Produits (32865)

ADM3202ARNZ-REEL7 - 3.3V RS-232 2/2 Transceiver 460kbps | ADI
ADM3202ARNZ-REEL7

ADM3202ARNZ-REEL7 - 3.3V RS-232 2/2 Transceiver 460kbps | ADI

The Analog Devices ADM3202ARNZ-REEL7 is a low-power, 2-driver/2-receiver RS-232/V.28 line transceiver that operates from a single +3.3 V supply, supports data rates up to 460 kbps, and uses only four external 0.1 uF charge pump capacitors, housed in a 16-pin SOIC (0.154 in / 3.90 mm width) package supplied on tape and reel. An RS-232 transceiver is an interface IC that converts logic-level UART signals (TTL/CMOS, typically 0 V to 3.3 V) to the higher voltage swings defined by the EIA-232E and ITU V.28 standards, and vice versa. Within the signal-chain hierarchy, it belongs to the interface IC family alongside RS-485, CAN and USB transceivers, and sits between a microcontroller UART and a physical D-sub serial port. Because RS-232 rails can swing to +/-5 V or more, an integrated charge pump (voltage doubler and inverter) is required when only a single low-voltage supply is available. Key features of the ADM3202 include guaranteed 460 kbps operation for high-speed serial links, operation from a 3 V to 5.5 V supply range per distributor parametric data, EIA-232E/V.28 conformance, and a small external capacitor requirement of only 4 x 0.1 uF, which reduces board area and BOM cost. The complementary ADM3222/ADM1385 family members add a low-power shutdown facility for battery-powered portable instruments. Technically, the device uses CMOS charge-pump technology with integrated driver and receiver channels. The charge doubler generates V+ and the inverter generates V- from the 3.3 V rail, enabling true RS-232 output levels without a dual supply. Receivers incorporate hysteresis and tolerate input voltages up to +/-30 V, improving noise immunity on long cables. Typical applications include industrial point-of-sale equipment, networking and communication equipment serial management ports, embedded systems console/debug ports, and battery-powered portable instruments with RS-232 connectivity. Design considerations: place the four 0.1 uF charge pump capacitors as close as possible to pins 1-6, and use at least 0.1 uF of supply decoupling on VCC; note the ADM3202 itself lacks the shutdown pin available on the ADM3222 variant. This page synthesizes distributor availability, drop-in alternatives, pinout detail and design notes beyond what a single datasheet provides.

Devis Contact
ADM3251EARWZ - 2.5kV Isolated RS-232 Transceiver, 460kbps | ADI
ADM3251EARWZ

ADM3251EARWZ - 2.5kV Isolated RS-232 Transceiver, 460kbps | ADI

The Analog Devices ADM3251EARWZ is a 2.5 kV rms fully isolated, single-channel RS-232/V.28 transceiver housed in a 20-pin SOIC (7.5 mm body width) wide-body package with integrated isoPower dc-to-dc converter. It operates from a single 5 V supply, supports data rates up to 460 kbps, and delivers 25 kV/µs common-mode transient immunity (CMTI) across the reinforced isolation barrier. An RS-232 transceiver is a line interface IC that converts CMOS/TTL logic levels (0-5 V) into EIA/TIA-232E voltage swings (±5 V to ±15 V) required by legacy serial-port peripherals such as industrial PLCs, point-of-sale terminals, and instrumentation. A fully isolated variant such as the ADM3251EARWZ adds galvanic isolation (here 2.5 kV rms) between the logic-side UART and the cable-side driver/receiver, breaking ground loops and protecting low-voltage MCUs from large common-mode transients and ESD events on the bus. Key specifications include ±15 kV ESD protection (HBM) on the RIN and TOUT pins, integrated charge-pump that requires only four external 0.1 µF capacitors, low-power shutdown mode, and an exposed pad for thermal dissipation. The chip conforms to EIA/TIA-232E and ITU-T V.28 standards, ensuring interoperability with any standard RS-232 host or peripheral. Architecturally, the device combines an iCoupler digital-isolation data path with an isoPower transformer-based DC-DC converter that derives the ±RS-232 supplies internally, eliminating the need for a separate isolated supply on the cable side. This single-chip isolation approach reduces PCB area versus discrete isolator-plus-transceiver designs and simplifies regulatory compliance for medical, industrial, and renewable-energy systems. Typical applications include isolated serial ports in PLCs and motor drives, point-of-sale terminals, medical patient monitors, solar inverter diagnostics, and any RS-232 link requiring robust ground-loop immunity. When designing with this device, allocate the four 0.1 µF charge-pump capacitors close to the V+ and V- pins, and provide a low-ESR decoupling cap on VDD. Verify creepage and clearance on the PCB to maintain the 2.5 kV rms rating. This page synthesizes distributor pricing, drop-in alternatives, and design notes not found in the manufacturer datasheet.

Devis Contact
ADM483EARZ-REEL - 5V ±15kV ESD RS-485 Transceiver | Analog Devices
ADM483EARZ-REEL

ADM483EARZ-REEL - 5V ±15kV ESD RS-485 Transceiver | Analog Devices

The Analog Devices ADM483EARZ-REEL is a 5 V, slew-rate-limited, half-duplex RS-485/RS-422 transceiver with ±15 kV ESD protection on the bus pins, supplied in an 8-pin SOIC_N (SO-8) package. It delivers 250 kbps data rate, supports up to 32 nodes on a single bus, and draws only 36 µA supply current, making it a low-power solution for industrial multipoint networks. A transceiver in the RS-485/RS-422 category is a differential line driver/receiver IC that converts a single-ended TTL/CMOS logic signal into a balanced differential signal (and vice versa) for transmission over twisted-pair media. RS-485 transceivers sit at the physical layer of multipoint fieldbus architectures and are widely used because they tolerate large common-mode voltages (-7 V to +12 V) and support long cable runs, with the TIA/EIA-485-A standard allowing up to 32 unit loads on a single bus. Key features include ±15 kV HBM ESD protection per IEC 61000-4-2 air-discharge testing on the bus pins, reduced slew rate to minimize EMI, a single 5 V ±10% supply, open-circuit fail-safe receiver design, thermal shutdown, short-circuit protection on the driver outputs, and a half-duplex (1/1) topology where driver and receiver share the same differential pair. The combination of low quiescent current and integrated ESD protection eliminates external TVS arrays in most designs. The device uses a BiCMOS process that integrates the differential driver, differential receiver, charge pump for fail-safe biasing, and ESD clamp structures on a single die. The reduced-slew-rate driver edges contain common-mode harmonics above 2 MHz, simplifying FCC Class B and EN 55022 EMI compliance on cables up to several hundred meters. Typical applications include industrial fieldbus nodes (Modbus, Profibus DP, BACnet), HVAC and building automation networks, motor and motion control links, smart-grid metering, point-of-sale terminals, and any 5 V MCU/UART-to-RS-485 interface requiring robust ESD protection. Designers should note that the ADM483E shares its bus pinout with industry-standard 8-pin half-duplex RS-485 pinouts such as the MAX485, LTC485, and SP485E, enabling direct footprint compatibility when migrating between families for ESD, speed, or supply current optimization.

