TOSUNlux Բլոգ | Էլեկտրատեխնիկայի և լուսավորության տեխնոլոգիաների վերաբերյալ տեղեկություններ

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Մեխանիկական ժմչփ անջատիչ. տեսակներ, ինչպես օգտագործել և այլն

24th Մրտ 2026

A mechanical timer switch, also referred to as an analog timer switch, is a timing device that employs physical components like springs, gears, and electric motors to regulate the power supply to an electrical device. To learn more about this device, here’s a practical guide to get started. How Does A Mechanical Timer Switch Work? Operating in an analog manner, it utilizes clockwork mechanisms to determine when to switch the power on and off. This type of timer switch is manually configured by adjusting a knob to set the desired time interval for powering on or off. Although mechanical timer switches are cost-effective and straightforward to configure, they may be larger and require more maintenance due to the utilization of moving parts. Commonly employed for managing lighting, appliances, and other electrical devices, they offer an economical means of automating various systems. Despite the emergence of more intricate digital and electronic timers, mechanical timer switches remain a simple and budget-friendly option for overseeing lights and other devices. Types of Mechanical Timers Mechanical timer switches can be categorized by several factors. Understanding these types helps you choose the right model for your specific application. By Time Cycle By Installation Method By Number of Channels By Contact Capacity Where Mechanical Timer Switches Are Used Mechanical timer switches are versatile devices used for various purposes. Here’s a breakdown of their uses and benefits: Despite the presence of digital timer switches, mechanical timer switches continue to be a popular choice due to their affordability and straightforward operation. How to Use Mechanical […]
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Եռաբևեռ ընդդեմ քառաբևեռ մեկուսիչ անջատիչների. Ե՞րբ և ինչպե՞ս օգտագործել յուրաքանչյուրը

22nd Մրտ 2026

A 3-pole isolator switch disconnects three live conductors in a three-phase system. A 4-pole isolator switch does the same but includes the neutral line, offering extra safety for both personnel and sensitive equipment. If your project demands complete circuit isolation, the 4-pole isolator switch is the safer, more comprehensive option. Hero Product Highlight Electrical Supply Wholesaler Discover a full range of electrical products from a trusted electrical supply wholesaler. TOSUNlux offers circuit breakers, contactors, switches, and more for global markets. View Product In this guide, we’ll explain the differences, usage scenarios, wiring basics, and benefits of both switch types. You’ll also learn when a 4-pole isolator switch is not just preferred—but required. Understanding the difference between a three-phase disconnect with and without neutral isolation is key to system design. Whether you’re managing industrial equipment or a solar PV system, making the right switch choice improves safety, compliance, and efficiency. Understanding the Basics: What Is a 4-Pole Isolator Switch? A four-pole (4P) isolator switch is an electrical disconnect device that isolates four conductors simultaneously—usually three live wires (R, Y, B) and one neutral. This type of isolator is designed for systems where it’s essential to disconnect the neutral along with the phases, such as in TN-C-S earthing systems or solar installations. Comparing 3-Pole and 4-Pole Isolator Switches Feature 3-Pole Isolator Switch 4-Pole Isolator Switch Number of Conductors 3 (Phases R, Y, B) 4 (Phases R, Y, B + Neutral) Neutral Isolation Not Included Included Application Use Standard 3-phase loads Critical loads, solar, and generator systems Safety […]
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Ինչպես ընտրել 3-փուլային անջատիչ ձեր արդյունաբերական շարժիչի համար

