https://web.facebook.com/Super-fun-3-110047275342638/page/info/editing/?entry_point=comet&end_point=comet_left_nav_bar&i

Camping24hs, Battambang (2025)

29/07/2025

The image you sent displays an electrical panel with multiple circuit breakers. Here's a breakdown of what I can discern from the labels:
Top Row:
* GENERALE: Main/General breaker.
* INTERRATO: Basement (likely for circuits in the basement).
* P.TERRA: Ground Floor (likely for circuits on the ground floor).
* P.PRIMO: First Floor (likely for circuits on the first floor).
* CUCINE: Kitchens (likely for kitchen circuits).
Middle Row:
* A series of breakers labeled LUCE (Lights) and CUCPI (possibly a typo for CUCINE or another kitchen-related area) under sections like INTERRATO, P.TERRA, and P.PRIMO. This suggests lighting circuits are separated by floor, and there are additional kitchen circuits.
* IRRIGAZ: Irrigation (likely for an irrigation system).
Bottom Row:
* SERVIZI: Services (general service circuits).
* A group of breakers with labels that are a bit harder to read definitively, but appear to include:
* TAPP (possibly Tapparelle - roller shutters/blinds)
* CALD (possibly Caldaia - boiler/heating)
* P***A (Pump)
* CITOF (Citofono - intercom)
* CONDI (Condizionatore - air conditioner)
* CARICA (Charging - perhaps for an EV charger or other charging point)
* BT (Bassa Tensione - Low Voltage, or possibly related to a specific low voltage system)
In summary, this is a well-organized electrical panel, with circuits categorized by floor, function (like lighting, kitchen), and specific services (irrigation, boiler, AC, etc.). It's set up to allow for isolation of power to different areas or appliances for maintenance or in case of an electrical issue.

29/07/2025

The image shows an electrical distribution board or consumer unit, likely in the process of being wired or having just been installed. Here's what I can identify:
Overall Layout:
The board is mounted vertically and contains multiple rows of DIN rail-mounted electrical components. There are some terminal connectors (ferrules) scattered on the surface in front of the board, suggesting ongoing electrical work.
Top Row (from left to right):
* Main Breaker/Input: On the far left, there appears to be a main incoming breaker or switch disconnector.
* Metering/Display Unit: Next to it, there's a digital display unit, possibly for energy metering, voltage, or current monitoring.
* Residual Current Devices (RCDs) / Earth Leakage Breakers (ELCBs): Several larger modules, typically blue or red trip buttons, which are RCDs for fault protection. Some have labels like "ВВОД" (Input), "КУХНЯ" (Kitchen), "КОНДИЦИОНЕР" (Air Conditioner), "ТЁПЛЫЙ ПОЛ" (Underfloor Heating), "РАЗЕТКИ" (Sockets), "ОСВЕЩЕНИЕ" (Lighting).
* Circuit Breakers (MCBs): Smaller individual breakers, likely for specific circuits, following the RCDs.
* Socket Outlet: On the far right, there's a built-in industrial or splash-proof socket outlet, possibly for temporary power during installation or for connecting specific equipment.
Middle Row:
* Contactor/Relay: On the left, there's a device labeled "КОНТАКТОР" (Contactor), which is used for switching high-power loads, often controlled by a lower-power signal (e.g., for heating or ventilation).
* Numerous Circuit Breakers (MCBs): A long row of single-pole or double-pole MCBs, with various labels, some of which are partially visible, indicating specific circuits they protect (e.g., "Свет" - Light, "Розет" - Socket, "Кухня" - Kitchen, "Ванна" - Bathroom). These are likely fed by the RCDs in the top row.
Bottom Row:
* More Circuit Breakers (MCBs): Another long row of circuit breakers, possibly for additional circuits or a different phase/section of the installation.
* Additional Components: On the far right, there are a few more electrical components, possibly terminal blocks or surge protection devices, though the labels are not clear.
General Observations:
The labels are in Cyrillic script (Russian), indicating the installation is in a Russian-speaking region. The presence of multiple RCDs and a clear labeling scheme suggests a modern electrical installation designed with safety and circuit separation in mind. The "KONST STUDIO" watermark suggests this might be a product or installation from that entity.

