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16EMCP16-NL3ET527

Manufacturer Part Number:
16EMCP16-NL3ET527
Manufacturer / Brand
Original Factory
Part of Description:
867
Datasheets:
Lead Free Status / RoHS Status:
RoHS Compliant
Stock Condition:
New original, 3806 pcs Stock Available.
ECAD Model:
Ship From:
Hong Kong
Shipment Way:
DHL/Fedex/TNT/UPS

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Part Number 16EMCP16-NL3ET527
Manufacturer / Brand Original Factory
Stock Quantity 3806 pcs Stock
Category Integrated Circuits (ICs) > Specialized ICs
Description 867
Lead Free Status / RoHS Status: RoHS Compliant
Condition New Original Stock
Warranty 100% Perfect Functions
Lead Time 2-3days after payment.
Payment Credit Card / PayPal / Telegraphic Transfer (T/T) / Western Union
Shipping by DHL / Fedex / UPS / TNT
Port HongKong
RFQ Email Info@IC-Components.com

Packaging & ESD

Industry-standard static shielding packaging is used for electronic components.Anti-static, light-transparent materials allow easy identification of ICs and PCB assemblies.
The packaging structure provides electrostatic protection based on Faraday cage principles.This helps protect sensitive components from static discharge during handling and transportation.


All products are packed in ESD-safe anti-static packaging. Outer packaging labels include part number, brand, and quantity for clear identification. Goods are inspected prior to shipment to ensure proper condition and authenticity.

ESD protection is maintained throughout packing, handling, and global transportation. Secure packaging provides reliable sealing and resistance during transit. Additional cushioning materials are applied when required to protect sensitive components.

QC(Part Testing by IC Components)Quality Warranty

We can offer worldwide express delivery service, such as DHLor FedEx or TNT or UPS or other forwarder for shipment.

Global Shipment by DHL/FedEx/TNT/UPS

Shipping Fees reference DHL/FedEx
1). You can offer your express delivery account for shipment, ifyou haven’t any express account for shipment, we can offer our account inadvance.
2). Use our account for shipment, Shipment charges(Reference DHL/FedEx, Different Countries has different price.)
Shipment charges: (Reference DHL and FedEX)
Weight(KG): 0.00kg-1.00kg Price(USD$) : USD$60.00
Weight(KG): 1.00kg-2.00kg Price(USD$) : USD$80.00
* The price of cost is reference with DHL/FedEx. The detail charges, please contact us. Different country the express charges are different.



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16EMCP16-NL3ET527 Product Details:

This specialized integrated circuit, designated as model 16EMCP16-NL3ET527, represents a sophisticated embedded multi-chip package solution designed to address complex system integration challenges in modern electronic applications. As a member of the specialized ICs category within the broader integrated circuits family, this component demonstrates advanced packaging technology that combines multiple semiconductor functions into a single, compact form factor.

The product functionality centers around its embedded multi-chip package (eMCP) architecture, which typically integrates NAND flash memory and LPDDR RAM into a unified solution, providing both storage and working memory capabilities in a space-efficient design. This integration addresses critical design challenges including board space optimization, power consumption reduction, signal integrity maintenance, and manufacturing complexity minimization that engineers face when developing compact electronic devices.

Key specifications include the specialized 869-pin package configuration that enables high-density interconnections while maintaining signal integrity across multiple integrated functions. The 18+ data code indicates recent manufacturing vintage, ensuring access to current semiconductor process technologies and reliability standards. With a substantial quantity of 2336 units available, this component supports both prototype development and volume production requirements.

The primary advantages of this eMCP solution include significantly reduced PCB footprint compared to discrete memory components, improved electrical performance through shortened interconnect paths, enhanced reliability due to reduced solder joint count, simplified assembly processes, and optimized power management through integrated power domains. These benefits translate directly into smaller, more efficient, and more reliable end products.

