SK hynix

H5AN8G6NAFR-PBC - 8Gb DDR4 SDRAM 1.2V TFBGA-96 | SK hynix

MPN: H5AN8G6NAFR-PBC ✓ Active
In Stock Ships in 1-3 business days
1.20 V +/- 0.06 V Vdss TFBGA-96 (rectangular) Package DDR4-1600 / 1866 / 2133 / 2400 (datasheet speed bin tables) Speed DDR4 SDRAM Memory
From $3.55 USD / Unit
MOQ: 1 |
Price updated: 2026-09-04
Volume Pricing
Qty Unit Price Extended
1 $4.85 $4.85
10 $4.55 $45.50
100 $4.15 $415.00
500 $3.85 $1,925.00
1,000 $3.55 $3,550.00
ℹ️ All prices are in USD

Drop-in alternatives for H5AN8G6NAFR-PBC — same package, pin-to-pin compatible. Different-package parts requiring PCB rework are excluded.

Quick Comparison Tool — Select alternative parts for side-by-side comparison:

H5AN8G6NAFR-UHC

✅ Drop-In
SK hynix
📦 TFBGA-96
DDR4 SDRAM · 8 Gb · 512M x 16 · 1.2 V · 2400 MT/s · FBGA-96 · 0°C to +85°C · 96

✓ In Stock

$0.12 / Unit

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H5AN8G6NCJR-VKC

✅ Drop-In
SK hynix
📦 TFBGA-96
DDR4 SDRAM · 8 Gb · 512M x 16 · 2666 Mbps · 1.2 V (1.14V to 1.26V) · 0°C to +95°C · FBGA-96 · 28 mA

✓ In Stock

$60 / Unit

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H5AN8G6NDJR

✅ Drop-In
SK hynix
📦 TFBGA-96
DDR4 SDRAM · 8 Gb · 512M x 16 · 3200 Mbps (DDR4-3200) · 1.2 V · 96-ball FBGA (13mm x 7.5mm) · 96 · 1.26 V

✓ In Stock

$35 / Unit

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MT40A512M16JY-075E

✅ Drop-In
Micron Technology
📦 FBGA-96
DDR4 SDRAM · 8 Gbit · 512M x 16 · 1.33 GHz · 2666 MT/s · 1.14V to 1.26V · 2.5V (-125mV, +250mV) · Parallel

✓ In Stock

$30.5 / Unit

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H5AN8G8NAFR-PBC

✅ Drop-In
SK hynix
📦 TFBGA-96
DDR4 SDRAM · 8 Gb · 1G x 8 · 1.2 V · FBGA-78 · Surface Mount · [DATA_NEEDED: speed grade / data rate] · DDR4 (double data rate, synchronized to clock)

✓ In Stock

$2.2 / Unit

View Datasheet →

H5AN8G6NAFR-PBC Maximum Ratings & Electrical Characteristics

Memory Type DDR4 SDRAM
Density 8 Gbit
Organization 512M x 16
VDD Supply Voltage 1.20 V +/- 0.06 V
VDDQ Supply Voltage 1.20 V +/- 0.06 V
VPP Supply Voltage 2.5 V +0.25/-0.125 V
Interface Type DDR4 (parallel, double data rate)
Speed Bins Supported DDR4-1600 / 1866 / 2133 / 2400 (datasheet speed bin tables)
Refresh Auto / Self Refresh
DLL DLL ON mode for speed bin operation
Clock Differential clock (CK/CK#)
Package TFBGA-96 (rectangular)
Number of Terminals 96
Mounting Type Surface Mount
RoHS Status Compliant (Lead-Free & Halogen-Free)
Composition CMOS

H5AN8G6NAFR-PBC tfbga-96 (rectangular) Pin Configuration Guide

Complete pinout information for H5AN8G6NAFR-PBC (tfbga-96 (rectangular) package). This digital IC includes GPIO, communication interfaces (UART, SPI, I2C), and power pins. Refer to the manufacturer datasheet for alternate pin functions and configuration options. Essential for embedded system design and PCB layout.

tfbga-96 (rectangular) package pinout diagram for H5AN8G6NAFR-PBC

No detailed pinout data available for H5AN8G6NAFR-PBC.

