Mohammed Zeedan

• Static Equipment Design - Aramco Standards and International Code
• Developed 3D CAD models of mechanical components for use in simulations and manufacturing processes.
• Solved challenging design problems with innovative approaches, increasing product reliability and durability.
• Pressure Vessels : SAES-D-001 , 32-SAMSS-004 , ASME Sec Vlll Div 1 - PvElite Software

Storage Tanks : SAES-D-100 , 32-SAMSS-005/006 , API 650/620 - AME Tank Software

Heat Exchangers : PvElite Software.

Shell and Tube Heat Exchanger ( SAES-E-004 , 32 SAMSS-007 , TEMA/API 660 )

Air Cooled Heat Exchanger ( SAES-E-007 , 32- SAMSS-011 , API 661 )

• Preparing Equipment Datasheets and Technical Specifications for Mechanical Equipment.
• Utilized job-related software to produce outline designs.

• Proficient in AutoCAD and Revit for project implementation
• Implemented sustainable practices in plumbing design aimed at reducing environmental impact while still meeting performance requirements.
• Participated in industry training events and conferences to stay updated on the latest trends, technologies, and best practices for plumbing design.
• Ensured code compliance by diligently reviewing local, state, and national regulations during the design process.
• Proficient in AutoCAD and Revit for project implementation.
• Skilled in thermal load estimation using HAP and in selecting air conditioning equipment.
  
• Knowledgeable in air distribution design and ductwork drafting.
  
• Knowledgeable in calculating pressure loss, selecting fan capacity and in ASHRAE duct fitting.
  
• Knowledgeable with selecting FCU, AHU units, and Chillers.
  
• Knowledgeable in hydraulic calculations using Fire Elite.
  
• Knowledgeable in building water supply and sanitation network design.
  
• Knowledgeable in rainwater drainage systems.

• Assignments while working with the project team included learning about P&IDs, PFDs, 2D-3D modelling, and XREFS Management
• Learning about P&IDs, PFDs, 2D- 3D modelling, and XREFS Management.

• Completing multiple drafts of 3D CAD design, calculating

casing thickness required, and submitting configurations of

the turbomachinery piping inlets and outlets that connect

to the recuperator.
• Performing static and thermal stress analysis after applying

fixed boundary conditions on the turbine casing using the

ANSYS software.
• Calculations were made following ASME Boiler and

Pressure Vessel Code Sec Vlll Div 1.
• Material selection of the turbomachinery casing under the

maximum operating parameters of the power cycle.
• Material Selection of bolts and estimating bolt's minimum

length of engagement and tightening torque.
• Calculating the total number of bolts required to hold the

turbomachinery parts axially and radially.