20th Մրտ 2026

Selecting the right 3-phase motor circuit breaker is one of the most critical decisions in any industrial electrical system. One wrong breaker can mean downtime, damage, or even a fire — so you must match the breaker to the motor’s current, load type, voltage, and environment. When running industrial motors, one wrong breaker can mean downtime, damage, or even a fire. So if you’re asking “How do I select the right 3-phase circuit breaker for my motor?” — the answer is this: you must match the breaker to the motor’s current, load type, voltage, and environment. This article will show you exactly how. We’ll cover why generic breakers won’t cut it, how to size a breaker properly, and the four essential specs to look for. You’ll also learn why TOSUNlux circuit breakers are trusted worldwide for industrial circuit protection. Whether you’re setting up a new 3-phase breaker panel or upgrading your current motor setup, this guide is your go-to reference. Why a Generic Circuit Breaker Isn’t Enough for Your Motor Motors aren’t like lights or outlets. They surge at startup, run continuously under load, and can overheat if protection fails. That’s why a 3-phase motor circuit breaker is designed with motor-specific trip characteristics that prevent false trips while still cutting power during real faults. A regular residential breaker often can’t handle: In short, using a generic breaker on an industrial motor is like using a toy wrench on a jet engine — it’s not built for the job. That’s where a true industrial circuit breaker […]
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Մուլտիմետր ընդդեմ վոլտմետրի: Ո՞րն է տարբերությունը

19th Մրտ 2026

Multimeters can measure voltage, current, resistance, and other parameters. Some voltmeters, particularly portable ones, are powered by the measured voltage source, which highlights their operational mechanisms within electrical work environments. Voltmeters specialize in voltage measurements only, but provide greater accuracy. Choose multimeters for versatility or voltmeters when precision voltage readings are critical. For those working with electrical systems, there is frequently a need to measure elements such as current, voltage, and resistance. Two prevalent instruments used for handling such requirements are the multimeter and the voltmeter. Within this guide, we aim to contrast these two analytical appliances and bring to light their key variances to facilitate selecting the most appropriate for your intended applications. What Is a Multimeter? A multimeter is a handy tool used to measure different electrical quantities like voltage, current, resistance, and continuity — making it essential for electrical troubleshooting in both residential and industrial settings. A handheld digital multimeter is particularly useful for electricians and HVAC specialists for taking measurements and troubleshooting in the field. It’s like having three tools in one! You can think of it as the Swiss Army knife of electrical testing. Key Features: Voltage, Current, Resistance & Continuity Testing Why Use a Multimeter? Common Uses of a Multimeter Home Repairs: Check if batteries are still good or if electrical outlets are working. Automotive Work: Diagnose electrical problems in cars — including testing alternator output, checking battery health, and tracing short circuits without specialized equipment. Electronics Projects: Test and troubleshoot circuits in DIY electronics projects. A handheld digital […]
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MCCB Types Explained: Type B, C, D, K, Z — How Each Works & When to Use Them

18th Մրտ 2026

Կան տարբեր տեսակի ավտոմատ անջատիչներ, և դրանք ճիշտ տեղադրելու համար անհրաժեշտ է իմանալ, թե ինչպես են դրանք աշխատում: Այս ավտոմատ անջատիչները խմբավորված են տարբեր տեսակների՝ B տիպի, C տիպի, D տիպի, K տիպի և Z տիպի: B տիպի ավտոմատ անջատիչը կանջատվի, երբ այն տեսնի անվանական հոսանքի 3-5 անգամ մեծ ալիք, մինչդեռ C տիպի անջատիչը կանջատվի, երբ այն տեսնի 5-10 անգամ մեծ ալիք: Էլեկտրական անջատիչը գերազանց էլեկտրական պաշտպանության սարք է: Դրա պատյանը կնքված է և չի կարող բացվել: Սակայն, ինչպես ցանկացած այլ էլեկտրական սարքավորում, այն պահանջում է պարբերական սպասարկում՝ պատշաճ կերպով գործելու համար: Հերո ապրանքի առանձնահատկություն՝ TSM2 ձուլված պատյանով ավտոմատ անջատիչ TSM2 ձուլված պատյանով ավտոմատ անջատիչը առաջարկում է բարձր արդյունավետություն գերծանրաբեռնվածությունից և կարճ միացումից պաշտպանության համար, ինչը այն դարձնում է իդեալական արդյունաբերական և առևտրային կիրառությունների համար: Դիտել ապրանքը։ Էլեկտրական անջատիչները կարող են դիմակայել մեծ հոսանքի և կարճ միացման: Դրանք նաև ունեն շարժական անջատման միավոր և կարճ անջատման ժամանակ: Որոշ տեսակներ ունեն հեռակառավարվող միացման/անջատման գործառույթներ, ինչը դրանք օգտակար է դարձնում արդյունաբերական պայմաններում, որտեղ էլեկտրական ցնցումները տարածված վտանգ են: Տարբեր տեսակի ավտոմատ անջատիչներ օգտագործվում են տարբեր էլեկտրական պայմաններում: Եթե ցանկանում եք իմանալ բազմամետաղային անջատիչների (ՄԿՓԲ) տարբեր տեսակների և դրանց աշխատանքի մասին, շարունակեք կարդալ այս հոդվածը։ Ինչպե՞ս է աշխատում ՄԿՓԲ-ն։ ՄԿՓԲ-ները նախատեսված են էլեկտրաէներգիայի հոսքը ավտոմատ կերպով ընդհատելու համար, երբ հայտնաբերվում է խափանում։ Դրանք բաղկացած են մի քանի հիմնական բաղադրիչներից, ինչպիսիք են ռելեի ակտիվացման բլոկը, ջերմաստիճանին զգայուն բաղադրիչները, ինչպիսիք են երկմետաղական շերտը, և աղեղային կոնտակտները։ Այս հատկանիշների համադրությունը […]
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Տերմինալի պտտող մոմենտի ազդեցությունը անջատիչի գերտաքացման վրա

