cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.6084/m9.figshare.1409398.v303
title: ABO phenotype protected reproduction as it is based on fucosylations.

description: The molecular biological relationship between human fertility and the formation of the ABO(H) blood group phenotype is evident in the rare (Oh) or <i>Bombay</i> blood type, which, based on the history of his own family, the <i>Darwin/Wedgewood Dynasty</i>, Charles Darwin would have interpreted as resulting from reduced fertility in consanguinities. In its native form, the <i>Bombay</i> type occurs in individuals with an extremely rare genotype (h/h;se/se), in whom the fucosyltransferases FUT1 and FUT2 are not produced due to point mutations. These enzymes, which are encoded on chromosome 19, are epistatically connected with the A and B allelic glycotransferase functions encoded on chromosome 9, and the fucosyl residues provide the functional-structural basis for the formation of any ABO(H) phenotype on the cell surface or in secretions and plasma proteins. Immunoglobulins are also heavily fucosylated, and fucosyl residues appear, via developmental variations in their positions on cell surfaces and on the heavy chains of immunoglobulins, to increase or reduce antibody-mediated cellular cytotoxicity involving physiological anti-self-reactivity; moreover, by regulating the assembly and intracellular signalling of precursor B cell receptors, the core fucosylation of immunoglobulin heavy chains represents a key mechanism in clonal selection. In fact, the seminal plasma of leukospermic infertile men has been reported to exhibit high levels of poorly core-fucosylated IgG. Thus, when antibody-dependent cellular cytotoxicity can be increased 50-fold simply by removing the single fucose residue from the Fc glycan, in <i>Bombay </i>type individuals, the non-somatic glycosylation processes of embryogenic stem cell-to-germ cell transformation are most likely exposed to metabolic competition with multiple glycosidic sites of poorly fucosylated, glycan-depleted immunoglobulins, suggesting to promote anti-self-reactive cellular cytotoxicity in male gamete performance.
DOI: 10.6084/m9.figshare.1409398.v304
title: ABO phenotype protected reproduction as it is based on fucosylations.

description: The molecular biological relationship between human fertility and the formation of the ABO(H) blood group phenotype is evident in the rare (Oh) or <i>Bombay</i> blood type, which, based on the history of his own family, the <i>Darwin/Wedgewood Dynasty</i>, Charles Darwin would have interpreted as resulting from reduced fertility in consanguinities. In its native form, the <i>Bombay</i> type occurs in individuals with an extremely rare genotype (h/h;se/se), in whom the fucosyltransferases FUT1 and FUT2 are not produced due to point mutations. These enzymes, which are encoded on chromosome 19, are epistatically connected with the A and B allelic glycotransferase functions encoded on chromosome 9, and the fucosyl residues provide the functional-structural basis for the formation of any ABO(H) phenotype on the cell surface or in secretions and plasma proteins. Immunoglobulins are also heavily fucosylated, and fucosyl residues appear, via developmental variations in their positions on cell surfaces and on the heavy chains of immunoglobulins, to increase or reduce antibody-mediated cellular cytotoxicity involving physiological anti-self-reactivity; moreover, by regulating the assembly and intracellular signalling of precursor B cell receptors, the core fucosylation of immunoglobulin heavy chains represents a key mechanism in clonal selection. In fact, the seminal plasma of leukospermic infertile men has been reported to exhibit high levels of poorly core-fucosylated IgG. Thus, when antibody-dependent cellular cytotoxicity can be increased 50-fold simply by removing the single fucose residue from the Fc glycan, in <i>Bombay </i>type individuals, the non-somatic glycosylation processes of embryogenic stem cell-to-germ cell transformation are most likely exposed to metabolic competition with multiple glycosidic sites of poorly fucosylated, glycan-depleted immunoglobulins, suggesting to promote anti-self-reactive cellular cytotoxicity in male gamete performance.
DOI: 10.6084/m9.figshare.1409398.v305
title: ABO phenotype protected reproduction as it is based on fucosylations.

