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CD4015BE
+StücklisteIC SR PUSH-PULL 4BIT 16-PDIP
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HerstellerTexas Instruments
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Herstellerteil #CD4015BE
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Datenblatt CD4015BE DataSheet
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Auf Lager5995
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Spezifikationen
| Attribut | Wert |
| Series | 4000B |
| Part Status | Active |
| Logic Type | Shift Register |
| Output Type | Push-Pull |
| Number of Elements | 2 |
| Number of Bits per Element | 4 |
| Function | Serial to Parallel |
| Voltage - Supply | 3V ~ 18V |
| Operating Temperature | -55°C ~ 125°C |
| Mounting Type | Through Hole |
| Package / Case | 16-DIP (0.300", 7.62mm) |
| Supplier Device Package | 16-PDIP |
| Base Product Number | CD4015 |
Übersicht
Description
Key specifications include a wide operating voltage range (typically 3V to 15V), low power consumption, and high noise immunity. The CD4015BE supports both positive and negative logic levels, making it versatile for different digital applications.
It is ideal for use in applications such as data conversion, delay lines, and state machines. The device is typically packaged in a dual-in-line (DIP) format, making it easy to integrate into electronic projects and prototyping. Overall, the CD4015BE is a reliable choice for engineers and hobbyists working with digital circuits.
Equivalent
Features
1. Dual Shift Registers: Contains two independent 4-bit shift registers, allowing for serial-in/serial-out (SISO) or parallel-in/parallel-out (PIPO) configurations.
2. CMOS Technology: Operates on a wide voltage range typically from 3V to 15V, making it suitable for various applications.
3. Low Power Consumption: Designed for low power operation, ideal for battery-powered devices.
4. Asynchronous Reset: Each register can be reset independently, facilitating easy control.
5. Data Transfer: Capable of shifting data on both rising and falling edges of a clock signal, providing flexibility in timing applications.
6. Wide Operating Temperature: Designed to function within a broad temperature range, enhancing reliability in diverse environments.
7. Available Packages: Typically available in DIP and SOIC packages for easy integration into circuits.
This makes the CD4015BE versatile for digital applications, including data storage, communication, and control systems.
Pinout
1. V_DD (Pin 1): Supply voltage (positive).
2. Q1 (Pin 2): Output of the first shift register.
3. Q2 (Pin 3): Output of the second shift register.
4. Q3 (Pin 4): Output of the third shift register.
5. Q4 (Pin 5): Output of the fourth shift register.
6. MR (Pin 6): Master Reset input (active low).
7. S1 (Pin 7): Shift input for the first register.
8. S2 (Pin 8): Shift input for the second register.
9. CLK (Pin 9): Clock input for shifting data.
10. D (Pin 10): Serial data input.
11. D0 (Pin 11): Parallel data input for the first register.
12. D1 (Pin 12): Parallel data input for the second register.
13. V_SS (Pin 13): Ground.
14. Q1' (Pin 14): Inverted output of the first shift register.
15. Q2' (Pin 15): Inverted output of the second shift register.
16. NC (Pin 16): No connect.
These pins facilitate the register's operation in digital circuits, allowing for data storage and manipulation.
Manufacturer
NXP focuses on various applications, including automotive, industrial, Internet of Things (IoT), mobile, and infrastructure markets. The company is known for its innovation in semiconductor technology and has a strong emphasis on enabling secure connectivity and efficient processing capabilities in electronic devices.
In addition to NXP, other manufacturers like Texas Instruments and ON Semiconductor may also produce variations of the CD4015 series, as it falls under a common specification widely utilized in digital logic applications. These companies collectively contribute to the development of advanced electronic solutions across various industries.
Application
1. Data Storage: Temporary storage of binary data in digital circuits.
2. Data Serial-to-Parallel Conversion: Converting serial data inputs into parallel outputs for easier processing.
3. Signal Delay: Introducing controlled delays in signal timing for synchronization in digital systems.
4. Pattern Generators: Creating specific binary sequences for testing or control purposes.
5. Asynchronous Counters: Used in combination with other logic devices to construct counters.
6. Control Systems: Managing state changes in digital control applications.
Its versatility in handling binary data makes it valuable in many electronic designs.