Your Guide into CD4013 Dual D Flip-Flop
2024-11-07 12460

The CD4013 dual D flip-flop exemplifies the intriguing capabilities of CMOS integrated circuits, widely recognized for their adaptability in electronics. Consisting of N- and P-channel enhancement mode transistors, this component brings distinct benefits to digital and analog circuits. Through an exploration of its functionalities, specifications, and uses, one gains a richer understanding of its place in contemporary electronic design.

Catalog

Description of Dual D Flip-Flops

A D flip-flop embodies a role in digital electronics, adept at maintaining a logic state across clock cycles. It skillfully captures input data (D) and faithfully channels it to the output (Q) coinciding with the rising edge of a clock signal. Such precision plays into the harmonious functioning of digital systems where precise timing and systematic data transfer are valued, as exemplified in digital television systems and computer processors. Its design, evolved from a gated SR flip-flop complemented by an inverter, smartly overcomes the potential hazards of race conditions by limiting the possibility of simultaneous set and reset activities.

D	CLK	Q
0	Rising Edge	0
1	Rising Edge	1

In these applications, we often engage in thoughtful manipulation of the placement and orientation of D flip-flops, drawn by an intrinsic desire to uplift both system dependability and operational efficiency. This endeavor emphasizes a profound commitment to preserving data fidelity and ensuring coordinated operations within integrated circuits.

Overview of the CD4013

The CD4013 is equipped with two separate D-type flip-flops. These flip-flops function independently, each having its unique data, set, reset, and clock inputs, alongside Q and Q outputs, facilitating dependable and adaptable control logic for digital circuits. As a CMOS device, it stands out for its reduced power consumption and impressive high input impedance. These characteristics make it a fitting candidate for environments where efficiency and low interference are required.

CD4013 Pin Configuration

Pin Number	Pin Name	Pin Description
14	VDD	Supply voltage input, 5V to 15V
7	VSS	Ground reference
1, 2	INPUT	AND gate one input
3	OUTPUT	AND gate one output
5, 6	INPUT	AND gate two inputs
4	OUTPUT	AND gate two output
8, 9	INPUT	AND gate three inputs
10	OUTPUT	AND gate three output
12, 13	INPUT	AND gate four inputs
11	OUTPUT	AND gate four output

CAD Model of CD4013

Technical Specifications

The CD4013BCM, developed by ON Semiconductor, introduces parameters such as clock rates, supply voltages, and current consumption. These enable a tailored approach to creating compatible and efficient electronic designs. Analyzing the maximum clock frequency ensures that device functionality maintains its peak performance. Here are the specifications of CD4013BCM.

Type	Parameter
Mount	Surface Mount
Package / Case	14-SOIC (0.154, 3.90mm Width)
Supplier Device Package	14-SOIC
Number of Elements	2
Packaging	Tube
Published	2002
Moisture Sensitivity Level (MSL)	1 (Unlimited)
Type	D-Type
Min Operating Temperature	-55°C
Frequency	15.5MHz
Function	Set(Preset) and Reset
Polarity	Non-Inverting
Number of Circuits	2
Min Supply Voltage	3V
Number of Bits	2
Propagation Delay	350 ns
Logic Function	AND, D-Type, Flip-Flop
Number of Inputs	1
Number of Bits per Element	1
Trigger Type	Positive Edge
Input Capacitance	5pF
Number of Input Lines	1
REACH SVHC	No SVHC
Lead Free	Lead Free
Mounting Type	Surface Mount
Number of Pins	14
Clock-Edge Trigger Type	Positive Edge
Operating Temperature	-55°C~125°C TA
Series	4000B
Part Status	Obsolete
Termination	SMD/SMT
Max Operating Temperature	125°C
Voltage - Supply	3V~15V
Base Part Number	4013
Output Type	Differential
Voltage	18V
Max Supply Voltage	15V
Output Current	8.8mA
Clock Frequency	15.5MHz
Turn On Delay Time	85 ns
Current - Quiescent (Iq)	4µA
Number of Gates	2
Max Propagation Delay @ V, Max CL	120ns @ 15V, 50pF
High Level Output Current	-4.2mA
Low Level Output Current	4.2mA
Number of Output Lines	1
RoHS Status	RoHS Compliant

 

Attributes of the CD4013 Flip-Flop

Dynamic Set/Reset Potential

The CD4013 flip-flop is equipped with asynchronous set and reset functionalities that empower us to create sophisticated control systems without clock cycle constraints. This adaptability is especially appreciated when systems demand an agile response to incoming signals, thereby enhancing operational adaptability. With its ability to change states rapidly, it proves advantageous in situations demanding prompt action.

Balanced Speed Capability

Capable of operating at speeds up to 16 MHz, the CD4013 serves as an efficient mediator between performance and energy consumption. This speed suffices for a breadth of applications ranging from control circuits to intricate timing configurations. We often gravitate towards such balanced-speed devices to achieve a harmony between energy efficiency and signal processing, marking the CD4013 as a well-suited option for these applications.

Consistent Output Features

The symmetrical output of the CD4013 ensures dependable performance across various states, providing assurance in the predictability of circuit operations. This reliability eases the burden of design, especially in scenarios where consistent output is central to sustaining the system's stability. The flip-flop's steadiness in performance can greatly augment the dependability of the overall system.

Extensive Voltage Range Support

Operating within a voltage spectrum of 3.0V to 15V, the CD4013 accommodates a variety of power supply levels, enabling smooth integration into a wide array of systems. This adaptability across different power conditions enhances the device's flexibility, making it a suitable choice for environments characterized by inevitable voltage fluctuations.

