Speed and precision are no longer secondary goals in modern manufacturing — they're baseline requirements, and UV curing systems deliver both by hardening adhesives, coatings, and inks with light instead of heat or time. The Science Behind UV Curing Unlike thermal drying, which relies on heat and solvent evaporation, UV curing uses a photochemical reaction to transform a liquid into a solid. Three core elements drive the process: a specialized formula containing monomers and oligomers — the polymer building blocks — along with photoinitiators; UV light exposure from a traditional lamp or LED source; and rapid polymerization, where photoinitiators absorb UV energy and become reactive, triggering a chain reaction that links monomers and oligomers into a tough, cross-linked polymer network in seconds. This cure-on-demand capability allows for precise assembly and immediate handling of parts, a major advantage on any production line. Incure's L-Series™ UV LED flood lamps apply this same principle across wider surface areas for higher-throughput production. Types of UV Curing Systems Choosing the right system depends on application and material, with two main types differentiated by light source. UV LED systems use high-efficiency LEDs emitting a narrow, concentrated band of UV light, typically 365–405 nm. These produce very little heat, are highly energy-efficient, and have an exceptionally long service life, making them well suited to heat-sensitive materials and applications where energy conservation is a priority — electronics assembly and precise spot curing among them. Traditional UV lamp systems use mercury vapor or metal-halide lamps emitting a broad spectrum of UV light. Their broad spectrum can activate a wider range of formulations, making them a versatile choice for industrial coatings, screen printing, and applications requiring a deep or broad cure profile. Incure's S20™ arc spot curing system delivers broad-spectrum output across 275–650 nm, supporting configurable lightguide setups for applications that need that deeper spectral coverage. Key Benefits for Industrial Applications Accelerated production: Curing times drop from minutes or hours to seconds, drastically shortening production cycles and increasing throughput. Superior finish: Cured material is often more durable, scratch-resistant, and chemically resilient than air-dried or heat-cured alternatives. Environmental and safety advantages: UV curing is a solvent-free process, releasing fewer volatile organic compounds while consuming less energy and eliminating the need for large, heat-intensive ovens. Versatility: UV curing systems work across diverse substrates, including glass, plastics, metal, wood, and paper. Email Us to discuss which UV curing system type fits your material and throughput requirements. Common Industrial Uses From consumer goods to precision electronics, UV curing technology transforms assembly lines across sectors. In electronics, it bonds components on circuit boards, applies conformal coatings for environmental protection, and seals enclosures for water resistance. Incure's L9000™ compact spot curing lamp supports this kind of precision electronics work directly. In automotive manufacturing, UV curing produces durable clear coats on headlights, bonds interior trim pieces, and applies protective coatings. In printing and packaging, it instantly cures inks and coatings on labels, bottles, and other packaging, allowing immediate post-press handling. In consumer electronics assembly, UV curing supports…

A drying oven that runs for twenty minutes to set a coating that a UV lamp could cure in twenty seconds isn't just slower — it's tying up floor space and energy that a curing system upgrade could free for other work. How UV Curing Systems Work A UV light curing system uses powerful ultraviolet illumination to trigger photopolymerization, transforming liquid resins, inks, and adhesives into solid, durable materials within seconds. Unlike traditional drying methods that rely on heat or air-drying, UV curing offers a solvent-free, low-temperature, and rapid process suited to modern manufacturing lines. The process moves through a few clear stages: a UV-curable substance is applied to a substrate; the material's photoinitiators remain inactive until exposed to UV light; upon exposure, photoinitiators absorb energy and break down, producing free radicals that cross-link monomers and oligomers; and the liquid material solidifies almost instantly into a durable polymer network. Incure's L-Series™ UV LED flood lamps deliver programmable, high-intensity curing suited to this kind of continuous production process. Key Components of a UV Curing System A typical system includes a UV light source, ranging from traditional mercury vapor lamps to modern UV-LED modules; a reflector to concentrate and direct UV energy efficiently onto the material; a power supply to regulate lamp intensity and performance; a cooling system to keep equipment within safe thermal limits; a control unit for precise adjustment of exposure time and output; and a curing chamber or conveyor to hold or transport parts during exposure. Incure's