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TS393ID - Dual Micropower CMOS Comparator | STMicroelectronics
TS393ID

TS393ID - Dual Micropower CMOS Comparator | STMicroelectronics

STMicroelectronics TS393ID is a micropower dual CMOS voltage comparator with an operating supply range of 2.7 V to 16 V, typical consumption of 9 µA per comparator, and open-drain outputs in an 8-pin SOIC package. The device contains two independent comparison channels, making it suitable for dual-threshold, window-monitoring, sensing, and low-power signal-conditioning circuits. Its typical supply current is stated as approximately 20 times lower than that of the bipolar LM393, while retaining the familiar open-drain output architecture. A voltage comparator is an analog integrated circuit that compares two input voltages and changes its output state according to their relationship. The TS393ID belongs to the comparator hierarchy within analog and mixed-signal semiconductors. Its CMOS implementation emphasizes low supply current, and its open-drain outputs allow multiple devices to share a common pull-up when wired-AND behavior is required. These characteristics place it between simple threshold logic and more complex analog front ends. The primary features include two independent CMOS comparators, a 2.7 V to 16 V supply range, and 9 µA typical current consumption per comparator. Each output is open drain and requires an external pull-up resistor when a logic-high output is required. The SOIC-8 package provides a conventional surface-mount footprint suitable for compact industrial, consumer, instrumentation, and embedded-control designs. The manufacturer also identifies the TS3702 as a related dual micropower comparator offering similar performance with push-pull CMOS outputs. Electrically, the open-drain stage can pull its output low but cannot actively drive a high level. This gives designers control over rise time through the pull-up resistor and allows several comparator outputs to share a bus. That flexibility is useful in battery-powered equipment where minimizing activity is important, although the external pull-up contributes its own continuous current after an output is released. The two channels can compare different signal pairs or operate together for window supervision. Typical applications include battery-powered threshold detection, sensor signal conditioning, overvoltage and undervoltage indication, temperature-alarm circuits, industrial control interfaces, and low-power monitoring modules. The comparator may be used with op-amp-like input networks, dividers, current sensors, or digital control inputs where the required decision is binary. Because output polarity and timing determine system behavior, both input and output details should be checked against the manufacturer datasheet before final circuit release. A key design consideration is the external pull-up on each open-drain output. Select its resistance to balance noise immunity, switching speed, and power consumption, then confirm that every connected output can safely share the same node. Account for input common-mode limits, supply decoupling, output rise time, and any required hysteresis. The two channels are independent, so grounding or signal-conditioning requirements should be evaluated separately for each comparator. This page combines the TS393ID's verified electrical and packaging characteristics with drop-in candidate evaluation, parameter-by-parameter comparison, sourcing guidance, and practical circuit-design notes. It is intended to accelerate component selection while preserving the need to confirm detailed operating limits and timing behavior against the manufacturer datasheet.

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TS393IN - 2-Channel 9 uA CMOS Comparator | STMicroelectronics
TS393IN

TS393IN - 2-Channel 9 uA CMOS Comparator | STMicroelectronics

The STMicroelectronics TS393IN is a micropower dual CMOS voltage comparator with two independent comparison channels, a typical supply current of 9 uA per comparator, and a typical response time of 2.5 us in an 8-pin DIP package. It provides an open-drain output configuration and is designed as a low-power alternative to the conventional bipolar LM393. A voltage comparator is an analog integrated circuit that compares two input voltages and changes its output state when the non-inverting input rises above the inverting input, or conversely. Within the broader semiconductor hierarchy, the TS393IN belongs to the comparator and amplifier IC class, supporting signal conditioning, threshold detection, sensing, and control applications. Its CMOS construction combines low bias current with high input impedance, helping preserve weak sensor signals. Key features include extremely high input impedance of 10^12 ohms typical, low typical consumption of 9 uA per comparator, and a response time of 2.5 us typical. The device is compatible with bipolar LM393 applications while offering CMOS input behavior. Two independent channels allow simultaneous comparisons or the implementation of window-comparator and independent threshold-detection functions within one package. The open-drain outputs require an external pull-up resistor when the output must reach a defined logic-high voltage. This arrangement supports wired-open-drain logic, level translation, and system designs in which several devices share a bus, provided the pull-up voltage and sink-current limits are checked. Each comparator can also operate in the standard comparator configuration, with one input serving as the threshold and the other accepting the sensed signal. Typical uses include battery-powered sensor interfaces, low-voltage threshold detection, industrial control logic, monitoring systems, and compact embedded equipment. The TS393IN is particularly useful when the signal source has high source impedance and conventional bipolar comparators would load the input. Its low power consumption also benefits longer-running battery systems, although total system current should include pull-up resistors and external circuitry. For PCB layout, place the pull-up resistors close to the open-drain output nets and keep sensitive input traces away from switching nodes and high-current return paths. Confirm the absolute maximum supply voltage, input common-mode range, output sink current, and input protection limits against the manufacturer datasheet before applying either input beyond the recommended operating range. This product page combines the TS393IN electrical characteristics, pin assignment, package information, practical comparator design guidance, application examples, and drop-in replacement analysis to support faster component selection and board-level implementation.

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TS393MD - Micropower Dual CMOS Comparator | STMicroelectronics
TS393MD

TS393MD - Micropower Dual CMOS Comparator | STMicroelectronics

The STMicroelectronics TS393MD is a micropower dual CMOS voltage comparator with two independent comparison channels, open-drain outputs, and an 8-pin SOIC package. Each channel consumes 9 uA typically, has a typical input impedance of 10^12 ohm, and provides a typical response time of 2.5 us. The device is designed for low-power sensing and control circuits requiring high input impedance. A voltage comparator is an analog integrated circuit that compares an input voltage against a reference voltage and changes its output state when the relationship between those voltages changes. Comparators are used within analog signal chains, embedded control systems, and power management equipment. The TS393 belongs to the comparator family, the amplifier and analog IC hierarchy, and ultimately the broader integrated-circuit and semiconductor categories. The TS393MD provides two CMOS comparator channels in one package, reducing component count in dual-threshold or dual-signal systems. Its open-drain outputs permit wired-AND behavior when suitable pull-up resistors are installed. High input impedance minimizes loading of the sensed source, while the 2.5 us typical response time supports applications that need meaningful response speed without the continuous power demand of a faster bipolar comparator. The 9 uA typical supply current per comparator makes the device suitable for battery-operated instruments, portable monitors, and low-power sensor interfaces. STMicroelectronics describes the TS393 as compatible with the bipolar LM393 architecture, which can simplify comparison with conventional dual-comparator designs. The manufacturer also offers the similar TS3702 as a push-pull-output alternative, although its output topology is not interchangeable with the TS393MD open-drain interface without circuit changes. Typical uses include battery-powered threshold detection, sensor signal conditioning, industrial control inputs, and low-power monitoring systems. In each case, the two channels can monitor independent quantities or provide complementary decisions around a reference voltage. The TS393MD is also suitable where the source impedance is high and the comparator should avoid materially loading the monitored node. Designers should account for the open-drain output when selecting pull-up voltage and resistance. Input common-mode limits, supply-voltage range, offset behavior over temperature, and output sink-current capability must be checked in the manufacturer datasheet before finalizing a circuit. PCB placement should keep the comparator input paths short and away from high-current switching nodes to reduce noise coupling. This page combines the manufacturer device description, distributor package information, practical application guidance, and verified drop-in replacement information. It also identifies the measurable differences among directly compatible SOIC-8 options, helping engineers compare output type, supply current, temperature range, and qualification requirements before making a board-level replacement.

