ایل ای ڈی ہیٹ سنکس کے لیے ایلومینیم ڈسک

تفصیلات قدر
غصہ اے (نرم, کتائی) / H14-H24 (مہر ثبت, rigid plates)
موٹائی 0.5-6 ملی میٹر
قطر 50-500 ملی میٹر (cut to blank size)
تھرمل چالکتا ~220–230 W/mK (1xxx)
رواداری diameter ±0.2–0.5 mm, موٹائی فی قیاس
درخواستیں spun LED cups, base plates, bulb/street/high-bay heat sinks

ایل ای ڈی ہیٹ سنکس کے لیے ایلومینیم ڈسک

تعارف

An aluminum disc for LED heatsinks is a round blank of high-purity aluminum (most often 1050, 1060 یا 1100) that lighting manufacturers spin, ڈاک ٹکٹ, deep-draw or machine into the heat-spreading body of an LED luminaire.

LEDs are sensitive devices: if they cannot shed heat, their junction temperature rises, light output drops, color shifts and life shortens.

The aluminum disc is the raw material that becomes the heat sink, the light-cup shell and the base plate that conducts heat from the LED board to the surrounding air.

For LED thermal management, aluminum beats most alternatives.

It is light, کم لاگت, easy to spin and stamp, سنکنرن مزاحم, and—in its pure 1xxx form—a good thermal conductor.

This guide explains which aluminum discs are used for LED heatsinks, why pure alloys outperform stronger ones for heat, the tempers and sizes available, how blanks are made and formed, the main luminaire applications, anodizing and surface finishes, thermal design, کوالٹی کنٹرول, قیمتوں کا تعین اور آرڈر, اور ایک بنیادی تفصیلات کی میز.

High-purity aluminum discs ready to be formed into LED heat sinks.
High-purity aluminum discs ready to be formed into LED heat sinks.

What Is an Aluminum Disc for LED Heatsinks?

An aluminum disc (also called an aluminum circle or blank) is a round sheet cut from aluminum coil. For LED heatsinks it is usually 0.5–6 mm thick and from roughly 50 mm to several hundred millimeters in diameter, depending on the luminaire.

The disc is then converted downstream—spun into a cup, stamped into a shallow pan, or machined—to become the heat-spreading shell of a spotlight, downlight, bulb or street fixture.

The disc is chosen for two properties at once: thermal conductivity and formability.

a 1050/1060/1100 disc conducts heat well (pure aluminum is around 220–230 W/mK) and is soft enough in O temper to spin or deep-draw without cracking.

Stronger alloys such as 3003 یا 5052 are stiffer and more corrosion-resistant but conduct heat less well; they are reserved for mechanically demanding parts rather than pure heat spreading.

The most common blank is the 1050 ایلومینیم دائرہ; stiffer formed parts sometimes use 3003 ایلومینیم دائرہ.

The term covers both small thin discs spun into light cups and larger thick discs that are machined into base plates.

What unites them is that the disc is the starting blank, not the finished part: the lighting maker forms it, anodizes it, mounts the LED board and driver, and ships the luminaire.

This is why spec precision matters—a disc that is too thin cracks on the spinning line, one that is not flat runs eccentrically, and one in the wrong alloy cannot shed the heat a high-power LED produces.

Why Aluminum for LED Thermal Management?

اچھی تھرمل چالکتا: pure 1xxx aluminum conducts heat far better than plastics or die-cast zinc.

ہلکا وزن: about one third the density of copper, important for recessed and retrofit fixtures.

Easy to spin and stamp into thin, thin-wall light cups and pans.

Low cost and widely available compared with copper heat sinks.

Naturally corrosion-resistant and accepts anodizing for heat dissipation and insulation.

Recyclable and compatible with the lighting industry’s cost and volume targets.

Copper conducts better than aluminum but is heavier and more expensive; plastic is cheap but is an insulator. Aluminum sits in the sweet spot: conductive enough to cool a high-power LED, light enough for a ceiling fixture, and cheap enough for a consumer bulb. That is why almost every LED heat sink shell on the market—especially the spun or stamped round ones—starts as an aluminum disc.

پلاسٹک کے مقابلے میں, aluminum conducts heat orders of magnitude better, so a plastic bulb body traps heat and shortens LED life.

Compared with die-cast aluminum, a spun 1050 cup is thinner, smoother and cheaper to tool, and conducts better than porous die-cast.

