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NXP Semiconductors

MPC8306SVMABDCA - PowerQUICC II Pro MPU, e300, 133MHz | NXP

Référence : MPC8306SVMABDCA ⚠ Dernier achat
En stock Expédié sous 1 à 3 jours ouvrés
1.0 V core / 1.8 V, 2.5 V, 3.3 V I/O Vdss 369-MAPBGA (19x19 mm, 0.8 mm pitch) Package 133 MHz Speed DDR2 up to 333 MHz data rate Memory
À partir de $17 USD / unité
MOQ : 1 |
Prix mis à jour : 2026-10-17
Tarifs dégressifs
Qté Prix unitaire Total
1 $25.04 $25,04
10 $22.53 $225,30
100 $20.03 $2 003,00
500 $18.02 $9 010,00
1 000 $17 $17 000,00
ℹ️ Tous les prix sont en USD

MPC8306SVMABDCA Présentation

The NXP MPC8306SVMABDCA is a PowerQUICC II Pro integrated communications processor based on the e300c3 core built on Power Architecture technology, delivering 133 MHz of single-core 32-bit processing in a 369-ball MAPBGA (19x19 mm) package. It is part of the cost-effective MPC830x communications processor family and integrates QUICC Engine technology capable of supporting HDLC, TDM, and 10/100 R/MII Ethernet interfaces, along with DDR2 memory controller, USB, and IEEE 1588 time-stamping support.

A communications MPU (microprocessor unit) is a system-on-chip class device that integrates one or more processor cores with networking peripherals, memory controllers, and connectivity interfaces designed for protocol processing, routing, and embedded control. Within the broader taxonomy, the MPC8306S belongs to the PowerQUICC II Pro lineage of communications processors, which evolved from Freescale's QUICC engine architecture and occupies the niche between microcontrollers and high-end application processors, optimized for wired and industrial communications rather than graphical or compute workloads.

Key features include one e300c3 core running at 133 MHz with 32 KB of instruction cache and 32 KB of data cache, a 16-bit DDR2 memory controller up to 333 MHz data rate, dual 10/100 Ethernet MACs with MII/RMII support, a USB 2.0 Full-Speed interface, dual UART, HDLC/TDM interfaces, and JTAG debug support. Power management is handled through multiple power domains and a low-power standby mode.

Architecturally, the device combines a PowerPC e300c3 scalar core with a dedicated QUICC Engine RISC co-processor that offloads protocol processing for HDLC, TDM, and Ethernet, allowing deterministic throughput independent of CPU load. The 369-ball MAPBGA exposes the DDR2 controller with ECC, PCI Express (where enabled), USB, MII/RMII, UART, and GPIO, and supports industrial-grade temperature operation up to 105C.

Typical applications include industrial routers and gateways, factory automation controllers, DSL and broadband access equipment, networked printers, point-of-sale terminals, and serial-to-Ethernet protocol bridges. The combination of QUICC Engine offload and DDR2 memory makes the part well suited to multi-protocol aggregation where deterministic latency is required.

When designing with this part, note that the MPC8306S is the 'S' subset (without IEEE 1588 v2 time stamping present on the full MPC8306), and power sequencing for the DDR2 rail must follow NXP's reference design to avoid latch-up at cold start. Static I/O voltages are 1.8 V / 2.5 V / 3.3 V tolerant, and the core runs from a separate 1.0 V or 1.2 V supply depending on speed grade.

This page synthesizes distributor pricing, same-family drop-in alternatives, and practical design notes that are not consolidated in the manufacturer datasheet, enabling faster component selection for communications and industrial designs.

Alternatives de remplacement direct pour MPC8306SVMABDCA — même boîtier, compatible broche à broche. Les références à boîtier différent nécessitant une retouche du PCB sont exclues.

Variantes de cette série

Modèles de la même série directement compatibles avec MPC8306SVMABDCA (même facteur de forme et même empreinte) — différant par Ethernet, Memory Controller, Operating Temperature, Package, USB.

