We work on two fronts. We turn the data the government already holds into hyper-local, crop-stage advice a farmer can act on today. And we help national systems move to post-quantum cryptography, before the records they protect outlive the encryption around them.
Based in DhakaPre-pilot scope 10 districts · 22,065 registered farmersCryptography work aligned to NIST FIPS 203 / 204 / 205
Film
Watch what we're building
A short introduction to the platform: where the data comes from, what the model does with it, and how the advice reaches a farmer holding a feature phone.
Hosted on YouTube. Playback starts only when you press play.
What we do
Two mandates, one method
Quantum methods are useful to Bangladesh in two very different ways today. One is an opportunity in the fields. The other is a deadline in the data centre. We work on both, and we are careful about the difference.
Opportunity
Climate-smart agricultural intelligence
A decision-support system that reads the farmer registry, BAMIS, BMD forecasts and open satellite data, and returns advice for one plot, one crop, one week — delivered by SMS, voice call and a Bangla app.
An inventory of where RSA and elliptic-curve keys live in a national system, a risk ranking by how long each record must stay secret, and a migration path to the finalised NIST standards.
60%Upper bound of the yield gap recorded across crops in Bangladesh.
1.74Tonnes per hectare — BRRI's estimated rice-specific yield gap.
39–56%Share of potential yield actually realised in rainfed and irrigated rice.
Farmers are not farming badly. They are farming without the hyper-local signal they need at the exact moments — sowing, irrigation, pest pressure — when a district-level forecast is not enough.
Sources: Bangladesh Rice Research Institute; peer-reviewed rice yield-gap modelling
Method
Quantum-inspired training. Classical deployment.
No quantum hardware is procured, and nothing a farmer depends on runs on a quantum machine. Quantum methods are used offline, during training, and only where they beat a strong classical baseline on the same data.
Search the combinations
Which mix of satellite bands, soil variables and weather features actually predicts irrigation need in a given upazila? We use QAOA-style feature selection and tensor-network simulation on GPU servers to explore a space that grows exponentially with each variable added.
Train a teacher, distil a student
Quantum kernel methods act as offline teacher models where field data is scarce. Their behaviour is distilled into a small classical student model — the one that actually ships. Every teacher is scored against a strong classical baseline, and we publish the comparison either way.
Deliver it in Bangla, to any phone
The student model runs on ordinary servers and pushes plain-language advice through the channels farmers already use: SMS, automated voice calls for feature phones, and an app for smartphone users. Delivery stays with trusted DAE field officers.
SMS
কাল বৃষ্টি হবে, সার দিও না
Rain tomorrow — hold the fertiliser
Voice call
১৫ দিন পর ফসল কাটবেন
Harvest in about 15 days
App
ক্ষেতে মাটি ভেজা থাকতে সার দিন
Apply fertiliser while the soil is still wet
On honesty about the method: quantum advantage for these workloads is not proven. The pre-pilot is designed to find out, with a classical fallback that is already an improvement on current practice. If the quantum-inspired path adds nothing, that result gets written down too.
Inputs
Built on data the country already has
Nothing here starts with a new national survey. The pre-pilot reads existing registries and open Earth observation, subject to data-sharing agreements with each custodian.