29/07/2025

The image you provided is a schematic diagram illustrating the typical electrical protection components found in a residential or small commercial electrical installation, specifically showing a surge protection device integrated into the system. The labels are in Spanish.
Let's break down the components and their functions:
* Interruptor automático de cabecera: This translates to "Main automatic circuit breaker" or "Main distribution board breaker." This is the primary circuit breaker at the head of the installation, protecting the entire system from overcurrents and short circuits. It's labeled with "1 bobina MZ212," possibly referring to a specific model or a coil for a shunt trip.
* Interruptor diferencial: This is the "Residual current circuit breaker" (RCCB) or "Earth leakage circuit breaker" (ELCB). It provides protection against electric shock by detecting current imbalances (leakage current to earth) and quickly disconnecting the circuit.
* Instalación eléctrica: This refers to the "Electrical installation" itself, meaning the various circuits (lights, sockets, etc.) within the property. These are fed by a series of individual miniature circuit breakers (MCBs), each protecting a specific branch circuit from overcurrents and short circuits. The dashed line above them suggests there could be more such breakers depending on the number of circuits.
* Interruptor automático de desconexión 20A "C" 2P: This translates to "Automatic disconnection switch 20A 'C' 2-pole." This appears to be a dedicated circuit breaker, possibly for a specific load, or more commonly in this context, a circuit breaker preceding the surge protective device (SPD) to protect the SPD itself and act as a disconnection means. "20A" is its rated current, "C" indicates its tripping curve (medium instantaneous trip), and "2P" means it's a 2-pole breaker, suitable for single-phase installations where both live and neutral are switched.
* Limitador de sobretensiones SPM 215D: This is the "Surge protector" or "Surge protective device (SPD)." Its purpose is to protect electrical equipment from transient overvoltages (surges) caused by lightning strikes or switching operations in the electrical grid. The "SPM 215D" is likely a specific model number. It's connected between the main incoming line and earth, shunting excess voltage to the ground.
Overall Flow and Purpose:
The diagram shows a typical protection scheme:
* Main Breaker: First line of defense for the entire installation.
* RCD: Essential for human safety against electric shock.
* Branch Circuit Breakers: Protect individual circuits within the installation.
* Surge Protection: A separate path is shown with a dedicated breaker for the surge protector, which then connects to the earth. This setup ensures that if a surge occurs, the SPD diverts the excess energy to the ground, protecting downstream equipment, while its dedicated breaker provides protection for the SPD itself and a means of isolation.
This setup represents a comprehensive approach to electrical safety, incorporating protection against overcurrents, earth faults, and voltage surges.

