Maksymilian Solarski

Dr. Maksymilian Solarski

University of Silesia, Katowice, Śląskie, Poland
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Research Focus & Metrics

Academic Career Length

16Years (2011-Present)

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

Representative Publications

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12 December 2015 in Land Degradation & Development
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RMRobert Machowski
Robert Machowski
MRMartyna Anna Rzetala
Martyna Anna Rzetala
MRMariusz Rzetala
Mariusz Rzetala
Maksymilian SolarskiMaksymilian Solarski
Maksymilian Solarski

8 October 2019 in Scientific Reports
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Journal Article
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RMRobert Machowski
Robert Machowski
MRMartyna Anna Rzetala
Martyna Anna Rzetala
MRMariusz Rzetala
Mariusz Rzetala
Maksymilian SolarskiMaksymilian Solarski
Maksymilian Solarski
An assessment was carried out of the anthropogenic enrichment of the chemical composition of the bottom sediments of water bodies situated in an area with an urban and industrial character (63.7% of the total area). The endorheic catchments of the water bodies studied are lithologically uniform with sandy formations accounting for more than 90% of the surface area. On the basis of geoaccumulation index values, it was found that the bottom sediments of the water bodies studied were contaminated with the following elements: Cd, Zn, S, As, Pb, Sr, Co, Cr, Cu, Ba, Ni, V, Be, in degrees ranging from moderate to extreme, with lower contamination (or absence of contamination) with the same elements being found in the formations present in the vicinity and in the substrate of the basins of water bodies. It was found that one consequence of the fact that these water bodies are located in urban and industrial areas is that there is anthropogenic enrichment of the chemical composition of bottom sediments with certain basic components (organic matter, Mn, Ca and P compounds) and trace elements: Cd, Zn, Pb, Sb, As, Cu and Co, Br, Ni, S, Be, Cs, Sr, V, Cr, Sc, Ba, U, Ce, Eu and Th, with virtually no enrichment of sediments with the other basic and trace components analysed (La, Rb, K2O, Nd, Sm, Na2O, Hf, SiO2, Zr).

5 July 2023 in Sustainability
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IKIwona Kantor-Pietraga
Iwona Kantor-Pietraga
Robert KrzysztofikRobert Krzysztofik
Robert Krzysztofik
Maksymilian SolarskiMaksymilian Solarski
Maksymilian Solarski
Green and blue infrastructure is a unique aspect of sustainable development in post-industrial and post-mining cities. The article examines the issue of the characteristic post-mining lake district in one of Europe’s largest urban and hard coal mining regions—the Katowice Conurbation in Southern Poland. This article aims to clarify the conditions and problems of developing post-mining water bodies as an element of blue and green infrastructure, with a particular focus on the issue of developing recreational functions. The latter aspect was analyzed using extensive CAVI (Computer-Assisted Web Interview)/CATI (Computer-Assisted Telephone Interviewing) surveys conducted among residents, in-depth stakeholder interviews, and strategic and planning document analysis. This research confirmed that residents and local authorities treat post-mining reservoirs as necessary for creating green and blue infrastructure. Recreational functions were perceived as one of the elements of urban policy, in which the preservation of valuable ecosystems created around reservoirs has the same place. An essential element of the research findings is also the typology of post-mining reservoirs presented here, which allows for a better understanding of the development dilemmas of these areas in a highly urbanized and post-mining area.

1 January 2011 in Limnological Review
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Maksymilian SolarskiMaksymilian Solarski
Maksymilian Solarski
APAlicja Pradela
Alicja Pradela
MRMariusz Rzetala
Mariusz Rzetala
Natural and anthropogenic influences on ice formation on various water bodies of the Silesian Upland (southern Poland): The aim of the study was to identify patterns of ice-related phenomena on 39 selected anthropogenic water bodies in the Silesian Upland in southern Poland. The core research was conducted in the winter season of 2009/2010, between December and March. Field measurements and observations were conducted every two days during the freezing and thawing phases and every four days at the time of continuous ice cover. Data were interpolated to cover days without observations. Differences in the ice cover phenology on these water bodies were caused by natural conditions (morphometric and hydro-meteorological) and human activity (thermal pollution). Two principal groups of anthropogenic water bodies were identified in terms of the ice phenomena: lakes and ponds with a natural or quasi-natural pattern of ice phenomena and water bodies featuring various degrees of human impact. The thickness of the ice-cover was found to vary, which was a source of great danger to the users of the water bodies in the winter season.

