Forum emploi SFP

[Autre] CUHK-Shenzhen Long Feng Science Forum 2026 Global Young Scholars' Forum August 28-30, 2026 à The Chinese University of Hong Kong, Shenzhen

Thu, 23 Jul 2026 17:53:10 +0200

CUHK-Shenzhen Long Feng Science Forum

2026 Global Young Scholars' Forum

August 28-30, 2026

“2026 Global Young Scholars' Forum” welcomes all young talents and rising stars in various disciplines to share research results and experiences through academic talks. We are actively hiring. The forum is a crucial part of our faculty recruitment process. Please join the forum to explore opportunities.

Application Requirement:

Have obtained (or will obtain within one year) a Ph.D. degree from a reputable university at home or abroad.
Have made significant achievements in the research fields of one of the four sub-forums:

Electrical and Computer Engineering:

Robotics and Embodied AI
Devices and Microelectronics
Intelligent Energy Engineering
Networks and Communication System

Mathematics:

Partial Differential Equations
Computational and Applied Mathematics
Algebra, Geometry, Topology
Financial Mathematics, Financial Engineering

Physics:

High-energy Experimental Physics
Quantum Materials and Condensed Matter Physics
AI for Physics

Materials, Chemistry and New Energy:

Organic Synthesis Chemistry
Polymer (composite) Materials and Intelligent Manufacturing
Luminescent Materials and Aggregate Science
New Energy Materials and Catalysis

This forum will be held online via Zoom from August 28 to 30, 2026.

Registration Deadline: August 8, 2026

Invited guests will be notified before August 14, 2026.

Please scan the QR code or visit the link below to register.

Candidater

[Autre] Tenure-track Faculty Positions in School of Physical Science and Technology à ShanghaiTech University

Thu, 23 Jul 2026 17:53:10 +0200

Tenure-track Faculty Positions in School of Physical Science and Technology (ShanghaiTech University)

Job Type：

Tenure-track Faculty

Novel electronic materials for information science

Quantum computation and quantum technology

Energy chemistry and biochemistry

Qualifications:

This search is open to candidates in all broadly defined areas of Materials， Physics and Chemistry. Competitive candidates should have a Ph.D., an outstanding record of research accomplishments, an innovative future research plan, an ability to achieve teaching excellence at both the undergraduate and graduate levels, and a commitment to fostering a diverse and inclusive community in the practice and teaching of science. The successful candidates will be expected to have excellent academic achievements, teach graduate and undergraduate courses, and a commitment to university service and public outreach. SPST provides an inclusive environment for all employees and welcomes applications from candidates of diverse background.

Novel electronic materials for information science

Quantum computation and quantum technology

Energy chemistry and biochemistry

Tenure-track faculty: Assistant Professor or Associate Professor

- The applicant should have a doctorate degree.

- The applicant promises to work full time at SPST upon acceptance of the offer.

Offer Package：

University will provide initial start-up fund and research lab space matching the research needs. Starting salary will be competitive and commensurate with qualifications and experience. We offer a comprehensive benefits package including health and retirement benefits as well as housing renting at a reduced rate.

Candidater

[Autre] Faculty Positions (Physical Science and Technology) in ShanghaiTech University à ShanghaiTech University

Thu, 23 Jul 2026 17:53:10 +0200

School of Physical Science and Technology (SPST):

Officially approved to open on September 30th 2013 by China’s Ministry of Education, ShanghaiTech University is a small-scale research university jointly established by Shanghai Municipal Government and Chinese Academy of Sciences (CAS), which located at Zhang-Jiang High-Tech Park in Shanghai, China. ShanghaiTech focuses on science and engineering with expected enrollment of 4,000 graduate and 2,000 undergraduate students.

The School of Physical Science and Technology (SPST) at ShanghaiTech University aims to create an environment that embodies the future of academic research and talent cultivation. At the heart of SPST are our faculty, staff, and students, who are dedicated to solving major challenges in materials, energy, and the environment.

Academic Disciplines:

Materials： Smart Materials，Atomic-level Manufacturing，Multiscale Representations，Energy Materials and Devices

Physics： Condensed Matter Physics， Computational Physics， Photonics Science，Theoretical Physics and Astrophysics

Chemistry：Chemical Biology，Physical Chemistry，Catalytic Chemistry，Synthetic Chemistry and Medicinal Chemistry

Qualifications:

This search is open to candidates in all broadly defined areas of Materials，Physics and Chemistry. Competitive candidates should have a Ph.D., an outstanding record of research accomplishments, an innovative future research plan, an ability to achieve teaching excellence at both the undergraduate and graduate levels, and a commitment to fostering a diverse and inclusive community in the practice and teaching of science. The successful candidates will be expected to have excellent academic achievements, teach graduate and undergraduate courses, and a commitment to university service and public outreach. SPST provides an inclusive environment for all employees and welcomes applications from candidates of diverse background.

Tenure-track faculty: Assistant Professor or Associate Professor

- The applicant should have a doctorate degree.

- The applicant promises to work full time at SPST upon acceptance of the offer.

Application Procedure:

Applications should include curriculum vitae, a 3 pages statement of research interests and the names of three individuals who can serve as references for the candidate. These materials should be sent to Dr. Zhou Qing (email: SPST@shanghaitech.edu.cn).

Center for Transformative Science (CTS):

Center for Transformative Science (CTS) is a new interdisciplinary institute of ShanghaiTech University. At CTS, we solve complex real-world problems using cutting edge big science facilities and instruments; we invent next generation powerful tools used by scientists; we cultivate scientists and innovations to explore matter in new ways. For detailed information, please visit us at http://cts.shanghaitech.edu.cn/.

CTS is planning to establish 20-25 independent research laboratories in the near future. Each laboratory has multiple openings at various levels such as Co-PI/Research Professor/Research Associate Professor/Research Assistant Professor. Excellent candidates could be employed as tenure-track/tenured Professors together with School of Physical Science and Technology (SPST), School of Information Science and Technology (SIST), School of Life Science and Technology (SLST), etc.

Academic Disciplines:

Excellent applicants in all fields are welcome to apply. Applicants in the following areas are encouraged but not limited:

1. Theory and simulation of photon-matter interactions, particularly its applications in ultrafast laser/X-ray spectroscopy.

2. Novel methods for characterizing, accessing, and manipulating amorphous materials and biological materials.

2. Coherent diffraction imaging and its applications in free electron laser, synchrotron radiation, and electron microscopy; Super-resolution fluorescence microscopy and its applications.

3. New in-situ and operando characterization method development for synchrotron radiation and X-ray free electron laser and its applications in energy science and life science

4. Pixel array x-ray/electron detectors and big data analysis.

Qualifications:

1. With excellent academic and scientific research background, applicants should have a doctoral degree in science and engineering, generally with postdoctoral experience.

2. With innovative and independent ideas and research ability, applicants should be able to set up an independent research group, with good teamwork ability.

3. Experience in large science project or interdisciplinary research is preferred.

Application Procedure:

Submit a cover letter, a 2-page research plan, a CV plus copies of 3 most significant publications, and names and contacts of three referees in English with PDF version to hiring.cts@shanghaitech.edu.cn

Candidater

[Autre] Faculty Positions (Physical Science and Technology) in ShanghaiTech University à ShanghaiTech University

Thu, 23 Jul 2026 17:53:10 +0200

School of Physical Science and Technology (SPST):

Academic Disciplines:

Materials： Smart Materials，Atomic-level Manufacturing，Multiscale Representations，Energy Materials and Devices

Physics： Condensed Matter Physics， Computational Physics， Photonics Science，Theoretical Physics and Astrophysics

Chemistry：Chemical Biology，Physical Chemistry，Catalytic Chemistry，Synthetic Chemistry and Medicinal Chemistry

Qualifications:

This search is open to candidates in all broadly defined areas of Materials，Physics and Chemistry. Competitive candidates should have a Ph.D., an outstanding record of research accomplishments, an innovative future research plan, an ability to achieve teaching excellence at both the undergraduate and graduate levels, and a commitment to fostering a diverse and inclusive community in the practice and teaching of science. The successful candidates will be expected to have excellent academic achievements, teach graduate and undergraduate courses, and a commitment to university service and public outreach. SPST provides an inclusive environment for all employees and welcomes applications from candidates of diverse background.

Tenure-track faculty: Assistant Professor or Associate Professor

- The applicant should have a doctorate degree.

- The applicant promises to work full time at SPST upon acceptance of the offer.

Application Procedure:

Center for Transformative Science (CTS):

Academic Disciplines:

Excellent applicants in all fields are welcome to apply. Applicants in the following areas are encouraged but not limited:

1. Theory and simulation of photon-matter interactions, particularly its applications in ultrafast laser/X-ray spectroscopy.

2. Novel methods for characterizing, accessing, and manipulating amorphous materials and biological materials.

2. Coherent diffraction imaging and its applications in free electron laser, synchrotron radiation, and electron microscopy; Super-resolution fluorescence microscopy and its applications.

3. New in-situ and operando characterization method development for synchrotron radiation and X-ray free electron laser and its applications in energy science and life science

4. Pixel array x-ray/electron detectors and big data analysis.

Qualifications:

1. With excellent academic and scientific research background, applicants should have a doctoral degree in science and engineering, generally with postdoctoral experience.

2. With innovative and independent ideas and research ability, applicants should be able to set up an independent research group, with good teamwork ability.

3. Experience in large science project or interdisciplinary research is preferred.

Application Procedure:

Candidater

[Contrat doctoral] Thèse 2026: Modélisation des transformations microstructurales dans les aciers automobiles assemblés par soudage laser à Centre de Mise en Forme des Matériaux (CEMEF)

Wed, 15 Jul 2026 17:53:08 +0200

Ce projet de doctorat CIFRE, mené en partenariat avec Arcelor Mittal (site de Montataire), vise à développer des outils prédictifs des transformations métallurgiques intervenant lors du soudage laser des aciers automobiles.

L’objectif est de limiter la formation de phases indésirables et de défauts métallurgiques, afin d’optimiser l’opération de soudage et les propriétés mécaniques de l’assemblage final. Il s’agira, à cet effet, de pouvoir coupler des modèles de simulation thermohydrauliques du soudage laser, aux évolutions microstructurales induites, à une échelle fine.

