圖片僅供參考
BR3D4UC
+物料清單CB MCB 489 3P D 4A ACDC
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製造商魏德米勒
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製造商部分 #BR3D4UC
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有存貨6
365 天品質保證
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90-日售後保障
正品保證
規格
| 屬性 | 價值 |
| Supplier | Weidmüller |
| Package / Case | Bulk |
| Series | BRxxxUC |
| Part Status | Active |
| Mounting Type | DIN Rail |
| Breaker Type | Thermal Magnetic |
| Current Rating (Amps) | 4A |
| Voltage Rating - AC | 277 V |
| Actuator Type | Lever |
| Number of Poles | 3 |
概述
Description
In a general sense, an introduction to such a topic would typically cover the fundamental aspects, purpose, and key features of BR3D4UC. This might include its definition, the problem it aims to solve, its applications, and potential benefits. Additionally, an introduction might address the target audience or users, the technology or methodology it employs, and any unique selling points or innovative elements that differentiate it from existing solutions or concepts.
For a concise and accurate introduction, further specific information about what BR3D4UC stands for or represents would be necessary.
Equivalent
Pinout
For the BR3D4UC, the pin count typically involves a small number of pins due to its integrated circuit nature, often around 8 pins. The exact pin count and configuration can vary slightly depending on the specific package type (e.g., SOP, SSOP, etc.).
Regarding the function of each pin, typically for RTC ICs like the BR3D4UC, you would find the following general functions:
- Power Supply Pins: VDD (power supply) and GND (ground).
- Communication Interface Pins: Serial data (SDA) and serial clock (SCL) for I2C communication.
- Oscillator Pins: Connections for an external crystal oscillator.
- Interrupts/Alarms: Pins for outputting interrupt signals.
- Control Pins: May include pins for reset or control functions.
For precise pin configuration and functions, refer to the manufacturer's datasheet for the BR3D4UC, as it provides detailed specifications and pin assignments.
Manufacturer
Application
1. Construction: Enhancing the structural resilience of 3D-printed buildings against environmental uncertainties like earthquakes or extreme weather.
2. Aerospace: Improving the durability and safety of 3D-printed components used in aircraft and spacecraft.
3. Healthcare: Developing resilient 3D-printed implants or prosthetics that can withstand varied physical stresses.
4. Automotive: Creating robust 3D-printed parts for vehicles that address material fatigue and wear.
5. Defense: Producing durable 3D-printed equipment and components for military applications in harsh environments.
6. Manufacturing: Ensuring the reliability of 3D-printed tools and machinery under variable operational conditions.