Robust Noise Resistance

With outstanding noise resistance, the CD4013 stands strong in electrically challenging settings, ensuring that signal clarity is preserved amidst potential electromagnetic disruptions. This robustness is highly valued in industrial contexts, where interference could compromise signal fidelity, leading to faulty system operations. By maintaining resilience, it consistently delivers reliable performance, even in demanding scenarios.

Widely Compatible Logic Levels

The CD4013's support for both TTL and CMOS logic levels extends its applicability across various digital systems. This dual compatibility streamlines incorporation into mixed-logic architectures, simplifying design efforts and reducing expenses related to extra interfacing elements. Such adaptability encourages efficient engineering strategies, providing ample room for creative system development.

Applications of CD4013

The CD4013 integrated circuit offers extensive versatility, making it a viable choice for a wide range of applications. By understanding its adaptability, one can fully leverage its capabilities across different sectors.

Power Control Systems

CD4013 finds frequent application in power control systems for its adeptness in managing voltage levels with precision. Its role in providing a stable power supply ensures equipment functionality and safety. We incorporate it in situations demanding accurate voltage control, thereby enhancing system efficiency and extending electronic component lifespans.

Infrastructure Networks

Within infrastructure networks, CD4013 plays a role in maintaining operational consistency and resilience. Used extensively in the transportation and energy sectors, it enhances signal integrity over long durations. Its contribution to synchronization processes is invaluable in extensive networks where timing and dependability are required. The chip’s ability to withstand varied environmental conditions further emphasizes its role in these networks.

Medical Devices

CD4013's importance is noted in medical devices due to its precision and reliability. Employed in diagnostic and monitoring equipment, it processes data with high accuracy, supporting life-protecting technologies. Such dependability aligns closely with healthcare requirements, where accuracy affects patient care outcomes.

Automotive Electronics

In automotive electronics, CD4013 facilitates the development of smarter and more efficient systems. It is integrated into vehicle control units and sensor systems, which improves performance and energy management. Its seamless integration supports advancements like automated driving and heightened safety measures, epitomizing modern vehicular technology.

Building Automation

In building automation, CD4013 is central to crafting responsive and intelligent systems. It uses cover controls for HVAC, lighting, and security systems. By ensuring harmonious operation across diverse systems, it aids in energy conservation and building management, resonating with initiatives centered on sustainability.

Telecommunications

CD4013’s robust features make it in telecommunications. Its role spans managing data transmission and supporting network reliability. The chip is in routers and switches, facilitating effective communication pathways for contemporary connectivity demands. Its part in error-checking enhances the integrity and swiftness of data transfer.

Testing Equipment

The precision CD4013 offers is in testing equipment. Extensively used in calibrating and testing electronic components, it ensures the delivery of accurate measurements. This proves helpful in quality control, where reliability and accuracy are imperative. Its ability to discern component characteristics supports both product development and innovation strategies.

Circuit of CD4013

To power the 4013 IC, connect VSS (pin 8) to the ground and supply 5V to VDD (pin 16). A clock signal is then connected to the 4013’s clock input at pin 3. This clock signal can be sourced from various components, such as a frequency generator, a 555 timer IC, a 4046 IC, or even a 7414 Schmitt trigger inverter.

Each of the three input pins—the data, set, and reset pins—has a pull-down resistor attached. When the pushbutton is not pressed, these pins remain in a LOW state. Pressing the pushbutton changes the pin state to HIGH. Thus, initially, all pins are set to 0, but they switch to a value of 1 when the pushbutton is pressed.

Diagram of CD4013

To achieve smooth performance of the CD4013, it's advisable to carefully connect VDD and GND to their respective power terminals. The device operates within a voltage range of 3V to 15V, and some models extend up to 20V. Reference the specific datasheet to determine these capabilities. Considerations regarding power supply play a role in integrating the CD4013 into various electronic frameworks. Data input through the D pin stays dormant until a decisive trigger—a transition from LOW to HIGH—activates at the CLK pin.

• The D (data) pin is where you input the data you want to store in the flip-flop.

• Provide a signal that goes from LOW to HIGH on the CLK pin to store the data from the D pin to the output pin Q.

• The output pin Q is always the opposite of pin Q.

• Use the S (set) pin to force the output pin HIGH.

• Use the R (reset) pin to force the output pin LOW.

CD4013 Substitute Models

• 4174: Hex D-type Flip-Flop

• 4175: Quad D-type Flip-Flop

• 40174: Hex D-type Flip-Flop

• 40175: Quad D-type Flip-Flop

• 74HC74: Dual D-type Flip-Flop

• 74HC79: Dual D-type Flip-Flop

CD4013 Dimensions

CD4013 Manufacturer

On Semiconductor, listed on Nasdaq as ON, is dedicated to enhancing energy-efficiency through its diverse range of power and signal management, logic, and customized solutions. It boasts robust supply chain capabilities complemented by a network of high-reliability manufacturing facilities, sales offices, and design centers located strategically across North America, Europe, and the Asia Pacific, catering to markets.

Datasheet PDF

CD4013BCM Datasheets

CD4013BCM.pdf
CD4013BCM Details PDF
CD4013BCM PDF - DE.pdf
CD4013BCM PDF - FR.pdf
CD4013BCM PDF - ES.pdf
CD4013BCM PDF - IT.pdf
CD4013BCM PDF - KR.pdf