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TS3A27518ERTWR - 6-Ch 2:1 Analog Mux, 240MHz | Texas Instruments
TS3A27518ERTWR

TS3A27518ERTWR - 6-Ch 2:1 Analog Mux, 240MHz | Texas Instruments

The Texas Instruments TS3A27518ERTWR is a bidirectional 6-channel 1:2 (SPDT) analog multiplexer/demultiplexer with 6.2 ohm on-resistance, 240 MHz bandwidth, and integrated IEC 61000-4-2 ESD protection, housed in a 24-pin WQFN (4x4 mm) package operating from a 1.65 V to 3.6 V single supply. An analog multiplexer is a signal-routing semiconductor that selects one of several input channels and connects it to a common output, functioning as a digitally controlled switch for both analog and digital signals. Within the signal-chain hierarchy, it sits between passive switches and full crosspoint matrices, and belongs to the broader family of interface and analog switch ICs used in power management and signal conditioning subsystems. Key features include low 6.2 ohm typical on-resistance for minimal signal attenuation, 21.5 pF typical switch capacitance, up to 240 MHz bandwidth for high-speed rail-to-rail signal handling, and -62 dB crosstalk and OFF isolation. The device also provides isolation in power-down mode (VCC = 0 V), and 1.8 V logic-threshold-compatible control inputs that allow direct interfacing with low-voltage microcontrollers. Architecturally, the TS3A27518E uses two control pins, each simultaneously controlling three 1:2 multiplexer sections, plus an enable pin that places all outputs in high-impedance mode. Integrated ESD cells rated to IEC 61000-4-2 on the signal pins eliminate the need for external TVS diodes in USB and port-protection designs, and the device is qualified for automotive applications. Typical applications include USB 2.0 high-speed signal switching, audio jack and headset detection, battery-powered portable equipment, and general-purpose analog signal routing in industrial systems. A key design consideration is on-resistance flatness across the signal range: at lower VCC the Ron rises, so budget for insertion loss at 1.65 V operation, and keep stub lengths short to preserve the 240 MHz bandwidth. This page adds value beyond the datasheet by synthesizing distributor pricing tiers, drop-in alternatives, cross-reference data, and practical design notes in one reference.

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TS3A44159RGTR - 0.45Ω Quad SPDT Analog Switch | TI
TS3A44159RGTR

TS3A44159RGTR - 0.45Ω Quad SPDT Analog Switch | TI

The Texas Instruments TS3A44159RGTR is a 0.45-Ω quad-channel single-pole double-throw (SPDT) analog switch housed in a 16-pin VQFN (RGT) 3x3 mm package. Operating from 1.65 V to 4.3 V, it delivers low on-state resistance with excellent Ron matching across four independent 2:1 multiplexers and supports bidirectional signal flow on every channel. Two logic-level control inputs select between the NO/NC paths of all four switches simultaneously, simplifying firmware-driven signal routing. An analog switch is a solid-state semiconductor device that routes analog or digital signals between two or more terminals under the control of a logic-level signal. It belongs to the analog switch and multiplexer family, which sits inside the broader interface IC category of integrated circuits. Quad SPDT switches are commonly used to swap between two sources on four channels at once, an arrangement also called a 2-channel DPDT function in this device. Key features include 0.45 Ω typical on-state resistance, 50 pA typical switch leakage, break-before-make switching to prevent momentary channel cross-connection, and a -3 dB bandwidth greater than 35 MHz. The control inputs are 1.8 V logic-compatible, while supply operation extends from 1.65 V to 4.3 V. ESD protection on the switch pins exceeds 2000 V per the HBM model. Architecturally the part uses CMOS transmission gates with integrated charge-pump-derived well biasing, enabling low Ron and rail-to-rail signal swing on a single positive supply. Ron flatness is held tight across the input common-mode range, which preserves harmonic distortion performance in audio paths. The device draws only microamps of quiescent current, which is essential for battery-powered systems. Typical applications include portable audio routing between headphone jack and Bluetooth receiver, USB 2.0 high-speed signal switching, SPI/I²C bus multiplexing, smartphone audio codec path selection, and PDA or portable media player source switching. Industrial uses include 4-wire resistance measurement multiplexing and analog front-end signal routing. When designing with this part, ensure that the logic-high level on IN1/IN2 exceeds 0.85 x VDD and the logic-low is below 0.15 x VDD to guarantee full CMOS-level switching. Place 0.1 µF bypass capacitors within 5 mm of the VDD pin to keep digital control noise out of the analog path. This page synthesizes distributor pricing, drop-in same-family alternatives, and practical PCB layout guidance not found in the manufacturer datasheet alone.

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TS3A4741DCNR - 0.9Ω Dual SPST Analog Switch | TI SOT-23-8
TS3A4741DCNR

TS3A4741DCNR - 0.9Ω Dual SPST Analog Switch | TI SOT-23-8

The Texas Instruments TS3A4741DCNR is a 0.9 Ω low on-resistance, low-voltage, single-supply, dual single-pole single-throw (SPST) analog switch housed in an 8-pin SOT-23 (DCN) package. It integrates two independent normally open (NO) switches, each with a 1:1 (SPST) topology, designed for 1.8 V logic compatibility when operated from a single 3 V supply rail. What is an SPST analog switch? An SPST (Single-Pole Single-Throw) analog switch is a solid-state semiconductor device that routes analog signals by electrically connecting or isolating one signal path. The TS3A4741 belongs to the broader category of analog switches and multiplexers, a subfamily of interface ICs used for signal routing in mixed-signal and low-power systems. Compared with mechanical relays, analog switches offer far faster switching speeds, lower power, smaller PCB area, and no mechanical bounce, at the cost of lower absolute voltage and current handling. Key specifications include a 0.9 Ω typical on-resistance (Ron), 1.8 V CMOS-compatible digital logic inputs, rail-to-rail analog signal handling, very low quiescent current, and integrated ESD protection. The two switches operate completely independently, allowing them to be used as separate signal paths or as complementary paths in a single function. The device is fabricated in a CMOS process and supports fast switching speeds, low off-leakage current, and bidirectional analog signal flow. Its small SOT-23-8 footprint and 1.8 V logic compatibility make it well suited to portable and battery-powered designs. Typical applications include audio signal routing in portable devices, switching between two sensors in handheld instruments, power rail multiplexing in low-power systems, and general-purpose signal gating in test equipment and consumer electronics. When designing with the TS3A4741, ensure the analog signal stays within the supply rails to avoid distortion or excessive leakage, and add 0.1 µF decoupling close to VCC. For applications requiring normally closed (NC) switches, use the pin-compatible TS3A4742. This page synthesizes verified distributor pricing, same-brand and cross-brand drop-in alternatives, and practical design notes not found in the manufacturer datasheet.