L9000™ compact spot curing lamp integrates several of these elements into a single precision unit for targeted curing work. Types of UV Curing Systems Spot curing targets localized areas with focused UV exposure, well suited to precision tasks. Flood curing covers wider surfaces using broad UV light, ideal for larger parts or panels. Conveyor systems automate curing, moving products through a tunnel-like chamber under continuous UV exposure — the principle behind Incure's CDM™ conveyor platform. Portable handheld units offer a lightweight, versatile option for on-the-go or small-scale repair work. Incure's S20™ arc spot curing system delivers broad-spectrum output exceeding 21 W/cm² at the lightguide tip, supporting configurations from one to four independent lightguides for multi-point curing setups. Why UV Curing Systems Outperform Traditional Methods UV curing occurs in seconds, meaningfully boosting production throughput compared to thermal or air-drying methods. The process uses close to 100% solid formulations, virtually eliminating VOCs and reducing environmental impact. UV-LED systems in particular use less power and eliminate warm-up time, adding further energy savings. The resulting coatings and bonds are durable, scratch-resistant, and chemically stable. Compact system designs save physical floor space compared to large drying ovens, and low-temperature processing makes UV curing safer for delicate or heat-sensitive substrates. Incure's B/C-Series™ enclosed cure chambers provide this kind of low-temperature, shielded curing environment for batch processing applications. Email Us to discuss which UV curing configuration fits your production line's throughput and substrate requirements. Leading Applications of UV Curing Systems This versatile technology serves a wide range of sectors.…

A UV lamp turns a liquid resin pour into a hardened, finished part in the time it takes to walk to the next workstation — no mixing ratios, no waiting on a slow chemical cure to catch up with your production schedule. How UV Resin Curing Works A UV light for curing resin allows liquid photopolymer resins to solidify in minutes, far faster than traditional two-part epoxies. Strong results come from matching a modern LED UV lamp to your resin's photoinitiator chemistry, with lamp styles available for both hobbyist and industrial-scale use. Incure's L9000™ compact spot curing lamp is one option suited to precision resin curing work where consistent, repeatable exposure matters. The Science Behind UV Resin Curing This curing method relies on photopolymerization. Photoinitiators in the resin absorb UV light and break apart into reactive free radicals. These radicals initiate chain reactions, causing resin molecules to cross-link and harden from liquid to durable plastic. Most UV resins require wavelengths between 365–405 nm to cure effectively, and confirming that range matches your lamp's output before starting a project avoids a partial or inconsistent cure. For higher-volume or wider-coverage work, Incure's L-Series™ UV LED flood lamps extend the same photopolymerization principle across a broader surface area than a single spot lamp can cover efficiently. Choosing the Right UV Lamp for Resin Wavelength: 365–405 nm range; 365 nm offers deeper penetration for thicker pours, while 395 nm suits surface curing and thin layers. Power (wattage): 24–54W works well for most applications; avoid excessive power, which can cause warping from heat buildup rather than speeding the cure meaningfully. Form factor: Desk lamps or arches suit hands-free work, handheld flashlights suit spot repairs, and curing chambers suit batch processing at higher volumes. Extras: Built-in timers, proximity sensors, and rechargeable battery options add convenience for repeated use. Email Us if you need help selecting a lamp wavelength and wattage for a specific resin formulation. UV Resin Curing Safety Tips Working safely with UV resin is critical to avoid injury and material waste. Always cure in a well-ventilated area to minimize inhalation of fumes. Wear nitrile gloves and protective eyewear to avoid skin or eye irritation. Never look directly at the UV light source, since it can cause eye damage over repeated exposure. Use disposable cloths for spill management, wash skin with soap and water rather than solvents, and cure and dispose of excess resin properly rather than pouring it down a drain. Why Use a UV Lamp for Resin? UV lamp curing offers speed, with resin curing in seconds or minutes rather than the hours a traditional two-part system requires. It offers precision, with high-control curing zones that limit cure to exactly where the light is directed. It offers reliability, producing consistent results when the lamp and resin are properly matched. And it offers convenience, since LED options mean lower heat output and reduced energy usage compared to older mercury-based systems. Common Troubleshooting Scenarios A resin that feels tacky after the recommended cure time is…

