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Enhancing Radomes functionalities and active antennas performances for millimeterwave reconfigurable multibeam solutions using additive manufacturing & flex technologies
ABG, Brest, Bretagne
Description du sujetThis project is part of the framework of the Acceleration Strategy on 5G and networks of the future, and more specifically on the development of advanced technologies for 5G systems. Their development induces numerous scientific and technological challenges to be addressed in the coming years. Digital technologies offer the possibility to develop flexible and agile network architectures, with convergence of networks, distributed cloud, sensing structures and advanced applications. Both terrestrial and non-terrestrial systems will cooperate to provide such news services, through interoperability and aggregation of heterogeneous systems, for customers experience benefit. Quality of services, latency, multi-gigabit-per-second data rates, connectivity everywhere as well as energy consumption and environment impact minimization remain key challenges.Consequently, 5G imposes major technological and architectural innovations, notably radio access based on beamforming for spatial diversity and communication capability. In addition, spectrum resources will be highly solicited for providing enhanced bandwidth over wider frequency ranges, with consequently new expectations regarding millimeter wavelengths.Development of smart antennas capable of adapting their beams according to the channel within multiple bands requires going beyond conventional antenna design methods, but also to develop an electronic front-end capable of probing the immediate electromagnetic environment and controlling the antenna pattern. Advanced beamforming systems, combined with massive MIMO techniques and intelligent RF front-ends are fundamentally expected and considered as technology breakthroughs Ambitions for mmwave antennas – ObjectivesExploiting mmWave frequencies for future 5G networks appears as a fundamental ambition, bringing scientific challenges and issues regarding both new design concepts for antennas architectures and technologies toward agile and low power consumption solutions critical for the development of future mmWave communication networksThe main challenges in the millimeter band lie in the design of energy-efficient systems inducing co-designed RF circuits and antennas. The objectives are to create reconfigurable antenna solutions with beamforming and multi-users MIMO capabilities, and to design advanced digital processing techniques to manage these systems.A high-gain and wideband antennas remain mandatory at mmWave frequencies to exploit efficiently the huge available spectrum. Array solutions including thousands of elements guarantee the required power budget specifications in terms of realized gain and EIRP (Effective Isotopically Radiated Power), as well as sectorization possibilities through individual amplitude/phase controls.Nevertheless, specific investigations have to be done regarding spatial feeding techniques to achieve extremely energy efficient solutions, while preserving flexibility on multibeam radiation patterns possibilities. In particular, individual amplitude-phase planar array excitation modules have to be ideally suppressed to reduce feeding module losses.Emerging concepts are addressed by this thesis, considering new combinations of low-profile transmit-array or flat-lens architectures with alternative beamforming approaches exploiting either holographic techniques or artificial beamforming through surface impedance modulations. Indeed, a spatial surface impedance modulation controlled through holographic techniques or metamaterial structuration can be exploited to transform a reference excitation mode to guided surface mode and then to a desired radiation pattern through an appropriate controlled nearfield illumination.  A near-field illumination of the planar array can be ensured through 3D multi-materials-based radome-likely functionalities using additive manufacturing, eventually combined with flexible technologies to report tuning components for holographic mode control.Methodology - Study approach- First, an analysis of the literature will be done to position the subject in the context of millimeterwave antenna arrays, in particular with a specific attention to the generation of multiple beams, and the co-integration capacity of MIMO (Multiple Input-Multiple Output) solutions. The work will also aim to identify competing solutions such as RIS structures (Reconfigurable Intelligent Surfaces), and to assess the potential of hybrid approaches based on holographic techniques.- Secondly, the effective contribution of radomes regarding conventional beam control systems will be studied. In particular, reconfigurable radome structures illuminated by a set of primary sources will be developed. The radome is likely either to act first as a guiding structure allowing the development of a directive high-gain antenna, with main-beam deviation capabilities or not. We will investigate on technological solutions and innovative topologies, in particular on the basis of flexible technologies and/or 3D printing approaches [6, 7], with the presence of dielectric/metallic/electronic structures making it possible to locally parameterize the signal in transit- Thirdly, the generation of multiple beams, with the idea of ​​generating multiple beam shapes by hologram reconstruction, will be addressed [3, 4, 5]. Questions regarding the generation of holograms will be examined, with again the analysis and optimization of the radome structure to contribute to this multi-spots construction. We will be able tom compare the advantages of using a near field surface controled radome with respect to holographic impedance modulated surface (HIMS) [5]Prise de fonction : 01/10/2024Nature du financementFinancement public/privéPrécisions sur le financementPEPR 5GPrésentation établissement et labo d'accueilIMT AtlantiqueThe research activities will be done thesis is done in the context of the laboratory Lab-STICC – UMR CNRS 6285 at IMT Atlantique (Engineering School).  