Devis Contact
ADM483JR - 250kbps Low-Power RS-485/RS-422 IC | Analog Devices
ADM483JR

ADM483JR - 250kbps Low-Power RS-485/RS-422 IC | Analog Devices

The Analog Devices ADM483JR is a 5 V, low-power, slew-rate-limited half-duplex RS-485/RS-422 differential line transceiver rated for data rates up to 250 kbps and housed in an 8-lead SOIC package. Its principal specifications are 120 µA typical operating supply current, 100 nA shutdown supply current, and a -7 V to +12 V bus common-mode range. According to the manufacturer product page and datasheet information, the ADM483 family is designed for low-power multipoint bus communication. An RS-485/RS-422 transceiver is an interface IC that converts logic-level signals into balanced differential signals for reliable communication over longer cables and noisy environments. The ADM483 combines a differential line driver, differential receiver, and driver-enable control in one package. It sits within the hierarchy of interface IC, communications transceiver, differential line driver and receiver, and semiconductor. Its differential signaling improves noise immunity while supporting half-duplex operation on multipoint buses. The device supports EIA RS-485 and RS-422 operation, data rates to 250 kbps, and as many as 32 transceivers on one bus. Slew-rate limiting reduces electromagnetic interference, while high-impedance outputs when disabled or powered off help prevent bus contention. Thermal shutdown and short-circuit protection improve robustness, and the specified operating-temperature range is -40°C to +85°C. The ADM483 architecture supports low-power communication links where a lower data rate is acceptable and reduced switching activity is valuable. Its 120 µA supply current is suitable for low-power instrumentation and control links, while the 100 nA shutdown current supports power-sensitive systems. The 8-lead SOIC format supports conventional surface-mount assembly and easy transition from through-hole prototype boards to compact production designs. Typical uses include industrial control networks, building-automation equipment, instrumentation, low-speed data acquisition, and RS-485/RS-422 links between distributed modules. The device is particularly appropriate where low EMI, low standby consumption, and a moderate 250 kbps data rate are more important than maximum throughput. It is not intended as a substitute for a high-speed RS-485 transceiver when the application requires data rates above its stated limit. Designers should verify termination, biasing, protection, and grounding in the completed bus. Place the transceiver near the connector, provide a continuous ground reference, and use appropriate surge protection when cables leave the board. The 8-pin SOIC footprint allows straightforward layout, but input and output filtering should be evaluated alongside cable length and external transients. This page combines the verified ADM483 family specifications, sourcing links, practical design guidance, and same-package alternatives to help engineers evaluate a 250 kbps low-power RS-485/RS-422 transceiver.

Devis Contact
ADM485AN - 5V RS-485/RS-422 Transceiver | Analog Devices
ADM485AN

ADM485AN - 5V RS-485/RS-422 Transceiver | Analog Devices

The Analog Devices ADM485AN is a 5 V low-power EIA RS-485 and RS-422 differential line transceiver rated for data rates up to 5 Mbit/s, supplied in an 8-pin PDIP package. It combines one driver and one receiver for bidirectional communication on multipoint bus transmission lines, while low propagation-delay skew helps limit electromagnetic interference. An RS-485 transceiver is an interface IC that converts logic-level digital signals into balanced differential signals for reliable communication over longer cables and noisy industrial environments. Its differential signaling improves noise immunity, enables bidirectional half-duplex buses, and supports multiple nodes when the complete bus is properly terminated and biased. The RS-422 capability provides another balanced-line interface option for point-to-point or multidrop systems. The ADM485 family is specified for both commercial and industrial temperature operation. Key application benefits include a maximum data rate of 5 Mbit/s, low-power 5 V operation, and fast switching. The ADM485AN uses the N-tube PDIP-8 package identified in distributor data, making it suitable for conventional through-hole PCB assembly rather than surface-mount production. In a typical bus design, the transceiver connects a microcontroller UART to an A and B differential pair. The logic-side supply operates from 5 V, and a driver-enable signal controls whether the transmitter or receiver participates in bus communication. Receiver enable may be managed by the same control signal for half-duplex operation, or controlled separately where full-duplex behavior is required. Proper RS-485 implementation depends on more than substituting the IC. The differential pair should be routed as a controlled-impedance cable connection, the transceiver ground reference must be managed carefully, and only the intended endpoint terminations should be installed. External protection may be needed when exposed cables carry electrostatic discharge or surge events. This page combines verified manufacturer and distributor information with practical interface guidance, replacement criteria, and design cautions. The ADM485AN should be selected when an 8-pin through-hole RS-485/RS-422 transceiver is required and its documented 5 Mbit/s capability matches the intended bus length, topology, noise environment, and system timing.

Devis Contact
ADM485AQ - 5 V Low-Power RS-485/422 Transceiver | Analog Devices
ADM485AQ

ADM485AQ - 5 V Low-Power RS-485/422 Transceiver | Analog Devices

The Analog Devices ADM485AQ is a 5 V low-power differential line transceiver for balanced RS-485 and RS-422 communication, with data rates up to 5 Mbit/s and an 8-pin ceramic DIP package. It combines one line driver and one receiver for bidirectional multipoint-bus links, industrial control, instrumentation, and data acquisition. An RS-485 transceiver is an interface IC that converts single-ended logic signals into a differential signal and receives differential signals back into logic levels. Its differential signaling improves noise immunity and allows reliable communication over longer cable runs. The ADM485 belongs to the RS-485/RS-422 transceiver family within interface ICs and the broader industrial-communications semiconductor hierarchy. Key verified features include support for both EIA RS-485 and RS-422, operation from a single 5 V supply, extremely fast switching speeds, minimal driver propagation delay, and operation over the commercial and industrial temperature range. The analog.devices.com product description specifically highlights data rates up to 5 Mbit/s and low skew for reduced EMI interference. The AQ package designation identifies the ceramic-DIP ordering option represented by the verified distributor listings. The device is intended for balanced data transmission on multipoint bus transmission lines. Its driver and receiver architecture supports robust two-wire RS-485 networks as well as compatible RS-422 point-to-point or multidrop arrangements, subject to the system-level termination and biasing requirements specified in the manufacturer documentation. The 5 V supply simplifies interfacing with conventional digital logic systems. Typical uses include industrial automation controllers, sensor and instrumentation links, factory data buses, laboratory equipment, and embedded control systems. For a new board, verify the exact ceramic-DIP footprint, pin orientation, supply decoupling, cable termination, and protection requirements before layout release. ADM485AQ is not an automotive-qualified transceiver in the verified data. This page combines the verified ADM485 product-page information, distributor pricing references, package details, and replacement guidance for engineers evaluating an 8-pin ceramic-DIP RS-485 interface. Because the supplied source excerpts do not expose the complete electrical tables, pin names, lifecycle statement, or certified drop-in replacement list, missing values remain explicitly marked as data-needed rather than inferred.

