Mining & compute infrastructure

Bitcoin mining.
AI compute.
One foundation.

We turn physical infrastructure into productive compute. ASIC mining, Bitcoin pool operations, GPU capacity and a home for your hardware.

Explore our infrastructure ↗Build with Astrosynx ↗

A working data-center aisle with mixed server cabinets and practical cabling

HASHRATE

Hardware colocation

Your equipment, our facilities ↗

Bitcoin is where it begins

More than machines.
A complete mining operation.

Bitcoin mining is a physical discipline. Efficient ASICs matter. So do electrical distribution, airflow, firmware, network paths and the people who maintain them.

BITCOIN / HASH ENGINE

Parallel search. One valid hash.

ASICs test candidate block headers against Bitcoin’s network target.

256

BIT HASH OUTPUT

Many nonce candidates.

One target condition.

PARALLEL CANDIDATES

TARGET TEST

SHA-256d

hash ≤ target

Valid candidate

0000 ··· 8f2c

Publish the block candidate.

HEADER + NONCE → DOUBLE SHA-256 → TARGET TEST

PROCESS ILLUSTRATION

Purpose-built for Bitcoin

Every watt.
Every airflow path.
Every machine.

We operate dedicated Bitcoin mining infrastructure around modern SHA-256 ASIC platforms. Equipment selection balances efficiency, serviceability and the power and cooling available at each site.

Antminer-class ASICsWhatsMiner-class ASICsAir & liquid cooling designs

Discuss a mining deployment ↗

ELECTRICAL

Power with a plan.

Load planning, metered distribution and protected circuits align the mining fleet with the site’s electrical envelope.

THERMAL

Move the heat.

Airflow separation, filtration and temperature monitoring keep cooling at the center of the facility design.

FLEET

Know every ASIC.

Track machine inventory, firmware, hashrate trends and hardware faults across the full operating lifecycle.

MAINTENANCE

Keep work moving.

Preventive service, spare parts and clear repair workflows turn machine-level faults into manageable events.

Bitcoin pool operations

Connect the fleet.
Coordinate the work.

Pool infrastructure connects independent mining workers to shared block-building work. We bring the network, systems and operational layers together.

MINING WORKFLOWWORKERS / POOL / NETWORK

BITCOIN / POOL ORCHESTRATION

Distributed work. One coordinated flow.

Jobs fan out to the fleet. Shares return for validation and accounting.

North

East

West

POOL

Coordinator

JOBS → FLEET

SHARES → POOL

₿

Bitcoin network

Only a network-valid

block is broadcast.

DISTRIBUTE JOBS → VALIDATE SHARES → BROADCAST BLOCKS

POOL OPERATIONS

A shared job. Independent workers.

The pool distributes mining jobs through worker connections. ASICs search for a result while their connection quality and work submissions are monitored.

Worker connectivity

Connection routing, worker identity and failover planning keep the pool accessible to distributed equipment.

Operational visibility

Share quality, connection events and hashrate trends help operators distinguish a machine issue from a network issue.

Pool infrastructure services

Deployment, monitoring and ongoing operation of dedicated pool infrastructure for mining teams.

Talk pool operations ↗

GPU infrastructure for artificial intelligence

Your models.
Our compute infrastructure.

Our experience with dense GPU systems extends into AI. We provide dedicated accelerator capacity and the physical environment needed to run demanding workloads.

High-density GPU compute server with accelerator modules and metal heat sinks

Built around the workload

From a single job
to a dedicated cluster.

GPU rental combines accelerator hardware, CPU and memory, fast local storage and network connectivity. Size the environment around the model, dataset and deployment pattern.

Accelerators: NVIDIA H100 / H200 class
Topology: Single-node & multi-GPU
Data layer: NVMe & shared storage
Access: Isolated project environments

Plan your GPU capacity ↗

AI COMPUTE / TRAINING

From batches to better weights.

Distributed GPU workers repeat a synchronized learning step.

TRAINING BATCH

Prepared data

Batched · shuffled · repeated

SYNCHRONIZE GRADIENTS

LEARNING PROGRESS

steps →

Checkpoint saved

FORWARD PASS → LOSS → BACKPROPAGATION → UPDATE

CONCEPTUAL TRAINING CURVE

Model training

Multi-GPU resources, dataset access and checkpoint storage for sustained training workloads.

AI COMPUTE / ADAPTATION

A capable model. A specific task.

Keep the base model fixed. Adapt selected weights, then evaluate.

FROZEN BASE

TRAINABLE ADAPTER

RESEARCH TRACK

Compare variants

Prompts · data · adapters

EVALUATION GATE

Quality before promotion

Reproducible runs. Versioned artifacts.

BASE MODEL + ADAPTER → CONTROLLED EXPERIMENTS → EVALUATION

ADAPTATION WORKFLOW

Fine-tuning & research

Dedicated environments for model adaptation, experiments and repeatable research workflows.

AI COMPUTE / SERVING

Requests in. Useful answers out.

Batch, schedule and serve models with isolated runtime capacity.

REQUESTS

BATCH

MODEL RUNTIME

STREAMED OUTPUT

The

token

arrives

QUEUE → SCHEDULE → EXECUTE → STREAM

SERVING PIPELINE

Inference

GPU-backed serving for deployed models, with capacity aligned to latency and concurrency needs.

Equipment colocation

Your hardware.
A place built to run it.

