C. Sidney Burrus

86 papers B 2C 2Misc 34Journal 34Unranked 14
YearRankTypeTitle / Venue / Authors
2019 conf
MWSCAS
Jasper Tan, C. Sidney Burrus
2012 J jnl
CoRR
Ricardo A. Vargas, C. Sidney Burrus
2012 J jnl
Proc. IEEE
C. Sidney Burrus
2008 J jnl
Proc. IEEE
Christopher M. Kelty, C. Sidney Burrus, Richard G. Baraniuk
2008 J jnl
Commun. ACM
Richard G. Baraniuk, C. Sidney Burrus
2007 J jnl
IEEE Signal Process. Mag.
Richard G. Baraniuk, C. Sidney Burrus, E. Joel Thierstein
2005 J jnl
IEEE Trans. Image Process.
Felix C. A. Fernandes, Rutger L. van Spaendonck, C. Sidney Burrus
2004 conf
ICASSP (2)
Ricardo von Borries, C. Sidney Burrus
2004 J jnl
IEEE Signal Process. Mag.
Richard G. Baraniuk, C. Sidney Burrus, Don H. Johnson, Douglas L. Jones
2003 J jnl
IEEE Trans. Signal Process.
Felix C. A. Fernandes, Rutger L. van Spaendonck, C. Sidney Burrus
2003 J jnl
Signal Process.
Felix C. A. Fernandes, Ivan W. Selesnick, Rutger L. van Spaendonck, C. Sidney Burrus
2003 J jnl
IEEE Signal Process. Mag.
Gary A. Sitton, C. Sidney Burrus, James Fox, Sven Treitel
2002 Misc conf
ICASSP
Richard G. Baraniuk, C. Sidney Burrus, B. M. Hendricks, G. L. Henry, Alfred O. Hero III, Don H. Johnson, Douglas L. Jones, Julius Kusuma, Robert D. Nowak, J. E. Odegard, Lee C. Potter, Kannan Ramchandran, R. J. Reedstrom, Philip Schniter, Ivan W. Selesnick, Douglas B. Williams, W. L. Wilson
2002 Misc conf
ICASSP
Felix C. A. Fernandes, Rutger L. van Spaendonck, C. Sidney Burrus
2001 conf
ICIP (1)
Rutger L. van Spaendonck, Felix C. A. Fernandes, C. Sidney Burrus
2001 Misc conf
ICASSP
Felix C. A. Fernandes, Rutger L. van Spaendonck, C. Sidney Burrus
2001 Misc conf
ICASSP
Ricardo von Borries, Ricardo L. de Queiroz, C. Sidney Burrus
2001 Misc conf
ICASSP
Ricardo A. Vargas, C. Sidney Burrus
2000 B conf
ICIP
Rutger L. van Spaendonck, Felix C. A. Fernandes, Mark Coates, C. Sidney Burrus
1999 Misc conf
ICASSP
Ricardo A. Vargas, C. Sidney Burrus
1999 Misc conf
ICASSP
Felix C. A. Fernandes, C. Sidney Burrus
1999 conf
PP
C. Sidney Burrus, Ivan W. Selesnick
1998 J jnl
IEEE Trans. Signal Process.
Ivan W. Selesnick, Markus Lang, C. Sidney Burrus
1998 J jnl
IEEE Trans. Image Process.
Dong Wei, Jun Tian, Raymond O. Wells Jr., C. Sidney Burrus
1998 Misc conf
ICASSP
James M. Lewis, C. Sidney Burrus
1998 J jnl
IEEE Trans. Signal Process.
C. Sidney Burrus, J. E. Odegard
1998 conf
EUSIPCO
C. Sidney Burrus
1998 J jnl
IEEE Trans. Signal Process.
Ivan W. Selesnick, C. Sidney Burrus
1998 J jnl
IEEE Trans. Signal Process.
Haitao Guo, Gary A. Sitton, C. Sidney Burrus
1998 Misc conf
ICASSP
C. Sidney Burrus, Jan E. Odegard
1997 conf
ICIP (1)
Haitao Guo, C. Sidney Burrus
1997 Misc conf
ICASSP
Haitao Guo, C. Sidney Burrus
1996 J jnl
IEEE Trans. Signal Process.
Ivan W. Selesnick, C. Sidney Burrus
1996 J jnl
IEEE Trans. Signal Process.
Ivan W. Selesnick, Markus Lang, C. Sidney Burrus
1996 J jnl
IEEE Trans. Signal Process.
Markus Lang, Ivan W. Selesnick, C. Sidney Burrus
1996 Misc conf
ICASSP
Haitao Guo, C. Sidney Burrus
1996 Misc conf
ICASSP
Jan E. Odegard, C. Sidney Burrus
1996 Misc conf
ICASSP
Ivan W. Selesnick, C. Sidney Burrus
1996 J jnl
IEEE Signal Process. Lett.
Markus Lang, Haitao Guo, J. E. Odegard, C. Sidney Burrus, Raymond O. Wells Jr.
1995 Misc conf
ICASSP
Ivan W. Selesnick, Markus Lang, C. Sidney Burrus
1995 J jnl
IEEE Trans. Signal Process.
