Lalita Devadas

dblp:250/2290 · DBLP profile ↗
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9ranked-venue papers
5as first author
9since 2021 · last 2026
—ORCID · conflict

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Security and privacy · 7 · 3 first-author · 7 since 2021Theory of computation · 4 · 4 first-author · 4 since 2021
YearPublicationVenuePosition
2026 Client-Server Homomorphic Secret Sharing in the CRS Model
Damiano Abram, Geoffroy Couteau, Lalita Devadas, Aditya Hegde 0003, Abhishek Jain 0002, Lawrence Roy, Sacha Servan-Schreiber
EUROCRYPT3
2026 SNARGs for NP and Non-signaling PCPs, Revisited
abstract
We revisit the question of whether it is possible to build succinct non-interactive arguments (SNARGs) for all of NP under standard assumptions using non-signaling probabilistically checkable proofs [Kalai-Raz-Rothblum, STOC’ 14]. In particular, we observe that using exponential-length PCPs appears to circumvent all of the existing barriers.
Lalita Devadas, Sam Hopkins 0001, Yael Tauman Kalai, Pravesh Kothari, Alex Lombardi, Surya Mathialagan
STOC1
2025 Succinct Witness Encryption for Batch Languages and Applications
Lalita Devadas, Abhishek Jain 0002, Brent Waters, David J. Wu 0001
ASIACRYPT (8)1
2025 Multi-Key Homomorphic Secret Sharing
Geoffroy Couteau, Lalita Devadas, Aditya Hegde 0003, Abhishek Jain 0002, Sacha Servan-Schreiber
EUROCRYPT (5)2
2025 Non-Interactive Distributed Point Functions
Elette Boyle, Lalita Devadas, Sacha Servan-Schreiber
PKC (1)2
2024 QuietOT: Lightweight Oblivious Transfer with a Public-Key Setup
Geoffroy Couteau, Lalita Devadas, Srini Devadas, Alexander Koch 0001, Sacha Servan-Schreiber
ASIACRYPT (2)2
2024 Batching Adaptively-Sound SNARGs for NP
Lalita Devadas, Brent Waters, David J. Wu 0001
TCC (2)1
2022 Rate-1 Non-Interactive Arguments for Batch-NP and Applications
abstract
We present a rate-1 construction of a publicly verifiable non-interactive argument system for batch-NP (also called a BARG), under the LWE assumption. Namely, a proof corresponding to a batch of k NP statements each with an m-bit witness, has size $m+poly(\lambda, log k)$.In contrast, prior work either relied on non-standard knowledge assumptions, or produced proofs of size m. poly $(\lambda, \log k)$ (Choudhuri, Jain, and Jin, STOC 2021, following Kalai, Paneth, and Yang 2019).We show how to use our rate-l BARG scheme to obtain the following results, all under the LWE assumption:•A multi-hop BARG scheme for NP.•A multi-hop aggregate signature scheme (in the standard model).•An incrementally verifiable computation (IVC) scheme for arbitrary T-time deterministic computations with proof size poly $(\lambda, log T)$.Prior to this work, multi-hop BARGs were only known under non-standard knowledge assumptions or in the random oracle model; aggregate signatures were only known under indistinguishability obfuscation (and RSA) or in the random oracle model; IVC schemes with proofs of size poly $(\lambda, T^{\epsilon})$ were known under a bilinear map assumption, and with proofs of size poly $(\lambda, log T)$ under non-standard knowledge assumptions or in the random oracle model.
Lalita Devadas, Rishab Goyal, Yael Tauman Kalai, Vinod Vaikuntanathan
FOCS1
2021 Succinct LWE Sampling, Random Polynomials, and Obfuscation
Lalita Devadas, Willy Quach, Vinod Vaikuntanathan, Hoeteck Wee, Daniel Wichs
TCC (2)1