Refer to the datasheet for full pin configuration.

Safe Operating Area (SOA) & Thermal Characteristics

Safe Operating Area Chart Default safe operating area chart for H5AN8G6NAFR-PBC Drain-to-Source Voltage (Vds) Drain Current (Id)

No official SOA curve available for this digital IC. Always operate within absolute maximum ratings specified in the datasheet. Ensure adequate cooling and derate as needed.

Typical Applications

H5AN8G6NAFR-PBC is suitable for 6 applications: Embedded Main Memory for Industrial PCs, Networking and Telecom Equipment, Set-Top Boxes and Smart TV Platforms, Automotive Infotainment and Displays, Test and Measurement Instrumentation, Edge AI and Vision Modules.

🏭

Embedded Main Memory for Industrial PCs

The H5AN8G6NAFR-PBC provides 8Gb of DDR4 main memory per device for industrial PCs, HMI panels, and edge controllers running memory-hungry Linux or real-time workloads. Its 512M x16 organization lets two devices form a 32-bit channel or four devices a 64-bit channel, minimizing component count versus x8 alternatives. The 1.2V VDD/VDDQ interface cuts I/O power roughly 20% versus DDR3 at comparable bandwidth, reducing thermal load in fanless enclosures, while auto/self-refresh supports Suspend-to-RAM power strategies. Its RoHS-compliant, lead-free and halogen-free construction fits standard industrial qualification flows, and the DDR4-1600 to 2400 speed-bin range lets one PCB cover multiple CPU performance tiers by changing only firmware training tables.

🌐

Networking and Telecom Equipment

Routers, switches, and 5G small-cell platforms require large packet buffers and high memory bandwidth; the H5AN8G6NAFR-PBC's 8Gb density and up to DDR4-2400 data rate supply the throughput for line-rate packet processing. The x16 organization suits 16-bit and 32-bit control-plane memory buses common in network processors and ARM-based management CPUs. DLL-on operation and bank-group timing support dense command streams typical of buffer management, while per-byte DM masks simplify store-and-forward buffer implementations. Because telecom racks demand long service life, dual-sourcing with Micron's MT40A512M16JY-075E on the same 96-ball footprint protects against DRAM supply cycles without PCB respin, and the 1.2V interface lowers per-device power across the dozens of DRAMs in a chassis.

📺

Set-Top Boxes and Smart TV Platforms

Media-soC set-top boxes and smart TVs typically use 32-bit DDR4 channels; a pair of H5AN8G6NAFR-PBC devices delivers 2 GB of main memory for 4K video decoding, graphics, and applications. The x16 organization matches these SoC memory controllers directly, and the 1.2V interface reduces total platform power - important in always-on consumer devices subject to energy regulations. Auto/self-refresh enables low-power standby states needed for instant-on user experiences. Because consumer BOMs are cost-driven, the shared 96-ball footprint with SK hynix's H5AN8G6NAFR-UHC and newer CJR/DJR dies allows procurement to migrate across grades and generations with no PCB change, protecting production continuity through DRAM market fluctuations.

🚗

Automotive Infotainment and Displays

Digital cockpits and infotainment SoCs use DDR4 DRAM for graphics buffers and navigation databases; the H5AN8G6NAFR-PBC's 8Gb capacity supports multi-display rendering pipelines. Two x16 devices on a 32-bit channel provide 2 GB with bandwidth up to the DDR4-2400 bin, sufficient for HD map rendering and rear-seat streaming. The 1.2V rail simplifies integration with automotive PMIC DDR4 rails, and the separate 2.5V VPP input matches standard automotive DDR4 power architectures. For qualification, engineers should confirm the operating temperature grade for the specific suffix and consider SK hynix automotive-grade DDR4 variants where AEC-Q100 alignment is required, using the shared F-package footprint to keep the design portable across grades.

