Advanced Plant Sensing for a Sustainable Future

Growvera's impedance-based sensing technology provides real-time monitoring of dead fuel moisture content in wildfire-prone areas. Fuel moisture data helps utility companies make informed decisions about Public Safety Power Shutoffs (PSPS), balancing fire prevention with service continuity.

Our sensors can be deployed in high-risk regions, delivering continuous data on vegetation dryness and potential fire risk to help utility companies implement more targeted, data-driven approaches to power shutoffs.

Growvera has successfully deployed over 1,000 wireless sensors across industrial plant drying operations. Our comprehensive solution provides real-time moisture content monitoring throughout the drying process, ensuring optimal quality and efficiency.

This full-service solution includes hardware deployment, software integration, data analytics, and ongoing support. Clients benefit from increased consistency, reduced energy costs, and improved product quality through data-driven drying process optimization.

Growvera's season-long data collection project provides unprecedented insight into how different watering schedules affect plant-water status throughout the growing season in vineyards. This research is critical for optimizing wine grape quality while conserving water resources.

By continuously monitoring plant water status with non-invasive sensors, vineyard managers can implement precise deficit irrigation strategies that stress the vines at optimal times to enhance grape quality while minimizing water usage. This data-driven approach leads to better wine quality and more sustainable water management practices.

Growvera is collaborating with forestry researchers to develop optimal protocols for hardening saplings prior to reforestation deployment. Our sensing technology monitors plant water status throughout the hardening process, ensuring saplings develop resilience to environmental stressors.

Carefully monitoring and gradually adjusting water availability helps produce saplings with enhanced drought tolerance and higher survival rates when planted in the field. This research contributes to more successful reforestation projects and increased carbon sequestration.