Research Analyst

Academic Paper Alerts β€” New FHE Research Relevant to Zama's Roadmap

50+ papers scanned β†’ 3 relevant, weeklyResearch & Intelligence7 min read

Key Takeaway

AI agents monitor arXiv, IACR ePrint, and top crypto/ML conference proceedings for FHE research β€” curating 3 papers per week from 50+ published, with relevance scoring and deep-dive analysis on demand. Zama's R&D team stays current without drowning in papers.

The Problem

Fully Homomorphic Encryption is one of the fastest-moving fields in cryptography. Zama β€” PyratzLabs' portfolio company building TFHE infrastructure β€” needs to track every relevant advance. Not next month. This week.

The volume is the problem. Between arXiv's cs.CR and cs.CC sections, IACR ePrint, and conference proceedings from Crypto, Eurocrypt, CHES, and top ML venues, there are 50+ papers per week that might be relevant. Maybe 3 actually are.

A researcher reading abstracts for 50 papers takes about 4 hours per week. Reading the 3 that matter takes another 6 hours of deep engagement. That's 10 hours per week β€” half of which is wasted on papers that turned out to be irrelevant after reading the abstract.

Nobody at Zama has 10 hours per week to dedicate to literature monitoring. So papers get missed. A competitor publishes an optimization that improves TFHE bootstrapping by 3x, and the team doesn't see it until someone tweets about it a month later.

That's not a research culture. That's an information gap masquerading as a time problem.

The Solution

A two-layer system: a weekly monitoring agent that scans, filters, and summarizes new papers, plus an on-demand deep-dive agent that produces detailed analysis of specific papers when requested.

Built on Mr.Chief using the newsletter-monitor pattern adapted for academic sources, combined with deep-research for on-demand analysis.

The Process

yamlShow code
# fhe-paper-monitor.yaml
name: fhe-academic-watcher
schedule: "0 9 * * 1"  # Every Monday 9am UTC
skills:
  - deep-research
  - hacker-news-scraper  # for community discussion

sources:
  arxiv:
    categories: ["cs.CR", "cs.CC", "cs.LG", "cs.DS"]
    search_terms:
      primary:
        - "fully homomorphic encryption"
        - "TFHE"
        - "homomorphic encryption"
        - "FHE"
      secondary:
        - "lattice-based cryptography"
        - "bootstrapping" AND "encryption"
        - "privacy-preserving computation"
        - "encrypted machine learning"
        - "confidential computing"
    lookback_days: 7

  iacr_eprint:
    search_terms: ["FHE", "TFHE", "homomorphic", "bootstrapping"]
    lookback_days: 7

  conferences:
    track:
      - "Crypto 2026"
      - "Eurocrypt 2026"
      - "CHES 2026"
      - "IEEE S&P 2026"
      - "NeurIPS 2026"  # FHE+ML intersection
    check: "accepted papers list when available"

relevance_scoring:
  high:
    - "TFHE" in title or abstract
    - "bootstrapping" improvement with benchmarks
    - direct comparison to Zama's libraries (concrete, tfhe-rs)
    - "programmable bootstrapping" or "PBS"
  medium:
    - general FHE scheme improvements
    - FHE compiler or tooling papers
    - encrypted ML inference or training
    - lattice parameter optimization
  low:
    - theoretical FHE (no implementation/benchmarks)
    - tangentially related crypto papers
    - survey papers (unless comprehensive)

  filter: "Include HIGH and MEDIUM. Exclude LOW unless
           author is known FHE researcher."

output:
  weekly_digest: workspace/research/fhe-papers/weekly/
  format: |
    For each paper:
    - Title + authors + link
    - One-paragraph plain-English summary
    - Relevance to Zama's roadmap (specific connection)
    - Key result or claim
    - Methodology strength (peer-reviewed? benchmarked? reproducible?)
    - Recommended action: READ / SKIM / CITE / IGNORE

A typical weekly digest:

markdownShow code
## FHE Research Digest β€” Week of 2026-03-09
**Papers scanned:** 54
**Papers included:** 3 HIGH relevance, 2 MEDIUM

---

### HIGH RELEVANCE

**1. "Faster Bootstrapping for TFHE via Optimized NTT on GPU"**
Authors: Chen et al. (EPFL)
Link: arxiv.org/abs/2603.XXXXX
**Summary:** Achieves 2.8x speedup on TFHE bootstrapping by
implementing a GPU-optimized Number Theoretic Transform. Benchmarked
on NVIDIA A100, directly compared against tfhe-rs performance.
**Zama relevance:** DIRECT β€” this optimization could be integrated
into Zama's GPU backend. The NTT optimization is compatible with
Zama's existing architecture. Contact authors about collaboration.
**Key claim:** 12ms bootstrapping (vs 34ms baseline tfhe-rs)
**Methodology:** Strong β€” benchmarks reproduced, code available
**Action:** READ β€” forward to Zama's GPU team immediately