Dans ce cadre, les travaux de thèse visent, ainsi, à développer et valider un outil de modélisation numérique permettant de prédire et maîtriser les microstructures des soudures laser réalisées sur des aciers automobiles revêtus, en fonction, notamment, des conditions de solidification et des vitesses de refroidissement. A terme, le projet vise à contribuer à la mise en place d’une solution logicielle accessible aux utilisateurs industriels, offrant un accès direct aux résultats et aux outils issus de ces travaux de recherche.

Ce projet de recherche se réalisera dans le cadre d’un doctorat CIFRE, en partenariat direct avec Arcelor Mittal (site de Montataire). Dans ce cadre, un suivi continu et des interactions régulières avec Arcelor Mittal sont attendues, pour progresser vers les objectifs affichés.

Ce projet vise, ainsi, à amener à une meilleure maitrise du soudage laser des aciers automobiles, en réponse aux problématiques industrielles affichées. Le doctorant.e recruté.e sera, en conséquence, amené à développer des compétences fortes dans le domaine de la modélisation numérique des procédés industriels.

Ce projet représentera, à terme, une avancée technologique indéniable dans la maitrise des assemblages laser des tôles automobiles.

plus de détail ici :

https://www.cemef.minesparis.psl.eu/wp-content/uploads/2026/06/These_v2026_Arcelor_Mittal.pdf

Profil recherché :
Ingénieur ou Master 2, dans les domaines du numérique, des matériaux, de la mécanique ou des mathématiques appliquées. Etudiant(e) attiré(e) par les problématiques liées à la modélisation et la simulation numérique des phénomènes physiques en science de l’ingénieur, en contexte industriel.

Candidater

[Contrat doctoral] 2026-2988 THESE - COMPORTEMENT D'UN PARC DE BATIMENTS EXISTANTS EN MACONNERIE H/F à CSTB

Wed, 15 Jul 2026 17:53:08 +0200

La Direction Sécurité, Structures et Feu du CSTB recherche un(e) Ingénieur(e) doctorant(e) dans le cadre de travaux sur le sujet suivant : Modélisation des performances mécaniques et du comportement structural probables des bâtiments en maçonnerie pour des applications à l’échelle du parc.

En France, une partie importante du parc bâti en maçonnerie est ancien et nécessite des travaux réguliers d'entretien ou de rénovation. Ces bâtiments restent très largement appréciés pour leur robustesse, leur longévité et leurs qualités architecturales. Toutefois, une partie du parc ancien présente des pathologies (fissures, tassements différentiels, dégradation des matériaux liée au vieillissement…). Les enjeux actuels concernent donc nos capacités à analyser l'état de ces bâtiments afin de prendre des décisions quant à leur renforcement, leur adaptation aux exigences de sécurité et de performance actuelles.

L’objectif principal de la thèse est d’améliorer les connaissances sur le bâti existant en maçonnerie, en passant par trois étapes.

Une première étape à ne pas sous-estimer est la recherche bibliographique afin de faire un panorama de l’ensemble des données pertinentes qui peuvent être disponibles (données géographiques, géologiques, historiques, architecturales, infrastructurales …) à l’échelle d’un quartier ou d’une habitation, et de compiler toutes les règles ou typologies de règles historiques de construction et abaques disponibles pour mieux comprendre le bâti antérieur au contexte normatif et réglementaire actuel. Cette recherche concernera une collectivité à définir pour limiter les typologies constructives, et pourra s’appuyer sur des ressources spécialisées (en ligne ou à la bibliothèque d’architecture contemporaine Jean-Louis Cohen par exemple).
Une deuxième étape consistera à développer une méthode d’estimation de l’état du bâti à partir de ces données et éventuellement de données supplémentaires à acquérir, afin de pouvoir proposer des cartes de vulnérabilité structurale aux collectivités intéressées. Cette méthode passera notamment par la détermination probabiliste des propriétés mécaniques des matériaux et du mode constructif (notamment à l’aide des informations obtenues à la première étape), et leur exploitation par des modèles de calcul de maçonnerie existants.
Enfin, une troisième étape sera consacrée à la confrontation de la méthode à la réalité à travers une étude de cas afin de dessiner ses limites de validité. Cette vérification pourra s’appuyer sur les données produites par la collectivité à laquelle la méthode est appliquée. Pour cela, l’application à un parc donné se fera en exploitant les données pertinentes (date de construction, épaisseur théorique et composition probable des murs etc.) de la Base de Données Nationale des Bâtiments (BDNB), et en comparant les résultats aux données de la collectivité visée (arrêtés de mise en sécurité par exemple).

Profil recherché :
Vous êtes titulaire d'un diplôme de niveau BAC+5, type Master en mécanique des matériaux et structures ou en génie civil. Vous disposez de connaissances en ingénierie mathématique et informatique (programmation, modélisation, probabilités, optimisation et SQL). Vous avez une appétence pour l’histoire de l’architecture.

Candidater

[Stage] Polymers derived from micro-algae: potential building blocks for the preparation of biomaterials à Centre de Mise en Forme des Matériaux (CEMEF)

Wed, 15 Jul 2026 17:53:07 +0200

Biomaterials made from natural polymers present several advantages over synthetic biomaterials, including intrinsic biocompatibility and reduced environmental impact. Micro-algae have emerged as an attractive source of natural polymers thanks to their rapid growth, environmental adaptability and bioactive properties.

The goal of this internship is the preparation of biomaterials using polymeric building blocks extracted from micro algae. The selected intern will initially work at CarbonWorks for a short period to extract polymers from micro-algae. Subsequently, the extracted polymers will be characterized at CEMEF (e.g. molecular weight, chemical composition, ...).

Efforts will then be made to transform the bio-based polymers into materials with potential biomedical use at CEMEF. The obtained biomaterials will be characterized for e.g. biomedical and material properties at CEMEF.

see more here :

https://www.cemef.minesparis.psl.eu/wp-content/uploads/2026/06/Internship-offer-CEMEF-CarbonWorks.pdf

Profil recherché :
Application: The position is for a student preparing Master degree. Skills: background in polymer chemical physics (basics in polysaccharides is a plus), capability to work in group, fluent in English, motivation and sense of initiative and capability to report regularly on the work performed. Stipend: about 700 €/month. Location: CarbonWorks (located in Libourne, France, approximately 20 % of the time) and the Center for Materials Forming (CEMEF) of MINES Paris - PSL (located in Sophia Antipolis, France, approximately 80 % of the time). Starting date: Autumn 2026 for a period of 6 months. Application: Please send your CV, a cover letter, and a list of your study grades to Dr. Sijtze Buwalda: sijtze.buwalda@minesparis.psl.eu

Candidater

[Contrat doctoral] Virtual laboratory for microcracks prediction in refractory materials à Université de Limoges - IRCER

Wed, 15 Jul 2026 17:53:07 +0200

Objectives: To develop digital modelling tools supporting refractory digital twins in order to investigate the
relationships between microstructure, processing routes and thermomechanical performance. The work will combine physics-based approaches and numerical simulations, including thermo-mechanical coupling, damage evolution and anisotropic behaviours. These developments will lead to a virtual digital framework able to provide predictive indicators, virtual testing and decision-support for lifetime and performance assessment, in connection with REFFRACTEUR data architectures. These developments will be integrated to the free DEM software GranOO.

Expected Results: Validation of the digital twin approach against experiments through (i) thermo-mechanical
quantities such as CTE, Young’s modulus, Poisson’s ratio, stress-strain law, fracture energy) and (ii) microcrack
initiation, closure and coalescence under thermo-mechanical loading dynamically observed by SEM/microtomography. A validated virtual lab will provide predictive indicators and virtual tests.

Profil recherché :
Master’s level in Materials Science and/or Computational Methods in Mechanical Engineering. Excellent skills for numerical method applied to mechanics. A good knowledge in material science and their associated experimental characterisation technics is also expected. Oral and written communication skills (English) are also required. Some experiences in Python and/or C++ programming will be appreciated.

Candidater

[Contrat doctoral] Optimisation du processus de microfabrication de micropiliers pour le Fan-Out Wafer Level Packaging (FOWLP) à Institut interdisciplinaire d'innovation technologique - Université de Sherbrooke

Wed, 15 Jul 2026 17:53:07 +0200

Contexte :

Les technologies de packaging avancées sont cruciales pour l'évolution de la microélectronique, améliorant les performances grâce à l'intégration hétérogène. Les méthodes traditionnelles peinent à répondre aux exigences de l'informatique haute performance, de l'IA, de l'aérospatiale et de la défense. Avec la demande croissante pour l’intégration hétérogène multi-puces utilisant la configuration avancée du Fan-Out Wafer-Level Packaging (FOWLP), il y a un grand intérêt à réduire le pas d’interconnexion die-to-wafer, puiqu’un pas ultrafin permet des circuits plus simples et plus efficaces, réduisant ainsi la consommation d’énergie et la complexité de conception. Cependant, la réduction de la taille de microbilles de soudures à un tel pas pose de nouveaux défis, notammentent en termes de force thermomécanique, de résistance à l’électromigration et de contrôle des déformations. De plus, un défi majeur dans les processus FOWLP multi-puces est d’assurer une haute précision de placement des puces pendant le procédé d’assemblage flip-chip die-to-wafer (D2W), car les positions des microbilles (contact-pad) doivent correspondre aux masques de la couche de redistribution (RDL). Nous proposons donc ce projet de thèse visant à développer des interconnexions verticales à haute densité (pas < 30 μm) compatibles avec un environnement industriel d’assemblage D2W pour l’intégration hétérogène de multi-puces.

Sujet : Cette thèse vise à concevoir un procédé de fabrication avancé pour créer des micro-bosses de soudure hétérogènes, ductiles et à pas fin, qui sont essentielles pour l’assemblage flip-chip de puces actives sur des wafers reconstitués. La personne retenue sera chargé de: (i) réaliser une revue de littérature sur la fabrication des microbilles de soudures, en se concentrant spécifiquement sur les exigences pour produire des micropillars Cu/Ag/Sn ultrafins ; (ii) optimiser les processus de microfabrication pour définir les motifs des micropiliers dans la salle blanche, incluant des techniques de lithographie, d’alignement et d’exposition précises ; (iii) optimiser les paramètres de l’électro placage pour créer des micropilliers à pas fin ; (iv) développer les conditions du procédé d’assemblage par thermocompression TCB-D2W (pression, température de la tête et du substrat) adaptées à la structure unique des micropilliers (v) réaliser des caractérisations morphologiques pour mesurer et analyser l’uniformité et la qualité des micropilliers sur différentes sections des wafers. À la fin de cette thèse, l’étudiant(e) aura établi(e) un nouveau type d’interconnexion conforme pour améliorer l’intégrité des systèmes microélectroniques avancés.

