Meter Duty Cycle
Define metrology, display, logging, communication, alarm and actuator states with frequency and duration.
IoT, Smart Devices & Communications
Custom Battery Solutions for Smart Metering Devices
Smart-meter batteries must support long deployment intervals, precise metrology, scheduled communication and exceptional events such as valve actuation, alarms or weak-signal retries. The solution must follow the complete meter architecture and service model.
APPLICATION POWER BEHAVIOUR
Long Calendar Life Must Coexist With Communication and Event Loads
A meter may sleep for long periods but still require stable power for measurement, display, communication, data retention, alarms or actuators. Self-consumption, event frequency, temperature and reserve must be evaluated over the intended deployment life.
FIRST ENGINEERING REVIEW
Define the Operating and Service Boundary
The first review uses host-device measurements and deployment conditions. Unverified product values are not converted into catalogue claims.
Deployment Life
Confirm service-life target, reserve policy, replacement access and storage before installation.
Communication Conditions
Define network, reporting schedule, transmit and retry behaviour, signal conditions and remote commands.
Meter Integration
Confirm voltage window, cutoff behaviour, connectors, enclosure, sealing, temperature and data-retention needs.
APPLICATION-SPECIFIC ENGINEERING
Calendar Life and Exceptional Events Set the Real Boundary
The design must protect long-term energy availability while supporting communication bursts and infrequent high-load events without disturbing measurement or stored data.
Lifetime Energy Budget
Model scheduled and exceptional events, self-consumption, ageing and reserve across the deployment period.
Event-Load Stability
Verify communication, alarm, display or valve events under temperature and end-of-life conditions.
Low-Power Coordination
Align cutoff, warning and data-retention behaviour with the meter electronics.
Deployment Validation
Test representative schedules, radio conditions, environmental exposure and enclosure integration.
PROJECT-SPECIFIC PARAMETERS
Parameters Remain Open Until the Device Is Confirmed
No verified reference model has been assigned to this page. The fields below remain / until the host equipment and project data are confirmed. Voltage, capacity, current, charging, protection, communication and mechanical interfaces can be customized according to the customer’s equipment requirements. Final specifications are subject to the approved project definition.
Project parameterHow it is defined
Nominal Voltage/
Capacity/
Energy/
Charge Voltage/
Maximum Charge Current/
Maximum Continuous Discharge Current/
Peak Discharge Current/
Discharge Cut-off Voltage/
VALIDATION & PRODUCTION READINESS
Verify Normal Reporting and the Rare Events That Matter
Validation is defined around the final host equipment, operating states, interfaces and field conditions. Production values are released only after device-level approval.
Lifetime Model Review
Confirm every scheduled state, exceptional event and reserve assumption.
Communication & Actuator Tests
Verify transmit retries, alarms, display or valve loads where applicable.
Data & Low-Voltage Behaviour
Confirm data retention, warning, cutoff and recovery.
Production Control
Release approved limits, wiring, inspection criteria and traceability.
FROM DEVICE DATA TO PRODUCTION
Convert the Real Operating Profile Into a Controlled Battery Definition
Stellova connects requirements analysis, prototype definition, host-device verification, applicable compliance planning and production controls in one project workflow.
Review the Engineering Process ↗DISCUSS YOUR SMART METER BATTERY PROJECT
Bring the Real Device and Deployment Requirements
Share the meter type, deployment-life target, measurement and reporting schedule, network, exceptional loads, voltage window, environment, enclosure and service strategy.
Discuss Your Smart Meter Battery Project ↗