შენჰაი აფეთქების საწინააღმდეგო
LED აფეთქებაგამძლე განათების მწარმოებლებისგან შეძენის შემდეგ, არსებობს რამდენიმე საოპერაციო მოსაზრება გამოყენებისას უსაფრთხოებისა და სტაბილურობის უზრუნველსაყოფად.
1. ტემპერატურა:
გაითვალისწინეთ ტემპერატურის მატება, რადგან გარე გარემოს ტემპერატურის ზრდამ შეიძლება შეამციროს LED სინათლის წყაროს შიდა წინააღმდეგობა. თუ იკვებება ძაბვით სტაბილიზირებული წყაროთ, this can cause an increase in working current. If it exceeds the rated working current, it can affect the lifespan of the LED explosion-proof light, and in severe cases, “დამწვრობა გარეთ” the light source. ამიტომ, it’s best to use a constant current source to ensure that the working current of the LED explosion-proof light is not affected by external temperatures.
2. DC Power Supply:
LED explosion-proof lights should be powered by a direct current source. Unlike explosion-proof searchlights and flashlights, some manufacturers use a “resistance-capacitance reduction” method to power LED products to reduce costs, which can directly impact the lifespan of the LED product. Using a dedicated switching power supply (preferably a constant current source) will not affect the product’s lifespan, though the cost may be relatively higher.
3. Sealing:
If LED explosion-proof lights are used outdoors, they face challenges with წყალგაუმტარი and moisture-proof sealing. Poor handling can directly impact the product’s lifespan. Some high-quality manufacturers use traditional epoxy resin “potting” methods to seal LED products. While effective, this method can be cumbersome for larger LED products, unsuitable for some applications, and may increase the product’s weight.
4. Anti-static Measures:
During the manufacturing process of LED explosion-proof lights, the same processing methods as explosion-proof flashlights should be used to implement anti-static measures. Მაგალითად, workbenches should be grounded, workers should wear anti-static clothing, rings, and gloves, and if possible, install anti-static ion fans. დამატებით, maintaining workshop humidity around 65% is essential to prevent static electricity, especially since green LEDs are more susceptible to static electricity, electric fields, and currents, which are physical quantities produced by the presence or movement of electrical charges.