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Karl Ulrich Schreiber is an Adjunct Professor at the Department of Physics and Astronomy, University of Canterbury, New Zealand, and an apl. Professor at the Institute for Astronomical and Physical Geodesy at the Technical University of Munich (TUM). He is a scientist at the Geodetic Observatory Wettzell, jointly operated by TUM and the Bundesamt für Kartographie und Geodäsie (BKG). His work bridges fundamental physics and geodetic applications, with leadership roles in major international projects including ESA’s MAGIC/Science, QSG4EMT, and Baltic+ Theme 5, as well as DFG Research Units NEROGRAV and UPLIFT. His research focuses on Space Geodesy , Satellite and Lunar Laser Ranging , and Ring Laser Technology . He has pioneered the use of large ring laser gyroscopes for measuring Earth's rotation, polar motion, and seismic rotations. His work enables high-precision monitoring of geophysical phenomena such as Earth tides, Chandler wobble, and rotational ground motions from earthquakes. He is a key contributor to multi-technique co-location studies (VLBI, SLR, GNSS) and time transfer experiments, advancing the Global Geodetic Observing System (GGOS). His recent publications show a strong trend in developing and applying large-scale ring laser arrays (e.g., ROMY) for geophysical sensing, photon-counting laser ranging for space debris and satellite tracking, and optical timing systems for synchronization across geodetic networks. These efforts span disciplines including geodesy, seismology, quantum optics, and fundamental physics. Scientific contributions include: Development of the Wettzell Large Ring Laser (G-ring) for continuous Earth rotation monitoring. First direct measurements of Earth's diurnal polar motion and Chandler wobble using ring lasers. Pioneering work in rotational seismology, validating ring laser data against seismic arrays. Contributions to lunar laser ranging and its role in reference frame realization. Leadership in ESA and DFG projects advancing space geodesy and inertial sensing. He advises doctoral and master’s students within the DFG Research Training Group UPLIFT and collaborates with international institutions on instrumentation and data analysis. His lab at Wettzell hosts advanced laser ranging and ring laser systems, serving as a fundamental geodetic observatory. Future work includes enhancing clock ties for global geodesy, expanding multi-component rotation sensing, and advancing space-based geodetic technologies.

• Space Geodesy
• Satellite Laser Ranging
• Lunar Laser Ranging
• +7 more

Prof. Roland Pail is a full Professor of Astronomical and Physical Geodesy at the Technical University of Munich (TUM). He leads the Chair of Astronomical and Physical Geodesy, part of the TUM School of Engineering and Design. His research focuses on physical and numerical geodesy, global/regional gravity field modeling, and satellite gravity missions like GOCE, GRACE, and future initiatives like MAGIC. He has held leadership roles, including President of IAG Commission 2 (2015–2019) and Vice Dean of TUM's Department of Aerospace and Geodesy. Pail earned his doctorate (sub auspiciis praesidentis) from TU Graz (1999) and habilitation in 2002. He is a Fellow of the International Association of Geodesy and has received numerous awards for his contributions to geodesy. His work integrates satellite data with geophysical modeling to monitor mass transport processes (e.g., ocean circulation, ice melt) and Earth's interior dynamics. He collaborates internationally on missions such as the DFG Research Training Group UPLIFT and the MAGIC constellation. Key publications include gravity field models (e.g., XGM2016, GOCO06s) and studies on future mission design, stochastic modeling, and climate monitoring. Pail’s scientific awards include the IAG Fellowship (2011), Young Authors Award (2006), and the Allmer-Löschner Prize (2000). His research also addresses quantum sensor applications in satellite gravimetry and the development of next-generation gravity field retrieval techniques.

• Physical Geodesy
• Satellite Geodesy
• Global and Regional Gravity Field Modeling
• +4 more

