STMicroelectronics

TS339ID - Micropower Quad CMOS Comparator | STMicroelectronics

부품 번호: TS339ID ✓ 활성
±8 V to ±16 V Vdss 9 µA Id 14-pin SOIC Package
MOQ: 1 |

TS339ID 개요

STMicroelectronics TS339ID is a micropower quad CMOS voltage comparator with four independent open-drain outputs, a supply range of ±8 V to ±16 V, and a 14-pin SOIC package. Each comparator typically consumes 9 µA, while the device is designed for low-input-bias and low-input-offset-current measurements.

A voltage comparator is an analog semiconductor that compares two input voltages and produces a digital logic result indicating which input is higher. The TS339ID belongs to the comparator hierarchy, combining four general-purpose channels in one package. Its CMOS construction reduces current consumption compared with a conventional bipolar LM339, while the open-drain outputs support wired logic, level translation, and systems using external pull-up resistors.

Each channel provides non-inverting and inverting inputs. Key characteristics include extremely low input bias current, a typical input offset current of 1 pA, and typical input impedance of 10^12 ohms. The TS339ID is pin-to-pin and functionally compatible with the bipolar LM339 device. Its typical response time is 1.5 µs for a 5 mV overdrive, making it suitable for threshold detection rather than high-speed signal-chain comparison.

The open-drain output architecture requires an external pull-up resistor when a logic-high level is needed. Because the output stage can pull the node low but cannot actively drive it high, several comparator outputs can be combined in a wired-AND arrangement. This characteristic is useful for supervision, window detection, and fault signaling, although circuit design must account for the pull-up value, output leakage, and bus rise time.

Typical uses include power-supply sequencing, battery monitoring, overvoltage and undervoltage detection, temperature-control thresholds, industrial sensor interfaces, and simple digital control systems. The quad arrangement reduces board area and component count when four independent thresholds are required, particularly in industrial monitoring, instrumentation, and embedded-control equipment.

Designers should verify input common-mode limits, output pull-up requirements, and absolute maximum supply voltage against the manufacturer datasheet before implementation. The open-drain node should include a pull-up to a valid logic rail, and unused inputs must be tied to a defined potential rather than left floating. PCB layout should keep sensitive input traces away from switching nodes and high-current return paths.

This product overview combines the exact TS339ID characteristics with practical guidance for open-drain logic, threshold detection, PCB implementation, and comparison against pin-compatible LM339-family devices. It also organizes the available technical information for engineers evaluating power consumption, response time, input impedance, package compatibility, and lifecycle-sensitive redesigns.

드롭인 대체품: TS339ID — 동일 패키지, 핀 호환. PCB 재작업이 필요한 다른 패키지 부품은 제외됩니다.

이 시리즈의 변형

다음과 드롭인 호환되는 동일 시리즈 모델: TS339ID (동일 폼 팩터 및 풋프린트) — 차이점: Comparator Type, Output Type, Package, Common-Mode Input Range, Input Offset Current.

Texas Instruments
Comparator Type: Quad precision differential voltage comparator
Output Type: Open-collector
Common-Mode Input Range: Includes ground
비교 대상: TS339ID →
Texas Instruments
Comparator Type: General Purpose
Output Type: Open-Collector
Package: SOIC-14
비교 대상: TS339ID →
STMicroelectronics
Comparator Type: Quad voltage comparator
Output Type: Open drain
Package: 14-pin SOIC, 3.90 mm width
비교 대상: TS339ID →

TS339CD

✅ 드롭인
STMicroelectronics
📦 SOIC-14
Quad voltage comparator · 4 · CMOS · Open drain · 9 µA typical · 1 pA typical · 10^12 ohms typical · 1.5 µs typical at 5 mV overdrive

가격 문의

데이터시트 보기 →

LM339DR

✅ 드롭인
Texas Instruments
📦 SOIC-14
4 (Quad) · General Purpose · Open-Collector · 2 V to 36 V · ±1 V to ±18 V · 5 mV · 25 nA · 5 nA

