print face.

Double-sided printing supports artwork on both faces through an appropriate machine configuration.

This can be useful in applications where the reverse face remains visible, such as some display graphics, installations and suspended textile structures.

The distinction is especially important when designing graphics with directional lettering, logos or registration-sensitive compositions.

Double-sided printing is not simply the same as allowing ink to penetrate through the textile.

A two-sided system must control image placement and alignment so that the intended appearance is achieved on each surface.

RightGifting's UV printing machinery

Our production setup includes two distinct wide-format UV capabilities.

The SkyJet SDM5200, also identified with GRight branding, is reported to offer a 5-metre printable width with double-sided printing and an option for single-sided production. The production team reports 12 printheads per side.

The HandTop HTL3200UV is reported to provide 3.2-metre single-sided UV printing.

These are machine-width capabilities. Whether a particular fabric can be printed across the entire width depends on substrate and job specifications.

A five-metre-wide printing system creates opportunities for large textile graphics, backdrops and selected industrial display applications, but it should not be taken as confirmation of every material or finish.

Understanding registration on double-sided artwork

Registration is the alignment between intended printed elements and their target positions.

For a double-sided print, registration may refer to the relationship between graphics on the front and reverse surfaces.

If the two faces require exact alignment, the design must account for feed movement, substrate stability and the machine's tolerances.

Misregistration can be more visible on thin or translucent materials because the reverse image may influence what is perceived from the front.

When artwork requires very precise alignment, the specification must define acceptable tolerances rather than relying on a visual mockup.

DTF Printing: A Different Route for Applying Artwork to Textiles

DTF stands for Direct to Film.

In a typical DTF transfer workflow, artwork is printed onto a specially prepared film using a compatible ink set.

An adhesive layer is then applied and processed according to the system's requirements. The image is transferred to the target textile using heat and pressure, and the carrier film is removed as specified.

DTF differs from direct fabric printing because the artwork is prepared on a transfer film before being applied to the textile.

The final print typically forms a transferred graphic layer that behaves differently from sublimation dye incorporated within polyester.

Why DTF is useful

DTF can be particularly useful for artwork that needs to be transferred to selected fabric types, especially when producing discrete graphics rather than printing an entire fabric roll.

Typical examples include logos, illustrations, lettering, character graphics and other placement designs.

Its suitability depends on the transfer system, chosen textile, adhesive, application conditions and final use.

For highly flexible or stretch-sensitive garments, the transferred graphic's behaviour under repeated movement must be considered.

Large, solid transferred areas may also feel different from a small, lightly covered design.

RightGifting's DTF equipment

RightGifting's equipment information identifies a 12-inch DTF printing system using pigment-based ink.

The stated width refers to the production team's machine specification and should be understood alongside the actual printable area and transfer-film requirements.

DTF should not be confused with Direct to Garment printing or direct roll-to-roll textile pigment printing.

Each uses a different workflow.

Understanding Our Production Machinery at a Glance

The following table summarises machinery information supplied by RightGifting's production team.

Equipment	Technology	Reported printable width	Reported capability
SkyJet SDM5200	UV printing	5 m	Single-sided and double-sided; 12 heads per side
HandTop HTL3200UV	UV printing	3.2 m	Single-sided printing
Softjet Grand	Direct sublimation	10 ft	Two modified machines
Grando OR-AE32	Sublimation	10 ft	Direct and transfer-paper printing reported
ColorJet Sublixpress Plus	Dye sublimation	1.5 m associated with this equipment group	Production speed attribution pending confirmation
Mehta Zybra Tex	Dye sublimation	1.5 m associated with this equipment group	Production speed attribution pending confirmation
Modified flatbed hybrid cotton system	Pigment printing	Not yet confirmed	Cotton-printing capability
Small-format DTF system	DTF	12 in	Pigment-based transfer printing

The point of this equipment diversity is not simply the physical size of the machines.

Different production platforms support different combinations of ink technology, printable media, print dimensions and finishing workflows.

For a customer, the important question is which combination best suits the final textile or product.

A large-format printer might be necessary for a wide display textile. A pigment system may be more appropriate for a cotton-based project. Sublimation may be selected for a compatible polyester fabric.

Machine choice follows the material and application.

 

Colour Management: Why the Same RGB File Prints Differently on Two Fabrics

One of the most important concepts in professional print production is colour management.

The colours on a monitor are created by emitted light. Printed colours are perceived through the interaction of ambient light with inks, dyes, fibres and fabric surfaces.