29/07/2025

The image you sent is a helpful chart from "PRIME wire and cable, inc." titled "Cord Gauge vs Amperage". It's a guide for selecting the appropriate extension cord gauge based on the required amperage and length for various tools and applications.
Here's a breakdown of the information presented:
The chart displays five different extension cords, categorized by their wire gauge (AWG - American Wire Gauge) and typical duty level:
* Orange Cord (16 GAUGE):
* Duty: MEDIUM DUTY
* Amperage Capacity:
* 50 ft: 13 amps
* 100 ft: 10 amps
* Typical Tools: Lawnmowers, Hedge Trimmers, Fans, Household Tools.
* Blue Cord (14 GAUGE):
* Duty: HEAVY DUTY
* Amperage Capacity:
* 50 ft: 15 amps
* 100 ft: 13 amps
* Typical Tools: Drills, Belt Sanders, Routers, Table Saws.
* Yellow Cord (12 GAUGE):
* Duty: EXTRA HEAVY DUTY
* Amperage Capacity:
* 50 ft: 15 amps
* 100 ft: 15 amps
* Typical Tools: Circular Saws, Chain Saws, Worm Drives, Grinders.
* Red Cord (12 GAUGE):
* Duty: EXTRA HEAVY DUTY (Note: Same gauge as the yellow 12 GAUGE, but might represent different insulation or construction. However, the amperage capacity is different, suggesting a slight variation in rating or a different intended use for higher amperage tools on shorter runs.)
* Amperage Capacity:
* 50 ft: 20 amps
* 100 ft: 15 amps
* Typical Tools: (Same as yellow 12 GAUGE, plus potentially other higher-draw tools that fit within 20 amps for 50 ft). It's interesting that this 12-gauge cord is rated for 20 amps at 50ft, while the yellow 12-gauge is 15 amps at 50ft. This could be due to manufacturer rating differences, specific wire stranding, or insulation type allowing for more current without overheating.
* Yellow Cord (10 GAUGE):
* Duty: ULTRA HEAVY DUTY
* Amperage Capacity:
* 50 ft: 20 amps
* 100 ft: 20 amps
* Typical Tools: Generators, Recipro Saws, Rotary Hammers, Compressors.
Key Concepts Illustrated:
* Gauge: A smaller gauge number indicates a thicker wire, which can carry more current and sustain it over longer distances with less voltage drop.
* Amperage Capacity vs. Length: For a given wire gauge, the maximum safe amperage decreases as the length of the cord increases. This is due to increased resistance and voltage drop over longer distances.
* Duty Rating: Different gauges are suited for different "duty" levels, corresponding to the power requirements of various tools.
This chart is extremely useful for preventing overheating, voltage drop issues, and potential fire hazards when using extension cords with power tools and other electrical equipment. It emphasizes the importance of matching the cord's capabilities to the tool's requirements.

29/07/2025

The image you sent is a table comparing different electrical components based on their name, symbol, picture, and their primary functions: control, isolation, and protection.
Here's a breakdown of the table:
| Name | Symbol | Picture | Control | Isolation | Protection |
|---|---|---|---|---|---|
| fuse | A line with a rectangular box in the middle with a line through it, or an "S" shape. | A cylindrical fuse. | ❌ (No) | ✅ (Yes) | ✅ (Yes) |
| isolator | A line with a break and a diagonal line crossing it, similar to an open switch. | A rotary switch isolator. | ❌ (No) | ✅ (Yes) | ❌ (No) |
| breaker | A line with a rectangular box and a small arc/hook shape, or an "M" shape. | A miniature circuit breaker (MCB). | ✅ (Yes) | ✅ (Yes) | ✅ (Yes) |
| switch | A line with a break and a diagonal line, or a "V" shape. | A manual rotary switch. | ✅ (Yes) | ✅ (Yes) | ❌ (No) |
| contactor | A symbol for a normally open contact, often two parallel lines with a diagonal line indicating a mechanical linkage. | A contactor, typically an electromagnetic device. | ✅ (Yes) | ❌ (No) | ❌ (No) |
| ELCB | A red rectangular box with two vertical lines inside, often associated with ground fault protection. | An Earth Leakage Circuit Breaker (ELCB) or Residual Current Device (RCD). | ❌ (No) | ❌ (No) | ✅ (Yes) |
Explanation of Functions:
* Control (✅): The ability of the device to manually or automatically start/stop the flow of current in a circuit under normal operating conditions.
* Isolation (✅): The ability of the device to completely disconnect a circuit from the power supply, providing a visible air gap, ensuring safety for maintenance work.
* Protection (✅): The ability of the device to automatically disconnect a circuit in response to abnormal conditions like overcurrents (overloads or short circuits) or earth faults.
Key Takeaways from the Table:
* Fuses provide protection (overcurrent) and isolation, but not active control.
* Isolators and Switches provide control and isolation, but generally no protection against faults like overcurrents or earth leakage.
* Breakers (Circuit Breakers) are versatile, offering control, isolation, AND protection (overcurrent/short circuit).
* Contactors are primarily for control (switching high power loads, often remotely), but they don't provide isolation (a guaranteed visible break) or inherent protection from faults.
* ELCBs (or RCDs) are dedicated solely to protection against earth leakage currents, preventing electric shock. They are not designed for control or isolation in the traditional sense for everyday operation.
This table is a very useful quick reference for understanding the distinct roles of common electrical components in a system.