description: The molecular biological relationship between human fertility and the formation of the ABO(H) blood group phenotype is evident in the rare (Oh) or <i>Bombay</i> blood type, which, based on the history of his own family, the <i>Darwin/Wedgewood Dynasty</i>, Charles Darwin would have interpreted as resulting from reduced fertility in consanguinities. In its native form, the <i>Bombay</i> type occurs in individuals with an extremely rare genotype (h/h;se/se), in whom the fucosyltransferases FUT1 and FUT2 are not produced due to point mutations. These enzymes, which are encoded on chromosome 19, are epistatically connected with the A and B allelic glycotransferase functions encoded on chromosome 9, and the fucosyl residues provide the functional-structural basis for the formation of any ABO(H) phenotype on the cell surface or in secretions and plasma proteins. Immunoglobulins are also heavily fucosylated, and fucosyl residues appear, via developmental variations in their positions on cell surfaces and on the heavy chains of immunoglobulins, to increase or reduce antibody-mediated cellular cytotoxicity involving physiological anti-self-reactivity; moreover, by regulating the assembly and intracellular signalling of precursor B cell receptors, the core fucosylation of immunoglobulin heavy chains represents a key mechanism in clonal selection. In fact, the seminal plasma of leukospermic infertile men has been reported to exhibit high levels of poorly core-fucosylated IgG. Thus, when antibody-dependent cellular cytotoxicity can be increased 50-fold simply by removing the single fucose residue from the Fc glycan, in <i>Bombay </i>type individuals, the non-somatic glycosylation processes of embryogenic stem cell-to-germ cell transformation are most likely exposed to metabolic competition with multiple glycosidic sites of poorly fucosylated, glycan-depleted immunoglobulins, suggesting to promote anti-self-reactive cellular cytotoxicity in male gamete performance.
DOI: 10.6084/m9.figshare.1394784
title: Gaussian Job Archive for I4

description: Archive of work produced using the resources of the Imperial College High Performance Computing Service.
DOI: 10.6084/m9.figshare.1409398.v306
title: ABO phenotype protected reproduction as it is based on fucosylations.

description: The molecular biological relationship between human fertility and the formation of the ABO(H) blood group phenotype is evident in the rare (Oh) or <i>Bombay</i> blood type, which, based on the history of his own family, the <i>Darwin/Wedgewood Dynasty</i>, Charles Darwin would have interpreted as resulting from reduced fertility in consanguinities. In its native form, the <i>Bombay</i> type occurs in individuals with an extremely rare genotype (h/h;se/se), in whom the fucosyltransferases FUT1 and FUT2 are not produced due to point mutations. These enzymes, which are encoded on chromosome 19, are epistatically connected with the A and B allelic glycotransferase functions encoded on chromosome 9, and the fucosyl residues provide the functional-structural basis for the formation of any ABO(H) phenotype on the cell surface or in secretions and plasma proteins. Immunoglobulins are also heavily fucosylated, and fucosyl residues appear, via developmental variations in their positions on cell surfaces and on the heavy chains of immunoglobulins, to increase or reduce antibody-mediated cellular cytotoxicity involving physiological anti-self-reactivity; moreover, by regulating the assembly and intracellular signalling of precursor B cell receptors, the core fucosylation of immunoglobulin heavy chains represents a key mechanism in clonal selection. In fact, the seminal plasma of leukospermic infertile men has been reported to exhibit high levels of poorly core-fucosylated IgG. Thus, when antibody-dependent cellular cytotoxicity can be increased 50-fold simply by removing the single fucose residue from the Fc glycan, in <i>Bombay </i>type individuals, the non-somatic glycosylation processes of embryogenic stem cell-to-germ cell transformation are most likely exposed to metabolic competition with multiple glycosidic sites of poorly fucosylated, glycan-depleted immunoglobulins, suggesting to promote anti-self-reactive cellular cytotoxicity in male gamete performance.
DOI: 10.6084/m9.figshare.1394728
title: Gaussian Job Archive for Br2

description: Archive of work produced using the resources of the Imperial College High Performance Computing Service.
DOI: 10.6084/m9.figshare.1394784.v1
title: Gaussian Job Archive for I4

description: Archive of work produced using the resources of the Imperial College High Performance Computing Service.
DOI: 10.6084/m9.figshare.1394725
title: Man et al. 2015 Brain Images

description: Brain Images from Man et al. 2015
DOI: 10.6084/m9.figshare.1394727
title: Gaussian Job Archive for C6H6

description: Archive of work produced using the resources of the Imperial College High Performance Computing Service.
DOI: 10.6084/m9.figshare.1394725.v1
title: Man et al. 2015 Brain Images

description: Brain Images from Man et al. 2015
DOI: 10.6084/m9.figshare.1394728.v1
title: Gaussian Job Archive for Br2

description: Archive of work produced using the resources of the Imperial College High Performance Computing Service.
DOI: 10.6084/m9.figshare.1394727.v1
title: Gaussian Job Archive for C6H6

description: Archive of work produced using the resources of the Imperial College High Performance Computing Service.
DOI: 10.6084/m9.figshare.1409398.v307
title: ABO phenotype protected reproduction as it is based on fucosylations.