The selected student will also be associated to other activities of the research group: group meetings, seminars, social eventsIn detail, the hosting facilities for the thesis is described below:Establishment: IMT Atlantique Bretagne/Pays de la Loire (Brest campus), a high graduate engineering school (postgraduate): www.imt-atlantique.fr Laboratory: LabSTICC/DH Team : https://www.labsticc.fr/en/index/Intitulé du doctoratDoctorat en électroniquePays d'obtention du doctoratFranceEtablissement délivrant le doctoratIMT AtlantiqueEcole doctoraleED 648 - ED SPINProfil du candidatSkills: Electromagnetism, Filter & Antennas – RF Design, High Frequency CAD, 3D Additive Printing Technologies Theoretical skills: Solid background in one or more of the following domains: Theoretical and computational electromagnetics, Microwave and mm-wave antennas & components, 3D additive manufacturing techniquesTechnical skills: Experience in one more or more of the following technologies/tools: CAD Tools (HFSS, CST, etc..), Matlab, PythonProfile required: Holder of a postgraduate diploma, Master of research or engineer diploma in the domains of physic, Electromagnetisms, Antennas, high frequency components design.Fluency in English is required, a spirit of collaboration and of initiative in the face of technological challenges.Date limite de candidature  28/06/2024
Principal Pipeline Design Engineer - Oil & Gas - Saudi Arabia
Michael Page, Australia
Provides technical advice and solutions to complex problems as encountered by pipeline team on a day-to-day basis.Prepares and reviews pipeline engineering studies, design drawings and documents, and materials and equipment specifications.Resolves speciality related pipeline engineering issues by applying accepted principles, codes, and standards.Establishes scope of work for each project or proposal.Assists the Department Head in developing organizational procedures, methods and controls.Ensures quality and safety standards and procedures are followed.Coordinates activities with other departments and clients.Conducts technical investigation and research.Assists the Department Head in the development of long-range plans and establishing project objectives and priorities.Provides expert advice on pipeline engineering design, process, and other methods.BS Engineering and registered as a professional engineer with significant experience of 20 years.Has experience in the oil/gas, hydrocarbon, refinery, offshore industries and is recognized as specialist in pipeline engineering field on large to mega projectMust have thorough knowledge of engineering practices and economic principles, calculation methods, design details, international codes and standards, procedures, and specifications.
Stage PFE - Aide Conducteur de travaux F/H
Eiffage,
Eiffage Route contribue à l’amélioration du réseau français, des voies communales aux tracés autoroutiers, qu’il s’agisse de conception, de construction ou d’entretien. Experte en aménagement urbain, Eiffage Route participe également à la réalisation de projets portuaires, aéroportuaires, industriels et commerciaux.MISSIONS- Manage teams- Present the building site, its challenges, risks and the construction works to be completed by all their teams- Set objectives for their employees - Support teams’ professionalization and upskilling and manage HR processes within the scope of their responsibility- Encourage professional best practices and govern improper conduct Building site preparation- Study the contract documentation (general conditions of contract, technical documentation), price studies and the strategic choices made by the agency manager (transfer meeting)- Perform administrative procedures within the lead times (road network authorization, DICT – declaration of the intention to begin work, etc.)- Check the building site’s actual conditions (plot, additional studies, construction methods, environment, surveys, core sampling, etc.), define the building site installation and access plan, and establish the Health and Safety Protection/Prevention (PPSPP) and Quality Assurance plans- Define the resources – human (teams, skill sets and availability), material, equipment and financial – required to properly complete the construction works- Prepare and present the operation’s estimated budget for approval by superior(s)- Establish the overall and provisional schedule and determine the return on investment (ROI) (ratios)- Set up consultations, analyze offers, negotiate conditions and draw up contracts together with the Purchasing Department - Place orders with sub-contractors and suppliers, together with the Purchasing Department- Initiate certification filing requests from sub-contractors- Ensure the full completion of construction studies (plans, design briefs, etc.) as well as the full optimization of these studies Monitoring of the building site’s construction- Organize, schedule and