
GB QSSPA1.13-HYJX-B1B4-1-350 ams OSRAM OSCONIQ P 3030 Blue 470 nm
- One code, the whole ladder. HYJX spans all three brightness groups, 33.0 to 52.0 lm, and B1B4 spans all four wavelength groups, 460 to 480 nm. The datasheet carries a single ordering row for this family.
- Lumens are the wrong headline for blue. The 44 lm/W series figure sits near the edge of the eye's response; the same test point yields 628 mW of radiant flux and 0.166 µmol/s of photons.
- 2.93 V at 350 mA, from a 2.70 to 3.20 V spread. The current window opens at 100 mA and closes at 1300 mA, and pulses no longer than 10 µs may reach 2000 mA.
- 120° Lambertian from a 3.0 × 3.0 mm epoxy package, 24.0 mg, on the established 1212 footprint, marked at the anode. Supplied 900 pieces to the reel at MSL 2.
- A 4.1 K/W electrical thermal figure resting on a 54 % radiant-efficiency base — the most favourable in this package. Lumen-maintenance testing to IESNA LM-80 has been carried out for the family.
Description
Product Introduction
Blue is the channel where the luminous figure misleads. The datasheet headlines 44 lm/W, and at the 350 mA test point the part delivers 33.0 to 52.0 lm - numbers that read thin beside a white emitter in the same package. They are not thin: at 470 nm the eye sits near the edge of its response, so a watt of blue scores lower on a human-weighted scale than a watt of green.
The die is delivering 628 mW of radiant flux and 0.166 µmol/s of photons at that same point. Which number matters depends on the job: lumens for visible indication, milliwatts where the energy itself does the work, micromoles per second where a plant is the receiver. Quoting this part by its lumen figure alone sells it short.
Thermal resistance is published as 4.1 K/W - the lowest electrical figure in this package, and the one resting on the most favourable base, since 54 % of the input leaves as light. Normalised, it lands on the same real path as the green and white versions of the outline.
Key Product Features
1. Lumens Understate What a Blue Emitter Does
The 44 lm/W headline belongs to a scale weighted for human vision, and 470 nm sits near its edge. The radiant and photon figures describe the same output without that weighting, and for a colour-mixing or horticultural job they are the ones to specify against.
2. One Ordering Code Across Every Bin
HYJX covers all three brightness groups and B1B4 all four wavelength groups, matching the datasheet's own limits of 33.0 to 52.0 lm and 460 to 480 nm. Nothing is left for a second reference to hold.
3. A 54 % Radiant Efficiency Behind the Thermal Figure
That 4.1 K/W figure rests on an electrical basis: 54 % of the input leaves as light, leaving 46 % as heat. Divide through and the real figure is 8.9 K/W, alongside the green and white parts in the same outline.
4. An Anode Marking on a Shared Footprint
The package is marked at the anode rather than the cathode, which matters when a colour channel is fitted next to white parts that mark the other way. An on-die protection device is wired across the chip, rated 8 kV HBM Class 3B.
5. Lumen-Maintenance Data Published for the Family
Testing to IESNA LM-80 has been done for the family, which is what an energy-label or lifetime file asks for. Not every colour emitter in this class carries one, so it is worth stating rather than leaving to a datasheet search.
| Parameter | Typical Value |
| Manufacturer | ams OSRAM |
| Product Series | OSCONIQ P 3030 Colors |
| Ordering Code | Q65112A8533 |
| Emission Colour | Blue, λdom 470 nm typ. (460 to 480 nm), λpeak 465 nm |
| Luminous Flux (IF = 350 mA) | 33.0 to 52.0 lm (bin pair HY…JX) |
| Radiant Flux (IF = 350 mA) | 628 mW typ. |
| Forward Voltage (IF = 350 mA) | 2.93 V typ. (2.70 to 3.20 V) |
| Forward Current | 100 mA min. / 1300 mA max. (2000 mA surge) |
| Viewing Angle | 120° (Lambertian) |
| Thermal Resistance (RthJS) | 4.1 K/W electrical (ηe = 54 %) |
Application Fields
A saturated blue does a different job under each of the four headings the datasheet files it under: horticulture, entertainment, indoor work, and outdoor or industrial lighting. Typical specifications include:
- RGBW mixing engines – the blue die is what pulls a warm mix back to neutral, and the code covers the full span that mixing tolerances are written against.
