SVX-K 280

Purpose
Designed for:
  • Detection of latent traces & markings
  • Substance visualization
  • Currency/security document verification
  • Rapid surface sterilization
Design
  • Modular construction: SVX-K module + battery handle
  • 10 narrow-band 280nm LEDs:
  • High-intensity output
  • Proven bactericidal efficacy (WHO 1995 report)
Durability
  • IP-rated (water/dust resistant)
  • Aircraft-grade aluminum housing:
  • Anodized finish
  • Shockproof
  • Temperature-resistant
Equipment
Technical specifications
Advantages
Additional Information on UV-C Radiation

Equipment

  • SVX-K280 Module – 1 pc.
  • Charger – 1 pc.
  • 220V/50Hz Power Cable – 1 pc.
  • Protective Goggles – 2 pcs.
  • Rechargeable Battery – 1 pc.
  • 12V/220V Converter – 1 pc.
  • User Manual & Technical Passport – 1 pc.
  • Shockproof Case – 1 pc.

Technical specifications

  • Light Source: 10 x LEDs (280 nm)
  • Wavelength: 280 ±10 nm
  • Optical Power (min): 150 mW
  • Dimensions (with battery): 300×140×55 mm
  • Weight (max): 1.7 kg
  • Operating Temperature Range: -30°C to +50°C
  • Head Tilt Adjustment Range (min): 35°
  • Beam Angle (min): 60°
  • Protection Rating: IP65
  • Battery Life (full charge, min): 240 min
  • Last Mode Memory: Yes
Operating Modes:
  • Turbo: 140%
  • Maximum Intensity: 100%
  • Medium Intensity: 50%
  • Eco Mode: 20%

Advantages

  • 40-second sterilization cycle
  • 10+ hours continuous operation
  • 10,000-hour LED lifespan
  • Total optical power ≥0.2W
  • 10× more efficient than traditional UV lamps

Additional Information on UV-C Radiation

The most significant biological effect of short-wavelength ultraviolet (UV-C) radiation on living organisms is its impact on biopolymers – proteins and nucleic acids. These molecules contain cyclic carbon-nitrogen groups that strongly absorb radiation at 260-280 nm. The absorbed energy migrates through molecular chains until reaching weak atomic bonds, breaking them in a process called photolysis. This produces molecular fragments with potent biological effects – for example, converting histidine to histamine (a compound that dilates blood capillaries).
UV radiation also causes protein denaturation: at specific wavelengths, molecules lose electrical charge, clump together, and become biologically inactive (losing enzymatic, hormonal, and antigenic functions).
Key Mechanisms
  • Photolysis: Dominant at 280–302 nm
  • Denaturation: Dominant at 250–265 nm
  • These concurrent processes determine UV’s cellular effects.
Biological Impact
  • Most sensitive cellular function: Division
  • Dose of 10⁻¹⁹ J/m² stops division in 90% of bacteria (without killing them)
  • Lethal dose (causing mutations/protein synthesis inhibition): 10⁻¹⁸ J/m²
  • DNA damage affects growth, reproduction, and heredity.
  • DNA’s uniqueness makes it critical: it encodes all cellular proteins.
  • Damage can cause irreversible harm or severe dysfunction.
Applications and Limitations
  • Sterilization uses: Water, air, and surface disinfection.
  • Not fully sterilizing: Ineffective against some bacteria, fungi, and prions.
  • Optimal wavelength: 265 nm (peak DNA absorption), though common low-pressure lamps emit at 253.7 nm.
  • Mechanism: Causes thymine dimers in DNA, preventing replication.
UV Technologies
  1. Bactericidal Lamps:
  • Used in air/surface sterilizers (e.g., recirculators).
  • "Quartz lamps" refer to quartz glass enclosures, not the mechanism.
  1. Water Treatment:
  • UV disinfection: Safe and chemical-free but lacks residual effect (unlike chlorination).
  • Works by disrupting microbial DNA at 260.5 nm.
  • Often paired with chlorination/ozonation for comprehensive treatment.
  • SODIS method: Uses sunlight’s UV component to purify water in developing regions.
Advantages Over Chemicals
  • No prolonged environmental toxicity (e.g., unlike chlorine).
  • Immediate microbial inactivation without byproducts.
See also