CISU COSTEL
Curriculum Vitae
CHEMICAL ENGINEER
PERSONAL DETAILS
BIRTH DATE: 26/11/1970
NATIONALITY: Romanian
CIVIL STATUS: Married/ one children
LANGUAGE ABILITIES: English, good reading,speaking
PHONE: 004**********
E-MAIL: *****@*****.***
EDUCATION
1994, “Gheorghe Asachi” Technical University, Industrial Chemistry Faculty – Macromolecular Compounds Technology, Iasi (Bachelor Degree)
WORK EXPERIENCE
1. PETROFAC COMPANY – FPF1 project Gdansk, Poland - floating platform facility - platform gas plant
Post/Position: Precommissioning & commissioning engineer – off-shore and on-shore
Period: november 2015 - august 2016
On-shore activity
Supervision and coordinated the activities in process area, for the pre-commissioning and initial start-up including: commissioning and running of various types of equipments. Prepared punch lists and system hand-over/acceptance.
Instrument loops checking and testing of P.L.C. ESD, DCS logic, compressors, pumps and ID Fans.
Water Flushing, Air Blowing, Mechanical Cleaning, Chemical Treatment, Oil Flushing, Drying and Oxygen Free of equipment and their linings and piping systems.
Witnessing for testing, calibration, simulation test and adjustment of instruments and equipment including: the control valves, safety valve devices and checking of orifice plates and other sensory devices.
I attended the all pre-commissioning and commissioning mandatory activities as: pipe flushing and air blowing, chemichal cleaning, catalyst and molecular sieves loading, leak test, chemicals loading, drying and inerting.
I attended for leak test - nitrogen & helium – for all systems – max. 450 bar
Utility area: nitrogen and air compressors, fire water, heating &cooling medium (tryetilenglygol & metiletiletilenglygol)
Off-shore activity
Comissionning fire water pumps, balast and debalast pumps
Commissioning foam monitors, deluge systems and hidrants
Commissionig fire scenarios using deluge systems, hidrants etc.
Commissionig sea water pumps and sea water system
Commissionig electrochlorination – starting and dosing in sea water
2. PETROFAC COMPANY – Shetland Gas Project, Scotland
Post/Position: Precommissioning & commissioning engineer
Period: july 2015 – november2015
Supervising the all pre-commissioning and commissioning mandatory activities as: pipe flushing and air blowing, chemichal cleaning, catalyst and molecular sieves loading, leak test, chemicals loading, drying and inerting
I work for commissioning:
-Oily Water Treatment Package (OWTP)
-Effluent Water Treatment Package (EWTP)
Each package is required to achieve a level of treatment consistent with final discharge to sea without environmental impact
The OWTP consists of solids and oil separation equipment designed to meet the discharge consent for discharge to sea. Treated water is fed to the Observation Basin prior to discharge to sea by the Effluent Water Discharge Pumps). On detection of off-spec product, operator routes EWTP product back to recycle and close discharge to sea.
The EWTP consists of:
• Oil/Solid separation
• Gas stripping (to remove BTEX)
• Dissolved Gas Filtration
• Biological treatment
Treated water is then transferred to the Observation Pond prior to discharge to sea by the Effluent Water Discharge .
Supervision and coordinated the activities in process area, for the pre-commissioning and initial start-up including: start-up, commissioning, and running of various types of equipments. Prepared punch lists and system hand-over/acceptance. Instrument loops checking and testing of P.L.C. ESD, DCS logic, sfor compressors, pumps and ID Fans.
Water Flushing, Air Blowing, Mechanical Cleaning, Chemical Treatment, Oil Flushing, Drying and Oxygen Free of equipment and their linings and piping systems.
Witnessing for testing, calibration, simulation test and adjustment of instruments and equipment including: the control valves, safety valve devices and checking of orifice plates and other sensory devices.
I attended the all pre-commissioning and commissioning mandatory activities as: pipe flushing and air blowing, chemichal cleaning, catalyst and molecular sieves loading, leak test, chemicals loading, drying and inerting, steam blowing.
Also i prepare and supervision activities for dynamic equipment- mechanical run-in: pumps,compressor.
