on October 30th 5,894

TLC555CP: Pinout, Specifications, and Datasheet

The TLC555CP from Texas Instruments is an important timing circuit known for its versatility and reliability in various electronic applications. Using the innovative LinCMOS® technology, this device stands out in timing and oscillator functions across different operational modes. This article delves deep into the specifications, practical uses, and potential alternatives of the TLC555CP, providing a comprehensive analysis of its datasheet, pinout configurations, and CAD models.

Catalog

TLC555CP Overview

The 555 timer is an integrated circuit renowned for its stability and versatility in generating precise time delays or oscillations. It operates under three distinct modes. A monostable multivibrator, often used in timers and debounce circuits, produces a single output pulse of a predefined duration when triggered, returning to its stable state thereafter. An astable multivibrator functions as a continuous oscillator without a stable state, making it suitable for applications like LED flashers and generating pulse-width modulation (PWM) signals for motor control. A bistable multivibrator, resembling a flip-flop, maintains its output in one of two stable states until an external trigger is applied, ideal for latched switches where the output state needs to be preserved even after the input trigger is removed.

The TLC555CP variant utilizes the TI LinCMOSE process, ensuring seamless compatibility with CMOS, TTL, and MOS logic systems, and operates effectively up to 2 MHz. Its high input impedance allows the use of smaller capacitances in timing applications, enhancing accuracy and reducing power consumption over a variety of supply voltages. The LinCMOSE process not only enhances noise immunity but also lowers operational power, which is good for battery-powered devices. This highlights the TLC555’s efficiency and reliability in a wide range of electronic designs. The unique architecture and process technology of the TLC555 shows its practical importance. In precision engineering scenarios, ensuring minimal performance deviation is required. The high input impedance of the TLC555 supports this, reflecting minimalistic design principles and aligning with technological trends focused on efficiency and reliability.

TLC555CP Pin Configuration

Pin Number	Pin Name	Description
1	GND	Ground
2	THRES	Start of timing input. TRIG < 1/2 CONT sets output high and discharge open.
3	OUT	High current timer output signal.
4	RESET	Active low reset input forces output and discharge low
5	CONT	Controls comparator thresholds. Outputs 2/3 VDD and allows bypass capacitor connection.
6	THRES	End of timing input. THRES > CONT sets output low and discharges low.
7	DISCH	Open collector output to discharge timing capacitor.
8	VDD	Power-supply voltage.

TLC555CP Symbol, Footprint, and CAD Models

TLC555CP Applications

Precision Timing

The TLC555CP is exemplary in precision timing scenarios. It configures accurate time intervals crucial in digital circuits, such as microcontroller systems. Here, an accurate clock source is needed for synchronization, ensuring minimal timing drifts over time and thereby maintaining system reliability.

Pulse Generation

The IC excels in creating consistent and repeatable pulses for pulse generation tasks. These pulses are use in data communication systems, encoding data into electrical signals. This consistency is use for developing hardware interfaces, particularly where timing accuracy ensures robust data transmission even under challenging conditions.

Sequential Timing

Managing events in a specific sequence, the TLC555CP proves valuable in sequential timing within industrial automation processes. Operations must follow a precise order, and employ this IC to create delay sequences that ensure safety protocols and precise control over mechanical actuators.

Time Delay Generation

In generating specific delays, the TLC555CP is reliable and highly effective. For instance, it is used to design delay circuits in audio processing units or timed alerts within security systems. The accurate delay settings offer superior design flexibility and operational dependability.

Modulations (PWM, Pulse Position)

The TLC555CP’s modulation capabilities, including Pulse Width Modulation (PWM) and pulse position modulation, are noteworthy. PWM is great for controlling motor speeds in robotics, enhancing performance through fine control over motor dynamics. Pulse position modulation is similarly in communication systems, making this IC a preferred choice for engineers targeting high-performance designs.

Linear Ramp Generation

The IC's capacity for linear ramp generation is great in practical applications like waveform generation for testing and measurement equipment for creating a linear voltage increase. The deterministic output aids in accurate calibration and testing, contributing to reliable and precise signals.