- Tunable-white luminaires – a warm-to-cool range is built from two phosphor channels plus a blue one, and this is the blue.
- Stage and effect fixtures – saturated blue for cue and set work, where a 25 nm band keeps the colour steady as the fixture heats.
- Horticultural top-lighting – blue drives vegetative growth, and the photon figure rather than the lumen figure is the one a recipe is written in.
- Vertical-farm inter-lighting – dense racks where a compact source and a 120° cone fill a short throw.
- Photo-biological research rigs – controlled blue channels where the wavelength group has to be documented in the method.
- Fibre and light-guide engines – a Lambertian source coupled into a bundle rather than aimed at a room.
- Signal and beacon modules – a defined blue for equipment state, written into the drawing as a wavelength rather than a colour name.
- Industrial inspection heads – a short-wavelength source picked where a substrate or coating has to stand out from its background.
- Display and backlight prototypes – bench builds where the full bin span is workable because the label can be read reel by reel.
Why Choose Gainer LED?
- Fourteen years on these lines
Since 2012 we have supplied branded optoelectronic components to module builders, luminaire makers and distributors, and the sourcing relationships that came with those years are what keep an awkward reference findable.
- One order, one consignment, one set of papers
A requirement that spans several makers can be consolidated onto a single shipment and a single customs entry, so a project is not left waiting on three suppliers.
- Several branded lines under one roof
We carry the major LED franchises rather than a single one, so a bill of materials drawn from different makers can be quoted from one desk.
- Catalogue coverage rather than a short list
If a reference is in the catalogue we can normally locate it, and when a particular variant is short we say so instead of shipping the nearest alternative unannounced.
- A first order treated as a real order
A pilot build or a service-spares requirement is quoted and shipped on the same terms as a container load, because that is how a long-standing account usually begins.
FAQ
Q: The luminous efficacy looks low next to a white part. Is something wrong?
A: Nothing is wrong, and the comparison is not a fair one. Lumen figures are weighted for human vision, and 470 nm sits near the edge of that response, so a blue emitter always scores lower than a white one delivering the same optical power. Judge this part on radiant flux in milliwatts for colour mixing, or on photon flux in micromoles per second for growing, and the picture changes completely.
Q: Our drawing specifies 470 nm. Which of the two wavelength figures is that?
A: It is the dominant wavelength, and 470 nm is the typical value rather than a guaranteed point. Production spans 460 to 480 nm across four wavelength groups, and the reel label's middle field names the group actually shipped. If the drawing needs a tighter colour, order against a wavelength group instead of the typical figure, otherwise a reel from either end of the range is within specification.
Q: Can we specify this part for an automotive project?
A: Not on the datasheet alone. The document states that the device is designed for its recommended applications only and directs enquiries about other uses, automotive among them, to the manufacturer's sales team. Nothing prevents the part being used in a vehicle, but it carries no automotive qualification and no corrosion class, so the reliability evidence a road-vehicle programme expects is not in the file. Ask us before a drawing is released.
Q: What documentation do we need for a lumen-maintenance or energy-label file?
A: The datasheet records that the family has been tested to IESNA LM-80 for lumen maintenance, which is the starting point for a lifetime or energy-label submission. Ask us for the report alongside the datasheet revision, and keep both with the batch record. An LM-80 report covers only the conditions stated in it, so check your drive current and case temperature against those before reusing the figure.
Q: The package is marked at the anode. Will that confuse our assembly line?
A: It can, because the white parts in this same outline are marked at the cathode, and a line that has run those for years will read the marking the wrong way round. Put the polarity note on the assembly drawing and on the incoming inspection sheet rather than relying on the reel label. The land pattern is identical, so the board itself needs no change.
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