This means a screen image and a printed textile are produced by different physical mechanisms.

An RGB image may contain saturated colours that cannot be reproduced exactly with a specific ink-and-substrate combination.

This limitation is described by the term colour gamut.

A colour gamut is the range of colours that a device or production system can reproduce.

RGB, CMYK and ICC profiles

RGB is an additive colour model commonly used for digital images.

CMYK describes a subtractive printing model, though industrial digital printers may use additional colours and proprietary ink configurations.

The actual conversion from screen artwork to printer output is more complex than simply changing the file from RGB to CMYK.

An ICC profile characterises the colour behaviour of a device or process and supports colour transformations between systems.

In print production, a substrate-specific profile may account for the combination of printer, ink, fabric and output configuration.

A profile intended for one textile is not automatically accurate for another.

An identical blue may appear brighter on smooth white polyester satin and softer on a matte, textured cotton because of surface reflectance, weave structure and the printing method.

Spectrophotometers and colour measurements

A spectrophotometer measures how a surface reflects light across different wavelengths.

Its measurements can help assess colour differences more systematically than visual inspection alone.

Colour differences are sometimes described using the CIE Lab* colour space and ΔE metrics.

L* represents lightness. The a* axis represents a red-green direction and the b* axis a yellow-blue direction.

A ΔE value summarises colour difference mathematically. Different ΔE formulae can produce different assessments.

A low measured difference is generally desirable when trying to match a defined colour standard, but acceptability depends on the product, viewing conditions and customer requirements.

No specific ΔE tolerance should be promised without a defined production and testing agreement.

Metamerism

Metamerism occurs when colours that appear similar under one light source look different under another.

A textile may appear perfectly matched under daylight but reveal a colour shift under warm indoor lighting.

This can matter for home décor, fashion collections and brand applications in different environments.

For colour-sensitive projects, assess printed samples under relevant lighting rather than relying exclusively on a monitor preview.

Print Quality: What Professionals Actually Inspect

A print is more than a colourful reproduction of a digital file.

Professional quality assessment considers several characteristics that may not be obvious in a small website image.

Sharpness and edge definition

Sharpness describes how clearly the print reproduces image transitions and fine details.

Edge definition matters for typography, line art, geometric patterns and artwork with precise outlines.

It is affected by original image resolution, printhead control, fabric construction, ink movement and finishing.

A soft textile surface can alter the perception of fine details even when the machine operates correctly.

Banding

Banding appears as visible lines or repeated variations in printed density.

Possible contributors include printhead performance, nozzle condition, media feed accuracy, pass settings and screening.

A dense colour field may reveal banding more readily than a complex illustration with varied colour and texture.

Ink bleed and migration

Ink bleed describes unwanted spreading that reduces the separation between colours or shapes.

Migration can also refer to unwanted dye movement during processing or subsequent exposure to heat.

The precise phenomenon depends on the printing technology.

For example, excessive liquid spread on an absorbent textile is different from dye migration during heat treatment.

Both may influence edge definition but require different process controls.

Registration and skew

Registration describes positional accuracy.

Skew occurs when the substrate or printed image deviates from the intended alignment.

Even small positional changes can become noticeable in long geometric repeats, border prints and engineered garments.

For patterned fabric, consistent feed and dimensional stability are particularly important.

Abrasion and crocking

Crocking is the transfer of colour from a textile surface through rubbing.

It may be evaluated under dry and wet conditions.

A visually successful print is not necessarily suitable for its intended application unless the relevant durability requirements are met.

Wash fastness and light fastness

Wash fastness concerns resistance to colour change and staining during laundering.

Light fastness concerns resistance to colour change under exposure to light.

Relevant testing methods include parts of the ISO 105 series and AATCC textile testing procedures.

These are methods for assessing performance. Mentioning the standards does not mean an individual product has achieved a particular rating.

Where objective performance figures are required for procurement, the specific material, ink combination, test method and measured results should be agreed before production.

Understanding Fabric Width, Printable Width and Production Scale

A machine's maximum printable width is only one component of its usable production capacity.

Three related measurements must be distinguished.

Nominal fabric width is the width in which a textile is supplied.

Printable width is the area the printing system can address under the relevant operating conditions.

Usable finished width is the width remaining for the customer's application after accounting for necessary margins, selvedges and finishing requirements.

These values may differ.

For example, a nominal 60-inch fabric may not yield 60 inches of uninterrupted finished artwork.

Similarly, a printing machine with a very large reported width does not eliminate constraints created by the chosen media, loading arrangement and finishing process.