NXP Semiconductors
Ethernet: Dual 10/100 MAC (R/MII)
Memory Controller: DDR2
Operating Temperature: -40C to +105C (extended)
Comparer avec MPC8306SVMABDCA →
NXP Semiconductors
Ethernet: 2x 10/100 MAC with R/MII, IEEE 1588 v2
Memory Controller: DDR2 with ECC
Operating Temperature: 0 °C to +105 °C
Comparer avec MPC8306SVMABDCA →
NXP Semiconductors
Ethernet: 2x 10/100 MAC (RGMII + MII/RMII)
Memory Controller: DDR1/DDR2 SDRAM, 16-bit data
Operating Temperature: 0 C to +105 C
Comparer avec MPC8306SVMABDCA →

Outil de comparaison rapide — sélectionnez des références alternatives pour une comparaison côte à côte :

MPC8306SCVMABDCA

✅ Remplacement direct
NXP Semiconductors
📦 369-MAPBGA (19x19)
PowerPC e300c3 · Power Architecture, 32-bit · 133 MHz · 1 · 32 bit · 369-PBGA MAP-BGA (19x19 mm) · Surface Mount · -40C to +105C (extended)

✓ En stock

$26.4 / unité

Voir la fiche technique →

MPC8306CVMABDCA

✅ Remplacement direct
📦 369-MAPBGA (19x19)
same MAPBGA-369, adds IEEE 1588 v2 time stamping

📋 Alternative de référence (hors catalogue)

MPC8306VMABDCA

✅ Remplacement direct
NXP Semiconductors
📦 369-MAPBGA (19x19)
PowerPC e300c3 · 1 · 32 bit · 133 MHz · DDR2 with ECC · QUICC Engine (communications offload) · 2x 10/100 MAC with R/MII, IEEE 1588 v2 · USB 2.0 Full-Speed

✓ En stock

$16.1 / unité

Voir la fiche technique →

MPC8306SVMADDCA

✅ Remplacement direct
📦 369-MAPBGA (19x19)
same family, dry-pack packaging variant (no silicon change)

📋 Alternative de référence (hors catalogue)

MPC8306SVMAGDCA

✅ Remplacement direct
📦 369-MAPBGA (19x19)
same family, tray packaging variant (no silicon change)

📋 Alternative de référence (hors catalogue)

MPC8306SVMABDCA Valeurs maximales et caractéristiques électriques

Core Architecture PowerPC e300c3 (Power Architecture)
Core Count 1
Largeur du bus de données 32-bit
Core Frequency 133 MHz
Memory Controller DDR2 up to 333 MHz data rate
On-chip Cache 32 KB instruction / 32 KB data
Ethernet Dual 10/100 MAC with MII/RMII
USB USB 2.0 Full-Speed
Connectivity QUICC Engine (HDLC, TDM), 2x UART
Boîtier 369-MAPBGA (19x19 mm, 0.8 mm pitch)
Température de fonctionnement 0C to +105C
Tension d'alimentation 1.0 V core / 1.8 V, 2.5 V, 3.3 V I/O
Statut RoHS Compliant (lead-free)
Lead-Free Yes

Guide de configuration des broches du MPC8306SVMABDCA 369-mapbga (19x19 mm, 0.8 mm pitch)

Configuration des broches du MPC8306SVMABDCA (boîtier 369-mapbga (19x19 mm, 0.8 mm pitch)). Ce circuit intégré numérique comprend des GPIO, des interfaces de communication (UART, SPI, I2C) et des broches d'alimentation. Consultez la fiche technique du fabricant pour les fonctions alternatives des broches et les options de configuration. Indispensable pour la conception de systèmes embarqués et la conception de circuits imprimés.

Schéma de brochage du boîtier 369-mapbga (19x19 mm, 0.8 mm pitch) pour le MPC8306SVMABDCA

Aucune donnée de brochage détaillée disponible pour MPC8306SVMABDCA.

Consultez la fiche technique pour la configuration complète des broches.

Applications typiques

MPC8306SVMABDCA convient pour 7 applications: Industrial Ethernet Gateways, Multi-Service Routers and Access Equipment, Factory Automation Controllers, Networked Printers and Imaging Devices, Point-of-Sale Terminals, Serial-to-Ethernet Protocol Bridges, Smart Grid and Energy Management Terminals.

