inquiry
Leave A Message
If you are interested in our products and want to know more details,please leave a message here,we will reply you as soon as we can.
submit
Bengbu Longkai Welding Protection Technology Co.,Ltd.
Home

powered air purifying respirator welding

powered air purifying respirator welding

  • PAPR Air Inlet Modes: Practical Differences & Selection Logic
    PAPR Air Inlet Modes: Practical Differences & Selection Logic
    Jan 16, 2026
      In air purification respirator application scenarios, most users focus more on filtration efficiency and protection level, but often overlook the potential impact of air inlet modes on actual operations. this article focuses on the differences of front, side and back air inlet modes in wearing adaptability, scenario compatibility, energy consumption control and special population adaptation from the perspective of on-site operational needs. The choice of air inlet mode is not only related to protection effect but also directly affects operational continuity, equipment loss rate and employees' acceptance of the equipment. Its importance becomes more prominent especially in scenarios with multiple working condition switches and long-term operations.   The core competitiveness of front air inlet PAPR lies in lightweight adaptation and emergency scenario compatibility, rather than simple air flow efficiency. This design concentrates the core air inlet and filter components in front of the head, with the overall equipment weight more concentrated and the center of gravity forward, adapting to most standard head shapes without additional adjustment of back or waist load, being more friendly to workers who are thin or have old back injuries. In emergency rescue, temporary inspection and other scenarios, the front air inlet PAPR has significant advantages in quick wearing; without cumbersome hose connection, it can be worn immediately after unpacking, gaining time for emergency disposal. However, potential shortcomings cannot be ignored: the forward center of gravity may cause neck soreness after long-term wearing, especially when used with safety helmets, the head load pressure is concentrated, making it unsuitable for continuous operations of more than 8 hours; at the same time, the front air inlet is easily blown back by breathing air flow, leading to moisture condensation on the surface of the filter unit, which is prone to mold growth in high-humidity environments, affecting filter service life and respiratory health.   The core advantage of side air inlet PAPR is multi-equipment coordination adaptability and air flow comfort, which is the key to its being the first choice for comprehensive working conditions. In industrial scenarios, workers often need to match safety helmets, goggles, communication equipment and other equipment. The arrangement of the side air inlet unit can avoid the equipment space in front of and on the top of the head, prevent mutual interference, and not affect the wearing stability of the safety helmet. Compared with the direct air flow of the front air inlet, the side air inlet can achieve "face-surrounding air supply" through a flow guide structure, with softer air flow speed, avoiding dryness caused by direct air flow to the nasal cavity and eyes, and greatly improving tolerance for long-term operations. Its limitations are mainly reflected in bilateral adaptability: single-side air inlet may lead to uneven head force, while double-side air inlet will increase equipment volume, which may collide with shoulder protective equipment and operating tools; in addition, the flow guide channel of the side air inlet unit is narrow; if the filtration precision of the filter unit is insufficient, impurities are likely to accumulate at the flow guide port, affecting air flow smoothness.   The core value of back air inlet papr air purifier lies in extreme working condition adaptation and equipment loss control, especially suitable for high-frequency and high-intensity operation scenarios. Integrating core components such as air inlet, power and battery into the back, only a lightweight hood and air supply hose are retained on the head, which not only completely frees up the head operation space but also avoids collision and wear of core components during operation, significantly reducing equipment maintenance and replacement costs. The weight of the back component is evenly distributed; matched with adjustable waist belt and shoulder straps, it can disperse the load to the whole body. Compared with front and side air inlets, it is more suitable for long-term and high-intensity operations. Moreover, the long back air flow path can be equipped with a simple heat dissipation structure to alleviate equipment overheating in high-temperature environments. However, this mode has certain requirements for the working environment: the back component is relatively large, unsuitable for narrow spaces, climbing operations and other scenarios; as the core connection part, if the hose material has insufficient toughness, it is prone to bending and aging during large limb movements, and dust is easy to accumulate on the inner wall of the hose, making daily cleaning more difficult than front and side air inlet equipment.   