Raspberry Pi 5 Specs: Full 2025 Breakdown

The Raspberry Pi 5 is the current flagship single-board computer from the Raspberry Pi Foundation, and its spec sheet is the most significant generational jump the product line has seen. This breakdown covers the CPU, GPU, memory, storage, and I/O changes versus the Raspberry Pi 4, and puts the board's real-world position in context against low-power x86 hardware and discrete GPUs — without pretending a $60-80 SBC competes head-to-head with either.

Raspberry Pi 5 Key Specifications (2025)

Per the Raspberry Pi Foundation's official specifications page, the Pi 5 is built around a new Broadcom BCM2712 SoC:

The headline change is the CPU: four Cortex-A76 cores at 2.4GHz, a full architecture generation newer than the Pi 4's Cortex-A72 cores, clocked meaningfully higher. Per the Foundation's own launch announcement, this combination is described as delivering roughly 2-3x the general compute performance of the Pi 4 — exact figures vary by benchmark and workload, so treat any single percentage as directional rather than universal.

A new addition is the RP1 southbridge chip, a Raspberry Pi-designed I/O controller that handles USB, Ethernet, camera/display connectors (CSI/DSI), and GPIO, connected to the BCM2712 over an internal PCIe link. This is what enables the Pi 5's improved USB 3.0 throughput and dual-camera support compared to the Pi 4.

Raspberry Pi 5 vs Low-Power x86: What the Comparison Actually Means

It's tempting to line the Pi 5 up against a low-power x86 laptop chip like AMD's Ryzen 7 7735U, but the comparison only makes sense with the right caveats. The 7735U is an 8-core/16-thread mobile chip with a 15-28W configurable TDP built for laptops; the Pi 5's quad-core Cortex-A76 draws a small fraction of that power, with the whole board typically running in the single-digit watts under load. A chip with twice the cores, hardware SMT, and several times the power budget will out-muscle the Pi 5 in raw multi-threaded throughput — that outcome isn't a surprise, and public reviews of both platforms consistently frame it that way rather than as a close contest. What the Pi 5 wins on is performance-per-watt and cost: it's a $60-80 board (before storage, power supply, and case) that outperforms every prior Raspberry Pi in single-threaded and lightly-threaded work, which covers most home-server, automation, and hobbyist workloads that never saturate an 8-core laptop chip in the first place. If your project is CPU-bound and multi-threaded (video transcoding at scale, heavy compilation, ML training), an x86 mini PC or NUC-class device is the better tool; if it's I/O-bound, low-power, or headless (network services, automation hubs, camera processing), the Pi 5's efficiency wins.

GPU Capabilities: Raspberry Pi 5 vs a Discrete GPU

The Pi 5's VideoCore VII GPU is a generational step up from the Pi 4's VideoCore VI, adding OpenGL ES 3.1 and Vulkan 1.2 support alongside the same 4Kp60 H.265 decode capability carried over from the Pi 4. It's designed for desktop compositing, light 3D acceleration, and video playback — not for gaming or GPU compute at any meaningful scale.

Comparing it directly to a discrete desktop card like AMD's Radeon RX 6500 XT isn't really an apples-to-apples exercise: the RX 6500 XT is a dedicated graphics card with its own VRAM, a Navi 24 GPU die, and a power draw the Pi 5's entire board doesn't approach, built specifically for 1080p gaming. The performance gap between an integrated SoC GPU and a discrete gaming card varies enormously by API, resolution, and workload, so rather than cite a single multiplier, the practical takeaway is simpler: the VideoCore VII is there for UI rendering, video decode, and light acceleration (retro emulation, kiosk displays, media center duty), while anything resembling modern gaming or GPU-compute work needs a discrete card and a different form factor entirely. For a maker project that needs an old VGA-only monitor or projector connected to a Pi 5's HDMI outputs — common in retro-display and kiosk builds — an HDMI-to-VGA adapter bridges that gap cheaply.

Raspberry Pi 5 Storage and Connectivity

The Pi 5 keeps the familiar microSD slot as the default boot source but adds a PCIe FPC connector, officially rated at PCIe 2.0 x1 speeds, for NVMe SSD expansion via a HAT (such as Raspberry Pi's own M.2 HAT+). Some HATs and community configurations run the link at PCIe 3.0 x1 speeds using an unofficial config override, though the Foundation itself only validates Gen 2 operation — worth noting since third-party marketing sometimes implies otherwise. There is no onboard eMMC storage on the Pi 5; all persistent storage is external, same as every prior Raspberry Pi board.

On networking and I/O, the Pi 5 retains Gigabit Ethernet (with PoE+ support via a separate HAT) and 802.11ac dual-band Wi-Fi plus Bluetooth 5.0/BLE — the same wireless generation as the Pi 4, not Wi-Fi 6 or 6E despite that occasionally circulating in secondhand summaries. USB is 2x USB 3.0 and 2x USB 2.0, now able to sustain higher simultaneous throughput thanks to the RP1 chip's dedicated I/O paths. The standard 40-pin GPIO header carries over for HAT and breakout-board compatibility, and the board adds a physical power button and a real-time clock (RTC) header with optional battery backup — both new to the Pi 5 versus the Pi 4.

Raspberry Pi 5 Use Cases and Project Ideas

The extra CPU headroom and RP1-driven I/O improvements make the Pi 5 a meaningfully better fit for workloads that felt marginal on the Pi 4:

• Home automation hub — running Home Assistant, Zigbee/Z-Wave coordinators, and local voice processing benefits directly from the faster cores; see our home automation project roundup and the 2025 starter guide.
• Lightweight media center / retro emulation — the improved VideoCore VII and 4Kp60 HEVC decode suit Kodi, Jellyfin clients, and light retro-console emulation.
• AI edge computing — pairing a Pi 5 with a Coral USB TPU or similar accelerator over its faster USB 3.0 links offloads inference the Pi's own CPU/GPU can't handle efficiently alone.
• Beginner and kid-friendly builds — for anyone starting out, our no-solder beginner projects and top 10 kid projects don't require the Pi 5's extra power but run noticeably snappier on it.
• Advanced hobbyist builds — NAS boxes, self-hosted services, and compile-heavy workflows are where the Cortex-A76 jump is most noticeable; see advanced Pi projects for adults and the broader 50+ project ideas by skill level.

For anyone deciding between boards, our comparison of the Pi 4 8GB vs. Pi Zero W for a first project is a useful reference point on how much the older Pi 4 still covers before the Pi 5's extra cost and power draw are worth it, and the Raspberry Pi 500 Plus lineup breakdown covers how the Pi 5's SoC shows up in the all-in-one keyboard form factor.

Bottom Line

The Raspberry Pi 5's Cortex-A76 CPU, VideoCore VII GPU, faster LPDDR4X memory, and RP1-enabled I/O add up to the biggest generational leap in the board's history, per the Foundation's own specifications and launch materials. It still isn't a replacement for a multi-core x86 mini PC on heavy multi-threaded work, and its integrated graphics aren't a substitute for a discrete GPU — but for the automation, media, and edge-AI projects that make up most of the maker community's actual use cases, it's a substantial upgrade over the Pi 4 at a similar price point.

Citations and sources

• Raspberry Pi 5 official specifications
• Raspberry Pi 5 launch announcement
• Raspberry Pi 5 product page
• Raspberry Pi documentation

This piece is editorial synthesis based on publicly available information. No independent first-party benchmarking is reported.