Prof. Jürgen Müller is a Full Professor at the Institute of Geodesy, Leibniz University Hannover, leading research in physical geodesy, satellite gravimetry, and relativistic geodesy. He holds positions as Executive Director of the Institute and contributes to global geodetic initiatives like the Global Geodetic Observing System (GGOS). His work focuses on advancing quantum technologies for Earth observation, including cold atom interferometry and optical clocks, to enhance gravity field measurements and test fundamental physics principles. Research Interests: Müller's expertise spans gravimetric Earth observation, lunar laser ranging (LLR), relativistic geodesy, and the application of quantum sensors in space missions. His team explores novel sensor concepts for future satellite gravimetry, such as hybrid accelerometers and gravity gradiometry systems, addressing challenges in climate monitoring and Earth system dynamics. Publications Overview: His recent work emphasizes quantum accelerometers for satellite missions, deployable solar panels for GRACE-like satellites, and LLR-based tests of general relativity. Key contributions include improving Earth rotation parameter estimation and exploring optical clock networks for height system unification. Grants & Collaborations: Müller collaborates on international projects like the CARIOQA quantum pathfinder mission and the GENESIS space observatory. He leads teams in simulating quantum sensor performance and analyzing LLR data for lunar and Earth dynamics studies. Labs/Teams: As head of the Institute of Geodesy, he oversees research groups working on quantum gravimetry, space geodesy, and geodetic reference systems, leveraging facilities like the 10-meter atom interferometer at Hannover.

• Physical Geodesy
• Satellite Gravimetry
• Relativistic Geodesy
• +4 more

Prof. Dr.-Ing. Annette Eicker is a Professor of Geodesy and Adjustment Calculations at the HafenCity University Hamburg (HCU), where she has been serving since 2016. Prior to her current position, she was an Academic Councillor at the Institute of Geodesy and Geoinformation at the University of Bonn (2014-2016), and has held visiting research positions at NASA's Jet Propulsion Laboratory in Pasadena, USA (2015) and the University of Rennes 1 in France (2014). Her research focuses on satellite gravimetry, particularly utilizing GRACE (Gravity Recovery and Climate Experiment) and GRACE-FO (Follow-On) mission data to monitor terrestrial water storage, study climate-related mass changes, and develop advanced methods for gravity field recovery. Her work bridges geodesy, hydrology, and climate science, with significant contributions to understanding global water cycle dynamics and developing next-generation gravity missions like MAGIC (Mass-change And Geosciences International Constellation). Analysis of her recent publications reveals a strong emphasis on improving the accuracy and applications of satellite gravity data for hydrological monitoring, with increasing focus on next-generation missions and daily gravity field solutions. Her research spans from fundamental method development (e.g., GROOPS software toolkit) to practical applications for water resource management and climate change monitoring. Prof. Eicker's work demonstrates leadership in the field of satellite gravimetry, with numerous publications in high-impact journals addressing critical challenges in Earth observation and climate monitoring. Though specific awards aren't mentioned in the provided materials, her extensive publication record and leadership in major projects like MAGIC indicate significant recognition within the geodetic and hydrological communities. Her research has strong implications for understanding climate change impacts on water resources, with applications in drought monitoring, flood risk assessment, and sustainable water management. She maintains active collaborations with international institutions including NASA's Jet Propulsion Laboratory and has contributed to major initiatives like the GlobalCDA Project, which integrates geodetic and remote sensing data with hydrological models.

• Geodesy
• Satellite Gravimetry
• Gravity Field Modeling
• +4 more

Professor Wolfgang Zacharias is the Chair of Geodesy at the Technical University of Munich (TUM), leading the Geodetic Institute. His research focuses on satellite geodesy, Earth system monitoring, and climate change studies. He holds a PhD in Geodesy from TUM and has over 20 years of experience in geodetic data analysis and remote sensing applications. Education: PhD in Geodesy, Technical University of Munich, 2003 Diploma in Geomatics Engineering, Dresden University of Technology, 1998 Research Interests: Professor Zacharias specializes in integrating satellite altimetry, GPS, and radar interferometry for monitoring Earth's dynamic processes. His work addresses climate change impacts on sea levels, crustal deformation, and coastal erosion. He collaborates with international space agencies and contributes to global geodetic reference frameworks. Publications Trends: Recent articles emphasize multi-sensor data fusion, crustal deformation modeling, and climate-related geodetic applications. Key themes include satellite laser ranging, terrestrial laser scanning, and Earth rotation parameter estimation. Awards: 2023: Bavarian Order of Merit 2021: TUM Teaching Award Grants & Labs: He leads the Geodetic Institute at TUM, overseeing projects funded by the German Research Foundation (DFG) and the European Space Agency (ESA). Active in graduate education, he advises students in geodetic engineering and Earth observation technologies.

