OBS Entropy Labs
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Overview
OBS MIRD Entropy Labs is a leading research institution dedicated to advancing the frontiers of condensed matter physics and materials science through cutting-edge experimental techniques and interdisciplinary collaboration. As an Experimental Condensed Matter Physicist, you will contribute to groundbreaking research in understanding the physical properties of materials, exploring novel phenomena, and developing innovative materials for a wide range of applications including energy, electronics, and quantum technologies. This role offers the opportunity to work with state-of-the-art instrumentation and collaborate with world-class scientists across various domains.
Key Responsibilities
Experimental Research and Development
Design, conduct, and analyze experiments to study the physical properties of condensed matter systems, including nanomaterials, superconductors, topological materials, and other advanced materials.
Employ techniques such as X-ray diffraction, neutron scattering, electron microscopy, and spectroscopy to investigate material structures and electronic properties.
Develop and implement novel experimental setups to probe material behavior under extreme conditions (e.g., high pressure, low temperature, magnetic fields).
Material Characterization
Utilize advanced characterization tools to explore properties like conductivity, magnetism, optical responses, and thermal properties of materials.
Collaborate with computational scientists to interpret experimental data and validate theoretical models.
Conduct quantitative and qualitative analysis of experimental data to uncover new material properties and phenomena.
Instrumentation and Method Development
Lead the design, development, and optimization of experimental systems for material synthesis and characterization.
Ensure the accurate calibration and maintenance of experimental setups, including cryostats, ultra-high vacuum systems, and precision measurement devices.
Integrate and adapt experimental methodologies for novel and emerging research areas, including quantum materials and energy materials.
Interdisciplinary Collaboration
Collaborate with theoretical physicists, engineers, chemists, and biologists to advance experimental research at the intersection of condensed matter and other scientific fields.
Work on interdisciplinary projects that focus on translating fundamental research into practical technological applications.
Engage in joint research projects with academic institutions, industry partners, and national laboratories to facilitate technology transfer and commercialization.
Publication and Dissemination
Document experimental findings through detailed reports, research papers, and presentations for national and international conferences.
Collaborate on the development of research proposals and secure funding for experimental research initiatives.
Publish research results in high-impact journals and contribute to the scientific community through peer-reviewed publications.
Technical Leadership and Innovation
Lead experimental research teams and mentor junior researchers, technicians, and students in cutting-edge experimental methodologies.
Drive innovation in experimental techniques to address pressing challenges in material science and condensed matter physics.
Stay abreast of the latest advancements in experimental methods and instrumentation relevant to condensed matter research.
Focus Areas of Research
Quantum Materials: Investigation of exotic quantum phases, including topological states, Majorana fermions, and unconventional superconductivity.
Energy Materials: Development and characterization of materials for energy storage, conversion, and efficiency enhancement.
Nanomaterials and Advanced Structures: Synthesis and investigation of novel nanostructured materials with tailored properties for advanced technological applications.
Emergent Phenomena: Exploration of new physical phenomena emerging at the interface of condensed matter systems, such as correlated electron systems and emergent symmetry-breaking phases.
Ideal Candidate Profile
Educational Background: Ph.D. in Condensed Matter Physics, Materials Science, or a closely related field.
Technical Expertise:
Strong experience in experimental condensed matter techniques, including but not limited to: X-ray spectroscopy, electron diffraction, magnetometry, and scanning probe microscopy.
Proficiency in material synthesis methods like chemical vapor deposition (CVD), molecular beam epitaxy (MBE), or pulsed laser deposition (PLD).
Why Join OBS MIRD Entropy Labs?
OBS MIRD Entropy Labs offers an exceptional research environment where experimental and computational research converge to create transformative discoveries. As an Experimental Condensed Matter Physicist, you will be at the forefront of material science innovation, working with cutting-edge technologies and collaborating with a team of world-renowned scientists. This role provides opportunities to contribute to advancements in quantum materials, energy-efficient technologies, and advanced material design.