manage the construction works, and ensure proper contractual management- Participate in building site meetings and chair coordination meetings with sub-contractors/suppliers- Ensure that guidelines, standards and rules are applied, specifically concerning health and safety- Perform technical controls during construction (materials, production of materials on the building site, compliance with the plan, etc.) and decide on any corrections to be made- Ensure budget monitoring of construction works, analyze deviations from the estimated budget and optimize the results (income statement, earnings and cash position)- Ensure the appropriate formalities in case of any amendments to, or extension of, the construction works- Set the Site Supervisor’s objectives to guarantee delivery of the construction works in accordance with client practices (compliance with costs, quality and lead times)- Present construction works progress and issue monthly invoicing, establish requests for advances with the client; focus on their building site’s cash flow (invoices to be issued (“FAE”) and Receivables) Quality, Prevention, Security and Environment- Ensure full application of guidelines, procedures and rules to complete the construction works as well as overseeing individual and collective security on the building site- Monitor the quality of the completed construction works within planned lead times- Manage environmental constraints and ensure the full adoption of the corresponding measures- Organize the planned security prevention measures Delivery of the constructions- Request the acceptance of the works and obtain the contractual documentation (final general statement, acceptance statement, certificate of competency, etc.) in collaboration with the business manager- Resolve deviations and provide feedback- Establish and initiate invoicing, verifying sub-contractor statements and following up on collection together with the Finance and Accounting Manager (RAF) Where required, file a claim and submit it for approval to their line manager Business relations and business development- Ensure regular contact with known clients- Identify potential new opportunities and work on them with the relevant in-house departments- Manage changes to the initial workload and optimize the financial result SPECIFIC ACTIVITIES METAL CONSTRUCTION WORKS SUPERVISOROversee the mission of the Project Engineering Operations Manager (ROM), by managing the assembly and processes NUCLEAR WORKS SUPERVISORThe Nuclear Works Supervisor may operate in and outside of restricted areas. Their specific tasks are as follows:- Have all the nuclear training required to work on the relevant nuclear site (reactors, fuel cycle, research center, uranium chemistry, etc.)- Check the credentials of their assigned workforce- Ensure that the construction works completion file and all related documentation are available on the building site as per the latest applicable index- Ensure that the fieldwork monitoring files (DSI) are completed and signed by the authorized persons and that no work phase can be undertaken if the previous stop point is not signed- Ensure teams’ radiation safety- Ensure teams’ management of fieldwork reliability (PFI)- Monitor the operational dosimetry of their teams in restricted areas- Initiate and manage feedback processes on completed building sites, and spearhead continuous improvement processes with their teams DEMOLITION/DECONTAMINATION WORKS SUPERVISOR- Receive waste tracking slips- Update global waste records- Complete sub-section 3 Technical supervision training- The following points apply to the Asbestos Works Supervisor or Demolition and Asbestos Works Supervisor- Understand the characteristics and properties of asbestos and its effects on health- Understand the maximum fieldwork period in a confined area based on set instructions- Understand procedures for containment and collective protection- Understand the performance limitations of Personal Protective Equipment (PPE)- Understand exposure and dust levels for the applied processes (asbestos, silica, etc.)- Understand aeraulic performance calculations (asbestos)- Establish an asbestos sampling strategy and send to the Occupational Physician- Program the analyses according to the defined strategy and construction work schedules.- Monitor the completion of the analyses on-site and perform quality assurance on analytical reports- Notify the Technical Manager in the event of accidental exposure or a breach in regulations JOB REQUIREMENTSSignificant experience as a Site Supervisor or Works Engineer AuthorizationsAuthorizations may be required based on the position heldH0-B0 electrics authorization JOB ENVIRONMENTReporting line: Site Manager, Works Director, Operational Manager, Sector Manager Internal relations: Engineering Consultants, Support Department, Site Supervisors, Team Leaders, Journeymen, etc. External relations: sub-contractors and co-contractors, clients, Design Consultants – Engineering Consultants, suppliers, local residents, work inspectorate, CARSAT, OPPBTP, etc.Vous êtes issu(e) d’une Ecole d’Ingénieur en dernière année d’études ou d’une formation Bac+5 avec une spécialisation en génie civil ou travaux publics. Vous souhaitez vous former à un métier d'ingénieur du Bâtiment et des Travaux Publics.Vos stages et expériences professionnelles vous ont permis de côtoyer les entreprises de Travaux Publics.Dynamique, organisé(e) et rigoureux(se), votre adaptabilité vous permettra de mener à bien vos missions et de vous familiariser avec notre activité.