Compatibility considerations encompass support for standard memory interfaces and protocols commonly used in mobile processors, application processors, and system-on-chip solutions. The component typically interfaces with ARM-based processors, mobile chipsets, and embedded controllers that require high-performance memory subsystems in space-constrained applications.

Primary application areas span mobile devices including smartphones and tablets, portable consumer electronics, automotive infotainment systems, industrial embedded systems, IoT devices, wearable technology, and compact computing platforms where memory performance and space efficiency are critical design parameters. The component particularly excels in applications requiring fast boot times, efficient multitasking capabilities, and reliable data storage in challenging environmental conditions.

Regarding equivalent models, several alternative solutions exist in the market including Samsung's KMK series eMCP packages such as KMK5X000VM-B314 and KMK7X000VM-B314, which offer similar multi-chip integration with varying capacity configurations. Micron provides comparable solutions through their MT series including MT29C4G48MAYAPESJ-5 IT and MT29C8G48MAKLAJEK-12 IT models. SK Hynix offers competitive alternatives in their H26M series such as H26M78208EMR and H26M64208EMR packages. Additional equivalent options include Toshiba's THGBM series like THGBMHG8C2LBAIL and THGBMHG9D8LBAIG, along with Intel/Micron collaborative solutions in the IM series including IM4G16D3EABG-125I and IM8G16D3FBBG-125I. These alternatives provide similar functionality with variations in memory capacity, interface specifications, and package dimensions, allowing designers to select optimal solutions based on specific application requirements and cost considerations.

16EMCP16-NL3ET527 Key Technical Attributes

- Manufacturer Original Factory

- Manufacturer Part Number 16EMCP16-NL3ET527

- Product type eMCP embedded Multi Chip Package combining managed NAND storage and low power mobile DRAM

- Main category Integrated Circuits ICs

- Subcategory Specialized ICs

- Package or case code 869 per listing

- Date code 18+ production year 2018 or newer

- Available stock 2336 units on hand

- Interface domains typical eMMC for NAND and LPDDR for DRAM housed in a single BGA package

16EMCP16-NL3ET527 Packing Size

- Package style BGA eMCP multi die system in package optimized for compact footprints

- Body size typical eMCP ranges 11 x 13 mm to 12 x 16 mm exact outline to be confirmed in the datasheet

- Ball pitch typical 0.5 mm to 0.6 mm dependent on ball count and generation

- Ball count typical ranges 153 to 221 with segregated ball fields for storage and DRAM domains

- Pin configuration dual domain ball map with keep out regions and dedicated power and ground networks

- Materials halogen free mold compound and BT or equivalent laminate substrate JEDEC compliant

- Moisture sensitivity typically MSL 3 with dry pack per J STD 033 verify exact MSL on label and datasheet

- Shipping form tape and reel for SMT and vacuum sealed moisture barrier bag with desiccant and HIC

- Thermal characteristics dominated by conduction through balls into PCB recommend solid ground planes and thermal vias for heat spreading

- Electrical properties typical eMMC VCC 2.7 to 3.6 V and VCCQ 1.8 or 3.3 V typical LPDDR core and I O rails around 1.2 V verify absolute and recommended ratings in datasheet

16EMCP16-NL3ET527 Application

- Smartphones and tablets needing compact storage plus working memory

- Embedded Linux or Android systems booting from eMMC with tight space budgets

- IoT gateways edge computing nodes HMI panels POS kiosks and barcode terminals

- Wearables handhelds and portable consumer devices with strict power limits

- Industrial SOMs and SBCs requiring high integration and simplified memory routing