In this project I worked on these installations:
-Utility area: nitrogen and air compressors, fire water
- Air blowing : HP flare, LP flare, instrumental air network
- Flashing: close drain and open drain system
-Leak test for all subsystem like HP, LP flare etc
- Operational test procedures for pumps
3. SAIPEM - GLOBAL PETRO PROJECTS SERVICES – SHAH GAS PROJECT– UAE
Post/Position: shift supervisor precommissioning & commissioning
Period: july 2014 – april 2015
SHAH GAS project included mainly: gas wells, gas gathering manifolds, production reception and slugcatching, gas pre-treatment facilities to remove H2S and mercury impurities, CO2 Removal, gas dehydration, gas chilling, gas dewpointing facilities to remove heavy gas components (LPG), gas export compression and metering, condensate stabilization, LPG recovery (De-Butaniser) and LPG Treatment, condensate recovery, LPG storage and export, condensate storage and export, oil storage and export and associated utilities (instrument air, plant air, nitrogen, potable water, service water, ) and SRU UNIT.
Activities/Tasks shift supervisor precommissioning (I coordinated a team of 10 mechanics)
Supervision and coordinated the activities in process area, for the pre-commissioning and initial start-up including: start-up, commissioning, and running of various types of equipments. Prepared punch lists and system hand-over/acceptance. Instrument loops checking and testing of P.L.C. ESD, DCS logic, sfor compressors, pumps and ID Fans.
Water Flushing, Air Blowing, Steam Blowing, Mechanical Cleaning, Chemical Treatment, Oil Flushing, Drying and Oxygen Free of equipment and their linings and piping systems.
Witnessing for testing, calibration, simulation test and adjustment of instruments and equipment including: the control valves, safety valve devices and checking of orifice plates and other sensory devices.
I attended the all pre-commissioning and commissioning mandatory activities as: pipe flushing and air blowing, chemichal cleaning, catalyst and molecular sieves loading, leak test, chemicals loading, drying and inerting, steam blowing.
Also i prepare and supervision activities for dynamic equipment- mechanical run-in: pumps,compressor and funs cooler.
In this project I worked on these installations:
- Solvent regeneration - precommissioning and start up
- Condensate stabilization - start up and normal operations
- Inlet separation - start up and normal operations
- Gaz absorbtion - start up and normal operation.
4. REFINERY ONESTI BRANCH (Roumania)
(Oil Refinery and Petrochemical Complex) – 2006 - 2012
Obtaining butadiene – supervisor – period: 2006- 2010
The process involves the extraction of the butadiene from pyrolysis fractions (using a solvent acetonitril) and its purification by distillation and fractionation processes;
The installation produces high purity butadiene through the extractive distillation of C4 fraction, using acetonitrile as extraction solvent. The collateral product resulted from the process is a butane-butene fraction, also known as Raffinate 1.
The C4 fractions are fed into the columns. The butane-butene fraction (Raffinate 1), without acetylene hydrocarbons and butadiene content, is collected from the top of the column. The butane-butene fraction is sent to column in order to retain any remaining traces of solvent, by counter-current washing with water, and then sent into storage, in order to be used in MTBE production.
The product from column bottom reservoir, which contains butadiene, acetonitrile and acetylene hydrocarbons is sent to desorbtion column. Gross butadiene is collected on top of column and after condensation it is sent to the rectification phase.
The extraction solvent is evacuated from the bottom reservoir of the column and after cooling it is sent to extractive distillation phase.
Gross butadiene obtained after the desorption phase is sent to the preliminary rectification phase. Methyl-acetylene is separated on top of the column and eliminated discontinuously in the flare system. From column bottom reservoir, the butadiene is sent to the final rectification phase in columns. High purity butadiene is collected on top of column, condensed and sent into storage.
A fraction containing heavy acetylene hydrocarbons (vinyl-acetylene, ethyl-acetylene), C5 hydrocarbons and butadiene is extracted from the column bottom reservoir.
This installation before annual revisions involve a washing column extraction and rectification of BTX (benzene-toluene-xylene). For this reason the plant was equipped with special storage vessels BTX, pumps and circulation of this fraction with steam heat exchangers for preheating. Storage vessels are equipped with safety systems to prevent fire or explosion (water sprayers, flare connections, etc.).
MTBE and LPG plant – supervisor – period: 2010 – 2011
Obtaining MTBE (increases the gasoline's octane) and liquefied petroleum gas (LPG) - catalytic reaction followed by rectification - distillation to separate the components;
MTBE is produced by reacting isobutene with methanol over a catalyst bed. The isobutene can be obtained from a number sources: a C4 stream from a steam cracker with the butadiene removed (know as Raffinate-1 which is a mixture of isobutene and 1- and 2-butenes); butene-butane fractions from a catalytic cracker; and n-butane (from LPG) which is isomerised to isobutane and then dehydrogenated to isobutene.
