Energy Consumption Reduction
By dynamically adjusting lamp brightness to current demand, smart controllers can save up to 50% of energy compared to traditional lighting systems.
Controllers Smart Lighting Controllers
Smart Lighting Controllers
Efficiency and Savings
How do smart lighting controllers work?
They automate fixture operation, monitor energy usage, and enable remote control.
Benefits of implementing smart lighting controllers
Key implementation effects: energy savings, improved safety, and lower maintenance costs.
How do smart lighting
controllers work?
Smart lighting controllers are a key element of modern systems for managing luminaire operation and energy consumption in cities. They enable process automation, real-time monitoring, and energy optimization with per-luminaire precision.
By using controllers connected to a central management system, you can:
- monitor the behavior of all luminaires down to each individual fixture
- automate on/off switching and dimming level control
- supervise electricity consumption
- monitor alarms
- create flexible functional groups fully independent of power grid topology
Additional benefits are achieved by extending controller functionality with external sensors:
- detect pedestrian and vehicle movement,
- adjust lighting levels to weather conditions and traffic intensity,
- send data to the central management system.
Benefits of Implementing
smart lighting controllers
Improved Safety
Control systems adapt lighting to road conditions, ensuring better visibility and reducing accident risk.
Maintenance Cost Optimization
Real-time monitoring of fixture health enables faster fault detection and lower service costs.
SOLUTION
With a simple interface and intelligent real-time support, BIOT's Urban system
enables intuitive and efficient infrastructure management.
With a simple interface and intelligent real-time support, BIOT's Urban system
enables intuitive and efficient infrastructure management.
An ideal solution for municipalities, cities, and local communities.
Controller types and communication standards
Control protocols
DALI D4i
Digital, bidirectional communication enabling precise lamp control and monitoring.
0-10V
Analog light-level control system.
Communication technologies
RF Mesh
Each lamp is connected with others to form a reliable smart-lighting network. Very high security, high communication throughput, and unlimited transmission frequency enable a second autonomy layer (fog computing).
GSM
Controller-to-central-system communication without intermediate elements. Transmission uses licensed spectrum supervised by a telecom operator, ensuring the highest possible security level.
LoRaWAN
Low power consumption, long range, low data throughput, and significant limits on transmission frequency.
Modern iBLOC and eBLOC controllers
eBLOC controller
The eBLOC family of external controllers includes smart devices equipped with a
broad set of additional functions.
Key device capabilities:
Zhaga connector
Controller variant compatible with ZHAGA sockets compliant with Zhaga Book 18.
NEMA connector
Controller variant compatible with a NEMA 7-pin connector.
LTE-M or NB-IoT communication
Direct cloud communication using WAN networks.
Radio communication (Thread 2.4 GHz)
Reliable connection with the management platform, lower data transmission costs, and follow-me lighting support. Local mesh communication gives more flexibility in deployment.
Support for DALI, DALI2, and D4i drivers
Precise brightness control and bidirectional communication with luminaire drivers through modern digital interfaces.
Support for 1-10V drivers
Precise brightness control through an analog interface (NEMA variant only).
GPS module
Geolocation readout via GPS receiver, enabling automation of the device installation process.
Twilight sensor
Automatic light schedule management based on outdoor conditions.
Real-time clock
Awareness of current time and schedule execution regardless of MESH, LTE, or central server availability.
Electrical and temperature measurements
Real-time analysis and transmission of measured operating parameters.
Autonomous smart luminaire operation
By executing schedules stored in device memory, the luminaire continues to operate even without server communication.
iBLOC controller
iBLOC is an advanced lighting controller designed for installation inside luminaires, supporting:
DALI drivers
Precise brightness control.
1-10V drivers
Precise brightness control.
Radio communication (Thread 2.4 GHz)
Reliable connection with the management platform.
Real-time clock
Awareness of current time and schedule execution regardless of MESH, LTE, or central server availability.
Electrical and temperature measurements
Real-time analysis and transmission of measured operating parameters.
Autonomous smart luminaire operation
By executing schedules stored in device memory, the luminaire continues to operate even without server communication.
Integration with
BIOT Urban
iBLOC and eBLOC smart controllers work with the Urban system, enabling:
- central monitoring and lighting control across the entire city
- faster incident response
- energy consumption optimization
Is your city ready for smart lighting?
Investing in smart controllers is a key step toward city digitization, energy savings,
and better quality of life for residents. Lower CO2 emissions, safer streets, and lower
electricity bills are only some of the benefits.
Want to learn more? Explore BIOT system solutions and invest in your city's future.
Questions and answers
A controller (e.g., eBLOC Zhaga or Nema) is a small device installed in a lighting luminaire. It is the lamp "brain" - it executes commands from the system (e.g., "dim to 30%"), monitors its status (energy consumption, faults), and communicates with the Urban system.
If luminaires are new and have NEMA or Zhaga sockets, installation is very fast (plug-and-play). When modernizing older lamps, installation may require an electrician to work inside the luminaire, but often the entire luminaire does not need to be replaced.
Simply scan the QR code using the mobile app; the luminaire without control or the controller will be assigned to a location on the map, or according to previously prepared inventory. LTE controllers with a GPS receiver can appear on the map automatically.
Depending on the device manufacturer, it can be accurate to <1% (LUG controllers) for NEMA controllers that have a measurement transducer installed inside. The accuracy for ZHAGA controllers depends on LED drivers that provide this information to the controller according to the D4i standard.
It depends on the location and project requirements. The Thread (Mesh) variant is ideal for dense urban areas, does not require many SIM cards, and enables responsive lighting. The LTE variant requires a SIM card in each controller and works well as a complement to the mesh variant in locations where single points must be installed.
Some controller versions (e.g., LTE variant) have a built-in GPS module. This means that after installation the controller determines its position and automatically appears in the correct place on the map in the Urban system.