Agriculture & Environmental Monitoring

Siteplore for Agriculture & Environmental Monitoring

Understand Field Conditions Before They Become Operational Problems.

Siteplore connects soil, weather, water, environmental and other compatible field measurements into one monitoring environment — helping farms, aquaculture operations, environmental teams and distributed sites move from periodic observation to connected, historical and actionable data.

Connected Field Monitoring
Soil Growing Conditions Moisture • Temperature • EC • pH
Weather Microclimate Rain • Wind • RH • Temperature
Water Quality & Condition pH • DO • EC • ORP • Turbidity
Environment Site Conditions Ambient • Noise • Meteorology
RekaSense + Siteplore Sensor acquisition, remote connectivity, dashboards, trends and alerts
MEASURE Field Data
UNDERSTAND Trends
ACT Decisions
The Field Visibility Gap

Field conditions change continuously. Periodic inspection only shows a snapshot.

Agriculture, aquaculture and environmental operations depend on physical conditions that can change throughout the day. When monitoring relies only on manual inspection, standalone instruments or periodic laboratory data, important trends may remain invisible until the impact becomes operationally significant.

01

Manual Field Checks

Important parameters may depend on field rounds and manually recorded observations.

02

Changing Conditions Between Inspections

Soil, weather or water conditions can change significantly between measurement intervals.

03

Distributed Monitoring Locations

Farms, ponds, environmental stations and remote sites can be geographically dispersed.

04

Isolated Sensor Data

A local reading has limited value if the data cannot be trended or compared over time.

05

Water & Energy Used Without Context

Irrigation, pumping and aeration decisions may not be connected to actual field conditions.

06

Data Without Action

Collecting more environmental data has little value if it does not support a practical decision.

Monitoring Domains

One monitoring architecture across soil, weather, water and environmental conditions.

01

Agriculture & Soil

Monitor selected growing conditions across farms, greenhouse and cultivation areas.

Soil Moisture Temperature EC pH Salinity
02

Weather & Microclimate

Understand environmental conditions surrounding cultivation and field assets.

Rainfall Wind Temperature Humidity Pressure
03

Greenhouse & Controlled Environment

Build historical visibility of selected environmental conditions inside controlled spaces.

Temperature Humidity Light Growing Conditions
04

Water & Aquaculture

Monitor relevant water-quality parameters across ponds, tanks and water systems.

pH DO EC ORP Turbidity
05

Environmental Stations

Centralize selected environmental measurements across industrial or remote sites.

Weather Noise Ambient Data Multi-Site
06

Solar & Agri-Energy Context

Add solar radiation, weather and electrical information where relevant to field operations.

Irradiance Weather Energy Remote Power
Compatible Measurements

Start with the physical parameter that matters.

Sensor selection depends on the measurement objective, required accuracy, field environment, communication interface and maintenance requirements.

SOIL

Soil Parameters

Moisture, temperature, EC, pH, salinity and other relevant parameters.

WX

Weather

Rainfall, wind, temperature, humidity, pressure and weather context.

H₂O

Water Quality

pH, dissolved oxygen, conductivity, ORP, turbidity and temperature.

SOL

Solar Radiation

Irradiance and other relevant solar-environment measurements.

ENV

Ambient Environment

Site-specific ambient and environmental measurement requirements.

LVL

Level

Water level, tank level or other compatible field-level measurements.

FLOW

Flow & Irrigation

Monitor compatible water-flow and distribution measurements.

ELEC

Electrical & Energy

Add electrical context for pumps, aerators, irrigation or facility loads.

Parameters shown above indicate potential monitoring categories. Exact sensor compatibility and performance must be verified based on communication interface, measurement range, accuracy, installation conditions and environmental requirements.

Connected Field Architecture

From a physical condition to an operational decision.

01 — FIELD

Physical Condition

Soil, weather, water, environment or utility condition.

02 — SENSOR

Measurement

Compatible instruments capture the required parameter.