The core logic of selection is the adaptive unity of "human-machine-environment", rather than the optimal single performance. If the operation is mainly temporary inspection and emergency disposal with high personnel mobility, front air inlet PAPR should be preferred to balance wearing efficiency and lightweight needs; for regular industrial operations requiring multiple protective equipment and long operation time, side air inlet is the choice balancing comfort and coordination; for high-frequency, high-intensity operations with strict requirements on equipment loss control, back air inlet is more cost-effective. In addition, special factors should be considered: front air inlet should be avoided in high-humidity environments to prevent moisture condensation; back air inlet should be excluded in narrow space operations, and lightweight front or side air inlet should be preferred; for scenarios with high communication needs, side air inlet is easier to coordinate with communication equipment.   The iterative design of papr respirator air inlet modes is essentially the in-depth adaptation to operational scenario needs. From the initial front air inlet to meet basic protection, to the side air inlet balancing comfort and coordination, and then to the back air inlet adapting to extreme working conditions, each mode has its irreplaceable value. For enterprises, selection should not only focus on equipment parameters but also combine feedback from front-line workers and detailed differences of operation scenarios, so that PAPR can become an assistant to improve operational efficiency rather than a burden while ensuring safety. In the future, with the popularization of modular design, switchable air inlet modes may become mainstream, further breaking the scenario limitations of a single air inlet mode.If you want know more, please click www.newairsafety.com.
    Read More
  • Advanced Welding Protection: MAG Welding & PAPR Maintenance
    Advanced Welding Protection: MAG Welding & PAPR Maintenance
    Oct 15, 2025
    In part 1, we covered TIG/MIG-PAPR matching. Now, let’s tackle MAG (Metal Active Gas Welding)—a heavy-duty process for steel bridges or construction equipment. It uses argon-CO₂ mixes, creating 3–5x more fumes than TIG, plus toxic CO and nitrogen oxides. We’ll also share universal PAPR rules to keep your protection reliable. MAG Welding: "Heavy-Duty Hazards" Need "Heavy-Duty PAPRs" MAG’s triple threats (high fumes, toxic gases, harsh environments) demand PAPRs with:   Combination filters: HEPA for dust + activated carbon for CO/NOₓ (critical for enclosed shops); Hooded facepieces: Cover shoulders to block wind-blown fumes (key for outdoor jobs like bridge work); Rugged design: Vibration-resistant fans (MAG welds vibrate heavily) and swappable batteries (for 8-hour outdoor shifts without power). Universal PAPR Selection: 3 Simple Steps Don’t pick by brand or price—follow this:   Hazard type: TIG (gas + light dust) → basic filters; MIG (heavy dust + spatter) → high-airflow/spatter-resistant; MAG (dust + toxins) → combo filters + hoods. Shift length: ≤2 hours → lightweight PAPRs; ≥4 hours → high-capacity filters/airflow. Environment: Indoor fixed stations → fixed PAPRs; outdoor/mobile → portable battery-powered models. PAPR Maintenance: Don’t Let Gear "Fail Silently" Papr system lose effectiveness if neglected—here’s what to do:   Replace filters: TIG (1–2 weeks), MIG (3–5 days), MAG (daily if dirty); swap carbon filters every month or if you smell fumes. Check airflow: Test weekly—TIG/MIG need ≥150 L/min, MAG ≥180 L/min. Clean fan intakes with compressed air if low. Care for facepieces: Wipe fog/oil after use; replace anti-fog films when scratched (fog blocks vision and safety).   From TIG to MAG, PAPRs work best when matched to hazards and maintained well. For welders, a powered air respirator  isn’t just gear—it’s your first line of defense for long-term health.If you want know more, you can click www.newairsafety.com.
    Read More
  • Welding Safety Basics: TIG, MIG, and How PAPRs Protect You
    Welding Safety Basics: TIG, MIG, and How PAPRs Protect You
    Oct 06, 2025
    Welding exposes workers to hidden risks—metal fumes, toxic gases (like ozone), and UV radiation— which can cause lung disease, metal fume fever, or even skin damage over time. Regular masks fall short; Powered Air-Purifying Respirators (PAPRs) are game-changers, thanks to their active air supply, high-efficiency filtration, and full-face protection. But papr for welding choice depends on the welding process—here’s how to match them to TIG and MIG. TIG Welding: Precision Needs "Targeted Protection" TIG (Tungsten Inert Gas Welding) is ideal for precise work (e.g., stainless steel pipes) but creates unique hazards: argon gas reacts with the arc to form ozone, and worn tungsten electrodes release lung-damaging tungsten dust. Since TIG welders work close to the arc, PAPRs must be lightweight and non-intrusive. Opt for head-mounted PAPRs (under 500g) with flip-up, anti-fog/anti-scratch face shields—they shield eyes from UV rays while delivering filtered air directly to the breathing zone. In enclosed spaces (e.g., pipe interiors), PAPRs also reduce local ozone buildup.   