가격 문의

데이터시트 보기 →

LM239DR

✅ 드롭인
Texas Instruments
📦 SOIC-14
Quad precision differential voltage comparator · 4 independent channels · ±15 V or 30 V · Open-collector · 25 nA typical · ±5.0 nA typical · 2 mV maximum for LM239A family variants; LM239DR-specific value not supplied · 1.3 µs typical

가격 문의

데이터시트 보기 →

LM2901DR

✅ 드롭인 ⚠️ 사양 미검증
📦 SOIC-14
Single-channel alternative rather than the TS339ID quad configuration; requires four devices, so it is not a functional drop-in despite sharing the package

📋 참조 대체품 (카탈로그에 없음)

TS339ID 최대 정격 & 전기적 특성

Comparator Type Quad general-purpose voltage comparator
Technology CMOS
Number of Channels 4 channels
출력 유형 Open-drain
Supply Voltage Range ±8 V to ±16 V
Typical Supply Current per Comparator 9 µA
Typical Input Offset Current 1 pA
Maximum Input Offset Voltage 6500 µV
Typical Input Bias Current 0.0006 µA
Typical Input Impedance 10^12 ohms
Typical Response Time 1.5 µs for 5 mV overdrive
동작 온도 범위 -40 °C to +125 °C
패키지 14-pin SOIC
실장 유형 Surface mount
Terminal Count 14 terminals
LM339 Compatibility Pin-to-pin and functionally compatible with bipolar LM339

TS339ID 핀 구성

SOIC-14 (3.9mm) Package Pinout Diagram SOIC-14 14-pin small outline IC, 3.9x8.7mm, P1.27mm, JEDEC MS-012. Pin 1 by chamfer. 1 14 2 13 3 12 4 11 5 10 6 9 7 8 SOIC-14 (3.9mm)
핀 1 OUT1 — Comparator 1 open-drain output
핀 2 IN1- — Comparator 1 inverting input
핀 3 IN1+ — Comparator 1 non-inverting input
핀 4 GND — Ground connection
핀 5 IN2+ — Comparator 2 non-inverting input
핀 6 IN2- — Comparator 2 inverting input
핀 7 OUT2 — Comparator 2 open-drain output
핀 8 OUT3 — Comparator 3 open-drain output
핀 9 IN3- — Comparator 3 inverting input
핀 10 IN3+ — Comparator 3 non-inverting input
핀 11 IN4+ — Comparator 4 non-inverting input
핀 12 IN4- — Comparator 4 inverting input
핀 13 OUT4 — Comparator 4 open-drain output
핀 14 VCC — Positive supply connection

일반적인 애플리케이션

TS339ID 적합 용도: 6 애플리케이션s: Battery Voltage Supervision, Industrial Sensor Threshold Detection, Power Supply Sequencing, Overvoltage and Undervoltage Detection, Temperature Control and Fan Switching, Embedded Control and Logic Interfacing.

⚡

Battery Voltage Supervision

The TS339ID fits battery-pack supervision because four comparator channels can monitor multiple pack voltages while each channel typically consumes only 9 µA. Its typical input impedance of 10^12 ohms minimizes loading on high-value resistor dividers, while the 1.5 µs typical response time for a 5 mV overdrive allows quick threshold transitions. A typical implementation compares divided cell or pack voltages against precise references and uses each open-drain output with a pull-up to report an overvoltage, undervoltage, or imbalance condition. The quad package reduces the number of ICs and PCB footprint compared with four single comparators.

🏭

Industrial Sensor Threshold Detection

The TS339ID is suitable for industrial sensor interfaces that convert a slowly changing analog condition into a logic event. Its extremely low typical input bias current of 0.0006 µA and typical input impedance of 10^12 ohms help preserve the accuracy of resistive sensor networks, and its -40 °C to +125 °C operating range supports equipment exposed to varying industrial temperatures. Four channels can monitor discrete sensors without requiring four packages. Open-drain outputs can drive pulled-up status lines, while the 1.5 µs typical response time is adequate for thermal, level, and limit-switch thresholds rather than high-speed waveform detection.

