Industrial parks
Generation and infrastructure planning for a park with varied tenants, shared services, and site-level energy needs.
INTEGRATED POWER · QUERÉTARO, MEXICO
Power that works
as one system.
Hybrid on-site generation, project development, and long-term operations for industrial energy needs.
SOLAR BIOGAS COGENERATION STORAGE
THE HYBRID SYSTEM
Designed around the site.
SYSTEM EXPLORER
Shape a hybrid supply
Select the technologies to see how a project can bring them together.
SOURCESCOORDINATIONFACILITY
TECHNOLOGIES
3 technologies selected · Conceptual illustration, not project output.
Solar
Cogeneration
Storage
Industrial
load
load
3 technologies selected · Concept view, not performance data.
INTEGRATED PROJECT DELIVERY
Boussenergy is a Mexican energy-project company founded in 2017, headquartered in Querétaro. It works in hybrid generation, project management, energy trading, and on-site power for industrial operations. Its stated project scope spans concept, technical and commercial development, execution, and operating support.
ONE INTEGRATED SCOPE
From first study to daily operation.
Energy projects involve more than generation equipment. Development, delivery, operation, and commercial planning need to work together across the life of an asset.
01
Project development
Shape the technical and commercial path from an energy need to an executable project.
View service 02Engineering, procurement & construction
Bring engineering decisions, equipment procurement, and site delivery into one coordinated plan.
View service 03Operations & maintenance
Support dependable plant operation and long-term asset performance.
View service 04Energy trading & supply
Connect generation strategy with the commercial needs of energy users.
View serviceWHERE PROJECTS OPERATE
Industrial needs differ by site.
Manufacturing facilities
Power planning around shift schedules, process loads, continuity requirements, and facility operations.
Distributed supply
On-site generation and storage options assessed alongside the grid and commercial supply arrangements.
TECHNOLOGY IS A DESIGN CHOICE
Build the right mix, not a default mix.
A site's operating requirements, resources, grid conditions, and commercial objectives shape the generation and storage options to consider.
Explore technology options01
Solar
Use available site area to generate power during daylight hours.
Output varies with sunlight, site conditions, and the load profile.
02
Cogeneration
Coordinate electrical generation with useful thermal requirements.
Fit depends on the facility’s heat demand, operating schedule, and fuel context.
03
Biogas & biomethane
Consider renewable gas pathways linked to suitable organic feedstocks.
Feedstock quality, processing, logistics, and pipeline access shape project feasibility.
04
Natural gas
Provide dispatchable generation as one potential part of a hybrid supply design.
Fuel availability, cost, emissions, and system role must be evaluated for each project.
05
Energy storage
Shift some generated energy toward periods when it is more useful.
The right option depends on duration, duty cycle, economics, and the application.
PROJECT REFERENCE / SALMA
Salma Power Plant
Coatzacoalcos, Veracruz · Design concept 2018
Boussenergy described the Salma concept as a hybrid power project for Coatzacoalcos, combining solar generation with natural-gas generation and underground storage in depleted salt caverns.
The example illustrates how resource availability, dispatchable generation, and storage can be considered together in a site-specific design. It is a historical project reference, not a statement about current operating status.
Read the interview sourceIllustrative generation profile
HOW PROJECTS TAKE SHAPE
Integration means connecting the decisions.
Understand demand
Map the site's operating needs, supply constraints, and available resources.
Shape a configuration
Compare generation and storage options against the technical and commercial context.
Deliver and operate
Coordinate project execution, commissioning, and long-term asset care.
ENERGY TRADING & TOKENIZATION
Blockchain for decentralized power systems.
Distributed ledger technology enables peer-to-peer energy trading, transparent renewable energy certificate markets, and programmable settlement for microgrid operations.
01
Peer-to-Peer Energy Trading
Blockchain protocols allow prosumers with on-site generation to sell excess power directly to neighboring consumers, bypassing traditional utility intermediaries.
Requires regulatory frameworks that permit direct energy sales and smart meter infrastructure capable of recording granular production and consumption data.
02
Tokenized Renewable Certificates
Renewable Energy Certificates (RECs) issued as blockchain tokens provide immutable proof of renewable generation, tradable across jurisdictions with transparent chain of custody.
Token standards must align with existing REC registries and compliance requirements. Market liquidity and regulatory recognition remain jurisdiction-dependent.
03
Microgrid Settlement Systems
Smart contracts automate energy settlement within microgrids, executing payments based on real-time generation, consumption, and pre-agreed pricing rules without manual reconciliation.
Depends on reliable oracle networks to feed verified meter data on-chain. System design must account for blockchain transaction costs and settlement latency.
04
Carbon Credit Tokenization
Blockchain-based carbon credits from verified emission reduction projects enable transparent tracking, fractional ownership, and efficient trading of environmental commodities.
Credibility requires third-party verification of underlying offset projects. Double-counting prevention mechanisms must bridge on-chain tokens with off-chain registries.
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