Profil recherché :
Profil recherché : • Spécialisation en nanotechnologie, microélectronique, physique, chimie, ou science des matériaux • Forte capacité d’adaptation, d’autonomie et de travail en équipe • Goût prononcé pour la conception, le travail expérimental en salle blanche, la recherche et le développement • Atouts : connaissances en micro-nanofabrication, l’assemblage et l’encapsulation de puces électronique

Candidater

[Contrat doctoral] Nouvelles métallurgies pour le collage hybride à basse température dans le packaging Fan-Out Wafer à Institut interdisciplinaire d'innovation technologique - Université de Sherbrooke

Wed, 15 Jul 2026 17:53:07 +0200

Contexte :

Les technologies de packaging avancées sont au cœur de la révolution microélectronique, essentielles pour des domaines comme l’IA, l’aérospatiale et le calcul haute performance. Parmi elles, le Fan-Out Wafer-Level Packaging (FOWLP) se distingue par sa densité d’interconnexions et son efficacité spatiale, ouvrant la voie à des systèmes plus compacts et puissants. Le collage hybride, combinant diélectriques polymères et interconnexions métalliques, est une étape clé. Cependant, l’utilisation du cuivre pose des défis liés à l’oxydation et aux températures élevées. Ce doctorat propose d’explorer de nouvelles métallurgies pour un collage hybride à basse température, contribuant à la conception des technologies de demain. Vous évoluerez dans un environnement collaboratif et stimulant, au sein du 3IT et du C2MI, deux pôles d’excellence où chercheurs, étudiants et industriels innovent ensemble, offrant des opportunités uniques de développement et d’impact mondial.

Sujet : Cette thèse vise à explorer des alternatives au cuivre pour le collage métallique dans les procédés de collage hybride à base de polymères, afin de permettre un collage à basse température pour des applications de packaging avancé telles que le Fan-Out Wafer Level Packaging (FOWLP). Les objectifs incluent : 1. Réaliser une revue de littérature approfondie sur les défis liés à l’oxydation du cuivre et sur les métaux alternatifs permettant un collage à basse température. 2. Développer et caractériser des métallurgies alternatives prometteuses pour les interconnexions, en veillant à leur compatibilité avec le matériau diélectrique adhésif et à la minimisation de la résistance électrique. 3. Optimiser des stratégies de protection des interconnexions en cuivre (par exemple, couches barrières ou revêtements) pour prévenir l’oxydation et améliorer la mouillabilité. 4. Définir et mettre au point les conditions du procédé de collage die-to-wafer (D2W) adaptées pour obtenir une interface de collage fiable et performante. 5. Effectuer des caractérisations morphologiques, électriques et mécaniques complètes afin d’évaluer la qualité d’adhésion et la robustesse de l’interface de collage. À l’issue de cette thèse, le candidat aura établi un procédé innovant de collage hybride à basse température utilisant des métallurgies alternatives, contribuant ainsi à l’avancement des technologies d’interconnexions à haute densité pour les systèmes microélectroniques de nouvelle génération.

Profil recherché :
Profil recherché : Diplôme requis : Maîtrise en génie mécanique, nanotechnologies, matériaux, chimie ou domaine connexe. Compétences clés : Microfabrication, caractérisation des surfaces, connaissance en métallurgies et des polymères. Qualités personnelles: Autonomie, adaptabilité, esprit d’équipe, goût pour la recherche expérimentale et l’innovation. Atouts : Connaissance des procédés d’intégration et du packaging microélectronique avancé. Langues : Capacité à communiquer en français ou en anglais, à l’oral et à l'écrit.

Candidater

[Contrat doctoral] Modélisation multi-physiques de l’oxydation hautes températures de métaux - application aux alliages et configurations industrielles à frederic coste

Wed, 15 Jul 2026 17:53:07 +0200

Le PIMM et Air Liquide travaillent en commun depuis de nombreuses années sur le thème de la combustion des métaux en présence d’oxygène pur visant à accroître la sécurité et la fiabilité des procédés industriels actuels et futurs. Trois doctorats (2010-2013, 2018-2021, 2023-2026) ont permis en particulier de progresser dans la compréhension des mécanismes d’allumage d’une combustion en utilisant un dépôt d’énergie laser comme source thermique. La partie prédiction de la propagation de la combustion reste cependant encore lacunaire.

Le sujet proposé s’inscrit dans la continuité de ce travail et se propose d’aborder les points suivants :

1 Validation expérimentale fine du modèle de combustion du fer pur

1.1 Validation thermique/Fréquence de chute des gouttes pour des configurations complémentaires (pression O2, géométrie de l’échantillon)

1.2 Evaluation de la quantité d’O intégrée dans le barreau (mesure de masse)

1. Essais de radiographie à chaud/analyse chimique
Etude de géométries et de conditions plus réalistes du fer pur

2.1 Diamètre du barreau vs Epaisseur de la plaque

Par principe, le test ASTM G124 repose sur l’hypothèse que la combustion d’un barreau est représentative de la combustion d’une pièce plane de même épaisseur. Dans la précédente thèse nous avons montré, comme pré-sentis dans la littérature, que la propagation de la combustion est essentiellement guidée par l’équilibre thermiques du système. Or, le barreau et la plaque n’ont pas le même comportement thermique. Dans la présente étude, nous proposons de redéfinir la règle sur ce sujet. Pour ce faire, des simulations numériques seront réalisées pour différentes géométries, les seuils d’allumage seront identifiés à chaque fois et une loi de corrélation sera établie.

1. Loi de propagation en fonction de l’épaisseur du fer pur

A la suite des développements précédents, nous établirons une corrélation entre les vitesses de propagations de la combustion pour les barreaux et pour les plaques en fonction de l’épaisseur. L’idée étant de rendre le modèle plus proche des configurations industrielles réelles et utilisable pour Air Liquide.

2.3 . Effet de la pression sur la combustion du fer pur

La question de l’effet de la pression sur la combustion à également été effleurée durant la précédente thèse, nous proposons maintenant d’étudier plus finement le comportement de la combustion (augmentation de l’oxygène incorporé dans le métal, effet de seuil, …) sous de plus grandes pressions i.e. proches des configurations industrielles (autour de 100 bars) et nous envisageons de préparer la méthodologie pour extrapolerles résultats sur des configurations extrêmes (autour de 700 bars) afin d’ouvrir sur de nouvelles applications potentielles.

2.4 . Effet des conditions d’écoulement sur la combustion du fer pur

3. Ajout d’éléments d’alliage (Cr, Ni).

Pour faire suite à ces différentes analyses physiques, le sujet majeur de la thèse proposé ici sera l’incorporation dans le modèle actuel d’éléments d’alliages (en particulier le Cr, etNi ). Cela a pour vocation, de continuer la création de connaissance pour la communauté scientifique du domaine mais également de se rapprocher encore des configurations industrielles réelles qui font intervenir des alliages de type d’aciers inoxydables ou d’alliages à base de nickel.. Cette tâche est au cœur de la nouvelle thèse, elle intégrera toutes les différentes étapes et validations faites précédemment sur le fer pur, sur des alliage binaires, ternaires puis des matériaux réels. Il s’agit de l’action la plus risquée à cause de la complexité des réactions qui en découleront et fera l’objet d’une revue de la littérature poussée, d’essais et d’analyses spécifiques.

Profil recherché :
Le problème étant multiphysique (identification de la source thermique moteur de la réaction de combustion, les phénomènes de transport et de diffusion aux interfaces et dans le bain liquide), le-la candidat(e) doit disposer d’un master 2 (ou équivalent) dans le domaine physique/énergétique avec une forte composante en simulation multi physique (thermique, hydrodynamique, diffusion). Une première expérience en identification paramétrique (Méthode inverse) serait appréciée. Compte tenu du contexte industriel du sujet, capacité rédactionnelle, aisance aux présentations et à la vulgarisation et maîtrise de l’anglais sont indispensables.

Candidater

[Contrat doctoral] Special photosensitive glass for one-step 3D laser direct writing of photonic component à ICMCB-CNRS

Wed, 15 Jul 2026 17:53:07 +0200

The subject concerns the fabrication of micro-structured photonic materials for telecommunication photonic circuit, quanttum technology and data storage archival. Glass turns out to be a material of choice thanks to its intrinsic transparency if one can locally control the optical properties in 3D (refractive index, absorption, emission) and this at different scales: on the micron scale corresponding to that of the wavelength, but also on few tens of nanometers. 2D/3D nano-structuring will allow developing artificial materials with new or enhanced properties necessary for integrated optics. It would open the way to “freeform” optical systems that will combine different functions in a single component. Recently, several research groups have demonstrated that Laser glass interaction using specially designed photosensitive materials is a promising approach for developing 3D structured optical components.

The research program will be conducted at LIGHTTech on the campus of Bordeaux University (https://www.linkedin.com/company/lighttech-bordeaux/posts/?feedView=all). The center is equiped with state of the art micro and nano fabrication technology, fiber tower and advanced characterization facilities.

Femtosecond direct laser writing (FDLW) in glass containing photosensitive ions allows fabricating 3D photonic architectures for integrated optic application. However the existing materials are often not appropriate for FDLW. The project proposes to overcome most of the obstacles by developing original photosensitive glassy materials suitable for 3D or 4D manufacturing processes by femtosecond laser. The project will allow fabricating structured materials by using multiphoton printing processes to achieve a resolution as low as 50 nm to design new photonic functionalities in the different spectral ranges from visible to Mid-IR. Depending on the objective, the composition of the materials will be adapted to the targeted transparency domain.

The project proposed will focus on the development of adapted novel photosensitive oxide glass for fabricating 3D structured photonic component. The candidate with background on chemistry or material science will be part of a multidisciplinary consortium gathering physicists specialist in femtosecond laser interaction and chemists aiming to develop photosensitive materials and 3D structure. The PhD will focus on the development of photosensitive materials and the characterization of photo-induced 3D structures written by Laser.

