Project kits often need sources outside general lighting — curing, disinfection, thermal processing, projection. The thorgeon special lamps portfolio spans quartz UV, short-wave IR, metal-halide/UHP projection modules, and niche medical/technical emitters. Bases include G5, G13, R7s, GX5.3, GY9.5, and G22; typical operating windows run −10…+50 °C for enclosed fittings with thermal paths sized to keep Tc below spec. Teams standardise thorgeon special lamps by socket family and watt class so spare holding stays lean across floors and production cells.
Low-pressure UV-C tubes at 254 nm deliver germicidal output with ozone-free glass; 185/254 nm blends support odor control and surface prep. UVA/UVB options at 365–405 nm handle inks, adhesives, and photo-initiators. Radiant power ranges from 5 W sticks to 75 W T5/T8 bars; expect 6–9 kh L70 on UV-C and longer on UVA. Luminaires require interlocks and shields per EN 62471 and ISO 15858; specify quartz sleeves in splash zones. Maintenance schedules tag thorgeon uv lamps by wavelength and ballast type to avoid mismatch during night-shift swaps.
Short-wave IR-A quartz tubes (0.78–1.4 µm) ramp in <1 s and suit paint flash-off, powder line reflow, and spot heating. Medium-wave IR-B (1.4–3 µm) penetrates plastics and textiles evenly; linear R7s sources cover 150–2,000 W with gold or white reflectors to shape beams. Mount with ceramic ends and allow airflow along the envelope; do not pinch quartz. In packaging and joinery bays, planners catalogue thorgeon infrared lamps by length, watt density, and spectrum so replacement keeps process time constant across lines using the same thorgeon infrared lamps fixtures.
Narrowband UVB around 311 nm supports dermatology light boxes; blue-violet 405–470 nm targets dental curing; high-CRI halogen capsules provide color-true inspection in labs. Ripple and flicker are constrained at driver level to protect measurement repeatability. Optical safety labeling and access control are mandatory; housings must maintain IP per room zoning. Hospitals and test labs stock thorgeon medical and technical lamps by procedure code and lumen or mW/cm² setpoint, ensuring identical thorgeon medical and technical lamps land on each device revision.
UHP and metal-halide modules 100–300 W pair with cold-mirror reflectors; ANSI-coded bases and keyed housings prevent misfit. Color stability benefits from quartz cleanliness and correct warm-up/cool-down; fans must hold flow to keep arc tube Tc inside limits. For retail walls and conference rooms, specify thorgeon projector lamps with the OEM optical center and include hour meters for service windows; using matching thorgeon projector lamps across venues simplifies spares and brightness alignment.
Filters, reflectors, and narrow optics tailor spectra and field angles for vitrines, materials testing, and photo-zones. CRI 90+ halogen or spectral LED engines handle color-critical displays; UV-blocked glazing protects artifacts. Dimming strategies differ: IR is power-modulated, UV-C is on/off interlocked, projection follows lamp manufacturer warm-start rules. Curators and engineers select thorgeon specialty lighting for controlled SPD and beam shaping, then mirror thorgeon specialty lighting layouts room-to-room to keep measurements repeatable.
Sealed bodies with IP65/IP67 and IK08–IK10 protect quartz and optics in food plants and workshops. Stainless fasteners and silicone gaskets tolerate washdown and ammonia; braided tails and 360° clamps maintain EMC to metal housings. Temperature class and surge immunity (≥2 kV) are recorded on data sheets for acceptance tests. Facilities rely on thorgeon industrial special lights to keep maintenance predictable in wet and dusty areas; repeating thorgeon industrial special lights by watt class and thread family stabilises tooling and torque settings.
Caps and dimensions per IEC 60061; photobiological safety per EN 62471; special-purpose notes per IEC 61549; luminaire integration per IEC/EN 60598. UV-C precautions require interlocks, signage, and timed dwell; IR envelopes need clearances and thermistors where specified. Thermal rise is managed by airflow ≥1 m/s across IR tubes; UV ballast factor and ambient drive dose output — calibrate mW/cm² at target plane after install.
Fix spectrum and dose or heat requirement first, then choose socket and watt class. Confirm enclosure IP/IK, reflector type, and thermal path; document minimum airflow or dwell. Verify driver/ballast compatibility and surge rating. Capture torque, gland thread, and conductor windows in the worksheet; pilot one room or line to lock dose/temperature setpoints before bulk release.
We build deliveries around process windows, not catalogue order. You get project-specific pricing, live EU stock before crews are booked, and quotes with EAN/MPN in about an hour. The portal shows lead times, shipment progress, and downloadable price files with validity periods you can actually plan around. Trusted accounts use post-payment up to 30 days. We consolidate by room or line, and your manager cross-checks wavelength, watt density, socket family, reflector type, ballast/driver, and torque notes against your drawings — so cartons land site-ready across France, the Baltics, Germany, Spain, Italy, Belgium, and the Netherlands.