MIG Welding: Efficiency Needs "High-Capacity Protection" MIG (Metal Inert Gas Welding) is fast (used for car bodies or appliances) but generates 2–3x more metal fumes (iron oxide, manganese) than TIG. Continuous welding and hot spatter add more challenges. For MIG, choose PAPRs with:   High airflow (≥170 L/min) to prevent stuffiness during long shifts; HEPA 13 filters (traps 99.97% of 0.3μm fumes); Spatter-resistant face shields (silicone-coated to block molten droplets).   Fixed PAPRs (host mounted nearby, connected via hoses) work best for assembly lines—they cut weight on the welder and support 8-hour shifts without filter changes.Next up: MAG welding (the "toughest" process) and welding air respirator maintenance tips to keep your gear effective.If you want know more, please click www.newairsafety.com.
    Read More
  • CE Testing Requirements for Powered Air Purifying Respirators (PAPRs)
    CE Testing Requirements for Powered Air Purifying Respirators (PAPRs)
    Jul 30, 2025
    When it comes to personal protective equipment (PPE) designed to safeguard workers from harmful airborne contaminants, Powered Air Purifying Respirators (PAPRs) stand out as critical tools in industries ranging from manufacturing to healthcare. But to enter the European market, these life-saving devices must meet stringent CE certification requirements. Let’s break down the key testing standards and obligations that manufacturers need to know. ​ Understanding the Regulatory Framework​   First, it’s essential to recognize where PAPRs fit within EU regulations. As devices designed to protect users from respiratory hazards—including dust, fumes, and toxic gases—PAPRs are classified as Category III PPE under Regulation (EU) 2016/425. This classification applies to high-risk equipment where failure could result in serious injury or death, meaning compliance is non-negotiable. ​ Category III PPE requires rigorous testing and oversight by a Notified Body—an EU-accredited organization authorized to verify compliance. Self-declaration is not sufficient here; third-party validation is mandatory.​   Core Standards: EN 12941 and Beyond​   The backbone of CE testing for PAPRs is EN 12941:2001+A1:2009, the European standard specifically governing powered air-purifying respirators. This standard outlines performance, safety, and design criteria, while additional standards address specific components like filters and batteries. Let’s dive into the key testing areas: ​ 1. Airflow Performance: Ensuring Reliable Protection ​ At the heart of a PAPR’s functionality is its ability to deliver a consistent supply of filtered air. Testing here focuses on:​ Minimum airflow rates: For half-masks, the minimum is 160 L/min; for full facemasks, it’s 170 L/min. These rates must remain stable within a 10% tolerance during 30 minutes of continuous operation.​ Positive pressure maintenance: The respirator must maintain a positive pressure (≥20 Pa) inside the mask to prevent unfiltered air from leaking in—even if there’s a small gap (10% leakage) between the mask and the user’s face.​ Flow stability under varying conditions: Tests simulate different breathing rates (from 15 breaths/min at rest to 40 breaths/min during heavy work) to ensure airflow doesn’t drop dangerously.​   2. Protective Efficacy: Blocking Harmful Substances ​ A PAPR’s primary job is to filter out contaminants, so testing verifies both the device’s seal and the performance of its filters:​ Total leakage testing: Using aerosols (like sodium chloride or DOP), testers measure how much unfiltered air enters the mask. For the highest protection levels, total leakage must be ≤0.05%.​ Filter compatibility: Filters must meet standards like EN 149 (for particulate filters) or EN 14387 (for gas/vapor filters). For example, a P100 filter must capture ≥99.97% of 0.3μm particles.​ Seal integrity: The connection between the filter and PAPR host is tested for pressure decay—allowing no more than 50 Pa loss per minute to ensure no bypass.​   3. Mechanical and Structural Safety ​ PAPRs must withstand harsh working conditions without compromising user safety:​ Material durability: Components like masks and hoses undergo extreme temperature cycles (-30°C to +70°C) and UV exposure (72 hours) to check for cracking or deformation.​ Strength testing: Straps, mask attachments, and filter connections must resist forces like 150N (for head straps) and 50N (for filter interfaces) without breaking.​ Impact resistance: Full facemask lenses are tested with a 120g steel ball dropped from 1.3 meters to ensure they don’t shatter.​ 4. Electrical Safety: Powering Protection Safely ​ Since PAPRs rely on motors and batteries, electrical safety is paramount:​ Insulation and grounding: Motors must withstand 2500V AC for 1 minute without breakdown, and metal components must have a ground resistance ≤0.1Ω.​ Battery performance: Batteries (often lithium-ion) must pass EN 62133 tests, including short-circuit, overcharge, and crush scenarios, with no fire or explosion risk. They must also provide at least 4 hours of runtime at rated flow.​ EMC compliance: To avoid interference from tools or radios, PAPRs must meet EN 61000 standards for electromagnetic compatibility.