Main aspects developed during the project:

Synthesis of new glass compositions

Fiber drawing of materials for infrared and mid-infrared.

Physicochemical and structural characterizations (Raman, NMR, luminescence, AFM, Electron microscopies: SEM, TEM, EDS, Auger).

Optical characterizations and laser functionality tests.

Profil recherché :
Candidate profile Master in matérial chemistry or material science

Candidater

[Contrat doctoral] Advanced ceramics for investment casting - Design for thermal shock resistance à Université de Limoges - IRCER

Wed, 15 Jul 2026 17:53:07 +0200

Objectives: Aiming to investigate how shell microstructure and cluster architecture affect thermal shock resistance in ceramic shell moulds. Advanced in-situ testing and multi-scale FEM modelling will be used to reveal key stress and damage mechanisms. The results will deliver predictive design rules and digital tools to support high-throughput casting strategy. In the long term, the developed numerical methodology must be integrated into the cluster design process.

Expected Results: Identification of critical thermal gradient thresholds; Definition of robust design rules for shell mould clusters ; Experimental validation of microstructure–thermal shock resistance; Multi-scale FEM models for crack risks; Delivery of digital twin with a certain level of validation; Proposal and assessment of new cluster architectures; Validation of optimised solutions through industrial trials.

Profil recherché :
Master’s level in Materials Science and/or Computational Methods in Mechanical Engineering. Candidates should be excellent in their skills for numerical method applied to thermo-mechanics, with some experiences. Familiarity with software such as Abaqus would be an advantage. Knowledge in material science, associated experimental characterisation techniques is also expected (experience with ceramic materials is appreciated). Oral and written communication skills (English) are also needed (experience with Finite Element Method software(s) is appreciated).

Candidater

[Contrat doctoral] Optimisation du processus de microfabrication de micropiliers pour le Fan-Out Wafer Level Packaging (FOWLP) à Institut interdisciplinaire d'innovation technologique - Université de Sherbrooke

Wed, 15 Jul 2026 17:53:07 +0200

Contexte :

Profil recherché :
Profil recherché : • Spécialisation en nanotechnologie, chimie, physique ou science des matériaux • Forte capacité d’adaptation, d’autonomie et de travail en équipe • Goût prononcé pour la conception, le travail expérimental en salle blanche, la recherche et le développement • Atouts : connaissances en micro-nanofabrication, l’assemblage et l’encapsulation de puces électronique

Candidater

[Autre] Tenure-Track Faculty Position in Materials Chemistry à Univ Notre Dame

Fri, 10 Jul 2026 17:53:09 +0200

The Department of Chemistry and Biochemistry at the University of Notre Dame expects to fill a tenure-track position in materials chemistry, particularly at the interface between physical and inorganic chemistry. Applicants at all ranks will be considered, with a preference for assistant professor-level candidates. Applicants must have a Ph.D. or equivalent. All candidates will be expected to contribute to the University's research, teaching, and service missions. Candidates will provide a cover letter, curriculum vitae, detailed research plan, and a statement of teaching philosophy and interests. Assistant professor-level applicants should also arrange for at least three letters of recommendation. All materials should be submitted to https://apply.interfolio.com/188873. Applications will be considered on a rolling basis but should be received by September 30, 2026, for full consideration.

The University of Notre Dame seeks to attract, develop, and retain the highest quality faculty, staff and administration. The University is an Equal Opportunity Employer, and does not discriminate on the basis of race, color, national or ethnic origin, sex, disability, veteran status, genetic information, or age in employment. Moreover, Notre Dame prohibits discrimination against veterans or disabled qualified individuals and complies with 41 CFR 60-741.5(a) and 41 CFR 60-300.5(a). We strongly encourage applications from candidates attracted to a university with a Catholic identity.

Candidater

[Autre] Director, High Energy Physics Division à Argonne National Laboratory

Fri, 10 Jul 2026 17:53:09 +0200

Argonne National Laboratory invites applications for the position of Director of the High Energy Physics (HEP) Division, a core research division within the Physical Sciences and Engineering Directorate. The HEP Division advances discovery at the frontiers of particle physics, cosmology, and theory, with the mission of understanding the fundamental constituents of matter and energy and revealing the nature of space and time. The Division plays leading roles in the conception, construction, and operation of some of the world’s most sophisticated scientific instruments, including particle accelerators, large-scale detectors, and precision cosmological survey facilities.
HEP research at Argonne integrates experimental, theoretical, and computational science. Division researchers leverage advanced computing capabilities for extreme-scale simulation and data analysis and develop methods to manage and interpret the vast data streams produced by modern experiments. Theoretical efforts complement these activities by driving conceptual advances and guiding experimental discovery.

Because High Energy Physics projects often involve large, complex collaborations spanning multiple institutions and nations, national laboratories play a uniquely critical role. The Division Director will provide scientific leadership, strategic vision, and operational stewardship for an internationally recognized research portfolio, while strengthening partnerships across the national laboratory system, universities, and global collaborations. This role includes developing and executing a compelling research vision aligned with Argonne’s mission and U.S. Department of Energy (DOE) priorities, strengthening external partnerships, and ensuring excellence in safety, organizational performance, and alignment with Argonne’s Core Values.

Key Responsibilities
• Provide visionary leadership to define and advance the Division’s scientific strategy and research priorities.
• Lead the development of ambitious, cohesive research agendas that leverage HEP and Argonne strengths to address foundational questions in particle physics, cosmology, and theory.
• Champion interdisciplinary research and partnerships across Argonne, academia, industry, government agencies, and international collaborations to enhance scientific impact.
• Manage Division operations, including research execution, staffing and talent development, financial planning, resource allocation, and performance evaluation.
• Foster a culture of collaboration and safety that enables scientists and staff to thrive.
• Serve as a principal advocate and spokesperson for the Division’s science to DOE sponsors, funding agencies, stakeholders, and the broader scientific community.
• Serve as the laboratory point of contact for DOE High Energy Physics.
• Develop and maintain relationships with multiple funding sources and strategic partners.
• Ensure compliance with federal, state, and laboratory policies and uphold high standards of scientific integrity, environmental stewardship, safety, and security.
• Serve on Argonne-wide and external committees to promote laboratory science programs and strategic perspectives.

Basic Qualifications
• Ph.D. in a relevant science or engineering field, supplemented by at least 15 years of experience that includes demonstrated accomplishments in scientific leadership.
• Demonstrated success in setting scientific direction, building and sustaining high-performing teams, and fostering interdisciplinary and collaborative research programs.
• Distinguished record of research accomplishments and the ability to secure competitive external funding.
• Excellent communication and interpersonal skills, with experience engaging senior leadership, government sponsors, and scientific peers.

Preferred Qualifications
• Experience in a leadership role within a national laboratory, research institute, or academic setting.
• Established relationships with DOE Office of Science programs and knowledge of federal research priorities in high energy physics and related fields.
• Track record of leading large-scale research initiatives, partnerships, and impact-oriented scientific agendas.
• Commitment to mentoring scientists and promoting a collaborative and high-performing research environment.

Applications should include a comprehensive curriculum vitae and a cover letter describing interest in the role, relevant leadership experience, and key credentials and accomplishments. We offer a competitive salary and an excellent benefits package. For consideration, please apply via our website at: http://www.anl.gov/hr/careers, refer to requisition #422916 or at High Energy Physics Division Director.

Candidater

[Autre] Tenure-track Assistant Professors à Okinawa Institute of Science and Technology Graduate University (OIST)

Fri, 10 Jul 2026 17:53:09 +0200

Open Faculty Positions

The Okinawa Institute of Science and Technology is an international, interdisciplinary graduate university in Japan, operating entirely in English and committed to empowering world-class researchers with the freedom, resources, and support they need to drive transformational discoveries.

We are seeking outstanding scientists to join our community as tenure-track faculty members, as part of an expansion in two broad areas. We aim to appoint two tenure-track assistant professors in each area:

Chemistry & Materials Science: broadly defined as including the physical sciences
Life Sciences & Neuroscience: including theoretical and AI approaches

We provide:

Core research funding for your scientific vision
Fully funded PhD students, postdoctoral researchers, lab technicians, and staff scientists
World-class core facilities and support staff
Opportunities for amplifying your scientific impact (e.g., technology transfer, outreach, collaborations, etc.)
Full administrative support and assistance with living and working in Okinawa
Competitive compensation package, including housing and commuting allowances, relocation support, family benefits, and dual-career opportunities

Our culture and environment:

No faculty hierarchies or departments
A thriving international research community representing 73 countries and territories
A vibrant, safe, multicultural setting on the beautiful island of Okinawa

Our Scientific Vision

OIST empowers faculty to pursue fundamental, curiosity-driven research while encouraging connections across disciplines. Our faculty publish in top-tier journals, lead international collaborations, and attract prestigious fellowships. We support researchers not only as scientists but also as mentors, leaders, and innovators.

To promote scientific excellence through a diverse and inclusive community, OIST actively encourages applications from women and other underrepresented groups. We provide a family-friendly working environment, including a bilingual child development center on campus.

Application documents (in English):

Cover letter
CV, with a lay summary of three publications of note
Research statement (up to 4 pages, minimum 11-point font, excluding references)
Teaching and mentoring statement (1 page)
Three letters of recommendation (to be uploaded by referees)

Deadline: October 1, 2026, at 12:59 PM JST, UTC+9:00

The starting date is negotiable.

Apply here: https://www.oist.jp/careers/faculty-positions

Inquiries:

Julia Khusnutdinov

Interim Associate Dean of Faculty Affairs

faculty-recruiting@oist.jp

Candidater

[Autre] Faculty Positions in Westlake University à Westlake University

Tue, 07 Jul 2026 17:53:09 +0200

ABOUT US

Westlake University is a non-profit, research-oriented university founded by leading scientists and supported by both public and private funding. Located in Hangzhou, one of China’s most vibrant innovation hubs, the University is committed to advancing fundamental and frontier research, fostering interdisciplinary integration, and cultivating future leaders in science and technology.

