Position under active recruitment:Research and development of technologies for forecasting the future of the global environment
Through future-forecasting simulations, we aim to realize coexistence with diverse organisms.
To create a prosperous society and a global environment where diverse organisms coexist, we will integrate and analyze ocean sensing data across multiple domains. It will thus become possible to efficiently model complex marine ecosystems significantly impacted by human activities. Moreover, through high-precision, high-speed marine simulation, we will clarify the path to ecosystem recovery of the global environment.
What are the key points of technologies for forecasting the future of the global environment?
We are working on marine-ecosystem simulations, which consider the impact of climate change as one factor, in coastal areas heavily affected by human activities.
■We perform simulations, which consider not only physical but also biogeochemical phenomena of the ocean as factors, in a high-speed computing environment to forecast the future of marine ecosystems, including the effects of climate change and human activities.
■By integrally analyzing diverse sensing data from various marine areas (sea surface, sea level, underwater, and seabed) and in-situ observation data such as eDNA, we can grasp the real-time status of marine ecosystems.
■In collaboration with partners worldwide, including NTT Group companies, we will also promote social implementation, such as field observations in coastal areas and application to fisheries and aquaculture.
Depending on your experience and abilities, you will be in charge of one or more of the following.
You will be engaged in research and development, centered on state-of-the-art underwater acoustic technology, aimed at the social implementation and operation of ocean sensing data.
Focusing on large-scale data acquired through underwater acoustic observations, you will be responsible for building analysis algorithms and data-processing platforms that function stably in real environments by utilizing signal processing, machine learning, and AI technologies.
Beyond the research phase, we aim to implement underwater sensing technology that enables to ocean-environment monitoring, marine-ecosystem assessment, and future prediction while emphasizing implementability, reproducibility, and scalability with an eye toward on-site observation and operation.
Design, implementation, and advancement of signal processing and analysis algorithms for underwater acoustic data (e.g., noise suppression, feature extraction, time-series analysis, quality control)
Development and operational evaluation of state estimation, anomaly detection, classification, and prediction models utilizing machine learning and AI technologies
Construction of analysis flows and processing pipelines integrating underwater acoustic data with other types of sensor data (e.g., ocean observation and satellite/geospatial data)
Automation of data processing and examination of scalable analysis methods and systems for observations in real marine areas
Technology validation, performance evaluation, and use-case consideration with a view toward social implementation and continuous operation
Required knowledge, skills, abilities, and experience
Essential skills: Must have the following skills or experience
Logical thinking and technical-writing proficiency
Basic knowledge of information science
Basic knowledge and implementation experience of programming languages such as Python
Skills and experience in project management and coordination with external stakeholders
Language proficiency: Ability to handle international presentations and paper writing
Desirable knowledge, skills, abilities, and experience
Knowledge or research/development experience in signal processing and analysis (including application experience from related fields) targeting underwater acoustic data or similar time-series/wave data (e.g., acoustic signal processing, spectral analysis, time-series analysis, active/passive acoustics, and acoustic tomography)
Experience in data preprocessing, feature extraction, and quality control for sensor data (e.g., acoustic, optical, and environmental sensors)
Knowledge or practical/research experience in data analysis and modeling utilizing machine learning and AI technologies (e.g., anomaly detection, classification/regression, clustering, and deep learning)
Experience in integrated analysis and visualization of large-scale and diverse data (e.g., underwater acoustics, ocean observation, and satellite/geospatial data)
Experience in analysis and evaluation combining numerical simulations or model results with observational data
In addition to the above abilities and knowledge, research and development in fields such as information engineering, acoustic engineering, applied mathematics, physics, and data science that can be applied to this role.
Qualities we are looking for
A desire to take on new research themes outside existing frameworks
The ability to proactively communicate with team members and global collaborative partners having diverse values
A person who actively takes on challenges in unknown fields with great curiosity and ambition
2Research and Development on Marine Simulation
Details of work
To quantitatively evaluate and predict the impact of nutrient salts flowing from forests and agricultural lands into coastal waters via rivers on the Marine ecosystem, we are seeking an experienced researcher who can understand observational data and appropriately incorporate it into numerical models.
We aim to develop a high-resolution coastal marine simulation model that integrates the entire area from river basins to coastal zones, utilizing satellite observation data and in-situ observation data, to predict nutrient cycling and ecosystem responses.
Furthermore, we are looking for individuals who are not only interested in model development but also in observation planning and data acquisition itself and who can advance research by moving back and forth between observation and simulation.