**2. "Programmable Bootstrapping Without Noise Growth: A New Approach"**
Authors: Ducas, StehlΓ© (CWI Amsterdam, ENS Lyon)
Link: iacr.org/eprint/2026/XXX
**Summary:** Proposes a modified PBS scheme that eliminates noise
accumulation during evaluation, theoretically enabling unlimited
circuit depth without bootstrapping refresh.
**Zama relevance:** CRITICAL β€” if the claims hold, this could
fundamentally change TFHE circuit design. Eliminates the key
performance bottleneck in deep FHE circuits.
**Key claim:** Unlimited depth PBS with O(1) noise growth
**Methodology:** Theoretical β€” no implementation yet. Needs
verification by Zama's crypto team.
**Action:** READ β€” schedule review session with Zama crypto team

**3. "TFHE-Based Private Inference for Transformer Models:
Practical Benchmarks"**
Authors: Park et al. (Seoul National University)
Link: arxiv.org/abs/2603.YYYYY
**Summary:** First practical benchmarks for running a 125M parameter
transformer model under TFHE encryption. End-to-end inference in
47 seconds on standard hardware.
**Zama relevance:** HIGH β€” validates the FHE+ML direction. Their
approach uses techniques similar to Zama's Concrete ML but with
different encoding strategies. Potential improvement path.
**Key claim:** 47-second encrypted inference (125M params)
**Methodology:** Good β€” code available, benchmarks reproducible
**Action:** READ β€” compare encoding strategy with Concrete ML

---

### MEDIUM RELEVANCE

**4. "A Survey of FHE Compiler Optimizations (2023-2026)"**
Survey paper covering recent compiler advances. Useful reference
but no new results.
**Action:** SKIM β€” save as reference

**5. "Lattice Parameter Selection for Multi-Key TFHE"**
Parameter optimization for MK-TFHE schemes. Relevant if Zama
expands to multi-key applications.
**Action:** SKIM β€” relevant for future roadmap items

When a paper warrants deep analysis, the on-demand dive:

bashShow code
mrchief deep-research \
  --query "Analyze arxiv.org/abs/2603.XXXXX β€” implications for
  Zama's TFHE performance benchmarks, integration feasibility
  with tfhe-rs, and comparison with existing GPU optimizations" \
  --depth deep \
  --output workspace/research/fhe-papers/deep-dives/chen-gpu-ntt.md

This produces a 10-15 page technical analysis with reproducibility assessment, integration recommendations, and specific code paths in Zama's codebase that would need modification.

The Results

MetricBefore (Manual)After (Agent)
Papers scanned per week10-15 (when someone had time)50+ (comprehensive)
Time spent filtering4+ hours/week0 (automated)
Relevant papers missedUnknown (the scary part)~0 (systematic coverage)
Time from publication to awarenessDays to weeksSame week
Deep dive turnaround1-2 days (researcher time)2-4 hours (on-demand)
Sources monitoredarXiv onlyarXiv + IACR + conferences + HN
Cost per week~$800 (researcher time)~$2.30 (API calls)
Papers forwarded with strategic contextRarelyAlways (relevance scoring)

The key metric: Zama's R&D team now reads 3-5 highly relevant papers per week instead of 0-2 partially relevant papers per month. The agent doesn't replace researchers β€” it eliminates the 80% of time they spent finding papers and lets them focus on understanding and applying the research.

Try It Yourself

Academic monitoring works for any research-intensive field. Adapt the source list and relevance scoring to your domain. The two-layer architecture (weekly scan + on-demand deep dive) scales well β€” you pay the deep-dive cost only when a paper deserves it.

Key configuration: your relevance scoring criteria. Be specific. "FHE papers" is too broad. "Papers that benchmark against tfhe-rs or propose improvements to programmable bootstrapping" catches what matters and filters what doesn't.

Start with arXiv + one domain-specific repository. Add conference tracking as you identify which venues publish relevant work.


Fifty papers published. Three that matter. Zero hours of human filtering. That's what research intelligence looks like when agents do the scanning and humans do the thinking.

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Academic Paper Alerts β€” New FHE Research Relevant to Zama's Roadmap β€” Mr.Chief