With two campuses now in full operation, Westlake University offers a dynamic research environment supported by state-of-the-art facilities and strong institutional backing for research initiatives. An internationally aligned tenure-track and tenured faculty system provides clear and predictable career pathways, empowering scholars to pursue ambitious research and achieve professional growth.

Comprising the School of Science, the School of Engineering, the School of Life Sciences, and the School of Medicine, the institution fosters an open, diverse, and globally oriented academic ecosystem dedicated to original inquiry and long-term scholarly impact.

CAREER OPPORTUNITIES

Faculty Positions are open at four distinct ranks: Assistant Professor, Associate Professor, Full Professor, and Chair Professor.

Each faculty member will receive an internationally competitive salary and a fringe benefits package that includes a generous housing option, a high-end medical care plan for the entire family, generous retirement pension, and schooling assistance for children.

Each faculty member is provided with an internationally competitive start-up package that includes long-term and sufficient research funds, ample laboratory space, excellent equipment and research support. Stable financial support safeguards every research project that is designed to push the envelope of human knowledge.

The research disciplines include, but are not limited to: all major branches of engineering, life sciences, medicine, mathematics, chemistry, physics, and interdisciplinary fields. For more information, please visit: https://en.westlake.edu.cn/

REQUIRED DOCUMENTS

Please send the following application documents in PDF format to talents@westlake.edu.cn

- Cover Letter

- Curriculum Vitae & your up-to-date CV with publication list

- Statement of Research Summary and Research Proposal (3-5 pages)

REFERENCE REQUIREMENTS

For junior candidates who apply to tenure-track positions, 3 letters of reference should be arranged to be sent by referees directly to talents@westlake.edu.cn.

CONTACTS

Office of Human Resources, Westlake University

Yungu Campus Address: 600 Dunyu Road, Sandun Town, Xihu District, Hangzhou, Zhejiang Province 310030, CHINA

Yunqi Campus Address: 18 Shilongshan Road, Cloud Town, Xihu District, Hangzhou, Zhejiang Province 310024, CHINA

Review of applications will start upon receipt and will continue until the positions are filled.

For exceptional applicants recommended by the faculty search committee, we will schedule interviews immediately.

Candidater

[Autre] Visiting Professor à The Institute for Solid State Physics, The University of Tokyo

Thu, 02 Jul 2026 17:53:09 +0200

Visiting Professor Positions

The Institute for Solid State Physics
The University of Tokyo, Japan

The Institute for Solid State Physics (“ISSP”) of the University of Tokyo invites applications for its Visiting Professor positions, as part of its efforts to promote research collaboration with external researchers. Up to five positions are expected to be filled, with appointment terms ranging from three to twelve months. The specific appointment dates, which will start at the earliest in September 2027, will be determined in discussion with the host professor. We are seeking applicants from areas where the applicants and ISSP researchers can collaborate based on their mutual interest, the result of which is expected to contribute to significant scientific advancement. At ISSP, many research activities are conducted in the areas of condensed matter physics, but related projects may also be considered.

Successful candidates must demonstrate academic and scientific excellence, as well as timeliness and good interpersonal skills to get along well with ISSP colleagues.

For application or more information about the openings, including salary and other employment conditions, please first contact an ISSP faculty member that could become an appropriate host. After discussions, you will need to submit the following documents to your prospective host by no later than July 31, 2026:

CV
List of publications
Brief outline of research proposal
Three names of reference

No applications will be accepted after the deadline. The applications received will be reviewed by the Selection Committee in its 2026 fall meeting.

Please note that the Visiting Professorship position at ISSP has an employment status. In accordance with the University's employment procedures, you will need to provide a letter from your home institution confirming your commitment to engage in activities related to UTokyo during your stay with us.

To promote diversity and inclusion within the institute, ISSP welcomes and encourages applications from foreign female researchers.

According to the Foreign Exchange and Foreign Trade Act (FEFTA) and other regulations, if you hold a concurrent position with an overseas organization or receive a substantial amount of income from a foreign government or other sources that restrict the sharing of your research skills and outcomes at UTokyo, you may have difficulty fulfilling your responsibilities as a member of the UTokyo faculty. Any subsequent dual employment and others after assuming the position should be limited to the extent that it does not interfere with the sharing of research skills and outcomes at UTokyo.

Candidater

[Autre] Visiting Professor à The Institute for Solid State Physics, The University of Tokyo

Thu, 02 Jul 2026 17:53:09 +0200

Visiting Professor Positions

The Institute for Solid State Physics
The University of Tokyo, Japan

Successful candidates must demonstrate academic and scientific excellence, as well as timeliness and good interpersonal skills to get along well with ISSP colleagues.

CV
List of publications
Brief outline of research proposal
Three names of reference

No applications will be accepted after the deadline. The applications received will be reviewed by the Selection Committee in its 2026 fall meeting.

To promote diversity and inclusion within the institute, ISSP welcomes and encourages applications from foreign female researchers.

Candidater

[Autre] Professor of Solid-State Materials à ETH Zurich

Sat, 27 Jun 2026 17:53:09 +0200

Professor of Solid-State Materials

The Department of Chemistry and Applied Biosciences (www.chab.ethz.ch) at ETH Zurich and the PSI Center for Neutron and Muon Sciences (CNM, www.psi.ch/en/cnm) at the Paul Scherrer Institute (PSI), Villigen (www.psi.ch) invite applications for a joint professorship in Solid-State Materials.

The new professor will lead, in a joint appointment with ETH Zurich, the Laboratory for Multiscale materials eXperiments (LMX) in CNM, and will thus benefit from the access to PSI’s unique large-scale experimental facilities and analytical infrastructure infrastructure (Swiss spallation neutron source SINQ, Swiss muon source SµS, Swiss light source SLS, and the Swiss free electron laser SwissFEL). An excellent international record of research accomplishments in the following areas is anticipated (non-exhaustive list): materials discovery, advanced structural characterization, electronic materials, and quantum materials, 2D-materials and their applications in electronic and optoelectronics.

The research programme at the interface of inorganic chemistry, condensed matter physics, and materials science may include design, synthesis, characterization and applications of solid-state inorganic materials. High-quality, single-crystalline materials may be produced using a wide range of synthetic approaches, including solid-state, flux, chemical vapor deposition, and thin-film growth methods. The materials scope could cover high-quality single-crystalline materials from bulk crystals to thin films and heterostructures to 2D materials, to drive the discovery of novel materials offering transformative potential for devices in quantum technologies, neuromorphic computing, energy harvesting, and optoelectronics. Avenues for characterization methods may include X-ray, scattering, total- and diffuse scattering methods, advanced solid-state NMR, and electronic and spin spectroscopy using neutron and muon spin rotation techniques. Highly welcome are research programs that foster synergies with the Paul Scherrer Institute's facilities (SINQ, SµS, SLS, SwissFEL) and the European Spallation Source in Sweden.

Strong and proven leadership skills, demonstrated by a track record for leading a large group or unit, are essential. The future professor is expected to develop a strong international world-class research programme in solid-state materials, while offering support and mentorship to several existing research groups within the organizational unit (LMX). In particular, LMX is responsible for the operation and exploitation of the novel material synthesis facilities to be installed in state-of-the-art Quantum Materials and Materials Discovery Center (QMMC).

The successful candidate should hold a Ph.D. or similar degree in chemistry, material sciences, physics or in a related field. Strong motivation and clear commitment to student education is a prerequisite as the future professor will be involved in teaching at the undergraduate (German or English) and graduate (in English) levels.

ETH Zurich is an equal opportunity and family-friendly employer, values diversity, and is responsive to the needs of dual-career couples.

Please apply online: www.facultyaffairs.ethz.ch

Applications should include a covering letter; a curriculum vitae; a list of publications; three statements on a) research, b) teaching, c) leadership; descriptions of the three most important achievements; and a certificate of the highest degree. Please note that the covering letter should be formally addressed to the President of ETH Zurich, Prof. Dr. Joël Mesot. The closing date for applications is the 25th August 2026.

Candidater

[Autre] Deputy Editor, China /中国区副主编 à American Association for the Advancement of Science

Fri, 05 Jun 2026 17:53:09 +0200

Deputy Editor, China /中国区副主编

Journal/期刊: Science

Career Level / 职级: Level 6 / 6级

Department / 部门: Science Editorial / 《科学》编辑部

Reports To / 汇报对象: Editor, Research and Executive Editor / 研究版块主编/执行主编

Position Summary / 岗位职责概述

Science is a premier publication for the dissemination of scientific knowledge worldwide. The Deputy Editor, China manages the editorial staff and budget and is a member of the leadership team for the Beijing, PRC office. In addition to management responsibilities, the Deputy Editor fulfills the role of Research manuscript editor, identifying and selecting the top 5-10% of research papers within their sector that will significantly advance scientific understanding.

《科学》杂志是全球科学知识传播的顶级出版物。中国区副主编负责管理编辑团队与部门预算。除行政管理职责外，该岗位还兼任科研稿件编辑，负责筛选所属领域排名前 5%–10% 的顶尖研究论文，甄选能够显著推动科学认知发展的高质量成果。

Key Responsibilities | 主要工作职责

Serve as Editorial leader in China; supervise all China-based Editorial staff.

担任中国区编辑负责人，管理所有驻华编辑人员。

Meet regularly with other Beijing managers and promote teamwork with other heads of department in the Beijing office.

定期与北京办公室其他负责人沟通协作，推动跨部门团队协同工作。

Manage the evaluation, review, and editing of submitted manuscripts in materials science, specifically focusing on hard functional materials such as metals, ceramics, composites, and piezo/ferroelectrics.

负责材料科学领域投稿的评估、评审和编辑工作，需重点关注硬功能材料（如金属、陶瓷、复合材料、压电/铁电材料）。

Decide whether to review manuscripts, select reviewers, and provide recommendations for manuscript revision.

决定是否对稿件进行评审、选择审稿人，并对稿件修改提出建议。

Ensure selected papers undergo rigorous peer-review and work with authors to ensure clarity and succinctness.

确保入选论文经过严格的同行评审，并与作者合作，确保内容表达清晰、简练。

Commission, review, and edit timely review articles and write research summaries for publication.

委托、评审并编辑具有时效性的综述文章，并撰写研究摘要以供发表。

Propose solutions to problems that arise with manuscripts either before or after publication.