• Geodesy
• Satellite Geodesy
• Earth System Monitoring
• +3 more

Dr. Thomas Gruber is an Academic Director at the Institute for Astronomical and Physical Geodesy, Technische Universität München (TUM), where he leads research in high-resolution Earth gravity field modeling and satellite gravimetry. He is actively involved in major international projects including ESA’s GOCE, MAGIC, and QSG4EMT, as well as DFG-funded initiatives like NEROGRAV and UPLIFT. His work bridges theoretical geodesy with practical Earth observation applications. His primary research interests include: High-resolution gravity field modeling Satellite and quantum gravimetry Time-variable gravity and geophysical mass transport Sea level studies and altimetry Geodetic SAR for height system unification Future gravity mission concepts His recent publications focus on next-generation satellite missions, quantum sensors, and the integration of satellite and terrestrial gravity data. Trends indicate a strong emphasis on improving temporal and spatial resolution of gravity field models, with applications in climate monitoring, hydrology, and oceanography. He plays a key role in defining Essential Geodetic Variables (EGVs) and advancing global geodetic infrastructure through GGOS. Scientific contributions include leadership in: Development of global gravity models (e.g., XGM, GOCO) GOCE mission data processing and validation ESA and DFG project coordination International collaboration through IAG and GGOS He advises doctoral and master’s students and participates in national and international grant-funded research. He leads or contributes to teams working on: Gravity field combination and error modeling Quantum sensor simulation (CARIOQA-PMP) Geodetic SAR applications Sea level and mass transport analysis

• High resolution Earth gravity field modeling
• Satellite gravimetry
• Time-variable gravity field analysis
• +13 more

Prof. Dr. Florian Seitz is Full Professor of Geodetic Geodynamics at the Technical University of Munich (TUM) and Director of the German Geodetic Research Institute (DGFI-TUM). His research focuses on satellite geodesy applications for Earth system monitoring, with particular expertise in geodetic reference frames, sea level changes, and ocean dynamics. He leads international efforts in Earth observation through multiple space agency collaborations. Seitz earned his doctorate at TUM in 2004 with research on atmospheric and oceanic influences on Earth rotation, completed his Habilitation in 2011 on 'Geodetic Contributions to Earth System Research,' and served as junior professor of Earth Oriented Space Science and Technology (ESPACE) from 2007-2012. His career includes a research fellowship at NASA's Jet Propulsion Laboratory in 2006. His primary research interests encompass the exploration of dynamic processes in the Earth system using satellite geodesy, with specific focus on realizing global and regional geodetic reference systems, studying geodynamics, and analyzing sea level changes and ocean currents through satellite altimetry. His work bridges geodesy, oceanography, and climate science to understand Earth system interactions. Analysis of Seitz's recent publications reveals strong emphasis on satellite altimetry applications across three main domains: Arctic ocean monitoring (particularly Chukchi Sea circulation), coastal sea level variability (including vertical land motion effects), and river discharge estimation (using innovative DAHITI database approach). His research demonstrates consistent advancement in processing techniques for challenging environments like sea ice zones and coastal regions. Chair of ESA Genesis ITRF and Combination of Techniques Working Group (2024-present) Immediate Past President of IAU Commission A2 on Rotation of the Earth (2021-2024) President of IAU Commission A2 on Rotation of the Earth (2018-2021) Deputy Speaker of Forschungsgruppe Satellitengeodäsie (2016-present) Chair of TUM Examination Board Geodesy (2018-present) As Director of DGFI-TUM, Seitz oversees a major institution contributing to international reference systems. His team develops advanced algorithms for satellite data processing, maintains the DAHITI database for global river monitoring, and contributes to the DTRF series of terrestrial reference frames. Current research priorities include improving Arctic ocean monitoring with new satellite missions (SWOT, Sentinel-6), developing better coastal sea level models, and advancing techniques for measuring river discharge in ungauged basins.

• Satellite Geodesy
• Earth System Dynamics
• Geodetic Reference Systems
• +7 more

Juri Sidorenko is a researcher affiliated with the Fraunhofer Institute of Optronics, System Technologies and Image Exploitation IOSB in Ettlingen, Germany, and the Institute of Astronomical and Physical Geodesy at the Technical University of Munich. His research focuses on Time of Arrival measurement models and non-convex optimization techniques for localization systems. His work combines mathematical optimization with geodetic principles to solve positioning challenges in indoor and outdoor environments, particularly addressing the problem of local minima in quadratic optimization systems. His research has significant implications for self-calibration systems where reference station positions are unknown. Dr. Sidorenko's scholarly contributions include analytical proofs and numerical validations demonstrating how adding an extra dimension to objective functions can transform local minima into saddle points, substantially improving optimization reliability in positioning applications.