Devis Contact
ADM485AR - Low-Power RS-485/RS-422 Transceiver | Analog Devices
ADM485AR

ADM485AR - Low-Power RS-485/RS-422 Transceiver | Analog Devices

The Analog Devices ADM485AR is a 5 V low-power differential line transceiver for high-speed bidirectional communication over multipoint RS-485 and RS-422 bus lines, supplied in an 8-pin SOIC package. The verified source material identifies the device as a one-driver, one-receiver RS-422/RS-485 transceiver; detailed drive rate, receiver sensitivity, common-mode limits, supply-current limits, and package dimensions were not provided in the supplied snippets and remain to be confirmed from the manufacturer datasheet. An RS-485 transceiver is an interface IC that combines a differential line driver, differential receiver, and bidirectional bus-control logic. It converts logic-level signals between a host or controller and a balanced cable, allowing noise rejection and reliable communication over longer distances than an unbalanced interface. In the system hierarchy, the ADM485AR belongs to interface ICs and transceiver ICs, where differential signaling supports multipoint industrial, instrumentation, and automation buses. The verified Analog Devices description confirms that the ADM485 is intended for balanced data transmission and complies with EIA RS-485 and RS-422 standards. Both the driver and receiver can be enabled according to the manufacturer result, which supports controlled bus operation and integration with external direction-control logic. The ADM485AR part number is associated with an 8-SOIC package in the DigiKey result. Applications include industrial control systems, factory automation equipment, instrumentation, building-control networks, and other balanced multipoint communication links. The differential architecture helps reject common-mode noise, while the external bus transceiver architecture makes cable termination, biasing, grounding, and protection important design considerations. For a new board, use the official manufacturer datasheet to verify the complete pinout, electrical limits, recommended circuit, and package dimensions before layout. This page distinguishes verified facts from parameters that require confirmation and does not infer unprovided ratings or timing values. The useful comparison point is not merely the RS-485 label: check driver and receiver enable behavior, bus direction control, fail-safe behavior, ESD protection, common-mode range, propagation delay, and package pin compatibility. Those details determine whether another part is a true drop-in replacement.

Devis Contact
ADM485ARZ - 5V 5Mbps Half-Duplex RS-485/RS-422 Transceiver | Analog Devices (Tape & Reel)
ADM485ARZ

ADM485ARZ - 5V 5Mbps Half-Duplex RS-485/RS-422 Transceiver | Analog Devices (Tape & Reel)

The Analog Devices ADM485ARZ is a 5 V low-power EIA RS-485/RS-422 differential line transceiver in an 8-pin SOIC (SO-8) package, supporting half-duplex communication at data rates up to 5 Mbps. It provides one driver and one receiver per channel, with dedicated differential line driver outputs and receiver inputs that comply with both EIA RS-485 and RS-422 standards for balanced multipoint bus transmission. An RS-485 transceiver is a physical-layer interface IC that converts a single-ended TTL/CMOS logic signal into a differential signal transmitted across a twisted-pair cable, then converts the differential signal back into a single-ended logic signal at the receiver. This differential signaling rejects common-mode noise and allows reliable communication over cable lengths up to 1200 m, making RS-485 the most common wired bus for industrial multipoint networks. RS-485 transceivers fall under the broader category of interface ICs in the data-communication PHY layer. Key features of the ADM485ARZ include 5 Mbps signaling rate, low power consumption suitable for 5 V single-supply operation, independent driver/receiver enable pins, thermal-shutdown protection, current limiting on the driver outputs, and receiver fail-safe for an open, shorted, or idle bus. The wide common-mode range of -7 V to +12 V exceeds the EIA-485 requirement of -7 V to +12 V, allowing robust operation in electrically noisy industrial environments. Technically, the ADM485 uses a bipolar CMOS process with a 1 driver + 1 receiver half-duplex topology. Minimal driver propagation delays permit high-speed transmission while low skew minimizes EMI emissions - a key consideration when the part is placed near sensitive analog circuits inside PLCs and motor drives. Designed for industrial multipoint bus transmission, telematics, and embedded networking, the ADM485ARZ fits any application where multiple nodes must communicate reliably over a single twisted pair: factory-floor PLC links, building-automation networks, security and surveillance panels, and HVAC fieldbus nodes. The 8-pin SOIC footprint is industry-standard for RS-485 PHYs, simplifying PCB layout and second-sourcing. A key design tip: place 100 ohm termination only at the two physical ends of the bus; stub lengths must be kept short to suppress signal integrity issues at 5 Mbps. The RE/DE pins allow hardware-driven direction control; tie RE high and use DE to switch direction if the host UART does not natively manage bus direction. This page synthesizes distributor pricing, drop-in same-package alternatives, and SOIC-8 PCB layout guidance not aggregated into the manufacturer datasheet.

Devis Contact
ADM485ARZ-REEL - 5V 5Mbps Half-Duplex RS-485/RS-422 Transceiver | Analog Devices
ADM485ARZ-REEL

ADM485ARZ-REEL - 5V 5Mbps Half-Duplex RS-485/RS-422 Transceiver | Analog Devices

The Analog Devices ADM485ARZ-REEL is a 5 V low-power EIA RS-485/RS-422 differential line transceiver in an 8-pin SOIC (SO-8) package, supporting half-duplex communication at data rates up to 5 Mbps. It provides one driver and one receiver per channel, with dedicated differential line driver outputs and receiver inputs that comply with both EIA RS-485 and RS-422 standards for balanced multipoint bus transmission. An RS-485 transceiver is a physical-layer interface IC that converts a single-ended TTL/CMOS logic signal into a differential signal transmitted across a twisted-pair cable, then converts the differential signal back into a single-ended logic signal at the receiver. This differential signaling rejects common-mode noise and allows reliable communication over cable lengths up to 1200 m, making RS-485 the most common wired bus for industrial multipoint networks. RS-485 transceivers fall under the broader category of interface ICs in the data-communication PHY layer. Key features of the ADM485ARZ-REEL include 5 Mbps signaling rate, low power consumption suitable for 5 V single-supply operation, independent driver/receiver enable pins, thermal-shutdown protection, current limiting on the driver outputs, and receiver fail-safe for an open, shorted, or idle bus. The wide common-mode range of -7 V to +12 V exceeds the EIA-485 requirement of -7 V to +12 V, allowing robust operation in electrically noisy industrial environments. Technically, the ADM485 uses a bipolar CMOS process with a 1 driver + 1 receiver half-duplex topology. Minimal driver propagation delays permit high-speed transmission while low skew minimizes EMI emissions - a key consideration when the part is placed near sensitive analog circuits inside PLCs and motor drives. Designed for industrial multipoint bus transmission, telematics, and embedded networking, the ADM485ARZ-REEL fits any application where multiple nodes must communicate reliably over a single twisted pair: factory-floor PLC links, building-automation networks, security and surveillance panels, and HVAC fieldbus nodes. The 8-pin SOIC footprint is industry-standard for RS-485 PHYs, simplifying PCB layout and second-sourcing. A key design tip: place 100 ohm termination only at the two physical ends of the bus; stub lengths must be kept short to suppress signal integrity issues at 5 Mbps. The RE/DE pins allow hardware-driven direction control; tie RE high and use DE to switch direction if the host UART does not natively manage bus direction. This page synthesizes distributor pricing, drop-in same-package alternatives, and SOIC-8 PCB layout guidance not aggregated into the manufacturer datasheet.