针对出版前后出现的稿件问题提出解决方案。

Represent Science and its Beijing office at national and international scientific meetings to recruit the best papers.

代表《科学》杂志及其北京办公室参加国内和国际科学会议，邀约优秀稿件。

Establish and grow a comprehensive network of contacts within the research sector.

在研究领域内建立并拓展全方位的人脉网络。

Communicate with members of the Board of Reviewing Editors and assist in recruiting new members.

与审稿编辑委员会成员沟通，并协助招募新成员。

Write summaries of research results for publication.

撰写研究成果摘要以供发表。

Communicate with and provide suggestions to the Insights team.

与Insights团队保持沟通并提供建议。

Collaborate with production, visuals, and press teams to prepare manuscripts for publication.

与生产、视觉和新闻宣传团队合作，准备待发表的稿件。

Participate in joint projects with publishing, such as judging prizes and/or planning meetings.

参与与出版部门的联合项目，例如担任奖项评委和/或策划会议。

Requirements / 任职资格

Qualifications: PhD in materials science or similar and several years of post-doctoral research experience.

资历要求：材料科学博士学位及多年博士后研究经验。

Proven track record of publishing high-quality research papers in scientific journals.

在科学期刊上发表过高质量研究论文并提供相关证明。

Knowledge of the field that will allow them to evaluate manuscripts and to develop a strong network of expert contacts.

具备扎实的专业领域知识，能够独立评审稿件，并建立稳固的专家人脉资源网络。

Exceptional written communication and diplomatic skills in order to communicate with authors and reviewers in evaluating, editing and modifying manuscripts, and to handle difficult decisions and rejected authors with sensitivity.

具备出色的书面沟通能力与人际沟通协调能力，可与作者、审稿人高效对接，开展稿件评审、编辑及修改工作；同时能够稳妥处理各项决策事宜，人性化做好退稿作者的沟通工作。

Ability to work constructively and effectively as a member of a tight-knit team.

能够在紧密协作的团队中开展建设性且高效的工作。

Sensitivity to authors from different cultures and backgrounds.

对不同文化背景作者保有敏锐度和同理心。

Persuasion and negotiation skills to attract top authors.

具备良好的说服与谈判能力，能够吸引顶尖作者投稿。

Please send cover letter and full CV to ScienceEditorJobs@aaas.org with “Deputy Editor, China” in the subject line.

Candidater

[Autre] Research Software Engineer à Forschungszentrum Jülich GmbH

Thu, 04 Jun 2026 17:53:09 +0200

Shaping change: this is what drives us at Forschungszentrum Jülich. As a member of the Helmholtz Association with some 7,600 employees, we conduct interdisciplinary research into a digitalized society, a climate-friendly energy system, and a sustainable economy. We focus on the natural, life, and engineering sciences in the fields of information, energy, and bioeconomy. We combine this with expertise in high‑performance computing and artificial intelligence using unique scientific infrastructures.

The prolonged storage of spent nuclear fuel, particularly high burn up, requires specific knowledge of chemical, structural, radiological and mechanical processes that occur within the fuel assemblies which may impact their stability during storage. In addition to this, reliably predicting the medium-longer term performance is essential for safe storage and associated licensing.

As part of the Ministry for Environment, Climate Action, Nature Conservation and Nuclear Safety (BMUKN) project “Atlas”, the Institute of Fusion Energy and Nuclear Waste Management (IFN) / Nuclear Waste Management (IFN-2) is offering a Postdoc position for a motivated individual with a PhD and background in computational materials science to investigate the chemical and mechanical effects arising from delayed fission gas release in high burn-up spent nuclear fuel by applying SCIANTIX modelling and coupling this against fundamental and engineering-scale nuclear codes such as BISON and TRANSURANUS. The position will run for 3 years and is contingent upon project approval.

Join our team Postdoc – Nuclear Fuel Performance and Fission Gas Modelling

Your Job:

Apply and develop state-of-the-art computational investigative methods, specifically utilizing the SCIANTIX code, to simulate the behavior of high burn-up spent nuclear fuel during extended interim storage
Predictive Analysis: Model and evaluate physical-chemical phenomena—such as diffusion, resolution, and bubble evolution, to deliver enhanced predictions of fission gas release (FGR) and structural engineering performance in spent fuel
Bridge the gap between theory and experiment by integrating microstructural and experimental data into computational models to validate predictive capabilities
Assist in coupling mesoscale fission gas behavior models with macroscopic fuel performance codes such as BISON and TRANSURANUS to assess the long-term integrity of storage systems
Support and mentor PhD and Masters level students in implementing modelling codes and analysis
Analyze, document, and present data at international conferences and publish findings in high-impact, peer-reviewed scientific journals

Your Profile:

Master's degree with subsequent PhD degree in Nuclear Engineering, Computational Materials Science, Physics, Chemistry, or a closely related discipline
Proven experience in mesoscale or engineering-scale modeling of nuclear fuel materials. Familiarity with physics-based rate theory, mechanistic modeling, or fuel performance codes such as SCIANTIX particularly but also TRANSURANUS or BISON is highly desirable
Strong foundational knowledge in fission gas behavior (including diffusion, bubble nucleation, resolution, and microstructural evolution) and the mechanics of high burn-up spent nuclear fuel under extended interim storage conditions
Solid scientific programming and data analysis skills (e. g., Python, C++ or Fortran) for script development, code execution, and parsing complex data sets
Ability to independently design, execute, and troubleshoot your research output while aligning results with the overarching goals of the Atlas project
Assist in the co-supervision and mentoring of PhD candidates, master’s students, or technical staff working within the research group whilst performing an active leadership role in the Atlas project
Excellent English communication and scientific writing skills (at least B2 level according to the CEFR), with a demonstrated track record of publishing in peer-reviewed journals

Our Benefits for You:

We work on highly topical, socially relevant issues and offer you the opportunity to actively shape change! You can expect a wide range of opportunities:

Research Environment: Working within the state-of-the-art nuclear laboratories of Forschungszentrum Juelich, Institute of Fusion Energy and Nuclear Waste Management (IFN) / Nuclear Waste Management (IFN-2)
Research infrastructure: Access to state-of-the-art computational infrastructure
Mentoring & Expertise: Mentoring and training by global experts in nuclear fuel materials chemistry and condensed matter physics
Knowledge & further training: Support for further career growth, with the flexibility to develop your own independent scientific ideas within the project's scope
International networking: Confirmed funded opportunities to attend international conferences and training events
Vacation: You will receive 30 days of vacation plus additional days off (e. g., between Christmas and New Year's)
Health & well-being: Your health is important to us. You can look forward to a comprehensive occupational health management program with a wide range of offerings - e. g., a beach volleyball court, running groups, yoga classes, and much more. In addition, our company medical service and an experienced social counseling team are available to assist you on site
Support for international employees: Our International Advisory Service makes it easier for international employees to get started
Career Center: You will receive explicit support with regard to your career development opportunities
Successful start: It is important to us that you quickly settle into the team and are given structured training for your tasks. We also support you from the very beginning and make your start easier with our Welcome Days and Welcome Guide
Fair remuneration: Depending on your existing qualifications and the tasks assigned to you, you will be classified in pay grade EG 13 of the TVöD-Bund (Collective Agreement for the Public Service). All information on the TVöD-Bund collective agreement can be found on the BMI website. The monthly salaries in euros can be found on page 69 ff. of the PDF download
Additional benefits: Benefit from attractive additional services such as a company pension scheme with employer contribution. In addition to the basic salary, there is an additional year-end bonus under the collective pay agreement amounting to 75 % of a monthly salary, as well as capital-forming benefits
Fixed-term: 3 Year position contingent upon project approval

In addition to exciting tasks and a collegial working environment, we offer you much more: https://go.fzj.de/benefits

We welcome applications from people with diverse backgrounds, e. g. in terms of age, gender, disability, sexual orientation / identity, and social, ethnic and religious origin. A diverse and inclusive working environment with equal opportunities in which everyone can realize their potential is important to us.

The following links provide further information on diversity and equal opportunities: https://go.fzj.de/equality and on specific support options: https://go.fzj.de/womens-job-journey

We look forward to receiving your online application.

The job will be advertised until the position has been successfully filled. You should therefore submit your application as soon as possible.
APPLY NOW

If your questions have not yet been answered via our FAQs, please send us a message via our contact form.

Please note that for technical reasons we cannot accept applications by e-mail.

www.fz-juelich.de

Candidater

[Contrat doctoral] THESE - IMPACT DES NUITS CHAUDES SUR LE SOMMEIL ET LA SANTE F/H à CSTB Grenoble

Fri, 29 May 2026 17:53:06 +0200

La Direction Energie Environnement recherche un(e) doctorant(e) pour une durée de 3 ans dans le cadre du sujet de recherche : Impact des nuits chaudes sur le sommeil et la santé : interactions entre environnement bâti, thermophysiologie du sommeil et stratégies adaptatives des occupants. Le poste est basé à Grenoble.

Dans un contexte de changement climatique, les vagues de chaleur, de plus en plus fréquentes et intenses, dégradent le confort thermique intérieur et la qualité du sommeil. En 2025, le gouvernement a publié le Plan national d’adaptation au changement climatique (PNACC) ainsi qu’une feuille de route interministérielle sur le sommeil. Pourtant, l’impact des fortes chaleurs sur le sommeil reste peu étudié.

Cette thèse s’inscrit au CSTB, en partenariat avec l’INSERM (neurosciences du sommeil) et une chercheuse CNRS en thermophysiologie. Elle vise à identifier, mesurer et modéliser les liens entre microclimat nocturne dans des logements non climatisés et dégradation objectivable du sommeil, en conditions réelles. Elle adopte une approche intégrée croisant microclimat, thermophysiologie, neurosciences du sommeil et comportements adaptatifs (fenêtres, ventilateurs).

Le projet de thèse consiste à développer un protocole de mesure in situ et mener une campagne expérimentale afin de constituer une base de données associant données sur le microclimat intérieur à la chambre, la thermophysiologie du corps humain, le sommeil des occupants et leurs actions adaptatives associées. Cette base de données permettra de construire un modèle prédictif dynamique du sommeil en fonction des conditions intérieures et des comportements des occupants, notamment en situation de surchauffe nocturne.