🔧

Test and Measurement Instrumentation

Oscilloscopes, logic analyzers, and protocol analyzers capture large waveform datasets into main memory; the H5AN8G6NAFR-PBC's 8Gb density per device supports deep-capture memory pools of 4-16 GB built from a handful of components. A 64-bit channel of four x16 devices achieves high sustained bandwidth for streaming acquisition data, while the 1.2V DDR4 interface and self-refresh mode manage instrument power budgets in portable formats. Deterministic initialization via RESET# and standard JEDEC mode-register programming eases bring-up on FPGA or ASIC memory controllers. Instruments benefit from dual-sourcing on the same footprint - qualifying both this SK hynix device and Micron's MT40A512M16JY-075E protects long-lifecycle product lines against DRAM end-of-life and allocation cycles.

🎥

Edge AI and Vision Modules

Edge AI accelerator modules and smart-camera SoCs need 1-4 GB of DDR4 for model weights, frame buffers, and intermediate feature maps; a 32-bit channel built from two H5AN8G6NAFR-PBC devices provides 2 GB at up to DDR4-2400 bandwidth, feeding CNN inference pipelines at the frame rates vision workloads demand. The x16 organization matches typical vision-SoC controllers, and the compact 96-ball TFBGA fits the tight module footprints of M.2 and SO-DIMM-style edge compute cards. Auto/self-refresh supports aggressive duty-cycling in battery-powered cameras, while RoHS-compliant lead-free construction meets global IoT product compliance. The shared footprint with CJR/DJR successor dies gives module vendors a longevity path without layout changes.