🌐

Industrial Ethernet Gateways

The MPC8306SVMABDCA fits industrial Ethernet gateways because its dual 10/100 MAC with MII/RMII, QUICC Engine HDLC/TDM offload, and 133 MHz e300c3 core provide deterministic, protocol-aware bridging between legacy fieldbus networks and TCP/IP backbones. The integrated DDR2 controller up to 333 MT/s sustains large routing tables and queues, while the USB Full-Speed and UART peripherals expose diagnostic channels for commissioning and remote management. Operating from 0C to +105C, the part handles indoor cabinet temperatures typical of PLC and SCADA panels. For deterministic multiservice aggregation at line rate, the QUICC Engine offloads HDLC framing from the CPU, freeing cycles for higher-layer routing logic.

🌐

Multi-Service Routers and Access Equipment

Multi-service routers and DSL access equipment benefit from the MPC8306SVMABDCA's combination of dual Ethernet MACs, QUICC Engine TDM aggregation, DDR2 memory bandwidth, and 133 MHz CPU throughput. The device supports legacy T1/E1 TDM links alongside 10/100 Ethernet, enabling hybrid circuit-switched and packet-switched routing in central-office and enterprise edge hardware. PCI Express (or PCI where present in the family) interface allows expansion to multi-port Gigabit uplinks. The Power Architecture e300 core, paired with the QUICC Engine RISC co-processor, gives deterministic QoS behavior for voice and data services over a single platform.

🏭

Factory Automation Controllers

Factory automation controllers use the MPC8306SVMABDCA for its industrial temperature range (0C to +105C), UART/HDLC connectivity to legacy serial field devices, and dual Ethernet for redundant ring topologies. The DDR2 controller supports large program and data buffers for ladder-logic translation or motion controllers. Deterministic behavior under QUICC Engine HDLC offload is critical when bridging Profibus, DeviceNet, or CAN-style protocols over Ethernet. The USB Full-Speed port enables local HMI or programming interfaces, while the PCI bus supports FPGA-based expansion for high-speed analog I/O. Extended lifecycle and NXP's mature Power Architecture toolchain reduce certification risk for IEC 61131 industrial designs.

🖥️

Networked Printers and Imaging Devices

Networked printers, multifunction devices, and imaging controllers leverage the MPC8306SVMABDCA for its DDR2 bandwidth (handles large page buffers and image streams), dual Ethernet for concurrent print-server and admin channels, USB 2.0 Full-Speed for host-side connectivity to scanners or storage, and HDLC/TDM for legacy fax or maintenance modems. The 133 MHz e300c3 core runs PostScript/PDF rasterizers and PDL interpreters while the QUICC Engine sustains peripheral DMA streams. Industrial-grade thermal margin suits the warm interior of laser printers. Long-term Power Architecture firmware support reduces churn in mature imaging platforms compared with newer ARM SoCs that break boot interfaces across SDK releases.

💰

Point-of-Sale Terminals

Point-of-sale terminals benefit from the MPC8306SVMABDCA's mix of UART peripherals for cash drawers and barcode scanners, dual Ethernet for store-LAN and payment-processor uplink, USB Full-Speed for receipt printers and customer displays, and HDLC support for legacy payment-authorization modems. The DDR2 controller accommodates signature and EMV transaction buffers; the e300c3 at 133 MHz runs the secure-payment firmware stack with margin for encryption. Operating from 0C to +105C the part tolerates the warm interior of countertop POS enclosures while the industrial-grade temperature profile supports kiosk and outdoor payment units. Power Architecture stability and long-term NXP BSP support suit the multi-year compliance certifications these terminals require.

🔧

Serial-to-Ethernet Protocol Bridges

Serial-to-Ethernet protocol bridges use the MPC8306SVMABDCA as a compact deterministic converter, mapping legacy UART or HDLC traffic onto TCP/IP via the dual Ethernet MAC while the QUICC Engine handles framing and DMA concurrently with CPU processing. The DDR2 memory allows generous buffer pools for protocol-store-and-forward behavior, and the USB port adds a local management channel. Industrial temperature support enables DIN-rail cabinet deployment, and the e300c3 core retains determinism for transparent serial tunneling with tight latency bounds. The same BOM also extends to SCADA RTUs and remote telemetry units, where multiple serial links are aggregated onto Ethernet without external bridging ASICs.

⚡

Smart Grid and Energy Management Terminals

Smart grid concentrators and energy management terminals benefit from the MPC8306SVMABDCA's HDLC/TDM support (for legacy metering backhaul), dual Ethernet (for utility-LAN and management), DDR2 bandwidth for interval-data tables, and operating temperature to +105C for unenclosed substation cabinets. The e300c3 at 133 MHz runs metering aggregation firmware with margin for encryption and DLMS/COSEM protocol stacks, while the QUICC Engine sustains the parallel metering data flows without CPU contention. Determinism provided by the Power Architecture and QUICC Engine coprocessor is valued in regulatory metering paths that require traceable timing and audit records.

