
For Zone 1 Zone 2, Zone 21 Zone 22 hazardous area led lighting, 20W - 200W, 130lm/W,aluminum alloy + 8mm tempered glass, multi-installation for different projects, such as light tower, canopy light, marine grade.
Flameproof enclosure, Ex db op is IIC T6 Gb, Zone 1 & Zone 21 with explosive gas atmosphere, Zone 21 and Zone22 with explosive dust atmosphere, 10mm temered glass, 7J impact resistance,up to 26000lm.
Flameproof enclosure, Ex db op is IIC T6 Gb, IP68 protection grade, tempered glass 10mm, withstand impacts up to 10J, 2 foot and 4 foot Length, 50Watt- 240Watt, 130lm/W light efficacy.
Zone 1 & Zone 21, 1ft, 2ft, 3ft, 4ft length can be selected, replace the traditional explosion-proof three-proof lamp, explosion-proof fluorescent tube, anti-corrosion, anti-glare, anti-drop, competitive price.
Flameproof LED hand lamp for Zone 1 & Zone 21 hazardous areas, 10mm tempered glass, pass the multi-angle drop test, 10W, 20W, 30W Power, can be connected to the cable, emergency power box.
The CES-EX-SF series explosion-proof ceiling lamp has a strong shell, with features such as impact resistance, vibration resistance, and corrosion resistance. It can be used in hazardous environments of Zone 1&21, Zone 2&22.
CES-EX-JX Series is your go-to solution for illuminating hazardous Zone 1 and Zone 21 areas. With ATEX approval, these Explosion-proof LED Flood Lights offer unbeatable safety standards.
Discover the pinnacle of safety and illumination with our CES-EX-GBX Series Explosion-proof LED High Bay Lights. Designed for hazardous Zone 1 and Zone 21 areas, these lights boast ATEX approval, ensuring the highest safety standards.
GB-02 explosion-proof lights are made of alloy aluminum and tempered glass, with shock resistance and anti-vibration performance. The luminaires have passed the ATEX IECEx standards test, from 30W to 80W for hazardous area lighting.
LN-02 explosion-proof lights obtained an IECEx ATEX certificate, it's safe for the Zone 1 and Zone 2 hazardous locations. The copper-free aluminum alloy body is powder-coated to increase durability and beautiful appearance, are able to withstand violent shaking and shock resistance.
an innovative line of LED hazardous area lighting products, specifically designed for use in potentially explosive atmospheres (Zone 1/21 & 2/22) within harsh industrial settings such as coal mines and oil & gas facilities.
Explosion-proof safety exit lamps are for personnel evacuation, and fire operations to provide lighting fire emergency lamps! It usually uses an external power supply, when the power automatically switches to the battery power state!
CESP marine-grade lights comply with China Classification Society (CCS) standards and have obtained UL1598A marine certificate. They can be used for the most demanding exterior lighting marine environments, including sea bridges, offshore drilling platforms, ships, seaside refineries, seaside shipyards, docks, or other acid rain, seawater and salt spray corrosive environments.
Explosion-proof standard:
Applies to hazardous locations of Zone 1 and Zone2 with explosive gas atmosphere, and hazardous locations of Zone 21 and Zone22 with explosive dust atmosphere.
ATEX: EN IEC 60079-0-2018; EN 60079-1-2014; EN 60079-28-2015; EN 60079-31-2014;
IECEx: IEC 60079-0-2017; IEC 60079-1-2014; IEC 60079-28-2015; IEC 60079-31-2013;
IECEx & ATEX :
Have certified CES-EX-GB fixtures with the IECEX and ATEX standards for hazardous location and environments.
1 Scope
This standard specifies the requirements for the classification, type, size, material, color, use and management of safety signs for mining products.
This standard applies to mining products that have been included in the management of safety signs and have obtained safety signs.
2 Terms and Definitions
The following terms and definitions apply to this standard.
2.1 Mining Products
The general term for equipment, materials, and instruments used in mines.
2.2 Mining Products Safety Label
Graphical and numerical codes for safety signs for mining products.
3 General requirements
3.1 The mining product safety sign management system is a mandatory management system for mining products involving workplace safety and worker health. All mining products included in the safety sign management can only be obtained after obtaining the mining product safety sign. production, sale and use.
3.2 The safety mark of mining products is a certificate that confirms that the mining products conform to national standards and industry standards, that production units are permitted to produce and sell, and that users purchase and use them.
3.3 The mining product safety sign consists of two parts: the mining product safety sign certificate and the mining product safety sign.
3.4 Mining product safety signs and logos (hereinafter referred to as "logos") are special signs that indicate that mining products comply with national standards, industry standards and relevant regulations on mine safety production.
For the production of mining products that are included in the management of safety signs, the signs can only be used after obtaining the safety signs of mining products.
3.5 Products that have obtained safety signs for mining products can only be sold by the production unit after the label is applied, and purchased and used by the user unit.
4 Identification Types
The identification is divided into safety signs for coal mine products and safety signs for metal and non-metal mine products, and there are standard and non-standard types.
4.1 Coal mine product safety signs
The standard identification is a hexagonal frame with the Chinese Pinyin abbreviation "MA", which means "coal safety". The frame line indicates that the scope of coal mines in the country is applicable, and the digital code is the safety sign number, as shown in Figure 1.
4.2 Safety signs for metal and non-metal mine products
The standard identification is a hexagonal frame with the Chinese Pinyin abbreviation "KA", meaning "mine safety", the frame line indicates the scope of the national metal and non-metallic mines, and the digital code is the safety sign number, as shown in Figure 2.
