Sigve Hamilton Aspelund is the president of Aspelund Consulting Energy, an offshore development company. He has taken many courses related to energy, business, politics, and engineering over the past 15 years. These include courses in subsea technology, reservoir simulation, drilling, safety, and more. He has a master's degree from the University of Stavanger focusing on chaotic dynamical systems. His thesis analyzed the Lorenz equations and showed how they represent a chaotic system with extreme sensitivity to initial conditions.

1. Sigve Hamilton Aspelund
President Aspelund Consulting Energy Offshore Development International & National
Courses & Education
Phone: +92647129
Mail: ace.odin@lyse.net
Courses:
2014:
Municipal policies
School policy
State budget
Entrepreneurial enterprises/ business
Election and party work
Transport in government
Geochemistry
Oli stream analyser
Company etics courses
Board work (Politics)
2013:
Local chapter board (Politics):
Leader
Treasurer
Member responsible
Second leader
New opportunities
Secretary
Study leader
Director
Election 2013 (Politics):
Elderly care and health
Freedom
Transport
Safety
Economic politics
Hostile Environment Training – Control risks, United Kingdom
Introduction to Subsea Technology - Connection System
Autocad/TCE
Teamcenter: Review and approve
Introduction to subsea technology: Completion/ workover
Introduction to subsea technology: System overview in production
Subsea technology: Production control systems
Subsea Technology: Processing Introduction
Standardization course
Subsea: Front End Engineering
Subsea technology: Introduction to MPS
Document review: Introduction to NDT & MRB
Create and maintain SAP project BOM
SAP basic navigation
Field development: Subsea technology production systems
2012:
FMC technologies corporate compliance program & PLAN - Traincaster Tutorial for Eastern Region users
Introduction to Subsea technology: Foundations & structures
FMC technologies corporate compliance program Politics: Health
Politics: Speech and debate
Politics: Samhandlingsreformen
2011: Offshore safety course – Falck Nutec
2011: Online QHSE courses:

2. New Start – Care for Safety 2011-06-07
New Start – Permit-To-Work 2011-06-07
SOX Ethics course 2011-06-07
Control of Substances Hazardous to Health (COSHH). 2011-06-15
Use of High Pressure Spraying Equipment 2011-06-23
Travel Regulations for Offshore Employees 2011-07-01
Report of Equipment Failure-Damage exam 2011-07-04
Permit-To-Work exam 2011-06-10
Work Over Open Sea exam 2011-07-04
Lifting Operations 2011-07-04
Storage and Use of Radioactive Sources exam. 2011-07-01
Yearly Program for Emergency drills exam 2011-07-04
Lock-out/Tag-out Procedure exam 2011-07-01
Installation/Removal of Blinds and Opening of Flanges exam. 2011-06-23
Risk Acceptance Criteria exam. 2011-07-04
Welding, Flame-cutting and other hot work onboard exam. 2011-06-23
Notification, Reporting, Invest and Follow-up of UERs exam. 2011-06-15
Electrical Isolation exam. 2011-06-23
Working at Heights. 2011-07-01
HSE Inspections onboard exam. 2011-07-04
Training Procedure exam. 2011-07-04
Election of Safety Delegates exam. 2011-07-04
Ocean Rig Policies exam 2011-07-04
Construction and Use of Scaffolding exam. 2011-07-04
2010: Seminar: People, Planet, Profit – University of Stavanger
2010: The economy game – Skape 2010: Business presentation strategy – Skape 2010: Sales and service – Skape
2010: Advanced business development course – Skape
2009: HSE seminar: A safer working day – Bureau Veritas
2009: Seminar: Bringing businesses from east and west together – Transeuropean centre
2009: Introduction to business development – Skape
2009: Networking – Skape
2009: Political industry course – Sandnes
2008: F.A.S.T. Fekete RTA – Stavanger
2008: Oil Field Manager – Stavanger
2008: PI process book & PI excel – Stavanger
2007: Mbal, Prosper & GAP – Petroleumexperts, Edinburgh
2007: Gas lift course – Schlumberger Aberdeen
2007: PI process book – Stavanger
2007: Offshore safety course – Falck Nutec
2006: Water shut off – Randy Seright, SPE IOR06 Tulsa Oklahoma
2005: Data engineer – Geoservices
2005: HSE training course – Geoservices
2005: Basic safety and emergency and evacuation course for Ula/Valhall – BP
2004: Kick sheet – Geoservices
2004: Secondary well control course – Geoservices
2004: Primary well control course – Geoservices
2004: Offshore work permit and safe job analysis course – Internet course
2004: Helicopter evacuation and Statoil internal course – Nutec
2003: Mud logging training course – Geoservices
2003: Offshore safety course – Nutec
2001: Presentation Technique – Os (Roxar)
2001: RMS, reservoir modelling system, heterogeneity – Roxar
2001: RMS, reservoir modelling system, simulation grid – Roxar
2001: RMS, reservoir modelling system, streamlines – Roxar
2001: RMS, reservoir modelling system, introduction – Roxar
1998: Fiberoptics, computer network and telephone network – RSD