Studying and implementing methods to understand and analyze satellite observation data and in-situ observation data and incorporate the analysis results into coastal marine numerical models
Designing, building, and enhancing coastal marine simulation models that consider nutrient runoff from forests and agricultural lands and river inflows
Planning and executing predictive calculations using models that include physical and biogeochemical processes in coastal areas
Model validation based on observational data, sensitivity analysis, and evaluation of prediction accuracy
Implementing and operating high-resolution, large-scale numerical simulations utilizing supercomputers, HPC, and cloud environments
Required knowledge, skills, abilities, and experience
Essential skills: Must have the following skills or experience
Logical thinking, technical writing
Basic knowledge of information science
Basic knowledge and implementation experience in programming languages such as Python, Fortran, and C
Ability to perform basic shell operations on UNIX-like systems (e.g., Linux and macOS)
Language proficiency: Level capable of international presentations and thesis writing
Desirable knowledge, skills, abilities, and experience
Basic and specialized knowledge in Earth-science fields (e.g., oceanography, atmosphere, meteorology, climate, geophysical fluid dynamics, biogeochemistry, ecosystems, and chemical cycles)
Experience in numerical simulations or related research concerning coastal areas, estuaries, and river basin-coastal coupling systems
Research experience in fluid dynamics and computational fluid dynamics (CFD)
Experience in understanding satellite observation data and in-situ observation data and utilizing them for validating and improving numerical models
Experience in using atmospheric and oceanic numerical models (e.g., WRF, SCALE, MITgcm, ROMS, and FVCOM)
Experience in high-performance computing (HPC) and parallel computing (e.g., MPI, OpenMP, and GPU) using supercomputers or similar systems
Research experience in physical simulations and data analysis utilizing numerical analysis, data assimilation, or machine learning
Experience in developing and operating research software (e.g., Python, Fortran, C/C++, and prototype level software)
In addition to the above skills/requirements/abilities/etc., individuals with research experience, development experience, or strong motivation that can be applied to this position are also encouraged to apply.
Qualities we are looking for
A desire to take on new research themes outside existing frameworks
The ability to proactively communicate with team members and global collaborative partners having diverse values
A person who actively takes on challenges in unknown fields with great curiosity and ambition
3Research and Development on Technologies for Seafood Monitoring and Growth Prediction
Details of work
Depending on your experience and abilities, you will be in charge of one or more of the following.
To implement next-generation smart aquaculture, we will undertake research and development of monitoring, growth-prediction, stress-evaluation, and disease-prediction technologies for seafood with the aim of enhancing water-quality management and health management of seafood on aquaculture farms.
By continuously measuring the aquaculture environment and the condition of seafood using state-of-the-art IoT sensors and observation equipment, and analyzing the acquired data with AI, etc., we aim to establish next-generation smart-aquaculture technology that leads to optimization of the aquaculture environment, feeding control, and early detection of diseases.
Construction of growth- and health-prediction models targeting growth, health status, and stress response of seafood (statistical modeling, machine learning, simulation, etc.)
Research and development of aquaculture-environment monitoring technology (including water quality and microbial communities) using IoT sensors, acoustic/optical sensors, environmental DNA (eDNA) analysis, etc.
Research on technologies for stress evaluation and disease-outbreak risk prediction-utilizing metabolomics and transcriptomics analysis-for aquaculture organisms
Design of feeding-optimization algorithms and development of early-disease-detection models based on aquaculture environmental data and biological information
Technical studies focused on improving sustainable aquaculture systems, including the biofloc method
Formulation of research-and-development strategies for aquaculture-related technologies within the NTT Group, and promotion of collaborative research and demonstration experiments with domestic and international research institutions as well as fisheries and aquaculture stakeholders
Required knowledge, skills, abilities, and experience
Essential skills: Must have the following skills or experience
Logical thinking, technical writing
Basic knowledge of information science
Basic knowledge and implementation experience of programming languages such as Python
Basic knowledge of biology and ecology (including research during student years)
Project-management skills as well as skills and experience in collaborating with external stakeholders
Language proficiency: Level capable of international presentations and thesis writing
Desirable knowledge, skills, abilities, and experience
Ocean-sensing technology (sensors, IoT, remote sensing, acoustics, and networks)
Statistical science (statistical models, probability theory, data analysis, prediction, and AI)
Basic knowledge of Earth science (climate, ocean, ecosystems, etc.)
Conservation of biological resources (ecology and marine biology)
Software-development experience (e.g., Python) including machine learning
Research management: experience in managing joint research, applying for research grants, reporting results, writing patents, and promoting technology transfer
In addition to applicants with the above requirements/abilities/experience/etc., individuals with research experience, development experience, or strong motivation that can be applied to this position are also welcome.
Qualities we are looking for
A desire to take on new research themes outside existing frameworks
The ability to proactively communicate with team members and global collaborative partners having diverse values
A person who actively takes on challenges in unknown fields with great curiosity and ambition
Location
Musashino R&D Center(3-9-11 Midori-cho, Musashino-shi, Tokyo 180-8585)
Message
The Global Environmental Futures Forecasting Technology Group is engaged in research applying new ideas and technologies, unconstrained by conventional approaches, covering everything from global environmental sensing, data analysis, and modeling to simulation, with the aim of creating a global environment in which a rich society and diverse organisms coexist. So why not join us in pioneering the future of our planet by utilizing science and technology.
Research and development of ocean observation and simulation for the creation of a prosperous society and coexistence with diverse living organisms
Shaping the Future of the Ocean and the Earth through AI-Driven Science
Human activities now play a major role in shaping the Earth system, placing increasing pressure on the global environment-especially on the oceans. We believe that advanced technology can transform how these challenges are understood and addressed.
Our research integrates next-generation marine observation systems with AI-driven data assimilation and large-scale environmental simulations. By continuously combining observational data with numerical models, we develop digital twins of the ocean and the Earth system, enabling us to explore past, present, and future environmental conditions.
As global population is expected to peak and gradually decline later this century, new approaches are needed to reduce environmental impacts and support the recovery of marine ecosystems. As an industrial research laboratory, we work at the intersection of science, engineering, and real-world application.
We are seeking researchers who are eager to push technological boundaries and translate AI-driven environmental science into meaningful societal impact.