29/07/2025

The image you sent is a clear and well-illustrated diagram demonstrating the wiring of a Single Phase Distribution Board.
Here's a breakdown of the components and wiring:
Main Components:
* Incoming Single Phase Power Supply: At the bottom, a grey conduit brings in the main power.
* L (Live/Phase): Red wire.
* N (Neutral): Blue wire.
* E (Earth/Ground): Green wire.
* Main Residual Current Circuit Breaker (RCCB) / Earth Leakage Circuit Breaker (ELCB): This is the large switch on the left with the "NOGO AC" label.
* It has terminals for Live (L) and Neutral (N) input and output.
* This device is crucial for safety, detecting current imbalances (earth faults) and tripping to prevent electric shock.
* Miniature Circuit Breakers (MCBs): These are the smaller switches lined up to the right of the RCCB.
* Each MCB protects an individual circuit from overcurrents (overloads and short circuits).
* They are connected in series with the Live (red) line.
* Neutral Busbar: The yellow terminal block on the left side of the panel.
* All neutral wires from the outgoing circuits are connected here.
* The main neutral from the incoming supply connects to the RCCB and then to this busbar.
* Earth Busbar: The green terminal block on the right side of the panel.
* All earth wires from the outgoing circuits are connected here.
* The main earth from the incoming supply connects directly to this busbar.
* Output Power Supply / Outgoing Circuits: At the top, multiple grey conduits represent the individual circuits leaving the distribution board to power various loads (e.g., lights, sockets, appliances).
* Each outgoing circuit consists of a Live (red), Neutral (blue), and Earth (green) wire.
Wiring Connections:
* Incoming Power to RCCB:
* The incoming Live (red) connects to the 'L' input terminal of the RCCB.
* The incoming Neutral (blue) connects to the 'N' input terminal of the RCCB.
* The incoming Earth (green) connects directly to the Earth Busbar.
* RCCB to MCBs:
* The Live output from the RCCB (red wire) connects to the input terminals of all the MCBs in a "daisy chain" fashion (often via a busbar comb, though shown individually here for clarity).
* The Neutral output from the RCCB (blue wire) connects to the Neutral Busbar.
* MCBs to Outgoing Circuits:
* Each MCB's output terminal (bottom of the MCB) connects via a red wire to the Live (L) conductor of its respective outgoing circuit.
* Neutral and Earth Connections for Outgoing Circuits:
* The Neutral (blue) wire of each outgoing circuit connects to the Neutral Busbar.
* The Earth (green) wire of each outgoing circuit connects to the Earth Busbar.
Key Takeaways:
* Safety First: The diagram clearly shows the importance of the RCCB for earth fault protection and MCBs for overcurrent protection.
* Separation of Conductors: Live, Neutral, and Earth conductors are kept separate and connect to their respective components (MCBs for Live, busbars for Neutral and Earth).
* Busbars for Distribution: Busbars simplify wiring by providing a common connection point for multiple neutral and earth conductors.
* Standard Color Coding: The use of red (Live), blue (Neutral), and green (Earth) wires is consistent with common electrical wiring standards.
This diagram is an excellent visual guide for understanding the fundamental principles of wiring a single-phase consumer unit or distribution board.