TLC555CP Specifications

Type	Parameter
Lifecycle Status	ACTIVE (Last Updated: 3 days ago)
Mount	Through Hole
Package / Case	8-DIP (0.300, 7.62mm)
Weight	440.40842mg
Packaging	Tube
JESD-609 Code	e4
Part Status	Active
Number of Terminations	8
Type	555 Type, Timer/Oscillator (Single)
Max Power Dissipation	1W
Terminal Position	DUAL
Supply Voltage	5V
Current Rating	250A
Base Part Number	TLC555
Operating Supply Voltage	2.5V
Supply Voltage-Min (Vsup)	2V
Factory Lead Time	8 Weeks
Mounting Type	Through Hole
Number of Pins	8
Operating Temperature	0°C-70°C
Series	LinCMOS™
Pbfree Code	yes
Moisture Sensitivity Level (MSL)	1 (Unlimited)
ECCN Code	EAR99
Terminal Finish	Nickel/Palladium/Gold (Ni/Pd/Au)
Voltage - Supply	2V-15V
Number of Functions	1
Terminal Pitch	2.54mm
Frequency	2.1MHz
Pin Count	8
Power Supplies	5V
Operating Supply Current	360μA
Nominal Supply Current	360μA
Output Current	15mA
Number of Timers/Counters	1
High Level Output Current	-10mA
Height	5.08mm
Width	6.35mm
REACH SVHC	No SVHC
RoHS Status	RoHS3 Compliant
Power Dissipation	1W
Quiescent Current	250μA
Supply Current-Max (Isup)	0.4mA
Low Level Output Current	100mA
Length	9.81mm
Thickness	3.9mm
Radiation Hardening	No
Lead Free	Lead Free

TLC555CP Microcontroller Features

Energy Efficiency

The TLC555CP is designed to minimize power usage, drawing just 1mW at a 5V supply. This aspect becomes valuable in battery-dependent devices, where conserving energy can lead to a noticeable extension of operational life. This power efficiency is beneficial, especially for devices placed in remote or difficult-to-reach locations, as it can reduce the inconvenience and cost of frequent battery changes, making it a practical choice for conscious about maintenance efforts.

Operational Modes

Operating primarily in the astable mode, the TLC555CP generates continuous square waveforms. This capability provides timing, frequency generation, and clock pulse functionalities, making it a versatile component in a wide range of electronic circuits. In practical engineering scenarios, utilizing astable circuits to achieve precise time delays stands as a proven method, showcasing the device's utility in applications requiring timing accuracy.

Output Characteristics

The TLC555CP is equipped with CMOS output featuring a rail-to-rail swing, which ensures efficient driving of digital logic circuits necessitating sharp voltage transitions. This effective output configuration is recognized for minimizing power losses while maintaining robust signal integrity.

Current Handling Capability

TLC555CP boasts of its impressive high output current capacity, capable of sourcing 10mA and sinking up to 100mA. This robust current handling ability directly drives loads like LEDs and relays, providing with the flexibility to manage larger loads without additional interfacing hardware. Those engaged in hands-on electronic design can appreciate how this feature simplifies circuit design and broadens application possibilities.

Compatibility

The TLC555CP’s compatibility with CMOS, TTL, and MOS technologies makes it highly adaptable, easily integrating into environments that utilize mixed technologies. This broad compatibility streamlines the design process, as it allows seamless interaction with various components, ultimately saving development time and effort.

Power Management

Designed with minimized supply current spikes, the TLC555CP maintains stable operation, reducing potential interference and disturbances on the power line. This feature contributes to overall system stability, which holds importance in precision-sensitive applications. Effective power management strategies often hinge on limiting transient currents to maintain the integrity of the system's performance.

Supply Range

The microcontroller reliably operates on a single power supply ranging from 2V to 15V. This wide voltage range increases its versatility across different power environments, enabling its use in both low-voltage and higher-power systems. Such adaptability allows the TLC555CP to meet various application needs with ease, from simple battery-operated gadgets to more complex industrial equipment.