A chipped glass panel doesn't have to mean a full replacement — UV-curable adhesive and the right lamp can close the repair in under a minute with a bond line that's nearly invisible. How UV Light Enables Glass Repair UV light for glass fixing cures UV-activated adhesives, creating strong, crystal-clear bonds in seconds. Unlike traditional adhesives that rely on air drying or chemical mixing, UV-curable glues harden when exposed to specific ultraviolet wavelengths, delivering professional-grade results with minimal setup. Whether fixing a chipped glass panel, repairing a windshield, or assembling decorative glass pieces, UV light bonding ensures a clean, fast, and durable repair. Incure's F500™ portable UV flood curing lamp covers a 5"x3" curing area, suited to glass repair work where a broader exposure zone speeds up the process compared to a narrow spot lamp. The Glass Repair Process Surface preparation: Clean both glass surfaces with isopropyl alcohol or glass cleaner, removing all dirt, oil, and fingerprints to maximize adhesion. Apply UV glue: Apply a thin layer of UV-curing adhesive to one surface. Since the glue stays liquid until cured, there's time to adjust positioning before committing to the bond. Align the glass pieces: Press the glass parts together carefully, ensuring no air pockets or misalignment remain in the joint. Cure with UV light: Expose the adhesive to a UV lamp or flashlight. Curing times range from 10 to 90 seconds, depending on light intensity and adhesive formulation, as the light activates photoinitiators that trigger rapid polymerization. Clean up excess glue: Before the adhesive fully hardens, remove overflow with a clean cloth or scraper. Let it fully cure: Even after initial hardening, allow the bond to cure for the time specified by the adhesive manufacturer to reach maximum strength. Choosing the Right UV Light for Glass Fixing Wavelength: Most UV glues for glass require a wavelength around 365 nm, though some formulas also work with 395 nm. Always confirm your adhesive's specifications before selecting a lamp. Power output: Higher wattage generally means a faster, deeper cure. Hobbyists can use portable, battery-powered UV flashlights, while professionals typically rely on higher-powered, AC-operated LED curing systems for efficient, repeatable bonding. Design and usability: Compact handheld flashlights suit quick fixes, suction-mounted lamps allow hands-free operation for automotive work, and bench-mounted or industrial systems suit frequent or high-volume repair work. Incure's Uni-Weld™ 2813 adhesive is formulated for glass-and-metal panel bonding, offering the viscosity and clarity profile that repair applications typically call for. Applications of UV Light in Glass Repair Windshield and auto glass repair: UV resin and curing lights fill and seal minor cracks and chips in automotive windshields. Household glass repairs: Broken glassware, vases, or mirrors can be repaired with a seamless, nearly invisible bond. Glass crafts and jewelry: Stained glass pieces, beads, and crystal embellishments bond with precision and clarity. Glass furniture assembly: Glass tabletops attach to metal frames, and glass shelving components bond into modern furniture designs. Email Us if you need help selecting a UV lamp and adhesive combination for a…

A research team testing a new photoinitiator formulation doesn't need a production-scale curing line — it needs a compact system that delivers repeatable exposure data on demand, without waiting for line time on the factory floor. What a Benchtop UV Curing Machine Offers R&D Teams A benchtop UV curing machine is a compact, high-performance device designed to cure UV-sensitive adhesives, coatings, and inks quickly using ultraviolet light. For R&D and testing environments specifically, these systems offer something production lines can't: the ability to isolate a single variable — wavelength, intensity, or exposure time — and measure its effect on cure quality without disrupting an active production schedule. By harnessing photopolymerization, a chemical reaction initiated by UV light, benchtop systems deliver fast, solvent-free curing with repeatable, documentable results suited to formal test protocols. Configurations Suited to Lab and R&D Work UV curing conveyor systems: A variable-speed conveyor belt moves samples through an enclosed UV-lit chamber, ideal for testing cure consistency across a range of belt speeds before settling on production parameters. Incure's CDM™ conveyor platform supports this kind of throughput testing at a scale appropriate for R&D validation before scaling to a full line. UV curing chambers: Enclosed systems with timers, safety interlocks, and often a turntable for 360-degree exposure, well suited to batch testing of small or medium-sized samples where consistent, repeatable dosing across multiple test articles is the priority. Incure's B/C-Series™ cure chambers are built around this kind of enclosed, shielded exposure profile. UV flood curing systems: A wide beam of UV light covers larger sample areas, useful for testing coatings or adhesives applied across a broader surface, such as label stock or panel coatings under evaluation. Incure's F100P/F200P programmable flood lamps, part of the F-Series™ line, support this kind of