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TS3A4751PWR - 0.9-Ohm Quad SPST Analog Switch | Texas Instruments
TS3A4751PWR

TS3A4751PWR - 0.9-Ohm Quad SPST Analog Switch | Texas Instruments

The Texas Instruments TS3A4751PWR is a bidirectional, 4-channel, normally-open (NO) single-pole single-throw (SPST) analog switch in a 14-pin TSSOP package. It operates from a single 1.6V to 3.6V supply, delivers a maximum on-state resistance of 0.9 ohm at a 3V supply, and handles rail-to-rail analog signals with fast switching speeds and very low quiescent power. An analog switch is an IC that routes or isolates analog signal paths under digital control. Within the signal-routing hierarchy, the TS3A4751 belongs to the SPST switch family, a subset of analog switches and multiplexers used in signal conditioning and power-management systems. Key features include 0.9-ohm maximum Ron at 3V (1.5-ohm maximum at 1.8V), Ron flatness of 0.4-ohm maximum at 3V, and Ron matching of 0.05-ohm maximum at 3V. The 1.8-V CMOS-compatible digital inputs allow direct interface with low-voltage GPIO when using a 3-V supply, eliminating level-shift circuitry. The device is available in 14-pin TSSOP (PW), 14-pin VQFN (RGY), and 2x2-mm micro X2QFN (RUC) packages. The low Ron supports power-switching and low-distortion signal paths, while rail-to-rail operation preserves full signal swing on 1.8V, 2.5V, and 3.3V rails. Typical applications include low-voltage power switching, audio signal routing in portable devices, battery-powered test points, and general-purpose signal muxing in smartphones, tablets, and industrial sensing modules. Its normally-open configuration makes it suitable for fail-safe, default-disconnected paths. When designing, remember that Ron rises at lower supply voltages: at a 1.8-V supply the maximum Ron is 1.5 ohm, so account for insertion loss and on-resistance flatness in high-fidelity or precision-current paths. According to TI datasheet, the TS3A4751 is the NO-switch counterpart within the TI low-voltage quad SPST family.

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TS3A5018PWR - 10-Ohm Quad SPDT Analog Switch | Texas Instruments
TS3A5018PWR

TS3A5018PWR - 10-Ohm Quad SPDT Analog Switch | Texas Instruments

The Texas Instruments TS3A5018PWR is a quad single-pole double-throw (SPDT) analog switch designed to operate from a 1.8V to 3.6V supply in a 16-pin TSSOP (PW) package rated from -40C to +85C. It handles both digital and analog signals, and signals up to V+ can be transmitted in either direction. An analog switch is a semiconductor device that selectively connects or disconnects an analog signal path under digital control. It is a fundamental signal-routing building block in the broader family of multiplexers, demultiplexers, and interface ICs. Analog switches provide a low-resistance path when ON and a high-impedance path when OFF, replacing bulky mechanical relays in audio/video routing, data acquisition, and communication systems. Key features include the wide 1.8V to 3.6V operating range (ideal for battery-powered and 3.3V systems), low 10-ohm ON-state resistance with excellent channel-to-channel matching, and low charge injection that minimizes glitches during switch transitions. All four SPDT switches share a common enable function so the entire device can be disabled to reduce power consumption. The TS3A5018 is built on TI CMOS process technology, providing low quiescent power dissipation and high reliability. Bidirectional signal flow means either of the two throw terminals can serve as the port, essential for multiplexing and demultiplexing on the same hardware. Turn-on and turn-off times are fast, supporting high-speed signal routing in data converters and communication interfaces. Typical applications include audio signal routing in portable devices, battery-powered data acquisition front ends, communication interface switching, and test equipment signal multiplexing. The low power consumption and wide supply range make it well suited for portable and industrial designs. Design consideration: the 10-ohm ON resistance introduces series attenuation in high-impedance circuits, so prefer low-impedance loads or buffer the switched node. Place a 0.1uF decoupling capacitor close to the V+ pin, and use the enable pin in battery designs to cut standby current when switching is idle.

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TS3A5018QPWRQ1 - 10-Ohm Quad SPDT Analog Switch | Texas Instruments
TS3A5018QPWRQ1

TS3A5018QPWRQ1 - 10-Ohm Quad SPDT Analog Switch | Texas Instruments

The Texas Instruments TS3A5018QPWRQ1 is an automotive-qualified (AEC-Q100) quad single-pole double-throw (SPDT) analog switch designed to operate from a 1.8V to 3.6V supply. Packaged in a 16-pin TSSOP (PW), it provides four independent SPDT switches with a low 10-ohm on-resistance, handling both digital and analog signals up to V+ in either direction. An analog switch (also called an analog multiplexer/demultiplexer or bidirectional switch IC) is a semiconductor device that routes analog or digital signals through a MOSFET transmission gate controlled by a digital select input. Analog switches sit within the broader signal-routing hierarchy: analog switch IC -> signal multiplexer -> interface and switching IC -> analog signal chain. They are fundamental building blocks wherever a processor must dynamically reconfigure signal paths without degrading signal integrity. Key features of the TS3A5018QPWRQ1 include the low 10-ohm typical on-resistance, wide 1.8V to 3.6V single-supply operation suited to battery-powered and low-voltage systems, full rail-to-rail signal handling, and break-before-make switching that prevents momentary shorting of signal sources. The Q1 suffix denotes AEC-Q100 qualification for automotive environments, with an extended operating temperature range supporting under-hood and body electronics applications. The device uses CMOS transmission-gate architecture, which keeps on-resistance relatively flat across the signal range and minimizes signal distortion for audio and data-routing tasks. Because signals up to V+ can pass in either direction, the switches work equally well for multiplexing and demultiplexing, such as sharing a codec between microphone and headset paths or switching antenna and test signals. Typical applications include automotive infotainment audio routing, battery-management cell-monitoring multiplexing, portable instrument signal switching, and general-purpose I/O expansion in industrial control boards. Design tip: minimize RON signal loss by keeping source impedance low, and always provide a solid V+ decoupling capacitor (0.1uF close to the pin). Remember that the analog signal range is limited to the 0V-to-V+ supply window; signals outside this range must be blocked or level-shifted.

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TS3USB3000MRSER - DPDT USB 2.0/MHL Switch | TI | UQFN-10
TS3USB3000MRSER

TS3USB3000MRSER - DPDT USB 2.0/MHL Switch | TI | UQFN-10

The Texas Instruments TS3USB3000MRSER is a double-pole, double-throw (DPDT) analog switch that combines a USB 2.0 High-Speed (480 Mbps) switch and a Mobile High-Definition Link (MHL) switch in a single 10-pin UQFN (RSE) package measuring 1.5 mm × 2.0 mm. It supports a -3 dB bandwidth of 6.1 GHz on the MHL path and operates from a 2.3 V to 4.8 V supply. The device is designed to share a common USB or Micro-USB connector between USB 2.0 data and MHL video signals in mobile phones, tablets, and portable media devices. A USB switch IC is a special-purpose analog multiplexer that routes high-speed differential signals between a single downstream port and two upstream paths (host vs. MHL sink). In the hierarchy of power management and signal routing components, this part belongs to the USB interface IC category, sitting between the connector and the application processor. DPDT switches such as the TS3USB3000 are critical because they must pass 480 Mbps USB signals and up to 3 GHz MHL content with minimal insertion loss, low crosstalk, and high off-isolation. Key features of the TS3USB3000 include low on-resistance (Ron) on the USB data paths, low on-capacitance (Con) for high-bandwidth signal transmission, 1.8-V-compatible select pins for direct GPIO control from a mobile processor, and a quiescent current of approximately 5 uA. The wide supply range (2.3 V to 4.8 V) covers both 3.3 V system rails and the typical 3.8 V Li-ion battery range without additional regulation. The small 1.5 mm × 2 mm UQFN footprint makes it ideal for space-constrained mobile applications. The TS3USB3000 uses a charge-pump-less architecture with simple CMOS logic-level select inputs. The two select pins (S1 and S0 per TI documentation) determine whether the common port is routed to the USB path or the MHL path. Internal ESD protection on the signal pins improves robustness against connector-level transients, which is critical for hot-plug consumer electronics. Typical applications include smartphones and tablets with MHL-enabled video output, automotive infotainment systems that mirror mobile content via USB or MHL, portable media players, and USB/MHL dongles. The wide bandwidth also makes it suitable for any system needing to multiplex two high-speed differential pairs onto a single connector. When designing with this part, place the device as close as possible to the USB/MHL connector to minimize stub lengths and signal-integrity degradation. Use controlled-impedance differential routing (90 ohm) on both sides of the switch, and provide adequate ground stitching vias along the signal path to maintain return-current continuity. This page synthesizes distributor pricing, pin-compatible alternatives, and practical design notes that are not aggregated in any single manufacturer datasheet or distributor catalog page.

