NXP Semiconductors

PN5190 - 13.56MHz High-Power NFC Frontend IC | NXP

MPN: PN5190 βœ“ Active
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2.4 V to 6 V Vdss 40-VFLGA with Exposed Pad Package 13.56 MHz Speed
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PN5190 Overview

The NXP Semiconductors PN5190 is a full NFC frontend controller IC operating at 13.56 MHz with high RF output power for challenging RF environments, supporting protocols including ISO 14443A/B, ISO 15693, ISO 18000-3, ISO 18092 (NFCIP-1), ISO 21481, FeliCa, and MIFARE, with interfaces such as SPI and, on the B2EV variant, I2C and USB, housed in a 40-pin VFLGA package with exposed pad (part PN5190B1HN/C121E) or a 64-ball VFBGA package (PN5190B2EV/C131K).

An NFC frontend is the analog and protocol-engine portion of a near-field communication reader system: it drives the antenna, receives and demodulates the card response, and executes protocol state machines, while a host microcontroller handles application logic. In the system hierarchy, it sits between the antenna coil and the host processor within the RFID/NPC reader IC family, one level below complete reader modules.

Key features include enhanced high RF output power enabling small antenna designs and long reading distances, improved receiver sensitivity for interoperability with a broad range of smartcards and mobile phones, and a feature set specifically engineered to simplify EMVCo 3.0/3.2 analog and digital Level 1 certification, a critical cost and schedule factor for payment terminal manufacturers.

Technically, the PN5190B1 silicon (version B1) runs firmware V2.0 or higher, per the NXP product documentation, and integrates the full 13.56 MHz RF front end, modulation and demodulation chains, and protocol support in a single chip. The supply range for the VFLGA-40 variant is 2.4 V to 6 V, and for the VFBGA-64 EV variant 2.4 V to 5.5 V, allowing direct operation from battery or standard logic rails.

Typical applications include EMVCo-compliant point-of-sale payment terminals, contactless access control readers supporting MIFARE and ISO/IEC 14443, and public transportation ticketing systems using FeliCa and ISO 15693. High output power makes it particularly suitable for terminals with metal surroundings or compact antennas.

Design consideration: NXP application note AN12549 states that PN5190 antenna design follows the same methodology as the PN5180, with additional new features to consider for optimized performance; follow that guide for matching network and EMC filter sizing.

This page synthesizes distributor data, drop-in variant information, and practical design notes not found in the manufacturer datasheet alone.

Drop-in alternatives for PN5190 β€” same package, pin-to-pin compatible. Different-package parts requiring PCB rework are excluded.

Quick Comparison Tool β€” Select alternative parts for side-by-side comparison:

PN5190B2HN

βœ… Drop-In
πŸ“¦ 40-VFLGA (exposed pad)
newer silicon (B2) vs B1, firmware upgrade path, EMVCo 3.2 L1 compliance emphasis; same 40-VFLGA footprint family

πŸ“‹ Reference alternative (not in catalog)

PN5190B2EV/C131K

βœ… Drop-In
πŸ“¦ 64-VFBGA
adds I2C and USB host interfaces and 2.4 V to 5.5 V supply; different ball-out package (64-VFBGA vs 40-VFLGA), not footprint-identical - list only for new designs

πŸ“‹ Reference alternative (not in catalog)

PN5190 Specifications

Function NFC Frontend (Reader/Transponder IC)
Carrier Frequency 13.56 MHz
Supported Protocols FeliCa, ISO 14443A/B, ISO 15693, ISO 18000-3, ISO 18092, ISO 21481, MIFARE, NFC
Interface (PN5190B1HN/C121E) SPI
Interface (PN5190B2EV/C131K) I2C, SPI, USB
Supply Voltage (HN variant) 2.4 V to 6 V
Supply Voltage (EV variant) 2.4 V to 5.5 V
Package (HN variant) 40-VFLGA with Exposed Pad
Package (EV variant) 64-VFBGA
Mounting Type Surface Mount
Silicon Version PN5190B1 (firmware V2.0 or higher)
EMVCo Compliance Support EMVCo 3.0 / 3.2 analog and digital L1
Application Focus Payment NFC frontend
Antenna Design Reference NXP AN12549 (same methodology as PN5180)
RoHS Status unknown

PN5190 64-vfbga Pin Configuration Guide

Pin configuration for PN5190 (64-vfbga package). Pin numbering, functions, and connection diagrams are defined in the manufacturer datasheet. Refer to it for the exact footprint and soldering guidelines.

