When analyzing the datasheet against general-purpose servers (building a database server from components), three distinct advantages emerge:
In the high-stakes world of enterprise database management, few platforms command the respect of Oracle Exadata. Customers searching for the "Oracle Exadata X82 datasheet" are often looking for the specifications of the X8 generation’s two-socket (2-socket) database server model. While the exact term "X82" is an informal shorthand, the official product is the Oracle Exadata Database Machine X8M-2.
Launched as a revolutionary step forward, the X8M-2 introduced Persistent Memory (PMEM) and Remote Direct Memory Access (RDMA) over Converged Ethernet (RoCE), slashing I/O latency from milliseconds to microseconds. This article serves as your definitive datasheet, covering hardware specifications, architecture, software features, performance benchmarks, and use cases for the Exadata X8M-2.
Correction note: Oracle’s Exadata product line includes X8M (with “M” for memory), not an “X82.” The “-2” suffix indicates the number of CPU sockets in the database server. Thus, “X8M-2” is the accurate search term for what many mistakenly call X82.
The hardware is useless without the correct software stack. According to the X8-2 certification datasheet:
| Software | Version Requirement | | :--- | :--- | | Oracle Database | 19c or 21c (12c R2 with patches) | | Oracle Grid Infrastructure | 19c or later | | Exadata System Software | Release 19.2 or higher | | Operating Systems | Oracle Linux 7 or 8 (UEK kernel) |
Note: Exadata X8-2 is not certified for standard Red Hat Enterprise Linux (RHEL) or Windows. It runs Oracle Linux exclusively due to kernel-level Exadata drivers.
| Component | Version | |-----------|---------| | Oracle Database | 11g Release 2 (11.2.0.4) or later (19c recommended) | | Exadata System Software | 20.1.0 or later | | Operating System | Oracle Linux 7.x/8.x (Unbreakable Enterprise Kernel UEK6) | | Required Licenses | Enterprise Edition + Exadata Software License |
To ensure your “X82 datasheet” search yields the correct model, here is a side-by-side: oracle exadata x82 datasheet
| Feature | Exadata X8-2 | Exadata X8M | Exadata X9M | | :--- | :--- | :--- | :--- | | CPU | Xeon 8260 (24C) | Xeon 8260 (24C) | Xeon 8358 (32C) | | DRAM | 1.5 TB | 1.5 TB + 6 TB PMEM | 2 TB + 8 TB PMEM | | Max PMEM | None | 6 TB | 8 TB | | Commit Latency | ~800 µs | ~19 µs | ~16 µs | | NVMe Flash | Up to 51 TB | Up to 51 TB | Up to 102 TB | | Use Case | Standard OLTP + DW | Extreme OLTP, ERP, Financial | Real-time analytics, IoT |
Verdict: If your search query is for cost-effective hybrid workloads, the X8-2 (X82) is correct. If you need microsecond commit latency, you actually want the X8M.
Ready to get a quote? Contact your Oracle sales representative or an authorized Oracle Partner (e.g., Deloitte, Accenture, Wipro) to discuss a tailored X8M-2 configuration based on your IOPS, capacity, and latency requirements.
This article is for informational purposes only. Oracle, Exadata, and Java are registered trademarks of Oracle Corporation. All performance data presented is estimated based on publicly available test results.
According to the official Oracle Exadata X8-2 datasheet, performance improvements over older generations (X7) include:
Lena’s hands were trembling. Not from fear, but from the weight of a single piece of paper.
It was the original Oracle Exadata X8-2 datasheet, printed on heavy, heat-resistant stock. In the year 2147, paper was a relic. Data sheets were neural streams. But this one had survived a solar flare that had wiped the central archives.
“Talk to me, old ghost,” she whispered, flattening the creased page under a cracked magnifier. The hardware is useless without the correct software stack
The specs were absurdly ancient. Intel Xeon processors. 25GB per second read bandwidth. 288GB of memory per server.
Her crewmate, Jax, laughed from the reactor core. “That’s your treasure? That’s a museum fossil. My wristwatch has more compute.”
“You don’t understand,” Lena said, tracing a footnote with her finger. “Look at the storage section. ‘Eighteen 6.4TB NVMe flash cards. 4.2 million IOPS.’”
Jax stopped laughing. “That’s… pathetic. A drone has a petabyte.”
“Exactly,” Lena said. “It’s pathetic now. But read the fine print: ‘Maximum database throughput: 6.4 terabytes per second.’”
Outside their salvage shuttle, the derelict colony ship Oracle’s Ark drifted silently. Two weeks ago, it had been swallowed by a quantum fog—a data-eating virus that turned solid-state memory into static. Every modern ship that tried to rescue it had died. Their AI cores fried. Their exabyte drives reduced to white noise.
But the X8-2? It ran on brute force. Parallel hardware. Direct memory access. No quantum entanglement, no fragile AI handshakes.
“The virus expects a modern architecture,” Lena murmured. “But this old Exadata doesn’t speak the virus’s language. It speaks SCSI commands and raw flash blocks. It’s immune because it’s too stupid to infect.” frayed and yellowed
She slid the datasheet into the ship’s log. “Plot a course. We’re going to board the Ark, rip out the old X8-2 storage server from the cargo bay, and boot it cold.”
“That thing hasn’t run in sixty years,” Jax warned.
Lena smiled, tapping the datasheet’s header: “Oracle Exadata X8-2. Extreme performance. Mission-critical reliability. Designed to run forever.”
“Let’s find out if Oracle was lying.”
Epilogue: They found the X8-2 buried under a century of dust. Lena connected a portable battery. The fans screamed like a jet engine. The green lights blinked once, twice, then held steady.
The virus hit the old machine—and bounced.
The datasheet, frayed and yellowed, had been right. Sometimes the old giants don’t roar. They just keep grinding, one I/O at a time, long after the stars go cold.