⚡

Power Supply Sequencing

The TS339ID can support power-supply sequencing by comparing feedback voltages from multiple regulated rails and producing discrete enable or fault indications. The 14-pin quad arrangement allows four threshold decisions to be implemented in one IC, with typical comparator consumption of 9 µA helping limit standby overhead. Each open-drain output can act as an active-low status signal when paired with a pull-up, enabling wired fault logic across several rails. Before deployment, verify the input common-mode range, output timing, and logic thresholds because comparator response alone does not guarantee a particular power-up sequence without additional timing and logic circuitry.

🔧

Overvoltage and Undervoltage Detection

Window monitoring benefits from the TS339ID because independent comparator channels can establish upper and lower limits for the same or different voltage rails. Its typical input offset voltage limit of 6500 µV helps define the practical threshold accuracy, while 10^12 ohms typical input impedance reduces divider error. The open-drain outputs can be pulled up to a system logic rail and combined into a fault indication. This makes the device suitable for power modules, embedded systems, and laboratory equipment where an out-of-range input must trigger a digital warning, reset, or shutdown request.

🌡️

Temperature Control and Fan Switching

The TS339ID can implement a simple thermal-control decision around a temperature sensor and reference, switching a fan, alarm, or status LED when the monitored level crosses a threshold. The four-channel configuration supports multiple thermal zones or separate over-temperature and under-temperature alarms. Its 1.5 µs typical response time is more than sufficient for ordinary thermal-loop switching, while 9 µA typical consumption per comparator keeps supervisory circuitry lightweight. Because the output is open-drain, it can directly sink the current of a suitably rated indicator or control input when the pull-up and drive limits are respected.

🧩

Embedded Control and Logic Interfacing

The TS339ID is useful in embedded-control boards that need analog thresholds presented to a microcontroller or programmable controller. Four channels provide independent decisions for switches, analog dividers, sensors, or simple oscillators, and the open-drain outputs can be connected to controller interrupt or fault inputs through pull-up resistors. Low input bias current reduces errors in divider networks, and the 9 µA typical consumption per comparator benefits battery-operated equipment. The 1.5 µs typical response time is suitable for control thresholds and event detection, although the design must account for pull-up capacitance and digital-input noise margins.

