Texas Instruments

DS90LV049HMT - 400Mbps LVDS Dual Driver/Receiver Pair, 16-TSSOP

N.º de pieza: DS90LV049HMT ✓ Activo
3 V to 3.6 V Vdss 16-TSSOP (PW), 4.40 mm body width Package
MOQ: 1 |

DS90LV049HMT Descripción general

The Texas Instruments DS90LV049HMT is a dual CMOS flow-through differential line driver-receiver pair built for LVDS links above 400 Mbps, packaged in a 16-pin TSSOP (PW) that supports extended -40 °C to +125 °C operation. Each channel pairs a differential LVDS driver with a differential receiver, giving two drivers and two receivers in one package at a 3 V to 3.6 V supply.

An LVDS (Low Voltage Differential Signaling) transceiver is a signal-conditioning device that converts single-ended CMOS logic into a low-voltage differential pair and back again. In the signal-chain hierarchy it sits between a digital controller and a physical link: LVDS transceiver -> differential line interface -> interface IC -> semiconductor. Because the differential output swings only about 1.2 V across a 100 ohm differential load, the signal is inherently noise rejecting and low EMI, which is why the technique dominates high-speed backplane, video, and industrial communication links.

Key features of the DS90LV049HMT include data rates in excess of 400 Mbps, a single 3 V to 3.6 V supply rail, LVTTL/LVCMOS-compatible driver inputs, low power dissipation, and exceptional noise immunity. The flow-through pin arrangement lets inputs and outputs exit on opposite package sides, so traces run straight through the device without crossing, which simplifies routing on two-layer and four-layer boards. The H suffix denotes the high-temperature grade, extending the operating range to +125 °C for harsh industrial environments.

Internally, the device uses CMOS differential stages for both the driver and receiver sections. The driver converts a single-ended CMOS input into a balanced pair, and the receiver re-differentiates the incoming pair back into a clean CMOS output. This architecture gives constant low power dissipation across data rates and immunity to common-mode noise injected along the cable or PCB trace, which matters in environments with motor drives, relays, and switching supplies nearby.

Typical uses include point-to-point and dual-drop LVDS links between FPGAs, DSPs, and serializers, industrial control and test instrumentation backplanes, video timing and transport links, and any high-speed control interconnect where ground bounce and radiated noise would otherwise corrupt a single-ended clock or data line.

When laying out a board around this device, keep the differential pair impedance-controlled and matched, terminate the far end exactly as the datasheet recommends, and reserve solid ground-plane return beneath the pair. Because the part is a flow-through package, route inputs and outputs on opposite sides of the package so no stub or crossover is introduced on the high-speed nets.

This page consolidates the manufacturer device description, distributor and distributor-aggregator part records, temperature and packaging details, cross-reference comparisons, and practical PCB guidance so engineers can evaluate, source, and lay out the DS90LV049HMT without hunting across multiple documents.

Alternativas directas para DS90LV049HMT — mismo encapsulado, compatible pin a pin. Se excluyen las piezas de otro encapsulado que requieren retrabajo de la PCB.

DS90LV049TMT/NOPB

✅ Sustitución directa
📦 16-TSSOP (PW)
identical 16-pin TSSOP pinout and 2/2 LVDS architecture, but maximum operating temperature drops from +125 °C to +85 °C

📋 Alternativa de referencia (no en el catálogo)

DS90LV049MT/NOPB

✅ Sustitución directa ⚠️ Especificaciones sin verificar
📦 16-TSSOP (PW)
same 16-TSSOP (PW) footprint and 3 V to 3.6 V supply as the H grade, but without the extended +125 °C temperature rating

📋 Alternativa de referencia (no en el catálogo)

DS90LV049HMT/NOPB

✅ Sustitución directa
📦 16-TSSOP (PW)
identical die, package, and temperature rating to DS90LV049HMT; differs only in the NOPB lead-free ordering suffix

📋 Alternativa de referencia (no en el catálogo)

DS90LV049HMT Especificaciones

Device Type Line Transceiver (Dual Differential Line Driver and Receiver Pair)
Number of Drivers/Receivers 2 Drivers / 2 Receivers
Protocol LVDS (Low Voltage Differential Signaling)
Supply Voltage Range 3 V to 3.6 V
Maximum Data Rate >400 Mbps
Input Signal Type LVTTL / LVCMOS
Output Signal Type LVDS differential
Process Technology CMOS
Rango de temperatura de funcionamiento -40 °C to +125 °C (high-temperature grade)
Encapsulado / Carcasa 16-TSSOP (PW), 4.40 mm body width
Número de pines 16
Tipo de montaje Surface Mount
Flow-Through Pinout Yes, supports flow-through PCB routing
Packaging Tube
Lead-Free Status Lead Free
Power Dissipation Ultra low power dissipation per manufacturer description
Noise Immunity Exceptional, per manufacturer description

