Clearwater, Florida · Hyderabad, India

Get quantum-ready — starting with security.

Quantum computing will change what is computationally possible — and it already changes how you must protect data. We help organisations separate hype from reality, explore promising use cases on cloud quantum hardware, and prepare their cryptography for the post-quantum era.

Quantum Computing

Overview

Today’s quantum computers are still early: useful commercial advantage is limited and most work is research and experimentation. But the security impact is immediate. Encrypted data captured today could be decrypted by a future quantum computer (“harvest now, decrypt later”), which is why NIST published its first post-quantum cryptography standards in 2024 and why governments are setting migration timelines.

Our quantum practice therefore works on two tracks: a pragmatic post-quantum cryptography (PQC) programme to inventory and upgrade your cryptography, and a quantum innovation track that builds skills and tests optimisation, simulation and machine-learning use cases on cloud quantum services — without buying any hardware.

Quantum Computing at Inspired Infotech
Quantum ComputingDelivered from USA & India
Capabilities

What you get with us.

Post-quantum cryptography

Crypto inventory, risk prioritisation and migration to NIST-standardised algorithms.

Crypto-agility

Architect systems so algorithms and keys can be swapped without re-engineering.

Quantum readiness assessment

Where quantum matters for your business, your data and your timeline.

Use-case discovery

Screen optimisation, simulation and ML problems for realistic quantum potential.

Cloud quantum experiments

Prototype on Amazon Braket, Azure Quantum and IBM Quantum — no hardware to buy.

Skills & education

Executive briefings and hands-on training for engineering and security teams.

Quantum Computing

Why act on PQC now

Long-lived sensitive data — health records, financial data, intellectual property, government information — is most at risk from “harvest now, decrypt later”. Cryptographic migrations take years, so starting the inventory early matters.

  • NIST FIPS 203 (ML-KEM) for key establishment
  • NIST FIPS 204 (ML-DSA) for digital signatures
  • NIST FIPS 205 (SLH-DSA) hash-based signatures
  • Hybrid classical + post-quantum TLS
  • Certificate, PKI and HSM roadmap
  • Vendor and third-party readiness checks
How we deliver

A clear path, phase by phase.

A proven, phased approach. Timings are typical and depend on your scope, data and systems.

01

Brief & educate

Executive and technical briefings that separate realistic timelines from hype.

1–2 weeks
02

Crypto inventory

Find where and how cryptography is used across applications, infrastructure and vendors.

4–8 weeks
03

PQC roadmap

Prioritise by data lifetime and risk; design crypto-agility and a phased migration.

2–4 weeks
04

Use-case lab

Screen and prototype optimisation, simulation or ML problems on cloud quantum services.

4–8 weeks
05

Pilot migration

Introduce hybrid post-quantum key exchange and signatures in selected systems.

Phased
Engagement models

Ways to work with us on Quantum Computing.

01

Quantum Readiness Assessment

Understand your exposure and opportunity.

  • Briefings for leadership
  • Quantum risk & opportunity map
  • Data-lifetime analysis
  • Recommended next steps
Discuss this
02

PQC Migration Programme

Protect long-lived data against future quantum attacks.

  • Cryptographic inventory
  • Crypto-agility architecture
  • Migration roadmap to NIST PQC standards
  • Pilot implementations
Discuss this
03

Quantum Use-Case Lab

Learn by building — on real quantum hardware via the cloud.

  • Problem screening
  • Prototypes on Braket / Azure Quantum / IBM Quantum
  • Classical baseline comparison
  • Honest findings report
Discuss this
Use cases

Where Quantum Computing delivers value.

Logistics optimisation

Routing and scheduling problems explored with quantum and quantum-inspired methods.

Portfolio optimisation

Research-stage optimisation experiments for finance teams.

Chemistry & materials

Molecular simulation research for life sciences and manufacturing.

Quantum machine learning

Exploratory hybrid quantum-classical ML experiments.

Data-in-transit protection

Hybrid post-quantum TLS for long-lived sensitive data.

PKI & signing

Roadmaps for post-quantum certificates, code signing and HSMs.

Technology

The stack we work with.

Vendor-neutral: we choose tools to fit your environment.

Cloud quantum services

Amazon BraketAzure QuantumIBM Quantum

SDKs

QiskitCirqPennyLaneAmazon Braket SDK

Post-quantum standards

FIPS 203 ML-KEMFIPS 204 ML-DSAFIPS 205 SLH-DSAHybrid TLS key exchange

Tooling

Open Quantum Safe (liboqs)OpenSSL 3 providersCrypto discovery toolsHSM vendor roadmaps
FAQ

Quantum Computing: common questions

Is quantum computing ready for business use?

Not broadly yet. Today’s machines are small and error-prone, so most business value now comes from building skills, running experiments and — most importantly — preparing cryptography for the post-quantum era.

What is post-quantum cryptography (PQC)?

PQC is new public-key cryptography designed to resist attacks by future quantum computers while running on today’s computers. NIST published its first PQC standards (FIPS 203, 204 and 205) in August 2024.

Why migrate to PQC before large quantum computers exist?

Attackers can store encrypted data today and decrypt it later (“harvest now, decrypt later”), and cryptographic migrations take years. NIST has also proposed deprecating current public-key algorithms such as RSA and ECC in the coming decade.

Do we need to buy quantum hardware?

No. Amazon Braket, Azure Quantum and IBM Quantum provide pay-as-you-go cloud access to quantum hardware and simulators for experimentation.

Ready to build what’s next?

Tell us about your project. Our consultants in Florida and Hyderabad will get back to you within one business day.

Start a conversation