Metres, running metres and square metres

Fabric by the metre is typically sold according to running length at a stated fabric width.

A running metre is one metre of length, not automatically one square metre of printed area.

If a fabric is 1.5 metres wide, one running metre contains a nominal area of 1.5 square metres before any usable-width allowances.

This distinction is essential when estimating material requirements for curtains, table textiles, apparel or large installations.

Throughput versus quoted speed

Industrial machine speeds may be expressed in square metres per hour, square feet per hour, linear metres per hour or another production unit.

These cannot be interchanged.

Actual production output also depends on artwork coverage, print mode, fabric handling, operator preparation, drying or curing, finishing and quality checks.

A manufacturer's peak speed is not necessarily the output of every commercial order.

That is why customers should distinguish production capacity from guaranteed delivery timelines.

Artwork Preparation: Raster, Vector and Effective Print Resolution

The quality of a printed textile starts before the fabric enters the machine.

The artwork file establishes the information that can be reproduced.

A printing system can interpret, scale and process a file, but it cannot reliably recover authentic detail that was never present.

Raster artwork

Raster artwork is composed of pixels.

Common examples include photographs, scanned paintings, raster illustrations and files exported as JPG, PNG or TIFF.

The relevant variables are pixel dimensions, intended physical print size and image quality.

The relationship can be expressed as:

Effective PPI = image pixel dimension ÷ print dimension in inches

Consider a 3,600-pixel-wide image.

Printed at 12 inches wide, it provides 300 PPI.

Printed at 24 inches wide, it provides 150 PPI.

Printed at 48 inches wide, it provides 75 PPI.

The file contains the same number of pixels in all three cases. Increasing the physical print size reduces the amount of source detail available per inch.

Vector artwork

Vector artwork uses mathematically defined paths, shapes and curves.

It is particularly useful for logos, typography, geometric patterns and clean illustrations.

A properly constructed vector can be scaled without introducing the same type of pixel enlargement seen in raster artwork.

However, placing a low-resolution photograph inside a vector document does not convert the photograph into high-resolution vector art.

A PDF can contain raster data, vector data or both.

Artwork resolution recommendations

For smaller products and detailed, close-viewed artwork, approximately 300 PPI at final print size is a useful general target.

For many larger textile applications, approximately 150 PPI may be appropriate, depending on the image, substrate, viewing distance and production requirements.

These are guidelines rather than universal thresholds.

Artwork containing extremely fine typography or high-contrast line art may demand closer inspection than a large, expressive abstract pattern.

Likewise, a photograph intended to be viewed from a distance may be acceptable at a lower effective resolution than a small photo cushion viewed closely.

Changing the DPI metadata without creating genuine image detail does not improve the original image.

RightGifting Print Check: Checking the File Before Production

One of the simplest ways to avoid disappointment is to assess artwork before ordering.

A file may look excellent on a phone screen but lack sufficient pixel detail for a large physical print.

The RightGifting Print Check tool helps customers evaluate whether an image is suitable for a chosen product and size.

This is particularly relevant when customers want to print images downloaded from messaging apps, older photographs, social media screenshots or artwork exported at reduced dimensions.

How the Print Check workflow works

Step 1: Select the product and size.

The intended output determines the resolution requirement. A file suitable for a small cushion might not be suitable for a much larger blanket or luggage cover.

Step 2: Choose the artwork file.

The web tool accepts supported raster image formats, including JPG, PNG and WebP. Some browser environments also support HEIC photographs.

Step 3: Review the file-quality verdict.

The checker assesses the image against the selected print dimensions and provides guidance based on image detail.

Step 4: Decide how to proceed.

If the result is Good, the image has met the tool's relevant suitability criteria. If it is Poor, the customer can look for a higher-resolution original, reconsider the size or seek assistance.

The tool operates on the image selected in the browser and does not automatically repair the artwork.

What does Good actually mean?

A Good result is not a guarantee of identical screen-to-print colour, perfect fabric behaviour or flawless product construction.

It indicates that the image appears suitable according to the checker's file-quality criteria for the selected output.

Production still involves material characteristics, colour reproduction, finishing and placement.

What if the verdict is Poor?

Start with the original source file.

A photograph forwarded through a messaging application may have been compressed. If possible, obtain the original image or ask for it to be shared as a document rather than a compressed preview.

For an illustration, check whether the original working file can be exported at the required physical dimensions.

For a vector logo, retain the editable vector source and share it for review where appropriate.

Simply increasing the DPI field or saving an image into another format will not automatically restore detail.