Guía de configuración de pines de DS90LV049HMT 16-tssop (pw), 4.40 mm body width

Configuración de pines para DS90LV049HMT (encapsulado 16-tssop (pw), 4.40 mm body width). La numeración de pines, las funciones y los diagramas de conexión se definen en la hoja de datos del fabricante. Consúltela para conocer el footprint exacto y las directrices de soldadura.

Diagrama de patillaje del encapsulado 16-tssop (pw), 4.40 mm body width para DS90LV049HMT

No hay datos detallados de patillaje disponibles para DS90LV049HMT.

Consulte la hoja de datos para ver la configuración completa de patillas.

Aplicaciones típicas

DS90LV049HMT es adecuado para 6 aplicacións: FPGA-to-FPGA High-Speed Point-to-Point Links, Industrial Control and Test Instrumentation Backplanes, Video and Imaging Data Transport, Sensor and Smart-Home IoT Edge Nodes, Aerospace and Defense Avionics Interconnects, Medical and Diagnostic Equipment Data Buses.

🖥️

FPGA-to-FPGA High-Speed Point-to-Point Links

The DS90LV049HMT fits FPGA fabric-to-fabric interconnect where the link must exceed 400 Mbps and the two boards are separated by a connector or a long backplane trace. Its LVDS differential output swings only about 1.2 V across the standard 100 ohm termination, which rejects common-mode noise from switching power stages and cuts radiated emissions compared with a single-ended CMOS link. With two drivers and two receivers in a single 16-pin TSSOP, a bidirectional pair between two FPGAs is built from one device instead of separate transmit and receive parts, saving board area. The flow-through pin arrangement lets the incoming differential pair enter on one package side and continue on the other, keeping trace geometry matched and the routing free of crossovers on two-layer and four-layer stack-ups.

🏭

Industrial Control and Test Instrumentation Backplanes

Instrumentation and machine-control cabinets combine slow sensor conditioning with fast multiplexed data, and the DS90LV049HMT carries the fast portion across the backplane. The -40 °C to +125 °C operating range covers equipment mounted in hot cabinets, near motor drives, or in temperature-controlled test fixtures. The exceptional noise immunity and ultra low power dissipation of the CMOS core mean the link keeps working beside relays, contactors, and switching converters where a single-ended line would pick up ground bounce. The 3 V to 3.6 V single supply also lets the device share the same 3.3 V rail as the controller logic, eliminating level translators at both ends of the link.

📺

Video and Imaging Data Transport

Video timing, sync, and pixel-parallel compression data are often distributed over several metres between a processor board and a display or camera head. The DS90LV049HMT delivers these signals as LVDS pairs above 400 Mbps, so multiple streams can share a cable without the crosstalk and ground-offset problems of parallel single-ended buses. Because the driver output is a small differential swing rather than a rail-to-rail CMOS edge, emissions stay low enough to pass through shielded connectors and dense cable bundles. The receiver section restores clean CMOS levels for the display controller, and the +125 °C rating suits cameras and panels mounted in sealed enclosures with limited airflow.

🧩

Sensor and Smart-Home IoT Edge Nodes

Distributed sensor nodes in smart building and factory monitoring systems often sit meters from the edge gateway, and low-cost wiring makes a robust physical layer essential. The DS90LV049HMT provides that layer at very low power dissipation, which matters when the node budget is dominated by a small battery or energy-harvesting supply. LVDS immunity to the common-mode spikes generated by relay-driven actuators and dimmable LED drivers means the link keeps integrity in electrically aggressive environments. The device accepts standard LVTTL/LVCMOS from small MCUs and directly drives the differential pair, keeping the node BOM to a single transceiver and a handful of passive terminations.

✈️

Aerospace and Defense Avionics Interconnects

Avionics and ruggedized ground-support systems need data links that keep margin over long cable runs with severe EMI. The DS90LV049HMT's LVDS physical layer provides the noise rejection and low emissions that differential signaling was designed for, and the -40 °C to +125 °C range covers unheated equipment bays and thermal-qualified boxes. Dual driver and receiver channels let a single package carry redundant or bidirectional paths, which is valuable where a link must be monitored in both directions. The flow-through TSSOP package also supports the dense, disciplined layout that flight-critical boards demand, since matched differential routing can be maintained without layer changes.