3. 1998: Electronics course – RSD
1998: Excel spreadsheet – RSD
University of Stavanger 1997-2001+2003:
Thesis: Lorenz equations: An introduction at m.sc. level (2.1) 2001 Supervisor: Paul Papatzacos
Abstract: objective of this thesis was to give an introduction to the chaotic dynamic system that Lorenz-equations
represent. First I gave an introduction to strange attractors followed by historical overview and how
Lorenz discovered sensitivity to initial values. Details to strange attractors are studied before butterfly-effect is
explained. Chapter 2: Important characteristics to the differential equations, where stability to the critical points
are a central theme. Global theory is introduced and the Poincare-Bendixon theorem is involved to show the
limitations to a continuing dynamic system in two dimensions. Bifurcations are described at the end of the
chapter. Chapter 3: The characteristics sensitivity to initial values to a chaotic dynamical system is described.
Lyapunov exponents that are used to measure dynamical systems sensitivity and the fractal dimension are
involved. The definition of a continuous dynamic dissipative system is studied and a chaotic path and a chaotic
attractor are defined. Chapter 4: First a short introduction then important characteristics to Lorenz-equations.
Stability analysis of the critical points is a central theme. The critical points are unstable for some values of the r-parameter.
This lead to a system show extreme sensitivity to initial values. These characteristics are the
definitions of a chaotic dynamic system and the reason for discarding a longtime forecast of the weather. The
differential equations system as this thesis is impossible to solve analytical, but it is possible to solve the system
numerically. This solution is not exact, but the general general appearance of the solution will not change
significantly. At the end of the chapter an overview over Lorenz equation are from conventions in the
atmosphere followed by questions regarding the thesis. Chapter 5: Conclusion: In this thesis I have given an
introduction to the chaotical dynamical system that the Lorenz equations represent. I have studied stability to the
critical points with variable r parameter with constant parameters σ and b. For some of the values of the r
parameter the critical points are stable. I have shown that bifurcation implies unstable critical points and is the
most known property of this system. Instability to the critical points leads to sensitivity regarding to
perturbations in the initial values. This is the most important property for the system and is the reason for being
called chaotic. Lorenz concluded that a long term weather forecast was impossible.
Subjects (Grades in parenthesis 1.0 is the best):
Reservoir simulation 1 (3.1)
Reservoir simulation 2 (Pass) (Eclipse)
Reservoir geophysics and visualization (D)
Well testing (3.7)
Numerical mathematics (1.2)
Thermodynamics (1.1)
Physics laboratory (1.9)
Chemistry and environment (3.4)
Computer science (Pass)
Well logging (3.5)
Petroleum geology (2.0)
Reservoir technology 1 (3.0)
Drilling and well fluids (2.0)
General chemistry (2.4)
Oscillations and waves (3.8)
Mathematics 5: complex analysis (1.6)
Introduction to reservoir simulation (2.5)
Mathematical modeling 1 (2.3)
Chaotical dynamical systems (1.2)
Fluid mechanics (2.0)
Statistical physics (2.2)
Petroleum physics (2.1)
Numerical linear algebra (3.0)
Numerical functional analysis (3.4)
Mathematical modeling 2 (1.3)
Material physics (2.2)

4. Experimental methods at laboratory (2.2)
PVT analysis (3.3)
Numerical treatment of differential equations (1.6)
Stochastically modeling (2.7)
Statistical physics 2 (1.9)
Fluid dynamics (1.4)
University of Bergen 1998
Examen philosophicum (2.6)
Norwegian University of Technical Science 1995-1997 (NTNU)
General physics 1 (1.8)
General physics 2 (1.7)
Mechanics (2.0)
Electricity and magnetism (2.7)
Quantum physics and statistical physics (3.1)
Introduction to analysis (2.0)
Linear algebra (2.6)
Multidimensional analysis (4.0)
Differential analysis and Fourier analysis (1.3)
Probability and statistics 1 (3.9)