01
30%lower utility costs for common areas
Residential complex: common-area management
Lighting, ventilation, and heating followed fixed schedules regardless of occupancy and weather.
Explore scenario ↗Industrial IoT · Building OS
Infrastructure
management platform
One operational layer for buildings and distributed facilities — from field devices to analytics, automated scenarios, and team actions.
- One platform for devices, systems, and data sources
- Real-time events, scenarios, and response logic
- Scale from one building to distributed sites
5000+connected devices
10+years of engineering practice
24/7operational visibility
Platform Architecture
AZIOT
Field Layer
Sensors · Controllers · Meters
Connectivity
MQTT · Modbus · BACnet · API
Data & Events
Collection · Processing · Analytics
Platform Logic
Rules · Scenarios · Automation
Control Interfaces
Dashboards · Alerts · Operator Tools
Works with your infrastructure
MQTTModbusBACnetONVIFREST APIVendor-independent
Context
IoT starts with devices. Value emerges through system management.
Sensors, controllers, meters, and local systems remain fragmented without one interaction model. They generate data but do not create coherent control.
AZIOT turns isolated nodes into an operational system for a building, facility, or distributed network.
40%of EU energy consumption comes from buildingsEuropean Commission
up to 30%of energy in commercial buildings is wasted by inefficient operationENERGY STAR
~80%of a building’s lifetime cost is operation, not constructionLifecycle studies
Solution
One platform instead of fragmented IoT tools
AZIOT unifies devices, communications, data, rules, and control interfaces into one manageable architecture.
Explore the architecture →Interactive Model
How AZIOT unifies engineering subsystems
Toggle groups directly or use the arrows to step through the model.
Active nodes in the model: 15 / 15
Level 3
Temperature / CO₂ Sensor
Zigbee
Lighting circuit
DALI
HVAC
Modbus
IP Camera
ONVIF
Leak Sensor
Modbus
Level 2
Media Hub
HDMI CEC
Temperature / Humidity
Zigbee
Access Control
Wiegand
Energy Meter
Modbus
Lighting
KNX
Level 1
Turnstile
2N
Video Intercom
SIP
Electric Power
Modbus
Water Supply
M-Bus
Fire Alarm
RS-485
Climate
Integrated into the shared monitoring, automation, and response model.
Security
Integrated into the shared monitoring, automation, and response model.
Energy
Integrated into the shared monitoring, automation, and response model.
Media
Integrated into the shared monitoring, automation, and response model.
One AZIOT platform · 15 nodes · 4 subsystems · 1 control model
Modelled outcomes
From an operational problem to a measurable target
Typical scenarios with an explicit problem, solution architecture, and realistic KPI target.
02
22%less energy used for apartment climate
Apartment: climate without overheating or manual tuning
Underfloor heating, air conditioning, and radiators competed with each other, requiring constant manual adjustments.
Explore scenario ↗03
24%energy savings across HVAC and lighting
Shopping mall: engineering systems driven by actual footfall
HVAC and lighting ran at the same output during peak and off-peak hours while operators used separate interfaces.
Explore scenario ↗Knowledge journal
IoT decisions with engineering context
Architecture, operational scenarios, protocols, and lessons connected to the AZIOT knowledge base.
MQTT reliability in IIoT: Choosing the right QoS
For IIoT architects and operations engineers, selecting the optimal MQTT 5.0 Quality of Service (QoS) level and complementary architectural patterns is key to guaranteeing critical telemetry data delivery in unstable network environments.
7 min
Read article →
IoT sensor drift detection: Architectures for accuracy
Sensor drift can lead to critical errors in industrial operations. This article explores architectural approaches for its detection, balancing reliability, cost, and implementation complexity.
8 min
Read article →
IIoT security: Firmware integrity from boot-up to execution
Ensuring the firmware integrity of IIoT devices is fundamental to protecting industrial systems from cyberattacks. Implementing a trust architecture that encompasses hardware roots of trust, secure and measured boot, and remote attestation guarantees the authenticity and immutability of device software throughout its operational lifecycle.
7 min
Read article →
How we start
Three steps from audit to a managed network
No big-bang replacement: each step has a defined result before the next one begins.
Architecture session
We map your systems, critical events, operator roles, and integration constraints
Pilot on one site
We launch on real tasks, with the KPI and baseline fixed before the start
Scale-out
We replicate scenarios and connect new sites to one shared control model