💊

Medical and Diagnostic Equipment Data Buses

Diagnostic analysers and patient-monitoring carts route high-rate sample data between acquisition boards, a processor, and display modules over cables that may run adjacent to switching and motorised subsystems. The DS90LV049HMT suits this use because LVDS rejects the common-mode interference such cables pick up, while the low power dissipation keeps thermal rise inside densely packed enclosures acceptable. The extended temperature rating supports devices that must be qualified across a wide ambient range during validation. The receiver output is standard CMOS, so it drives the FPGA or DSP acquisition engine directly without additional interfacing stages.

What is the DS90LV049HMT?
The DS90LV049HMT is a Texas Instruments high-temperature 3 V LVDS dual line driver and receiver pair in a 16-pin TSSOP (PW) package. According to the TI product page for DS90LV049H, the device is a dual CMOS flow-through differential line driver-receiver pair built for ultra low power dissipation, exceptional noise immunity, and data rates in excess of 400 Mbps. Each channel combines one differential LVDS driver and one differential receiver, so a single package carries two drivers and two receivers.
What is the operating voltage of the DS90LV049HMT?
The DS90LV049HMT operates from a single 3 V to 3.6 V supply, as stated on the manufacturer product page and distributor specification listings. Because both the CMOS logic side and the LVDS driver outputs are referenced to the same rail, no negative or split supply is required, and the device can be powered directly from a regulated 3.3 V system rail. Keep the bypass capacitor close to the supply pins to preserve the noise immunity the part is known for.
What is the maximum data rate of the DS90LV049HMT?
The DS90LV049HMT supports data rates in excess of 400 Mbps over an LVDS link. TI describes the DS90LV049 family as designed for high data throughput with exceptional noise immunity and ultra low power dissipation. In practice the achievable rate depends on the total channel length, connector and termination scheme, and PCB stack-up, so validate the target bit rate in your own layout rather than relying on the headline figure alone.
What is the temperature range of the DS90LV049HMT and how does it differ from DS90LV049TMT?
The DS90LV049HMT is the high-temperature grade with an operating range of -40 °C to +125 °C, while the non-H DS90LV049TMT is specified to a lower maximum junction temperature. Both devices use the same 16-pin TSSOP (PW) footprint and the same 2 driver / 2 receiver LVDS architecture, so the choice is purely about thermal environment: choose the H grade for industrial, automotive-adjacent, or chassis-mounted equipment exposed to elevated ambient temperatures.
Where can I download the DS90LV049HMT datasheet PDF?
The manufacturer datasheet is available from Texas Instruments at https://www.ti.com/lit/gpn/ds90lv049h, and the product page at https://www.ti.com/product/DS90LV049H carries the full ordering table and parametric data. Use the pin description table in that document when assigning PCB tracks, because the flow-through arrangement and enable/reference pin positions determine the board layout. The DS90LV049HMT is the H-grade variant of the DS90LV049 family.
Where can I find the DS90LV049HMT pinout?
The DS90LV049HMT pin configuration is documented in the pin description table of the TI DS90LV049H datasheet, and the part-details page lists the device as a 16-pin TSSOP (PW) package with flow-through pinout. Because the package routes inputs on one side and outputs on the opposite side, the pin numbering runs in flow-through order rather than clockwise around the body. Read the table directly from the manufacturer document before wiring a new layout.
What can replace the DS90LV049HMT?
The closest drop-in replacement is the DS90LV049TMT, which uses the identical 16-pin TSSOP (PW) footprint and the same dual LVDS driver/receiver architecture, differing mainly in the maximum operating temperature. The DS90LV049HMT/NOPB lead-free ordering code is also a direct match. For any substitution, confirm the supply range, temperature grade, and the enable and reference pin states in the manufacturer datasheet before committing to a footprint change.
DS90LV049HMT vs DS90LV049TMT - which is better for my application?