Ramesh A. Gopinath, C. Sidney Burrus
1995 J jnl
IEEE Trans. Signal Process.
C. Sidney Burrus
1995 J jnl
IEEE Trans. Image Process.
Ramesh A. Gopinath, C. Sidney Burrus
1995 Misc conf
ICASSP
C. Sidney Burrus, Ivan W. Selesnick
1995 B conf
ICIP
Dong Wei, C. Sidney Burrus
1995 conf
ICIP (3)
Dong Wei, Jan E. Odegard, Haitao Guo, Markus Lang, C. Sidney Burrus
1994 C conf
ISCAS
Ivan W. Selesnick, C. Sidney Burrus
1994 conf
ICIP (1)
J. A. Barreto, C. Sidney Burrus
1994 J jnl
IEEE Trans. Signal Process.
C. Sidney Burrus, J. A. Barreto, Ivan W. Selesnick
1994 conf
ICASSP (3)
Jose Antonio Barreto, C. Sidney Burrus
1994 J jnl
IEEE Trans. Signal Process.
Ramesh A. Gopinath, C. Sidney Burrus
1994 conf
ICASSP (3)
Haitao Guo, Gary A. Sitton, C. Sidney Burrus
1994 conf
ICIP (1)
Haitao Guo, J. E. Odegard, Markus Lang, Ramesh A. Gopinath, Ivan W. Selesnick, C. Sidney Burrus
1993 C conf
ISCAS
Ramesh A. Gopinath, C. Sidney Burrus
1993 J jnl
IEEE Trans. Signal Process.
Henrik V. Sorensen, C. Sidney Burrus
1993 conf
ICASSP (3)
Ivan W. Selesnick, C. Sidney Burrus
1993 conf
ICASSP (1)
C. Sidney Burrus
1993 conf
ICASSP (3)
Ramesh A. Gopinath, C. Sidney Burrus
1993 J jnl
IEEE Trans. Signal Process.
Peter Steffen, Peter N. Heller, Ramesh A. Gopinath, C. Sidney Burrus
1992 J jnl
IEEE Trans. Signal Process.
C. Sidney Burrus, Admadji W. Soewito, Ramesh A. Gopinath
1992 Misc conf
ICASSP
J. E. Odegard, Ramesh A. Gopinath, C. Sidney Burrus
1992 Misc conf
ICASSP
C. Sidney Burrus
1992 Misc conf
ICASSP
Ramesh A. Gopinath, C. Sidney Burrus
1991 Misc conf
ICASSP
Ramdas Kumaresan, C. Sidney Burrus
1991 Misc conf
ICASSP
Ramesh A. Gopinath, Wayne M. Lawton, C. Sidney Burrus
1990 Misc conf
ICASSP
Henrik V. Sorensen, Charles A. Katz, C. Sidney Burrus
1990 Misc conf
ICASSP
Ramesh A. Gopinath, C. Sidney Burrus
1990 Misc conf
ICASSP
C. Sidney Burrus, Admadji W. Soewito, Ramesh A. Gopinath
1989 Misc conf
ICASSP
Panos E. Papamichalis, C. Sidney Burrus
1988 Misc conf
ICASSP
Henrik V. Sorensen, C. Sidney Burrus
1988 J jnl
IEEE Trans. Acoust. Speech Signal Process.
C. Sidney Burrus
1987 Misc conf
ICASSP
C. Sidney Burrus
1987 J jnl
IEEE Trans. Acoust. Speech Signal Process.
Henrik V. Sorensen, Douglas L. Jones, Michael T. Heideman, C. Sidney Burrus
1987 Misc conf
ICASSP
Henrik V. Sorensen, Douglas L. Jones, C. Sidney Burrus
1987 J jnl
IEEE Trans. Acoust. Speech Signal Process.
Henrik V. Sorensen, Douglas L. Jones, Michael T. Heideman, C. Sidney Burrus
1986 Misc conf
ICASSP
Zhenyu Li, Henrik V. Sorensen, C. Sidney Burrus
1986 J jnl
IEEE Trans. Acoust. Speech Signal Process.
Henrik V. Sorensen, Michael T. Heideman, C. Sidney Burrus
1986 J jnl
IEEE Trans. Acoust. Speech Signal Process.
Michael T. Heideman, C. Sidney Burrus
1985 Misc conf
ICASSP
Michael T. Heideman, C. Sidney Burrus
1985 J jnl
IEEE Trans. Acoust. Speech Signal Process.
Henrik V. Sorensen, Douglas L. Jones, C. Sidney Burrus, Michael T. Heideman
1985 J jnl
IEEE Trans. Acoust. Speech Signal Process.
Howard W. Johnson, C. Sidney Burrus
1984 Misc conf
ICASSP
Howard W. Johnson, C. Sidney Burrus
1984 Misc conf
ICASSP
Michael T. Heideman, C. Sidney Burrus, Howard W. Johnson
1983 Misc conf
ICASSP
Howard W. Johnson, C. Sidney Burrus
1982 Misc conf
ICASSP
Howard W. Johnson, C. Sidney Burrus
1981 Misc conf
ICASSP
C. Sidney Burrus
Docker-README.md
← Index Docker-README.md markdown
# REDB Docker Setup