• Time of Arrival measurement
• Non-convex optimization
• Localization systems
• +3 more

Reiner Rummel is a Carl von Linde Senior Fellow at Technische Universität München (TUM), holding a professorial academic rank within the Department of Astronomical and Physical Geodesy. His career includes leadership roles such as former head of TUM’s Institute for Astronomical and Physical Geodesy, and professorships at Delft University of Technology. He has contributed significantly to satellite gravimetry, Earth’s gravitational field analysis, and geodetic observing systems. Education: Engineering diploma from TU München (1970), PhD from Technical University of Darmstadt (1974, dissertation on stochastic methods in geodesy). Postdoctoral research at Ohio State University (1974–76) and German Geodetic Research Institute (1976–78). Professional roles include membership in international academies (e.g., German Academy of Sciences Leopoldina, Royal Netherlands Academy) and leadership in ESA’s GOCE mission advisory group. Research focuses on physical geodesy, satellite-based gravitational field determination, and spectral methods. Notable achievements include advancing the GOCE mission’s scientific outcomes and developing methodologies for Earth’s gravity field analysis. Awards include the Bavarian Order of Merit (2008), Vening Meinesz Medal (1998), and honorary doctoral degrees from multiple universities. Publications span over four decades, emphasizing satellite gravimetry applications, dynamic ocean topography, and geodetic system unification. His work bridges geodesy with climate science, oceanography, and solid Earth dynamics. Current affiliations include TUM’s Institute for Advanced Study and leadership in global geodetic networks. Awards: Over 10 major honors, including medals from geophysical societies and academy memberships. Key Projects: GOCE mission science, Integrated Global Geodetic Observing System (IGGOS), and height system unification initiatives.

• Physical Geodesy
• Satellite Gravimetry
• Gravitational Field Analysis
• +3 more

Dr. Alexander Neidhardt is a research scientist and software engineer at the Geodetic Observatory Wettzell, part of the Forschungseinrichtung Satellitengeodäsie (FESG) at the Technical University of Munich (TUM). He leads the group for microwave techniques (VLBI – GNSS – DORIS) and serves as the network manager for TUM networks at the observatory. He is also a member of the ESA GENESIS Science Exploitation Team and the IVS Network Coordinator. His work is central to the development and automation of control systems for geodetic instruments, particularly within the VGOS framework. Neidhardt's research focuses on applied computer science for space geodesy, especially the development of remotely controllable and autonomous systems for geodetic observatories. He has pioneered advancements in the automation of VLBI and SLR systems, contributing significantly to projects like e-RemoteCtrl and the integration of seamless auxiliary data. His expertise bridges software engineering and high-precision geodetic measurement technologies. His recent publications reflect a strong trend in the automation, monitoring, and technical enhancement of geodetic infrastructure, particularly radio telescopes. Topics include system monitoring for seamless auxiliary data, automation of SLR systems, and the technical status of the TWIN radio telescopes. His work is instrumental in advancing next-generation VLBI networks (VGOS) and improving the accuracy and reliability of geodetic observations. Dr. Neidhardt is actively involved in international collaborations, including IVS, ESA, and DFG projects. He has contributed to major scientific efforts such as the PRIDE technique for Mars Express, tracking of lunar and planetary spacecraft, and the development of Ka-band VLBI networks. He also participates in educational initiatives, delivering lectures for the ESPACE and Transportation Systems master’s programs. He has held various leadership and coordination roles, including chair of the IVS Task Force on Seamless Auxiliary Data Archives, safety representative at Wettzell, and technical expert for safety equipment. His career has been marked by continuous innovation in the software and operational frameworks that support modern geodetic observatories.