Compared with copper, aluminum is about a third of the weight and much cheaper, and at the temperatures a small LED sink sees, the conductivity gap is more than made up by the larger surface area a light aluminum shell allows.

جو کھوٹ? Thermal Conductivity vs Strength

کھوٹ تقریبا. تھرمل چالکتا (ڈبلیو/ایم کے) کردار Use for LED heatsinks
1050 / 1060 ~225–230 خالص, بہت نرم, highest conductivity spun cups, base plates, thermal spreaders
1100 ~218 pure with a little Cu, نرم, اچھی فارمیبلٹی stamped pans, light cups
3003 ~160–190 Mn مرکب, مضبوط, سخت mechanically demanding formed parts
5052 ~130 ایم جی مرکب, مضبوط, سنکنرن مزاحم structural housings, not primary heat sink

 

اصول سادہ ہے۔: for the part that spreads LED heat, choose the purest soft alloy that still forms.

As alloying elements are added (Mn in 3003, Mg in 5052), strength and corrosion resistance rise but thermal conductivity falls.

a 5052 heat sink looks strong but moves heat poorly; a 1050 disc conducts well but may be too soft for a structural wall. Most spun LED cups are 1050/1060 اے, which balances both.

Reflective inner surfaces for some luminaires use a 5052 اعلی عکاسی آئینے کی شیٹ; general structural sheet can come from the 5000 سیریز ایلومینیم شیٹ رینج.

عملی مشورہ: do not over-specify. A lighting buyer asked for “strongest aluminum” may end up with 5052, which feels premium but moves heat about 40% less well than 1050 and runs the LED hotter.

Reserve 3003/5052 for the few parts that really need mechanical stiffness or outdoor corrosion, اور استعمال کریں 1050/1060 for the heat-spreading cup and base.

If in doubt, a sample in each alloy with a simple temperature test under the same LED and current settles the question faster than datasheets.

غصہ: O for Spinning, H for Stiffness

اے غصہ (annealed, نرم) is the standard for LED discs that will be spun or deep-drawn.

A soft disc flows under the spinning roller without cracking, which is essential for thin light cups and tapered shells.

H14/H24 or half-hard tempers are used when the disc is stamped into a shallow pan that must keep its shape, or when the finished part needs stiffness rather than deep forming.

Getting the temper wrong is a classic defect: a half-hard disc spun into a deep cup cracks at the base, while an O disc used as a rigid base plate is too soft and dents.

The blank supplier therefore matches the temper to the forming process—O for spinning and deep drawing, H for shallow stamping and rigid plates—and the converter trials a sample before volume.

Spinning in particular is temper-sensitive. An O disc needs enough annealed softness to flow under the roller without springback, but fully annealed stock that is too soft can wrinkle or tear on a deep draw.

The mill controls the anneal to a consistent temper, and the spinning line sets roller pressure and feed speed to match.

Variation in temper between batches is a common cause of cracked cups, which is why a mill certificate on temper—not just alloy—is part of the spec.

عام نردجیکرن

پیرامیٹر عام حد
کھوٹ / مزاج 1050 / 1060 / 1100, اے (نرم) or H14/H24
موٹائی 0.5-6 ملی میٹر; spun cups ~0.6–2 mm, base plates 2–6 mm
قطر 50-500 ملی میٹر, cut to the cup/base blank size
چپٹا فلیٹ, burr فری کنارے, مسلسل قطر
سطح مل ختم; anodized کیا جاسکتا ہے, blasted or brushed downstream
کاٹنے sheared or blanked circle, controlled burr and edge
رواداری diameter ±0.2–0.5 mm, موٹائی فی قیاس

 

Blank diameter is calculated from the finished cup dimensions using the surface area of the drawn part—a deep, thin cup needs a larger blank than a shallow pan.

Thickness depends on thermal mass and wall thinning during spinning: a thin cup uses 0.6–1.5 mm, while a solid base plate under a high-power COB LED uses 3–6 mm to spread heat.

Blank sizing is the first engineering step. The spun cup thins as it forms, so the disc must be thick enough to leave a minimum wall after drawing.

Buyers often work backwards from the cup drawing: required wall thickness, cup diameter and depth set the blank diameter and starting gauge.

Leaving too large a blank creates trim waste; too small a blank splits at the rim. Because circle cutting is cheap, it is normal to cut a few blank sizes, spin samples, and lock the diameter that gives a clean cup with the least scrap.

کوائل سے ڈسک تک: How Blanks Are Made

LED heat-sink discs start from cold-rolled aluminum coil in the chosen alloy and temper.

