{"id":8454,"date":"2026-03-09T21:31:12","date_gmt":"2026-03-09T13:31:12","guid":{"rendered":"https:\/\/www.honorpigment.com\/en\/solvent-yellow-114-ultimate-guide\/"},"modified":"2026-04-26T10:42:10","modified_gmt":"2026-04-26T02:42:10","slug":"solvent-yellow-114-ultimate-guide","status":"publish","type":"post","link":"https:\/\/www.honorpigment.com\/es_mx\/solvent-yellow-114-ultimate-guide\/","title":{"rendered":"The Ultimate Guide to Solvent Yellow 114 for Transparent Engineering Plastics (PC\/PMMA\/ABS\/PS)"},"content":{"rendered":"
\"Transparent<\/figure>\n\n\n\n

If you need a bright, transparent yellow in clear engineering plastics without sacrificing clarity or processing stability, Solvent Yellow 114 often makes the shortlist. This guide is written for polymer color technicians, masterbatch formulators, and processing engineers who must select, qualify, and scale a yellow dye for PC, PMMA, ABS, and PS. You\u2019ll find resin\u2011specific guidance, practical processing notes, a comparison with peer dyes, and the compliance checks to build into your workflow.<\/p>\n\n\n\n

What is Solvent Yellow 114?<\/h2>\n\n\n\n

Solvent Yellow 114 (often abbreviated SY114; Colour Index 47020) is a polymer\u2011soluble yellow dye widely used to create transparent shades in amorphous thermoplastics. In manufacturer literature, it\u2019s typically grouped within the quinophthalone or quinoline family and is selected for brilliant, clear color in plastics where pigments would introduce scatter and haze. Authoritative overviews position this class of dyes for transparent coloration in PS, ABS\/SAN, PMMA, and PC, with high optical clarity and processing robustness when used within supplier guidance, as summarized in the LANXESS portfolio brochure on polymer\u2011soluble dyes and a SY114 technical data sheet from Waxoline\/Kadion. See the application\u2011level framing in the LANXESS \u201cUnlimited Colors\u201d overview and the product\u2011specific claims in the WAXOLINE YELLOW 3GP FW TDS for Solvent Yellow 114.<\/p>\n\n\n\n

According to the polymer\u2011soluble dyes overview in the LANXESS portfolio, this dye family is used for high\u2011clarity transparent plastics and is frequently matched to amorphous resins with demanding optics and processing windows. Review the positioning in the manufacturer\u2019s brochure: LANXESS Unlimited Colors brochure for polymer\u2011soluble dyes<\/a>. For a brand\u2011specific SY114 variant, Kadion\u2019s Waxoline TDS describes high clarity in transparent polymers and signals strong heat fastness suitable for engineering plastics: Waxoline WAXOLINE YELLOW 3GP FW technical data sheet<\/a>.<\/p>\n\n\n\n

If you are new to polymer\u2011soluble dyes broadly, the term \u201csolvent dyes\u201d refers to organic dyes that dissolve in non\u2011polar media, including many plastics. For an at\u2011a\u2011glance category reference, see the internal directory at solvent dyes<\/a>.<\/p>\n\n\n\n

How polymer\u2011soluble dyes create clear color in plastics<\/h2>\n\n\n\n

Think of light passing through a stained\u2011glass window: the color comes from selective absorption of wavelengths, not from particles scattering light. In plastics, polymer\u2011soluble dyes like Solvent Yellow 114 dissolve in the melt and remain molecularly dispersed in the solid part, so the color is vivid without introducing the particle scatter you\u2019d see with many pigments. That\u2019s why these dyes are favored for lenses, light pipes, appliance panels, and display components where clarity matters. Two practical implications follow. First, because the dye is molecularly dispersed, you can achieve high transmittance and low haze if processing is controlled; haze typically rises when the resin degrades, when dosage is excessive, or when incompatibilities cause micro\u2011phase separation. Second, the Beer\u2013Lambert relationship means thicker sections look deeper; keep wall\u2011thickness variation in mind when matching color across families of parts.<\/p>\n\n\n\n