What is the H5AN8G6NAFR-PBC and what are its key specifications?
The H5AN8G6NAFR-PBC is an 8Gb DDR4 SDRAM from SK hynix organized as 512M x 16, operating at 1.2V core voltage (VDD/VDDQ = 1.20V +/- 0.06V) with a 2.5V VPP supply, in a 96-ball TFBGA package. It supports DDR4-1600 through DDR4-2400 speed bins per the datasheet speed bin tables, with auto/self-refresh, and it is lead-free, halogen-free, and RoHS compliant, making it suited for main-memory designs requiring high density and bandwidth.
What supply voltages does the H5AN8G6NAFR-PBC require?
The device requires three rails: VDD and VDDQ at 1.20V +/- 0.06V for the core and I/O, and VPP at 2.5V +0.25/-0.125V for the wordline boosting supply. According to the SK hynix datasheet, these absolute limits must be observed; VPP should be applied together with or before VDD. The 1.2V interface is the DDR4-generation reduction from DDR3's 1.5V, which lowers I/O power substantially in multi-device memory buses.
What data rates does the H5AN8G6NAFR-PBC support?
The H5AN8G6NAFR-PBC supports DDR4 speed bins of 1600, 1866, 2133, and 2400 MT/s as defined in the datasheet speed bin tables (Rev. 1.2, Jul. 2017). The datasheet notes that these bin tables are valid only when Geardown Mode is disabled and when the DLL is ON. CL and CWL register settings must be chosen to satisfy tCK(avg) MIN and MAX requirements for the selected bin.
What is the difference between H5AN8G6NAFR-PBC and H5AN8G8NAFR-PBC?
The difference is the I/O organization: the G6 part is 512M x 16 while the G8 part is 1G x 8; both are 8Gb DDR4 dies in the same 96-ball TFBGA package family from SK hynix. Choose the x16 part for 16-bit-wide buses where you want fewer devices per rank, and the x8 part for standard 64-bit channels built from eight devices per rank. Verify CAS-to-CAS timing requirements in your memory controller configuration before substituting.
H5AN8G6NAFR-PBC vs MT40A512M16JY-075E - which is better for a DDR4-2400 design?
Both are 8Gb x16 DDR4 SDRAMs: the SK hynix H5AN8G6NAFR-PBC and the Micron MT40A512M16JY-075E. The Micron -075E suffix targets DDR4-2400-class (0.75 ns) operation, matching the hynix 2400 bin capability, and both come in comparable 96-ball FBGA footprints. Neither is universally better; choose based on your supplier, price, and qualification. Always validate timings (CL, tRCD, tRP, tRFC) and SPD configuration against both datasheets before qualifying a cross-brand swap.
What is the best drop-in replacement for H5AN8G6NAFR-PBC?
The best drop-in replacement is the SK hynix H5AN8G6NAFR-UHC, which is the same die and 96-ball TFBGA package with a different speed grade suffix - PCB layout and firmware require no changes beyond confirming the speed bin. Other pin-compatible SK hynix options include H5AN8G6NCJR-VKC and H5AN8G6NDJR, and a cross-brand equivalent is Micron's MT40A512M16JY-075E. Confirm JEDEC timing compatibility with your memory controller before switching speed grades.
Can the Micron MT40A512M16JY-075E replace the H5AN8G6NAFR-PBC?
Yes, the Micron MT40A512M16JY-075E is a recognized cross-brand equivalent for the H5AN8G6NAFR-PBC: both are 8Gb DDR4 SDRAM organized as 512M x 16 in a 96-ball FBGA package operating at 1.2V. It appears in cross-reference listings for the hynix part. Because the suffix conventions differ, verify the speed bin, CL/CWL settings, tRFC, and package ballout (for example CA pin ordering) against the Micron datasheet, and re-run memory training after the swap.
When should I choose the H5AN8G6NAFR-PBC over an x8 DDR4 device?
Choose the x16 H5AN8G6NAFR-PBC when your memory bus is 16 or 32 bits wide, when board space or BOM cost favors fewer DRAM devices per rank, or when your controller configures x16 organization - for example two devices forming a 32-bit channel. Choose x8 parts like H5AN8G8NAFR-PBC for standard 64-bit channels where x8 enables finer address mapping and burst-chop flexibility. The x16 bus sacrifices some bus efficiency (wider BL per pin pair) but halves component count.
Is the H5AN8G6NAFR-PBC suitable for industrial embedded main memory?
Yes. The H5AN8G6NAFR-PBC is well suited to industrial embedded main memory: its 8Gb density supports memory-hungry Linux/RTOS platforms, the 1.2V DDR4 interface reduces power versus DDR3, and auto/self-refresh operation supports power-managed standby. It is lead-free and halogen-free (RoHS compliant). For extended-temperature or high-reliability deployments, confirm the operating temperature range and consider SK hynix industrial-grade variants, and validate refresh-rate settings (1x to 4x) for high-ambient conditions.