The reaction of methanol and isobutene can take place in either a liquid phase or mixed gas-liquid phase reactor containing an acidic ion exchange resin. The reaction takes place at a temperature of 50-90oC and a pressure of 20 bar.
The MTBE produced is extracted from reaction effluent via distillation, while the unreacted methanol is absorbed by water before it is separated from water via distillation. The recovered methanol is recycled back to the reactor.
Sulphur Recovery Unit from LPG- supervizor - period: 2011 – 2012
- Monitoring the operating parameters and modifying them using DCS according to process requirements. The plant has the goal to remove sulphur components from C3-C4 fraction coming from the top of debutanization column. Controlling the entire process and equipment (such as: absorption column with DEA, pre - washing column (with caustic soda) where the hydrogen sulphide tracks are further removed, extraction column (8 orifice plates) with caustic soda for mercaptan absorption, caustic soda separator vessel and a sand filter, caustic soda regeneration unit composed of a steam pre heater, an oxidation column with graphite rings filling and a caustic soda- residual gases separator).
- Ensuring the continuous and safety functioning of the plant in accordance with designed parameters.
- Performing start up operations and intervention activities in case of shutdown, organizing the activity of supplying with feed stock, catalysts, chemical products and storage of final products.
- Coordinating the training activity of the subordinated personnel regarding HSE and fire fighting regulations to be observed during the shift.
- Checking the quality of the feed stocks and of the final products, adjusting the process parameters to meet the designed specifications.
All unit - Production Superintendent – 2012 – iulie 2014
5.CAROM S.A. (ROMANIA)
Post/Position: Plant polymerization chief
Period: November 1995 - June 2006
Department: Chemical/Petrochemical Industry
The principal task is to operate and manage safely the installations of:
Obtaining synthetic rubber: styrene-butadienic rubber (SBR- 1500, 1502, 1508) and acrylonitril-butadienic rubber (NBR – 28, 33, 38)
SBR produced by emulsion polymerization is initiated by free radicals. Reaction vessels are typically charged with the two monomers (styren and butadyene), a free radical generator, and a chain transfer agent such as an alkyl mercaptan. Radical initiators include hydroperoxides (cumen) in combination with ferrous salts. Emulsifying agents include various soaps. By "capping" the growing organic radicals, mercaptans (dodecylmercaptan), control the molecular weight, and hence the viscosity, of the product. Typically, polymerizations are allowed to proceed only to ca. 70%, a method called "short stopping".
The plant was equipped with special storage vessels cumen, pumps circulation. Storage vessels are equipped with safety systems to prevent fire or explosion (water sprayers, flare connections, etc.).To prevent explosion due to overheating in storage vessels, they were provided with internal cooling coils used as cooling agent calcium chloride to -7 degrees. C
The plant was equipped with special storage vessels for styren, pumps circulation. Storage vessels are equipped with safety systems to prevent fire or explosion (water sprayers, flare connections, etc.).
Activities/Tasks:
Adjusting operating conditions or product flows to allow isolation of equipment for maintenance and resumes operating conditions following completion of maintenance. Coordinates with maintenance for equipment change-over and instrument loop checks. Endorses related Permits to Work and raises Maintenance Work Orders as required. Carrying out start-up preparation, normal operations and shutdown of process/utilities lines as per Standard Operation Procedures. Determines developing trends in operating conditions, reporting significant changes and initiating actions as required. Involved in all the plant activities, in all the areas, supervising and coordinating the activities of the field operators, during normal operations, start-ups and normal or emergency shutdowns of the plant, also during turnarounds and maintenance activities.
Related tasks:
- Respecting the technological processes;
- Framing the specific consumption;
- Respecting the standards and quality norms of raw materials and finite products;
- Respecting the legislation HSE;
- Participation in the commissioning of the new installations;
- Management of fixed assets and other material goods;
- Preparation and verification: timesheets, limited sheets, consumer documents, transfer documents etc.; Checking calculation of price cost:
TRAINING:
- April 2012 - experience exchange in Germany at Lurgy Company having as goal performance improvement of the installation of obtaining butadiene - the result was reducing steam consumption on the current installation from 12 tons of steam per 1 ton of butadiene to 7 tons of steam per 1 ton of butadiene.
- September 2012 - experience exchange in England, London, to KBR company having as goal recovery of the butadiene grade improvement from pyrolysis fraction - the conclusion was that the construction of a hidrogenation plant of the pyrolysis fraction whose projection started in 2013.