Using Solvent Yellow 114 in Polycarbonate<\/h2>\n\n\n\n

Polycarbonate demands dyes that tolerate elevated melt temperatures, often near or above 300\u00b0C, and potentially long residence times. Manufacturer signals for Solvent Yellow 114 include suitability for high\u2011temperature processing with strong optical clarity in transparent PC, as indicated qualitatively by brand brochures and SY114 TDS listings. Always confirm the specific temperature envelope and residence\u2011time tolerance with the supplier TDS for your chosen grade before scale\u2011up.<\/p>\n\n\n\n

For production trials in PC, target the lower end of your qualified melt\u2011temperature window and avoid unnecessary hold\u2011ups; color shift often correlates with residence time, not just peak temperature, so run a residence\u2011time study (e.g., \u0394E versus minutes at set temperature) before release. Transparent tints with Solvent Yellow 114 are commonly tuned in the tens to low hundreds of ppm based on visual target and wall thickness, but exact values must come from supplier guidance and in\u2011house trials\u2014start conservative and iterate. Keep moisture under control; hydrolysis artifacts can increase haze and yellowing independently of dye choice, so dry resin properly and monitor MFR drift. If you see ambering or haze spikes after a pause, purge, reduce rear\u2011zone temperatures slightly, shorten residence, and consider antioxidant or UV\u2011stabilizer packages appropriate for PC when the part sees UV or heat aging (confirm additive compatibility with your dye).<\/p>\n\n\n\n

Using Solvent Yellow 114 in Acrylic (PMMA)<\/h2>\n\n\n\n

PMMA is naturally very clear, so it rewards the transparency advantages of Solvent Yellow 114 with vivid, glass\u2011like optics. The main gating factor is lightfastness and weathering when parts are exposed to sunlight. For outdoor or UV\u2011exposed parts, validate with plastics standards that actually model outdoor exposure rather than textile\u2011oriented scales. Use ISO 4892\u20112\/\u20113 or ASTM G155 (xenon\u2011arc) and track \u0394E and transmittance\/haze changes; a 2024 update to ISO 4892\u20113 fine\u2011tunes fluorescent UV conditions, summarized here: Atlas overview of the ISO 4892\u20113:2024 revision<\/a>. Keep residence short, dry the resin thoroughly, and avoid overheating, which can dim the yellow toward brown and add haze. Start dosing modestly and evaluate both thin and thick sections to avoid over\u2011absorption in thicker features.<\/p>\n\n\n\n

Using Solvent Yellow 114 in ABS and SAN Grades<\/h2>\n\n\n\n

ABS introduces a twist: the butadiene rubber phase can increase the risk of migration or bleed with polymer\u2011soluble dyes. That doesn\u2019t preclude the use of Solvent Yellow 114, but it does put testing front\u2011and\u2011center. A plastics coloration guide from a major colorant house advises initial migration testing in butadiene\u2011modified systems like ABS; it\u2019s a prudent default for solvent dyes in ABS or rubber\u2011modified styrenics\u2014see the framing in Heubach\u2019s plastics coloration brochure: Heubach The Coloration of Plastics and Rubber, 2023<\/a>. Clear SAN grades generally present lower bleed risk than ABS due to the absence of the rubber phase, but you should still screen extraction in your intended service media. On the process side, keep screw speeds moderate and backpressure consistent to minimize shear heating; if flow lines show color banding, improve melt homogeneity and consider moving to a well\u2011dispersed masterbatch matched to SAN\/ABS.<\/p>\n\n\n\n

Using Solvent Yellow 114 in Polystyrene<\/h3>\n\n\n\n

PS is a classic home for transparent dyes thanks to its clarity and moderate processing temperatures. With Solvent Yellow 114 you can achieve bright, glassy yellows in clear PS parts when dosing and processing are in control. Avoid over\u2011dosing\u2014PS deepens quickly with thickness\u2014so evaluate the thinnest and thickest wall sections during color approval. Although PS runs cooler than PC, localized overheating (gate areas, stagnant pockets) can still shift shade toward amber; balance hot\u2011runner parameters and purging.<\/p>\n\n\n\n