Where can I download the H5AN8G6NAFR-PBC datasheet PDF?
The H5AN8G6NAFR-PBC datasheet (45 pages, Rev. 1.2, July 2017, file size approximately 821 KB) is available from SK hynix's official documentation and mirrored on datasheet aggregators such as Alldatasheet at https://www.alldatasheet.com/view.jsp?Searchword=H5AN8G6NAFR. The same document covers the H5AN8G4NAFR, H5AN8G8NAFR, and H5AN8G6NAFR -xxC families. Always prefer the manufacturer's latest revision when timing parameters are contractual for your design.
Where can I find the H5AN8G6NAFR-PBC pinout?
The H5AN8G6NAFR-PBC pinout is documented in the SK hynix 8Gb DDR4 SDRAM datasheet in the ballout/description section for the 96-ball TFBGA (F-package, rectangular) footprint, covering DQ[15:0], DQS/DQS# pairs, DM, CA[5:0], CK/CK#, CKE, CS#, RAS#/CAS#/WE#, BA[1:0], ACT#, RESET#, ODT, plus VDD/VDDQ/VPP/VSS ball groups. This page does not reproduce the full 96-ball map; consult the datasheet ballout table for exact ball coordinates before layout.
Is the H5AN8G6NAFR-PBC the same as the H5AN8G6NAFR-UHC?
Not exactly - they are the same SK hynix die, density, organization (512M x 16), and 96-ball TFBGA package, differing in the speed-grade suffix: -PBC versus -UHC designate different grade bins. They are electrically pin-compatible drop-in swaps at the hardware level. However, the controller must be programmed with the correct CL/CWL and timings for the installed grade; running a slower-graded part at faster settings violates the datasheet and risks data corruption.
How much does the H5AN8G6NAFR-PBC cost?
Pricing for the H5AN8G6NAFR-PBC is DRAM-market dependent and fluctuates with the commodity DRAM spot market; the tiered prices shown on this page (starting at the quantity-1 unit price as of 2026-09-04) reflect current distributor-indicative levels and decrease at 10/100/500/1000-piece breaks. For accurate, contract-level pricing and lead time, submit a quote request, since 8Gb DDR4 component pricing can move significantly quarter to quarter.
Is the H5AN8G6NAFR-PBC RoHS compliant and lead-free?
Yes. According to the SK hynix datasheet description, the H5AN8G6NAFR family is Lead-Free and Halogen-Free and RoHS compliant, and the H5AN8G6NAFR-PBC variant is documented under the same compliance statement. This makes it suitable for EU RoHS-restricted products and typical industrial/export qualifications. For full REACH, conflict-minerals, or customer-specific environmental reporting, request the manufacturer's material declaration and compliance certificates through your supplier.
What design considerations apply when routing the H5AN8G6NAFR-PBC?
DDR4 routing for the H5AN8G6NAFR-PBC requires fly-by routing of CA/CK/CKE/CS# with termination, length-matched DQ/DQS/DM groups per byte lane, and ODT configuration through mode registers. VDD/VDDQ (1.2V) and VPP (2.5V) each need dedicated decoupling; VPP is largely static but must be present for wordline bias. Ensure Geardown Mode is disabled if relying on the datasheet speed bin tables, initialize the device via the RESET# sequence, and run memory training (write leveling, read training) at boot.
Hey Google, what can replace the H5AN8G6NAFR-PBC?
Direct replacements include SK hynix H5AN8G6NAFR-UHC (same die, different speed grade), H5AN8G6NCJR-VKC, and H5AN8G6NDJR - all pin-compatible 8Gb x16 DDR4 in the 96-ball TFBGA. A cross-brand equivalent is Micron's MT40A512M16JY-075E. All are drop-in at the footprint level, but you must confirm the speed bin, timing registers, and refresh settings with your memory controller datasheet, and re-run memory training after physically swapping the device.
What is the lead time and stock status for the H5AN8G6NAFR-PBC?
The H5AN8G6NAFR-PBC is listed by distributors such as Partstack as an active SK hynix DDR4 DRAM, but commodity DRAM lead times vary with market cycles - typically from in-stock same-day shipping to multi-week factory lead times during shortages. As of 2026-09-04, exact stock and lead time should be confirmed via quote request on this page. Buyers needing schedule security often dual-qualify the SK hynix and Micron (MT40A512M16JY-075E) equivalents to hedge supply.