16EMCP16-NL3ET527 Features

This device integrates managed NAND storage and low power DRAM in one BGA to reduce board area simplify routing and shorten time to market. The managed NAND side typically implements an eMMC compatible controller that handles wear leveling bad block management ECC garbage collection and background operations so the host processor can use simple block read and write commands. Common eMMC class features for devices of this era include boot partitions replay protected memory block RPMB secure erase and sanitize secure trim enhanced user area partitions and multiple power and sleep states that enable aggressive power savings. On the DRAM side the LPDDR device offers low voltage operation on core and I O rails on die termination per speed grade deep power down and partial array self refresh features to minimize standby power while maintaining data integrity within the selected banks. Co packaging the two memory die reduces signal length and crosstalk improves timing margins compared to discrete placement and can raise manufacturing yield through vendor controlled die pairing. The BGA ball map is partitioned so that the storage and DRAM interfaces are isolated which simplifies host routing to separate controller pins on the application processor. Power distribution networks are split with multiple decoupling points to maintain rail stability during burst transfers and refresh activity. Firmware on the managed NAND is designed to handle power loss tolerant updates by staging metadata commits and using journaling techniques which enhances system robustness. Typical performance for the storage domain supports multiple bus modes legacy and high speed including dual data rate modes available in contemporary eMMC devices with queueing support where applicable while the LPDDR domain supports frequency scaling to balance bandwidth and energy. The device is generally optimized for small form factor platforms with strict thermal budgets and is manufactured on halogen free materials aligned with modern environmental directives.

16EMCP16-NL3ET527 Quality and Safety Features

- Traceable date code 18+ with standard lot identification labeling practices for audit and recall readiness

- Environmental compliance with typical RoHS and REACH requirements and halogen free construction per industry practice for mobile memory modules

- Moisture sensitivity management with dry pack labeling HIC and handling procedures per J STD 033 to protect solderability and long term reliability

- ESD and latch up robustness validated to JEDEC methods on the storage and DRAM interfaces with specific HBM and CDM levels published in the datasheet

- Internal ECC and bad block management on the managed NAND domain plus wear leveling and read disturb mitigation to extend service life

- Secure features commonly available in eMMC devices such as RPMB authenticated access secure erase sanitize and write protection options to support safety critical update flows

- Recommended assembly reflow profile per J STD 020 with peak temperature and soak times defined to prevent package damage and interconnect defects

16EMCP16-NL3ET527 Compatibility

The product is intended for application processors and SoCs that expose both an eMMC compatible host controller and an LPDDR memory interface. Mechanical and electrical compatibility is governed by the exact ball map body size ball pitch and rail voltages that must be taken from the official datasheet and matched to the host PCB footprint and power tree. Software compatibility for the storage side aligns with standard eMMC command sets enabling straightforward boot and filesystem integration on Android Linux and real time operating systems and supports common boot flows using dedicated eMMC boot partitions. The DRAM interface requires timing training and controller configuration consistent with the LPDDR generation supported by the host platform with attention to signal integrity layout rules impedance control and termination. Because eMCP devices vary in ball counts voltages speed grades and boot feature sets always verify the suffix NL3ET527 mapping to capacity speed and temperature options before drop in replacement and run design rule checks against the ball map and keep out patterns.

16EMCP16-NL3ET527 Datasheet PDF

Our website hosts the most authoritative and up to date datasheet for 16EMCP16 NL3ET527 including complete mechanical outline ball map recommended reflow profile DC and AC characteristics storage feature set boot options timing parameters and ordering information. For precise design decisions footprint creation and compatibility checks download the datasheet directly from this page to ensure you are using the correct and current documentation for this exact suffix and date code

Quality Distributor

IC Components is a premium distributor for Original Factory branded ICs delivering only new genuine and fully traceable parts with rigorous incoming inspection ESD safe handling and global logistics support. Leverage our professional sourcing team for competitive pricing fast delivery and lifecycle guidance on 16EMCP16 NL3ET527 and related memory solutions. Visit our website to request a quote now and experience responsive service secure supply and dependable quality for your production needs