Solvent Yellow 114 vs Solvent Yellow 93, 98, and 163<\/h3>\n\n\n\n

Buyers often compare Solvent Yellow 114 against three near\u2011neighbors when targeting transparent yellows: Solvent Yellow 93, Solvent Yellow 98, and Solvent Yellow 163. Because numeric stability values and lightfastness differ by supplier and grade, use the table below as a qualitative selection frame and confirm with manufacturer TDS and in\u2011house trials.<\/p>\n\n\n\n

\n\n<\/colgroup>

Attribute<\/p><\/th>

Solvent Yellow 114<\/p><\/th>

Solvent Yellow 93<\/p><\/th>

Solvent Yellow 98<\/p><\/th>

Solvent Yellow 163<\/p><\/th><\/tr>

Typical shade<\/p><\/td>

Golden to slightly reddish yellow<\/p><\/td>

Standard to slightly greenish yellow<\/p><\/td>

Medium yellow<\/p><\/td>

Deep, cleaner yellow<\/p><\/td><\/tr>

Thermal fit (directional)<\/p><\/td>

Frequently shortlisted for higher\u2011temp resins like PC; confirm \u2265300\u00b0C needs with TDS<\/p><\/td>

Often favored in styrenics; verify temp window<\/p><\/td>

Similar styrenic\/acrylic use; check PC suitability<\/p><\/td>

Alternative where shade and stability balance suits the resin<\/p><\/td><\/tr>

Transparency\/clarity<\/p><\/td>

High in clear resins when dosed conservatively<\/p><\/td>

High in styrenics<\/p><\/td>

High in styrenics\/acrylics<\/p><\/td>

High; resin\/grade dependent<\/p><\/td><\/tr>

Migration tendency<\/p><\/td>

Resin\u2011dependent; screen in ABS and plasticized systems<\/p><\/td>

Similar caution in ABS<\/p><\/td>

Similar caution in ABS<\/p><\/td>

Similar caution in ABS<\/p><\/td><\/tr>

Common shortlists<\/p><\/td>

PC, PMMA, PS, SAN, select ABS<\/p><\/td>

PS, SAN, PMMA<\/p><\/td>

PS, SAN, PMMA<\/p><\/td>

PS, SAN, PMMA, select PC per TDS<\/p><\/td><\/tr><\/tbody>\n<\/table>\n<\/figure>\n\n\n\n

Direction of travel: If your part requires higher processing temperatures or longer residence (e.g., thick PC), Solvent Yellow 114 is often a stronger starting point. If your work is mostly in styrenics or acrylics with moderate temperatures, Solvent Yellow 93\/98\/163 can land closer to your target shade or processing profile. Always verify grade\u2011specific windows with supplier documents such as the LANXESS brochure for polymer\u2011soluble dyes and any available SY93\/98\/163 TDS from your selected manufacturer.<\/p>\n\n\n\n

Migration, blooming, and extraction \u2014 tests and mitigation<\/h3>\n\n\n\n

Color bleed and extraction risks depend on resin polarity, plasticizers, service media, and dosage. For transparent parts, even small amounts of bleed can leave a visible halo or stain on adjacent materials. Build a screening protocol sized to your risk. For food\u2011contact ambitions in the EU, follow the plastics framework (EU 10\/2011) with overall migration per EN 1186 and any applicable specific migration testing per EN 13130; a concise overview of these methods is available from a third\u2011party lab resource: Intertek\u2019s migration testing explainer for food\u2011contact plastics<\/a>. Where food contact isn\u2019t in scope, define simulants (oils, fuels, detergents) that mirror your application along with temperature\/time and an objective measurement plan (e.g., \u0394E of white wipes, GC\/MS of extracts, or weight loss). To mitigate, reduce dosage to the minimum acceptable, prefer masterbatches with carriers identical to the host resin, consider encapsulation or barrier strategies if available, and validate stabilizer packages for compatibility with Solvent Yellow 114.<\/p>\n\n\n\n