wider-format testing. UV spot or wand curing systems: These deliver a high-intensity, localized beam ideal for testing small, intricate components or specific bond points where precision matters more than coverage area — the same principle behind Incure's L9000™ compact spot curing lamp. UV Lamp Types: LED vs. Mercury Arc UV LED systems are energy-efficient with a long service life, offering instant on/off control and narrow-spectrum wavelengths like 365, 385, or 405 nm — a useful trait for isolating a single wavelength variable during formulation testing. Mercury arc lamps provide broad-spectrum output and flexibility across a wider range of photoinitiator chemistries, though they run hotter and have a shorter service life than LED alternatives, along with handling requirements around the mercury content itself. Where Benchtop Systems Fit in Lab Workflows Benchtop UV curing machines support a range of testing and small-scale production needs: validating new adhesive or coating formulations before a production trial, curing coatings and inks on PCBs and other electronic test articles, testing UV-curable adhesive bonding parameters at low volume, evaluating protective coatings for packaging or labels, and applying glazes or finishes to plastic or glass samples under controlled exposure conditions. R&D labs also use benchtop systems to characterize how CTE mismatch between test substrates affects bond…

A benchtop UV curing system packs the same photopolymerization power as a full production line into a footprint that fits on a workbench — the difference between waiting for a batch oven and curing a part before you've set down the next one. What a Benchtop UV Curing System Does A benchtop UV curing system is a compact, enclosed unit designed to rapidly cure UV-sensitive adhesives, coatings, and inks using ultraviolet light. These systems are widely used in laboratories, R&D environments, and small-scale production settings where space is limited but cure quality cannot be compromised. Through photopolymerization, UV radiation triggers a chemical reaction in the material, curing it almost instantly and improving both efficiency and repeatability compared to thermal or air-drying methods. Types of Benchtop UV Curing Systems UV chamber systems: Enclosed units that bathe the workpiece in uniform UV exposure from multiple angles, typically featuring preset exposure times and microprocessor-based calibration for repeatable results. These suit prototyping, small batch runs, and applications like curing 3D-printed parts that require full-coverage exposure. UV conveyor systems (benchtop format): A motorized conveyor belt moves parts beneath UV lamps for continuous, small-footprint curing. Adjustable belt speeds and a choice of high-intensity or LED lamp options make these well suited to PCB assembly, electronics subassemblies, and small-part adhesive bonding at moderate volumes. Spot UV curing systems: These deliver focused, high-intensity UV light via a fiber-optic lightguide or direct beam to a precise location, ideal for microelectronics, optical component assembly, and tack-curing adhesives in confined spaces. Incure's S20™ arc spot curing system delivers broad-spectrum output across 275–650 nm with configurable one- to four-pole lightguide setups suited to this kind of precision work. Handheld UV lamps: Though not true benchtop units, portable curing lamps in 365, 385, and 395 nm wavelengths are often used alongside benchtop setups for touch-up work, on-the-spot curing, and quick fixes that don't warrant a full chamber cycle. Incure's F-Series™ portable flood lamps scale from handheld operation up to larger programmable curing areas as batch size grows. Benefits of Using Benchtop UV Curing Systems Fast processing: Curing often takes just seconds, enabling immediate handling and faster lab or line throughput. Improved efficiency: Instant curing eliminates the need for ovens or extended drying dwell time, tightening overall process cycles. Lower energy use: Compared to thermal curing, UV systems consume less power and operate at lower ambient temperatures. Reduced VOC emissions: UV curing is a solvent-free process, improving workplace safety and reducing ventilation requirements. Durable results: Cured coatings are typically scratch-resistant, chemically stable, and offer strong adhesion, benefits Incure's L9000™ compact spot curing lamp extends to precision electronics and small-component work in a benchtop-compatible footprint. Choosing the Right Benchtop UV Curing Solution Wavelength requirements: Confirm compatibility with your materials — 365 nm suits many adhesives, while 395 nm may penetrate deeper coatings or pigmented inks more effectively. Source type: Choose between LED systems, which are energy-efficient with a long service life, or mercury arc lamps, which offer broader spectrum coverage and flexibility across chemistries. Material…