What formats should customers use?

The Design Yours product customiser accepts JPG or PNG up to 7 MB.

The Print Check web tool supports selected raster formats, while other design documents such as PDF, AI or SVG can be supplied through the manual review route described on the page.

For RightPrints fabric orders, customers should follow the file instructions associated with the specific order and print layout.

File suitability is determined by more than extension alone.

For more information, visit RightGifting Print Check before placing an order.

Repeat, Placement and Engineered Printing: Three Ways to Organise Artwork

A textile's print layout affects its appearance, manufacturing efficiency and intended use.

RightPrints provides options including repeat, placed and full-length artwork layouts on applicable fabric products.

These formats serve different design purposes.

Repeat printing

A repeat print is constructed so that a design module continues across the fabric without unwanted visible breaks.

The repeated unit is often called a tile, rapport or repeat block.

Common repeat structures include straight repeat, half-drop, brick repeat and directional repeat.

A straight repeat places motifs on an aligned grid. A half-drop arrangement shifts alternating rows, creating a different visual rhythm.

A repeat may look seamless on a screen but reveal faults after printing if its edges do not match.

Designers should inspect tile boundaries, motif intersections, spacing and directional flow.

Placement printing

Placement printing positions artwork in a defined area rather than distributing it continuously across an entire length.

It is useful for larger illustrations, statement motifs and designs that need to relate to a finished item's construction.

For example, an illustration intended for the centre of a garment panel requires deliberate positioning.

The file must account for the intended garment dimensions and cutting allowances.

Engineered printing

An engineered print is developed around the shape or structure of the finished item.

This might involve a large border motif that continues across a garment hem, a decorative panel aligned with a seam or artwork occupying a carefully planned textile length.

The design becomes part of the product's construction logic.

Engineered prints demand stronger coordination between the artwork, pattern pieces and manufacturing plan.

How Fabric GSM, Drape and Opacity Affect the Finished Print

GSM stands for grams per square metre.

It measures fabric mass per unit area and is often used as a practical descriptor of textile weight.

A higher GSM does not automatically mean better quality, greater opacity or superior print performance.

The perceived behaviour of a fabric also depends on fibre type, yarn structure, fabric construction, finishing and thickness.

Drape

Drape describes how a fabric falls under its own weight.

Soft, fluid fabrics form flowing folds. More structured textiles may hold broader shapes or resist collapse.

Print design should account for this behaviour.

A large geometric illustration may remain visually readable across a fairly flat panel but become fragmented across deep folds.

An all-over small-scale pattern may retain its overall visual character even when the fabric is gathered.

Opacity

Opacity describes resistance to the transmission of light.

A sheer polyester fabric can reveal objects and colours behind it. An opaque textile conceals more of the background.

Opacity influences how printed colour appears, particularly when the fabric is layered or backlit.

For transparent or semi-transparent materials, the reverse surface and background lighting can affect the apparent saturation of the image.

Lustre

Lustre is the visual sheen produced by the interaction of light with the fabric surface.

Smooth satin weaves can reflect light more directionally than many matte plain-weave textiles.

This can make dark and saturated colours appear more reflective or change appearance as the viewing angle changes.

Lustre is a material property, not proof that the print contains extra colour information.

A full explanation of fabric selection appears in The Fabric Personality Test and the Custom Fabric Selection Checklist.

From Printed Fabric to Finished Products

Printing is one stage of the product development process.

Once fabric is printed, it may need to be cut, sewn, assembled or otherwise finished according to the product specification.

This is where RightGifting's finished-product catalogue becomes relevant.

A customer may want custom fabric by the metre for an independent sewing project. Another customer may want the same design applied to an eligible finished product.

These are different service routes.

Design Yours: Personalising a finished product

Through Design Yours, customers can upload suitable artwork for eligible products.

Examples include cushions, shape cushions, photo blankets, canvas prints, table runners, table mats, drawstring bags and luggage covers.

Product dimensions, printable areas, construction and compatible artwork requirements differ.

For example, a shape cushion is constructed from a printed satin front cut to the chosen shape, a plain satin back and filling. The printing must be coordinated with the finished outline.

A luggage cover must accommodate a stretch-fabric sleeve design and openings for the suitcase handles while leaving the wheels exposed.

These products are different in both print layout and construction.

RightPrints: Custom fabric before product construction

RightPrints serves customers who want fabric printed with their own designs before making a garment, furnishing or another textile product.

It is particularly useful for fashion designers, students, surface-pattern designers, studios, sewists, interior creators and small businesses.