28th Փտր 2026

In the field of electrical engineering, safety is determined by a secure connection and the circuit breaker. During electrical installations, terminal torque is often overlooked. This is defined as the “perfect tightness” of rotational force applied to the terminal screws. When the necessary rotational force is not properly applied, your circuit breaker is compromised. According to Joule’s Law, resistance generates heat and increases with the square of the current and the resistance of the connection. This is shown by the formula P = I2R. To prevent rapid overheating, the correct terminal torque should be applied to a circuit breaker. Real-World Scenarios and Operational Risks In industrial and commercial electrical systems, engineers may impose safety measures. However, these may contradict certain site conditions. There may also be instances where circuit breaker failures are caused by human factors. Understanding how proper terminal torque affects the circuit breaker is essential for electrical fire prevention. Below are some real-world scenarios demonstrating the operational risks caused by incorrect terminal torque conditions: Loose Wiring & Thermal Cycling In busy factories, the vibrations coming from heavy machinery may cause tightened terminals to loosen. In electricity, when the lug doesn’t make full contact with the terminal, this creates electrical resistance. As resistance increases, so does the temperature. This results in a dangerous loop called “thermal cycling.” One of the solutions to thermal cycling is to ensure that the initial “preload” on a bolt or screw is correct. Use a calibrated torque wrench and follow the manufacturer’s specific N · m (Newton-meter) or in.lb […]
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RCCB-ի անջատման խնդիրները և ինչպես շտկել դրանք

27th Փտր 2026

If your RCCB keeps tripping, do this in order: Safety: RCCBs protect against earth leakage and shock risk. Don’t keep “forcing it ON” repeatedly. Residual current circuit breakers tripping problems can result from issues like moisture, faulty wiring, or damaged appliances. Fixing these problems involves steps such as resetting the breaker, inspecting wiring, and testing devices. If you’ve ever wondered why your RCCB trips unexpectedly, this guide is here to help. TSL3-63 Residual Current Circuit Breaker TSL3-63 Residual Current Circuit Breaker The TSL3-63 RCCB provides enhanced protection against overload and short-circuit faults in AC electrical circuits, ensuring safety in various industrial and residential applications. View Product Troubleshooting Flow Step A — When does it trip? Step B — Quick isolation test (safe, homeowner-level) If you find the device that triggers the trip, repair or replace it. Step C — When to stop DIY and call an electrician Electricians can use leakage current meters and insulation testers to pinpoint hidden faults. Why Residual Current Circuit Breakers Trip Moisture often causes ground faults by allowing current to leak through wet or damaged wiring. This issue is common in areas like bathrooms, kitchens, or outdoor circuits. Moisture can cause earth leakage, leading to RCCB tripping to prevent electrical hazards. Start by drying wet areas and sealing conduits to prevent water intrusion. If damage is severe, replacing the cables may be necessary. Frayed wires or loose terminals can cause leakage currents, leading to RCCB tripping. Current flowing through damaged wires can cause imbalances, prompting the RCCB to cut off the power […]
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Անջատիչների արտադրություն. Ինչու են արծաթե կոնտակտները կարևոր / Անջատիչների արտադրություն