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TS507CD - 1.9MHz Precision Rail-to-Rail Op Amp | STMicroelectronics
TS507CD

TS507CD - 1.9MHz Precision Rail-to-Rail Op Amp | STMicroelectronics

The STMicroelectronics TS507CD is a single-circuit, high-precision operational amplifier with rail-to-rail input and output operation, a 1.9 MHz gain-bandwidth product, and an 8-SOIC package. It is designed for general-purpose precision signal conditioning and supports stable operation across its supply-voltage range. An operational amplifier is a voltage-feedback amplifier used to amplify, buffer, filter, or compare small analog signals. The TS507 belongs to the operational-amplifier hierarchy within analog ICs and broader semiconductor signal-conditioning systems. Its rail-to-rail input stage accepts signals close to the supply rails, while the rail-to-rail output stage provides useful output swing near both limits. The TS507CD uses precision trimming to achieve low input-offset voltage without external zeroing. Its listed maximum input-offset voltage is 550 µV, and its typical common-mode rejection ratio is 115 dB. A 1.9 MHz gain-bandwidth product supports general-purpose closed-loop operation, while the low 850 µA supply current suits low-power analog systems. The device is specified as a single general-purpose amplifier in an 8-SOIC package. Its operating temperature range is listed as 0°C to 85°C, and its typical output-current capability is 128 mA. These characteristics make it appropriate for precision sensor interfaces, active filters, signal buffers, and portable equipment where low offset and low supply current are more important than high bandwidth. Typical uses include bridge-sensor amplification, transducer-signal conditioning, low-frequency active filters, and buffered analog measurements. Because the amplifier operates rail-to-rail at the input and output, system designers can use more of the available supply range, but common-mode and output-swing limits still require verification under the intended load and supply conditions. When laying out a TS507CD circuit, keep feedback components and the input source connections short, and route high-impedance inputs away from switching nodes. Decoupling capacitors should be placed close to the supply and ground pins. Confirm gain-bandwidth, output-swing, and stability requirements against the actual gain, load, supply voltage, and operating temperature. This page combines the TS507CD device description, package information, application guidance, comparison parameters, and verified sourcing references to help engineers evaluate the amplifier and identify technically suitable alternatives before PCB release.

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TS507ID - Low-Offset Rail-to-Rail Op Amp | STMicroelectronics
TS507ID

TS507ID - Low-Offset Rail-to-Rail Op Amp | STMicroelectronics

The STMicroelectronics TS507ID is a single-circuit, general-purpose operational amplifier in an 8-pin SOIC package. It is designed around rail-to-rail input and output operation, allowing the amplifier to operate close to the supply rails in precision analog signal chains. The TS507 uses a new trimming technique that produces very low offset voltage without requiring external zeroing, reducing assembly time and eliminating the need for a trim potentiometer in precision measurement circuits. A rail-to-rail operational amplifier is an amplifier whose input common-mode range and output swing extend close to both supply-voltage limits. This capability is valuable when the signal being amplified operates near a positive or negative rail and a conventional amplifier would saturate. The TS507 therefore suits precision instrumentation, sensor interfaces, low-level signal conditioning, and measurement systems where usable signal range is more important than absolute isolation from the rails. The TS507ID is identified by DigiKey and Mouser as a standard, general-purpose instrumentation amplifier section in an 8-SOIC package. Its trimmed internal design targets stable electrical characteristics across the operating range and very low offset without external adjustment. For designs requiring tighter control of input bias current, offset drift, noise, bandwidth, supply current, or temperature range, consult the manufacturer datasheet and select the appropriate TS507 grade and package variant. Because the TS507ID accepts both positive and negative signal inputs and supports near-rail output swing, it can serve as the active element in difference amplifiers, current-to-voltage converters, bridge-sensor front ends, and precision feedback networks. The 8-pin SOIC footprint also allows it to be placed in the same general layout class as many standard single op amps, although engineers should verify the actual pin assignment and stability requirements before substituting another device. When designing with the TS507ID, begin by defining the signal amplitude, common-mode range, required output swing, source impedance, and noise gain. Check the datasheet for the operating voltage range, unity-gain bandwidth, slew rate, input bias current, offset voltage, noise density, and stability conditions. Place the feedback components close to the amplifier, keep sensitive input nodes away from switching-current paths, and use a ground layout that minimizes voltage drops across analog return currents. This page combines manufacturer-level product information, verified distributor listings, package and pin-assignment guidance, application analysis, and drop-in replacement guidance. It also distinguishes confirmed package-compatible TS507 family variants from options that require additional electrical verification, helping engineers narrow a redesign quickly before committing a new component to a PCB.

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TS512ID - 3 MHz Precision Dual Op Amp | STMicroelectronics
TS512ID

TS512ID - 3 MHz Precision Dual Op Amp | STMicroelectronics

The STMicroelectronics TS512ID is a precision dual operational amplifier with two independent amplifiers, a 3 MHz gain-bandwidth product, and a maximum input offset voltage of 500 µV. The device is supplied in an 8-pin SOIC package and operates from single or dual power supplies, making it suitable for signal-conditioning and instrumentation applications requiring two amplifiers in one package. An operational amplifier is an analog integrated circuit that uses very high open-loop gain to amplify the difference between its inverting and non-inverting inputs. Precision operational amplifiers are a subtype of voltage-feedback amplifiers characterized by low offset voltage, low distortion, low noise, and stable operation with feedback. The dual-amplifier configuration places two amplifiers in one package, reducing board area and simplifying paired signal-processing circuits. The TS512 family provides a 3 MHz gain-bandwidth product, low input offset voltage of 500 µV maximum, low power consumption, short-circuit protection, low distortion, low noise, high channel separation, and internal ESD protection. According to the STMicroelectronics family datasheet, the minimum slew rate is 0.8 V/µs for TS512 and TS512A. The related TS512B has a guaranteed higher minimum slew rate of 1.072 V/µs. The TS512 family uses internal frequency and phase compensation to support stable operation in voltage-follower configurations. This is useful in application circuits where one amplifier buffers a source and the other performs gain or filtering. Its dual supply range is ±1.5 V to ±15 V, while single-supply operation is supported from 3 V to 30 V, allowing use in both conventional analog circuits and higher-voltage industrial interfaces. Typical uses include sensor-signal conditioning, low-level instrumentation, active filtering, audio preamplification, and general analog signal processing. The dual channel can implement matched buffer, gain, summing, or differential stages. Because offset voltage influences accuracy near the zero-voltage operating point, input-source resistance and bias-current compensation should be evaluated carefully. PCB layout should keep input and feedback paths short and place input compensation or filtering components close to the relevant amplifier pins. Both channels should share stable supply decoupling, while avoiding current paths through analog ground that carry output or digital return current. The SOIC package is suitable for conventional surface-mount assembly and conventional thermal design at low to moderate output current. This page consolidates the verified manufacturer-family information, distributor listing details, package data, sourcing information, and engineering guidance for TS512ID. It distinguishes documented TS512-family characteristics from unavailable detailed electrical limits and clearly identifies uncertainty where the supplied source data does not provide a defensible value.