Customers can begin with small quantities because RightPrints offers zero MOQ.

The customer supplies the artwork, selects an available fabric and chooses the applicable layout.

Fabric composition, usable width, print technology and suitability for the intended application should be checked before production.

For ideas on using one artwork across several finished products, see One Artwork, Multiple Products: How to Build a Merchandise Collection Around Your Art.

How Different Industries Use Digital Textile Printing

Digital textile printing is useful because it can reproduce detailed artwork across different materials and print dimensions without requiring the same setup as traditional screen printing.

However, the requirements of each industry vary.

Fashion design

Fashion applications may require repeat prints, border placements, engineered layouts and controlled colour continuity.

The chosen fabric must support the garment's drape, stretch, transparency and construction requirements.

A designer developing a flowing outfit may prioritise lightweight fabric movement, while someone creating structured apparel may focus on opacity and dimensional stability.

Browse RightGifting Fashion for finished product categories, or use RightPrints for custom fabric projects.

Interior textiles

Home décor applications include printed cushions, curtains, table textiles and selected decorative fabric products.

The appearance of these items changes with lighting, furniture colour, surface area and physical folds.

For a practical styling example, read We Styled the Same Room for Four Completely Different Personalities.

Artists and illustrators

Artists can develop artwork for different scales and materials, but file preparation remains essential.

A detailed character illustration that looks excellent as a small print may require reworking before it can become a large textile graphic.

Artists interested in finished merchandise can also explore What Actually Sells? and the Artists' Corner guide.

Brands and institutions

Brands may use textile printing for selected promotional products, event textiles, branded accessories and practical custom merchandise.

For these applications, reproducible artwork placement, adequate resolution, colour consistency and relevant product specifications are especially important.

Our guide to personalised corporate gifts considers choosing useful products by recipient and context.

How to Brief a Digital Fabric Printing Project Properly

A useful print brief communicates more than the artwork.

For a technically informed enquiry, prepare the following information:

• Final application: garment, cushion, curtain, decorative textile, display graphic or another specified use.

• Fabric: known fibre composition, construction, weight, width and finish, if available.

• Artwork: original file, pixel dimensions or vector source, intended print dimensions and design layout.

• Colour requirements: reference colours, acceptable variation and whether physical sampling is required.

• Quantity: running metres, finished product count or required print area.

• Finishing: whether the requirement is printed fabric alone or an eligible finished RightGifting product.

• Performance expectations: any specific need for washing, rubbing, light exposure, stretching or repeated handling.

For a designer, sharing the finished application helps the production team assess material suitability.

For a brand, the intended use can determine whether the print requires a special durability review.

For an illustrator, the required physical dimensions can reveal whether the source file has enough detail.

A clear brief reduces avoidable revisions and makes the production discussion more precise.

Frequently Asked Questions About Digital Fabric Printing

What is the difference between digital fabric printing and screen printing?

Digital fabric printing creates artwork using computer-controlled print deposition, typically without a separate physical screen for each design colour. Traditional screen printing applies colour through prepared screens or stencils. The most suitable method depends on run length, artwork complexity, fabric, desired effect and commercial requirements.

Which fabrics can RightGifting print on?

RightGifting supports printing on a broad selection of compatible fabrics, including cotton, polyester, satin constructions, twill, rayon and other selected materials. Actual suitability depends on fibre content, finishing and intended application. Silk printing is not currently offered.

Does RightGifting print on silk?

No. Silk printing is outside RightGifting's current production offering. Specialised acid-dye printing is not part of the available in-house workflow.

What is dye sublimation printing?

Dye sublimation is a heat-assisted process that uses suitable disperse dyes to print compatible polyester materials. It can involve direct printing onto fabric or printing first onto a transfer paper.

Is sublimation suitable for pure cotton?

Conventional dye sublimation is primarily suited to compatible polyester materials. Pure cotton does not behave like polyester in that process. RightGifting uses alternative textile-printing methods for suitable cotton fabrics.

What is pigment printing on fabric?

Pigment printing applies coloured particles using a system designed to bind them to the textile. It can be used on suitable cotton and other compatible fabrics. The final result depends on formulation, curing, surface preparation and intended use.

What is the difference between UV and sublimation printing?

Sublimation uses heat to fix suitable dyes into polyester. UV printing cures a specially formulated ink using ultraviolet light, typically forming a printed layer. Their substrate compatibility, physical behaviour and finishing requirements differ.

Can RightGifting print on both sides of fabric?