Every hour a drying oven stays powered on between production runs is an hour of energy spent curing nothing at all — a waste that LED UV curing eliminates by design, curing only when the light is active. What Is LED UV Curing? LED UV curing is a photochemical process that uses high-intensity ultraviolet light from light-emitting diodes to instantly cure inks, coatings, and adhesives. Unlike traditional mercury vapor lamps, which emit a broad spectrum of light, LED UV systems use a narrow, targeted spectrum, typically in the 365–405 nm range. When a UV-curable material is exposed to that targeted output, photoinitiators within the formulation react and form a solid polymer almost instantly, producing a durable, consistent finish in a fraction of the time thermal or solvent-based curing requires. Key Benefits for Manufacturers Speed and efficiency: Materials cure on exposure, eliminating long drying times and the floor space large drying ovens require. A printing operation can turn jobs around faster, and an electronics assembler can accelerate line throughput without adding stations. Reduced footprint: Without bulky drying tunnels, LED UV systems free up factory floor space that can be reallocated to additional production capacity. Lower energy consumption: LED UV systems draw power only when the light is active, unlike mercury lamps that require a warm-up period and stay on for the full production run. This "on-demand" operation meaningfully reduces electricity costs over a full production shift. Extended service life: LED diodes typically run tens of thousands of hours before requiring replacement, far exceeding the 1,000–2,000 hour lifespan typical of mercury bulbs, cutting both maintenance frequency and replacement costs. No ozone, minimal heat: The low-heat output of LED UV protects heat-sensitive substrates like thin plastics and films from warping, and the absence of ozone generation removes the need for the energy-intensive ventilation mercury systems often require. Consistent, durable results: The narrow-spectrum, uniform light from LED arrays produces a consistent cure, improving adhesion, scratch resistance, and finish durability — a meaningful factor in high-precision electronics and automotive applications where inconsistent curing shows up as field failures. Incure's L9000™ UV LED spot curing lamp operates in the 365–405 nm range with instant-on control and support for up to four independent lightguides, suited to precision spot-curing applications on electronics and assembly lines. For wider coverage, Incure's L-Series™ LED flood lamps extend the same energy-efficient, on-demand curing principle across larger surface areas. Practical Applications Across Industries LED UV curing serves a wide range of manufacturing sectors. In printing and packaging, it enables high-speed, high-quality output on non-porous plastics and metals across digital and flexographic processes. In electronics, it cures conformal coatings on PCBs, encapsulates components, and bonds display assemblies with a repeatable, energy-efficient process — though engineers should still account for how CTE mismatch between bonded materials can drive long-term adhesive failure even when the initial cure is fast and consistent. In automotive manufacturing, LED UV cures coatings and adhesives that contribute to faster production cycles and weather-resistant finishes, an area where comparing UV-cure adhesives against…

A production line running six-second UV bonds instead of a six-hour thermal cure isn't luck — it's the result of matching lamp wavelength, intensity, and form factor to the adhesive before a single unit rolls off the line. What Makes UV Light Curing Work The speed of UV curing comes from a chemical reaction triggered when ultraviolet energy activates photoinitiators inside a specially formulated adhesive, coating, or resin. That reaction drives polymerization, transforming the liquid material into a solid, cross-linked structure in seconds rather than minutes or hours. Key Factors That Influence Curing Speed Intensity and output: Higher-intensity UV output generally shortens cure time, provided the material's photoinitiators are matched to the delivered wavelength. Excess intensity without matching chemistry wastes energy without improving cure depth. Wavelength alignment: Most UV-curable adhesives and coatings respond optimally within the 365–405 nm range. Confirming your material's sensitivity curve against the lamp's emission spectrum is a prerequisite for consistent results, not an afterthought. Spectrum type: LED systems deliver a narrow, targeted spectrum with instant on/off control and minimal heat generation. Broad-spectrum arc lamps cover a wider range of photoinitiator chemistries and can penetrate deeper into thicker or pigmented layers. Uniform exposure: Uneven illumination leaves shadowed regions under-cured. Systems with well-placed LED arrays, reflectors, or multi-pole lightguide configurations help ensure full, consistent coverage across the bond line. Applications Across Industries UV curing systems serve a wide span of production environments. In electronics and precision assembly, spot and flood curing systems harden adhesives and conformal coatings in seconds, keeping pace with automated lines. In automotive manufacturing, UV systems cure structural and cosmetic bonds on trim, sensors, and lighting assemblies without the dwell