64-vfbga package pinout diagram for PN5190

No detailed pinout data available for PN5190.

Refer to the datasheet for full pin configuration.

Typical Applications

PN5190 is suitable for 6 applications: EMVCo Payment Terminals, Contactless Access Control Readers, Public Transportation Ticketing, Handheld POS and Mobile Payment Devices, Vending and Unattended Kiosks, Industrial NFC Configuration and Diagnostics Ports.

⚑

EMVCo Payment Terminals

The PN5190 was purpose-built as an NFC frontend for payment, and NXP explicitly states its enhanced feature set simplifies EMVCo 3.0 certification while enabling EMVCo 3.2 analog and digital Level 1 compliance. High RF output power and improved receiver sensitivity let point-of-sale terminals pass EMVCo operating-volume field tests even with compact antennas inside metal housings, reducing antenna size and tuning iterations. In a typical design, the PN5190 drives the 13.56 MHz antenna through an EMC filter and matching network, running ISO 14443 and MIFARE protocol layers while the secure element and application MCU handle cryptography and transaction logic. Using the PN5190 shortens certification schedules because its analog performance is pre-optimized for the EMVCo 3.x test suites, a measurable time-to-market benefit for payment terminal OEMs.

πŸŽ₯

Contactless Access Control Readers

NXP Community discussions highlight PN5190-based designs for access-control readers that must support MIFARE and ISO/IEC 14443 credentials. The PN5190's receiver sensitivity interoperates with a broad range of smartcards and mobile phones, so one reader handles employee badges, transit-style MIFARE cards, and NFC smartphone credentials without hardware changes. In this application the IC sits behind an SPI-connected host microcontroller that implements door-control logic and, where needed, SAM-based key management. The high RF output power extends read range through mounting surfaces such as metal-backed doors and glass, where conventional frontends lose field strength. Because antenna design follows the same AN12549 methodology as the PN5180, existing PN5180 antenna layouts can be re-tuned for the PN5190, cutting mechanical redesign effort in reader enclosure upgrades.

🧩

Public Transportation Ticketing

Transit fare systems require FeliCa and ISO/IEC 15693 support alongside ISO 14443, a combination the PN5190 covers natively per DigiKey protocol data. Fare gates operate in high-traffic environments where cards may be presented at varying angles and distances, and the PN5190's high output power plus strong receiver sensitivity maintain reliable transaction completion across that operating envelope. The frontend executes the protocol timing-critical layers in silicon, allowing the host MCU to focus on fare calculation and backend connectivity. Antenna design for gate-mounted coils follows NXP AN12549, and the PN5190's ability to work with small antennas helps fit readers into slim fare-gate pillars. EMVCo-aligned analog compliance also supports open-loop bank-card acceptance that many modern transit networks now require for contactless fare payment.

πŸ“±

Handheld POS and Mobile Payment Devices

Battery-powered handheld POS terminals benefit from the PN5190's 2.4 V to 6 V supply range on the HN variant, which allows direct connection to single-cell lithium or regulated 3.3 V rails with minimal power-tree complexity. The 40-VFLGA exposed-pad package keeps the RF frontend compact for slim handheld enclosures, and high RF output power compensates for the small, ground-plane-constrained antennas typical of handheld industrial design. In these devices the PN5190 communicates over SPI with the application processor, executing EMVCo-compliant contactless transactions for ISO 14443 and MIFARE payment cards. The PN5190B2EV variant adds I2C and USB interfaces for designs where the host connectivity differs. Reduced certification effort from the EMVCo-optimized feature set directly shortens handheld product approval cycles with payment schemes.

πŸ–₯️

Vending and Unattended Kiosks

Unattended vending machines and kiosks increasingly accept contactless bank cards, requiring an EMVCo L1-compliant RF frontend - exactly the PN5190's design target per NXP. The high output power maintains reliable card reads on the large-format antennas common in vending facades, while the 13.56 MHz frontend supports ISO 14443, MIFARE, and NFC smartphone wallets in one silicon. In the architecture, the PN5190 handles antenna driving and protocol framing while the payment MCU and secure element process transaction cryptograms over SPI. Vending installations face wide temperature and metal-environment challenges; following AN12549 matching and EMC filter guidance keeps detuning effects from surrounding metal manageable. Consolidating multiple card technologies into one frontend also reduces the reader BOM compared with discrete multi-protocol stacks.