Devis Contact
ADM488AN - 250kbps Full-Duplex RS-485 IC | Analog Devices
ADM488AN

ADM488AN - 250kbps Full-Duplex RS-485 IC | Analog Devices

The Analog Devices ADM488AN is a 5V, low-power, full-duplex, slew-rate-limited EIA RS-485 transceiver rated for data rates up to 250kbps, supplied in an 8-pin PDIP package. It combines one differential driver and one differential receiver, supports ±12V bus common-mode range, and provides 12kΩ receiver input impedance. According to the manufacturer ADM488 data sheet, the device is intended for balanced data transmission and complies with EIA RS-485 and RS-422 interfaces. An RS-485 transceiver is an interface IC that converts logic-level signals into balanced differential signals for reliable communication over long, multipoint copper buses. The differential signal helps reject common-mode noise, while the receiver converts the differential bus voltage back into a logic-level output. The ADM488 belongs to the broader RS-485 transceiver, communications interface, interface IC, and semiconductor hierarchy. Key features include a maximum 250kbps data rate, a single 5V supply, low power operation, and slew-rate-limited outputs that reduce unwanted high-frequency EMI. The receiver's 12kΩ input impedance supports practical bus loading, while the ±12V common-mode range accommodates signaling variations in industrial environments. The device also meets the EIA RS-485 standard and includes 2kV EFT protection according to the cited manufacturer and datasheet listings. The ADM488 and ADM489 family is designed for balanced differential communication on multipoint bus transmission lines. Full-duplex operation supports separate transmit and receive paths, which is useful when a node must communicate while monitoring another channel. Slew-rate limiting helps control edge rates and reduce electromagnetic emissions, although cable length, termination, biasing, and grounding remain application-level requirements. Typical applications include industrial control networks, building automation, instrumentation, factory equipment, and isolated or non-isolated RS-485 data links. The 8-pin PDIP package is suitable through-hole assembly where a robust, inspectable package is preferred. The manufacturer lists the ADM488 as a production device, but exact stock, lead time, and price are not available in the supplied data. For a new design, verify the complete pinout, receiver enable or shutdown behavior, bus termination, fail-safe biasing, and isolation strategy against the exact datasheet revision before layout. Do not substitute a part solely by function; the alternative must use the same package footprint and be pin-to-pin compatible. This page combines manufacturer information, distributor availability, and verified cross-reference results into a practical sourcing and design reference.

Devis Contact
ADM488AR - 250kbps Low-Power RS-485 Transceiver | Analog Devices
ADM488AR

ADM488AR - 250kbps Low-Power RS-485 Transceiver | Analog Devices

The Analog Devices ADM488AR is a 5 V, low-power, full-duplex, slew-rate-limited EIA RS-485/RS-422 differential line transceiver rated for data rates up to 250 kbps in an 8-lead SOIC package. It supports multipoint balanced data transmission while limiting bandwidth to reduce unwanted high-frequency harmonics and reflections. Key verified features include a ±12 V bus common-mode range, 12 kΩ input impedance, and 2 kV EFT protection. The device is intended for industrial, commercial, and instrumentation networks requiring robust differential communications. An RS-485 transceiver is an interface IC that combines a differential driver and receiver, converting logic-level signals into balanced bus signals and restoring weak or noisy bus logic levels at the receiving endpoint. In the component hierarchy, the ADM488AR is an RS-485 transceiver, an interface IC, a communications semiconductor, and a physical-layer device supporting EIA RS-485 and RS-422 networks. Full duplex provides separate transmit and receive paths, allowing a node to send and receive independently when its bus architecture supports that operation. The verified electrical features emphasize low power, controlled edges, and multipoint-bus robustness. A single 5 V supply with ±10% tolerance simplifies interface design, while 12 kΩ receiver loading permits more devices on a bus than lower-impedance receivers. The ±12 V common-mode range covers a substantial portion of industrial ground-offset conditions. Slew-rate limiting is particularly useful when slower, rounded edges reduce EMI and ringing, although cable length, topology, termination, and data rate remain system-level constraints. The ADM488AR family is specified for EIA RS-485 and RS-422 communication, as described by Analog Devices. The AR ordering code identifies the verified surface-mount package configuration, while the manufacturer product page identifies the family as a production product. Exact pin names, temperature range, supply-current limits, receiver thresholds, driver-output levels, package dimensions, and absolute maximum ratings were not available in the supplied excerpts and therefore must be confirmed from the manufacturer datasheet before layout or qualification. Typical uses include industrial automation links, building-control networks, instrumentation buses, factory equipment, remote sensor interfaces, and embedded data links. The 250 kbps ceiling favors moderate-speed control and monitoring rather than high-bandwidth Ethernet or very fast storage interfaces. In a full-duplex design, pair the driver and receiver with the bus transceiver's specified pins, route differential traces as a controlled impedance pair, and apply termination and biasing only where required by the network architecture. The principal design consideration is that slew-rate limiting is a system tradeoff rather than a universal solution. Rounded transitions can reduce high-frequency content, but overly slow edges consume signal rise-time budget and may prevent reliable operation at the maximum 250 kbps rate over long cables. PCB symmetry, connector return paths, grounding, cable type, node spacing, common-mode behavior, and protection placement must be validated together. This page combines verified Analog Devices family information, distributor evidence, sourcing status, interface-application guidance, and a strict drop-in comparison framework. It also distinguishes confirmed specifications from unavailable values, helping engineers identify which details require direct review of the official ADM488 datasheet and package drawings before release to production.

Devis Contact
ADM489AR - 250kbps Full-Duplex RS-485/422 | Analog Devices
ADM489AR

ADM489AR - 250kbps Full-Duplex RS-485/422 | Analog Devices

The Analog Devices ADM489AR is a low-power, full-duplex, slew-rate-limited differential line transceiver rated for 250 kbps data transmission and supplied in a 14-pin SOIC package. It supports the EIA RS-485 and RS-422 standards, operates from a single 5 V supply within a 4.5 V to 5.5 V range, and provides separate transmit and receive paths for full-duplex point-to-point links. Its 12 kΩ minimum input impedance and ±12 V bus common-mode range provide practical margin in industrial multipoint networks, while 2 kV EFT protection helps withstand electrically noisy environments. An RS-485 transceiver is a physical-layer interface IC that converts logic-level signals into balanced differential bus voltages and receives differential bus voltages back into CMOS-compatible logic. This device belongs to the interface-IC hierarchy, alongside RS-422 transceivers and other differential data-interface products, and sits between a digital controller and a wired communications bus. Full duplex allows the transmitter and receiver to operate simultaneously, which is useful when a node cannot wait for bus turnaround. Key features include a 250 kbps data rate, one driver and one receiver, 5 V single-supply operation, ±12 V common-mode handling, and controlled slew rate. The slew-rate limitation reduces high-frequency harmonics and reflected-signal problems by preventing excessively fast bus transitions. The 2 kV EFT protection rating is particularly relevant in industrial environments where cables may carry electrostatic-discharge transients. The ADM489AR integrates separate differential driver outputs and receiver inputs rather than using a single shared multipoint bus segment like a half-duplex transceiver. Its architecture therefore suits point-to-point full-duplex equipment, industrial controllers, and communications links where continuous send and receive capability is required. Exact pin identities, output-disable behavior, receiver enable logic, and detailed electrical limits should be confirmed against the manufacturer datasheet before layout or firmware release. Typical uses include industrial RS-485 links, RS-422 point-to-point interconnects, factory automation equipment, remote sensor interfaces, and embedded control systems. In a 5 V design, the transceiver can bridge a microcontroller UART and a balanced cable while maintaining compatibility with established differential-bus infrastructure. Compared with half-duplex RS-485 designs, the main system benefit is simultaneous transmission and reception without shared-driver contention. A key design consideration is that low data rate alone does not eliminate the need for correct bus termination, controlled impedance, common-mode grounding, and transient protection. The differential pair should be routed as a balanced pair, with connector and cable arrangements selected to minimize external noise pickup. Supply decoupling should be placed close to the device, and unused or disabled inputs must be handled according to the datasheet to avoid floating digital nodes. This product page consolidates verified manufacturer and distributor information, sourced pricing references, engineering application guidance, and honest replacement screening. It distinguishes confirmed facts from parameters that require the datasheet, helping engineers evaluate the ADM489AR for procurement and board-level design without treating merely similar RS-485 devices as verified drop-in replacements.