29/07/2025

The image you sent is a wiring diagram for a Blade Fuse Block, commonly used in automotive, marine, or other DC (Direct Current) applications. The title seems to have a typo ("WOEONG DIAGRAM" instead of "WIRING DIAGRAM").
Let's break down the connections and components:
Component:
* Blade Fuse Block: This is a centralized unit designed to hold multiple blade-type fuses, providing individual circuit protection for various loads.
* It has input terminals (at the top and bottom) and output terminals (sides).
* Each fuse slot has a corresponding input and output connection.
Input Connections:
* TO DC NEGATIVE (Top): This indicates the main negative (ground) connection point for the entire fuse block. It's designed to connect to the negative terminal of the DC power source (e.g., battery negative).
* From this main negative connection, there are multiple smaller terminals (the black ones at the top) where individual load negative wires can connect.
* FROMLOAD NEGATIV (Top, below TO DC NEGATIVE): This label, seen on both the left and right sides of the top section, is a bit confusingly worded. It seems to imply that the negative wires from the loads (appliances, lights, etc.) should connect here. Essentially, this is a negative distribution bar.
* FROMLOAD POSITIVE (Bottom): This label, seen at the bottom center and extending to the sides, indicates the main positive (live) connection point for the fuse block. This is where the main positive wire from the DC power source (e.g., battery positive) connects.
* From this main positive connection, there's an internal busbar (represented by the continuous red line running across the bottom terminals of the fuses) that distributes power to the input side of all the fuses.
Output Connections (from each fuse):
* Red Wires (FROM LOAD POSITIVE): Each red wire emerging from the sides of the fuse block represents the protected positive feed to an individual load. These wires connect to the positive side of various devices like lights, radios, pumps, etc.
* The label "FROMLOAD POSITIVE" here is also somewhat misleading; it should ideally be "TO LOAD POSITIVE" or "OUTPUT TO LOAD POSITIVE." It signifies the positive power going to a load, after passing through its respective fuse.
* White Wires (FROM LOAD NEGATIV): Each white wire emerging from the sides of the top section (where the black terminals are) represents the negative return path from an individual load. These wires connect from the negative side of the loads back to the fuse block's negative distribution bar.
Functionality:
* Positive Distribution: The main positive DC power comes into the "FROMLOAD POSITIVE" terminal at the bottom. This power is then distributed to the input side of each blade fuse.
* Circuit Protection: When a load is connected, its positive supply goes through one of the fuses. If an overcurrent (short circuit or overload) occurs in that specific load's circuit, the fuse will blow, breaking the circuit and protecting the wiring and the device.
* Negative Distribution: The main negative DC power comes into the "TO DC NEGATIVE" terminal at the top. The negative return wires from all the individual loads connect to the "FROMLOAD NEGATIV" terminals on the top black bar.
In summary: This blade fuse block provides a clean and organized way to distribute DC power from a single source to multiple individual loads, with each load having its own dedicated fuse for overcurrent protection and a common negative return path. The labels "FROMLOAD NEGATIV" and "FROMLOAD POSITIVE" could be clearer, but their placement strongly indicates input for the main positive/negative, and then outputs for the individual positive/negative load connections after fusion.

