Adam Lyszkowicz

Prof. Adam Lyszkowicz


Research Focus & Metrics

Academic Career Length

18Years (2009-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 November 2010 in Technical Sciences
Verified
Journal Article
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ALAdam Lyszkowicz
Adam Lyszkowicz

1 November 2019 in Advances In Space Research
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Journal Article
Closed access
ALAdam Lyszkowicz
Adam Lyszkowicz
ABAnna Bernatowicz
Anna Bernatowicz

1 September 2021 in Artificial Satellites
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Journal Article
Open access
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ALAdam Lyszkowicz
Adam Lyszkowicz
RPRenata Pelc-Mieczkowska
Renata Pelc-Mieczkowska
ABAnna Bernatowicz
Anna Bernatowicz
Stepan SavchukStepan Savchuk
Stepan Savchuk
The aim of this work is to explore, for the first time in Poland, the possibility of determining Earth’s crust movements from permanent observations at selected permanent stations using the GipsyX software for a period of 8 years (2011–2018) in the ITRF2014 reference frame. The data used in this work are from 15 Aktywna Sieć Geodezyjna (ASG)-EUPOS stations from 2011 to 2018, which are also European Permanent Network (EPN) stations. The stations Borowa Góra, Borowiec, Józefosław, Lamkówko, and Wroclaw are also International Global Navigation Satellite Systems (GNSS) Service (IGS) stations. Daily data, rinex files, for these stations have been made available for this work by the Main Office of Surveying and Cartography. The calculations were made using the GipsyX software in the ITRF14 reference frame. The tests performed have shown that daily solutions from 8-year-long time series give secular trends with an accuracy of 0.01 mm/yr. Our results suggest that there are small differences in horizontal and vertical velocities and in the accuracy estimated between our and EPN solutions. At some stations, for example, Łódź, the differences are much larger. The impact of additional GNSS observations on the accuracy of determination of horizontal and vertical movements of the Earth’s crust shows a submillimeter accuracy in computed coordinates of stations even at a relatively small time interval. It means that multi-GNSS Precise Point Positioning (PPP) processing can be used in the future for the estimation of geodynamic processes.

20 December 2017 in Geodesy and Cartography
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Journal Article
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ALAdam Lyszkowicz
Adam Lyszkowicz
ABAnna Bernatowicz
Anna Bernatowicz
One of the fundamental problems of modern geodesy is precise defi nition of the gravitational fi eld and its changes in time. This is essential in positioning and navigation, geophysics, geodynamics, oceanography and other sciences related to the climate and Earth’s environment. One of the major sources of gravity data is satellite altimetry that provides gravity data with almost 75% surface of the Earth. Satellite altimetry also provides data to study local, regional and global geophysical processes, the geoid model in the areas of oceans and seas. This technique can be successfully used to study the ocean mean dynamic topography. The results of the investigations and possible products of altimetry will provide a good material for the GGOS (Global Geodetic Observing System) and institutions of IAS (International Altimetry Service). This paper presents the achievements in satellite altimetry in all the above disciplines obtained in the last years. First very shorly basic concept of satellite altimetry is given. In order to obtain the highest accuracy on range measurements over the ocean improved of altimetry waveforms performed on the ground is described. Next, signifi cant improvements of sea and ocean gravity anomalies models developed presently is shown. Study of sea level and its extremes examined, around European and Australian coasts using tide gauges data and satellite altimetry measurements were described. Then investigations of the phenomenon of the ocean tides, calibration of altimeters, studies of rivers and ice-sheets in the last years are given.

1 November 2009 in Technical Sciences
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Journal Article
Closed access
ALAdam Lyszkowicz
Adam Lyszkowicz
Metapress is a fast growing digital platform that helps visitors to answer questions, solve problems, learn new skills, find inspiration and provide the latest Technology news.

1 January 2017
Verified
Conference Paper
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ABAnna Bernartowicz
Anna Bernartowicz
ALAdam Lyszkowicz
Adam Lyszkowicz
Satellite radar altimetry is a successful technique for monitoring elevations of continental surface water. The surface water level is measured within a terrestrial reference frame with a repeatability varying from 10 to 35 days depending on the orbit cycle of the satellite. With several decades of technique refinement; current data processing can be fairly simple or complex depending on the mission and the tracking methods. Data acquisition is not affected by weather conditions; but the technique can have a number of limitations. However; the technique is sufficiently advanced to have allowed a number of inland water case studies. Focusing on the large lakes; the links between lake evolution and the local climate cycle on seasonal to interannual timescales can be explored; and water storage balance for water management also can be brought into focus. This article reviews present day lake level monitoring and the case study of the Łebsko lake in Poland. First the basic principle of satellite altimetry, current altimetry missions, hydrology application and lake and reservoir altimetry measurements in web sites are shortly describe. Next the investigation of the surface of the Łebsko lake in Poland was carried out. From our study reveals that altimetry could provide a promising future for true global lake studies with height and width observation of all targets with centimeter accuracy.