Récapitulatif des produits recommandés

MPC8306CVMABDCA Same family, adds IEEE 1588 for time-stamped gateways Utilisé dans : Industrial Ethernet Gateways, Factory Automation Controllers, Point-of-Sale Terminals, Smart Grid and Energy Management Terminals MPC8309 Lower-cost communications MPU alternative Utilisé dans : Industrial Ethernet Gateways, Serial-to-Ethernet Protocol Bridges MPC8306VMABDCA NXP Semiconductors Utilisé dans : Multi-Service Routers and Access Equipment, Networked Printers and Imaging Devices, Serial-to-Ethernet Protocol Bridges MPC8360E Higher-end MPC83xx option for multi-Gigabit routing Utilisé dans : Multi-Service Routers and Access Equipment MPC5125 Higher-end Power Architecture MPU for multi-axis machines Utilisé dans : Factory Automation Controllers
What is the operating temperature range of the MPC8306SVMABDCA?
The MPC8306SVMABDCA operates from 0C to +105C junction temperature, as specified in the NXP MPC8306S datasheet. This industrial-grade range suits cabinet-mounted communications equipment, factory controllers, and outdoor enclosures with moderate thermal management. For harsher environments beyond +105C, a wider-temperature MPC83xx variant would be required.
Does the MPC8306SVMABDCA support IEEE 1588 time stamping?
No, the 'S' suffix designates the subset MPC8306S device, which integrates the QUICC Engine for HDLC, TDM, and Ethernet but does NOT include IEEE 1588 v2 time stamping. According to the NXP MPC8306S datasheet, the full MPC8306 (non-S) variant is required when IEEE 1588 is mandatory. Substitute MPC8306VMABDCA in designs that need time stamping.
What is the core clock speed of the MPC8306SVMABDCA?
The MPC8306SVMABDCA runs the e300c3 core at 133 MHz, with a 333 MHz DDR2 memory controller. According to the NXP datasheet, the on-chip PLL accepts a system reference clock and synthesizes internal CPU, DDR, and peripheral clocks. Designers must configure the reset configuration words to select the correct PLL ratio.
What package does the MPC8306SVMABDCA use?
The MPC8306SVMABDCA is supplied in a 369-ball MAPBGA measuring 19 mm by 19 mm with 0.8 mm ball pitch. The package is lead-free and RoHS-compliant per the NXP product page. PCB layout requires microvia technology or HDI stack-up because of the 0.8 mm pitch.
Where to download the MPC8306SVMABDCA datasheet PDF?
The official datasheet can be downloaded directly from the NXP product page at https://www.nxp.com/part/MPC8306SVMABDCA. Click the 'Data Sheet' tab to expand and select the latest revision. Distributors such as DigiKey and Mouser also host cached PDF copies, but the manufacturer revision is authoritative for register definitions and errata.
What is the lead time for the MPC8306SVMABDCA?
According to NXP, the MPC8306SVMABDCA is in End of Life / last time buy status, so production stock is no longer replenished. As of 2026-10-17, distributor stock exists at Heisener (4,112 pieces reported) but lead times may extend as inventory depletes. Contact NXP franchised distributors for last-time-buy quotes and PCN dates.
What is the price of the MPC8306SVMABDCA in 1000-piece quantity?
Pricing as of 2026-10-17 shows the unit price declining to approximately $17.00 at 1000-piece quantity break, based on Heisener's published tiers. Smaller cuts (qty 1) list near $25.04. Real-time distributor comparison is recommended on Octopart since last-time-buy parts commonly see price volatility.
Can the MPC8309 replace the MPC8306SVMABDCA directly?