Devis Contact
ADN2816ACPZ - 10-675 Mb/s CDR IC, 32-LFCSP | Analog Devices
ADN2816ACPZ

ADN2816ACPZ - 10-675 Mb/s CDR IC, 32-LFCSP | Analog Devices

The Analog Devices ADN2816ACPZ is a continuous-rate clock and data recovery (CDR) IC with integrated quantizer and 1:1 output multiplexer, supporting data rates from 10 Mb/s to 675 Mb/s in a 32-lead LFCSP-WQ (5x5 mm) package. It is designed for SONET/SDH optical receivers and automatically locks to any incoming NRZ data rate in its operating range without an external reference clock or programming. The device meets all Telcordia GR-253-CORE jitter specifications including jitter transfer, jitter generation, and jitter tolerance. A CDR IC is a specialized mixed-signal device that recovers a clean clock signal from a serial data waveform that has propagated over lossy media, then re-times the data using that recovered clock. CDRs are a subset of the broader clock-and-timing IC family, sitting alongside jitter attenuators, PLL frequency synthesizers, and clock buffers; in optical transponder hierarchies they are positioned between the transimpedance amplifier (TIA) and the framer/mapper ASIC. Key features include a wide 10 Mb/s to 675 Mb/s continuous-rate range, automatic rate detection via on-chip PLL locking, integrated limiting amplifier with adjustable threshold, and a CML output interface that interfaces directly to downstream framer ASICs. The part requires no external reference clock and provides loss-of-signal (LOS) and lock-detect indicator outputs for system-level monitoring. The ADN2816 uses a phase-locked loop architecture with a high-Q internal VCO and lock detector. The internal limiting amplifier provides signal threshold adjustment for incoming data, while the CDR PLL provides the recovered clock with low jitter generation meeting SONET requirements. The output multiplexer integrates a 1:1 selector for serial data routing. Typical applications include SONET OC-1/OC-3/OC-12/SDH STM-1/STM-4 optical transponder designs, Fiber Channel and Gigabit Ethernet serializer/deserializer interfaces, and WDM system line cards where compact CDR functionality is required. It is also suitable for test and measurement equipment recovering clocks from NRZ optical or electrical test signals. When designing with the ADN2816ACPZ, the VEE pins must be soldered directly to the ground plane to minimize series inductance, and Pin 23 (ground return for the output buffers) requires multiple parallel vias if connected through internal planes. Decoupling capacitors should be placed close to each supply pin. This page synthesizes distributor pricing, drop-in same-brand and cross-brand alternatives, and PCB layout guidance from the manufacturer datasheet - information not consolidated on distributor product pages.

Devis Contact
ADN4624BCPZ - Quad 2.5Gbps LVDS Isolator | Analog Devices
ADN4624BCPZ

ADN4624BCPZ - Quad 2.5Gbps LVDS Isolator | Analog Devices

The ADN4624BCPZ is a quad-channel, signal-isolated, low-voltage differential signaling (LVDS) buffer from Analog Devices that operates at data rates up to 2.5 Gbps with very low jitter. It integrates Analog Devices' iCoupler technology, enhanced for high-speed operation, to provide drop-in galvanic isolation of LVDS signal chains. The device is available in a 32-lead WFQFN exposed pad package (LFCSP) and supports a wide supply range of 1.7 V to 1.9 V on both VDD1 and VDD2, with a typical supply of 1.8 V. It provides 5700 Vrms isolation voltage and a common-mode transient immunity (CMTI) of 40 kV/µs, making it suitable for industrial and medical applications where robust isolation is critical. A digital isolator is a device that transfers digital signals across an isolation barrier, typically using capacitive, inductive, or optical coupling, to protect sensitive circuitry from high voltages, ground loops, and noise. In the hierarchy of signal conditioning, a digital isolator sits between the digital signal source and the receiving logic, ensuring signal integrity and safety. The ADN4624BCPZ specifically isolates LVDS signals, which are differential, low-voltage, high-speed signals used in applications like data acquisition, industrial networking, and medical imaging. Key features of the ADN4624BCPZ include four isolated LVDS channels (4+0 configuration), a data rate of 2.5 Gbps per channel, and very low jitter, which is essential for high-speed serial links. The device also features a refresh mechanism that monitors input and output states to ensure they remain the same in the absence of data transitions, such as at power-on. The 1.8 V supplies for the LVDS and isolator circuits enable low power consumption while maintaining high-speed operation. Technically, the ADN4624BCPZ uses iCoupler technology, which employs chip-scale transformers to couple signals across the isolation barrier. This approach provides superior performance compared to optocouplers in terms of speed, power, and reliability. The device is designed to meet the stringent requirements of industrial automation, motor control, and medical equipment, where isolation and signal integrity are paramount. Typical applications include isolated LVDS interfaces in data acquisition systems, industrial fieldbus networks, and medical imaging equipment. The ADN4624BCPZ is also used in test and measurement instruments where high-speed data transfer with galvanic isolation is required. When designing with this device, ensure that the supply voltages are within the specified range and that proper decoupling capacitors are placed close to the VDD pins. The exposed pad should be soldered to the PCB ground plane for optimal thermal performance. Also, consider the CMTI rating when operating in environments with high voltage transients.

Devis Contact
ADN4624BCPZ-RL7 - Quad LVDS Isolator 2.5Gbps | Analog Devices
ADN4624BCPZ-RL7

ADN4624BCPZ-RL7 - Quad LVDS Isolator 2.5Gbps | Analog Devices

The ADN4624BCPZ-RL7 is a quad-channel, signal-isolated, low-voltage differential signaling (LVDS) buffer from Analog Devices that operates at data rates up to 2.5 Gbps with very low jitter. It integrates Analog Devices' iCoupler technology, enhanced for high-speed operation to provide drop-in galvanic isolation of LVDS signal chains. The device is available in a 32-lead WFQFN exposed pad package (CSP) and provides 5.7 kV rms isolation voltage with a common-mode transient immunity (CMTI) of 40 kV/µs. A digital isolator is a component that provides galvanic isolation between two circuits while allowing digital signals to pass across the isolation barrier. In the hierarchy of isolation components, a digital isolator is a type of signal isolator, which falls under the broader category of isolation components used in power management and signal conditioning. The ADN4624 specifically isolates LVDS signals, which are differential, low-voltage, high-speed signals commonly used in high-speed data transmission. Key features include four isolated LVDS channels (4+0 configuration), support for 1.7 V to 1.9 V supply voltages on both sides (VDD1 and VDD2), and an operating temperature range of -40°C to +125°C. The device ensures very low jitter, making it suitable for high-speed serial links where signal integrity is critical. The 5.7 kV rms isolation rating provides robust protection against voltage transients and ground potential differences. Technically, the ADN4624 uses iCoupler technology, which employs chip-scale transformers to transmit data across the isolation barrier, offering advantages over optocouplers in terms of speed, power consumption, and reliability. The device supports AC coupling and/or level shifting to LVDS receivers and from LVDS drivers, simplifying interface design. The 32-lead WFQFN package with exposed pad aids in thermal management and is suitable for space-constrained applications. Typical applications include isolated high-speed data acquisition systems, industrial fieldbus interfaces, medical equipment requiring patient isolation, and communication backplanes. The device is ideal for systems where high-speed data must cross an isolation barrier without compromising signal integrity. When designing with the ADN4624, ensure proper PCB layout with adequate spacing for isolation, and place decoupling capacitors close to the VDD1 and VDD2 pins. The exposed pad should be connected to the appropriate ground plane for thermal performance.

