Provable, compliant timing for the world's most regulated markets — and the fastest trading networks.
< 50 ns
Card-to-UTC accuracy
100%
MiFID II headroom
Continuous
UTC traceability
Built for every corner of capital markets
Sector use case
A short walkthrough of how TimeBeat hardware is deployed across this sector — the architecture, the operational realities and the customer outcomes.
Inside the timing fabric that keeps regulated trading venues compliant and competitive.
Why
Every trade needs a timestamp. Every timestamp needs to trace back to UTC. And every regulator — ESMA, the SEC, FINRA, MAS — expects you to prove, continuously, that you're within spec. Miss the window and the fines start. Meanwhile, on the competitive side, every microsecond of precision is a measurable edge. Finance timing has to be tight, traceable, and automatic — forever.
ESMA requires HFT trades timestamped to 100 µs of UTC. Fail an audit and you face fines, suspension, and reputational damage that lasts years.
SEC Consolidated Audit Trail, FINRA, MAS, HKFSC and ASIC each require provable, traceable UTC synchronisation across the full trade lifecycle. One timing chain, many auditors.
HFT is a game of tails. Clean, low-jitter timing propagated directly into trading servers (not routed through a shared LAN switch) is the difference between edge and noise.
Timestamps get disputed. Regulators want continuous, auditable proof that your clocks were synchronised at the moment of the trade — not just a log entry claiming they were.
How
Requirements
Compliance & standards
Deployments
01
Open TimeCard slots directly into trading servers in the colo cage. Sub-50 ns timestamps without routing PTP across the shared venue LAN.
02
Open Time Appliance as the venue grandmaster — three units per 1RU for redundant A/B/C topology and Rubidium holdover through any GNSS event.
03
Continuous, auditable proof that every timestamp in your audit log traces back to UTC — automatic compliance reporting for regulators.
04
PTP² Mesh across data centres plus Open TimeCards in regional colos. One audit trail, every region, every timestamp.
What to use
The TimeBeat products we most often recommend for deployments like yours.
Software & solutions
Talk to us
Our engineers have deployed timing infrastructure in every one of these sectors. Tell us what you’re building and we’ll tell you exactly how to wire it — no generic decks, no wasted calls.
Further reading
Pillar guide
What a grandmaster actually does, how to choose one, and the three things that separate a grandmaster you can trust.
Pillar guide
The time-error budget, G.8275.1 architecture, and what it takes to operate a fronthaul timing fabric.
Interactive tool
Model the regulatory and operational cost of a GNSS disruption for your industry and oscillator class.
Library
Guides, blogs and case studies tagged to finance.
Why a single-grandmaster deployment is a DORA Article 11 problem, what A/B/C redundancy looks like in a single rack unit, and how the Open Time Appliance Shelf turns three independent Rubidium Black+ grandmasters — with independent GNSS antennas — into the default finance-venue topology for 2026 and beyond.
A speculative question, not a product pitch: imagine if every machine could hand anyone independently verifiable proof of what its clock was doing at any moment in history. Would it matter? Who would benefit, what might it cost us, and would the world actually be better for it? An exploration of the idea of cryptographic UTC attestation.
An engineering decision framework for picking oscillator tier on an Open Time Appliance. Drift maths that matter, real-world holdover scenarios, and where each tier is the right economic answer — not just the best spec sheet.
An engineering-level tour of the 167 telemetry fields the Timebeat Agent emits per cycle to Sync Insight. Nine measurement domains, why each one matters for operations or compliance, and how to pick the handful of fields your Grafana dashboard actually needs day-to-day.
How the Timebeat Agent fuses GNSS, upstream PTP feeds, PPS inputs and oscillator discipline into a single weighted clock output — the same BIPM-style ensemble approach used to produce UTC itself, applied at the site level.
How PTP² Mesh turns a fleet of Timebeat Agents into a self-discovering, self-healing time distribution network. mDNS and DHT peer discovery, seat-based capacity, active-active operation and millisecond failover — for when you need redundancy without the rigidity of classical BMCA hierarchies.