Choose the DS90LV049HMT when the device must work up to +125 °C, which covers industrial enclosures, hot chassis, and temperature-chamber or automotive-adjacent equipment. Choose the DS90LV049TMT when the board stays inside the lower-temp commercial or industrial range, because it costs less and shares the same pinout. Both run from 3 V to 3.6 V and exceed 400 Mbps, so temperature grade is usually the deciding factor, not speed.
When should I choose the DS90LV049HMT over a single-ended transceiver?
Choose the DS90LV049HMT when the interconnect is long enough, fast enough, or electrically noisy enough that a single-ended CMOS line would be marginal. LVDS sends a small differential signal across a 100 ohm termination, which rejects common-mode noise and cuts radiated emissions, and the DS90LV049HMT does that on links above 400 Mbps while consuming very little power. For short, slow, board-internal links a plain CMOS buffer remains simpler and cheaper.
Is the DS90LV049HMT suitable for industrial control and test equipment?
Yes. The DS90LV049HMT is specified to -40 °C to +125 °C, uses a low 3.3 V supply, and delivers exceptional noise immunity with ultra low power dissipation, all of which suit industrial control cabinets, automated test equipment, and long backplane runs. The flow-through TSSOP package also keeps routing simple on the two-layer and four-layer boards typical of industrial instrumentation, and the LVDS interface makes the link robust against nearby switching converters and motor drive noise.
What are the key specifications of the DS90LV049HMT that engineers should know?
The DS90LV049HMT is a 2-driver / 2-receiver LVDS transceiver with a 3 V to 3.6 V supply, data rates in excess of 400 Mbps, a -40 °C to +125 °C operating range, and a 16-pin TSSOP (PW) flow-through package. Its CMOS core delivers ultra low power dissipation and exceptional noise immunity, and it accepts LVTTL/LVCMOS inputs directly. It is supplied in tube packaging and is offered as a lead-free part.
How should I terminate and route the LVDS lines around the DS90LV049HMT?
Terminate the differential pair with the network recommended in the manufacturer datasheet at the far end of the link, and keep the pair impedance controlled and matched on the PCB. Route the two traces as a tightly coupled pair over a continuous ground plane, avoid vias and stubs, and keep the driver outputs away from switching nodes. Because the package is flow-through, bring the CMOS inputs in on one side and take the receiver outputs out on the other so no crossover is needed.
Does the DS90LV049HMT need external termination on every channel?
The DS90LV049HMT provides the differential driver and receiver stages, but the correct termination network for the link is specified in the manufacturer datasheet and depends on how the channel is used, including whether the receiver is connected or terminated at the far end. Use the datasheet's recommended values rather than assuming a single value for all channels, and confirm the network in simulation or with a scope on a first article if the link margin is tight.
How does the DS90LV049HMT compare with a National Semiconductor 3 V LVDS quad driver?
The DS90LV049HMT integrates both directions on a pair of channels, two differential drivers plus two differential receivers in one 16-pin TSSOP, whereas the DS90LV031AQML family is a quad differential line driver with transmit functions only. If your design needs full duplex on two channels in a single package, the DS90LV049HMT is the closer fit; if you need four transmit-only channels for a wide parallel bus, a quad driver is the more efficient choice. The two families are not pin-compatible drop-ins.
Is the DS90LV049HMT still in production?
Yes, the device is listed as an active high-temperature 3 V LVDS dual line driver and receiver pair on the Texas Instruments product page for DS90LV049H, with part number DS90LV049HMT/NOPB offered in a 16-pin TSSOP (PW) package rated -40 °C to +125 °C. It is also stocked through major authorized distributors. For current availability and lead time, submit the part number through the Request a Quote form on this page.
Where can I buy the DS90LV049HMT and what is the lead time?
The DS90LV049HMT can be sourced through the Request a Quote form on this page, which returns current availability, lot quantity, and lead time for the exact ordering code you need. Because the device ships in tube packaging with a standard production quantity per tube, request the tube quantity if your assembly process supports tube feeding. Quote requests also let us confirm the lead-free (NOPB) variant versus any legacy trace configuration before you commit to the BOM.