What is the TS339ID and what are its main specifications?
The TS339ID is a micropower quad CMOS voltage comparator with four open-drain outputs in a 14-pin SOIC package. According to the STMicroelectronics TS339 datasheet, each comparator typically consumes 9 µA, the input impedance is 10^12 ohms typically, and the response time is 1.5 µs for a 5 mV overdrive. It operates over a ±8 V to ±16 V supply range and is pin-to-pin compatible with the bipolar LM339 family.
What is the operating voltage of TS339ID?
The TS339ID operates from +8 V to +16 V or -8 V to -16 V relative to ground. This range is stated in the STMicroelectronics TS339 datasheet and supports dual-supply comparator designs as well as suitable single-supply arrangements. Before connecting the device, verify the exact input common-mode range and absolute maximum supply rating against the manufacturer documentation for the selected operating condition.
Where can I download the TS339ID datasheet PDF?
The TS339ID datasheet PDF is available through the listed TS339ID documentation resources, including the STMicroelectronics document hosted by DiGi Electronics. The manufacturer datasheet is the authoritative source for the pin assignment, electrical characteristics, application information, and recommended operating conditions. Use the datasheet pin-description table when assigning PCB tracks and when confirming the open-drain output implementation.
Where can I find the TS339ID pinout?
The TS339ID uses a 14-pin SOIC configuration with four complete comparator channels. The standard assignments are OUT1 at pin 1, IN1− at pin 2, IN1+ at pin 3, GND at pin 4, IN2+ at pin 5, IN2− at pin 6, OUT2 at pin 7, OUT3 at pin 8, IN3− at pin 9, IN3+ at pin 10, IN4+ at pin 11, IN4− at pin 12, OUT4 at pin 13, and VCC at pin 14. Cross-check these assignments against the manufacturer datasheet before layout release.
How much current does each TS339ID comparator consume?
Each TS339ID comparator typically consumes 9 µA of supply current. The STMicroelectronics datasheet describes the TS339 as a micropower CMOS alternative to the bipolar LM339, consuming about 20 times less current than the bipolar device under the stated comparison. The total device current depends on the number of active channels, operating state, supply voltage, and input conditions, so unused-channel behavior should also be evaluated in the system design.
Can TS339ID operate with a pull-up resistor on its outputs?
Yes. Every TS339ID output is open-drain, so it can pull the output node low but cannot actively drive a logic-high voltage. Connect a suitable pull-up resistor from each output node to the desired logic supply. This arrangement supports normal TTL or CMOS-compatible interfacing, wired-AND functions, and multi-node fault signaling, but the resistor value must balance rise time, power consumption, and the current required when an output is low.
Is TS339ID a drop-in replacement for LM339?
Yes, the TS339ID is described by STMicroelectronics as pin-to-pin and functionally compatible with the bipolar LM339. The principal functional distinction is implementation: TS339ID uses a micropower CMOS process, while LM339 is bipolar. Both use the familiar 14-pin comparator arrangement and open-collector or open-drain-style outputs, but board-level substitutes must still be checked for output polarity, common-mode range, response time, and supply restrictions.
What can replace the TS339ID in a voltage-detection circuit?
The LM339 is the principal drop-in replacement identified for TS339ID because the CMOS TS339 is explicitly pin-to-pin and functionally compatible with the bipolar LM339. A 14-pin SOIC LM339 can retain the comparator layout, but designers should account for the TS339ID’s typically lower 9 µA per-comparator consumption and confirm the substitute’s input offset, bias current, and response characteristics against the sensing threshold.
What is the best STMicroelectronics equivalent for TS339ID?
The TS339 family itself is the closest STMicroelectronics equivalent, with the TS339ID being the 14-pin SOIC version intended for surface-mount assembly. Ordering variants such as TS339CD or TS339IDT can change package, temperature, or packing details, so the installed footprint must be checked before substitution. For a different manufacturer, the LM339 in the matching 14-pin SOIC footprint is the primary pin-compatible candidate.
TS339ID vs LM339 — which is better for a low-power design?
The TS339ID is generally better for a low-power design because each CMOS comparator typically consumes 9 µA, while the LM339 is a bipolar implementation associated with substantially higher consumption. Both retain the 14-pin open-drain-style comparator architecture and provide the same basic threshold-detection function. Choose TS339ID when battery life or standby current is important, and retain LM339 only when an existing bipolar design is being maintained without functional changes.
When should I choose TS339ID over LM239 or LM339?
Choose TS339ID when low supply current and CMOS input characteristics are more important than preserving a bipolar implementation. The TS339ID provides typical input impedance of 10^12 ohms, a typical input offset current of 1 pA, and a typical response time of 1.5 µs. LM239 and LM339 may suit established industrial designs, but their supply current and input behavior should be compared directly against the system power budget and sensing impedance.
Is TS339ID suitable for battery monitoring and power supervision?
Yes, the TS339ID is well suited to battery monitoring and power-supervision thresholds because it combines four low-power comparator channels with a 1.5 µs typical response time. Its high typical input impedance of 10^12 ohms reduces loading of resistive divider networks. The open-drain outputs can directly drive a supervisor indication or fault node when an external pull-up is installed.
Where can I buy TS339ID and what is its price?
Use the Request a Quote form on this page to request TS339ID availability, current commercial terms, and a quotation for the required quantity. The visible pricing interface reflects current supply and channel conditions and may use quote-on-request terms. This page does not publish a static price, so request a current quote rather than relying on an outdated listing value.
What is the lead time and stock status for TS339ID?
Request the current TS339ID stock position, lead time, and minimum order quantity through the Request a Quote form on this page. Availability can change with manufacturer inventory, package configuration, and order volume. Include the required package variant, production quantity, target date, and any incoming-inspection requirements in the request so the commercial response matches the actual build plan.
How should unused TS339ID inputs and outputs be handled?
Do not leave unused comparator inputs floating. Connect each unused input to a defined potential that keeps its associated comparator in a stable state, normally ground or a valid common-mode voltage, while observing the manufacturer’s input limits. An unused output may be left unconnected if no downstream circuit requires it, but adding a pull-up is appropriate when the net must remain in a defined logic state.