Compatibility with NE555

Being fully compatible with the NE555 pinout, the TLC555CP serves as a drop-in replacement for existing NE555 designs. This pin-for-pin compatibility offers a smooth upgrade path, enhancing performance without the need for redesigning circuit boards, facilitating easier and more cost-effective system improvements.

Enhanced Durability

TLC555CP showcases high ESD protection, with a rating of 2000V per MIL-STD-883C, Method 3015.2, ensuring resilience against electrostatic discharge. This durability is use in environments prone to ESD events, helping maintain the device’s longevity and reliability. Many in the field of sensitive electronics rely on components with high ESD ratings to mitigate the risks associated with electrostatic discharges.

Automotive Qualification

This microcontroller meets automotive qualification standards, indicating its reliability and robustness for use in demanding automotive environments. Such qualifications imply adherence to rigorous performance and durability standards, necessary for automotive electronics. Design engineers in the automotive sector benefit from incorporating components that ensure sustained operation under varying temperatures and mechanical stresses, which are common in vehicle systems.

Block Diagram of TLC555CP

Comparing TLC555CP and LMC555CN

Specification	LMC555CN	TLC555CP
Rohs Code	No	Yes
Part Life Cycle Code	Transferred	Active
Package Description	DIP-8	DIP, DIP8, .3
Reach Compliance Code	not_compliant	compliant
ECCN Code	EAR99	EAR99
HTS Code	8542.39.00.01	8542.39.00.01
Analog IC - Other Type	PULSE; RECTANGULAR	PULSE; RECTANGULAR
JESD-30 Code	R-PDIP-T8	R-PDIP-T8
JESD-609 Code	e0	e4
Length	9.817 mm	9.81 mm
Moisture Sensitivity Level	1	(Not specified)
Number of Functions	1	1
Number of Terminals	8	8
Operating Temperature-Max	85 °C	70 °C
Operating Temperature-Min	-40 °C	(Not specified)
Output Frequency-Max	3 MHz	1.2 MHz
Package Body Material	PLASTIC/EPOXY	PLASTIC/EPOXY
Package Code	DIP	DIP
Package Equivalence Code	DIP8, .3	DIP8, .3
Package Shape	RECTANGULAR	RECTANGULAR
Package Style	IN-LINE	IN-LINE
Peak Reflow Temperature (Cel)	260	NOT SPECIFIED
Power Supplies	5 V	5 V
Qualification Status	Not Qualified	Not Qualified
Seated Height-Max	5.08 mm	5.08 mm
Supply Voltage-Max (Vsup)	12 V	15 V
Supply Voltage-Min (Vsup)	1.5 V	2 V
Supply Voltage-Nom (Vsup)	5 V	5 V
Surface Mount	NO	NO
Technology	CMOS	CMOS
Temperature Grade	INDUSTRIAL	COMMERCIAL
Terminal Finish	Tin/Lead (Sn/Pb)	Nickel/Palladium/Gold (Ni/Pd/Au)
Terminal Form	THROUGH-HOLE	THROUGH-HOLE
Terminal Pitch	2.54 mm	2.54 mm
Terminal Position	DUAL	DUAL
Time@Peak Reflow Temperature-Max (s)	40	NOT SPECIFIED
Width	7.62 mm	7.62 mm
Base Number Matches	2	1
Pb-free Code	(Not specified)	Yes
Part Package Code		DIP
Pin Count		8
Supply Current-Max (Isup)		0.4 mA