Frequently Asked Questions

What considerations should I keep in mind when integrating the 16EMCP16-NL3ET527 into a new industrial control system?
When integrating the 16EMCP16-NL3ET527 into an industrial control system, ensure your power supply voltage matches the device's requirements, verify compatibility with your I/O voltage levels, and confirm that your PCB layout accommodates its package 869 form factor. Additionally, review thermal management and consider environmental operating conditions to maintain reliability over long-term use.
Can the 16EMCP16-NL3ET527 be used in high-temperature or harsh industrial environments?
While the 16EMCP16-NL3ET527 is designed for standard operational conditions, verify its industrial temperature ratings provided by the manufacturer. If operating in high-temperature or harsh environments, consider implementing additional cooling, proper enclosure, or select alternative models specifically rated for extreme conditions to ensure long-term reliability.
Is it possible to replace or upgrade the 16EMCP16-NL3ET527 with a similar IC from another manufacturer?
Replacing the 16EMCP16-NL3ET527 with a similar IC from another manufacturer requires careful evaluation of electrical characteristics, pin compatibility, package type, and timing performance. Be aware of potential differences in data code revisions and ensure the alternative maintains equivalent functionality and reliability for your application.
How does the data code "18+" influence the long-term availability and support of the 16EMCP16-NL3ET527?
The "18+" data code indicates the manufacturing or revision version, which can affect product consistency and support. Confirm with the manufacturer whether this revision corresponds to the latest version and verify lead times and end-of-life notices for the 16EMCP16-NL3ET527 to ensure ongoing availability for your project.
What are the key design constraints when connecting the 16EMCP16-NL3ET527 to other ICs in a mixed-signal system?
When connecting the 16EMCP16-NL3ET527 in a mixed-signal system, ensure proper voltage level matching on I/O lines, implement appropriate buffering if necessary, and maintain signal integrity by considering trace impedance, grounding, and avoiding noise coupling. Review the datasheet for guidelines on input/output interfacing to prevent damage or signal corruption.
What are the practical differences between the 16EMCP16-NL3ET527 and other similar ICs in terms of performance and integration?
The 16EMCP16-NL3ET527's specific features, such as its package (869), pin configuration, and internal architecture, may differ from similar ICs, affecting integration complexity and performance. Evaluate parameters such as propagation delay, power consumption, and functional features to determine suitability and identify any adjustments needed in your design.
Are there specific power supply filtering or decoupling requirements for the 16EMCP16-NL3ET527?
Yes, ensure adequate decoupling capacitors are placed close to the power pins of the 16EMCP16-NL3ET527, typically 0.1 µF ceramic capacitors, to reduce noise and voltage fluctuations. Consult the datasheet for recommended filtering practices to guarantee stable operation, especially in high-speed or sensitive applications.
What are the recommended methods for configuring or programming the 16EMCP16-NL3ET527 during system initialization?
The configuration method depends on the specific functionality of the IC; typical approaches include parallel, serial, or command-based interfaces. Review the manufacturer's documentation for recommended setup procedures, ensuring proper ordering of configuration signals, and consider whether any firmware or hardware initialization steps are necessary for reliable startup.
Can the 16EMCP16-NL3ET527 be used in safety-critical applications, and what reliability considerations should I evaluate?
To use the 16EMCP16-NL3ET527 in safety-critical applications, verify its operational ratings, fault tolerance, and compliance with relevant safety standards. Implement redundant paths or error detection mechanisms as needed, and confirm with the manufacturer regarding its long-term reliability and suitability for such environments.
What are the key factors to consider if I want to migrate from an older version or different IC to the 16EMCP16-NL3ET527?
When migrating, carefully compare pinouts, electrical characteristics, and performance parameters such as timing and power consumption. Consider package compatibility (869), potential changes in supply requirements, and ensure that your PCB layout can accommodate any physical differences. Testing and validation are essential to ensure seamless integration with minimal system disruption.

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16EMCP16-NL3ET527

Original Factory

867

In Stock: 3806

SUBMIT RFQ