29/07/2025

The image you provided is an electrical wiring diagram, likely for a residential or small commercial installation. It illustrates the connection from the main power input to various circuits and an extension panel.
Let's break down the components and flow:
Title:
* TABLEAU PRINCIPAL: Main Panel
Top Section - Incoming Power:
* An electrical meter (not detailed, but implied as the source before the main breaker).
* DISJONCTEUR DIFFERENTIEL 500 mA: Main Residual Current Device (RCD) or Earth Leakage Circuit Breaker (ELCB) with a tripping current of 500 mA. This is the primary safety device for earth faults.
* PHASE and NEUTRE: The live and neutral incoming conductors.
Main Panel (Tableau Principal):
* Busbar/Distribution Block: The incoming Phase and Neutral are connected to busbars or distribution blocks at the top, from which individual circuit breakers are fed.
* Circuit Breakers (Disjoncteurs): There are five individual circuit breakers shown. These protect against overcurrents and short circuits.
* Output Circuits: Each circuit breaker feeds a specific type of load:
* Prises: Sockets (likely for general-purpose power outlets). Wired with 2.5 mm² conductors.
* Eclairages: Lighting (for various light fixtures). Wired with 1.5 mm² conductors.
* Chauffages: Heating (for electric heaters). Wired with 2.5 mm² conductors.
* Another two circuits, one also for Chauffages (2.5 mm²) and one for Prises (2.5 mm²).
* Earth (Ground) Connection: There's a separate earth busbar shown, connected to the "Prise de terre principale" (Main Earth Stake/Rod). All metal parts of appliances and potentially socket outlets are connected to this earth.
Extension Panel (Coffret d'extention):
* This panel is fed from the main panel via a dedicated circuit, using 6 mm² conductors for Phase and Neutral, indicating it's designed for significant power draw.
* It also contains:
* DISJONCTEUR DIFFERENTIEL: Another RCD (differential breaker) for this extension panel, providing additional earth fault protection.
* Individual circuit breakers for:
* Eclairages: Lighting (1.5 mm²)
* Prises: Sockets (2.5 mm²)
* Chauffage: Heating (2.5 mm²)
* Précablage pour départ Supplémentaire (1): Pre-wiring for an additional outgoing circuit.
Légende (Legend):
* précâblé: Pre-wired (solid lines)
* à câbler: To be wired (dashed lines)
* (1) précablage pour départ Supplémentaire: Pre-wiring for supplementary outgoing circuit.
* Conductor sizes are also indicated (e.g., 2,5 for 2.5 mm², 1,5 for 1.5 mm²).
* Ground symbol (earth).
Overall Purpose:
This diagram provides a clear illustration of how electrical power is distributed within an installation. It emphasizes safety through the use of RCDs and circuit breakers, and demonstrates how circuits are separated for different types of loads (sockets, lighting, heating) and how an extension panel can be added for larger installations or separate areas. The color coding (blue for neutral, red for phase, green/yellow for earth) is standard in many countries for easy identification.

29/07/2025

The image you provided is a simplified electrical wiring diagram, likely for a basic residential setup, demonstrating how a meter, circuit breakers, a light, and a power outlet are connected.
Let's break down the components and connections:
* Electricity Meter: On the far left, there's an electricity meter, labeled "Shenzhen Star Instrument Co. Ltd. China." This device measures electricity consumption.
* It shows incoming wires (red, black, yellow) and outgoing wires (red, black, blue).
* The "220 V" label indicates the system voltage, typical for single-phase household power in many parts of the world, including Cambodia.
* Main Circuit Breaker (Sica C32): The first blue-handled circuit breaker to the right of the meter is likely the main incoming breaker.
* It's a "Sica" brand breaker, rated "C32," which means it has a 32 Ampere nominal current and a "C" type tripping curve (suitable for general-purpose protection).
* It receives power from the meter and distributes it to the rest of the panel.
* Residual Current Device (RCD) / Earth Leakage Circuit Breaker (ELCB) - Schneider: The middle, orange-handled device is a "Schneider" branded RCD or ELCB.
* This is a crucial safety device designed to protect against electric shock by detecting small imbalances in current (earth leakage faults) and quickly disconnecting the power.
* It's connected after the main circuit breaker, providing earth fault protection for the circuits downstream.
* Circuit Breakers for Loads (Sica C32): To the right of the RCD, there are two more "Sica C32" circuit breakers. These are typically for individual circuits, protecting specific loads from overcurrents and short circuits.
* Loads:
* Light Circuit: One of the circuit breakers feeds a light fixture (an LED bulb in a socket). There's also a single-pole switch in series with the light, allowing it to be turned on and off.
* Red wire: Phase (Live)
* Blue wire: Neutral
* Power Outlet (Socket): The other circuit breaker feeds a two-pin power outlet (socket).
* Red wire: Phase (Live)
* Blue wire: Neutral
* Green wire: Earth (Ground) - Crucially, the green wire from the outlet goes back to a connection point that appears to be the earth terminal block, indicated by a green wire going back towards the meter/main distribution point. This is essential for safety, providing a path for fault currents to earth.
Wiring Color Code:
* Red: Phase (Live) wire, carrying the main voltage.
* Blue: Neutral wire, typically at or near ground potential, completing the circuit.
* Green: Earth (Ground) wire, a safety conductor.
* Yellow: Appears to be an additional phase or possibly a different live conductor from the meter, but its connection is less clear in relation to the rest of the setup. In a typical single-phase 220V system, you'd primarily see one live and one neutral. It might represent the incoming live from the utility before splitting to the internal live.
Overall Purpose:
This diagram illustrates a common and basic electrical distribution setup. Power comes from the meter, passes through a main breaker for overall protection, then through an RCD for shock protection, and finally branches out to individual circuit breakers for separate loads like lighting and power outlets, each with appropriate live, neutral, and earth connections. The inclusion of the RCD highlights a focus on safety.