🏭

Industrial NFC Configuration and Diagnostics Ports

Industrial equipment manufacturers use NFC as a tool-free configuration and diagnostics interface: a smartphone or service reader taps the machine to read sensor logs or write parameter sets. The PN5190 can also serve on the reader side of such infrastructure, for example in production fixtures that provision NFC tags on assembled products. Its ISO 15693 and ISO 18000-3 support covers the tag types common in industrial labeling, and the high output power ensures reliable programming through fixture covers and spacing. With a 2.4 V to 6 V supply, the frontend integrates easily into 3.3 V or 5 V control systems over SPI. Because firmware V2.0 or higher is required on B1 silicon per NXP documentation, verify the firmware version in production fixtures to access the full PN5190 feature set during high-throughput tag provisioning.

Recommended Products Summary

PN5190B2HN Newer silicon version of the same payment NFC frontend Used in: EMVCo Payment Terminals NX3225GA-13.56M-STD-CRG-2 NDK Used in: EMVCo Payment Terminals, Contactless Access Control Readers, Public Transportation Ticketing, Handheld POS and Mobile Payment Devices, Vending and Unattended Kiosks, Industrial NFC Configuration and Diagnostics Ports PN5190B1HN/C121E Core reader frontend of this access-control design Used in: Contactless Access Control Readers, Public Transportation Ticketing, Vending and Unattended Kiosks, Industrial NFC Configuration and Diagnostics Ports PN5190B2EV/C131K Variant with I2C/SPI/USB host interfaces Used in: Handheld POS and Mobile Payment Devices
What is the PN5190 and what does it do?
The PN5190 is an NXP Semiconductors full NFC frontend IC for 13.56 MHz contactless reader designs. It drives the antenna, demodulates card responses, and supports ISO 14443A/B, ISO 15693, ISO 18000-3, ISO 18092, ISO 21481, FeliCa, and MIFARE protocols, while a host MCU runs the application. According to the NXP product page, its high RF output power and receiver sensitivity enable small antennas and simplify EMVCo 3.0 certification.
What is the supply voltage range of the PN5190?
The PN5190B1HN/C121E in the 40-VFLGA package operates from a 2.4 V to 6 V supply, while the PN5190B2EV/C131K in the 64-VFBGA package operates from 2.4 V to 5.5 V, per DigiKey product listings. This allows direct powering from battery rails or standard 3.3 V and 5 V logic supplies without an additional regulator in many designs.
Where can I download the PN5190 datasheet PDF?
The PN5190 datasheet and product documentation are available from the official NXP product page at nxp.com/products/PN5190. NXP notes that additional documents supporting design-in of the PN5190B1 silicon (firmware V2.0 or higher) are available from NXP directly. Mirror repositories such as alldatasheet.com also host copies, including a 308-page NFC frontend functional and electrical specification document.
What protocols does the PN5190 support?
The PN5190 supports FeliCa, ISO/IEC 14443A and 14443B, ISO/IEC 15693, ISO/IEC 18000-3, ISO/IEC 18092 (NFCIP-1), ISO/IEC 21481, MIFARE, and NFC, according to DigiKey's product listing for the PN5190B1HN/C121E. This protocol breadth lets one reader IC cover payment cards, transit tickets, access-control badges, and NFC-enabled smartphones in a single design.
What is the difference between PN5190 and PN7160?
According to NXP Community discussions, the PN5190 is a pure NFC frontend while the PN7160 integrates additional functionality, with very similar specifications otherwise for MIFARE and ISO/IEC 14443 reader designs. The PN5190 emphasizes high RF output power and EMVCo 3.0/3.2 certification support for payment terminals, so choose the PN5190 for payment-centric designs and the PN7160 where its integrated features reduce BOM count in access or consumer designs.
PN5190 vs PN5180 - which NFC frontend should I choose?
For payment and EMVCo certification projects, the PN5190 is generally preferable: NXP explicitly designed its feature set to simplify EMVCo 3.0 certification and states it supports EMVCo 3.2 analog and digital L1 compliance. The PN5180 is an earlier frontend whose antenna design methodology the PN5190 shares (NXP application note AN12549). NXP Community threads also discuss PN5180 library support limits for Proximity Check, which the newer PN5190 ecosystem addresses more completely.
