Hình ảnh chỉ để tham khảo
LM393D
+BOMCOMPARATOR
-
Nhà sản xuấtonsemi
-
Ông. Phần #LM393D
-
Bảng dữ liệu LM393D DataSheet
-
Gói SOIC-8
-
Có sẵn6380
365 Đảm bảo chất lượng ngày
7*24 giờ dịch vụ quarantee
90-Bảo hành sau bán hàng ngày
Bảo hành sản phẩm chính xác
Thông số kỹ thuật
| thuộc tính | Giá trị |
| Package / Case | Tube |
| Part Status | Obsolete |
| Type | General Purpose |
| Number of Elements | 2 |
| Output Type | CMOS, DTL, ECL, MOS, Open-Collector, TTL |
| Voltage - Supply, Single/Dual (±) | 2V ~ 36V, ±1V ~ 18V |
| Voltage - Input Offset (Max) | 5mV @ 30V |
| Current - Input Bias(Max) | 0.25µA @ 5V |
| Current - Output (Typ) | 18mA @ 5V |
| Current - Quiescent (Max) | 2.5mA |
| Operating Temperature | 0°C ~ 70°C |
| Mounting Type | Surface Mount |
Tổng quan
Description
Key features of the LM393D include low power consumption, a wide supply voltage range (typically 2V to 36V), and the ability to handle single or dual power supply configurations. Its open-collector output allows it to interface easily with various logic levels, making it suitable for level shifting and other interfacing needs.
The LM393D is commonly used in applications such as zero-crossing detectors, voltage level detectors, and in circuits requiring low power and precise voltage comparison. Its compact size and robust performance make it ideal for use in portable devices and battery-operated systems. The chip is available in different packaging options, including surface-mount (SOIC) and through-hole (DIP) versions.
Equivalent
Features
1. Wide Supply Voltage Range: It operates over a wide range from 2V to 36V for a single supply or ±1V to ±18V for dual supplies.
2. Low Input Offset Voltage: The low offset voltage enhances accuracy and precision in voltage comparison.
3. Low Input Bias Current: This feature minimizes the loading on the input signal sources.
4. Low Power Consumption: Ideal for battery-operated devices, it consumes minimal power.
5. Open-Collector Output: Facilitates interfacing with other logic families and allows for wired-AND configurations.
6. High Gain and Wide Bandwidth: Ensures precise and responsive performance in applications requiring fast switching.
7. Low Output Saturation Voltage: Enhances performance by allowing near-ground-level outputs in low-voltage applications.
8. Temperature Range: Operates efficiently across a wide temperature range from -40°C to 85°C.
These features make the LM393D suitable for applications like zero-crossing detectors, voltage level shifters, and multivibrators.
Pinout
1. Pin 1 (Output 1): The output of the first comparator.
2. Pin 2 (Inverting Input 1, -IN1): The inverting input terminal for the first comparator.
3. Pin 3 (Non-inverting Input 1, +IN1): The non-inverting input terminal for the first comparator.
4. Pin 4 (VCC- or GND): The ground or negative supply voltage terminal.
5. Pin 5 (Non-inverting Input 2, +IN2): The non-inverting input terminal for the second comparator.
6. Pin 6 (Inverting Input 2, -IN2): The inverting input terminal for the second comparator.
7. Pin 7 (Output 2): The output of the second comparator.
8. Pin 8 (VCC+): The positive supply voltage terminal.
The LM393D is used to compare voltages and outputs a logic level depending on the comparison, suitable for applications like zero-crossing detectors, voltage level shifters, and oscillator circuits.
Manufacturer
STMicroelectronics, based in Switzerland, is a multinational electronics and semiconductor manufacturer. It provides a wide range of semiconductor solutions for a variety of applications, including automotive, industrial, and consumer electronics.
ON Semiconductor is an American company specializing in energy-efficient electronics. It offers a comprehensive portfolio of power and signal management, logic, discrete, and custom devices for various applications.
These companies are key players in the semiconductor industry, focusing on innovation, quality, and customer service, supplying components that are essential for various electronic devices and systems.
Application
1. Sensor Signal Conditioning: Used in interfacing with sensors to compare sensed signals with reference levels.
2. Zero-Crossing Detectors: Employed in AC signal processing for detecting zero-voltage crossing.
3. Voltage Level Shifters: Converts voltage levels in mixed-signal circuits.
4. Oscillators: Utilized in creating square wave oscillations.
5. Pulse Width Modulation (PWM) Circuits: For controlling power delivery in motor controllers.
6. Limit Detectors: Used in setting threshold levels in various electronic devices.
Its low power consumption and ability to process low voltage signals make it versatile in battery-operated devices.