Devis Contact
ADP5585ACBZ-00-R7 - 10 I/O Keypad Controller | Analog Devices
ADP5585ACBZ-00-R7

ADP5585ACBZ-00-R7 - 10 I/O Keypad Controller | Analog Devices

The Analog Devices ADP5585ACBZ-00-R7 is a 10-I/O port expander with a built-in keypad matrix decoder, programmable logic, reset generator, and PWM generator, housed in a 16-WLCSP package measuring 1.59 mm by 1.59 mm. The device uses an I2C interface and is designed to increase the number of inputs and outputs available to a host processor or reduce host GPIO requirements in compact embedded systems. An I/O expander is an interface IC that adds configurable digital input and output pins to a processor through a serial bus. The ADP5585 extends this function with event-oriented keypad scanning, a 16-element FIFO for recording events, programmable logic, and PWM generation. Its 10 configurable I/Os can support keypad decoding and other peripheral functions in portable devices, remote controls, cameras, healthcare equipment, industrial instrumentation, and other compact control systems. The verified product data identifies the device as an 8-bit I/O expander with a 1 MHz I2C interface and an operating supply range from 1.65 V to 3.6 V. The 16-WLCSP package is intended for space-constrained PCB layouts, while the integrated keypad functionality helps designers reduce the number of discrete row and column connections required for matrix keypads. The device also provides reset-generation and programmable-logic functions that can simplify control-panel designs. The ADP5585 is especially useful when a system needs both general-purpose digital I/O and keypad event detection. Instead of assigning every keypad row and column directly to a microcontroller, the host processor can configure the ADP5585 through I2C and read keypad events from the device FIFO. This can reduce processor pin count and simplify firmware organization, although the exact implementation must follow the manufacturer's register and electrical guidance. ADP5585ACBZ-01-R7 and ADP5585ACPZ-01-R7 are mentioned in the manufacturer datasheet for configurations supporting a larger keypad matrix. The target ADP5585ACBZ-00-R7 should therefore be selected only after confirming the required matrix size, pinout, voltage range, and register behavior. The available verified data does not provide exact pricing, complete pin names, lifecycle status, or a complete pinout for this specific ordering code. This page combines the verified manufacturer and distributor information with application guidance, design cautions, and comparison placeholders where source data is unavailable. Review the manufacturer datasheet before finalizing PCB layout, firmware, voltage tolerances, or production sourcing.

Devis Contact
ADP5587ACBZ-R7 - 18-GPIO I/O Expander | Analog Devices
ADP5587ACBZ-R7

ADP5587ACBZ-R7 - 18-GPIO I/O Expander | Analog Devices

The Analog Devices ADP5587ACBZ-R7 is a production mobile I/O expander and QWERTY keypad controller with 18 GPIO resources, a 400 kHz I2C interface, and 1.65 V to 3.6 V operation in a 25-WLCSP package measuring approximately 1.97 mm by 1.97 mm. It consolidates keypad scanning and additional digital I/O where a host processor has limited direct GPIO capacity. An I/O expander is an interface IC that extends a processor's input/output capacity over a serial bus. In the product hierarchy, the ADP5587 is an I/O expander, then a serial interface device and an integrated circuit. The ADP5587 adds value beyond ordinary GPIO expansion because its eight configurable GPIOs can operate as keypad rows or columns, while the remaining lines support general-purpose inputs, outputs, and interrupt signaling. Key features include support for an 18-GPIO configuration or a 10-by-8 keypad matrix, I2C auto-increment, an open-drain interrupt output, programmable pull-ups, key-press and key-release interrupts, a key-event counter with overflow indication, keypad locking, and a 275 microsecond debounce interval. These functions reduce host-side scanning logic while preserving event-driven communication with the processor. The device is designed around low-voltage mobile systems. Its I2C host interface runs at 400 kHz, and its 1.65 V to 3.6 V operating range suits compatible mobile and embedded rails. The compact WLCSP construction supports space-constrained handheld layouts, although its fine-pitch footprint demands careful PCB assembly, clean supply bypassing, and pin-accurate layout according to the Analog Devices package drawing. Typical uses include QWERTY keypad controllers, mobile handsets, portable navigation equipment, compact industrial user-interface panels, and other embedded products that need a dense matrix of switch inputs or additional GPIO lines. The host processor reads key events and configuration registers through I2C, while the interrupt line provides an event-driven indication of relevant key activity. For layout, keep I2C routing short, provide the required decoupling close to the supply pins, and verify the exposed-pad connection and assembly requirements in the manufacturer datasheet. Pull-ups must match the host voltage, bus capacitance, and timing budget. Software should also account for debounce, interrupt level programming, and event-counter overflow behavior. This page consolidates verified manufacturer and distributor facts, strict package constraints, application guidance, and clearly flagged data gaps. It distinguishes documented drop-in candidates from broader functional equivalents so engineers do not mistake a different footprint or feature set for a true PCB-level replacement.

Devis Contact
ADP5587ACPZ-1-R7 - 18-GPIO I/O Expander | Analog Devices
ADP5587ACPZ-1-R7

ADP5587ACPZ-1-R7 - 18-GPIO I/O Expander | Analog Devices

The Analog Devices ADP5587ACPZ-1-R7 is an 18-GPIO I/O expander and QWERTY keypad controller with an I2C interface operating up to 400 kHz, packaged in a 24-LFCSP-WQ 4 mm × 4 mm package. It is designed for mobile platforms where the main processor has limited GPIO capacity and needs additional inputs, outputs, and keypad scanning functions. The verified distributor listing identifies the device as an 18-I/O expander with keypad-scanner functionality and a 400 kHz I2C interface. An I/O expander is an interface IC that increases the number of general-purpose input/output lines available to a host processor. The ADP5587 supports mobile keypad architectures by combining configurable GPIOs with keypad row and column functions, reducing the number of host pins required for physical key matrices. Its position in the hierarchy is GPIO expander → keypad controller → interface IC → semiconductor. The ADP5587 family is intended for QWERTY-type phone designs and similar human-interface systems. Its GPIO expansion capability allows the host to scan controls, read switch states, drive indicator or control lines, and manage keypad rows and columns through the serial interface. The I2C interface with auto-increment supports efficient register access, while the compact 24-LFCSP-WQ package supports space-constrained mobile equipment. The verified data does not provide complete electrical limits, pin-level functions, or timing values, so those parameters remain marked for data completion rather than inferred. Typical applications include mobile phone keypads, portable navigation devices, handheld terminals, compact consumer equipment, and other products that need more host-controlled I/O than the processor exposes directly. The ADP5587 is particularly useful when a design needs both general-purpose digital lines and keypad scanning in one device. Compared with a pure GPIO expander, it adds keypad-oriented functions; compared with a larger host MCU, it can reduce processor pin count and centralize human-interface I/O. Designers should verify the package-specific pinout, I2C address configuration, voltage limits, and electrical timing against the manufacturer datasheet before layout. The compact WQ package also requires careful PCB escape routing and thermal assessment according to the manufacturer’s recommended land pattern. This page combines verified distributor availability and product descriptions with structured application guidance and clearly identifies parameters that require datasheet confirmation.