Responsibilities
As an Experimental Condensed Matter Physicist at OBS MIRD Entropy Labs, you will play a pivotal role in advancing the understanding and application of materials through innovative experimental research. Below are the detailed technical responsibilities:
1. Material Synthesis and Characterization
Design and execute experiments for synthesizing and characterizing a variety of advanced materials, including nanostructured, quantum, and complex oxide materials.
Employ techniques such as chemical vapor deposition (CVD), molecular beam epitaxy (MBE), pulsed laser deposition (PLD), and other advanced synthesis methods.
Conduct material characterization using X-ray diffraction (XRD), scanning electron microscopy (SEM), transmission electron microscopy (TEM), and atomic force microscopy (AFM).
2. Physical Property Measurements
Investigate and quantify physical properties of materials such as electrical conductivity, magnetic susceptibility, thermal conductivity, and optical properties.
Conduct experiments to probe electron transport, phonon dispersion, superconductivity, and quantum phase transitions in condensed matter systems.
Implement high-precision measurement techniques for properties under varying conditions (temperature, pressure, magnetic fields).
3. Quantum and Topological Materials Research
Investigate and characterize quantum materials including topological insulators, Weyl semimetals, and unconventional superconductors.
Explore and manipulate emergent phenomena like spintronic effects, Majorana fermions, and exotic topological phases.
Develop experimental setups for probing novel quantum states and correlated electron phenomena in low-dimensional materials.
4. Instrumentation and Method Development
Lead the design and optimization of advanced experimental systems for material synthesis and characterization.
Develop novel experimental techniques and improve existing setups to enhance the precision, sensitivity, and reproducibility of results.
Ensure proper calibration, operation, and maintenance of cryogenic systems, vacuum chambers, and high-field magnetometers.
5. Data Acquisition and Analysis
Implement sophisticated data acquisition systems for capturing experimental data with high resolution and accuracy.
Utilize advanced data analysis techniques including machine learning, statistical modeling, and computational simulations to extract meaningful insights from experimental data.
Collaborate with theoretical physicists and computational scientists to validate experimental results with simulations.
6. Interdisciplinary Research Collaboration
Collaborate with materials scientists, chemists, engineers, and theorists to advance research in condensed matter physics.
Work on interdisciplinary projects involving quantum materials, nanomaterials, and energy-efficient devices.
Participate in collaborative projects with industry and academic partners to translate experimental findings into commercial applications.
7. Publication and Research Dissemination
Prepare detailed experimental reports, research papers, and presentations for publication in top-tier scientific journals and conferences.
Present research findings at international scientific conferences and workshops, contributing to the field’s broader understanding of condensed matter phenomena.
Lead and contribute to proposal writing for research grants and funding opportunities.
8. Technical Leadership and Mentorship
Lead experimental research teams, providing guidance and mentorship to junior researchers, technicians, and students.
Establish best practices for experimental protocols and ensure adherence to safety and quality standards.
Drive innovation in experimental methods and contribute to advancing the lab’s research agenda.
Qualifications
Required Qualifications
Educational Background
Academic Profile in Condensed Matter Physics, Materials Science, Physics, or a related field with a focus on experimental research.
Technical Skills
Experimental Techniques:
Expertise in advanced characterization methods such as X-ray diffraction (XRD), electron microscopy, magnetometry, and spectroscopy.
Hands-on experience with synthesis techniques like MBE, CVD, PLD, and other material growth techniques.
Physical Property Measurements:
Proven ability to measure physical properties including electrical, thermal, and optical properties under varying experimental conditions.
Proficiency in handling cryogenic systems, vacuum systems, and ultra-high vacuum setups.
Instrumentation Development:
Strong background in designing, optimizing, and troubleshooting experimental setups for material synthesis and characterization.
Ability to develop new methodologies for probing complex material behaviors.
Data Analysis and Software Skills:
Proficiency in data analysis tools such as Python, MATLAB, LabVIEW, or similar software for processing and visualizing experimental data.
Familiarity with machine learning techniques for experimental data interpretation.
Preferred Qualifications
Domain-Specific Expertise
In-depth knowledge of quantum materials, topological phases, or superconducting materials.
Experience working on materials with applications in energy, electronics, or quantum technologies.
Research and Collaboration
A strong track record of publishing high-impact research in top-tier scientific journals.
