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Congrats to Rohan on NASA's Beyond the Algorithm Challenge.
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title: "Congratulations to Rohan Timmaraju & the NEO-FLOOD Team"
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layout: post
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excerpt: >
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Congratulations to Rohan Timmaraju and the NEO-FLOOD team for their success in
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NASA's Beyond the Algorithm Challenge. This win highlights the strength of
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cross‑disciplinary thinking, where foundational research technologies enable
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solutions to high‑stakes problems.
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sitemap: false
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author: Vassil Vassilev
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permalink: blogs/rohan-timmaraju-neo-flood-nasa/
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banner_image: /images/blog/nasa-beyond-algo.png
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date: 2025-10-08
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tags: [
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nasa,
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neo-flood,
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rohan-timmaraju,
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compiler-research,
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neuromorphic-computing,
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satellite-ai,
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earth-observation,
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flood-prediction,
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research-award,
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space-technology
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]
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---
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## Congratulations to Rohan Timmaraju & the NEO-FLOOD Team
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We’re thrilled to congratulate Rohan Timmaraju and his collaborators on their
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outstanding achievement in the Beyond the Algorithm Challenge with the NEO‑FLOOD
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project. This win highlights the strength of cross‑disciplinary thinking, where
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foundational research technologies enable solutions to high‑stakes problems.
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The NASA Earth Science Technology Office seeks solutions to complex Earth
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Science problems using transformative or unconventional computing technologies
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such as quantum computing, quantum machine learning, neuromorphic computing, or
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in-memory computing. The NEO-FLOOD team developed a novel, brain-inspired
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algorithm to detect floods in real-time on power-constrained neuromorphic
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hardware suitable for deployment in space.
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## Problem Space
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Floods cause *$100B+* in annual damages globally, yet critical response decisions
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are often delayed by 6–72 hours due to ground-based satellite processing
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bottlenecks. This “intelligence gap” makes high-quality Earth observation data
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operationally useless during the crucial “Golden Hour” — when rapid intervention
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can save lives. The NEO-FLOOD (Neuromorphic Earth Observation for Flood-mapping)
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approach directly addresses this challenge:
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- **The problem:** Traditional satellites act as passive data collectors, sending
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raw data to Earth for processing, creating dangerous delays.
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- **The innovation:** A spiking neural network, Spike2Former-Flood, optimized
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for real-time optical and SAR data directly on-satellite.
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- **The hardware:** Space-validated neuromorphic processors (BrainChip Akida,
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Intel Loihi 2) running at only 2–5W.
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- **The impact:** Closes the intelligence gap from hours to minutes,
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transforming satellites into autonomous decision-support systems. This
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order-of-magnitude latency improvement could enable immediate flood response
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coordination for emergency agencies, insurers, and humanitarian organizations.
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## A Compiler Researcher’s Role
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Rohan’s expertise in compilers and systems research provided key foundations for
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NEO-FLOOD’s success. Reconciling a novel AI paradigm and real-time systems
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required compiler-level thinking to:
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- Optimize for the edge: optimize the model for performance and energy
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efficiency on heavily constrained space hardware.
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- Ensure Robustness: enable streamlined, reliable pipelines for sensor fusion
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and onboard processing.
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- Map to Novel Hardware: develop strategies for mapping a complex neural
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network onto heterogeneous neuromorphic hardware.
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This achievement demonstrates that advances in compilers and systems research
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can directly influence solutions to pressing global problems, and bridge the gap
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between research infrastructure and mission-critical practice.
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<img src="/images/blog/rohan_interview.png" alt="Rohan Timmaraju interview photo"
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style="float: left; margin: 0 1em 1em 0; width: 35%; border-radius: 8px;">
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Rohan's achievement with NEO-FLOOD is a testament to how foundational compiler
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and systems research can directly impact global resilience challenges.
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We couldn’t be prouder to see him bridging disciplines — from compiler
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technologies to neuromorphic AI in orbit. "Early on, we spent a lot of time
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trying to fit our flood analysis models onto the neuromorphic hardware. But the
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real breakthrough came when we stepped back and re-examined the core problem,"
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shares Rohan. "We realized the critical bottleneck wasn’t computational power,
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it was latency. The goal isn’t just to process data faster; it’s to eliminate
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the round-trip to Earth entirely. That insight shifted our focus from simply
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optimizing an algorithm to redesigning the entire decision-making workflow
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around the hardware's native strengths: low power and real-time processing
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directly in orbit."
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[Project gallery (NEO‑FLOOD)](https://www.nasa-beyond-challenge.org/project-gallery/neo-flood)
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[Rohan (Compiler Research profile)](https://compiler-research.org/team/RohanTimmaraju)

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images/blog/rohan_interview.png

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