Place your ASICs, GPU servers and supporting equipment in our data-center environment. We provide the physical infrastructure and operational support around your machines.

Equipment handover at a data-center loading entrance: a delivery van, technicians and ASIC hardware

SITE PLANNING

Fit the equipment.

Assess power draw, heat output, form factor and connectivity before hardware reaches the facility.

INSTALLATION

Bring it online.

Receive, inventory, rack, connect and validate equipment against a documented commissioning plan.

REMOTE HANDS

Be there, remotely.

On-site assistance for inspection, cabling, component replacement and coordinated maintenance.

LIFECYCLE

Keep ownership clear.

Asset tracking, service records and planned upgrades support equipment throughout its stay.

From a small deployment to a dedicated hardware footprint.

Discuss equipment hosting ↗

Cybersecurity & facility protection

Protect the site.
Isolate the workload.

Physical security, network controls and operational procedures work together. Mining fleets, AI workloads and customer equipment each have their own access boundaries.

Physical protection

Access narrows
at every layer.

Site boundary: Controlled entry and recorded arrivals.
Equipment hall: Authorized access to protected facilities.
Cabinet: Scoped access and asset accountability.

SECURITY / PHYSICAL PERIMETER

Defense in depth.

Access narrows at every layer, from the site boundary to each cabinet.

Site boundary

Controlled entry

Equipment hall

Authorized access

Cabinet

Asset accountability

SITE PLAN

CONTROLLED HALL

ENTRY

CONTROL ACCESS → MONITOR ENVIRONMENT → RECORD CHANGES

LAYERED SITE CONTROLS

SECURITY / IDENTITY

Identity is the first boundary.

Verify the operator and device before granting a limited session.

OPERATOR

Signed identity

Device posture

Second factor

Session policy

VERIFY

Identity + device

AUTHORIZE

Least privilege

SCOPED ACCESS

Workload

Logged · time-limited

AUTHENTICATE → AUTHORIZE → LOG → EXPIRE

ACCESS CONTROL

ACCESS & IDENTITY

Cybersecurity

Verify the operator. Restrict the action.

Role-based permissions, MFA and hardened management access put an identity checkpoint between an operator and the infrastructure.

Identity checksAudited changes

Protected power, precision cooling and rack infrastructure.

POWER & THERMAL

Infrastructure safety

Keep the physical system in balance.

Power distribution, cooling paths and equipment sensors work as one operating system for the facility.

Thermal visibilityPower protection

SECURITY / CUSTOMER ISOLATION

Independent environments.

Separate access, networks and workloads across a shared physical fleet.

TRAINING

Dedicated workload

OWN ACCESS + NETWORK

INFERENCE

Serving workload

OWN ACCESS + NETWORK

RESEARCH

Experiment workload

OWN ACCESS + NETWORK

LOGICAL ISOLATION / EXPLICIT POLICY / SCOPED OBSERVABILITY

SHARED PHYSICAL PLATFORM

TRUST BOUNDARIES

Customer isolation

A clear boundary around every workload.

Independent access policies and network segments separate AI projects, mining systems and customer equipment.

Scoped credentialsSegmented networks

SECURITY / INCIDENT READINESS

From detection to control and restore.

A defined response moves an incident from signal to verified recovery.

Detect

Correlate the signal

SIGNAL

Contain

Limit the impact

CONTROL

Restore

Recover known state

RECOVERY

Verify

Confirm service health

EVIDENCE

SIGNAL → TRIAGE → CONTAINMENT → RESTORE → VERIFY

RESPONSE PLAYBOOK

CONTINUITY & RECOVERY

Incident readiness

A recovery path before you need one.

Validated snapshots, spare capacity and rehearsed procedures connect detection to a controlled return to operation.

Verified stateControlled restore

A hardware-first history

The workload changes.
The discipline stays.

Mining taught us how to run dense computing infrastructure. That experience now connects Bitcoin operations, AI compute and Proof of Stake validation.

Hardware evolution: an early compute board, GPU cards, an enterprise server and a modern accelerator module on one workbench.

2017

Bitcoin mining

Our starting point: machines, power, cooling and day-to-day operations.

2018

Ethereum & GPU mining

Growing into GPU infrastructure and large-scale equipment management.

2022

Ethereum validation

Following Ethereum’s transition from mining to Proof of Stake.

Today

Mining, AI & staking

Applying physical infrastructure expertise across different forms of compute.

Beyond mining / Proof of Stake

A different consensus.
The same operator mindset.

Proof of Stake networks use validators and staked assets to secure consensus. Validators propose and attest to blocks; they do not compete through mining hashrate.

Official ethereum.org Merge illustration, showing Ethereum as a spacecraft with its upgraded engine. — Artwork: ethereum.org ↗

UNTIL THE MERGEProof of WorkGPU mining · hashrate

15 SEPTEMBER 2022 →Proof of StakeValidators · staked ETH

Ethereum

We mined it.
Now we validate it.

Our Ethereum story began with GPU mining in 2018. The same experience in monitoring, hardware maintenance and reliable operations became the foundation for our next chapter.

When Ethereum moved to Proof of Stake on September 15, 2022, mining gave way to validation. Today, Astrosynx participates as an Ethereum validator, bringing that operational discipline to node performance, key security and network upgrades.

Our Ethereum validator ↗About The Merge ↗

Our Proof of Stake ecosystem