27th Փտր 2026

Electricity is a powerful force that requires a dependable, rigorously tested “emergency shut-off valve.” In circuit breaker manufacturing, manufacturers focus on building a device that cuts off power if it senses too much electricity. The circuit breaker acts as a defense mechanism for electrical systems. If the power is not interrupted at the right time, a simple overload can result in a fire. Standard metals often fail when electrical switching happens due to extreme thermal and mechanical stress. Engineers solve this problem by using silver alloy contacts. Silver is conductive, and the alloy strengthens it so it can survive arcing. This article explains the importance of silver alloys in circuit breaker manufacturing. What Are Electrical Contacts? Electrical contacts are physical points in an electrical system where a circuit meets. They are composed of two conductive pieces that touch. This action allows power to flow and separates to stop it. The role of the circuit breaker is to keep the contacts pressed together. It also triggers a mechanism (separator) during a power surge, so the contacts will pull apart. A Dual Responsibility Contacts have a dual responsibility when it comes to electrical safety. When closed, they must remain in contact and carry a stable current without overheating. On the other hand, when they are open, they must withstand the force of an electrical arc. Inherent Industrial Challenges In circuit breaker manufacturing, the choice of material is one of the most critical decisions. Heat generation and mechanical wear are two of the problems that a contact may […]
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Selecting the Right Data Center Breaker for Continuous Power Availability

26th Փտր 2026

In today’s modern-day digital economy, a data center is the most valuable system. A poorly designed breaker system can shut down an entire data center due to a minor fault. While most establishments use generators and UPS systems, Tier III and Tier IV facilities demand uptime standards of 99.982% and 99.995% availability. This is why circuit breakers play a vital role in the data center breaker system. This article discusses the different circuit breakers that you can choose from depending on your industry’s needs. You can select from Miniature Circuit Breakers (MCBs), Molded Case Circuit Breakers (MCCBs), and Air Circuit Breakers (ACBs). You will also learn why selection coordination, power availability, uptimes, and TCC analysis are vital in data center operations. Real-World Applications of How Establishments Use Data Centers Data centers are the heart of modern global infrastructure. Various industries rely on these facilities to manage and store vast amounts of information. If these data centers are compromised, business continuity and secure operations may also be at risk. To help you understand the importance of a data center breaker, here are the top three establishments that utilize data centers: Banks and Financial Institutions Every time a customer uses an ATM or a mobile banking app, a data center processes the request in milliseconds. For these establishments, the highest priority is power availability. A few seconds of a power dip could result in lost transactions, corrupted financial records, and security breaches. Hospitals and Healthcare Providers Hospitals use data centers to store electronic health records (EHR), operate […]
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DC Circuit Breaker Sizing for BESS Energy Storage Systems

26th Փտր 2026

More and more industries are now shifting towards renewable energy. With this growth, the demand for Battery Energy Storage Systems (BESS) is becoming a technical necessity. Since their main purpose is to stabilize microgrids and manage peak demands, integrating these systems requires a deep understanding of DC protection. Unlike traditional AC power, direct current (DC) lacks a “zero crossing point” where voltage drops naturally. This may result in electrical arcs that are more difficult to extinguish and may lead to fire and catastrophic damage. This guide discusses a practical framework for installers and engineers in choosing properly sized DC circuit breakers that comply with international safety standards. Understanding the Core Sizing Requirements of a DC Circuit Breaker Understanding the core sizing requirements of a DC circuit breaker is vital to the safety and reliability of DC systems. This is applicable in applications such as the Battery Energy Storage System (BESS), where precise selection is crucial. Unlike traditional AC power, direct current (DC) lacks a “zero crossing point,” making high-energy faults more difficult to extinguish. This could also lead to catastrophic damage or fire. To ensure your system can safely handle these challenges, evaluate several core sizing requirements such as voltage rating, current sizing, interrupting capacity, and polarity. Here are the factors to consider in choosing a battery protection component: 1. Voltage Rating The most common error in choosing a BESS design is selecting a breaker based on its average battery voltage. For example, a 48V system often reaches more than 58.4V during peak charge. If […]
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