Alternatives of TLC555CP

Part Number	Description	Manufacturer
LMC555ENG	PULSE; RECTANGULAR, 3MHZ, TIMER, PDIP8, PLASTIC, DIP-8	Texas Instruments
MC14558P1G	Timer Circuit, 8 LEAD PDIP, 50-TUBE	onsemi
MC14558P1	1 Func, BIPolar, PDIP8, PLASTIC, DIP-8	Motorola Semiconductor Products
ICM7555IPA	1 Func, 0.1MHz, CMOS, PDIP8	Harris Semiconductor
LMC555C/NOPB	IC PULSE; RECTANGULAR, 3 MHz, TIMER, PDIP8, ROHS COMPLIANT, DIP-8, Analog Waveform Generation Function	National Semiconductor Corporation
HA17555PS-E	Timer, BIPOLAR, DIP-8, PLASTIC	Renesas Electronics Corporation
ICM7555IUA	1 Func, 0.5MHz, CMOS, CDIP8, CERDIP-8	Maxim Integrated Products
MC14545P1G	Timer Circuit, 8 LEAD PDIP, 50-TUBE	onsemi
LMC555C/NOPB	IC PULSE; RECTANGULAR, TIMER, PDIP8, PLASTIC, DIP-8, Analog Waveform Generation Function	National Semiconductor Corporation
TLC555CPE4	Texas Instruments 8-DIP (0.300, 7.62mm) 8 250 μA 100 mA 2.1MHz 5 V 8	Texas Instruments
TLC555IP	Texas Instruments 8-DIP (0.300, 7.62mm) 8 250 μA 100 mA 2.1MHz 3 V 8	Texas Instruments
NE555P	Texas Instruments 8-DIP (0.300, 7.62mm) 8 15 mA 200 mA 100kHz 5 V 8	Texas Instruments
MC1455D	ON Semiconductor PDIP 8 - 200 mA - 5 V 8	ON Semiconductor

TLC555CP Manufacturer Information

Texas Instruments Inc. (TI), based in Dallas, Texas, is recognized worldwide for its expertise in semiconductor manufacturing. The company excels in creating and producing analog chips and embedded processors, supporting industries such as automotive, industrial, personal electronics, and communications equipment. TI showcases its passion for innovation through a diverse range of over 45,000 semiconductor products. Constant advancements fuel the industry's growth, with TI's investment in research and development keeping it ahead in technological progress. For example, their progress in power management and wireless connectivity solutions addresses the intricate and interconnected needs of today's world. Texas Instruments Inc. distinguishes itself in the global semiconductor arena through its innovative drive, ethical practices, and strategic market approach. Its ongoing contributions and forward-looking vision ensure that it continues to play a role in advancing technology and addressing future challenges.

Datasheet PDF

TLC555CP Datasheets:

Copper Bond Wire Revision A 04/Dec/2013.pdf

Material Set 30/Mar/2017.pdf

NE555P Datasheets:

Cylindrical Battery Holders.pdf

NA555, NE555, SA555, SE555.pdf

2.73KHz.pdf

Frequently Asked Questions [FAQ]

1. What is the TLC555?

The TLC555 is a monolithic timing circuit manufactured using the TI LinCMOSE process. It is exceptionally versatile and applies to various timing, pulse generation, and oscillator functions. Others frequently resort to it for creating precise timer delays and pulse width modulation. Understanding its different configurations allows you to enhance circuit designs and improve overall system functionality, showcasing its adaptability.

2. What’s the minimum operating temperature for the TLC555CP?

The TLC555CP operates reliably at a minimum temperature of -40°C. This capacity ensures performance in extreme environmental conditions, making the TLC555CP suitable for industrial and automotive sectors. Others often consider such temperature parameters for durability and efficiency in designs exposed to harsh temperature variations.

3. What’s the minimum supply voltage for the TLC555CP?

The TLC555CP requires a minimum supply voltage of 2V, making it ideal for battery-operated devices and energy-efficient systems. Implementing components with low power needs enhances the longevity and sustainability of portable electronic devices, reflecting a growing emphasis on energy conservation in modern electronics.

4. What’s the high-level output current for the TLC555CP?

The High-Level Output Current for the TLC555CP is 100 mA, indicating its capacity to drive loads effectively. This capability benefits compact and efficient designs in consumer electronics. The ability to manage significant output currents without compromising performance.

5. What’s the operating supply current for the TLC555CP?

The operating supply current for the TLC555CP is 250 μA. This small current requirement highlights its efficacy in low-power applications. Engineers designing embedded systems value such low operating currents to achieve longer battery life and reduced overall power consumption, crucial aspects in the development of green technologies.