Demonstrated ability to lead research projects, secure funding, and collaborate with cross-disciplinary teams.
Leadership and Communication
Ability to mentor and guide research teams, ensuring effective communication between various stakeholders.
Strong communication skills for presenting experimental findings to scientific and non-technical audiences.
These responsibilities and qualifications ensure that the Experimental Condensed Matter Physicist role at OBS MIRD Entropy Labs attracts candidates with the expertise to drive innovation and contribute to advanced research in material science and condensed matter physics.
Special Domain Requirements
In addition to the general technical and qualification requirements, the Experimental Condensed Matter Physicist position at OBS MIRD Entropy Labs includes several specialized domain requirements. These requirements ensure that the candidate has expertise in specific areas essential for cutting-edge research and application in condensed matter physics. Below are the specialized domain requirements, applying candidates should demonstrate proficiency in at least 3 (Three) of the following specialization areas:
1. Quantum Materials and Topological Physics
Deep expertise in experimental investigation of quantum materials such as topological insulators, Weyl semimetals, and superconducting materials.
Experience with probing novel quantum states, including Majorana zero modes, exotic spin phenomena, and unconventional superconductivity.
Strong background in understanding and characterizing topological phases and their impact on material properties under varying environmental conditions.
2. Energy Materials and Advanced Functional Systems
Proven experience in characterizing and optimizing advanced energy materials such as thermoelectric materials, magnetic materials, and materials for energy conversion.
Expertise in developing experimental setups to explore the electronic, thermal, and optical properties of energy-efficient devices and systems.
Ability to work with low-dimensional materials and nanostructures for applications in energy harvesting and storage solutions.
3. Nanomaterials and Nanostructured Systems
Expertise in investigating the physical properties of nanomaterials and their structural and electronic characterization at the nanoscale.
Knowledge of advanced techniques for probing quantum effects and emergent phenomena in low-dimensional systems like 2D materials, nanowires, and hybrid nanostructures.
Ability to conduct research on the interplay between structural and electronic properties in nanomaterials for applications in sensing, catalysis, and quantum computing.
4. High-Precision and Extreme Environment Research
Extensive experience with experimental techniques in extreme environments, such as high-pressure systems, cryogenic temperatures, and high magnetic fields.
Proven ability to conduct research involving extreme conditions to study phase transitions, material stability, and superconducting behavior.
Development of experimental systems tailored for high-precision measurements in extreme conditions to investigate novel quantum and classical phenomena.
5. Advanced Characterization Techniques
In-depth knowledge and experience with advanced characterization tools such as synchrotron radiation, neutron scattering, and Raman spectroscopy for probing material properties.
Proficiency in using state-of-the-art characterization platforms for electron diffraction, scanning tunneling microscopy (STM), and advanced imaging techniques.
Expertise in using novel experimental techniques to study material behavior at atomic and sub-atomic scales.
6. Interdisciplinary Research in Quantum and Material Science
Experience in interdisciplinary research involving the intersection of condensed matter physics with other fields such as quantum information science, photonics, and biophysics.
Ability to work collaboratively on projects that combine experimental physics with theoretical models to bridge experimental findings and computational simulations.
Knowledge of cutting-edge research areas such as quantum materials in biophysical applications or quantum-enhanced sensing.
7. Data-Driven and Computational Integration
Ability to integrate experimental research with machine learning and computational simulations to analyze material properties and predict novel material behaviors.
Experience in data-driven approaches to correlate experimental results with theoretical predictions and guide future experimental setups.
Familiarity with using big data analysis techniques and software tools to handle large datasets from complex experimental systems.
8. Research Management and Innovation
Expertise in leading experimental research teams and managing research projects focused on advancing experimental techniques and methodologies.
Proven ability to innovate in experimental techniques, creating novel setups for challenging research objectives in material science.
Experience in mentoring teams and providing technical leadership to foster a collaborative research environment.
These specialized domain requirements ensure that the Experimental Condensed Matter Physicist position at OBS MIRD Entropy Labs attracts candidates with the depth of expertise and adaptability necessary to tackle complex research challenges in advanced material science and condensed matter physics.
