The 88E1512 is a highly adaptable Gigabit Ethernet transceiver. It supports the widely utilized 1000BASE-T, 100BASE-TX, and 10BASE-T standards, ensuring efficient data transmission. This diversity in standards allows it to fulfill the demands of modern network systems, offering reliability across different interfaces.
With connections available through both GMII and RGMII interfaces, the transceiver facilitates smooth integration into various network infrastructures. This dual compatibility caters to diverse network architectures, providing you with the flexibility needed to enhance system performance seamlessly. The ease of incorporation into existing systems is often valued, boosting both scalability and efficiency. Supporting Copper, Fiber, and SGMII formats, the 88E1512 is prepared to adapt to a range of network scenarios. In environments where network demands fluctuate, this capability can be mostly advantageous. The transceiver's automatic media type detection reduces setup complexity, streamlining network management.
Integrated MDI termination resistors are part of the 88E1512's efficient design, simplifying circuit layouts and lowering costs related to materials and manufacturing. This thoughtful design aligns with IEEE standards, ensuring consistent performance. Such efficiency aids in delivering systems that are reliable yet straightforward to deploy. The balance of precision and cost management offered by the 88E1512 is frequently sought. By delivering quality solutions that respect budget constraints, projects can achieve both sustainability and scalability. This equilibrium is commonly observed in successful implementations, driving long-term network advancement.
Feature |
Description |
IEEE Compliance |
10/100/1000BASE-T IEEE 802.3 compliant |
Multiple Operating Modes |
- RGMII to Copper |
- SGMII to Copper (88E1512/88E1514 only) |
|
- RGMII to Fiber/SGMII (88E1512 only) |
|
- RGMII to Copper/Fiber/SGMII with Auto-Media Detect
(88E1512 only) |
|
- Copper to Fiber (1000BASE-X) (88E1512/88E1514) |
|
RGMII Timing Modes |
Four RGMII timing modes with integrated delays,
eliminating the need for PCB trace delays |
Fiber Interface Support |
Supports 1000BASE-X and 100BASE-FX with SGMII (88E1512
only) |
RGMII LVCMOS Standards |
Supports LVCMOS/0 on the RGMII |
Energy Efficient Ethernet (EEE) |
IEEE 802.3az-2010 compliant, with EEE buffering for
legacy MACs |
Power Efficiency |
Ultra-Low Power, with integrated MDI termination
resistors |
Voltage Regulators |
Integrated Switching Voltage Regulators |
Green Ethernet Support |
- Active Power Save Mode |
- Energy Detect and Energy Detect+ low power modes |
|
IEEE1588 v2 |
Time Stamping support |
Synchronous Ethernet (SyncE) |
Clock Recovery |
Loopback Modes |
Three diagnostic loopback modes |
Downshift Mode |
Support for two-pair cable installations |
Adaptive Equalizers |
Fully integrated digital adaptive equalizers, echo
cancellers, and crosstalk cancellers |
Baseline Wander Correction |
Advanced digital baseline wander correction |
MDI/MDIX |
Automatic MDI/MDIX crossover at all speeds |
Polarity Correction |
Automatic polarity correction |
Auto-Negotiation |
IEEE 802.3 compliant |
LED Modes |
Software programmable LED modes, including LED testing |
Management Interface |
MDC/XMDIO Management Interface |
Diagnostic Tools |
CRC checker, packet counter, packet generation |
Wake on LAN (WOL) |
Event detection capability |
Virtual Cable Tester (VCT) |
Advanced Virtual Cable Tester for diagnostics |
Auto-Calibration |
For MAC Interface outputs |
Temperature Sensor |
Integrated |
Voltage Supply |
Single 3.3V supply with internal switching regulator
support |
I/O Voltage Options |
1.8V, 2.5V, or 3.3V for I/O pads |
Grade Options |
Commercial and Industrial grades (88E1510 and 88E1512
only) |
Package |
- 48-Pin QFN 7mm x 7mm Green with EPAD (88E1510 and
88E1518) |
- 56-Pin QFN 8mm x 8mm Green with EPAD (88E1512/88E1514) |
The 88E1512 Ethernet PHY offers a flexible foundation for swift advancements in digital landscapes. This component powers gigabit systems across various sectors, such as enterprise, embedded solutions, consumer electronics, and metro/service networks.
• Enhancing Network Infrastructure: In enterprise networks, the 88E1512 amplifies connectivity and boosts data transfer rates. It thrives in environments demanding rapid and seamless data exchange, like data centers and corporate networks.
• Data Center Integration: Data centers benefit from the 88E1512's stable performance and high-speed capabilities, ensuring smooth data flow necessary for storage and processing. It strikes a harmonious balance between speed and reliability, becoming a key element in contemporary data center designs.
In embedded systems, the component enables compact and efficient layouts serious for IoT and automation. This integration fosters smarter and more responsive applications, driving innovations in smart home technologies and industrial automation.
