RSC Advances

Dataset for the following publication L. Quaroni et al. Mid-infrared spectroscopy and microscopy of subcellular structures in eukaryotic cells with atomic force microscopy – infrared spectroscopy. RSC Advances (2018) 8, 5, 2786 - 2794.

The goal of this work is to functionalize polyelectrolyte complex saloplastics with lysozyme by salt annealing. The pore formation and closing were systematically studied first. After determining the suitable conditions, the loading of lysozyme was conducted via two routes. The functionalized saloplastics have shown enzymatic activity which remained stable for 7 days. With this simple but effective post-treatment, it is possible to incorporate bio-contents into saloplastics which is difficult for conventional plastics.The correpsbonding data are categorized per each Table/Figure for the article and the Supporting Information.

The goal of this work is to functionalize polyelectrolyte complex saloplastics with lysozyme by salt annealing. The pore formation and closing were systematically studied first. After determining the suitable conditions, the loading of lysozyme was conducted via two routes. The functionalized saloplastics have shown enzymatic activity which remained stable for 7 days. With this simple but effective post-treatment, it is possible to incorporate bio-contents into saloplastics which is difficult for conventional plastics.The correpsbonding data are categorized per each Table/Figure for the article and the Supporting Information.

Dataset for publication DOI: 10.1039/d4ra00734d. Detailed descriptions are in the README text documents in subdirectories.

Publication and supported data for publication DOI: 10.1039/d4ra00734d. Detailed descriptions are in the README text documents in subdirectories.

Dataset for publication DOI: 10.1039/d4ra00734d. Detailed descriptions are in the README text documents in subdirectories.

Electron adsorption ionization ion mobility spectrometry can be used to detect halogen-containing volatile organic compounds with high sensitivity. However, this traditional electron attachment detection method cannot distinguish between volatile organic compounds containing the same halogen. For different organic compounds containing the same halogen, the product ions formed by the dissociation electron attachment process are the same. In this article, we propose a novel negative corona discharge ion mobility spectrometry method to distinguish between and detect halogenated alkanes containing the same halogen according to the different electron attachment rates and reaction kinetic parameters of the different halogenated alkanes. Although these halogenated alkanes, which contain the same halogen, produce the same type of ions through the electron attachment process, their electron attachment rates are different from each other. In this work, the kinetic information is used as the fingerprint information for the tested samples to distinguish different halogenated alkanes. Five halogenated alkanes were successfully detected using this method. The results show that the method based on the electron attachment rate constant is feasible for the determination of halogenated alkanes containing the same halogen.

NMR and GPC raw data of the polyethers prepared in this study are provided via this dataset. The data is organized according to Tables (and specific Table entries) as found in the paper. The NMR raw data allows for calculation of the average block lengths. GPC data provides information about sample purity.

The collection contains set of data related to the synthesis of Re nanosctructures further applied as homogenous catalysts for the reduction of 4-nitrophenol. The aim of the work was to develop synthetic protocol and to estimate the plasma-liquid interactions allowing to obtain nanostructures of desired catalytica characteristics.

This data set includes the data of (1) FT-IR spectra of Mn: ZnS QDs, ZIF-8, Mn: ZnS QDs@ZIF-8@MIP and Mn: ZnS QDs@ZIF-8@ NIP, (2) XRD patterns of Mn: ZnS QDs, ZIF-8, Mn: ZnS QDs@ZIF-8@MIP and Mn: ZnS QDs@ZIF-8 @NIP, (3) Stability of RTP intensity of Mn: ZnS QDs@ZIF-8 @MIP and Effect of time on phosphorescence intensity ratio P/P0 of Mn: ZnS QDs@ZIF-8 @MIP in the presence of Chlorpyrifos , (4) effects of pH on phosphorescent intensity of Mn: ZnS QDs@ZIF-8@MIP, (5) room temperature phosphorescence response of Mn: ZnS QDs@ZIF-8 @MIP and Mn: ZnS QDs@ZIF-8 @ NIP to different concentrations of chlorpyrifos, (6) quantitative relationship curve between the phosphorescence intensity ratio P0/P of Mn: ZnS QDs@ZIF-8@MIP and Mn: ZnS QDs@ZIF-8@NIP and chlorpyrifos, (7) Effect of different organic pesticides on phosphorescence intensity ratio P0/P of Mn: ZnS QDs@ZIF-8@MIP and Mn: ZnS QDs@ZIF-8@NIP, (8) Comparison of the results of different methods for the detection of chlorpyrifos, (9) effect of different metal ions on room temperature phosphorescence intensity of Mn: ZnS QDs@ZIF-8 @MIP, (10) Quantitative detection of chlorpyrifos in real water samples.