5 Identification graphics and parameters
5.1 Standard identification
5.1.1 The standard logo graphics and parameters are shown in Figure 3 and Figure 4.
5.1.2 There are five specifications for the standard type identification, and the ratio of each specification size to the marked size in Figure 3 or Figure 4 is shown in Table 1.
5.1.3 The digital code (safety sign number) is marked below the hexagonal frame, at the center of the sign.
5.1.4 The standard logo is a yellow base plate, and the frame and "MA" and "KA" are black.
5.2 Non-standard identification
When it is inconvenient to use standard logos, non-standard logos can be applied to products by means of printing, molding, branding, etc. The position of the digital code, graphic size, color and whether to use a hexagonal frame can be determined according to specific circumstances.
6 Identify other requirements
6.1 Marking material
Standard signs should be made of materials permitted by mine safety, generally brass or stainless steel.
6.2 Identifying the surface quality
The identification should be clear and free of burrs.
7 Use of the logo
7.1 The logo should be applied to the obvious position of the outer body of the product, and the selected specifications should be compatible with the overall dimensions of the product.
7.2 For cables, conveyor belts, pipes, air ducts (cloth) and other products, the distance between the markings shall not be greater than 10 m, and there shall be no less than one marking in the minimum use unit of the product.
7.3 If the logo cannot be applied on the product body, the logo should be applied on the smallest package of the product.
7.4 Mining products that have obtained safety signs shall be marked before leaving the factory; imported mining products that have obtained safety signs in batches shall be marked before the products are delivered for use.
8 Management of logos
8.1 The labels shall be uniformly managed by the state-authorized mining product safety label review and issuance agencies.
8.2 For non-standard signs, the production unit that has obtained the safety sign shall apply to the state-authorized mining product safety sign review and issuance agency, and can only be used after confirmation and filing.
8.3 Mining products managed by Vanner Safety Signs shall not use the signs without obtaining the safety signs of mining products.
1) The general control room of Class A and B workshops with explosion hazard shall be set up independently.
2) The sub-control rooms of Class A and B workshops with explosion hazard should be set up independently. When set adjacent to the outer wall, a fire partition wall with a fire resistance rating of not less than 3.00h should be used to separate them from other parts.
1) Class A and B production sites with explosion hazard should be arranged near the pressure relief facilities near the outer wall of the single-storey factory building or the pressure relief facilities on the top floor of the multi-storey factory building near the outer wall.
2) The equipment with the danger of explosion should avoid the main load-bearing components such as beams and columns in the workshop.
3) Protective measures such as door buckets should be installed in the stairwells, outdoor stairs in the explosion-hazardous area, or the connection between the explosion-hazardous area and the adjacent area. The partition wall of the door bucket should be a fire partition wall with a fire resistance rating of not less than 2.00h, and the door should be a Class A fire door and should be staggered from the door of the stairwell.
1) For Class A workshops that emit flammable gas and flammable vapor lighter than the air, light roof panels should be used as the pressure relief area. The ceiling should be as flat as possible without dead ends, and the upper space of the workshop should be well ventilated.
2) Class A workshops that emit flammable gases and flammable vapors heavier than air and Class B workshops that have the danger of dust and fiber explosion shall meet the following requirements:
A non-sparking ground should be used. When using insulating material as the overall surface layer, anti-static measures should be taken.
For workshops that emit combustible dust and fibers, the inner surface should be flat, smooth and easy to clean.
It is not advisable to set trenches in the workshop. When it is really necessary, the cover should be tight. The trenches should take effective measures to prevent the accumulation of combustible gas, combustible vapor, dust and fibers in the trenches, and should be sealed with fireproof materials at the connection with the adjacent workshop.
1) For workshops that use and produce Class A, B and C liquids, the pipes and trenches should not be connected with those of the adjacent workshops, and oil separation facilities should be set up in the sewers.
2) Class A, B, and C liquid warehouses should be equipped with facilities to prevent liquid from spreading. Measures to prevent water immersion should be taken in the warehouse of goods that will burn and explode when wet.
1) Class A and B production sites should not be set up underground or semi-underground.
2) Class A and B warehouses should not be set up underground or semi-underground.
The intrinsically safe system is a circuit system that achieves electrical explosion-proof by limiting electrical energy, and does not restrict the use of places (where the ia level is applicable to dangerous places in Zone 0, Zone I, and Zone II) and explosive The type of gas mixture (limited to include all flammable gases); with a high degree of safety, maintainability and economy. A schematic diagram of an intrinsically safe system.
Calculation formula of pressure relief area:
A=10CV2/3
A--pressure relief area (㎡);
V--the volume of the workshop (m³);
C - pressure relief ratio
1) Length-to-diameter ratio: the ratio of the product of the longest dimension in the geometric dimensions of the building and its cross-sectional perimeter to 4.0 times the cross-sectional area of the building.
2) When the aspect ratio of the factory building is greater than 3, the building should be divided into multiple calculation sections with an aspect ratio not greater than 3, and the common section in each calculation section shall not be used as a pressure relief area.
ATEX: EN IEC 60079-0-2018; EN 60079-7-2015; EN 60079-18-2015; EN 60079-31-2014;
ATEX :
ATEX: EN IEC 60079-0-2018; EN 60079-7-2015; EN 60079-18-2015; EN 60079-31-2014;
ATEX :
ATEX: EN IEC 60079-0-2018; EN 60079-7-2015; EN 60079-18-2015; EN 60079-31-2014;
ATEX :