This document describes the Docker containerization for the REDB malware analysis framework.

## Overview

REDB has been containerized as a single unified image that supports both feature extraction and decompilation analysis. The container is stateless, processes files from S3 or local mounts, and exports results to ClickHouse database or via API callbacks.

## Architecture

- **Single Unified Container**: One image handles both feature extraction and decompilation
- **Runtime Tool Installation**: Tools (CAPA, DIE, Binary Ninja) installed at runtime from host snapshots
- **Stateless Processing**: No persistent storage required between runs
- **Multiple Invocation Modes**: Supports `--nomad-job`, `--s3`, `--s3-solo`, and `--path` modes
- **External Dependencies**: Connects to external ClickHouse and S3 services

## Files Structure

```
├── Dockerfile                 # Single unified container definition
├── docker-build.sh            # Build script with Docker Desktop bug workaround
├── docker-push.sh             # Push script to registry
├── test-docker.sh             # Container testing script
├── test-nomad.sh              # Nomad job mode testing
├── .dockerignore              # Build context exclusions
└── scripts/
    └── setup-and-run.sh       # Runtime tool setup entrypoint
```

## Tool Installation Strategy

The container uses a **runtime installation** approach:

1. **Base Image**: Contains Python dependencies and REDB code
2. **Runtime Setup**: `scripts/setup-and-run.sh` configures tools at container start
3. **Host Snapshots**: Binary Ninja installed from `/opt/binaryninja` if available
4. **System Tools**: CAPA and DIE expected at `/usr/bin/capa` and `/usr/bin/nfdc`

## Build and Run

### 1. Build Container

```bash
# Build unified image
./docker-build.sh

# Manual build
docker build --platform linux/amd64 -f Dockerfile -t redb:latest .
```

### 2. Run Modes

#### Nomad Job Mode (Primary)
```bash
# Feature extraction
docker run --rm \
  -e JOB_ID="analysis_001" \
  -e S3_KEY="samples/malware.exe" \
  -e S3_BUCKET="malware-bucket" \
  -e WORKER_TYPE="feature_extraction" \
  -e CALLBACK_URL="https://api.example.com/callbacks" \
  -e ANALYSIS_MODULES="BasicPropertiesExtractor,PEFeaturesExtractor" \
  -e CLICKHOUSE_HOST="clickhouse.example.com" \
  -e S3_ENDPOINT="s3.example.com" \
  -e S3_ACCESS_KEY="your-key" \
  -e S3_SECRET_KEY="your-secret" \
  redb:latest python3 start.py --nomad-job

# Decompilation (same container, different flags)
docker run --rm \
  -e JOB_ID="analysis_002" \
  -e S3_KEY="samples/malware.exe" \
  -e S3_BUCKET="malware-bucket" \
  -e WORKER_TYPE="decompilation" \
  -e CALLBACK_URL="https://api.example.com/callbacks" \
  -e ANALYSIS_MODULES="all" \
  -v /opt/binaryninja:/opt/binaryninja:ro \
  redb:latest python3 start.py --nomad-job --decompile
```

#### S3 Solo Mode
```bash
# Process single sample by S3 key (standard sharded path)
docker run --rm \
  -e S3_BUCKET="samples-bucket" \
  -e CLICKHOUSE_HOST="clickhouse.example.com" \
  -e S3_ENDPOINT="s3.example.com" \
  -e INDEX_PREFIX="redb" \
  -e REPO="test-analysis" \
  redb:latest python3 start.py --s3-solo "09/f7/09f7d02a3c2382199458c98a62b045145ee54ab6aba86166aecf3d10c3c1444c.zip"

# Process private sample (with prepath)
docker run --rm \
  -e S3_BUCKET="samples-bucket" \
  -e CLICKHOUSE_HOST="clickhouse.example.com" \
  -e S3_ENDPOINT="s3.example.com" \
  -e INDEX_PREFIX="redb" \
  -e REPO="test-analysis" \
  redb:latest python3 start.py --s3-solo "private/ab/cd/abcd1234567890abcdef1234567890abcdef1234567890abcdef123456.zip"
```

