Integrated Applications

Renewable Energy Geophysics

It helps teams identify subsurface constraints early so design, scheduling, and construction planning can be more reliable and cost-aware.

Definition

What this method is

Renewable energy geophysics integrates suitable methods for solar, wind, substation, and corridor planning before civil and electrical works.

It helps teams identify subsurface constraints early so design, scheduling, and construction planning can be more reliable and cost-aware.

How It Works

From field measurement to interpreted model

  1. 1Project footprint, development stage, and key design decisions are reviewed during scoping.
  2. 2Methods such as ERI, seismic, MASW, soil resistivity, thermal resistivity, and selected GPR are planned by target objective.
  3. 3Integrated interpretation supports layout decisions, validation planning, and risk reduction for phased development.

When to Use

Best-fit conditions for this method

  • Solar and wind project feasibility, design, and pre-construction stages
  • Substation and cable corridor planning where subsurface uncertainty is high
  • Renewable projects requiring integrated geophysical decision support

What It Can Help Identify

Subsurface features and signals

  • Foundation-related ground constraints and variability
  • Cable corridor and access-road subsurface risks
  • Priority zones for validation and phased investigation

Deliverables

What you receive

  • Integrated renewable-energy geophysics report
  • Constraint and risk-priority map
  • Recommended follow-up validation and phasing plan

Typical Outputs

What the data looks like

  • Renewable site constraint map
  • Method interpretation sections
  • Priority validation plan

Applications

Common applications in the Philippines

Solar farm and wind farm site characterization

Substation and balance-of-plant risk screening

Electrical and civil layout planning for renewable projects

Method Limitations

What this method cannot do alone

  • Geophysical outputs are interpreted models and should be validated where design-critical.
  • Method selection and confidence depend on site access, target depth, and ground condition.

Geophysical results are interpreted models based on measured physical property contrasts. Results should be correlated with boreholes, test pits, drilling, geological mapping, laboratory data, or other direct investigation methods where required.

Related Services

Methods and applications that work together

FAQs

Frequently Asked Questions

Which methods are commonly used for renewable energy site investigations?

Common programs combine ERI, seismic refraction, MASW, soil resistivity, thermal resistivity, and selected GPR depending on project needs.

Can this service support both solar and wind projects?

Yes. The workflow is adapted to project type, terrain, foundation concept, and balance-of-plant requirements.

Does geophysics replace geotechnical drilling for renewable projects?

No. Geophysics reduces uncertainty and improves targeting, but drilling and direct investigation remain necessary for confirmation.

Get in touch

Scope renewable energy site investigation

Share project footprint and schedule so we can recommend a phased geophysical workflow.