The 88E1512 meets the rising demand for high-speed internet in consumer devices. Smart TVs and gaming consoles, for example, leverage their capacity for superior streaming and gaming experiences, enhancing your satisfaction and competitive edge.
• Maintaining Connectivity: In metro networks and among service providers, the 88E1512 ensures stable and consistent connections. Its deployment enables service providers to deliver quality internet access with minimal interruptions, benefiting both businesses and homes.
• Enhancing Network Backbone: Its role in metro networks supports reliable infrastructure, facilitating efficient communication channels and accommodating high data loads. It is main in sustaining urban communication networks, ensuring their efficiency and resilience.
• 88E1512-A0--NNP2I000
• 88E1512-A0-NNP-2I000
• 88E1512-A0NNP2I000
• 88E1512A0NNP2I000
Marvell, known for pushing the envelope in digital storage, consistently breaks new ground across various sectors. Their advanced semiconductor solutions play a major role in defining the future of data storage and have far-reaching effects on enterprise, cloud, automotive, industrial, and consumer markets. This holistic strategy reveals their dedication to boosting data management efficiency and scalability.
In both enterprise and cloud settings, Marvell enhances data flow and storage efficiency. The growing emphasis on cloud computing calls for robust, scalable innovations. By leveraging advanced algorithms alongside power-efficient designs, Marvell tackles latency challenges, providing seamless data access to meet the speed requirements required for modern businesses. For automotive and industrial uses, Marvell delivers durable solutions designed to endure tough conditions. Their semiconductors offer reliable, data processing—active for smart vehicles' evolution and manufacturing automation. Incorporating AI capabilities supports intelligent decision-making and predictive maintenance, both used for these sectors' transformations.
Here's the table for the Marvell Semiconductor, Inc. 88E1512-A0-NNP2I000 technical specifications and attributes.
Type |
Parameter |
Factory Lead Time |
16 Weeks |
Mount |
Surface Mount |
Mounting Type |
Surface Mount |
Package / Case |
56-VFQFN Exposed Pad |
Usage Level |
Industrial grade |
Operating Temperature |
-40°C ~ 85°C (TA) |
Series |
Alaska® |
Published |
2011 |
Part Status |
Active |
Moisture Sensitivity Level (MSL) |
3 (168 Hours) |
Number of Terminations |
56 |
Type |
Transceiver |
Voltage - Supply |
1.71V ~ 1.89V, 2.38V ~ 2.62V, 3.14V ~ 3.46V |
Terminal Position |
QUAD |
Terminal Form |
NO LEAD |
Number of Functions |
1 |
Supply Voltage |
3.3V |
JESD-30 Code |
S-XQCC-N56 |
Number of Channels |
4 |
Interface |
Ethernet |
Data Rate |
10Mbps, 100Mbps, 1Gbps |
Protocol |
IEEE 802.3, IEEE 1588 |
Number of Drivers/Receivers |
4-Apr |
Duplex |
Full, Half |
Number of Transceivers |
1 |
Simplex/Duplex |
Duplex |
Max Junction Temperature (Tj) |
125°C |
Ambient Temperature Range High |
85°C |
Height |
1mm |
RoHS Status |
RoHS Compliant |
The 88E1512 transceiver is designed for versatile network setups, supporting five operation modes to suit specific needs. RGMII which enhances digital communication between MAC and PHY, streamlining data transmission and reducing design complexity, is ideal for copper connections in various installations. SGMII is a compact protocol with differential pairs for high signal integrity and low pin count, supporting copper and fiber connections, widely used for its low power and adaptability. RGMII to SGMII Transition offers flexible connectivity by enabling RGMII-to-SGMII transitions with configuration options to ensure compatibility across different setups. Copper and Fiber Support SGMII support both copper (durable, cost-effective) and fiber (high-speed, long-distance) connections, with auto-detection for simplified setup. Fiber Transition (1000BASE-X) facilitates seamless transitions between copper and fiber modes, adaptable to residential and commercial environments based on latency and signal requirements.
The transceiver features an integrated voltage regulator, operating smoothly on a 3.3V power supply while supporting multiple LVCMOS voltages: 1.8V, 2.5V, and 3.3V. This adaptability allows seamless integration into systems with different power frameworks. An intentional choice of voltage standards directly influences thermal management and power efficiency, playing a notable role in engineering challenges. By attending to these aspects, you can bolster performance longevity and sustainable device operation.
Encased in a compact 56-pin QFN package, the transceiver dimensions are 8mm x 8mm. This design is used for maximizing space on dense circuit boards, making it suitable for high-density applications. As electronics continue trending towards smaller sizes, choosing compact components without losing functionality becomes increasingly important. The QFN package not only improves thermal performance but also reduces the footprint, impacting product versatility and market responsiveness directly.
Please send an inquiry, we will respond immediately.
on October 29th
on October 29th
on January 1th 2933
on January 1th 2486
on January 1th 2079
on November 8th 1872
on January 1th 1759
on January 1th 1709
on January 1th 1649
on January 1th 1537
on January 1th 1532
on January 1th 1500