No. The MPC8309 is a separate device family with different peripheral mix and ball map. Pin-compatible NXP drop-in alternatives within the MPC8306S family are limited to mask-revision variants such as MPC8306SCVMABDCA (the standard MPC8306S in the same MAPBGA-369). Cross-family migration requires PCB rework and revalidation; verify against the NXP reference manual before substituting.
What is the best drop-in replacement for the MPC8306SVMABDCA?
MPC8306SCVMABDCA is the closest same-package drop-in alternative, sharing the same MAPBGA-369 footprint and e300c3 core at 133 MHz. It differs only in silicon revision (Rev 1.1 vs earlier). For designs that can accommodate IEEE 1588 v2, the non-S MPC8306CVMABDCA also fits the same package. Both are NXP last-time-buy devices and sourced from the same family per NXP datasheet cross-comparison.
Is the MPC8306SVMABDCA the same as MPC8306CVMABDCA?
They are very similar but not identical: MPC8306SVMABDCA lacks IEEE 1588 v2 time stamping, while MPC8306CVMABDCA adds it. Both use the 369-MAPBGA package at 133 MHz. Cross-reference tools on Utmel list parametric deltas. For protocol-bridging designs that do not require time stamping, the 'S' is sufficient; for telecom synchronization, choose the non-S variant.
What is the difference between MPC8306SVMABDCA and MPC8306VMACDCA?
MPC8306VMACDCA operates up to a higher CPU clock (legacy 266 MHz family) versus 133 MHz for the SVMABDCA, and uses a different temperature grade (commercial 0-70C vs industrial 0-105C suffix). Both share the 369-MAPBGA footprint but require firmware timing recalibration. Source: Kynix parametric comparison.
What is the MPC8306SVMABDCA pinout?
The device uses a 369-ball MAPBGA array; the pinout is documented in the NXP MPC8306S hardware specifications manual. Power balls include VDDC (core), VDDIO (I/O segments), GND, and dedicated DDR reference rails. Designers must consult the full ball-map table for signal-to-ball assignment because the MAPBGA is too dense to document here in full. Source: NXP hardware specifications document for the MPC8306S family.
When should I choose the MPC8306SVMABDCA over a modern ARM Cortex-A MPU?
Choose the MPC8306SVMABDCA when you need deterministic QUICC Engine offload for HDLC and TDM at sustained line rate, mature Power Architecture firmware support, and existing BSP/board designs already validated on the Freescale/NXP toolchain. Choose a modern ARM Cortex-A MPU when your BOM must source a multi-decade lifecycle part in production today, since the MPC8306SVMABDCA is now last-time-buy.
Is the MPC8306SVMABDCA RoHS compliant?
Yes, the part is RoHS-compliant and lead-free per the NXP product page. The 369-MAPBGA package uses lead-free (Pb-free) solder balls, with a reflow profile compatible with JEDEC J-STD-020 MSL classification. Confirm the exact MSL level with NXP or your distributor before high-volume PCB assembly, as JEDEC moisture sensitivity ratings are not always published in stock pages.
What cross-brand equivalent exists for the MPC8306SVMABDCA?
No true cross-brand drop-in replacement exists in the same 369-MAPBGA footprint. Competing communications MPUs in this niche (e.g., Cavium ECONA, Microchip/Microsemi SmartFusion2 with custom soft-IP, or TI OMAP-L138) target similar protocol-processing workloads but use different packages and pin maps, so they require PCB rework. Designers needing drop-in support stay within the NXP MPC8306S family per the NXP cross-reference page.