Is the PN5190 suitable for EMVCo payment terminals?
Yes. The PN5190 was explicitly designed as an NFC frontend for payment: NXP states its enhanced feature set simplifies EMVCo 3.0 certification and that it enables EMVCo 3.2 analog and digital Level 1 compliance, per the official NXP product page. High RF output power and strong receiver sensitivity help meet EMVCo field-strength windows even with small antennas in metal-clad point-of-sale housings.
What is the best drop-in replacement for the PN5190?
The closest same-package option is the PN5190B2HN, the newer silicon revision in the same 40-pin VFLGA exposed-pad footprint family, which NXP states achieves EMVCo 3.2 compliance. No pin-to-pin cross-brand drop-in replacement from another manufacturer was found in the cross-reference search; competitors such as the PN7160 are architecturally similar but not pin-compatible. Verify the exact ordering code against NXP documentation before second-sourcing.
Can PN7160 replace PN5190 in an existing design?
Not as a drop-in. NXP Community discussions confirm the PN5190 and PN7160 have very similar specifications, but the PN7160 is a different part with additional integrated functionality and is not pin-to-pin compatible with the PN5190's VFLGA-40 footprint. Swapping requires PCB redesign, firmware porting, and requalification, so PN7160 should be treated as a next-design alternative rather than a field replacement.
What package does the PN5190 come in?
The PN5190 family ships in two packages per DigiKey listings: the PN5190B1HN/C121E uses a 40-pin VFLGA with exposed pad, and the PN5190B2EV/C131K uses a 64-ball VFBGA. The exposed pad on the VFLGA variant provides both ground return and thermal dissipation, so it must be soldered to a grounded copper area per the NXP hardware design guidelines.
What is the price of the PN5190?
Real-time unit pricing for PN5190 ordering codes such as PN5190B1HN/C121E and PN5190B2EV/C131K is listed by authorized distributors including DigiKey and Mouser; exact figures vary by order code and quantity and should be checked as of the current date on those distributor pages. Payment-grade NFC frontends typically sit in the few-dollar range per unit at volume, but obtain an authorized-distributor quote before budgeting a production BOM.
Where to buy PN5190 online?
The PN5190 can be purchased online from authorized NXP distributors: DigiKey stocks PN5190B1HN/C121E and PN5190B2EV/C131K with same-day shipping per its listings, and Mouser offers the NXP PN5190 series with inventory, pricing, and datasheets. TrustedParts.com also routes orders to authorized distributors. Buying through authorized channels protects firmware access and traceability, which matter for EMVCo-certified payment designs.
What antenna should I design for the PN5190?
Follow NXP application note AN12549, the PN5190 antenna design guide. According to NXP, PN5190 antenna design is the same as for other NXP NFC reader ICs such as the PN5180, with new PN5190-specific features to consider for optimized performance. The guide covers matching network component selection, EMC filter placement, and Q-factor tuning; the high output power allows smaller antennas than earlier generation frontends.
Hey Google, what can replace the PN5190 NFC chip?
The closest replacement is another NXP PN5190 ordering code, such as the PN5190B2HN, which is the newer silicon version in the same footprint family. No pin-compatible equivalent from another manufacturer was identified in cross-reference searches; alternatives like the PN7160 or PN5180 are NXP siblings that are similar functionally but not drop-in compatible. For replacement guidance, consult the NXP product page and distributor cross-reference tools as of the current date.
What are the key specifications of the PN5190 that engineers should know?
Key PN5190 specifications: 13.56 MHz NFC frontend operation; protocols FeliCa, ISO 14443A/B, ISO 15693, ISO 18000-3, ISO 18092, ISO 21481, MIFARE, NFC; SPI host interface on the HN variant (I2C/SPI/USB on the EV variant); supply range 2.4 V to 6 V (HN) or 2.4 V to 5.5 V (EV); 40-VFLGA or 64-VFBGA package; and EMVCo 3.0/3.2 L1 compliance support. Source: NXP product page and DigiKey listings.

Engineering reference data for PN5190 β€” comparison, design guidance, and compliance information.

