Subsea Flowlines & Jumpers 2H Offshore is the industry’s leading expert in dynamic jumper design and analysis. Our highly experienced team has a detailed understanding of jumper response making it easy for us to help you determine a jumper configuration that will accommodate the loading and installation tolerances of your system. We have expertise in all aspects of rigid jumper design, including extreme loading, first order fatigue, VIV fatigue, thermal expansion and slugging fatigue, and have conducted the detailed design of rigid jumper spool systems for free-standing risers, flowline-manifold and flowline-well applications around the world. Our expertise also covers installation aids design, material selection and procurement support. Rigid jumper systems have the contradictory design requirements of needing flexibility to accommodate extreme loading and installation tolerances, whilst avoiding excessive fatigue loading that may be generated from fluid flow, direct hydrodynamic loading or excitation from attached riser systems. Determining a design for a system that is typically subjected to numerous design changes requires a highly experienced team with a detailed understanding of jumper response to help design a suitable configuration. Key Services Jumper configuration Extreme load analysis, VIV fatigue, first order fatigue, thermal fatigue, slugging fatigue CVA analysis Installation aid design and lifting analysis Installation analysis Preparation of technical and specifications Procurement management Project Experience Saipem – Cabiúnas Jumper Spool Analysis Saipem – Sapinhoá Norte Jumper Spool Design Heerema – BP Block 31 FSHR Jumper Spool Detailed Engineering Acergy – ExxonMobil Kizomba Jumper re-purposing analysis Saipem – Lula Norte and Extremo Sul Dynamic Jumper Design Tullow – Jubilee Rigid Jumper Procurement – Gap Analysis Did you know? Rigid jumpers are often used for base connection of a freestanding hybrid riser with the subsea pipeline system. However, when large installation tolerances and pipeline movements must be accommodated, the rigid jumper design may need to be changed from a straight forward quasi-static to an extremely dynamically driven design . Share this page Share on FacebookShare on LinkedinShare on Twitter Services Deepwater Production Systems Riser Concept Engineering Steel Lazy Wave & Catenary Risers Top Tensioned Risers Hybrid Risers Flexible Risers, Flowlines & Umbilicals Composite Risers Subsea Flowlines & Jumpers Subsea Umbilicals System Verification & CVA Integrity, Life Extension & Monitoring Riser Integrity & Life Extension Subsea Wellhead System & Life Extension Machine Learning for Riser Engineering Riser System Digital Twin Riser Monitoring System Engineering Riser Inspection, Maintenance & Repair Subsea Incident Engineering Fracture Mechanics and ECA Offshore Renewables & Alternative Resources Decarbonisation Fixed Offshore Wind Floating Offshore Wind HV Cable Engineering Moorings & Anchors Deep Sea Mining Drilling, Completion & Workover Drilling Risers Drilling Riser Management Subsea Completion & Workover Risers Subsea Wellheads & Conductors Offshore Platform Conductors Platform Well Integrity & Life Extension Well Engineering Well Plug & Abandonment Minimum Facility Platforms Conductor Supported Wellhead Platforms & CoSMOS Monopile Wellhead Platforms Exploration to Early Production Systems Structural Engineering Services Installation Engineering Decommissioning Engineering Riser Delivery Management Component Detailed Design Mechanical Connectors Systems & Qualification Testing Related PROJECTS Tullow Rigid Jumper Engineering See all Projects TECHNICAL PAPER Subsea Jumpers Vibration Assessment See all Technical Papers TECHNICAL PAPER The Significance of Low Velocity Near Bottom Currents on the In-Line Vortex-Induced Vibration Response of Rigid Subsea Jumpers See all Technical Papers