time thermal cures require. In commercial printing, high-intensity UV lamps dry inks instantly across substrates, preserving color fidelity even at high press speeds. How to Choose the Right UV Curing System Selecting equipment for a specific application comes down to a handful of decision points: Material compatibility: Always confirm the curing wavelength your adhesive, coating, or ink requires. A mismatch between emission spectrum and photoinitiator chemistry means an incomplete cure regardless of exposure time. Power and intensity: Higher wattage generally cures faster, but consistency of output matters more than peak rating alone. Incure's S20™ arc spot curing system, for example, delivers broad-spectrum output exceeding 21 W/cm² at the lightguide tip across a 275–650 nm range, supporting one to four independent lightguide configurations for multi-point curing from a single unit. Coverage area: Larger or batch-format parts benefit from flood lamps or conveyor-integrated systems, such as Incure's F-Series™ portable and programmable flood lamps, which scale from handheld units to larger programmable curing areas. Lightguide condition: Fiber and liquid lightguides degrade with use and heat exposure, gradually reducing delivered intensity at the tip even when the lamp itself is performing normally — a factor worth checking during routine maintenance of light guide systems before assuming a lamp needs replacement. Safety features: UV exposure carries real risk to skin and eyes. Systems with shielding, interlocks, and automatic shutoff reduce…

Manufacturing, printing, and electronics assembly all share a quiet dependency on the same underlying technology: UV curing systems that turn liquid inks, coatings, resins, and adhesives into finished solids in seconds rather than minutes. How UV Curing Technology Works UV curing operates through photopolymerization, a chemical transformation triggered by exposure to ultraviolet light. The process follows a consistent sequence: a liquid formulation containing monomers, oligomers, and photoinitiators is applied to the substrate — paper, plastic, glass, or metal. The system then emits UV light onto the material, and the photoinitiators absorb that energy, releasing free radicals or cations. Those reactive species initiate a chain reaction, linking the monomers and oligomers into a solid, cross-linked polymer. Curing completes almost instantly, often in under a second to a few seconds depending on intensity and formulation. Types of UV Curing Systems Two broad categories cover most industrial UV curing needs. UV LED Curing Systems use light-emitting diodes to produce UV light at specific wavelengths, typically in the 365–405 nm range. Advantages include instant on/off functionality with no warm-up delay, extremely low heat output well suited to heat-sensitive substrates, long lifespan often exceeding 20,000 hours, and reduced maintenance costs. LED systems are best suited to electronics, plastic components, UV adhesives, and fine-detail printing. Traditional UV Lamp Systems use mercury vapor or metal-halide lamps that emit a broad UV spectrum. These systems handle materials requiring shorter wavelengths and can cure a wider range of formulations with complex photoinitiator packages, though they consume more energy, have shorter lamp lifespans, and generate more heat. They're typically specified for industrial coatings, wood finishes, and applications requiring deeper cure penetration. Key Benefits of UV Curing Systems UV curing delivers consistent advantages over conventional drying and heating methods: high-speed processing with cure times measured in seconds; enhanced product quality with durable, glossy, scratch-resistant finishes; rapid curing that prevents dust contamination and improves coating uniformity; meaningful energy savings compared to ovens or solvent-based drying; minimal VOC emissions since most formulations are solvent-free; and broad substrate versatility across paper, plastic, glass, wood, and metal, including heat-sensitive materials. Common Applications of UV Curing Systems Printing and packaging operations use UV curing across screen printing, flexography, offset, and digital printing on labels and packaging. Electronics manufacturers bond delicate components, apply conformal coatings, and encapsulate circuitry without thermal damage. Automotive assembly relies on UV curing for headlight bonding, trim coating, and sealing applications requiring durability and appearance. Wood finishing and furniture production apply UV-cured protective coatings that resist wear and moisture, and cosmetics manufacturing uses UV curing for gel nail polish and other reactive materials. Choosing the Right UV Curing System Selecting equipment comes down to a few practical considerations: whether the substrate can tolerate heat or requires LED curing, whether the process is batch or continuous-line, what UV wavelength the specific resin or adhesive formulation requires, how much floor space the system has available, and whether reducing energy consumption and VOC emissions is a stated production goal. Incure's L9000™ LED spot lamp and F-Series™…