Selection Guide

Choose the PN5190 when your design targets EMVCo-certified contactless payment, transit, or access-control reading: its high RF output power, strong receiver sensitivity, and EMVCo 3.0/3.2-focused feature set directly reduce antenna size and certification effort. Within the family, pick the PN5190B1HN/C121E for SPI-based hosts and the 40-VFLGA footprint, or the PN5190B2EV/C131K when I2C or USB host connectivity is preferred. Choose the PN7160 instead when integrated frontend-plus-controller functionality lowers your BOM in non-payment designs, accepting that it is not pin-compatible and needs a new PCB. Choose the PN5180 only for legacy antenna reuse where EMVCo 3.2 compliance is not required. Trade-offs: the PN5190 needs firmware V2.0+ on B1 silicon and careful AN12549-compliant antenna work, and there is no cross-brand pin-compatible second source - plan sourcing accordingly for long-life payment products.

Comparison with Alternatives

Parameter This Product PN5190B2HN PN5190B2EV/C131K
Brand NXP Semiconductors NXP Semiconductors NXP Semiconductors
Package 40-VFLGA (exposed pad) 40-VFLGA family 64-VFBGA
Silicon Version B1 (firmware V2.0+) B2 B2
Protocols FeliCa, ISO 14443, ISO 15693, ISO 18000-3, ISO 18092, ISO 21481, MIFARE, NFC Same PN5190 protocol set ISO 14443A/B, MIFARE, NFC (per DigiKey)
EMVCo Support EMVCo 3.0 certification simplified EMVCo 3.2 analog and digital L1 EMVCo 3.x capable family

Key Differentiators

  • Highest EMVCo certification support in the NXP reader family (vs PN5180)
  • High RF output power for small antennas (vs PN7160)
  • Interface flexibility across order codes (vs PN5190B1HN/C121E)

Design Notes

The 40-VFLGA exposed pad is not optional: it is the primary ground return for the RF front end. Connect it to a solid, unbroken ground plane through an array of vias directly under the pad, per NXP hardware design guidance for the PN5180/PN5190 family. Keep the antenna matching network and EMC filter components close to the TX/RX pins, route differential antenna traces as matched pairs, and keep them away from switching regulators to preserve receiver sensitivity.

NXP application note AN12549 states that PN5190 antenna design follows the same methodology as the PN5180, with PN5190-specific features to consider for optimized performance. Use AN12549 to size the series and shunt matching capacitors, keep antenna Q within NXP recommended limits for EMVCo compliance, and simulate detuning caused by nearby metal before committing to a PCB revision. Reusing proven PN5180 antenna layouts can shorten development significantly.

NXP documentation specifies that PN5190B1 silicon requires firmware V2.0 or higher for the documented functionality - running older firmware leads to missing features and hard-to-diagnose protocol failures. Also verify the exact ordering code: the HN (VFLGA-40, SPI) and EV (VFBGA-64, I2C/SPI/USB) variants have different packages, pinouts, and supply ranges (6 V vs 5.5 V maximum), so a schematic built for one is not reusable for the other.

Compliance Information

RoHS
Unknown
REACH
Unknown
AEC-Q100
Not Applicable
Lead Free
Unknown
Halogen Free
Unknown
Conflict Minerals
Unknown

Compliance status not stated in the provided web data; verify on the official NXP PN5190B2HN product information page or the distributor compliance documents.

Data verified on: 2026-09-14 β€” data verified and curated by XAIPART's component engineering team

Related Searches

PN5190 datasheet PN5190 NXP NFC frontend PN5190 13.56MHz NFC reader IC specifications PN5190 40-VFLGA package pinout PN5190 EMVCo 3.0 payment terminal design PN5190 vs PN7160 difference PN5190 vs PN5180 which to choose PN5190 drop-in replacement equivalent buy PN5190B1HN/C121E price PN5190 antenna design guide AN12549 is PN5190 compatible with PN7160 footprint PN5190 MIFARE ISO 14443 reader

Related Components & Terms

NXP Semiconductors PN5190 PN5190B1HN/C121E PN5190B2HN PN5190B2EV/C131K PN5180 PN7160 NFC frontend RFID reader IC 13.56 MHz ISO 14443 ISO 15693 ISO 18092 (NFCIP-1) MIFARE FeliCa EMVCo 3.0 EMVCo 3.2 L1 40-VFLGA 64-VFBGA SPI I2C USB AN12549 antenna design guide point-of-sale payment terminal contactless access control
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