Literature DB >> 32613039

Aggregates mineralogical composition dataset to estimate the averaged aggregate hardness parameter to predict the long-term skid resistance of pavements.

Malal Kane1, Vikki Edmondson2.   

Abstract

The raw data here are used to calculate the AHPM ("Averaged Aggregate Hardness Parameter") parameters of pavement surfaces and to determine their capacity of skid resistance in the long term. They are composed by:•the type of aggregates and their proportions by volume in each pavement,•the calculation of the Aggregate Hardness Parameter (AHP) and•the determined AHP of each of the pavements.After the calculation of this parameter and with the help of analytical functions that we recall below, the skid Resistance capacity of that asphalt surfacing in the long term will be deduced. This long-term skid resistance value corresponds to that determined in the test with the Wehner Shulz machine. The reader is invited to read the paper entitled Long-Term Skid Resistance of Asphalt Surfacings and Aggregates' Mineralogical Composition: Generalisation to Pavements made of Different Aggregate Types referenced WEA203339 [1].
© 2020 The Authors.

Entities:  

Keywords:  Aggregates mineralogical composition; Aggregates types; Asphalt surfacings; Averaged Aggregate Hardness Parameter; Long-term skid resistance; Petrographic nature; Polishing, Traffic

Year:  2020        PMID: 32613039      PMCID: PMC7317219          DOI: 10.1016/j.dib.2020.105849

Source DB:  PubMed          Journal:  Data Brief        ISSN: 2352-3409


Specifications Table Value of the Data This data is interesting because it allows you to follow the calculation procedure that leads to the parameter AHP. Anyone involved in asphalt mix design can use this data to predict the long-term skid resistance of his future surface. These data can be used and supplemented by other petrographic analyses of aggregates not included in this list.

Data description

The file Raw_Data.xls is an excel file containing: The Sample characteristic including the type of aggregate and proportions by volume and the long-term skid resistance measured on these samples. The first letters A and M of the names of the samples gives their natures (A for Asphalt mixes and M for Mosaic) (Table 1), The Mineral Composition of the aggregate contained in the samples (Table 2),

Experimental design, materials, and methods

Petrographic examination of aggregate samples was carried out under BS EN 932–3: 1997 [Kane et al., 2013]. The general characteristics of the aggregate samples including maximum particle size, texture, and shape were examined and recorded. The main rock types were then identified and the relative proportions of the mineral constituents were estimated using a light (optical) microscope. Colour, grain size, and degree of weathering were also recorded. To facilitate the quantitative examination, aggregate samples were sieved into separate size fractions and the mass of each size fraction determined. Each size fraction was then examined and the petrological composition was determined by hand separation and weighting [BS EN 932–3: 1997, Kane et al., 2013]. The method employed required two representative samples to be tested, with the result taken as the mean of the two measurements.

Declaration of Competing Interest

The authors declare that they have no known competing financial interests or personal relationships that could have appeared to influence the work reported in this paper.
SubjectCivil and Structural Engineering
Specific subject areaPavement engineering. The work aims to find the relationship between the types of coarse aggregates used in asphalt mixes and the long-term skid resistance capacity of the resulting pavements.
Type of dataTable
How data were acquiredPetrographic examination of aggregate samples was carried out under BS EN 932–3: 1997 [Kane et al., 2013].
Data formatRaw
Parameters for data collectionThe general characteristics of the aggregate samples including maximum particle size, texture, and shape were examined and recorded. The main rock types were then identified and the relative proportions of the mineral constituents were estimated using a light (optical) microscope. Colour, grain size, and degree of weathering were also recorded.
Description of data collectionTo facilitate the quantitative examination, aggregate samples were sieved into separate size fractions and the mass of each size fraction determined. Each size fraction was then examined and the petrological composition was determined by hand separation and weighting [2,3]. The method employed required two representative samples to be tested, with the result taken as the mean of the two measurements.
Data source locationUniversité Gustave EiffelCampus de NantesAllée des Ponts et Chaussées,44,340 Bouguenais, France
Data accessibilityWith the article
Related research articleM. KANE, V. EDMONDSON, Long-Term Skid Resistance of Asphalt Surfacings and Aggregates’ Mineralogical Composition: Generalisation to Pavements made of Different Aggregate Types, WEAR, In Press
  1 in total

1.  Characterizing the Diffusion and Rheological Properties of Aged Asphalt Binder Rejuvenated with Bio-Oil Based on Molecular Dynamic Simulations and Laboratory Experimentations.

Authors:  Xiaorui Zhang; Chao Han; Xinxing Zhou; Frédéric Otto; Fan Zhang
Journal:  Molecules       Date:  2021-11-23       Impact factor: 4.411

  1 in total

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