Ces travaux aboutiront à la création d'un indicateur opérationnel de dégradation du sommeil associés à des valeurs repères (température, humidité, vitesse d’air, bruit, luminosité), valorisables auprès des acteurs du bâtiment à travers des labels ou la future règlementation environnementale.

L’originalité repose sur l’interdisciplinarité (thermique du bâtiment, thermophysiologie, neurosciences, comportements). Les travaux s’inscrivent dans le projet international Annex95 de l’Agence Internationale de l’Énergie.

Vos principales missions seront les suivantes :

Réaliser un état de l’art sur les méthodes de mesure physiologiques (EEG, actimétrie, rythme circadien, etc.) du sommeil et les modèles de sommeil existants
Identifier les méthodes de mesure pertinentes et leurs limites selon les contextes applicatifs et proposer un protocole de mesure et un plan d’expérience
Étudier comment les différentes briques de modélisation (modèles physiologiques, empiriques, data-driven…) peuvent s’articuler entre elles pour construire un modèle cohérent

Profil recherché :
Vous êtes titulaire d'un diplôme de niveau Master ou ingénieur (thermique du bâtiment, data science, bio-ingénierie, neurosciences, modélisation, mathématiques appliquées, statistiques, …). Vous avez une appétence pour le travail expérimental, l’analyse statistique et la modélisation numérique. Vous disposez d'une capacité d'analyse et de synthèse. Vous faites preuve de rigueur, d'autonomie, de curiosité. Vous disposez d'une bonne communication écrite et orale. Vous êtes à l'aise en anglais (écrit, lu, parlé).

Candidater

[Contrat doctoral] PhD 2026: MXènes fonctionnalisés comme additifs de lubrification avancés à Centre de Mise en Forme des Matériaux (CEMEF)

Fri, 29 May 2026 17:53:06 +0200

Contexte général du projet de recherche :

Les pertes d’énergie liées aux frottements et à l’usure représentent aujourd’hui un enjeu industriel majeur, avec un impact direct sur l’efficacité énergétique et la durée de vie des contacts. Dans ce contexte, le développement de nouveaux additifs de lubrification haute performance constitue un défi scientifique et technologique important. Parmi les nanomatériaux émergents, les MXènes attirent un intérêt croissant grâce à leurs propriétés remarquables : structure lamellaire favorable au glissement, excellente stabilité chimique, forte résistance mécanique et grande capacité de fonctionnalisation. Ces caractéristiques font des MXènes des candidats prometteurs pour réduire les frottements et limiter l’usure dans les systèmes lubrifiés.

Cependant, plusieurs verrous scientifiques doivent encore être levés avant l’intégration des MXènes dans des formulations lubrifiantes performantes. Le premier défi concerne leur dispersion homogène et leur stabilité à long terme dans les huiles, conditions indispensables pour garantir des performances fiables. La compatibilité des MXènes avec les additifs conventionnels utilisés dans les formulations industrielles constitue également un enjeu important. Par ailleurs, le contrôle de la taille et de la morphologie des feuillets est essentiel afin d’assurer une alimentation efficace du contact tribologique et de favoriser la formation de tribofilms protecteurs. La maîtrise de la composition chimique des MXènes représente un autre paramètre clé pour optimiser leurs interactions avec les surfaces en contact. Cette thèse s’inscrit dans cette dynamique et vise à développer des MXènes comme additifs de lubrification haute performance.

Objectifs de la thèse

Durant cette thèse, le/la doctorant(e) combinera différentes approches expérimentales afin de mieux comprendre le comportement tribologique des MXènes utilisés comme additifs de lubrification. Les travaux porteront sur la synthèse et la fonctionnalisation de différentes familles de MXènes, ainsi que sur leur intégration dans des formulations lubrifiantes modèles. Le/la doctorant(e) développera des protocoles de dispersion et de fonctionnalisation chimique visant à améliorer la stabilité des MXènes dans les huiles et à optimiser leurs interactions avec les surfaces en contact.

Les formulations élaborées seront ensuite évaluées à l’aide d’essais tribologiques réalisés dans des conditions contrôlées afin d’étudier leur capacité à réduire les frottements et l’usure. Les mécanismes de lubrification seront analysés à travers une caractérisation approfondie des surfaces et des tribofilms formés pendant les essais. L’objectif sera d’identifier les mécanismes responsables des performances observées et d’établir les relations entre la structure et la chimie des MXènes, leur fonctionnalisation et leur comportement tribologique.

en savoir plus sur le sujet ici :

https://www.cemef.minesparis.psl.eu/wp-content/uploads/2026/05/These2CEMEF_IMRA_2026.pdf

Point fort du sujet :

Elle offre au doctorant l’opportunité de contribuer à un sujet à fort impact scientifique et industriel, à l’interface entre ingénierie des matériaux et tribologie, avec de réelles perspectives applicatives et une bonne visibilité académique.

La proximité des deux partenaires, tous deux situés à Sophia Antipolis, facilite les échanges, l’intégration et le travail collaboratif. Cette collaboration donne également accès à des compétences complémentaires et à des équipements expérimentaux de pointe (microscopie électronique, XRD, XPS, tribologie, etc.), offrant un environnement de recherche complet et particulièrement stimulant.

Profil recherché :
Nous recherchons un(e) candidat(e) diplômé(e) d’une école d’ingénieur et/ou titulaire d’un Master 2, avec de solides bases en science des matériaux et en chimie, ainsi qu’un réel intérêt pour le travail expérimental. Une première expérience en synthèse et fonctionnalisation de nanomatériaux constituera un atout important. Le/la candidat(e) devra faire preuve d’autonomie, de rigueur scientifique et de curiosité pour s’investir dans un sujet à l’interface entre matériaux, formulation et tribologie. Une bonne capacité d’analyse et de synthèse est attendue, ainsi qu’un intérêt pour l’innovation et la résolution de problèmes scientifiques. Des qualités d’adaptabilité, de créativité et de communication en anglais seront également essentielles pour évoluer dans un environnement de recherche collaboratif.

Candidater

[Contrat doctoral] PhD 2026: Élaboration d’une nouvelle génération de composites métal–MXenes à hautes performances mécaniques et tribologiques à Centre de Mise en Forme des Matériaux (CEMEF)

Fri, 29 May 2026 17:53:06 +0200

Contexte général du projet de recherche :

Depuis une quinzaine d’années, les matériaux bidimensionnels ont changé la conception des nouveaux matériaux. Initialement dominé par le graphène, le domaine s’est élargi avec l’apparition des MXenes en 2011, une famille de carbures et nitrures métalliques lamellaires aujourd’hui très étudiée.

Les MXenes associent des propriétés rarement réunies : excellente conductivité électrique, bonne rigidité, stabilité thermique élevée et chimie de surface riche et modulable.

Objectifs de la thèse

Cette thèse vise à concevoir des composites métalliques renforcés par des phases MAX (Ti₃AlC₂) et des MXènes (Ti₃C₂Tz, où Tz désigne les terminaisons –F, –Cl, –OH, etc.), en utilisant le procédé SPS (Spark Plasma Sintering), qui associe compaction en matrice fermée et chauffage par effet Joule afin d’obtenir des performances tribologiques et mécaniques améliorées.

Une première phase consistera en une étude bibliographique approfondie pour analyser les travaux existants sur les composites à base de phases MAX et MXenes, identifier les verrous scientifiques et technologiques, et définir les orientations expérimentales pertinentes.

La partie expérimentale du projet cherchera à établir des liens entre la morphologie, la taille et la proportion des phases renforçantes, leur dispersion dans la matrice et le comportement global du matériau, afin d’identifier le meilleur compromis entre résistance mécanique et performance tribologique. La démarche reposera sur une caractérisation fine de la microstructure des composites, ainsi que sur l’évaluation de leurs propriétés mécaniques (indentation, compression) et tribologiques dans différentes conditions opératoires.

Une attention particulière sera portée à l’analyse des mécanismes d’usure et de déformation pour établir des relations structure–propriétés–performances et optimiser ces composites pour des applications industrielles.

en savoir plus sur le sujet ici : these-1-CEMEF-IMRA_2026.pdf

Point fort du sujet :

Cette thèse s’inscrit dans une chaire conjointe entre Mines Paris et IMRA Europe, regroupant quatre projets doctoraux sur cinq ans, visant à explorer le potentiel des MXenes dans des domaines variés tels que les transports, la robotique ou le biomédical. Elle offre au doctorant l’opportunité de contribuer à un sujet à fort impact scientifique et industriel, à l’interface entre ingénierie des matériaux et tribologie, avec de réelles perspectives applicatives et une bonne visibilité académique.

Profil recherché :
Nous recherchons un(e) candidat(e) diplômé(e) d’une école d’ingénieur et/ou d’un M2, avec de solides bases en science des matériaux (ou domaine connexe) et un réel intérêt pour le travail expérimental. Une première expérience en tribologie et/ou en élaboration et caractérisation des matériaux constituera un atout fort. Le/la candidat(e) devra faire preuve d’autonomie, de rigueur scientifique et de curiosité pour s’investir dans un sujet à l’interface entre matériaux, procédés et tribologie. Une bonne capacité d’analyse et de synthèse est attendue, ainsi qu’un goût pour l’innovation et la résolution de problèmes. Des qualités d’adaptabilité, de créativité et de communication en anglais seront essentielles pour évoluer efficacement dans un environnement de recherche collaboratif. Pour postuler : Envoyer votre dossier à imene.lahouij@minesparis.psl.eu

Candidater

[Stage] Passive microrheology of modified mucus à Infinte U1286

Fri, 29 May 2026 17:53:04 +0200

The Inserm Unit U1286/Infinte, located on the Lille university hospital campus, is seeking a Master’s (M2) candidate for the 2026–2027 academic year. With a background in university or engineering studies, your profile and interests lie at the interface between biology/biochemistry and biophysics/bioinformatics.

Your project will focus on determining the properties of various mucus samples using passive microrheology, primarily obtained from primary epithelial cell cultures. These studies will be complemented by analyses of bacterial motion. The project mainly involves cell culture as well as computational analysis of the movement of fluorescent beads and bacteria. The objective is to provide proof of concept that selected molecules can modify the properties of altered mucus.

The ideal candidate is meticulous, rigorous, passionate about research, and eager to fully engage in a multidisciplinary project.

