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The Company Chambers consists of
qualified experienced engineers providing an industrial services of
consultancy, engineering studies, problem solving, auditoring,
verification and technical training. The Chambers has a multidiscipline
profile of control and project engineering.
Consultancy
Services
 | Chair and
administrate Hazard Identification Studies |
 | Formulate,
Chair and Administrate formal Safety Integrity Level (SIL) studies
to determine the required integrity specification for automated
control systems |
 | Formulate,
Chair and Administrate formal Layers of Protection Analyses (LOPA) |
 | Analyse
system architectures and configurations and determine if the
functional safety and system integrity has been realised and meets
the required specification |
 | Provide
third party Functional Safety Assessments ensuring that the required
safety is attained and is sustainable by good procedures of
documentation and maintenance. |
 | Analyse
systems to determine system Fault Mode and the effect of failure (FMEA) |
 | Alarm
Management Studies to determine the required efficient and safe
response of operators to system information and alarms |
 | Determine
Alarm System Philosophy and strategy to reduce the risk of operator
information overload and unsafe response to system information. |
 | Application
of proven successful techniques already practiced within the
industry, for identifying and reducing the number of nuisance alarm
activations. |
 | Review of
the control Room. Alarm management is about improving the ability of
the control room operator to effectively carryout his
responsibilities under all possible conditions. A review of the
control room can help determine improvements that help the operator
carryout his role with maximum efficiency and least stress. |
 | System
studies to determine and compile operator response manual |
Engineering Services
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Project management using project risk reduction strategies.
Establish clear project expectations, objectives, boundaries and
assure focus at every stage of project life |
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Project leadership.
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Define criteria for decision making and participate in the
defining of requirements. |
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Set standards and role model behaviours for achieving project
performance and safety |
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Focus on obtaining the lowest total cost of ownership |
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Inspire value improving practices and determine minimum
conditions of satisfaction |
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Package specification and management
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Provide specifications for defined areas of process systems such
as fuel skids, compressor controls, antisurge recycle valves,
chemical injection skids, pump skids, wellhead controls, subsea
interfaces and controls etc. |
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Manage the vendors and ensure compliance with specifications and
project objectives of cost delivery and quality |
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Investigative studies for change management of existing systems
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Provide a Statement of Requirements determining the technical
requirements of system change |
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Determine first order costs and long lead items |
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Determine compliance with standards |
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Determine changes required to documentation |
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Project definition and costing
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Define all costs of design, purchase, construction,
commissioning , training and handover to operations. |
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Determine the required involvement of different design and
construction disciplines and |
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Determine management and technical authority and maintenance
involvement |
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Project Front End Engineering Design (FEED) studies
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Ensuring key project objectives, planned schedules and economics
are aligned with business plans and objectives to provide the
optimum project selection |
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Determine and specify long lead items |
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Provide main system documents and functional diagrams to take
the project forward into detailed design |
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Metering studies
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Define metering requirements
to meet allocation and/or fiscal metering requirements. |
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Modification requirements to
metering allocation agreements brought about by site changes to
metering. |
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Hazard Identification
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Determine safety hazards to the new system and the impact on
surrounding system interfaces |
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Determine the Environmental hazards |
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Determine the asset and commercial hazards |
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Risk
reducing engineering design to eliminate and/or mitigate the
identified hazards |
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Process control system design
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Control and instrumentation of process systems using best
practice and risk reducing design tools to ensure safe, cost
effective and maintainable process systems |
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SCADA, DCS systems specified to provide a cost effective system
architecture for operator interface and control of the product
providing management reports and available information in remote
locations. Provide full documentation and drawings defining the
system |
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Safety systems of Emergency Shutdown (ESD) of systems designed
to reduce the risk of hazards and failure of the automated
systems. Using integrity analyses to reduce maintenance costs
and provide safe design. Provide full system documentation and
interface drawings ensuring an audit trail for HSE requirements. |
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Fire and Gas (F&G) systems mitigating against the consequence of
realised hazards. Using integrity analyses to reduce maintenance
costs and provide safe design. Provide full system documentation
and interface drawings ensuring an audit trail for HSE
requirements. |
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Specification and interface design for Compressors, Pumps,
Wellheads, Sub-sea wells, Risers and Pipelines. |
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High Pressure High Temperature (HPHT) wells.
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System design and control using the best practice of risk
reduction and system integrity management procedures. Provide
full documentation and drawings |
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