​ 5. Durability and Environmental Adaptability ​ PAPRs are built for long-term use, so testing ensures they stand the test of time:​ Aging tests: Motors run continuously for 500 hours with ≤10% airflow loss, while batteries retain ≥80% capacity after 300 charge cycles.​ Extreme environment performance: Devices must operate in -30°C cold and 40°C/90% humidity without airflow drops or electrical failures.​ Special Cases: Tailoring to Unique Environments​ Certain industries demand extra testing:​ Medical settings: PAPRs used in healthcare must meet EN 14683 for biocompatibility (e.g., no skin irritation) and may require antimicrobial coatings.​ Explosive environments: For use in zones with flammable gases, PAPRs need ATEX certification (EN 13463) to prevent sparks or static discharge.​​   CE testing for best powered air purifying respirator is rigorous, but it’s rooted in a simple goal: ensuring these devices protect users when they need it most. By adhering to EN 12941 and related standards, manufacturers not only gain access to the  EU market but also demonstrate a commitment to safety that builds trust with workers and employers alike.
    Read More
  • BXH-3001 PAPR(powered air purifying respirators) from NEW AIR get CE Certification, TH3 PR SL according to EN12941
    BXH-3001 PAPR(powered air purifying respirators) from NEW AIR  get CE Certification, TH3 PR SL according to EN12941
    Jul 19, 2025
    Understanding the Standards Behind the NEW AIR BXH-3001 EU Type-Examination Certificate When it comes to personal protective equipment (PPE), especially respiratory devices, compliance with rigorous standards is non-negotiable. NEW AIR BXH-3001powered air purifying respirators device with an auto-darkening welding helmet offers a clear example of how these standards ensure safety and reliability. Let’s break down the key standards and regulations that underpin this certification.     The Regulatory Backbone: EU 2016/425 At the core of this certificate is Regulation (EU) 2016/425, a pivotal piece of legislation governing PPE in the European Union. This regulation replaces the older Council Directive 89/686/EEC and sets out essential health and safety requirements (EHSRs) for all PPE sold within the EU. Harmonized Standards: EN 12941 Series Beyond the overarching regulation, the BXH-3001 adheres to the EN 12941 standard, specifically its amendments: EN 12941:1998 EN 12941:1998/A1:2003 EN 12941:1998/A2:2008 These standards are harmonized under EU 2016/425, meaning they are recognized as meeting the regulation’s EHSRs. EN 12941 focuses on purified air powered respirator that incorporate a helmet or hood—exactly the category the BXH-3001 falls into. Key requirements of EN 12941 include: Performance testing: Ensuring the device effectively filters contaminants (in this case, solid and liquid aerosols) and maintains airflow under various conditions. Safety features: Including durability of materials, compatibility with the helmet/hood, and reliability of the powered system (fans, filters, etc.). Marking and instructions: Clear labeling to guide users on proper use, maintenance, and limitations.   Classification: Category III and TH3 Protection The BXH-3001 is classified as Category III PPE, the highest risk category under EU 2016/425. Category III includes PPE designed to protect against “serious risks,” such as exposure to harmful aerosols in welding or industrial environments. This classification mandates strict conformity assessment, including type-examination (Module B) and ongoing production checks (Module C2, as specified in the certificate). Additionally, the device meets TH3 class requirements. Under EN 12941, “TH” refers to the level of protection against aerosols, with TH3 representing a high level of filtration efficiency. This confirms that the BXH-3001, paired with its TH3 P R SL particle filter, reliably shields users from solid and liquid aerosols—critical for welding and similar high-risk tasks.   What This Means for Users and Businesses For workers, this certification is a guarantee that the BXH-3001 papr system has been independently verified to perform as claimed, even in demanding environments. For businesses, compliance with these standards ensures market access within the EU and builds trust in product safety. Notably, the CE mark on the BXH-3001 (accompanied by the notified body number 1024, as required for Category III PPE) is more than a label—it’s a testament to adherence to a robust framework of standards and regulations. In summary, the EU Type-Examination Certificate for the NEW AIR  BXH-3001 is rooted in a foundation of strict standards: EU 2016/425 for regulatory compliance, EN 12941 for technical performance, and clear classification to define its protective scope. For anyone relying on respiratory protection in high-risk settings, understanding these standards is key to choosing the right equipment.  
    Read More

leave a message

leave a message
If you are interested in our products and want to know more details,please leave a message here,we will reply you as soon as we can.
submit
Contact Us: sales@txhyfh.com

home

products

WhatsApp

Contact us