RightGifting's SkyJet SDM5200 is reported to support double-sided UV printing, as well as single-sided printing. Actual material compatibility and artwork registration requirements must be assessed for the specific job.

What is the widest printing capability available?

The production team reports a 5-metre printable capability on the SkyJet SDM5200 UV system. Other machines have different reported widths, including 3.2 metres and approximately 10 feet. Practical usable print width depends on the material and production setup.

What is DTF printing?

Direct to Film printing creates artwork on a transfer film before applying it to compatible fabric using an adhesive transfer process. It differs from printing directly onto an entire roll of textile.

What is the difference between DPI and PPI?

PPI measures the pixel density of digital artwork at a chosen physical size. DPI generally refers to printer dot placement or resolution. A high-DPI machine cannot recover detail missing from a low-resolution source image.

Is 300 DPI necessary for every fabric print?

No. Approximately 300 PPI at final size is a useful target for many smaller, detailed prints. Larger textile applications may work well at lower effective PPI, depending on image characteristics and viewing distance. Follow the product-specific requirements.

Can I print a low-resolution image on a large fabric?

It may print physically, but it can appear soft or pixelated when enlarged. The result depends on how much source detail exists, the final dimensions and the viewing distance. Use Print Check or seek a manual file review before proceeding.

How do I check whether my artwork is printable?

Use the RightGifting Print Check. Select the intended product and size, choose the source image and review the tool's quality assessment.

Does a Good Print Check result guarantee exact colours?

No. The result addresses file suitability according to the tool's criteria. Fabric properties, ink systems, lighting and finishing can affect the finished appearance.

Does RightPrints have a minimum order quantity?

RightPrints offers zero MOQ for its custom fabric printing service, allowing customers to order fabric by the metre for prototypes, experiments, small projects and other applications.

Can I print a seamless repeat on fabric?

Yes, repeat layouts are available on applicable RightPrints fabric products. The artwork should be prepared so that the pattern edges align correctly when tiled.

What is engineered textile printing?

Engineered printing places artwork according to the dimensions or construction of the finished textile or product. It is useful for designs that need to align with garment areas, borders or specific panels.

Why does the same artwork look different on satin and cotton?

Satin describes a smooth weave structure that often reflects light strongly, while cotton describes a fibre type. Surface texture, sheen, absorbency, fibre composition and the chosen printing technology all influence perceived colour and detail.

Can digital fabric printing reproduce photographs?

Yes, appropriately prepared photographs can be printed on suitable textile substrates. The source resolution, material surface, print process and final size affect the result.

Can I print logos and typography on fabric?

Yes, appropriate logos and text can be used for eligible applications. Vector artwork is often useful for sharp graphic elements, while minimum readable sizes and fine-line reproduction must be assessed according to the substrate.

How is colour accuracy assessed in textile printing?

Colour may be evaluated visually under controlled lighting and, where required, measured using devices such as spectrophotometers. ICC colour management and appropriate process profiles can support consistency. Exact tolerances must be defined for the job.

Is every digitally printed fabric machine washable?

No universal washing claim applies to every printed textile. Wash performance depends on fibre composition, ink or dye chemistry, curing, finishing and testing. Always follow the instructions appropriate to the finished material or product.

What is colour fastness?

Colour fastness describes resistance to colour change or transfer under conditions such as washing, rubbing or light exposure. Different properties require different test methods and should not be confused with one another.

Can artists turn one design into several products?

Yes, a suitable original design can be adapted to different eligible products, although each one may require a different layout and source-file resolution. Read One Artwork, Multiple Products for a practical explanation.

The Real Capability Is Knowing Which Technology the Job Needs

A production facility is defined by more than the number of printing machines it houses.

The result depends on matching the artwork to the substrate, selecting an appropriate printing technology, preparing the file, controlling the process and understanding what the final product is expected to do.

A cotton print and a polyester sublimation print involve different material science. A large UV-printed display and a compact DTF transfer involve different production decisions. A print-ready vector graphic and a compressed screenshot contain very different types of source information.

At RightGifting, these differences shape how we approach custom fabric printing and personalised products.

Our combined production capabilities allow us to work across a broad range of compatible textile materials, print dimensions and artwork applications.

For designers, artists and businesses creating their own textiles, RightPrints provides access to custom fabric printing by the metre, with zero MOQ.

For customers who want to personalise finished lifestyle products, Design Yours offers another route.

And before either route begins, it is worth making sure the artwork is suitable for its intended size through Print Check.

Because the success of a printed product begins long before the first drop of ink reaches the fabric.