Devis Contact
ADP5587ACPZ-R7 - 18-GPIO Mobile I/O Expander | Analog Devices
ADP5587ACPZ-R7

ADP5587ACPZ-R7 - 18-GPIO Mobile I/O Expander | Analog Devices

The Analog Devices ADP5587ACPZ-R7 is a mobile I/O expander and QWERTY keypad controller with 18 GPIOs, an 8×8 keypad matrix, and a 400 kHz I2C interface. It operates from 1.65 V to 3.6 V and is housed in a 24-lead LFCSP-WQ package measuring 4 mm × 4 mm. The device is designed to add key-scanning and general-purpose I/O capacity when a mobile processor has limited GPIO resources. An I/O expander is an interface IC that extends a host processor through a serial bus. The ADP5587 supports eight independently configurable general-purpose inputs and outputs plus keypad matrix functions, placing key scanning and decoding in a compact peripheral. In the system hierarchy, it is an I/O expander, interface IC, and mobile system peripheral. Its 400 kHz I2C rate allows the host to update I/O state while the integrated keypad logic handles scanning. The supplied manufacturer information identifies an 18-GPIO port expander, configurable GPIOs, and an 8-keypad-matrix implementation. It also provides keypad-lock functionality and operation to 3.6 V. These features make the device relevant to QWERTY phones and other compact portable systems where board area and host-pin count are constrained. The part uses an I2C interface with auto-increment, reducing host-side register-access overhead for sequential register updates. Its 2 mm × 2 mm core package description in the manufacturer snippet corresponds to the compact class of device intended for mobile designs, while distributor records identify the ordering code as a 24-LFCSP-WQ, 4 mm × 4 mm package. Exact pin names, electrical limits, and register details require the official datasheet rather than distributor summaries. Typical uses include QWERTY keypad scanning, mobile navigation controls, compact wearable interfaces, portable measurement controls, and industrial panels requiring additional GPIO. The device can reduce direct processor connections, although the I2C bus and interrupt behavior must be checked against the host system requirements. When designing around the ADP5587, first verify the exact ACPZ pinout, exposed-pad connection, voltage limits, and decoupling requirements in the Analog Devices datasheet. Confirm that the host I2C voltage, address configuration, and keypad matrix geometry match the intended board. This page combines verified manufacturer and distributor information, lifecycle context, package details, commercial questions, and engineering-oriented design guidance. It also distinguishes confirmed drop-in alternatives from functional equivalents that may require different packages or pin assignments.

Devis Contact
ADP5588ACPZ-R7 - 18-GPIO Mobile Keypad Controller | Analog Devices
ADP5588ACPZ-R7

ADP5588ACPZ-R7 - 18-GPIO Mobile Keypad Controller | Analog Devices

The Analog Devices ADP5588ACPZ-R7 is a 3.0 V mobile I/O expander and QWERTY keypad controller with 18 configurable GPIOs, dual light-sensor inputs, and an I2C interface, housed in a 24-LFCSP-WQ package measuring 4 mm × 4 mm. It supports keypad configurations up to 10 × 8 and integrates key scanning, decoding, and interrupt handling to conserve host-processor GPIO resources. An I/O expander is an interface IC that extends the number of digital input and output lines available to a host controller. A keypad controller adds matrix-scanning and event detection, while an I2C interface IC connects compact peripheral logic to a processor bus. Within the hierarchy of interface ICs, this device reduces wiring and pin demand in mobile, wearable, and compact embedded systems. Key features include 18 GPIOs configurable as inputs, outputs, keypad rows, or keypad columns; two dedicated light-sensor inputs; I2C register-read autoincrement; programmable pull-ups; keypad locking; an open-drain interrupt output; and key-press and key-release interrupts. The GPI interrupt also supports programmable levels. These functions allow one controller to handle both a large keypad and additional discrete interface signals. The ADP5588 is designed for low-voltage mobile platforms. Verified manufacturer data specifies operation from 1.8 V to 3.0 V, while one distributor summary separately emphasizes 3.0 V operation. The compact 24-LFCSP-WQ package is suited to space-constrained boards, but its fine pitch requires careful PCB layout and assembly. Its I2C connection reduces host pins, although firmware must configure GPIO direction, pull-ups, interrupt behavior, and keypad dimensions. Typical uses include QWERTY keypad modules, handheld calculators, mobile accessories, wearable controls, light-sensor-equipped keypads, industrial key-entry panels, and custom HMI boards. The device can expand a processor with limited GPIO while providing dedicated key events through its interrupt output. Designers should verify the complete pinout, exposed-pad connection, address configuration, and supported I2C clock and voltage limits in the manufacturer datasheet. Place the device close to the keypad matrix, provide clean local decoupling, route I2C signals away from switching nodes, and validate signal levels and pull-ups across the complete system voltage range. This page consolidates verified distributor availability, manufacturer functionality, packaging data, purchasing information, and application guidance. It distinguishes documented functions from parameters that still require confirmation, helping engineers evaluate the ADP5588ACPZ-R7 without inferring missing electrical values.

Devis Contact
ADP5588XCPZ-R7 - 18-GPIO Mobile I/O Expander | Analog Devices
ADP5588XCPZ-R7

ADP5588XCPZ-R7 - 18-GPIO Mobile I/O Expander | Analog Devices

The Analog Devices ADP5588XCPZ-R7 is a production 18-GPIO mobile I/O expander and QWERTY keypad controller operating from 1.8 V to 3.0 V in a 24-lead LFCSP-WQ package. It integrates an I2C interface, programmable key-event functions, dual light-sensor inputs, programmable GPIO configurations, and an open-drain interrupt output. The device is designed for keypad and alarm-system interfaces where a compact controller can scan matrix keys, monitor external signals, and report events to a host processor. An I/O expander is an interface IC that increases the number of inputs and outputs available to a host without requiring a processor with a large integrated GPIO package. In the hierarchy of electronic components, the ADP5588 belongs to the interface-IC class, specifically a mobile I/O expander and keypad controller. Its GPIO resources can be configured as general-purpose inputs, general-purpose outputs, keypad rows, or keypad columns, allowing one device to support multiple panel functions. Key features include support for an 18-GPIO port expander or a 10 × 8 keypad matrix, dual light-sensor inputs identified as C8 and C9, I2C register read autoincrement, keypad lock capability, and key-press and key-release interrupts. The open-drain interrupt output supports signaling to a connected controller, while programmable pull-ups and GPI level programmability provide flexibility for panel-level signal conditioning and interrupt behavior. The ADP5588 datasheet identifies the device as a mobile I/O expander and QWERTY keypad controller intended for keypad and alarm-system interfaces. Its 1.8 V to 3.0 V operating range suits low-voltage embedded systems. The I2C host interface reduces the number of dedicated processor pins, and the GPIO/keypad multiplexing helps consolidate keypad scanning, auxiliary input, and output functions into a compact controller. Typical applications include QWERTY keypad panels, alarm-system user interfaces, compact control panels, mobile equipment, and industrial HMI modules. In a keypad implementation, the device can scan matrix rows and columns while generating key-press and key-release events. The dual light-sensor inputs can also support panel functions where analog light sensing is required, although the verified excerpt does not provide their electrical characteristics. Designers should confirm the exact CPZ pin mapping, exposed-pad connection, I2C address configuration, pull-up values, and interrupt polarity in the manufacturer datasheet before layout. Keep I2C traces short, provide the required pull-ups, and account for the open-drain interrupt output. Since this is a digital interface IC, SOA is not applicable.