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TS512IN - 3MHz Dual Precision Op Amp | STMicroelectronics
TS512IN

TS512IN - 3MHz Dual Precision Op Amp | STMicroelectronics

The STMicroelectronics TS512IN is a precision dual operational amplifier with a 3 MHz gain-bandwidth product, 1.5 V/µs slew rate, and a maximum input offset voltage of 500 µV, supplied in an 8-pin Mini DIP package. It is designed for general-purpose instrumentation, analog signal conditioning, and dual-channel measurement applications where two amplifiers share the same package. A dual operational amplifier is an analog integrated circuit containing two independent amplifier channels. Operational amplifiers are voltage amplifiers whose behavior depends mainly on external feedback components. The TS512IN combines frequency-compensated amplifiers for stable voltage-follower operation, low distortion, low noise, short-circuit protection, and internal ESD protection. The 3 MHz gain-bandwidth product supports useful closed-loop bandwidth well below 3 MHz at higher noise gains, while the 1.5 V/µs slew rate improves response to larger transient signals. A maximum offset voltage of 500 µV helps reduce DC error in precision feedback networks. Its dual-channel organization reduces package count and simplifies PCB routing when two amplified signals must be processed under shared supply conditions. The device operates from single 6 V to dual ±15 V supplies, matching conventional analog and industrial voltage ranges. Internal phase compensation allows voltage-follower use without an external compensation network. Short-circuit protection limits the effects of output overload, although sustained shorts still require appropriate supply and thermal checks. Internal ESD protection improves handling robustness without eliminating the need for normal assembly precautions. TS512IN applications include sensor-interface amplification, low-frequency instrumentation, dual audio-channel control, buffering, active filtering, and general analog signal conditioning. Designers should place input and feedback components close to their associated pins, observe the specified common-mode and output-current limits, and avoid excessive loading near the bandwidth and slew-rate limits. This product page combines verified manufacturer-linked specifications, source URLs, package information, application guidance, and honest comparison limitations. It distinguishes confirmed TS512IN attributes from parameters that require verification before a PCB or production cross-reference is approved.

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TS514ID - High-Speed Precision Quad Op Amp | STMicroelectronics
TS514ID

TS514ID - High-Speed Precision Quad Op Amp | STMicroelectronics

STMicroelectronics TS514ID is a high-speed, precision quad operational amplifier with four amplifier circuits, internally compensated frequency and phase response, short-circuit protection, internal ESD protection, and a 14-pin SOIC package. The verified product data identifies a maximum offset voltage of 500 uV and highlights a high gain-bandwidth product, low distortion, low noise, low power consumption, and high channel separation. The TS514ID is intended for instrumentation and general-purpose precision signal-processing designs requiring four amplifiers in one package. An operational amplifier, commonly called an op amp, is a voltage-controlled differential amplifier with very high open-loop gain. Its external feedback network determines the closed-loop behavior. The TS514 belongs to the operational-amplifier hierarchy, which includes instrumentation amplifiers, buffer amplifiers, comparators, and general-purpose voltage amplifiers. Internal phase compensation allows the TS514 to operate as a voltage follower despite its high gain-bandwidth product, reducing the external compensation effort required in many designs. The quad architecture integrates four amplifier channels into one 14-pin SOIC-14 package. Verified manufacturer-related product descriptions identify low offset voltage, low power consumption, short-circuit protection, low distortion, low noise, high gain-bandwidth product, high channel separation, and internal ESD protection. These characteristics make the device applicable to precision buffering, signal conditioning, instrumentation, industrial measurement, and general analog signal-processing systems. Each amplifier requires stable supply decoupling and careful handling of output-current limits. The TS514 uses internal frequency and phase compensation. This architecture is particularly useful in follower and precision-gain configurations because the compensation is already incorporated into the device. Its high speed does not eliminate the need for short feedback traces, adequate grounding, and supply bypassing. Designers should avoid long output routing and place input, output, and ground returns so that parasitic capacitance does not degrade stability or transient response. Typical uses include four-channel sensor conditioning, low-level signal amplification, active filtering, voltage buffering, and instrumentation chains requiring several matched amplifier functions. Industrial control and test equipment can also use the quad package to reduce board area compared with four discrete single-amplifier packages. Where precision offset and noise dominate, the complete manufacturer datasheet should be consulted for test conditions and application-specific limits. The principal design trade-off is speed versus power and stability margin. Although the TS514 supports high-speed operation and voltage-follower use, board layout, capacitive loading, output-current demand, and supply bypassing remain critical. A short, low-inductance layout with local decoupling is recommended. Application notes and the manufacturer datasheet should control the final compensation, grounding, and thermal implementation. This product page combines verified distributor and datasheet information with practical guidance on precision analog design, package reuse, selection criteria, and drop-in alternatives. It also distinguishes confirmed TS514-family candidates from cross-package or merely functional substitutes so engineers can avoid redesigns that require PCB changes.

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TS514IN - Quad Precision Op Amp | STMicroelectronics | DIP-14
TS514IN

TS514IN - Quad Precision Op Amp | STMicroelectronics | DIP-14

The STMicroelectronics TS514IN is a high-performance quad operational amplifier with internal frequency and phase compensation, supplied in a 14-DIP package. The device contains four amplifier channels in one package and is designed for general-purpose instrumentation, signal-conditioning, and analog control applications where stable voltage-follower operation is useful. The verified manufacturer description identifies low offset voltage, low power consumption, short-circuit protection, low distortion, low noise, high gain-bandwidth product, high channel separation, and internal ESD protection as key features. An operational amplifier is an analog integrated circuit that amplifies the voltage difference between its inverting and non-inverting inputs. A quad operational amplifier extends this architecture to four independent channels in one package, reducing board area and simplifying multi-channel designs. The TS514IN belongs to the broader operational-amplifier, analog-amplifier, signal-conditioning, and semiconductor hierarchy. The TS514IN's compensated architecture is intended to support stable operation as a voltage follower despite its high gain-bandwidth product. Internal compensation simplifies circuit design when unity-gain stability is required, while short-circuit protection improves robustness in conventional analog signal paths. Low offset voltage supports precision-oriented instrumentation, and low noise and low distortion are useful for audio and measurement front ends. Four channels make the device suitable for sensor signal conditioning, current-voltage conversion, active filtering, waveform shaping, instrumentation amplifiers, feedback networks, and general analog control loops. The 14-DIP package is appropriate for through-hole prototyping, educational systems, laboratory instruments, and industrial assemblies where a dual-inline footprint is preferred over a fine-pitch surface-mount package. The principal design consideration is to verify the supply-voltage limits, input common-mode range, output swing, input bias current, noise density, and load-current behavior against the manufacturer datasheet before finalizing a new design. Decoupling capacitors should be placed close to the supply pins, and unused amplifier inputs should be tied to a defined voltage within the input common-mode range. This page consolidates the verified manufacturer and distributor information, package details, application guidance, technical limitations, and drop-in replacement analysis. It also identifies parameters that require confirmation from the complete TS514 datasheet rather than substituting unverified assumptions.

