cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.6084/m9.figshare.5942914
title: Nature and significance of the late Mesozoic granitoids in the southern Great Xing’an range, eastern Central Asian Orogenic Belt

description: Abundant late Mesozoic granitic rocks are widespread in the southern Great Xing’an Range (GXAR), which have attracted much attention due to its significance for the Mesozoic tectonic evolution in the eastern Central Asian Orogenic Belt. However, controversy has still surrounded the late Mesozoic geodynamic switching in the continental margin of east China, especially the spatial and temporal extent of the influence of the Mongol-Okhotsk and Palaeo-Pacific tectonic regimes. In order to better understand the Late Mesozoic evolutionary history of the southern GXAR, a number of geochemical, geochronological, and isotopic data of the granitoids in this region are collected. Magmatism in the southern GXAR can be divided into six phases: Late Carboniferous (325–303 Ma), Early-Middle Permian (287–260 Ma), Triassic (252–220 Ma), Early Jurassic (182–176 Ma), Late Jurassic (154–146 Ma), and Early Cretaceous (145–111 Ma). Mesozoic magmatic activities in the southern GXAR peaked during the Late Jurassic to Early Cretaceous, accompanied by large-scale mineralization. Sr–Nd–Hf isotopic evidence of these granitic rocks suggested they were likely originated from a mixed source composed of lower crust and newly underplated basaltic crust. Assimilation-fractional crystallization (AFC) or crustal contamination possibly occurred in the magma evolution, and a much more addition of juvenile component to the source of the Early Cretaceous granitoids than that of Late Jurassic. The closure of Mongol-Okhotsk ocean and the break-off of the Mongol-Okhotsk oceanic slab at depth in the Jurassic triggered extensive magmatism and related mineralization in this region. The Jurassic intrusive activities was affected by both the subduction of the Palaeo-Pacific plate and the closure of Mongol-Okhotsk ocean. Less influence of the Mongol-Okhotsk tectonic regime on the Early Cretaceous magmatism, whereas, in contrast the Palaeo-Pacific tectonic regime possibly continued into the Cenozoic.
DOI: 10.6084/m9.figshare.5942914.v1
title: Nature and significance of the late Mesozoic granitoids in the southern Great Xing’an range, eastern Central Asian Orogenic Belt

description: Abundant late Mesozoic granitic rocks are widespread in the southern Great Xing’an Range (GXAR), which have attracted much attention due to its significance for the Mesozoic tectonic evolution in the eastern Central Asian Orogenic Belt. However, controversy has still surrounded the late Mesozoic geodynamic switching in the continental margin of east China, especially the spatial and temporal extent of the influence of the Mongol-Okhotsk and Palaeo-Pacific tectonic regimes. In order to better understand the Late Mesozoic evolutionary history of the southern GXAR, a number of geochemical, geochronological, and isotopic data of the granitoids in this region are collected. Magmatism in the southern GXAR can be divided into six phases: Late Carboniferous (325–303 Ma), Early-Middle Permian (287–260 Ma), Triassic (252–220 Ma), Early Jurassic (182–176 Ma), Late Jurassic (154–146 Ma), and Early Cretaceous (145–111 Ma). Mesozoic magmatic activities in the southern GXAR peaked during the Late Jurassic to Early Cretaceous, accompanied by large-scale mineralization. Sr–Nd–Hf isotopic evidence of these granitic rocks suggested they were likely originated from a mixed source composed of lower crust and newly underplated basaltic crust. Assimilation-fractional crystallization (AFC) or crustal contamination possibly occurred in the magma evolution, and a much more addition of juvenile component to the source of the Early Cretaceous granitoids than that of Late Jurassic. The closure of Mongol-Okhotsk ocean and the break-off of the Mongol-Okhotsk oceanic slab at depth in the Jurassic triggered extensive magmatism and related mineralization in this region. The Jurassic intrusive activities was affected by both the subduction of the Palaeo-Pacific plate and the closure of Mongol-Okhotsk ocean. Less influence of the Mongol-Okhotsk tectonic regime on the Early Cretaceous magmatism, whereas, in contrast the Palaeo-Pacific tectonic regime possibly continued into the Cenozoic.
DOI: 10.6084/m9.figshare.5942839
title: <i>Mnb/Dyrk1A</i> orchestrates a transcriptional network at the transition from self-renewing neurogenic progenitors to postmitotic neuronal precursors

description: The Down syndrome and microcephaly related gene <i>Mnb/Dyrk1A</i> encodes an evolutionary conserved protein kinase subfamily that plays important roles in neurodevelopment. <i>minibrain</i> (<i>mnb</i>) mutants of <i>Drosophila melanogaster (Dm)</i> exhibit reduced adult brains due to neuronal deficits generated during larval development. These deficits are the consequence of the apoptotic cell death of numerous neuronal precursors that fail to properly exit the cell cycle and differentiate. We have recently found that in both the <i>Dm</i> larval brain and the embryonic vertebrate central nervous system (CNS), a transient expression of Mnb/Dyrk1A promotes the cell cycle exit of newborn neuronal precursors by upregulating the expression of the cyclin-dependent kinase inhibitor p27kip1 (called Dacapo in <i>Dm</i>). In the larval brain, Mnb performs this action by regulating the expression of three transcription factors, Asense (Ase), Deadpan (Dpn) and Prospero (Pros), which are key regulators of the self-renewal, proliferation, and terminal differentiation of neural progenitor cells. We have here studied in detail the cellular/temporal expression pattern of Ase, Dpn, Pros and Mnb, and have analyzed possible regulatory effects among them at the transitions from neurogenic progenitors to postmitotic neuronal precursors in the <i>Dm</i> larval brain. The emerging picture of this analysis reveals an intricate regulatory network in which Mnb appears to play a pivotal role helping to delineate the dynamics of the expression patterns of Ase, Dpn and Pros, as well as their specific functions in the aforementioned transitions. Our results also show that Ase, Dpn and Pros perform several cross-regulatory actions and contribute to shape the precise cellular/temporal expression pattern of Mnb. We propose that Mnb/Dyrk1A plays a central role in CNS neurogenesis by integrating molecular mechanisms that regulate progenitor self-renewal, cell cycle progression and neuronal differentiation.
DOI: 10.6084/m9.figshare.5942839.v1
title: <i>Mnb/Dyrk1A</i> orchestrates a transcriptional network at the transition from self-renewing neurogenic progenitors to postmitotic neuronal precursors