کنڈلی uncoiled ہے, برابر, and blanked on a circle-cutting line—either sheared with round dies or punched in a blanking press—into round discs of the target diameter.

The edge is controlled for burr and the disc is stacked, interleaved if needed, and inspected for flatness and gauge.

The key quality points are flatness (a warped disc spins eccentrically), کنارے burr (which causes cracking in forming), پیمائش کی مستقل مزاجی, اور سطح کی صفائی.

Because the blank is spun into a thin shell, even small gauge variation shows up as uneven wall thickness or splitting.

A good circle line cuts clean, فلیٹ, burr-free discs that the converter can run directly on the spinning or stamping machine.

Yield on a circle line depends on nesting: cutting the maximum number of discs from a coil width to minimize scrap.

For large diameters the trim between circles is the main cost, so specifying a diameter that nests well on a standard coil width reduces price.

Tolerance and edge condition are specified per application—anodizing-grade discs need a clean, scratch-free surface because anodizing reveals every rolling mark, while spun cups mainly need flatness and burr control.

Aluminum coil blanked into round heat-sink discs.
Aluminum coil blanked into round heat-sink discs.

تشکیل: Spinning vs Stamping vs CNC

Three processes turn a disc into a heat sink. Spinning clamps the disc over a mandrel on a lathe and rollers press it into a tapered cup—ideal for thin, round LED light cups and spotlights, and cheap for medium and large runs.

Stamping and deep drawing press the disc in a die into shallow pans and flatter base plates.

CNC machining is used for high-power finned heat sinks cut from solid disc or plate, where precise fin geometry matters.

Spinning is the dominant process for round LED heat cups because it is fast, tooling is cheap, and it produces the tapered, thin-wall shell that lights need.

او غصہ 1050/1060 disc flows smoothly under the roller. Stamping suits flat plates and shallower parts; CNC suits high-power, finned industrial and street heat sinks where thermal performance is engineered rather than shaped.

The choice of process drives the disc spec. Spinning wants a soft O disc with a clean, burr-free edge and good flatness; stamping wants consistent gauge so the die does not overload;

CNC wants a thicker plate or disc with stable thickness and a clean, machinable surface.

Telling the blank supplier which process the disc will go into prevents the most common mismatch—a stamping-grade disc that is too soft, or a spinning disc with an edge burr that cracks under the roller.

A disc is spun into a thin-walled LED heat cup.
A disc is spun into a thin-walled LED heat cup

درخواست: LED Spotlights and Downlights

The classic spun aluminum heat cup is the body of an LED spotlight, PAR lamp or downlight.

The disc is spun into a tapered shell that doubles as the heat sink and the lamp body: the LED board mounts on the flat back or base, heat conducts through the aluminum wall, and the outer surface (often finned or fluted) radiates to the air.

This is why the cup must be thermally conductive and dimensionally round.

For recessed downlights and spotlights, weight and thermal performance both matter—the fixture hangs in a ceiling and must cool the LED without a fan.

a 1050/1060 O disc spun thin gives low mass and good conduction; the outside is often anodized black or white to match the interior.

Consistent blank diameter and flatness keep the spun cups concentric and the fixture cosmetic.

Recessed downlights are a thermal tight spot: the fixture sits inside a ceiling void with little air flow, so the spun cup must shed heat conductively to its outer surface and through the trim.

A thin, low-mass cup looks elegant but can run hot; makers balance wall thickness, fluting and anodizing to keep junction temperature within the LED’s rating.

Because these cups are visible after install, surface finish and roundness are as much a selling point as cooling.

Spun aluminum cups for LED spot and downlight heat sinking.
Spun aluminum cups for LED spot and downlight heat sinking.

درخواست: LED Bulbs and Retrofit Lamps

LED bulbs (A-shape, candle, reflector) and retrofit lamps use small aluminum discs spun or stamped into the heat sink base under the plastic or glass bulb.

The bulb’s driver and LED board sit on this aluminum body, which must shed heat into the ambient air. Because bulb heat sinks are small and thin, a high-conductivity 1050/1060 disc and good surface area (finned or fluted) are what keep a 5–15 W bulb running cool.

Retrofit compatibility adds constraints: the heat sink must fit the existing lamp envelope, be light, and not look like a block of metal. Spun and finned aluminum discs meet this, often with a glossy or anodized finish and a plastic skirt over part of the body.

The blank is small (50–120 mm) and thin, so consistency and burr control are critical for high-volume bulb lines.