description: The molecular biological relationship between human fertility and the formation of the ABO(H) blood group phenotype is evident in the rare (Oh) or <i>Bombay</i> blood type, which, based on the history of his own family, the <i>Darwin/Wedgewood Dynasty</i>, Charles Darwin would have interpreted as resulting from reduced fertility in consanguinities. In its native form, the <i>Bombay</i> type occurs in individuals with an extremely rare genotype (h/h;se/se), in whom the fucosyltransferases FUT1 and FUT2 are not produced due to point mutations. These enzymes, which are encoded on chromosome 19, are epistatically connected with the A and B allelic glycotransferase functions encoded on chromosome 9, and the fucosyl residues provide the functional-structural basis for the formation of any ABO(H) phenotype on the cell surface or in secretions and plasma proteins. Immunoglobulins are also heavily fucosylated, and fucosyl residues appear, via developmental variations in their positions on cell surfaces and on the heavy chains of immunoglobulins, to increase or reduce antibody-mediated cellular cytotoxicity involving physiological anti-self-reactivity; moreover, by regulating the assembly and intracellular signalling of precursor B cell receptors, the core fucosylation of immunoglobulin heavy chains represents a key mechanism in clonal selection. In fact, the seminal plasma of leukospermic infertile men has been reported to exhibit high levels of poorly core-fucosylated IgG. Thus, when antibody-dependent cellular cytotoxicity can be increased 50-fold simply by removing the single fucose residue from the Fc glycan, in <i>Bombay </i>type individuals, the non-somatic glycosylation processes of embryogenic stem cell-to-germ cell transformation are most likely exposed to metabolic competition with multiple glycosidic sites of poorly fucosylated, glycan-depleted immunoglobulins, suggesting to promote anti-self-reactive cellular cytotoxicity in male gamete performance.
DOI: 10.6084/m9.figshare.1394710
title: Morphological and Compositional Analysis of Electrodeposited Indium (III) Sulfide (In2S3) Films

description: In the last few years, notable progress in understanding the growth mechanism of thin solar films deposited by numerous techniques have been made. Electrodeposition continues to be a complex deposition technique that can lead to low-quality material regions (crack) in the semiconductor material. Such cracks form porous zones on the substrate and diminish the heterojunction interface quality of a photovoltaic (PV) cell. In this paper, electrodeposition of In2S3 films was systematically and quantitatively investigated by varying the electrodeposition parameters including bath composition, current density, deposition time, and deposition temperature. Their effects upon the film growth mechanism, composition, and morphology were studied with the help of scanning electron microscopy (SEM), energy dispersive X-ray spectroscopy (EDS), and fracture and buckling software (digital image analysis). In addition, the effect of different glass-substrates (Mo, ITO, and FTO) and annealing treatments upon the performance of the electrodeposited In2S3 film was analyzed. Furthermore, the Taguchi Method was used to determine the optimal electrodeposition parameters and study their influence upon the morphological and compositional properties of In2S3 films.
DOI: 10.6084/m9.figshare.1394711
title: Stoichiometric Control via Periods of Open-circuit During Electrodeposition

description: Electrodeposition can enable stoichiometric control of deposited samples through variation of electroplating potential. We demonstrate an in-situ technique for deposit analysis and stoichiometric control by interspersing periods of open-circuit during deposition. Opening the circuit in an organic Cu-In-S plating bath allows greater incorporation of Cu, In, and/or S into deposited films, based upon the open-circuit voltage the film/electrolyte interface is allowed to achieve. With the same deposition potential, samples can be made to vary from highly Cu-rich to highly In-rich through selection of an appropriate open-circuit voltage limit.
DOI: 10.6084/m9.figshare.1409398.v308
title: ABO phenotype protected reproduction as it is based on fucosylations.

