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Ken Okosun On Monday, October 11, 2010
THREE WAYS TO (HOW TO) GET A JOB WITH SHELL & WHAT THEY ARE LOOKING FOR
There are three ways to get a job with Shell. It’s up to you to decide which one works best for you. And you’ll be asked to select your preferred route during the application process.

Internships
You can experience Shell directly through a paid student internship, which can last anything from eight weeks up to a year.
Shell internships are a fully assessed route into Shell where you’ll gain first-hand experience of what it's like to work with a global company.
Gourami Business Challenge
This is a six day challenge for final year students, where you'll work as part of a team to develop a business plan for Shell in the fictional country of Gourami.
The challenge simulates situations that arise in the energy industry and gives you a chance to make strategic decisions and recommendations.
Shell Recruitment Day
Here we’ll explore how well you cope with various business scenarios – assessing your capacity to analyse critical issues and identify the wider implications, as well as your aptitude for dealing with change and driving your own learning, and your ability to identify and influence key stakeholders.

Whichever path you take, you’ll get a comprehensive onboarding programme when you arrive to help you settle into your new role. And our early career development programme will make sure you get off to a flying start.
Find out more and apply online at www.shell.com/careers

WHAT SHELL IS LOOKING FOR
Whatever role you play within the business, there are certain qualities you’ll need in order to succeed.

First and foremost, you need to enjoy being challenged – because we have a habit of taking on projects that other people think are impossible. Like finding a way to reach disparate pockets of oil from a single drilling platform or designing a gas rig that runs on less power than it takes to boil a kettle.

As individuals, we all bring a unique set of qualities to the business, but there are certain key attributes we look for in our people.
One of shell key selection criteria assess against the Shell CAR programme.
Capacity
It takes real intellectual, analytical and creative ability to learn quickly, identify issues, absorb information, make judgements and propose solutions.
Could you handle the pace?
Achievement
We expect plenty of enthusiasm, resilience and confidence – are you someone who can always get things done?
Relationship skills
We look for rounded characters with both sensitivity and influencing skills.
Are you able to work effectively with others in a diverse team?
Technical skills
Being at the forefront of innovation requires the ability to understand and approach technical issues. Are you always enthusiastic when it comes to a technical challenge?
We’ll give you training, support and career choices to develop your potential.
We’ll team you up with some of Shell’s most accomplished problem solvers. And together we can help build a responsible energy future for everyone.
Find out more and apply online at Careers

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Ken Okosun On Friday, October 8, 2010
Before we start the Petrophysics eLectures properly let take a look at:

Typical Outline for a Petrophysics Field Study

Introduction

The needs of clients differ for each Petrophysics field study but most projects follow the general outline given below.

The Petrophysics field study is often part of a larger reservoir description project such as a reservoir simulation model or a geostatistical study. All of the project technical team members must be kept fully informed of the progress of the Petrophysical analysis. Any reservoir anomalies, including heterogeneity features, must be promply discussed and documented.

The reservoir surveillance activities will likely out-live the Petrophysics Field Study, so it is vital that the final study report and all material used in the study be carefully archived.

Suggested Outline for a Petrophysics Field Study

(1) Review previous studies.

(2) Conduct a literature search for work done on analagous fields

(3) Data collection phase;

    Digital wireline log data,
    Wireline log paper prints,
    Mud logs including digital data if available,
    Cuttings sample descriptions,
    Sidewall core descriptions,
    Core descriptions,
    Core analysis results including any SCAL reports,
    Petrographic reports,
    Well test results,
    Formation pressure data (MDT, RFT, DST etc.)
    Fluid analysis (gas, oil, water) reports,
    Geological correlation sections,
    Depositional environment reports,
    Well survey data.

(4) Database development:

    Data entry;

        Digital wireline log data from a service company, log vendor or client,
        Digitized log data: either as the original data or as supplemental or remedial data,
        Log header information - usually entered manually,
        Core analysis results - usually entered manually,
        Formation pressure data,
        Well survey data. Be aware of order of validity (single-shot, multi-shot,Gyro)

    Verify the validity of digital log data with hard copies of the original data.

