From sensor to insight






We build with ESP32 — the same hardware and protocols running smart factories, environmental monitoring, and industrial automation worldwide.
Here's what happens when you treat IoT like a weekend project.
“We’ll use a Raspberry Pi”
HoverTap to flipUntil your prototype works on a desk but can’t survive factory temperatures, power fluctuations, or 24/7 operation. A Pi is a dev tool — production needs industrial-grade hardware.
“Just connect it to WiFi”
HoverTap to flipUntil your sensors are in a metal enclosure, underground, or 200 meters from the nearest access point. Real IoT uses LoRa, Zigbee, cellular, or wired protocols — chosen by environment, not convenience.
“We’ll store everything in the cloud”
HoverTap to flipUntil your bandwidth bill exceeds the hardware cost and a network outage means zero visibility. Edge computing processes data locally and syncs when connected.
“Sensors are plug and play”
HoverTap to flipUntil you discover calibration drift, signal noise, and the fact that your temperature sensor reads 3°C too high near the motor. Sensor data needs validation, filtering, and context.
“We’ll build the dashboard later”
HoverTap to flipUntil your operators are staring at raw MQTT messages trying to figure out if 78.1°C is normal for pump #3. The dashboard IS the product for everyone who isn’t an engineer.
“One firmware, ship it”
HoverTap to flipUntil a bug in the field requires physically visiting 200 devices. OTA updates, rollback capability, and remote diagnostics aren’t optional — they’re how you survive deployment.
We're not against prototyping fast. But when you need production-grade reliability, remote management, and real-time intelligence, that's where we come in.
Hardware-aware engineering
ESP32 for cost-effective wireless sensing. Arduino for rapid prototyping and custom peripherals. Raspberry Pi for edge computing that needs a full Linux stack. Industrial PLCs when you need certified reliability. We don't have a favorite chip — we have a favorite question: what does the deployment site actually look like?
Sending every raw reading to the cloud is expensive and fragile. We build edge processing that filters noise, detects anomalies locally, and only sends what matters. When the network goes down, your system keeps logging. When it comes back, it syncs. No data gaps, no blind spots.
Edge-first architecture
Predictive, not reactive
We train ML models on your sensor data to detect patterns that precede failures. A bearing that's going to seize, a compressor that's losing efficiency, a coolant loop that's trending toward overheat — flagged hours or days before it becomes an incident. Predictive maintenance turns reactive firefighting into scheduled service.
Every sensor, every reading, every alert — visible in real time on a shared Grafana dashboard. You see what your system sees, not a summary report from last week.
Firmware updates deploy over the air with staged rollouts. 10% of devices first, then 50%, then all. Automatic rollback if error rates spike. No truck rolls for bug fixes.
ML models trained on your sensor data detect anomalies before they become failures. Get notified 48 hours before a bearing needs replacement, not after it seizes.
Wiring diagrams, protocol specs, firmware architecture, deployment runbooks. Your maintenance team can operate and extend the system independently.
Every device in the field registers itself, reports health status, and accepts firmware updates over the air. No manual provisioning, no spreadsheet of IP addresses.
When a sensor goes offline, the system knows immediately — and routes alerts based on severity, location, and impact. Critical failures page on-call. Intermittent drops log and auto-retry.
Your fleet of 5 devices or 500 is managed from one dashboard, one firmware pipeline, one source of truth.
MQTT streams sensor data in real time to your monitoring stack. Temperature, humidity, vibration, pressure, flow — whatever your environment measures, we capture, validate, and visualize it.
Threshold-based alerts catch the obvious. ML-based anomaly detection catches the subtle — the patterns that precede failures by hours or days.
Your operations team sees what's happening now AND what's likely to happen next.
We're looking for our first IoT case study. If you have a sensor network, monitoring system, or industrial automation challenge — let's build it together and showcase the results.
Start the ConversationTell us what you need to monitor, automate, or predict. We'll tell you how we'd build it — from sensor to dashboard.