Competences
Here an assessment of competences:

ENGINEER SPECIALIZES IN THE ENGINEERING OF THE THERMAL AND FLUIDIC SYSTEMS

FIELDS OF COMPETENCES

GENERAL KNOWLEDGE:

Energy production
Domestic and industrial heating
Industrial and domestic cold
Control and energy management
Environment
Methods

TECHNICAL TRAINING:

Thermal transfers
Exchangers of heats
Thermics of the building
Mechanics
Thermodynamics
Combustion
Automatic and regulation
Resistance of materials
Data processing and software

GENERAL KNOWLEDGE:

Energy production:
Power stations and nuclear - Gas turbines - Combustion - renewable Energies

Domestic heating and industrialist:
Boilers - industrial Furnaces and hearths - Boiler rooms of urban sets - Electrothermics (heating by microwaves, infra-reds, induction)

Industrial and domestic cold:
Air-conditioning of sets industrial, administrative, houses, vehicles - Cryogenics

Control and energy management:
Regulation of the systems of heating and air-conditioning - optimal Management of consumption of energy - industrial Process control

Environment:
Thermal discharges - Pollutants of combustion - Effect of greenhouse - Development durable

Methods:
Management of the men: communication in company (led meetings, talks, management
information) - Project management - financial Analysis - Organization: planning, action plan, schedule of conditions

TECHNICAL TRAINING:

Thermal transfer:
Conduction - Convection - Radiation - thermal Metrology - Calculations of heat balances -
Optimization and modeling of thermal systems industrial and related to the habitat

Exchangers of heats:
Principal type of exchangers and technical problems - Method of calculation per temperature
average logarithmic curve - Method of calculation per unit of transfer - Calculation of the exchangers
tubular thermics, with plates, spiral, turns of cooling - Dimensioning of one
exchanger adapted to an industrial problem

Thermics of the building:
Energy data - Thermal Transfers in the building - Insulations Interior and External (Advantages and Disadvantages) - Thermal Comfort - Heat balance D \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ 'a room - theoretical Approach - general Principles of distribution D \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ 'a room - Heat balance in steady state - Calculation of the basic Losses - Thermal Regulation.

Mechanics:
General properties of the fluids - Statics of the fluids - Kinematics of the fluids - Dynamics of the incompressible true fluids - Dynamics of the fluids real - Calculations of pressure losses - Calculation of the bearing pressure and the trail of profiles - Dimensioning of pump or turbine in a network - Modeling of systems of turbulent flows

Thermodynamics:
Thermodynamic balances - Change of state of the pure substances - thermodynamic Cycles - Heat engines (refrigerating machines; heat pumps) - Kinetic chemical

Combustion:
Thermochemistry - Combustive of liquid, gas and fogs - Engines of combustion - Emission of pollutants by the reactions of combustion - Calculations of flow with combustion - Study of flames of combustion (industrial burners)

Automatic and regulation:
Sensors - Stability - Type of regulation (P, PID, PD) - Control loops - automatic Control devices - Linked systems

Resistance of materials:
Infinitely small transformation of a continuous medium - Mechanical properties of materials - Theory of elasticity - General information on the beams - Constraint and deformation

Data processing and software:
Resourcefulnesses \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ 'exploitation (Windows 3.1 in Windows XP) - ms Office - ms Project
Software: CFD (Flowing) - AutoCAD - Accesses - Thermoptim - Perrenoud
Programming: Matlab - Visual BASIC - Mathematica

PROFESSIONAL EXPERIENCE:

10/2007 - 11/2007: DEGREMONT SUEZ - Aix-en-Provence
Lasted mission 1 month: engineer in mechanics of the fluids

Achievements: (work on 3 projects different of station of purifications)
- Calculation of distribution and deodorization (mass Calculations of flow and study of management D \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ 'odors):
Calculation starting from the VME and VLE in the various zones D \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ 'a minimum building of the flows of distribution to be envisaged.
- Calculation of flows of pollutants and concentration.
- Calculation of heating of buildings (Dimensioning D \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ 'unit heaters)
- Determination of aeraulic conduits for the base and the alternative of the buildings of station D \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ 'purification.
- Calculation of the number of mouths of blowing to be installed, of the type and their positioning.
- Calculation of grids D \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ 'aspiration and D \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ 'antennas to be installed.
- Calculations of pressure loss of these antennas (linear pressure losses.)