description: The molecular biological relationship between human fertility and the formation of the ABO(H) blood group phenotype is evident in the rare (Oh) or <i>Bombay</i> blood type, which, based on the history of his own family, the <i>Darwin/Wedgewood Dynasty</i>, Charles Darwin would have interpreted as resulting from reduced fertility in consanguinities. In its native form, the <i>Bombay</i> type occurs in individuals with an extremely rare genotype (h/h;se/se), in whom the fucosyltransferases FUT1 and FUT2 are not produced due to point mutations. These enzymes, which are encoded on chromosome 19, are epistatically connected with the A and B allelic glycotransferase functions encoded on chromosome 9, and the fucosyl residues provide the functional-structural basis for the formation of any ABO(H) phenotype on the cell surface or in secretions and plasma proteins. Immunoglobulins are also heavily fucosylated, and fucosyl residues appear, via developmental variations in their positions on cell surfaces and on the heavy chains of immunoglobulins, to increase or reduce antibody-mediated cellular cytotoxicity involving physiological anti-self-reactivity; moreover, by regulating the assembly and intracellular signalling of precursor B cell receptors, the core fucosylation of immunoglobulin heavy chains represents a key mechanism in clonal selection. In fact, the seminal plasma of leukospermic infertile men has been reported to exhibit high levels of poorly core-fucosylated IgG. Thus, when antibody-dependent cellular cytotoxicity can be increased 50-fold simply by removing the single fucose residue from the Fc glycan, in <i>Bombay </i>type individuals, the non-somatic glycosylation processes of embryogenic stem cell-to-germ cell transformation are most likely exposed to metabolic competition with multiple glycosidic sites of poorly fucosylated, glycan-depleted immunoglobulins, suggesting to promote anti-self-reactive cellular cytotoxicity in male gamete performance.
DOI: 10.6084/m9.figshare.1394708
title: Elemental sulfur-based electrodeposition of indium sulfide films

description: We report research on electrodeposition of indium sulfide films, with In2S3 a less hazardous alternative to CdS buffer layers in solar cells. Numerous organic and aqueous/organic electrolytes of InCl3, NaCl, and elemental sulfur were investigated, including several glycols and amides. Temperatures ranged from 80-170°C, and deposition voltages from -0.6 to -1.2 V (Ag/AgCl with organic filling solution). Substrates included indium tin oxide-on-glass, molybdenum, and titanium, with indium or graphite anodes. Rapid stirring was used. Deposition was sluggish in all baths. Uniformity and adherence were only moderate, with irregular coverage and cracking-and-flaking sometimes evident. The best baths were ethylene glycol or 1, 2-propanediol-based, with golden-yellow films, nominally In2S3-xOx, depositing typically heavier around the substrate edges. With low temperatures and/or large currents, brown films more rich in indium sometimes formed. Cyclic voltammetry elucidated onset potentials, secondary reactions, and photoactivity, with the greatest anodic photocurrents arising from In2S3's n-type conductivity occurring with mixed ethylene glycol/propionic acid/water baths. Scanning electron microscope photographs indicated a compact small grain microstructure for yellow films. Energy dispersive X-ray analysis and photoelectron spectroscopy data indicate up to 15% oxygen content.
DOI: 10.6084/m9.figshare.1394709
title: Optimization of the Electrodeposition Parameters to Improve the Stoichiometry of In 2 S 3 Films for Solar Applications Using the Taguchi Method

description: Properties of electrodeposited semiconductor thin films are dependent upon the electrolyte composition, plating time, and temperature as well as the current density and the nature of the substrate. In this study, the influence of the electrodeposition parameters such as deposition voltage, deposition time, composition of solution, and deposition temperature upon the properties of In2S3 films was analyzed by the Taguchi Method. According to Taguchi analysis, the interaction between deposition voltage and deposition time was significant. Deposition voltage had the largest impact upon the stoichiometry of In2S3 films and deposition temperature had the least impact. The stoichiometric ratios between sulfur and indium (S/In: 3/2) obtained from experiments performed with optimized electrodeposition parameters were in agreement with predicted values from the Taguchi Method. The experiments were carried out according to Taguchi orthogonal array L27 () design of experiments (DOE). Approximately 600 nm thick In2S3 films were electrodeposited from an organic bath (ethylene glycol-based) containing indium chloride (InCl3), sodium chloride (NaCl), and sodium thiosulfate (Na2S2O3·5H2O), the latter used as an additional sulfur source along with elemental sulfur (S). An X-ray diffractometer (XRD), energy dispersive X-ray spectroscopy (EDS) unit, and scanning electron microscope (SEM) were, respectively, used to analyze the phases, elemental composition, and morphology of the electrodeposited In2S3 films.
DOI: 10.6084/m9.figshare.1394710.v1
title: Morphological and Compositional Analysis of Electrodeposited Indium (III) Sulfide (In2S3) Films