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TS522ID - Dual 15MHz Low-Noise Op Amp | STMicroelectronics
TS522ID

TS522ID - Dual 15MHz Low-Noise Op Amp | STMicroelectronics

The STMicroelectronics TS522ID is a monolithic dual operational amplifier optimized for precision audio signal processing. It provides two amplifiers, a 15 MHz gain-bandwidth product, a 7 V/µs slew rate, low-voltage noise of 4.5 nV/√Hz, and a maximum input offset voltage of 850 µV in an 8-pin SOIC package. The device operates from 5 V to 30 V over an industrial temperature range of -40°C to +125°C. An operational amplifier is a voltage-controlled differential amplifier that uses feedback to amplify the difference between two input voltages. The dual configuration places two amplifiers in one package, allowing stereo audio, balanced signal paths, active filtering, or independent measurement channels to share a common footprint. Within the broader semiconductor hierarchy, the TS522 belongs to the operational-amplifier family, the analog amplifier category, and the signal-conditioning IC hierarchy. The TS522 combines low input offset, low voltage noise, and high dynamic performance for audio-oriented designs. Its 850 µV maximum input offset voltage supports accurate signal amplification, while the 4.5 nV/√Hz voltage-noise density is particularly relevant when processing low-level microphone, musical-instrument, or line-level signals. A 15 MHz gain-bandwidth product provides useful bandwidth for audio and general-purpose precision applications, and the 7 V/µs slew rate improves large-signal response. Internally, each amplifier is configured around high-gain stages with internal ESD protection. The manufacturer datasheet reports low distortion of 0.002%, macromodel inclusion, and excellent frequency stability. These characteristics make the TS522 suitable for precision audio signal chains where low noise, low distortion, and predictable frequency response matter more than very low power consumption. Typical uses include stereo audio preamplification, active crossover filters, mixer input stages, microphone preamplifiers, audio buffer circuits, and low-level sensor-conditioning channels. Two amplifiers in the same 8-pin SOIC package can reduce board area in stereo designs, while the industrial temperature range supports industrial control, communications, and instrumentation equipment. Designers should verify the required supply headroom, input common-mode range, output swing, noise gain, and stability for the selected feedback network. Decoupling capacitors should be placed close to the supply pins, and sensitive audio inputs should use short traces with suitable grounding to minimize parasitic pickup. A SPICE macromodel is available for circuit simulation, but board-level stability and distortion should still be verified with real components. This page consolidates the verified TS522ID operating characteristics, sourcing links, application guidance, design cautions, and replacement information. It also distinguishes confirmed technical facts from parameters that were not present in the supplied source data, helping engineers make a defensible design decision without treating unverified values as guaranteed specifications.

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TS522IN - 15MHz Dual Low-Noise Op Amp | STMicroelectronics
TS522IN

TS522IN - 15MHz Dual Low-Noise Op Amp | STMicroelectronics

The STMicroelectronics TS522IN is a monolithic dual precision operational amplifier primarily intended for audio applications. Each amplifier provides a 15 MHz gain-bandwidth product, a 7 V/us slew rate, and low voltage noise of 4.5 nV/sqrt(Hz). The device is offered in an 8-pin mini-DIP package for through-hole PCB assembly. An operational amplifier is an analog signal-conditioning IC that uses high open-loop gain and negative feedback to amplify, buffer, filter, or compare small voltage signals. The TS522 belongs to the operational-amplifier hierarchy within linear and amplifier ICs. Its dual-channel architecture integrates two amplifiers in one package, reducing board area and simplifying dual audio-path or differential-signal designs. The TS522IN emphasizes low-noise signal handling, low input offset voltage, and high dynamic performance. Manufacturer descriptions identify a maximum input offset voltage of 850 uV, voltage noise of 4.5 nV/sqrt(Hz), gain-bandwidth product of 15 MHz, and slew rate of 7 V/us. The device also includes internal ESD protection rated at 2 kV and a macromodel for simulation. These characteristics make it relevant to audio preamplification, active filtering, buffering, and general low-noise analog signal chains. The dual amplifier can process two related signals independently, including left and right audio channels or the positive and negative sides of a differential circuit. Its 15 MHz bandwidth provides useful bandwidth for audio and wider-band analog stages, while the 7 V/us slew rate supports rapidly changing waveforms. The 4.5 nV/sqrt(Hz) voltage-noise figure helps reduce amplifier-added noise in high-gain stages, making the TS522IN most useful when the signal source impedance, resistor selection, and feedback topology are controlled carefully. Typical applications include stereo audio preamplifiers, microphone preamplifiers, active low-pass filters, audio buffers, sensor-conditioning stages, and small-signal audio-driver interfaces. The mini-DIP package is appropriate for legacy through-hole designs, test equipment, prototypes, and applications where hand insertion or socket assembly is preferred. Surface-mount production should use an electrically and mechanically verified SO-8-family option rather than assuming the DIP package is interchangeable. When designing around the TS522IN, begin with the power-supply limits and common-mode input range listed in the manufacturer datasheet. Confirm that source and sink output-current requirements remain within the operating limits at the selected gain and load. Place input and feedback components close to the device, maintain a stable ground reference, and use appropriate bypassing at each supply pin. Decoupling capacitors should be placed at the amplifier pins rather than at a distant power entry point. This page consolidates the TS522IN technical characteristics, package constraints, sourcing guidance, application fit, and verified cross-reference information. It also distinguishes documented device attributes from parameters that require confirmation in the manufacturer datasheet, helping engineers assess the part before PCB and production decisions.

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TS524ID - Quad Low-Noise Audio Op Amp, 15MHz, SOIC-14 | STMicroelectronics
TS524ID