Team information: https://lille-inflammation-research.org/en/projects/191-mucus-barrier

Profil recherché :
The ideal candidate is meticulous, rigorous, passionate about research, and eager to fully engage in a multidisciplinary project.

Candidater

[Autre] Chair Professors, Professors, Associate Professors, Assistant Professors, and Assistant Professors à City University of Hong Kong (Dongguan) - Faculty

Sat, 16 May 2026 17:53:09 +0200

Chair Professors, Professors, Associate Professors, Assistant Professors, and Assistant Professors（teaching）

City University of Hong Kong (Dongguan) (CityUHK (Dongguan)) is a jointly established university, fully backed by the City University of Hong Kong (CityUHK). CityUHK (Dongguan) received official approval for its establishment in April 2024 and successfully began recruiting high-caliber students the same year.

CityUHK (Dongguan) upholds CityUHK’s philosophy of "Integration of Teaching and Research" and its forward-looking vision of “Innovating into the Future," ensuring that its academic standards align with those of CityUHK. Currently, the University has been approved to offer 7 undergraduate programs and 15 postgraduate programs. Aligning with world-class university standards, CityUHK (Dongguan) has now launched a global recruitment campaign for faculty members, with key priorities in the following fields:

1. Computer Science and Data Science

This field encompasses Computer Science, Data Science, Artificial Intelligence, and related interdisciplinary areas, with a focus on computing technologies, software development, algorithm design, and data applications.

Discipline, including, but not limited to:

Computer Science and Technology, Cyberspace Security, Data Science and Big Data Technology, Data Computation and Applications, Data Science, Artificial Intelligence.

2. Intelligent Manufacturing and Systems Engineering

Building upon the opportunities presented by "Industry 4.0" and "Smart City" initiatives, this field integrates automation, robotics, advanced manufacturing, integrated circuit technology, industrial engineering, complex systems modeling and optimization, and project management. It is dedicated to driving industrial intelligence upgrading and sustainable urban development.

Discipline, including, but not limited to:

Intelligent Manufacturing Engineering, Intelligent Semiconductor Manufacturing, and Engineering Management.

3. Electronic Engineering

Aspiring to be a global leader in electrical engineering education and research, this field promotes the application of cutting-edge technologies in industry and facilitates technological innovation and knowledge transfer.

Discipline, including, but not limited to:

Electronic and Information Engineering, Computer and Data Engineering, Electronic and Electrical Engineering, Information Engineering, Microelectronics Engineering, Multimedia Information Technology.

4. Biomedical Engineering

Focusing on biomedical systems, medical robotics, imaging, bio-MEMS, and nanomedicine, this field is committed to developing advanced biomedical devices, systems, and solutions for the benefit of society.

Discipline, including, but not limited to:

Biomedical Engineering.

5. Materials Science

Centered on material design, fabrication, and application, this field engages in fundamental research and frontier applications of new materials, covering the complete chain from microscopic nanostructures to macroscopic performance optimization.

Discipline, including, but not limited to:

Materials Science and Engineering, Materials Engineering, and Nanotechnology.

6. Business and Finance

Aimed at nurturing the next generation of business leaders, this field equips students with the strategic insight, business analytics and decision-making, innovative thinking, actionable insights, and strategic solution capabilities required to excel in a data-driven economy.

Discipline, including, but not limited to:

Business Information Systems, Venture Creation, Business and Data Analytics, Financial Engineering.

7. Smart Energy

Dedicated to addressing and solving the pressing energy challenges and related environmental issues of modern society through innovative solutions.

Discipline, including, but not limited to:

Energy and Power Engineering, Energy and Environment.

The University invites individuals from diverse backgrounds to apply for faculty positions at the levels of Chair Professor, Professor, Associate Professor, and Assistant Professor in the aforementioned fields. The primary language of instruction and administration at CityUHK (Dongguan) is English.

Major Responsibilities

The successful candidates will be expected to:

Deliver exceptional education, both independently and collaboratively, for undergraduate and postgraduate courses; Achieve international recognition and demonstrate leadership in their respective fields through outstanding research; Contribute to administrative tasks, ensuring efficient operations and supporting the advancement of the University's mission (applicable to senior faculty); Proactively secure external funding for research projects, promoting technological innovation; Provide exemplary supervision for student projects, internships, and theses, guiding them towards academic excellence.

Qualifications

Applicants should hold a doctoral degree in the relevant field. A strong track record in independent research, teaching, student supervision, and service is highly desirable. Candidates who have recently obtained their PhD with exceptional achievements may also be considered.

For the positions of Chair Professor/ Professor/Associate Professor, applicants should:

Demonstrate a record of world-class academic accomplishments and reputable international academic leadership;
Possess extensive experience in teaching, student supervision, and securing research project funding;
Demonstrate the ability to establish a distinguished research programme aligned with the University's strategic research areas;
Commit to delivering high-quality teaching and supervision to a diverse student population at both undergraduate and postgraduate levels.

For the Assistant Professor position, applicants should:

Demonstrate strong potential in research and teaching that aligns with the University's strategic research areas.

For the Assistant Professor(teaching) position, applicants should:

Demonstrate strong potential in teaching that aligns with the University's strategic research areas.

Compensation and Benefits

We offer a highly competitive package, including excellent fringe benefits and research support:

Competitive remuneration and attractive fringe benefits;
Various government-sponsored talent programmes (for eligible candidates);
Access to top-quality research equipment and support;
Start-up research funding;
Abundant local industry resources for collaborative horizontal projects.

Application Requirements

To apply for faculty positions at CityUHK(Dongguan), please ensure that your application includes the following documents:

A cover letter introducing yourself and expressing your motivation for joining CityUHK(Dongguan). Please highlight your qualifications, relevant experience, and how you envision contributing to the CityUHK (Dongguan) academic community.
A comprehensive resume, which should include a complete publication list showcasing your academic achievements and contributions.
Teaching statements outlining your vision and goals for your future endeavors within the University;
Research statements outlining your vision and goals for your future endeavors within the University (for the Assistant Professor(teaching) position, the research statement is not compulsory);
PDF files of three representative publications demonstrating the quality and impact of your scholarly work (for the Assistant Professor(teaching) position, this item is not compulsory);
The names and contact information of at least 3 references;
Any additional supporting documents or evidence of your research, teaching, or leadership accomplishments that will strengthen your application.

Application Review and Contact Information

Review of applications will commence promptly and continue until all positions are successfully filled. To apply, please send your application materials with the email subject line titled “ Position you apply for+Field+Your name” to college@cityu-dg.edu.cn

For more information, please visit the University website below：

https://www.cityu-dg.edu.cn/en/academic-positions

Candidater

[Autre] Faculty Positions at Institute of Physics (IOP), Chinese Academy of Sciences à Institute of Physics, Chinese Academy of Sciences

Sat, 16 May 2026 17:53:09 +0200

The Institute of Physics (IOP), Chinese Academy of Sciences, is China's premier research institution in condensed matter physics and related fields. With a history spanning over nine decades, IOP has evolved into a comprehensive, multidisciplinary research organization dedicated to both fundamental and applied physics. The institute's current research activities concentrate on condensed matter physics, optical physics, atomic and molecular physics, plasma physics, soft matter physics, and condensed matter theory and computational physics. There are 13 laboratories and 8 centers in our research system together with a strong technical support system. More Information about IOP can be found at www.iop.cas.cn.

IOP is entering a period for rapid expansion of its research bases. We have multiple opening positions at all levels from junior Tenure-Track Assistant Professor to senior Full Professor in multiple research areas, broadly defined. We invite talented applicants who have the capacity or have exhibited the potential of running a world-recognized independent research program. In particular, IOP is making strong efforts to internationalize our faculty members from different culture and ethnic backgrounds. We welcome all applicants worldwide.

Vacancies:

Full Professors and Chair Professors; Tenure-Track Associate Professors -Class A; Tenure-Track Associate Professors -Class B; Key Technologists

1. Full Professors and Chair Professor

Professor or equivalent position from a well-known overseas university or research institute. Principal Investigator or key contributor to research projects with significant achievements.

2. Tenure-Track Associate Professors -Class A

PhD degree with research experience from a well-known overseas or domestic university or research institute. Assistant Professor or equivalent level. Significant scientific achievements, extensive international influence, leadership ability.

3. Tenure-Track Associate Professors -Class B

PhD degree with research experience from a well-known overseas or domestic university or research institute. Significant scientific achievements.

4. Key Technologists

PhD degree with research experience from a well-known overseas or domestic university or research institute. Significant technological achievements.

Benefits:

Competitive salary; Sufficient start-up funding; Well-furnished apartments to rent; Children to be enrolled into good schools.

Preferred fields of research:

Condensed matter theory and computational physics; Experimental condensed matter physics; Materials science; Quantum information; Energy materials; Nano science; Surface sciences; Biophysics; Optics; Magnetism; Atomic and molecular physics including ultracold atom systems; Plasma physics; Research using large scientific facilities (Synergetic Extreme Condition User Facility, Advanced Attosecond Laser Infrastructure, etc.); Applied physics (including: advanced functional materials, applied magnetism, optoelectronic and photonic devices, sensing technology, solid state refrigeration, cryogenic electronics, etc.)

Contact:
E-mail: ioprsc@iphy.ac.cn

Candidater

[Autre] Faculty Positions at Institute of Physics (IOP), Chinese Academy of Sciences à Institute of Physics, Chinese Academy of Sciences

Sat, 16 May 2026 17:53:09 +0200

Vacancies:

Full Professors and Chair Professors; Tenure-Track Associate Professors -Class A; Tenure-Track Associate Professors -Class B; Key Technologists

1. Full Professors and Chair Professor

Professor or equivalent position from a well-known overseas university or research institute. Principal Investigator or key contributor to research projects with significant achievements.

2. Tenure-Track Associate Professors -Class A

3. Tenure-Track Associate Professors -Class B

PhD degree with research experience from a well-known overseas or domestic university or research institute. Significant scientific achievements.

4. Key Technologists

PhD degree with research experience from a well-known overseas or domestic university or research institute. Significant technological achievements.

Benefits:

Competitive salary; Sufficient start-up funding; Well-furnished apartments to rent; Children to be enrolled into good schools.

Preferred fields of research:

Contact:
E-mail: ioprsc@iphy.ac.cn

Candidater