description: In the last few years, notable progress in understanding the growth mechanism of thin solar films deposited by numerous techniques have been made. Electrodeposition continues to be a complex deposition technique that can lead to low-quality material regions (crack) in the semiconductor material. Such cracks form porous zones on the substrate and diminish the heterojunction interface quality of a photovoltaic (PV) cell. In this paper, electrodeposition of In2S3 films was systematically and quantitatively investigated by varying the electrodeposition parameters including bath composition, current density, deposition time, and deposition temperature. Their effects upon the film growth mechanism, composition, and morphology were studied with the help of scanning electron microscopy (SEM), energy dispersive X-ray spectroscopy (EDS), and fracture and buckling software (digital image analysis). In addition, the effect of different glass-substrates (Mo, ITO, and FTO) and annealing treatments upon the performance of the electrodeposited In2S3 film was analyzed. Furthermore, the Taguchi Method was used to determine the optimal electrodeposition parameters and study their influence upon the morphological and compositional properties of In2S3 films.
DOI: 10.6084/m9.figshare.1394711.v1
title: Stoichiometric Control via Periods of Open-circuit During Electrodeposition

description: Electrodeposition can enable stoichiometric control of deposited samples through variation of electroplating potential. We demonstrate an in-situ technique for deposit analysis and stoichiometric control by interspersing periods of open-circuit during deposition. Opening the circuit in an organic Cu-In-S plating bath allows greater incorporation of Cu, In, and/or S into deposited films, based upon the open-circuit voltage the film/electrolyte interface is allowed to achieve. With the same deposition potential, samples can be made to vary from highly Cu-rich to highly In-rich through selection of an appropriate open-circuit voltage limit.
DOI: 10.6084/m9.figshare.1394686
title: EMG data sets for classification

description: These files contain category-labeled training and test data sets for EMG signal classification. The data sets are preprocessed. For more details, see articles below. Hand movement EMG data is published with: Hahne JM, Graimann B, M üller KR. Spatial filtering for robust myoelectric control. IEEE Transactions on Biomedical Engineering 59: 1436-1443, 2012. Finger lift EMG data published with: Kauppi JP, Hahne J, Müller KR, Hyvärinen A. Three-way analysis of spectrospatial electromyography data:<br>classi cation and interpretation, PLOS ONE, accepted, 2015. Please cite these articles if you use the provided EMG data sets in your research.
DOI: 10.6084/m9.figshare.1394709.v1
title: Optimization of the Electrodeposition Parameters to Improve the Stoichiometry of In 2 S 3 Films for Solar Applications Using the Taguchi Method

description: Properties of electrodeposited semiconductor thin films are dependent upon the electrolyte composition, plating time, and temperature as well as the current density and the nature of the substrate. In this study, the influence of the electrodeposition parameters such as deposition voltage, deposition time, composition of solution, and deposition temperature upon the properties of In2S3 films was analyzed by the Taguchi Method. According to Taguchi analysis, the interaction between deposition voltage and deposition time was significant. Deposition voltage had the largest impact upon the stoichiometry of In2S3 films and deposition temperature had the least impact. The stoichiometric ratios between sulfur and indium (S/In: 3/2) obtained from experiments performed with optimized electrodeposition parameters were in agreement with predicted values from the Taguchi Method. The experiments were carried out according to Taguchi orthogonal array L27 () design of experiments (DOE). Approximately 600 nm thick In2S3 films were electrodeposited from an organic bath (ethylene glycol-based) containing indium chloride (InCl3), sodium chloride (NaCl), and sodium thiosulfate (Na2S2O3·5H2O), the latter used as an additional sulfur source along with elemental sulfur (S). An X-ray diffractometer (XRD), energy dispersive X-ray spectroscopy (EDS) unit, and scanning electron microscope (SEM) were, respectively, used to analyze the phases, elemental composition, and morphology of the electrodeposited In2S3 films.