Bulb heat sinks face a cost and size squeeze: the body must look like a classic bulb, keep the driver cool, and be cheap enough for a consumer lamp.

Spun and finned 1050/1060 aluminum does this, often with a plastic skirt over the middle and the aluminum fins exposed at the base.

Because these are made in the millions, disc diameter, gauge and edge must be rock-consistent so the spinning press does not jam or scrap.

Color and surface (چاندی, anodized black or painted) are cosmetic, but the underlying conductivity is what sets bulb life.

Bulb and downlight bodies spun from small aluminum discs.
Bulb and downlight bodies spun from small aluminum discs.

 

درخواست: Street, High-Bay and Industrial Luminaires

Higher-power LED street lights, high-bay fixtures and floodlights move more heat and often use finned, machined or extruded aluminum rather than a simple spun cup.

The base plate starts as a thicker aluminum disc or plate—2–6 mm of 1050/1060, or stiffer 5052 for structural housings—and fins are machined or bonded to increase surface area.

The disc spreads heat from the LED array to the fins.

For these fixtures, thermal design is engineering-led: the base plate must be flat and thick enough to spread heat evenly across the array, and the surface must make good thermal contact with the LED board (often with thermal paste).

Outdoor use adds corrosion and weathering, so anodizing or coating is common. Here the disc is part of a engineered heat sink, not just a cosmetic cup.

High-power fixtures also demand good thermal contact between the LED array and the base plate. Warped or rough base plates create air gaps that act as insulation, defeating the best alloy.

A flat, موٹی 1050/1060 disc with a machined or sanded mounting face lets thermal paste fill the gap and spread heat to the fins.

Outdoor units further require anodizing or coating to resist humidity and road spray, so the disc surface must take that finish evenly and without blistering.

 Finned aluminum heat sinks for high-power LED luminaires.
Finned aluminum heat sinks for high-power LED luminaires.

سطح ختم: anodizing, Blasting and Reflective Surfaces

The bare aluminum disc is often finished downstream. Anodizing grows a hard, protective oxide layer that improves corrosion resistance, gives electrical insulation (useful where the board mounts), and can be dyed black, silver or other colors.

Black anodizing also improves heat radiation from the surface. Sandblasting or texturing gives a uniform matte look; polishing or mirror finishing is used where the inner surface must reflect light.

Anodizing is the most common LED heat-sink finish because it protects the aluminum and adds the cosmetic black or white look of modern luminaires.

The blank itself should be clean and burr-free, because anodizing amplifies surface defects—scratches and rolling marks show up after anodizing rather than being hidden.

Reflective inner surfaces for PAR and spot reflectors may use bright or mirror-finish aluminum.

Because anodizing is a conversion of the surface rather than a paint, it follows the underlying finish: a smooth polished disc anodizes to a clean bright part, while a scuffed or rolled disc shows the marks through the anodic layer.

This is why heat-sink discs destined for anodizing are supplied with a clean, scratch-free surface and controlled rolling texture.

Black anodizing, خاص طور پر, makes every surface flaw visible, so suppliers that know the lighting trade handle the discs carefully between blanking and delivery.

Black-anodized round LED heat sink; anodizing boosts protection and radiation.
Black-anodized round LED heat sink; anodizing boosts protection and radiation.

Thermal Design: How the Disc Cools the LED

Heat flows from the LED junction through the board and TIM (thermal interface material) into the aluminum disc, then conducts across the disc wall to the outer surface and radiates/convects to air.

The disc’s job is to spread heat from the small LED package over the whole heat-sink area. Three factors dominate: alloy conductivity (استعمال کریں 1050/1060), wall and base thickness (enough mass to spread heat), and outer surface area (پنکھ, fluting, black anodizing).

A common mistake is making the cup too thin to save weight: a 0.4 mm wall may look fine but cannot spread heat, so the LED runs hot.

Thermal simulation or a simple temperature test (thermocouple on the junction, ambient and sink) validates the design. For high-power arrays, a thicker base plate and a properly sized disc diameter—rather than just a tall decorative shell—is what actually lowers junction temperature.

The interface between board and disc matters as much as the alloy. Even a 1050 plate fails if the LED board sits on it with air gaps or oxidation.

A flat, clean mounting face, thin thermal interface material, and good bolt pressure keep contact resistance low.

This is why machined base plates for COB modules are often specified with a flatness and surface finish callout rather than just a thickness.

The disc supplier controls flatness and gauge; the luminaire maker controls assembly pressure and TIM.