MRMartyna Anna Rzetala
Martyna Anna Rzetala
RMRobert Machowski
Robert Machowski
Maksymilian SolarskiMaksymilian Solarski
Maksymilian Solarski
DBDaniel Bakota
Daniel Bakota
APArkadiusz Płomiński
Arkadiusz Płomiński
MRMariusz Rzetala
Mariusz Rzetala
The study of bottom sediments was conducted within the basins of water bodies used for recreational purposes (e.g., bathing, fishing and diving) in the Silesian Upland and its periphery in southern Poland. Various concentrations of trace elements were found in bottom sediments, reflected by the following levels: Pb (30–3020 mg/kg), Zn (142–35,300 mg/kg), Cd (0.7–286 mg/kg), Ni (10–115 mg/kg), Cu (11–298 mg/kg), Co (3–40 mg/kg), Cr (22–203 mg/kg), As (8–178 mg/kg), Ba (263–19,300 mg/kg), Sb (0.9–52.5 mg/kg), Br (1–31 mg/kg), Sr (63–510 mg/kg) and S (0.001–4.590%). These trace elements are present in amounts that usually exceed those found in other bodies of water or are sometimes even unprecedented among bodies of water in the world (e.g., cadmium—286 mg/kg, zinc—35,300 mg/kg, lead—3020 mg/kg, arsenic—178 mg/kg). It was found that bottom sediments were contaminated to varying degrees with toxic metals, metalloids and non-metals, as evidenced by the values of geoecological indicators, i.e., the geoaccumulation index (−6.31 < Igeo < 10.90), the sediment contamination factor (0.0 ≤ Cfi < 286.0), the sediment contamination degree (4.6 < Cd < 513.1) and the ratios of the concentrations found to the regional geochemical background (0.5 < IRE < 196.9). It was concluded that the presence of toxic elements (e.g., lead, zinc, cadmium, chromium, strontium and arsenic) in bottom sediments should be taken into account when classifying water bodies as suitable for recreational use. A maximum ratio of the concentrations found to the regional geochemical background of IRE ≤ 5.0 was proposed as the threshold for the permissibility of recreational use of water bodies. The water bodies used for recreational purposes in the Silesian Upland and its periphery do not meet the geoecological conditions for safe use in terms of recreation and leisure activities. Forms of their recreational use that directly affect the participants’ health (e.g., fishing and the consumption of fish and other aquatic organisms) should be abandoned.

1 March 2013 in Environmental & Socio-economic Studies
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Maksymilian SolarskiMaksymilian Solarski
Maksymilian Solarski
In this article an attempt was made to analyse the Bytom city relief changes in 1883-1994 years. It concentrates on the forms which are an effect of the mining and metallurgical activity such as subsidence depressions and dumps. Two digital relief models representing a topographic situation in year 1883 and 1994 were made by the Vertical Mapper tool in order to determine changes in the relief. The models were made by linear vectorization of contour lines, which then were processed into points. The made points were interpolated by the natural neighbour method. Maps of slopes, area profiles, contour line sketches and hypsographic curves were generated for two time periods on basis of the digital relief models. An area and values of subsidence for areas subjected to the mining activity, changes of the slopes, an average land altitude in 1883 and 1994 year were determined and an anthropogenic denudation ratio was also calculated. As the result of the research made, it has been established that the area of the subsidence is 3727 ha (about 54% of the city area) and the maximum value of subsidence is about 37 meters, there was a growth of the slopes at a simultaneous drop of the land average altitude, and the anthropogenic denudation ratio is 44 mm/year (800 greater than the natural denudation ratio).