03 — EDGE

RekaSense

Collect and connect compatible field measurements.

04 — PLATFORM

Siteplore

Dashboards, trends, alerts and historical context.

05 — ACTION

Operational Decision

Irrigation, inspection, maintenance or environmental action.

Questions Better Data Can Help Answer

Good environmental monitoring should lead to better questions.

Is soil moisture falling faster than expected? Use historical trends to support irrigation timing and field inspection.
Did rainfall actually reduce irrigation demand? Compare weather and soil information within the same time-series context.
Is dissolved oxygen changing during specific hours? Identify recurring water-condition patterns in aquaculture operations.
Which pond or field area requires attention first? Use distributed monitoring to prioritize physical inspection.
Are pumps or aerators consuming energy when they should not? Combine field condition with electrical operating information where available.
Is an environmental deviation temporary or developing? Historical data can distinguish short events from persistent trends.
Siteplore Product Ecosystem

Connect the monitoring tools required by the application.

Primary Field Monitoring Layer

RekaSense

Connect compatible soil, weather, water and environmental sensors to the Siteplore platform.

Explore RekaSense →
Electrical & Energy Monitoring

PowerWatch

Add electrical and energy visibility for pumps, aerators, irrigation and other supporting systems.

Explore PowerWatch →
Rotating Equipment Monitoring

MachineGuard

Add condition monitoring to selected pumps, motors and rotating equipment where reliability visibility is required.

Explore MachineGuard →
Example Solution Combinations

Start with one field problem and connect the context around it.

Agriculture

Smart Irrigation Monitoring

Connect soil and weather measurements to support evidence-based irrigation decisions.

Soil Sensors
+ Weather Sensors
+ RekaSense + Siteplore
Aquaculture

Pond Condition Monitoring

Build continuous water-condition visibility across selected ponds.

Water Sensors
+ RekaSense
+ PowerWatch where applicable
Environmental

Remote Monitoring Station

Centralize distributed environmental measurements using remote connectivity.

Weather / Environmental Sensors
+ RekaSense
+ Siteplore Dashboard
Greenhouse

Controlled Environment Monitoring

Track relevant temperature, humidity and growing conditions over time.

Environmental Sensors
+ RekaSense
+ Trends & Alerts
Solar Agriculture

Agri-PV Monitoring

Combine solar, weather and field information where generation and agriculture share the same site.

Solar + Weather Sensors
+ RekaSense
+ PowerWatch
Water Infrastructure

Pump & Water Monitoring

Evaluate water condition together with pumping and energy information.

RekaSense
+ PowerWatch
+ MachineGuard where required
Environmental Data Foundation

Environmental reporting begins with reliable, traceable measurement data.

Siteplore can provide the connected data layer for selected environmental measurements, allowing historical information to be organized before it is used for reporting, analysis, operational review or further ESG-related workflows.

Data Continuity Build time-series records instead of isolated measurement snapshots.
Measurement Context Preserve location, parameter, timestamp and operational context.
Trend Analysis Identify long-term changes, seasonal behavior and recurring events.
Reporting Support Structure monitoring information for project-specific reporting workflows.
Analytics Foundation Prepare reliable historical data before advanced analytical methods are applied.
Operational Value

Better field decisions begin with better environmental context.

01

Remote Visibility

Reduce dependence on physical presence just to understand basic field conditions.

02

Historical Evidence

Understand how soil, weather or water conditions develop over time.

03

Earlier Awareness

Make selected environmental deviations visible before periodic inspection.

04

Better Prioritization

Focus field inspection on areas showing meaningful changes.

05

Operational Context

Compare environmental data with irrigation, energy or equipment information.

06

Scalable Monitoring

Start with a few measurement points and expand as the use case is validated.

Deployment Approach

Do not install sensors everywhere. Measure where the information changes a decision.

01

Define

Identify the field problem and desired decision.

02

Assess

Review site, environment, infrastructure and existing data.

03

Engineer

Select measurement, sensor and connectivity requirements.