• Applied Computer Science
• Space Geodesy
• VLBI (Very Long Baseline Interferometry)
• +7 more

Josef Niedermaier is a researcher at the Chair of Astronomical & Physical Geodesy, Technical University of Munich (TUM), where he contributes to advanced research in geopotential modeling and gravity field analysis. His work is closely tied to major international geodetic initiatives and collaborative research projects including ESA and DFG-funded programs. His research focuses on physical and satellite geodesy , particularly in the areas of gravity field modeling , geoid determination , and error assessment in regional and global models . He investigates challenges in mountainous regions and contributes to the development of high-precision height systems based on geopotential references. His methodological focus includes error tree analysis and validation of state-of-the-art geoid experiments. The recent publications highlight a strong trend toward quantifying uncertainties in gravity field models, improving regional modeling accuracy , and supporting the standardization of global height systems . His collaborative work with Roland Pail, Thorsten Gruber, and others reflects active participation in the international geodetic community. No scientific awards mentioned in the provided text. Josef Niedermaier has supervised at least one bachelor’s thesis, indicating involvement in academic mentoring. While no specific grants are listed, his participation in DFG Research Unit NEROGRAV and ESA projects (MAGIC, QSG4EMT, Baltic+) suggests engagement in externally funded research. He contributes to large-scale scientific collaborations focused on gravity and geoid modeling. He is part of the Engineering Institute for Astronomical and Physical Geodesy at TUM, working within a team focused on satellite geodesy and high-precision gravity field solutions. His work supports broader efforts in Earth system monitoring and reference frame development.

• Physical Geodesy
• Satellite Geodesy
• Gravity Field Modeling
• +5 more

Markus Heinze is a researcher at the Chair of Astronomical & Physical Geodesy, Technical University of Munich, actively contributing to satellite geodesy, gravimetry, and GNSS data processing. He is involved in major ESA and DFG-funded projects including GOCE, GETRIS, NEROGRAV, and UPLIFT, focusing on precise orbit determination, geodetic monitoring, and Earth observation. His research interests span Satellite Geodesy , Precise Orbit Determination , Gravimetry , GNSS Data Processing , Remote Sensing , and Geophysical Monitoring . His work integrates advanced geodetic techniques for monitoring alpine environments, permafrost dynamics, hydrological changes, and urban subsurface structures using relative gravimetry, SAR imaging, and electronic corner reflectors. The 15 most recent publications highlight a strong trend towards geodetic monitoring of environmental changes, particularly in high-alpine and permafrost-affected regions, leveraging satellite and ground-based sensors. There is a clear evolution from early work on GOCE orbit determination and GNSS clock modeling to current applications in climate impact assessment and infrastructure monitoring. Scientific contributions include: Development of methods for precise intersatellite ranging Improvements in GNSS data processing with Galileo integration Validation of GOCE gravity field models and orbits Innovative use of SAR and electronic corner reflectors for long-term deformation monitoring Application of relative gravimetry to detect hydrostatic pressure changes in alpine tunnels and rock slopes Markus Heinze advises bachelor's students in geodetic and environmental research topics. His supervised theses cover cavity detection in urban areas, meteorological correlations with gravimetric signals, and instrument tilt effects on gravimeter accuracy. He is part of collaborative research teams in DFG Research Units NEROGRAV and UPLIFT, and participates in ESA projects MAGIC, QSG4EMT, and Baltic+, contributing to satellite applications and geodetic infrastructure development. He is associated with the Engineering Institute for Astronomical and Physical Geodesy and works under the supervision of Prof. Dr. Roland Pail and Prof. Dr. Urs Hugentobler. The research environment emphasizes interdisciplinary collaboration, innovation in geodetic instrumentation, and application-driven science for Earth system monitoring.

• Satellite Geodesy
• Precise Orbit Determination
• Gravimetry
• +7 more

Steffen Schön is a Professor at the Institute of Geodesy, Leibniz University Hannover, affiliated with the Faculty of Civil Engineering and Geodetic Science. His roles include Dean of Studies for Geodesy and Geoinformatics, and Speaker of the DFG Research Training Group GRK2159 (i.c.sens). He is also a liaison professor for the Studienstiftung des deutschen Volkes. Schön’s research focuses on GNSS technology, atomic clocks, collaborative positioning, antenna calibration, quantum inertial navigation, and satellite gravity missions. He leads projects in the QuantumFrontiers and CRC 1464 TerraQ initiatives. His research explores antenna phase center corrections, multipath mitigation, and hybrid sensor systems combining classical and quantum accelerometers. Recent work includes evaluating quantum sensors for space navigation and improving GNSS integrity in urban environments. He has collaborated globally through programs like the IGS Antenna Ring Campaign and contributes to 5G NR positioning research. Publications span antenna calibration methodologies, inertial navigation improvements, and applications of GNSS in autonomous systems. His work addresses challenges in frequency transfer, tropospheric parameter retrieval, and resilient timekeeping for technical infrastructure. Schön’s research integrates geodetic, aerospace, and quantum physics domains, emphasizing practical applications for navigation and environmental monitoring.