#### Local Files Mode
```bash
# Mount local samples
docker run --rm \
  -v /path/to/samples:/samples:ro \
  -v ./logs:/app/logs \
  -e CLICKHOUSE_HOST="clickhouse.example.com" \
  redb:latest python3 start.py --path /samples --repo local_test --index_prefix redb
```

## Environment Variables

### Required for Nomad Job Mode
- `JOB_ID` - Unique job identifier
- `S3_KEY` - S3 object key for sample
- `S3_BUCKET` - S3 bucket name
- `WORKER_TYPE` - "feature_extraction" or "decompilation"
- `CALLBACK_URL` - API endpoint for results
- `ANALYSIS_MODULES` - Comma-separated extractor list or "all"

### Database Configuration
- `CLICKHOUSE_HOST` - ClickHouse server hostname
- `CLICKHOUSE_PORT` - Port (default: 8123)
- `CLICKHOUSE_USER` - Database user (default: default)
- `CLICKHOUSE_PASSWORD` - Database password
- `CLICKHOUSE_DATABASE` - Database name (default: default)

### S3 Configuration
- `S3_ENDPOINT` - S3 endpoint URL
- `S3_ACCESS_KEY` - S3 access key
- `S3_SECRET_KEY` - S3 secret key
- `S3_SECURE` - "true" or "false" for HTTPS

### Processing Configuration
- `INDEX_PREFIX` - Database table prefix (default: redb)
- `REPO` - Repository identifier for this analysis batch
- `BATCH_SIZE` - Processing batch size (default: 10)
- `REDB_TIMEOUT` - Analysis timeout in seconds (default: 300)

### Tool Timeouts
- `CAPA_TIMEOUT` - CAPA analysis timeout (default: 300)
- `DIE_TIMEOUT` - DIE analysis timeout (default: 180)
- `BINJA_TIMEOUT` - Binary Ninja timeout (default: 1200)
- `DECOMPILE_EXTRACTOR_TIMEOUT` - Decompilation timeout (default: 2580)

## Binary Ninja Setup

For decompilation capabilities, mount Binary Ninja from host:

```bash
# Mount Binary Ninja installation
-v /opt/binaryninja:/opt/binaryninja:ro

# Mount license file
-v /path/to/license.dat:/home/analyzer/.binaryninja/license.dat:ro
```

The container will automatically detect and configure Binary Ninja at runtime.

## Registry Deployment

### Push to Registry
```bash
# Tag and push
./docker-push.sh

# Or manually
docker tag redb:latest your-registry/redb:latest
docker push your-registry/redb:latest
```

### Pull and Run
```bash
docker pull your-registry/redb:latest
docker run your-registry/redb:latest python3 start.py --nomad-job
```

## Testing

### Container Functionality Test
```bash
# Test with S3 key (standard sharded path)
./test-docker.sh "09/f7/09f7d02a3c2382199458c98a62b045145ee54ab6aba86166aecf3d10c3c1444c.zip"

# Test with private sample S3 key
./test-docker.sh "private/ab/cd/abcd1234567890abcdef1234567890abcdef1234567890abcdef123456.zip"
```

### Nomad Job Architecture Test
```bash
# Test Nomad job mode
./test-nomad.sh
```

## Development

### Interactive Container
```bash
# Debug container interactively
docker run -it --entrypoint /bin/bash redb:latest

# Check tool availability
docker run --rm redb:latest which python3
docker run --rm redb:latest ls -la /usr/bin/capa
```

### Build Troubleshooting

The build script includes workarounds for Docker Desktop bugs:

```bash
# If build hangs at "exporting to image", press Ctrl+C
# The image will still be created and tagged automatically
./docker-build.sh
```

### Container Logs
```bash
# View logs from mounted directory
docker run -v ./logs:/app/logs redb:latest python3 start.py --path /samples
tail -f logs/*.txt
```

## Production Notes

### Resource Requirements
- **Memory**: 2-4GB recommended (8GB for decompilation)
- **CPU**: 2+ cores recommended
- **Disk**: Minimal (stateless container)
- **Network**: Access to ClickHouse and S3 services

### Security
- Container runs as non-root user `analyzer` (UID 1000)
- Sample files should be mounted read-only
- No persistent state between container runs
- Isolated processing environment for malware analysis

### Deployment Architecture

This container is designed for:
- **Nomad job dispatch**: Single-use containers processing one sample each
- **Kubernetes jobs**: Batch processing with external orchestration
- **CI/CD pipelines**: Automated analysis in build systems
- **Development**: Local testing and debugging

The unified container approach means the same image handles both feature extraction and decompilation - the difference is only in the command-line flags used when starting the container.