이 페이지는 아직 선택하신 언어로 제공되지 않습니다. 검수를 거친 번역본을 준비하는 동안 영어 버전을 표시하고 있습니다.
개요
Not every decision can wait for a round trip to the cloud. Remote sites lose connectivity, high-frequency sensors produce more data than backhaul links can carry, and some responses must happen within milliseconds. Edge computing places the right processing where the data originates.
We design and build edge platforms that are as manageable as cloud infrastructure: containerized workloads, remote deployment and rollback, local buffering, and clear rules for what is filtered, aggregated or analyzed on site versus forwarded for central processing.
비즈니스 활용 분야
- 01
Local data reduction
Compute features, aggregates and exceptions from high-frequency signals such as vibration or power quality at the edge, forwarding meaningful summaries rather than saturating network links with raw samples.
- 02
Disconnected site operation
Keep local dashboards, alerting and data capture running at mines, vessels, rural facilities or construction sites during connectivity loss, then synchronize with central systems once links return.
- 03
Edge inference
Run anomaly detection or computer vision models on gateways or industrial PCs where latency, bandwidth or data sensitivity makes cloud inference impractical, with models managed and updated centrally.
- 04
Protocol bridging and site gateways
Consolidate OPC UA, Modbus and fieldbus traffic at a site gateway that publishes contextualized MQTT data, giving every site a consistent and secure interface to enterprise systems.
엔지니어링 접근 방식
- 01
Decide what belongs at the edge
We assess latency needs, data volumes, connectivity reliability and security constraints for each workload, keeping the edge footprint as small as the requirements allow.
- 02
Select hardware and runtime
Industrial PCs, ruggedized gateways or existing site servers are evaluated alongside runtimes such as AWS IoT Greengrass, Azure IoT Edge or lightweight Kubernetes distributions.
- 03
Package workloads for remote operation
Edge applications are containerized with health checks, resource limits and configuration managed as code, so every site runs a known and reproducible version.
- 04
Engineer store-and-forward sync
Local buffering, ordered replay and idempotent ingestion ensure no data is lost or duplicated during outages, and central systems handle late-arriving data correctly.
- 05
Operate the edge fleet
Remote monitoring, staged rollouts, automated rollback and brokered remote access let a small central team manage many sites without frequent on-site visits.
기술 및 플랫폼
Edge runtimes
- AWS IoT Greengrass
- Azure IoT Edge
- K3s
- Docker
- balena
Protocols and messaging
- MQTT
- Sparkplug B
- OPC UA
- Modbus TCP
- NATS
Local processing and inference
- Node-RED
- InfluxDB
- SQLite
- ONNX Runtime
- TensorFlow Lite
Fleet operations
- Ansible
- Flux
- Argo CD
- Prometheus
- Grafana
기술 명칭은 각 소유자의 상표이며, 파트너십이나 보증을 의미하지 않습니다.
제공 결과물
- Edge workload placement analysis and reference architecture
- Hardened gateway image and container runtime configuration
- Containerized edge applications with health checks
- Store-and-forward synchronization with replay testing
- Remote deployment, update and rollback pipeline
- Edge fleet monitoring dashboards and runbooks
리더들이 자주 묻는 질문
When is edge computing worth the added complexity?
When latency, bandwidth cost, connectivity reliability or data sensitivity genuinely require it. If a site has dependable connectivity and modest data volumes, sending data to the cloud is usually simpler. We make that assessment workload by workload rather than recommending edge infrastructure by default.
How do you keep many edge devices secure and up to date?
Edge nodes are treated as managed infrastructure: hardened images, signed artifacts, certificate-based identity, minimal open ports and no shared credentials. Updates roll out in stages with automated health checks and rollback, and remote access is brokered, logged and time-limited rather than permanently open.
Can edge systems run machine learning models?
Yes, within hardware limits. Many anomaly detection and classification models run comfortably on industrial PCs or gateways using ONNX Runtime or TensorFlow Lite. Training typically remains centralized, with models versioned, validated and pushed to the edge through the same pipeline as other workloads.