    Identify and document fluid contacts in all wells. Use Mud log data, well test results, formation pressure data, cores, mudlogs and well log response. Create color-coded "stick" plots (Subsea depth) to show the distribution of fluids in all reservoirs.

(5) Edit the log data;

    Splice logs,
    Normalize log curves, if necessary, after examination of regional trends,
    Baseline SP curves,
    Delete or edit invalid log data intervals (for example cycle-skipped sonic).

(6) Create hole size and "washout" curves.

(7) Create "bad hole" logic to identify zones with invalid log data,

(8) Create a set of TVD and/or subsea log curves for each well,

(9) Apply environmental corrections to log data, where appropriate.

(10) Develop and test an interpretation model using the available data (logs, core analysis, petrography, etc). The model will typically include;

    A method to predict formation temperature,
    Formation water resistivity (Rw) curves calculated using salinity data and formation temperature,
    Shale fraction determination (often using multiple logs),
    Shale properties algorithms (Qv, Rhoma, Rwb, etc.),
    Reservoir parameters (matrix and fluid density, a, m, n, etc.),
    Porosity algorithms. Porosity is often calculated using several logs and logic is developed to select the most appropriate value,
    Water saturation models, and,
    Permeability prediction algorithms.

(11) Working with other members of the study team develop facies identification models, if possible.

(12) Develop permeability transforms for each depositional facies, if possible. Calculate permeability-thickness for each well/zone.

(13) Compare the log interpretation results with available core data.

(14) Refine the interpretation with zoned analysis parameters. It may be necessary to use more than one interpretation model.

(15) Review the analysis model and reservoir zonation parameters with the project technical team (Geologists, Geophysicists, Reservoir engineers).

(16) Apply the refined interpretation model to all of the wells using the zoned analysis parameters.

(17) Review all analysis results prior to writing a final written report.

(18) Prepare a summary report for the Petrophysics field study, containing;

    An executive summary of the project and the analysis results,
    A detailed description of the techniques applied,
    Implications of the results of all computations
    Analysis results in tabular and graphical forms.
    Petrophysics composite logs ("Answer" plots) with;

        Raw logs, core analysis data, interpreted lithology and,
        Log analysis results curves.

(19) Prepare presentation materials;

    Slides or overhead projections,
    Posters,
    Cross sections showing petrophysical properties.

(20) Archive all hard copy and digital data. A very useful technique is to write a CD containing the project directory structure.  The directory structure should contain the raw data, results curves, interpretation programs, report files and plot files.


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Henderson Petrophysics
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Ken Okosun On Thursday, October 7, 2010
This book is written mainly for two groups of readers: engineering students studying petroleum and chemical engineering and graduate engineers whose major interest is gas and petroleum production and processing operations. The book is arranged so that it can be used as both a text and a reference. As a text, the organization of materials permits flexibility in designing courses in this field for both undergraduate and postgraduate students.

Part I: Background
Chapter 1. Oil and Gas: From Formation to Production
Chapter 2. Composition and Characteristics of Crude Petroleum: A Brief Review

Part II: Separation of Produced Fluids
Chapter 3. Two-Phase Gas–Oil Separation
Chapter 4. Three-Phase Oil–Water–Gas Separation

Part III: Treatment of Produced Fluids: Crude Oil and Water
Chapter 5. Emulsion Treatment and Dehydration of Crude Oil
Chapter 6. Desalting of Crude Oil
Chapter 7. Crude Oil Stabilization and Sweetening
Chapter 8. Storage Tanks and Other Field Facilities
Chapter 9. Produced Water Treatment

Part IV: Field Processing and Treatment of Natural Gas
Chapter 10. Overview of Gas Field Processing
Chapter 11. Sour Gas Treating
Chapter 12. Gas Dehydration
Chapter 13. Recovery, Separation, and Fractionation of
Natural Gas Liquids

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