• GNSS Technology
• Atomic Clocks
• Collaborative Positioning
• +8 more

Prof. Urs Hugentobler is a full professor at the Institute for Astronomical and Physical Geodesy at Technische Universität München (TUM), leading the Satellite Geodesy Department and the Forschungseinrichtung Satellitengeodäsie (FESG). His work focuses on precise geodetic applications of GNSS systems, satellite orbit determination, and Earth rotation studies. He holds a doctorate in astronomy from the University of Bern (1997) and has extensive experience with the ESA and international geodetic networks. Education: Master’s in theoretical physics (University of Bern, 1989), PhD in astronomy (University of Bern, 1997). Professional roles include leadership at the Bernese GPS Software group and the Wettzell Geodetic Observatory collaboration. His research emphasizes satellite gravimetry, solar radiation pressure modeling, and multi-technique geodetic observations. Research interests span satellite geodesy, GNSS applications, time/frequency transfer, and Earth system monitoring. Key contributions include advancements in Galileo and BeiDou satellite modeling, and the development of the Bernese GNSS Software. His work bridges geodesy with space science, addressing challenges in precision positioning and global reference frames. Publications highlight innovations in multi-GNSS analysis, satellite orbit determination, and Earth rotation parameters. His lab, FESG, supports TUM’s geodetic research and operational activities at Wettzell. Ongoing projects include the ESA Baltic+ and NEROGRAV initiatives, focusing on gravimetry and Earth dynamics.

• Satellite Geodesy
• Global Navigation Satellite Systems (GNSS)
• Precise Orbit Determination
• +4 more

Prof. Dr.-Ing. Rüdiger Lehmann is a Professor of Surveying Engineering at the Faculty of Spatial Information, Dresden University of Applied Sciences. His academic career focuses on advancing geodetic measurement techniques and statistical analysis methods. He serves on the editorial board of the Journal of Surveying Engineering and leads research initiatives in geodetic statistics and cloud computing applications for geospatial data analysis. His work bridges theoretical advancements with practical applications in surveying engineering and geodetic science. Professor Lehmann's primary research interests center on developing innovative estimation techniques for complex geodetic observation models. His work spans outlier detection , robust estimation methods , advanced hypothesis testing , and model selection in geodetic adjustment . He has made significant contributions to Monte Carlo techniques for geodetic data analysis and has pioneered approaches for enhancing the accuracy, reliability, and computational efficiency of geodetic measurements. His research addresses fundamental challenges in processing increasingly complex geospatial data while maintaining statistical rigor. An analysis of Professor Lehmann's publication record reveals a strong focus on statistical foundations of geodesy. His work consistently addresses core challenges in coordinate transformations, network reliability, and error modeling. A notable trend is his investigation of alternative approaches to traditional statistical methods, including comparative studies of mean shift versus variance inflation for outlier detection. His research bridges theoretical statistics with practical surveying applications, with increasing emphasis on computational efficiency and cloud-based solutions as evidenced by his IN DUBIO PRO GEO project. Professor Lehmann serves on the editorial board of the Journal of Surveying Engineering, contributing to the scholarly discourse in his field. His leadership in this capacity demonstrates recognition of his expertise by the international geodetic community. Professor Lehmann leads the research project "Advanced methods of Geodetic Statistics" and has developed "IN DUBIO PRO GEO - Geodetic Cloud Computing," a universal geodetic software solution. These initiatives reflect his commitment to advancing both theoretical frameworks and practical tools for the geodetic community. His work supports the next generation of geospatial professionals through innovative computational approaches. Professor Lehmann's laboratory work focuses on computational geodesy, particularly through the IN DUBIO PRO GEO platform, which provides cloud-based solutions for geodetic computations. This environment supports advanced statistical analysis of geodetic networks and promotes accessibility of sophisticated computation methods to practitioners worldwide.

• Geodesy
• Surveying Engineering
• Geodetic Statistics
• +5 more