04

Validate

Confirm measurement quality and monitoring usefulness.

05

Scale

Expand locations, parameters or analytics when justified.

Optional Environmental Analysis Support

Monitoring data can also become a foundation for deeper environmental analysis.

Optional Project Scope

Data Analysis & Research Collaboration

For selected environmental or ESG-related projects, Rekacipta can extend the monitoring scope toward structured data analysis and research-oriented work. Where appropriate and separately agreed, collaboration with Universitas Sultan Ageng Tirtayasa (Untirta) can support analytical development, study preparation or paper/journal-related activities.

Historical Data Preparation Organize monitoring data for structured analysis and interpretation.
Environmental Trend Analysis Evaluate long-term or recurring patterns within selected datasets.
Research-Oriented Analysis Develop project-specific analytical frameworks where appropriate.
Paper / Journal Development Support Optional academic collaboration when included in the agreed project scope.

Academic or research collaboration is an optional, project-specific service and is not automatically included in every Siteplore environmental deployment.

How to Start

Begin with the monitoring problem you already have.

Focused Validation

90-Day Paid Pilot

Validate one clearly defined field-monitoring use case using real operational data.

  • Focused sensor scope
  • RekaSense connectivity
  • Siteplore dashboard
  • Historical trend evaluation
  • Scale-up decision basis
Explore Paid Pilot
Connected Field Monitoring

RekaSense Deployment

For customers ready to connect compatible field sensors into a Siteplore monitoring architecture.

  • Sensor integration
  • Edge connectivity
  • Remote monitoring
  • Historical trends
  • Expandable deployment
Explore RekaSense
Frequently Asked Questions

Agriculture & Environmental Monitoring FAQ

Does Siteplore manufacture all of the environmental sensors?

No. Siteplore uses a vendor-neutral integration approach. Suitable sensors can be selected from different manufacturers according to the technical requirements of each project.

Can RekaSense connect existing sensors?

Potentially yes. Existing devices can be evaluated for communication interface, protocol, electrical requirements and available measurement data.

Can several sensors share one RekaSense gateway?

A multi-sensor configuration can be engineered where communication topology, addressing, polling interval and power requirements permit it.

Can Siteplore be used for hydroponics?

Yes, relevant parameters such as water temperature, pH, conductivity and environmental conditions can be considered depending on the project scope.

Can Siteplore be used for aquaculture?

Yes. Compatible sensors can be considered for parameters such as dissolved oxygen, pH, temperature, conductivity and other selected water-quality measurements.

Does Siteplore automatically control irrigation?

The core Siteplore positioning is monitoring, analytics and decision support. Automated control requires a separately engineered control architecture with appropriate fail-safe and operational logic.

Can Siteplore monitor environmental data for ESG purposes?

Siteplore can provide a connected historical data layer for selected environmental parameters. The suitability of those measurements for a specific ESG or compliance report depends on the applicable reporting requirements and measurement methodology.

Is environmental data automatically considered regulatory-compliant?

No. Regulatory or compliance monitoring can require specific instruments, methods, calibration procedures, traceability and reporting requirements. These should be reviewed for the relevant application.

Can Siteplore include research or academic analysis?

For selected projects, deeper environmental data analysis and research-oriented work can be defined as an additional scope. Collaboration with Untirta may also be considered where appropriate and separately agreed.

Does every environmental project use AI?

No. Reliable sensing, historical data and meaningful operational context come first. Advanced analytics or AI should only be introduced where sufficient data quality and a justified use case exist.

How should we start?

Begin with the field condition that matters most: soil moisture, water quality, weather, environmental conditions or another measurable parameter. Rekacipta can then evaluate the sensor, site, connectivity and Siteplore architecture required.

The field is always changing. Your monitoring should not depend on the next site visit.

Start with one agriculture, water or environmental condition that deserves better visibility. Rekacipta can help define the measurement, select the integration approach and connect the resulting field data into Siteplore.