The Waxoline SY114 TDS signals \u201cno blooming or migration under normal conditions,\u201d but substrate, formulation, and end\u2011use matter. Treat such statements as starting points, then verify in your own matrix using your resin, additives, and service media, as the SY114 TDS notes: Waxoline WAXOLINE YELLOW 3GP FW technical data sheet<\/a>.<\/p>\n\n\n\n

Compliance and procurement \u2014 documents to request and verify<\/h3>\n\n\n\n

Compliance status for a dye is both supplier\u2011specific and application\u2011dependent. Avoid blanket claims and insist on lot\u2011specific documentation. Ask for an SDS and any REACH\/CLP statements for the exact grade you are buying; if you need a public registry entry, search the ECHA Substance Information site by CAS or Colour Index number and record only what is explicitly listed on the live page. Request a RoHS conformity statement for the supplied dye lot and, if needed, a screened elements report. As of the latest checked lists, Solvent Yellow 114 does not appear on the OEHHA Proposition 65 chemical list\u2014always re\u2011check the current database before making claims: OEHHA Proposition 65 chemical database<\/a>. For FDA 21 CFR (U.S., indirect additives), there is no general listing identified for Solvent Yellow 114 in color or food additive regulations; treat food\u2011contact suitability as a dedicated project relying on migration testing and regulatory pathways matched to your application, and consult the current eCFR and FDA resources rather than assuming authorization. For toy and child\u2011contact products where elemental impurities matter more than the organic dye itself, ensure the latest regional standards (e.g., ISO 8124\u20113 migration of certain elements) are covered; a standards bulletin provides useful high\u2011level context: SGS note on ISO 8124\u20113 migration of certain elements<\/a>.<\/p>\n\n\n\n

For weathering method background and updates that affect plastics, see this instrument maker\u2019s summary of ISO 4892\u20113: Atlas ISO 4892\u20113 revision overview<\/a>. When you draft procurement language, specify the exact dye grade, required documents (TDS, SDS, REACH\/RoHS, any intended FCM testing), and the test methods you will use for acceptance (e.g., xenon\u2011arc exposure per ISO 4892\u20112 and migration screens per EN 1186 for intended use).<\/p>\n\n\n\n

Practical methods at a glance<\/h3>\n\n\n\n

Here\u2019s a compact way to stage your qualification of Solvent Yellow 114 in transparent engineering plastics. Run these as a minimum viable plan, then layer on application\u2011specific studies. First, establish thermal screening in\u2011resin to get a baseline shade at your nominal melt temperature, then hold resin at setpoints across your process range and pull shots at defined intervals to plot \u0394E versus time while checking haze. Next, measure total transmittance and haze on standard plaques at multiple thicknesses to confirm the dye target is met at both the thinnest and thickest walls. Where sunlight exposure is relevant (PMMA or PC), run xenon\u2011arc exposure per ISO 4892\u20112 or ASTM G155 and report \u0394E, transmittance, and haze. Finally, for migration and extraction, choose simulants that mimic real service; use EN 1186 for overall migration where food contact is intended, and otherwise define solvent or oil exposure tests with objective detection methods.<\/p>\n\n\n\n

Next steps and sourcing<\/h2>\n\n\n\n

Selecting a polymer\u2011soluble yellow for transparent parts is equal parts optics, process stability, and risk management. Start with Solvent Yellow 114 if your application skews toward higher processing temperatures, long residence, or a golden\u2011reddish yellow target; evaluate Solvent Yellow 93\/98\/163 when shade or processing conditions point that way. Validate everything in your resin, with your additives, using your process and exposure profiles.<\/p>\n\n\n\n

If you\u2019re gathering options or need sample lots quickly, reputable suppliers of solvent dyes can support lab trials and documentation requests. For a neutral starting point, see the category overview at Pigmentos de honor<\/a>. Keep the tone of your supplier communications factual: specify the resin system, processing window, exposure targets, and the test methods you will use for acceptance.<\/p>\n\n\n\n

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References cited in context<\/p>\n\n\n\n