Meet QuinineHM - The worldβs first Hardware Manager, built to run databases at bare-metal speed.
For the last few years, we've been building the new generation of data software infrastructure.
Today, we're finally ready to show it.
We're releasing the Alpha for the Dataware ecosystem:
This is Alpha - tuned for stability, not yet full throttle - and it's completely free to use, explore, and break.
Because we were tired of how broken data software had become - expensive, slow, and inconsistent.
It's not hard to see why this is needed. Developers everywhere complain about cost, latency, and unpredictable performance.
And the cost? Outrageous. Spinning up a single PostgreSQL instance on AWS - 1 vCPU and 1 GB of RAM for $90/month - borders on absurd. We can do better than that.
Then there's security - or the lack of it. Every month brings another critical CVE. Redis just got hit with a 10/10 vulnerability. The pattern never ends: more complexity, more patches, more risk.
The deeper we dug, the more we realized the real bottleneck wasn't the database software itself - it was the operating system underneath it. Every I/O call, every context switch, every kernel scheduling decision was silently taxing performance. That's what led us to the idea of a new foundation: a hardware manager purpose-built for data workloads.
So we decided to start rebuilding.
Operating systems were designed in a different era - when a "computer" was a desktop or a mainframe, not a hyperscale database server.
They evolved to run anything: browsers, games, spreadsheets, daemons, shells. That flexibility made them universal - but it also buried every high-performance workload under layers of abstraction it doesn't need.
Every syscall, every scheduler context switch, every background process steals a little bit of your machine's performance.
For decades, we've tried to patch and tune around those losses - NUMA balancing, kernel-bypass networking, lock-free schedulers - but at some point, you simply run out of optimizations like that.
So we stopped optimizing. We started over.
Imagine booting a machine without an operating system. No kernel. No init system. No userland.
The hardware comes alive - and instead of a general-purpose OS taking over, a Hardware Manager steps in: a purpose-built layer that knows it's only ever going to run one thing - your workload.
That's QuinineHM.
It's not a unikernel. It's not a microkernel. It's something entirely new - a minimal, deterministic layer that:
That's it. No userspace. No background processes. No arbitrary code execution.
The database isn't hosted on QuinineHM - it's integrated with it. They're fused at the lowest possible level, so the software can control how the hardware behaves, not just request resources from it.
Imagine having full control over physical memory, cache lines, and CPU cores - total ownership of where and how your code executes. You don't have to imagine anymore. That's exactly what QuinineHM enables.
Traditional Architecture (Linux/OS Model)
Dataware Architecture
QuinineHM
CPUs, timers, NIC driver, TCP/IP stack
β No layers between software and hardware
The key difference: no boundaries between software and hardware management.
Traditional systems are designed around the idea that multiple unrelated processes need to safely share hardware. That assumption drives everything: preemptive multitasking, virtual memory, kernel isolation, page faults, scheduler fairness, etc. But in a dedicated data system, none of that is necessary.
QuinineHM replaces that complexity with direct, cooperative control between the hardware and the application. Instead of requesting resources and communicating via an OS, the software can directly access and use hardware, however it likes.
Here's what that changes in practice:
Execution Model:
QuinineHM doesn't use preemptive multitasking. Each workload can run for as long as it needs, maintaining deterministic control, while urgent system tasks can temporarily interrupt when required. This model keeps predictability without starving the system - a balance between total control and minimal coordination.
Memory:
QuinineHM exposes physical memory directly. The application can manage allocation strategies at the hardware level - cache alignment, NUMA locality, and paging are fully deterministic. This not only improves locality and control but also reduces pressure on the page cache, leading to more stable and predictable performance under heavy workloads.
Networking:
The built-in TCP/IP stack is designed for throughput and low overhead, not generality. It avoids complex socket mechanisms and instead exposes a raw packet API directly to the software. Data handling is minimal-copy (not zero-copy yet), but huge improvements are coming in the next version of QuinineHM.
Security Model:
Because only one trusted workload runs, QuinineHM eliminates entire classes of vulnerabilities - privilege escalation, process injection, side-channel leaks. The attack surface collapses from millions of lines of kernel code to a fraction of that. Security is no longer software-bounded - it's hardware-bounded.
In other words, it transforms a general-purpose server into a platform where software can directly leverage the hardware to its full potential. Every CPU cycle, cache line, and memory page serves a single workload - yours.
Because performance and security are both consequences of complexity - and QuinineHM removes most of it.
With QuinineHM, our software runs on the metal, not above it. The result: a system that's faster, simpler, and safer.
Traditional operating systems treat every process as a potentially malicious one. That's why they're full of abstractions, safeguards, and limitations:
But for a new generation of data infrastructure, we know exactly what's running - we wrote it, and we trust it. That means we can safely remove all of that defensive machinery and unlock maximum performance and security.
Security improves because there's almost nothing left to exploit. Performance improves because there's nothing left in the way. It's not just a faster engine - it's an entirely new kind of vehicle.
And this is just the beginning. The Dataware ecosystem is designed to grow - we plan to expand this foundation to include NoSQL databases, Kafka-compatible pipelines, search engines, vector databases, graph databases, etc. All built on the same bare-metal architecture that powers everything we've shared today.
The Dataware Stack is what happens when you rebuild the entire database stack from the bottom up:
When you run TonicDB, you're not starting a process - you're booting an architecture.
TonicDB
In-memory database
Direct hardware control enabled by QuinineHM
QuinineHM
CPUs, timers, NIC driver, TCP/IP stack
Bare Metal Hardware
CPU, RAM, NIC - full exclusive control
β Tight coupling eliminates abstraction overhead
This tight coupling eliminates layers of indirection that traditional databases suffer under.
This is what we mean by bare-metal computing:
It's the difference between running on the highway and owning the highway.
This is our Alpha release. Performance is intentionally tuned down while we prioritize stability and feedback - but the architecture is real, live, and already outperforming traditional stacks by orders of magnitude in internal tests.
It's free to use while in alpha whitelist mode, and we want engineers, systems hackers, and database enthusiasts to play with it, stress it, and tell us what breaks.
For half a century, the operating system has been the unquestioned foundation of computing. We think it's time to ask what comes next.
QuinineHM isn't an incremental improvement. It's a new category: the first Hardware Manager - designed for a world where raw performance and uncompromising security aren't luxuries, but requirements.
We believe this marks the beginning of a new era of computing - where databases, servers, and distributed systems finally run at the speed of the hardware they live on.
Welcome to bare-metal computing.
Try Dataware Cloud and experience the future of databases with bare-metal speed, radical cost efficiency, and next-level security.