Datos de referencia de ingeniería para DS90LV049HMT — comparación, orientación de diseño e información de cumplimiento.

Guía de selección

Choose the DS90LV049HMT when your design needs a 3.3 V LVDS link above 400 Mbps and the equipment may see elevated ambient temperatures, since the H grade covers -40 °C to +125 °C in a standard 16-pin TSSOP (PW). Choose the DS90LV049TMT/NOPB when the board stays inside -40 °C to +85 °C and cost matters more than thermal headroom; the pinout, supply range, and channel count are identical. Use the DS90LV049HMT/NOPB code where a lead-free ordering suffix is required by your assembly documentation, as it is functionally identical to the base part. Do not reach for a transmit-only quad LVDS driver if you need receive capability, since the pin functions differ even where the package size is comparable.

Comparación con alternativas

Parámetro Este producto DS90LV049TMT/NOPB DS90LV049MT/NOPB DS90LV049HMT/NOPB
Brand Texas Instruments Texas Instruments Texas Instruments Texas Instruments
Package 16-TSSOP (PW) 16-TSSOP (PW) - same 16-TSSOP (PW) - same 16-TSSOP (PW) - same
Device Type Dual LVDS Line Driver and Receiver Pair Dual LVDS Line Driver and Receiver Pair Dual LVDS Line Driver and Receiver Pair Dual LVDS Line Driver and Receiver Pair
Number of Drivers/Receivers 2 / 2 2 / 2 2 / 2 2 / 2
Supply Voltage Range 3 V to 3.6 V 3 V to 3.6 V 3 V to 3.6 V 3 V to 3.6 V
Maximum Data Rate >400 Mbps >400 Mbps >400 Mbps >400 Mbps
Operating Temperature Range -40 °C to +125 °C (high-temperature grade) -40 °C to +85 °C (lower-temp grade) -40 °C to +85 °C (lower-temp grade) -40 °C to +125 °C (high-temperature grade)
Pin Count 16 16 16 16
Signaling Standard LVDS with LVTTL/LVCMOS inputs LVDS with LVTTL/LVCMOS inputs LVDS with LVTTL/LVCMOS inputs LVDS with LVTTL/LVCMOS inputs
Flow-Through Pinout Yes Yes Yes Yes

Diferenciadores clave

  • Extended high-temperature operation in the same drop-in footprint (frente a DS90LV049TMT/NOPB)
  • Bidirectional dual channel in one package (frente a DS90LV049MT/NOPB)
  • Exact lead-free ordering equivalent available (frente a DS90LV049HMT/NOPB)

Notas de diseño

The DS90LV049HMT is a flow-through device, so bring the differential pairs into the pins on one package side and let the traces exit on the opposite side. Keep the LVDS pair as a tightly coupled, length-matched pair over a continuous ground plane, avoid stubs, and minimize vias, because any discontinuity in the pair unbalances the differential impedance and degrades the noise rejection that makes LVDS worthwhile. Use the pin description table in the TI DS90LV049H datasheet to confirm which pins are inputs, outputs, enable, and reference.

Apply the differential termination network recommended in the manufacturer datasheet at the far end of each channel, and confirm the link budget for your cable length and data rate rather than assuming the >400 Mbps headline figure holds in your system. Any single-ended stub or test-point tap on the differential pair should be eliminated or heavily damped. Keep the driver outputs away from clocks, inductors, and switching nodes, and route them on an outer layer with an uninterrupted reference plane directly beneath.

Place the supply bypass capacitor immediately adjacent to the VCC pins and provide a solid ground-plane connection on the opposite side of the board to keep the return path short. The DS90LV049HMT consumes very little power, so its own dissipation is rarely the limit, but the 3.3 V rail feeding it must stay quiet if the link depends on the exceptional noise immunity of the device. A dedicated low-noise regulator section, isolated from switching converters, gives the best margin.

Do not substitute a transmit-only quad driver such as the DS90LV031AQML family for this part: the pin functions and channel count differ, and the receiver path would be lost. Likewise, confirm the enable and reference pin states on your schematic before power-up, since an incorrect bias can leave the outputs in an undefined state during ramp. Finally, verify the tube-packaging quantity and pick-and-place orientation against the mechanical drawing, since the flow-through body is easily mirrored on a TSSOP footprint.

Información de cumplimiento

RoHS
Unknown
REACH
Unknown
AEC-Q100
Not Applicable
Libre de plomo
Yes
Libre de halógenos
Unknown
Minerales en conflicto
Unknown

The device is listed as a lead-free part by distributor specification records. RoHS, REACH, halogen-free, and conflict-mineral declarations are not stated in the manufacturer material available for this device; request the current material declaration through the Request a Quote form on this page.

Datos verificados el: 2026-11-05 — datos verificados y seleccionados por el equipo de ingeniería de componentes de XAIPART

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Componentes & términos relacionados

Texas Instruments DS90LV049HMT DS90LV049HMT/NOPB DS90LV049TMT/NOPB DS90LV049MT/NOPB DS90LV049 LVDS Low Voltage Differential Signaling line transceiver differential line driver differential receiver interface IC semiconductor CMOS LVTTL LVCMOS TSSOP-16 PW package surface mount SMD flow-through pinout noise immunity common-mode rejection 400 Mbps industrial control
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