Pump Skids with High-Pressure Plunger Pumps

A pump skid is a pre-assembled high-pressure unit in which the pump, drive, and system components are integrated on a common base frame. It delivers a defined pressure and flow profile as a fully engineered system.

Unlike a standalone pump, system integration is completed and factory-tested prior to delivery. Compared to a complete pump station, a pump skid forms the compact high-pressure core. Additional components such as tanks, filtration units, or extended piping systems can be integrated project-specifically or connected on-site depending on the application – for example in jetting systems.

System design is based on operating pressure, flow rate, pumped medium, and load profile. The result is a clearly defined high-pressure solution with reduced interfaces and clear system responsibility.

A pump skid is suitable wherever high-pressure systems must operate reliably, be integrated quickly, and provide clearly defined system responsibility. In pressure ranges up to 4,000 bar, requirements for piping design, pulsation control, and safety systems increase significantly.

A high-pressure pump skid is recommended for:

• high or strongly fluctuating pressure levels
• defined continuous-duty flow rates
• sensitive processes requiring stable pressure conditions
• increased on-site integration effort
• mobile or containerized pumping solutions

From an economic perspective, a pump skid reduces coordination between multiple trades. Instead of engineering pump, drive, piping, and controls separately, the system is delivered as a tested functional unit. This shortens installation time, reduces project risk, and simplifies commissioning and documentation.

A high-pressure pump skid is designed as an integrated functional unit. All components are hydraulically, mechanically, and electrically coordinated and engineered to project requirements.

• High-pressure plunger pump: At the core is a crankshaft-driven plunger pump in triplex or quintuplex configuration. This design is suited for continuous industrial operation under high mechanical loads, delivering defined pressure levels with stable volumetric efficiency and repeatable power output.

• Drive system: Electric motors or diesel engines are used depending on application requirements. Dimensioning is based on pressure, flow rate, torque curve, and operating environment to ensure constant power transmission across the full load profile.

• Pulsation control: Plunger pumps inherently generate pressure pulsations. Project-specific pulsation dampeners reduce pressure peaks and protect piping, valves, and process components.

• Safety systems: Pressure relief devices, bypass systems, and other safety-relevant components are dimensioned according to pressure level and pumped medium. Design accounts for load changes and potential fault conditions.

• Instrumentation and monitoring: Pressure, temperature, and flow sensors enable continuous system monitoring. Integration into existing control systems is possible, as is a standalone control solution.

• Frame structure and integration: The base frame provides load support, vibration control, and transport functionality. Depending on project requirements, horizontal or vertical configurations are available. Clearly defined interfaces for media, power supply, and controls ensure controlled integration into the overall plant system.

Configuration is defined by available footprint, structural requirements, and service accessibility. Mechanical integration plays a central role alongside hydraulic design.

Horizontal configurations are widely used in conventional industrial plants and offer advantages in maintenance access and vibration management. Vertical designs reduce required floor space and enable alternative installation concepts but require precise structural and service planning.

A selection is made project-specifically based on pressure requirements, drive power, space constraints, and integration conditions.

A high-pressure pump skid is not a standard product but a project-engineered system unit. Operational safety depends on precise component dimensioning and coordinated integration into the overall plant.

• Standards and compliance: Depending on industry and specification, applicable standards such as API 674 / ISO 13710 for oil and gas or process applications, and ATEX for hazardous areas, are considered.
• Factory Acceptance Testing (FAT): A Factory Acceptance Test can be conducted prior to delivery. Pressure behavior, leak tightness, and safety functions are tested under defined conditions.
• Documentation: Delivery includes structured documentation such as drawings, test reports, material certificates, and maintenance manuals. Scope and level of detail are defined by project requirements and applicable standards.
• Global commissioning support: On request, technical specialists support on-site commissioning, including functional checks, parameterization, and coordination with the operator to ensure controlled transfer into continuous operation.

Engineering of a pump skid is based on defined technical and operational parameters:

• Operating pressure: maximum pressure level including load changes and pressure dynamics
• Flow rate: required capacity and operational load profile
• Operating mode: continuous duty, multi-shift operation, or intermittent use
• Pumped medium: water, water-based fluids, or process-specific media including material requirements
• Safety requirements: overpressure protection, pulsation control, and compliance-related design
• Integration conditions: available footprint, horizontal or vertical configuration, and connection to power supply and plant control systems

Precise definition of these parameters enables reliable engineering and realistic project planning.

A KAMAT pump skid reduces technical risk, shortens project timelines, and provides predictable operational reliability in high-pressure applications up to 4,000 bar. Engineering, integration, and testing are executed as a closed functional unit with clearly defined interfaces.

• Stable high-pressure performance: Crankshaft-driven plunger pumps deliver consistent pressure levels under demanding load profiles. Power consumption remains technically transparent and economically predictable.
• Designed for continuous industrial use: Design and material selection are optimized for high operating hours under continuous load, minimizing unplanned downtime and increasing plant availability.
• Reduced interfaces – clear responsibility: System-level engineering and testing reduce coordination effort, simplify acceptance procedures, and lower project risk.
• Scalable capacity: Triplex and quintuplex configurations as well as combinable pump units enable precise adaptation to increasing performance requirements.
• Long-term spare parts and service availability: Established industrial pump series ensure maintainability and predictable lifecycle costs. The modular system design of KAMAT high-pressure solutions supports standardized components with long-term availability, simplifying spare parts management and reducing downtime.
• Engineering and manufacturing in Germany: Controlled quality processes and documented testing procedures ensure technical traceability.

Engineering of a pump skid at KAMAT is based on extensive high-pressure expertise and proven plunger pump technology. Based on defined technical parameters, KAMAT develops a robust, project-specific system solution including pressure level, flow rate, drive system, safety components, and integration interfaces.

For initial evaluation, the following parameters are required:

• target operating pressure and flow rate
• operating mode and expected runtime
• pumped medium and material requirements
• installation conditions and available footprint
• requirements regarding standards, documentation, or explosion protection

The engineering team evaluates feasibility, integration effort, and system dimensioning and develops a structured high-pressure concept for the project.

Start your project evaluation for a high-pressure pump skid.