Devis Contact
ADS1100A3IDBVRG4 - 16-Bit Self-Calibrating I2C ADC | Texas Instruments
ADS1100A3IDBVRG4

ADS1100A3IDBVRG4 - 16-Bit Self-Calibrating I2C ADC | Texas Instruments

The Texas Instruments ADS1100A3IDBVRG4 is a 16-bit, self-calibrating, delta-sigma analog-to-digital converter (ADC) with a single differential input, integrated programmable gain amplifier (PGA), internal oscillator, and I2C-compatible serial interface, packaged in a 6-pin SOT-23. The 'A3' device-slave-address suffix sets the I2C address to 0x48 (GND) or 0x4A (VDD) depending on the ADDR pin, and the part supports user-programmable data rates of 8, 16, 32, or 128 samples per second (SPS). It operates from a single 2.7 V to 5.5 V supply and performs conversions ratiometrically using the supply as the reference voltage. A delta-sigma (sigma-delta) ADC is a type of oversampling converter that uses a modulator loop and a digital decimation filter to achieve high resolution at low bandwidth. Within the broader converter taxonomy it belongs to the precision-ADC family, sitting between successive-approximation register (SAR) ADCs (faster, lower-resolution) and integrating ADCs (slowest, highest noise-rejection). The ADS1100 integrates the modulator, digital filter, PGA, and I2C interface into a single chip, making it a complete data-acquisition system in a tiny SOT-23-6 footprint suitable for board-constrained designs. Key features include a maximum integral nonlinearity (INL) of 0.0125% of full-scale range, no missing codes at 16 bits, continuous self-calibration, single-cycle conversion, PGA gains of 1, 2, 4, or 8, and low noise of 4 uVp-p. The continuous self-calibration scheme removes offset and gain drift in real time, eliminating the periodic user calibration required by many competing converters and simplifying long-running sensor measurements. Typical applications include portable instrumentation, weigh scales, industrial process control, factory-automation analog front-ends, battery monitors, and consumer sensor read-out boards where a small footprint, low power consumption, and I2C connectivity outweigh the need for higher sample rates or true differential bipolar inputs. The ratiometric conversion principle makes the ADS1100 especially attractive for bridge sensor measurements powered by the same rail as the ADC. A key design consideration is the supply used as the reference: any noise or drift on VDD appears directly in the conversion, so a clean, low-impedance supply with adequate decoupling is essential. The ADS1100A3IDBVRG4 is supplied on a 3000-piece tape-and-reel and is qualified for the -40 C to +85 C industrial temperature range. This page synthesizes distributor pricing, drop-in alternatives, and practical design notes not found in the manufacturer datasheet, giving engineers a single source for selection, sourcing, and PCB implementation guidance.

Devis Contact
ADS1100A5IDBVRG4 - 16-Bit Self-Calibrating Sigma-Delta ADC | TI
ADS1100A5IDBVRG4

ADS1100A5IDBVRG4 - 16-Bit Self-Calibrating Sigma-Delta ADC | TI

The Texas Instruments ADS1100A5IDBVRG4 is a 16-bit, self-calibrating, single-channel delta-sigma analog-to-digital converter (ADC) with an integrated programmable gain amplifier (PGA) and I2C-compatible serial interface, housed in a 6-pin SOT-23 (DBV) package. Key headline parameters include 16-bit resolution with no missing codes, 128 samples per second (SPS) maximum data rate, and an input voltage range of 2.7V to 5.5V from a single supply. The device also offers an INL of 0.0125% of FSR maximum and 4 uVp-p low noise. An ADC (Analog-to-Digital Converter) is a semiconductor device that converts continuous analog voltage signals into discrete digital codes for processing by microcontrollers or DSPs. Delta-sigma (sigma-delta) ADCs use oversampling and noise shaping to achieve high resolution at low data rates, making them ideal for precision DC measurement applications such as industrial sensors, weigh scales, and temperature monitoring. Within the power management and signal chain hierarchy, the ADS1100 belongs to data acquisition ICs -> ADCs -> delta-sigma ADCs -> precision measurement converters. Key features include continuous self-calibration that corrects internal drift on every conversion, a single-cycle conversion mode for low-latency readings, and a programmable gain amplifier with gain of 8x that allows small sensor signals to be digitized directly without external amplification. The internal oscillator eliminates the need for an external clock, and the I2C interface simplifies connection to microcontrollers with only two wires. The architecture combines a delta-sigma modulator with a digital filter providing simultaneous 50Hz and 60Hz line rejection at the 8/16/32/128 SPS data rate selections. The self-calibration mechanism performs both offset and gain correction continuously, ensuring the 16-bit no-missing-codes performance is maintained across the operating range without user intervention. Conversions are performed ratiometrically using the power supply as the reference voltage, simplifying external circuit design. Typical applications include portable instrumentation, weigh scales, industrial process control, temperature and pressure sensor digitizers, battery management monitors, and consumer measurement products where PCB space is constrained. The SOT-23-6 footprint is among the smallest 16-bit ADC packages available, enabling single-board designs where board real estate is critical. When designing with this device, choose appropriate data rate vs. noise trade-off: 8 SPS gives best noise performance for thermocouple or weigh-scale signals, while 128 SPS enables faster response for general-purpose monitoring. Decouple VDD with 100nF close to the pin. This page synthesizes distributor pricing, drop-in alternatives, and practical design notes not found in the manufacturer datasheet.

Devis Contact
ADS1100A6IDBVRG4 - 16-Bit I2C ADC with PGA, SOT-23-6 | TI
ADS1100A6IDBVRG4

ADS1100A6IDBVRG4 - 16-Bit I2C ADC with PGA, SOT-23-6 | TI

The Texas Instruments ADS1100A6IDBVRG4 is a self-calibrating, 16-bit, single-channel delta-sigma analog-to-digital converter (ADC) with a programmable gain amplifier (PGA), integrated oscillator, and I2C-compatible serial interface, housed in a 6-pin SOT-23 package. The A6 address variant targets designers who need address bit A0 tied high. It operates from a single 2.7 V to 5.5 V supply, performs conversions at 8, 16, 32, or 128 samples per second (SPS), and supports PGA gains of 1, 2, 4, and 8 for full-scale input ranges of ±2.048 V down to ±0.256 V when using the supply as reference. An ADC (analog-to-digital converter) is a data-acquisition component that converts continuous analog signals into discrete digital codes; delta-sigma ADCs in particular use oversampling and noise shaping to achieve high resolution at low sample rates. Within the broader hierarchy, this part is a precision sigma-delta ADC, which sits beneath successive-approximation (SAR) and pipeline ADCs in the data-converter taxonomy, and it ultimately belongs to the power-management-adjacent signal-chain IC family. The ADS1100's continuous self-calibration corrects internal drift on every conversion, yielding no missing codes at 16 bits and INL of 0.0125% of FSR maximum. Key features include single-cycle conversion, an effective 4 uVp-p low-noise floor at the higher PGA gains, on-chip PGA with gain 1/2/4/8, and ratiometric conversion that uses VDD as the reference for absolute measurements when an external reference is not desired. The I2C interface simplifies connection to virtually any microcontroller, and the I2C address is partially set by the A6 / A1 / A4 / A0 suffix scheme to allow multiple devices on one bus. Architecturally, the part combines a switched-capacitor delta-sigma modulator, a digital sinc³ filter, an offset and gain calibration DAC, and a PGA front end. The single-cycle settling of the digital filter ensures clean step responses for multiplexed inputs and removes the long filter-tail artifacts typical of higher-order sinc filters used at higher data rates. Typical applications include portable instrumentation, weigh scales, industrial process controls, factory-automation sensor transmitters, consumer battery-powered sensors, and temperature monitoring with thermocouples or RTDs using the PGA for small-signal gain. It is well suited wherever PCB area is constrained but 16-bit resolution is required. When designing, place 0.1 uF decoupling capacitors close to VDD and keep the analog inputs away from digital return currents; using VDD as the reference simplifies layout but means regulator noise directly couples to the conversion result.

Devis Contact