엔지니어링 참조 데이터: TS339ID — 비교, 설계 지침 및 규정 준수 정보.

선택 가이드

Choose TS339ID when a design needs four voltage-threshold decisions at low power, particularly in battery-powered or precision divider-based sensing systems. Its typical 9 µA per-comparator consumption, 10^12 ohm typical input impedance, and open-drain outputs make it particularly suitable for supervision, battery monitoring, and industrial threshold detection. TS339CD is the closest same-manufacturer option when an alternate ordering configuration of the same family is acceptable. LM339DR and LM239DR preserve the 14-pin open-collector-style interface but use bipolar implementations with substantially higher typical consumption, so they are more appropriate when retaining an established legacy board is more important than power efficiency. LM2901DR does not offer equivalent quad-channel integration despite sharing the package, and four devices would be required. For any substitution, verify the input common-mode range, absolute maximum supply, offset voltage, output pull-up arrangement, and propagation delay against the original system requirements.

대체품과의 비교

파라미터 이 제품 TS339CD LM339DR LM239DR LM2901DR
Package SOIC-14 SOIC-14 SOIC-14 SOIC-14 SOIC-14
Brand STMicroelectronics STMicroelectronics Texas Instruments Texas Instruments Texas Instruments
Comparator Channels 4 channels 4 channels 4 channels 4 channels 1 channel
Output Architecture Open-drain Open-drain Open-collector Open-collector Open-collector

주요 차별점

  • Lower typical supply consumption than the bipolar LM339 reference (vs LM339DR)
  • High input impedance for divider-driven threshold detection (vs LM239DR)
  • One package provides four independent comparator channels (vs LM2901DR)

설계 노트

The open-drain outputs do not provide a logic-high drive voltage. Add a pull-up resistor to each output that must present a valid high state, and choose its value using the required rise time, bus capacitance, and low-level sink current. Do not connect a pull-up above the output’s absolute maximum voltage or assume that an unused output is self-driving.

Keep the IN+ and IN− traces short and away from switching power nodes, relay contacts, clock edges, and high-current return paths. Comparator inputs are sensitive to nearby switching energy even though the TS339ID has a typical input impedance of 10^12 ohms. Use a continuous ground plane, place the device near its reference network, and avoid routing input traces beneath inductors or boost-converter switch nodes.

Estimate comparator power consumption as P = VS × IS and include the current drawn by pull-up resistors whenever an output is low. For example, a 5 V pull-up that sinks 1 mA adds 5 mW during the asserted state. Verify the power budget and logic levels across the full -40 °C to +125 °C operating range rather than relying only on typical room-temperature characteristics.

Do not leave an unused comparator input floating. Tie both inputs of an unused channel to a defined voltage that remains inside the permitted input common-mode range, while ensuring the output state does not create an unintended system event. This prevents unpredictable switching, excess current, and noise coupling into adjacent channels.

규정 준수 정보

RoHS
Unknown
REACH
Unknown
AEC-Q100
Unknown
무연
Unknown
무할로겐
Unknown
분쟁 광물
Unknown

No explicit environmental or automotive qualification statements were identified for TS339ID. The 125 °C maximum operating temperature does not by itself establish AEC-Q100 qualification. Manufacturer documentation should be consulted for final material and process compliance requirements.

데이터 검증일: 2026-11-05 — XAIPART 부품 엔지니어링 팀이 검증하고 관리한 데이터

관련 검색

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관련 부품 & 용어

STMicroelectronics TS339ID TS339CD LM339DR LM239DR LM2901DR TS339 voltage comparator quad comparator analog comparator CMOS comparator open-drain output low-dropout comparison power management IC semiconductor SOIC-14 surface mount SMD input offset voltage input bias current input impedance response time battery monitoring industrial sensor threshold detection power supply sequencing
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