TS524ID - Quad Low-Noise Audio Op Amp, 15MHz, SOIC-14 | STMicroelectronics

The STMicroelectronics TS524ID is a monolithic quad operational amplifier for precision audio signal paths, integrating four low-noise, high-fidelity amplifiers on one silicon die in a 14-pin SOIC (SO-14) surface-mount package. It combines a 15 MHz gain-bandwidth product, a 7 V/µs slew rate and 4.5 nV/√Hz input voltage noise with an input offset voltage of 950 µV maximum and total harmonic distortion of 0.002%. An operational amplifier, or op amp, is a high-gain differential amplifier with two inputs and one output that is used to amplify small signals faithfully across a wide frequency range. A quad op amp such as the TS524ID contains four independent amplifiers in one package, giving audio and instrumentation designers four signal-path stages, two input buffers and one output driver from a single 14-pin device. In the broader semiconductor hierarchy, the TS524ID sits in the linear amplifier family, inside instrumentation and buffer amplifiers, which are themselves part of the analog integrated-circuit category. Key features of the TS524ID include the very low input offset voltage of 950 µV max, low voltage noise of 4.5 nV/√Hz, a high gain-bandwidth product of 15 MHz, a high slew rate of 7 V/µs and low distortion of 0.002%. The device also carries internal ESD protection rated at 2 kV, so it tolerates handling transients without external clamps on most board designs. A SPICE macromodel is included in the specification, which lets you simulate the real frequency-dependent behaviour of the amplifier instead of an ideal voltage source. Architecturally, the TS524ID is built on a bipolar process, which is the classic choice for audio-grade amplifiers because it delivers high transconductance, low crossover distortion and predictable large-signal behaviour into the 600 Ω to 10 kΩ impedances typical of line-level audio stages. The wide-bandwidth output stage allows the amplifier to swing cleanly at high frequencies, so the same device can serve as a preamplifier, a headphone-driver helper stage or an active filter stage without changing the bill of materials. The four amplifiers in the package share a common supply pair, and each channel is independent, so the die can be used for four single-ended paths or two stereo pairs. Typical applications include stereo audio preamplification, headphone and line-level output buffers, active crossover and equalisation filters, microphone conditioning stages, mix-console sub-buses and general instrumentation. The 15 MHz loop-gain bandwidth means the open-loop gain is still usable at audio-band frequencies, which matters for filter design where a 24 dB/octave active filter needs flat open-loop phase response. When designing around the TS524ID, keep the feedback network close to the device and use a resistor divider for gain rather than a single high-value feedback resistor, because the input bias current produces offset error proportional to the total resistance seen at the input. Place the bypass capacitor for the supply pins as close to the package as the layout allows, because the 15 MHz bandwidth can couple supply ripple directly into the audio band if the on-board supply impedance is high. This page adds value beyond the manufacturer datasheet by combining verified distributor availability information, drop-in and cross-brand equivalents in the same SOIC-14 footprint, a parameter-by-parameter comparison table, and practical design notes for audio, filtering and instrumentation work.

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TS524IN - Quad Low-Noise Precision Op Amp | STMicroelectronics
TS524IN

TS524IN - Quad Low-Noise Precision Op Amp | STMicroelectronics

The STMicroelectronics TS524IN is a monolithic quad operational amplifier designed for low-noise audio applications, with four amplifier circuits in a 14-pin DIP package. Its headline performance includes a 15 MHz gain-bandwidth product, 7 V/us slew rate, and 4.5 nV/sqrt(Hz) input-voltage-noise density. The device operates from 5 V to 30 V and supports output swings across approximately plus or minus 2.5 V to plus or minus 15 V. An operational amplifier is an analog integrated circuit that uses high-gain differential amplification to improve signals applied to its two inputs. The TS524 belongs to the broader hierarchy of operational amplifier, instrumentation amplifier, analog amplifier, and semiconductor. Its four-channel configuration reduces the number of packages required in stereo, surround-sound, mixer, and other multi-channel audio signal paths while preserving consistent performance across each amplifier. Key characteristics include very low input-offset voltage, 4.5 nV/sqrt(Hz) voltage-noise density, 80 dB gain bandwidth or signal-to-noise performance identified for the device, 250 nA input-bias current, and 0.8 uA input-bias current figure listed for the family. The 37 mA per-channel current rating reflects the operating conditions associated with the amplifier family. These characteristics make the TS524 useful where microphone signals, line-level audio, or control signals require low-noise amplification and wide bandwidth. The TS524 combines four precision operational amplifiers in one monolithic IC. Its 15 MHz gain-bandwidth product supports moderate-gain audio stages, while the 7 V/us slew rate improves large-signal response compared with slower general-purpose amplifiers. The low 4.5 nV/sqrt(Hz) input noise helps preserve quiet signal chains, and the low input-bias current reduces errors when operating with high-impedance sources. Its stated supply range accommodates both positive single-supply operation and dual-supply audio systems. Typical uses include stereo preamplifiers, audio mixer stages, active crossover networks, microphone preamplifiers, headphone-driver signal chains, and four-channel surround-sound processing. In each case, the quad arrangement can simplify routing between channels and conserve board area, although independent de-coupling and careful grounding remain necessary when multiple amplifiers share one package. PCB design should keep input and feedback paths short, connect a suitable bypass capacitor near each supply pin, and maintain a quiet return-current path. Decoupling between amplifier channels can reduce interaction through the shared supply network. Designers should also verify output swing, load capability, stability with the selected feedback network, and thermal behavior against the intended supply voltage and signal level before releasing the layout. This product record combines the TS524 family specifications with package details, application guidance, selection criteria, and practical design notes. It helps engineers distinguish the 14-pin DIP TS524IN from differently packaged family members while focusing attention on the measured electrical characteristics that matter in low-noise audio circuitry.

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TS555CD - 2.7MHz CMOS Timer | STMicroelectronics | SOIC-8
TS555CD

TS555CD - 2.7MHz CMOS Timer | STMicroelectronics | SOIC-8

STMicroelectronics TS555CD is a single CMOS 555-type timer/oscillator operating from 2 V to 16 V, with a maximum frequency of 2.7 MHz and typical supply current of 100 µA at VCC = 5 V. The device is supplied in an 8-pin SOIC package and supports both astable and monostable timing. Its low power consumption and higher operating frequency distinguish it from the conventional bipolar NE555. A 555 timer is an analog timing integrated circuit that combines resistive timing, a voltage comparator, a flip-flop, and a high-current output stage. Within the broader semiconductor hierarchy, the TS555CD is a clock and timing IC, then a programmable timer and oscillator, and finally a general-purpose timing component used in industrial control, pulse generation, delay circuits, and signal processing. The TS555 family provides low typical supply current of 100 µA at 5 V, while the manufacturer product page lists 110 µA at VCC = 5 V. Its maximum astable frequency is 2.7 MHz, compared with 0.1 MHz for the conventional NE555. This frequency capability makes the TS555CD suitable for compact oscillator and pulse-generation circuits that require faster timing than the classic bipolar implementation. STMicroelectronics describes the TS555 as pin-to-pin and functionally compatible with the bipolar NE555. It can operate in astable mode as a free-running oscillator or in monostable mode as a one-shot pulse generator. The output stage supports high output current, while reduced supply-current spikes during output transitions help limit disturbance on sensitive power rails. Typical uses include industrial delay circuits, sensor activation timers, low-power oscillators, LED flashers, control pulse generators, and embedded system timing. Because the TS555CD is listed as obsolete by a distributor record, engineers should confirm lifecycle availability with authorized distributors or qualify an alternative before new production releases. Designers should not assume that every 555-family device is interchangeable at high frequency or across the complete supply range. Check pinout, output polarity, timing tolerance, maximum frequency, supply voltage, output-current capability, and package dimensions against the specific replacement. Decoupling capacitors should be placed close to the supply pins, and timing components should be positioned to minimize switching-node coupling. This page consolidates verified manufacturer and distributor specifications, lifecycle information, practical replacement guidance, and application-focused engineering notes. It provides a concise purchasing and design reference while clearly separating confirmed data from parameters that still require manufacturer confirmation.

