Operations + Engineering • Performance Improvement

Asset Optimization

Unlock More Capacity, Reliability, and Value from Existing Assets

HighTec Energy helps clients operate assets more efficiently, safely, reliably, and profitably across the full lifecycle. We combine hydraulic and process modeling, rotating-equipment expertise, controls, reliability, operations, and commercial insight to identify constraints, prioritize improvements, and reduce cost, risk, emissions, and downtime.

Asset Optimization

Find the real constraint before committing capital.

Performance is often limited by the interaction of several systems rather than one obvious piece of equipment. HighTec evaluates hydraulics, rotating equipment, process units, control logic, maintenance history, utilities, emissions, customer demand, and operating practices together to identify where targeted changes can create the greatest value.

Optimization should improve the system—not move the bottleneck. The best solution may be an operating change, control modification, reliability intervention, targeted revamp, or capital project supported by a clear economic case.

Typical Optimization Scope

01
Pipeline and gathering-system
hydraulic modeling

02
Compression rating, controls, and electrification studies

03
Reliability, predictive monitoring, and failure analysis

04
SCADA, VFD, pigging, and operating-strategy improvement

05
NGL recovery, stabilization, NRU, and process optimization

06
Vapor, flare, emissions, utility, and energy reduction

Core Capabilities

Performance improvement across transportation and processing assets.

HighTec can diagnose a specific recurring issue or develop a prioritized portfolio of operating, maintenance, controls, and capital improvements.

Hydraulics & Capacity Modeling
Model gathering, transmission, liquids, and facility networks to test bottlenecks, line pack, pressure limits, looping, compression, demand, nominations, outages, and expansion cases.
Compression & Electrification
Evaluate compressor and driver performance, station configuration, operating maps, control strategy, anti-surge behavior, fuel use, emissions, electric-drive options, and equipment re-rating.
Reliability & Predictive Monitoring
Use condition data, failure history, criticality, rotating-equipment monitoring, maintenance strategy, spares, and root-cause analysis to reduce nonproductive time.
SCADA, Controls &
Pigging
Improve instrumentation, alarms, control loops, VFD tuning, remote operation, pigging strategy, data visibility, and the operating response to changing demand.
Processing & NGL Optimization
Optimize separation, dehydration, treating, refrigeration, cryogenic recovery, fractionation, stabilization, compression, nitrogen rejection, and product handling.
Vapor, Flare & Energy Reduction
Evaluate vapor recovery, flare loading, tank and stabilizer losses, waste heat, utilities, emissions sources, fuel consumption, and practical reduction projects.
Optimization Workflow

From performance data to sustained operating improvement.

Each recommendation is tied to the baseline, constraint, implementation requirements, expected value, and the measures needed to confirm results.

01

Establish the Baseline

Collect operating, maintenance, capacity, energy, emissions, financial, customer, and equipment-performance data.

02

Model the System

Reconcile actual behavior and develop fit-for-purpose hydraulic, process, equipment, control, or reliability models.

03

Identify Constraints

Separate symptoms from root causes and test bottlenecks across equipment, networks, controls, practices, and market conditions.

04

Prioritize Opportunities

Compare operating changes, maintenance actions, controls, repairs, revamps, and capital options by value, risk, effort, and timing.

05

Implement the Change

Develop engineering procedures, controls, procurement, outage plans, field support, training, and change-management requirements.

06

Verify & Sustain

Track performance against the baseline, tune the solution, standardize practices, and maintain dashboards or predictive controls.

Asset Applications

Optimization for molecules in motion and molecules in process.

The engagement can focus on a single station or process unit, or evaluate an interconnected asset system and its customer commitments.

Gathering + Pipeline + Compression

Transportation & Compression Assets

For operators seeking more throughput, lower fuel or power cost, better pressure management, reduced downtime, and improved utilization of pipelines and stations.

  • Hydraulic capacity and demand simulation
  • Compressor rating, controls, and driver studies
  • SCADA, VFD, pigging, and operating strategy
  • Reliability, electrification, and emissions options
Gas Plant + NGL + Stabilization

Processing & Recovery Assets

For facilities pursuing higher recovery, better product control, lower energy use, reduced losses, improved reliability, or debottlenecked operation.

  • Plantwide process and bottleneck analysis
  • NGL recovery, fractionation, and NRU studies
  • Compression, stabilization, vapor, and flare review
  • Targeted FEED packages for prioritized improvements
Asset Outcomes

Create more value from infrastructure already in service.

Targeted improvements can increase output and reliability while reducing unnecessary capital, nonproductive time, and compliance exposure.

01
Improved ROIC

Prioritize changes that use existing infrastructure more effectively and direct capital toward the highest-value constraints.

02
Reduced Downtime

Address recurring failure modes, operating instability, maintenance gaps, and equipment-performance degradation.

03
Higher Utilization

Align capacity, controls, operating modes, and maintenance strategy with customer demand and production schedules.

04
Lower Risk & Emissions

Reduce energy waste, vapor and flare losses, operating excursions, compliance exposure, and avoidable safety risk.

Start the Conversation

Is an existing asset underperforming, constrained, unreliable, or more expensive to operate than expected?

HighTec Energy can establish the baseline, identify the true constraint, and develop a prioritized path from operating improvement to targeted engineering.