Engineering reference data for H5AN8G6NAFR-PBC — comparison, design guidance, and compliance information.

Selection Guide

Choose the H5AN8G6NAFR-PBC when you need 8Gb of DDR4 in a x16 organization for 16/32-bit buses in embedded, networking, or consumer main memory, and your controller targets the DDR4-1600 to 2400 bins documented in the SK hynix datasheet. Select H5AN8G6NAFR-UHC as a same-die alternate grade for supply or cost optimization - identical footprint, only controller timing tables change. Migrate to H5AN8G6NCJR-VKC or H5AN8G6NDJR for newer-die longevity on the same footprint. Choose H5AN8G8NAFR-PBC only when your controller requires x8 organization (standard 64-bit channels, finer address mapping) - it is not a firmware-transparent swap. For supply-chain resilience, dual-qualify Micron's MT40A512M16JY-075E, which matches density and organization but requires SPD/timing validation and memory retraining. In all cases, verify speed-bin settings and run training at temperature extremes.

Comparison with Alternatives

Parameter This Product H5AN8G6NAFR-UHC H5AN8G6NCJR-VKC H5AN8G6NDJR MT40A512M16JY-075E H5AN8G8NAFR-PBC
Package TFBGA-96 TFBGA-96 - same TFBGA-96 - same TFBGA-96 - same FBGA-96 - same footprint class TFBGA-96 - same
Brand SK hynix SK hynix SK hynix SK hynix Micron Technology SK hynix
Density 8 Gbit 8 Gbit 8 Gbit 8 Gbit 8 Gbit 8 Gbit
Organization 512M x 16 512M x 16 512M x 16 512M x 16 512M x 16 1G x 8
VDD/VDDQ 1.20 V +/- 0.06 V 1.20 V 1.20 V 1.20 V 1.20 V 1.20 V
Data Rate Class DDR4-1600 to 2400 bins (datasheet) [DATA_NEEDED: speed bin for -UHC suffix] [DATA_NEEDED: speed bin for CJR die] [DATA_NEEDED: speed bin for DJR die] 2400-class (-075E, 0.75 ns) Same -PBC grade family
Refresh Auto / Self Refresh Auto / Self Refresh Auto / Self Refresh Auto / Self Refresh Auto / Self Refresh Auto / Self Refresh
RoHS / Halogen-Free Compliant / Yes Compliant / Yes Compliant / Yes Compliant / Yes Compliant / Yes Compliant / Yes

Key Differentiators

  • x16 organization halves device count per bus (vs H5AN8G8NAFR-PBC)
  • Full datasheet-documented speed-bin range (vs H5AN8G6NAFR-UHC)
  • Dual-source continuity on one footprint (vs MT40A512M16JY-075E)

Design Notes

Provide three rails for the H5AN8G6NAFR-PBC: VDD and VDDQ at 1.20V +/- 0.06V and VPP at 2.5V +0.25/-0.125V, per the datasheet absolute ratings (Rev. 1.2, Jul. 2017). Sequence VPP on together with or before VDD to avoid unpowered wordline-bias stress. VPP draws little dynamic current but must stay regulated; VDDQ sees bursty I/O current, so bulk plus high-frequency ceramic decoupling near each device is mandatory. Use a DDR4-capable PMIC with VTT termination tracking (VDDQ/2) for the address/command bus.

Route DDR4 in fly-by topology for CK/CK#, CKE, CS#, RAS#/CAS#/WE#, ODT, and CA[5:0], with series-damped termination to VTT; keep CA skew within the controller's spec. Match DQ[15:0], DQS/DQS#, and DM per byte lane within +/- 5 mils and control impedance to 40-50 ohms single-ended. Both speed bin tables in the datasheet are valid only with DLL ON and Geardown Mode disabled, so confirm controller mode-register settings match the layout's target bin. Follow the ballout table in the SK hynix datasheet exactly; do not mirror the footprint from a x8 device without verification.

When substituting speed grades (for example H5AN8G6NAFR-UHC in place of -PBC, or cross-brand MT40A512M16JY-075E), do not assume one firmware training profile fits all: each grade and die generation (CJR/DJR vs the original AFR) has different CL/CWL, tRFC, and ODT optima. Re-run read/write leveling and verify at temperature extremes. Also note the datasheet reserves the right to change products or specifications without notice - re-verify PCN/EOL status periodically and qualify a second source to de-risk commodity DRAM allocation cycles.

Compliance Information

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

Datasheet description states Lead-Free & Halogen-Free (RoHS Compliant) for the H5AN8G6NAFR-PBC. REACH and conflict-minerals status not stated in provided data.

Data verified on: 2026-09-04 — data verified and curated by XAIPART's component engineering team

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Related Components & Terms

SK hynix H5AN8G6NAFR-PBC H5AN8G6NAFR-UHC H5AN8G6NCJR-VKC H5AN8G6NDJR H5AN8G8NAFR-PBC MT40A512M16JY-075E Micron Technology DDR4 SDRAM DRAM volatile memory TFBGA-96 FBGA surface mount RoHS JEDEC DDR4 512M x 16 organization VPP wordline supply auto/self refresh speed bin DDR4-2400 DLL Geardown Mode main memory industrial PC networking equipment
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