Quality Control of Heat-Sink Discs

چیک کریں۔ ضرورت
کھوٹ / مزاج مل سرٹیفکیٹ 1050/1060/1100 O or H
موٹائی & قطر within tolerance, consistent across batch
چپٹا no wave or cupping; spins concentrically
کنارہ burr مفت, no cracks or laminations
سطح صاف, تیل نہیں, scratches or rolling defects
مقدمے کی تشکیل sample spins/stamps without cracking or splitting
تھرمل conductivity per alloy (traceable via alloy cert)

 

The converter trials a sample batch on its own spinning or stamping line before volume: if the disc cracks, spins eccentrically or leaves uneven wall thickness, کھوٹ, غصہ یا خالی قطر بند ہے.

Incoming checks of flatness, edge burr and gauge catch most problems; anodizing in-house further reveals surface defects that were invisible on the bare disc.

Custom Sizes and Tolerances

Heat-sink discs are cut to the customer’s blank size, not to a standard catalog.

The buyer provides the finished cup drawing or the spun dimensions, and the mill calculates the blank diameter, then cuts discs to that diameter in the required gauge and temper.

Because tooling for circle dies is low-cost, custom diameters are flexible; tight tolerances on diameter and flatness are specified for high-speed spinning.

For new luminaire designs, buyers often send the cup or base drawing and ask for a calculated blank size plus sample discs.

The converter spins or stamps the sample, adjusts the blank size if the wall thins unevenly, and then releases the specification for volume.

Hole patterns, centers or pre-punched features can be added for base plates, though most spun cups use a plain disc and form the features in the mandrel.

Because the discs are usually further formed or anodized, they are packed to stay clean and undamaged: stacked with interleaving paper to prevent scratches, banded on pallets, and wrapped against moisture and dust.

Anodizing-grade discs in particular must not be scuffed in transit, since every scratch shows after anodizing.

Export pallets are tagged with alloy, مزاج, قطر, موٹائی, lot and mill certificate, and shipped with the documentation the lighting maker needs for incoming inspection.

صاف, interleaved discs packed on pallets for export.
صاف, interleaved discs packed on pallets for export.

قیمتوں کا تعین اور MOQ

Discs are priced on the aluminum base (LME سے منسلک) پلس blanking اور پروسیسنگ.

خالص 1050/1060 discs cost a little more per kg than 3003 because of the rolling, but the thermal performance justifies it for heat sinks.

موٹائی, قطر, رواداری, cut quality and anodizing-ready surface affect price; پتلی, بڑا, tight-tolerance discs cost more than thick, loose ones.

MOQ is usually a few hundred kg or a pallet for custom sizes; standard sizes are quicker.

Buyers control cost by matching the alloy to the thermal job (not over-specifying to 5052 جب 1050 is better), ordering container quantities, and getting the blank diameter right the first time—re-cutting because a cup splits wastes material and time.

کل لاگت میں پیداوار کی تشکیل شامل ہے۔: ایک فلیٹ, burr مفت 1050 disc with high yield beats a cheap disc that cracks on the spinning line.

How to Order LED Heatsink Discs

کھوٹ بیان کریں۔ (1050/1060/1100), مزاج (O for spinning, H for rigid plates) اور موٹائی.

Give the finished cup/base drawing or the blank diameter you need.

Specify diameter tolerance, چپٹا پن, edge burr limit and surface condition.

Request a forming sample batch before volume production.

Confirm mill certificate for alloy and temper, and anodizing-ready surface if you anodize.

اچھی طرح سے چلنے والی انکوائری تیز ہوجاتی ہے۔. The buyer who sends the finished cup drawing (یا خالی سائز کا پہلے سے حساب کیا گیا ہے۔), ہدف گیج اور مزاج, بہاو ​​کا عمل (کتائی, stamping or CNC), and whether the discs will be anodized gets a quotation matched to the job rather than a generic per-kg price.

It also avoids the most common return—discs that are the wrong temper for spinning or that show scratches under anodizing.

جاری پیداوار کے لیے, agree on a written spec sheet (کھوٹ, مزاج, گیج, diameter tolerance, چپٹا پن, کنارے burr, سطح, certificate) and reorder against it, so every shipment matches the approved sample.

Lead time is short for standard 1050/1060 discs in common sizes; custom diameters and anodizing-ready surface add a small setup.

Because aluminum pricing tracks the LME, quotations carry a short validity, so confirm price when the spec is locked.