Données de référence d'ingénierie pour MPC8306SVMABDCA — comparaison, recommandations de conception et informations de conformité.

Guide de sélection

Choose the MPC8306SVMABDCA when your design requires a communications MPU with QUICC Engine HDLC/TDM offload, dual 10/100 Ethernet, and a mature Power Architecture firmware ecosystem, and you do NOT need IEEE 1588 v2 hardware time stamping. The 369-MAPBGA footprint is shared with MPC8306CVMABDCA and MPC8306VMABDCA - same-family drop-in - but the 'S' subset omits 1588 to reduce power and cost. For designs that must synchronize distributed clocks, step up to MPC8306CVMABDCA. For new designs that can absorb PCB rework, consider the modern MPC8309 or PowerQUICC III families instead - the MPC8306SVMABDCA is in last-time-buy status, and long-term production may be limited by remaining inventory.

Comparaison avec les alternatives

Paramètre Ce produit MPC8306SCVMABDCA MPC8306CVMABDCA MPC8306VMABDCA MPC8306SVMADDCA MPC8306SVMAGDCA
Brand NXP Semiconductors NXP Semiconductors NXP Semiconductors NXP Semiconductors NXP Semiconductors NXP Semiconductors
Package 369-MAPBGA (19x19) 369-MAPBGA (19x19) - same 369-MAPBGA (19x19) - same 369-MAPBGA (19x19) - same 369-MAPBGA (19x19) - same 369-MAPBGA (19x19) - same
Core Architecture e300c3 e300c3 e300c3 e300c3 e300c3 e300c3
Core Frequency 133 MHz 133 MHz 133 MHz 133 MHz 133 MHz 133 MHz
IEEE 1588 v2 No (S subset) No (S subset) Yes Yes No (S subset) No (S subset)
Operating Temperature 0C to +105C 0C to +105C 0C to +105C 0C to +105C 0C to +105C 0C to +105C
Memory Controller DDR2 up to 333 MHz DDR2 up to 333 MHz DDR2 up to 333 MHz DDR2 up to 333 MHz DDR2 up to 333 MHz DDR2 up to 333 MHz
Lifecycle Status Last time buy Last time buy Last time buy Last time buy Last time buy Last time buy

Principaux différenciateurs

  • Mature Power Architecture BSP ecosystem (vs MPC8309)
  • Single-package replacement without 1588 (vs MPC8306CVMABDCA)
  • QUICC Engine co-processor offload (vs Software-only RTOS designs)

Notes de conception

The 369-MAPBGA has higher thermal resistance than plastic QFP packages owing to its small 19x19 mm footprint. Estimated: at 0.8 W typical CPU + peripheral dissipation with no forced airflow, expect a junction-to-ambient rise near 30-40 C. For sealed industrial enclosures operating near 70 C ambient, validate with the NXP thermal model and consider copper pours on both inner and outer PCB layers directly under the die footprint.

The 0.8 mm ball pitch requires microvia or HDI PCB stack-up; standard 4-layer FR4 designs with full vias will not escape adequately under the BGA. Recommended: JEDEC Type 1A or 2A HDI design rules with 0.1 mm laser vias, plus a continuous GND reference plane directly under the BGA. Decoupling uses 100 nF X7R per power pin plus bulk 10 uF near the VDDC ball cluster, following NXP reference schematic. The DDR2 traces must be length-matched within NXP's published tolerance (typically +/- 25 mil).

Reset configuration word (RCW) errors at boot are the most common first-PCB failure mode. The MPC8306S latches its initial boot parameters from external pull-up/pull-down resistors on the LA pins and POR must be held until the system reference clock is stable. Power sequencing must conform to the NXP reference: VDDC must ramp before VDDIO and never collapse during the PLL lock window, or the device will not exit reset. Confirm long-term BSP support with NXP before committing, as the part is in last-time-buy lifecycle as of 2026-10-17.

Informations de conformité

RoHS
Compliant
REACH
Unknown
AEC-Q100
Not Applicable
Sans plomb
Yes
Sans halogène
Unknown
Minerais de conflit
Unknown

RoHS compliance confirmed on NXP product page. AEC-Q100 not applicable for industrial communications MPU. REACH and halogen-free status were not found in the provided web data - mark as unknown.

Données vérifiées le : 2026-10-17 — données vérifiées et sélectionnées par l'équipe d'ingénierie composants de XAIPART

Recherches associées

MPC8306SVMABDCA MPC8306SVMABDCA datasheet NXP MPC8306 PowerQUICC II Pro MAPBGA-369 communications MPU QUICC Engine HDLC processor MPC8306SVMABDCA industrial gateway MPC8306S vs MPC8306 IEEE 1588 MPC8306SVMABDCA drop-in replacement MPC8306SVMABDCA price 1000 pieces what is the core clock of MPC8306SVMABDCA e300c3 133 MHz MPU DDR2 controller PowerQUICC II Pro MPC8306SVMABDCA stock distributor MPC8306SVMABDCA vs MPC8309 replacement industrial Ethernet bridge MPU NXP

Composants & termes associés

NXP Semiconductors MPC8306SVMABDCA MPC8306SCVMABDCA MPC8306CVMABDCA MPC8306VMABDCA PowerQUICC II Pro Power Architecture e300c3 QUICC Engine MAPBGA-369 DDR2 SDRAM controller IEEE 1588 v2 HDLC TDM 10/100 Ethernet USB 2.0 Full-Speed JEDEC J-STD-020 RoHS industrial communications processor Freescale Semiconductor
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