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TS555CN - 2.7MHz Low-Power CMOS Timer | STMicroelectronics
TS555CN

TS555CN - 2.7MHz Low-Power CMOS Timer | STMicroelectronics

The STMicroelectronics TS555CN is a low-power, single CMOS timer with a maximum astable frequency of 2.7 MHz, a typical supply current of 100 µA at 5 V, and an operating supply range up to 18 V, housed in an 8-pin DIP package. It provides the familiar 555 timer functions in astable and monostable configurations while offering pin-to-pin and functional compatibility with the bipolar NE555. A 555 timer is a programmable timing IC that combines a resistor, capacitor, and internal threshold comparator into a compact oscillator or one-shot pulse generator. The TS555CN belongs to the CMOS timer, oscillator, and clock-and-timing hierarchy: it can generate continuous periodic waveforms in astable mode or produce a timed output pulse in monostable mode. Its CMOS implementation is especially useful in low-power and higher-frequency circuits where lower supply current than a conventional bipolar NE555 is valuable. Key features include very low typical supply current, a maximum astable frequency of 2.7 MHz, wide operating voltage support to 18 V, high input impedance, and output compatibility with TTL, CMOS, and logic families. According to the STMicroelectronics manufacturer datasheet, typical supply current is 110 µA at 5 V and 90 µA at 3 V, with reduced current spikes during output transitions. These characteristics make the device practical for portable timing, pulse generation, debouncing, and periodic-control applications. Internally, the TS555CN uses CMOS circuitry to implement the comparator, flip-flop, discharge transistor, and timing-control functions of a standard 555 timer. In astable operation, two external resistors and one capacitor establish the oscillation period; in monostable operation, one resistor and one capacitor set the pulse width. The external timing elements determine practical accuracy, while the timer provides repeatable thresholding and state control. Typical uses include low-power delay circuits, oscillator clocks, LED flashers, pulse generators, debounce networks, and control timing in embedded equipment. The TS555CN can also replace a standard NE555 where the circuit permits CMOS supply current and operating-voltage differences. Before substitution, verify trigger-level, output-drive, timing-tolerance, and maximum-frequency requirements against the actual design. For PCB layout, keep the timing capacitor and resistor leads short, connect the decoupling capacitor close to VCC and GND, and avoid long traces around high-impedance threshold and control pins. Because the DIP package has exposed through-hole leads, mechanical spacing and soldering cleanliness should also be considered. This page combines manufacturer specifications, verified distributor information, replacement guidance, and practical design notes for engineering selection.

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TS555ID - 2.7MHz Low-Power CMOS Timer | STMicroelectronics
TS555ID

TS555ID - 2.7MHz Low-Power CMOS Timer | STMicroelectronics

The STMicroelectronics TS555ID is a single CMOS 555-type timer and oscillator with a 2.7MHz maximum frequency, low typical supply current, and an 8-pin SOIC package. It operates from 2 V to 18 V and is designed for both astable and monostable timing circuits. According to the STMicroelectronics product page, typical supply current is 110 µA at VCC = 5 V, compared with 3 mA for the bipolar NE555. A CMOS timer is a clock-and-timing semiconductor that generates a time-delayed output or an adjustable oscillation when combined with passive resistors and capacitors. The TS555 belongs to the 555 timer family, which combines a comparator, flip-flop, discharge transistor, and voltage reference in one integrated circuit. This integration allows a timer or oscillator to be implemented without separate logic gates, while retaining the familiar resistance-and-capacitance timing method. The TS555ID provides a maximum astable frequency of 2.7 MHz, substantially higher than the 0.1 MHz maximum cited for the NE555 in the supplied manufacturer data. Its CMOS implementation also reduces supply-current spikes during output transitions. These characteristics make the device useful in low-power pulse generation, delay circuits, waveform generation, debounce timing, and embedded control applications where accurate timing and low quiescent consumption are important. The TS555 is pin-to-pin and functionally compatible with the bipolar NE555 according to the supplied datasheet description. Its wide 2 V to 18 V supply range supports legacy 5 V systems as well as higher-voltage industrial and embedded rails. The exact trigger and threshold timing tolerances, output-current limits, temperature range, and absolute maximum ratings are not present in the provided data and therefore require confirmation in the manufacturer datasheet before final design release. Typical uses include RC astable oscillators, retriggerable and non-retriggerable monostable multivibrators, pulse-width timing, debounce networks, and low-frequency clock generation. In an astable circuit, external resistors and a capacitor set the operating frequency; in monostable operation, the same timing principle produces a controlled output pulse after a trigger event. Designers should use the external timing-component tolerances as part of the total timing error and verify output-drive current against the selected load. Decoupling should be placed close to the supply pins, and the timing capacitor and resistors should be positioned to minimize leakage, contamination, and parasitic capacitance. PCB cleanliness is particularly important because contamination can change effective resistance and disturb oscillator frequency. This page consolidates manufacturer specifications, verified distributor listings, package details, practical design guidance, and explicitly qualified replacement information. It is intended to support engineering selection while separating verified values from parameters that still require confirmation from the full STMicroelectronics datasheet.

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TS555IN - 2.7 MHz Low-Power CMOS Timer | STMicroelectronics
TS555IN

TS555IN - 2.7 MHz Low-Power CMOS Timer | STMicroelectronics

The STMicroelectronics TS555IN is a single CMOS programmable timer and oscillator with a maximum astable frequency of 2.7 MHz, a 2 V to 16 V supply range, and an 8-pin DIP package. It is designed for low-power timing and oscillator circuits while retaining compatibility with the conventional bipolar NE555 function and pin arrangement. A programmable timer is an integrated circuit that combines timing elements, comparators, a flip-flop, and a high-current output stage into one device. The TS555IN belongs to the 555 timer family, which sits within clock and timing ICs and can operate as a monostable one-shot or an astable free-running oscillator. This integration removes the need for discrete comparator, flip-flop, and discharge-transistor networks in common delay and pulse-generation circuits. The principal advantages are low supply consumption, high operating frequency, and reduced supply-current spikes during output transitions. The cited manufacturer product page reports typical TS555 supply current of 110 uA at a 5 V supply, while a distributor specification listing reports 65 uA under its specified test conditions. The maximum astable frequency of 2.7 MHz is substantially higher than the 0.1 MHz maximum commonly associated with the bipolar NE555 in the supplied comparison data. The TS555IN supports both one-shot and free-running operation. In monostable mode, its output changes state for a controlled interval after an external trigger. In astable mode, external resistors and a capacitor establish repeated output oscillations. The 2 V to 16 V operating range permits use from low-voltage battery-powered equipment through higher-voltage industrial control circuits, subject to the component's detailed absolute maximum ratings. Typical uses include pulse generation, delayed switching, debounce and missing-pulse circuits, simple oscillators, LED flashers, industrial timing modules, and control-signal generation. Its CMOS implementation is particularly useful where standby supply current matters, while its 2.7 MHz maximum frequency supports higher-rate timing than the bipolar reference timer. Designers should preserve the standard 555 interface when making PCB substitutions and should account for the TS555's low-voltage limitations, timing tolerances, and output-drive behavior. Supply bypassing and timing-component placement should follow the manufacturer datasheet, especially in astable circuits operating near the 2.7 MHz upper frequency limit. This product page consolidates manufacturer specifications, distributor availability information, verified cross-reference results, and practical selection guidance. It also distinguishes true same-package replacements from functionally similar timer families that may require different pinouts, voltage tolerances, or application-level qualification.

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