اکو پھٹکڑی کے بارے میں

Eco Alum مارچ میں قائم ایک ایلومینیم سپلائی ماہر ہے۔ 2025, دنیا بھر کے صارفین کے لیے ایک مستند چینی ایلومینیم رولنگ اور خالی سپلائی چین کو مربوط کرنا.

ہم پلیٹوں پر توجہ دیتے ہیں۔, کوئلز, ورق, سٹرپس اور دائرے بھر میں 1000 سیریز (1050, 1060, 1070, 1100, 1235 اور 1350), کے ساتھ مل کر 3003 اور 5000 سیریز جیسے 5052.

ایک مل کے تاجر کے بجائے, ہم صحیح مل سے ملتے ہیں, کھوٹ, ہر گاہک کی درخواست پر غصہ اور کٹائیں اور معیار کا نظم کریں۔, سرٹیفکیٹ اور برآمد پیکنگ.

For LED lighting and heat-sink manufacturers, we supply high-purity 1050, 1060 اور 1100 ایلومینیم ڈسکس اور حلقے O یا H مزاج میں, cut to spun-cup and base-plate diameters, فلیٹ کے ساتھ, burr مفت, anodizing-ready blanks and mill certificates.

ہم بھی سپلائی کرتے ہیں۔ 3003 اور 5052 for stiffer formed or structural parts and 5052 reflective sheet where needed.

[email protected] پر رابطہ کریں یا کال کریں۔ +86 19924932491 with your cup drawing or blank size for a factory-coordinated quotation and forming samples.

We support lighting makers through the whole thermal-disc loop: blank-size calculation from your cup drawing, alloy and temper selection for spinning or CNC, حجم سے پہلے نمونہ ڈسکس, بہت مل سرٹیفکیٹ, anodizing-ready surface handling, اور اسی قیاس کے مطابق مسلسل دوبارہ ترتیب.

دوبارہ فروخت کرنے کے بجائے, ہم کوالیفائیڈ رولنگ اور بلیننگ ملز کو مربوط کرتے ہیں تاکہ ڈسکس فلیٹ پہنچ جائیں۔, burr-free and spin-ready—reducing the cracked cups and rejects that come from inconsistent or mis-specified stock.

اکثر پوچھے گئے سوالات

س: What aluminum disc is used for LED heatsinks?

a: High-purity 1050, 1060 یا 1100 in O temper for spun cups and base plates; مضبوط 3003/5052 only for structural or mechanically demanding parts.

س: Why not use a stronger alloy?

a: Adding alloying elements (Mn, ایم جی) raises strength but lowers thermal conductivity; a heat sink needs conduction more than strength.

س: O or H temper for spun LED cups?

a: اے (نرم) for spinning and deep drawing; H14/H24 for shallow stamped pans and rigid base plates.

س: What disc thickness do I need?

a: Spun cups about 0.6–2 mm; solid base plates for high-power LEDs about 2–6 mm, depending on thermal mass.

س: Can the discs be anodized?

a: Yes—specify anodizing-ready, صاف, burr-free blanks; anodizing gives protection, insulation and black/silver cosmetic finishes.

س: خالی قطر کا حساب کیسے لگایا جاتا ہے۔?

a: From the finished cup’s surface area (drawing the spun shape), پھر تشکیل دینے والے نمونے کے ساتھ تصدیق کی جاتی ہے۔.

س: Are custom diameters available?

a: جی ہاں — دائرہ کاٹنا کم ٹولنگ ہے۔, so custom diameters and gauges are cut to your cup drawing.

س: How does the disc cool the LED?

a: It spreads heat from the LED board through the aluminum wall to the outer finned or anodized surface, which radiates and convects to air.

نتیجہ

The aluminum disc is the thermal heart of most round LED luminaires.

High-purity 1050/1060/1100 in O temper gives the best balance of heat conduction and spinability, becoming the thin light cup of spotlights and downlights, the small body of LED bulbs, or the thick base plate of high-power fixtures.

خرید پوائنٹس صحیح کھوٹ اور مزاج ہیں۔, حسابی قطر میں فلیٹ گڑ سے پاک خالی کٹ, anodizing-ready surface, اور حجم سے پہلے ایک تشکیل دینے والا نمونہ.

ایک مربوط سپلائی چین سے سورسنگ ڈسکس جو مرکب کو کنٹرول کرتی ہے۔, مزاج, blanking and certificates gives lighting makers a consistent heat sink that spins cleanly, cools the LED reliably and looks good after anodizing.