Dominant: Mechanics of the fluids, distribution, deodorization, water treatment, processing of the air, heating.
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03/2007 - 08/2007: SOLLAC ARCELOR - MITTAL - Site of Fos-on-Sea
Unit: Service Process Energy
Project of end of studies
Option: Fluidic and Thermal engineering

Context: Study of the improvement of the implementation of the fluids on burners of steam generators in order to improve combustion of the boilers of the site.

Drank: To improve the distribution of the three airs present: center towards the periphery of the PLUNDERING standard burner - (optimization of the combustion of coke-oven gas and/or natural gas without degradation of the combustion of gas of Blast furnaces)

• Primary education air (air I): air introduced in the center of the burner

• Cooling air: air located around the “gazo jacket”

• Secondary air (air II): introduced with the periphery

Achievements:

 Modifications of the burners of the PLUNDERING type (cf diagram)
 Thermal and energy calculations
O Relationship between the speed of ejection of gases and the velocity combustion
O Recirculation of the burner
 Study of the phenomenon of Swirl on one of the burners of a boiler
 Cost and energy profits of the possible modifications
 Invitation to tender near companies providing in mechanics (BOCCARD, PONTICILLI)
 Presentation of the project before the Steering committee of the factory.

Results obtained:

 Better control of the combustion of coke-oven gas and/or natural gas thanks to a better mixture air /gaz and a contribution of significant air in the center of the burner
 Shortening length of flame
 More profitable combustion
 Time of return on advantageous investment
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04/2003 - 06/2003: ARKEMA - TOTALFINAELF- Site of Marseilles
Unit: Service Process Energy
Industrial project
Option: Thermal engineering and Energy

Context: Study of assessments matters and thermics of the annual rejections at the boundaries of the factory site for the declarations lawful with the Administration.

Achievements:

 Assessments matter relating to the nitrogen (calculation and classification of the inputs and the nitrogen losses over the year 2002): location and analyzes provisioning of all the nitrogenized products of the factory.
 Assessments matter for carbon (calculation and classification of the inputs and the nitrogen losses over the year 2002): awareness on the percentage of carbon in each flow entering and outgoing; this was carried out by analysis and calculations by taking account of the composition of the flow and the percentage of carbon of each molecules which constitute flow.

Results obtained: confidential

 Results which will be used on the one hand as support for the declaration with the DRIRE (Regional Directions of L \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ 'Industry of Search and of L \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ 'Environment) for the year 2002 and on the other hand, could be reusable by the Service Environment or the Proceeded Service; this in order to write the later declarations or to determine the points to improve in particular as regards environment.

Experiment
Oct. - Nov. 2007: Engineer in Mechanics of the fluids at DEGREMONT SUEZ Aix-en-Provence (13)

Mission: Calculation of distribution and deodorization (mass Calculations of flow and study of management of odors) - Calculation of heating of buildings - Study of layouts of networks of sheaths of blowing and D \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ 'aspiration D \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ 'air. - Determination of aeraulic conduits for the base and the alternative of the buildings of station D \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ 'purification.

Dominant: Mechanics of the fluids, distribution, deodorization, water treatment, processing of the air, heating.

March - August 2007: Training course of engineer at SOLLAC (ARCELOR - MITTAL) - Factory of Fos-On-Sea (13)

Subject: Optimization of the management of fluids within burners of the steam generators in order to improve combustion of the boilers. (Tests on site)

Dominant: combustion, mechanics, transfer of heat, optimization of the thermal systems

April - June 2003: Training course in industry at ARKEMA - Factory of Marseilles (13) (group TOTALFINAELF)

Subject: Assessments matters and thermics of the annual rejections at the boundaries of the factory site for the lawful declarations with the Administration.

Dominant: Engineering of the thermal processes, engineering of the chemical processes, combustion, environment

Formations
2005 - 2007: Master 2 in Fluidic and Thermal Engineering (IFT) at the university Louis Néel of Belfort (90)
(Mention: Rather Well)

2003 - 2005: Licence in Engineering of the Thermal Systems at the university of Pau and of the Countries of Adour (64)

2001 - 2003: HAD in Thermal Engineering and Energy at the university of Marseilles (13)

2001: Obtaining the baccalaureat series S to the college Run Country house (13)

Practised languages
English: Running
Spaniard: Running

Availability
immediate

Current remuneration
30000