29/07/2025

The image shows the interior of a meticulously organized electrical distribution board (DB) or consumer unit, likely in a commercial or larger residential setting, designed for a three-phase electrical supply. The board is neatly wired and contains a variety of protective devices.
Here's a breakdown of the visible components:
* Enclosure: A white, rectangular electrical panel, likely flush-mounted into a wall (though the surrounding wall is not clearly visible, implying a finished surface or a fully enclosed panel).
* DIN Rails: Multiple horizontal DIN rails are present, serving as mounting points for the modular electrical devices.
* Top Section - Main Incomers/Protection:
* Three-Phase Main Breaker/Isolator: At the very top left, there's a wider, three-pole circuit breaker or isolator (likely main incoming for a three-phase supply).
* Blue Terminal Blocks/Busbars: Throughout the top section, there are distinct blue terminal blocks/busbars. These are typically used for neutral connections in a three-phase system, distributing neutral to different parts of the board. The multiple blue blocks suggest a distributed neutral system for various circuits or RCDs.
* Residual Current Devices (RCDs) / RCBOs: Several "Hager" branded devices are visible, including larger ones which are likely three-phase RCDs or RCBOs, providing earth fault protection for groups of circuits. Smaller individual ones might also be present.
* Miniature Circuit Breakers (MCBs):
* The board is populated with a large number of "Hager" branded Miniature Circuit Breakers (MCBs) across several rows. These are single-pole or multi-pole devices that provide overcurrent and short-circuit protection for individual branch circuits.
* Comb Busbars: White plastic comb busbars are used extensively to efficiently distribute the live/phase conductors to the input terminals of multiple MCBs. This provides a very clean and organized appearance, reducing individual wire connections.
* Bottom Section - Auxiliary/Specialized Devices:
* Larger Circuit Breaker/Switch: At the bottom left, there's a larger circuit breaker or switch, possibly a main incoming device for a specific high-power circuit, or another protective device.
* Control/Auxiliary Devices: To the right of it, there's a device with a more complex appearance, possibly a relay, contactor, or another control module. Its function isn't immediately obvious without closer inspection of its markings.
* Terminal Blocks: At the very bottom right, there are more terminal blocks, likely for outgoing circuits or connections that require robust termination.
* Wiring: The wiring is exceptionally neat and professional:
* Phase Wires: Brown and black wires (and potentially grey, though less clear) are used for phase conductors.
* Neutral Wires: Blue wires are used for neutral conductors, routed to the blue terminal blocks.
* Earth Wires: While not as prominently visible as dedicated green/yellow bars (which might be located elsewhere in the panel or directly behind the top modules), earth wires would be present, connecting to an earth bar (common in these panels).
* Cable Management: Cables are carefully routed and tied, contributing to the overall clean appearance and ease of maintenance.
In summary, this is a highly organized and professionally installed electrical distribution board, well-equipped with various protective devices (MCBs, RCDs/RCBOs) and designed to manage and distribute electrical power efficiently and safely, likely in a three-phase electrical system.

Camping24hs

29/07/2025

29/07/2025

29/07/2025

29/07/2025

29/07/2025

29/07/2025

29/07/2025

29/07/2025

29/07/2025

29/07/2025

Address

Website

Alerts

Shortcuts

Share

Category