description: The Down syndrome and microcephaly related gene <i>Mnb/Dyrk1A</i> encodes an evolutionary conserved protein kinase subfamily that plays important roles in neurodevelopment. <i>minibrain</i> (<i>mnb</i>) mutants of <i>Drosophila melanogaster (Dm)</i> exhibit reduced adult brains due to neuronal deficits generated during larval development. These deficits are the consequence of the apoptotic cell death of numerous neuronal precursors that fail to properly exit the cell cycle and differentiate. We have recently found that in both the <i>Dm</i> larval brain and the embryonic vertebrate central nervous system (CNS), a transient expression of Mnb/Dyrk1A promotes the cell cycle exit of newborn neuronal precursors by upregulating the expression of the cyclin-dependent kinase inhibitor p27kip1 (called Dacapo in <i>Dm</i>). In the larval brain, Mnb performs this action by regulating the expression of three transcription factors, Asense (Ase), Deadpan (Dpn) and Prospero (Pros), which are key regulators of the self-renewal, proliferation, and terminal differentiation of neural progenitor cells. We have here studied in detail the cellular/temporal expression pattern of Ase, Dpn, Pros and Mnb, and have analyzed possible regulatory effects among them at the transitions from neurogenic progenitors to postmitotic neuronal precursors in the <i>Dm</i> larval brain. The emerging picture of this analysis reveals an intricate regulatory network in which Mnb appears to play a pivotal role helping to delineate the dynamics of the expression patterns of Ase, Dpn and Pros, as well as their specific functions in the aforementioned transitions. Our results also show that Ase, Dpn and Pros perform several cross-regulatory actions and contribute to shape the precise cellular/temporal expression pattern of Mnb. We propose that Mnb/Dyrk1A plays a central role in CNS neurogenesis by integrating molecular mechanisms that regulate progenitor self-renewal, cell cycle progression and neuronal differentiation.
DOI: 10.6084/m9.figshare.5942608
title: Dataset for: Working memory alpha-beta band oscillatory signatures in adolescents and young adults

description: The timing of neural activity is an intriguing way of exposing behaviourally-relevant neural activity, as neural populations exploit transient windows of synchronized activations to exchange dynamic communications in the service of various cognitive operations. The link between neural synchrony and working memory (WM) has been supported at the theoretical and empirical level. However, findings have also shown that WM encoding is also related to significant alpha-beta desynchronization. These findings have been primarily recorded during subsequent memory effect paradigms that compare correct with incorrect encoding trials. The dissociable contribution imparted by various processes to WM performance suggests that incorrect performance may not be directly translatable to unsuccessful encoding. Here, we address the relationship between alpha-beta desynchronization and encoding through the use of an alternative paradigm design by contrasting frontal and parietal human scalp EEG activity during the encoding interval of a delayed-matching to sample task with that recorded during a control task. The additional use of nonverbal/semantic visual stimulation and recruitment of typically developing adolescent subjects, has led us to the conclusion that encoding-relevant alpha-beta decrements can be replicated via a nonverbal/semantic delayed matching to sample task and these are also evident in typically developing adolescents, in addition to adults, as has been previously demonstrated. The identification of encoding-related alpha-beta decrements in adolescent subjects performing such WM tasks may open new avenues to explore whether such a rhythmic signature may explain WM and electrophysiological deficits that emerge in various adolescent neuropsychiatric disorders such as ADHD.
DOI: 10.6084/m9.figshare.5942608.v1
title: Dataset for: Working memory alpha-beta band oscillatory signatures in adolescents and young adults

description: The timing of neural activity is an intriguing way of exposing behaviourally-relevant neural activity, as neural populations exploit transient windows of synchronized activations to exchange dynamic communications in the service of various cognitive operations. The link between neural synchrony and working memory (WM) has been supported at the theoretical and empirical level. However, findings have also shown that WM encoding is also related to significant alpha-beta desynchronization. These findings have been primarily recorded during subsequent memory effect paradigms that compare correct with incorrect encoding trials. The dissociable contribution imparted by various processes to WM performance suggests that incorrect performance may not be directly translatable to unsuccessful encoding. Here, we address the relationship between alpha-beta desynchronization and encoding through the use of an alternative paradigm design by contrasting frontal and parietal human scalp EEG activity during the encoding interval of a delayed-matching to sample task with that recorded during a control task. The additional use of nonverbal/semantic visual stimulation and recruitment of typically developing adolescent subjects, has led us to the conclusion that encoding-relevant alpha-beta decrements can be replicated via a nonverbal/semantic delayed matching to sample task and these are also evident in typically developing adolescents, in addition to adults, as has been previously demonstrated. The identification of encoding-related alpha-beta decrements in adolescent subjects performing such WM tasks may open new avenues to explore whether such a rhythmic signature may explain WM and electrophysiological deficits that emerge in various adolescent neuropsychiatric disorders such as ADHD.
DOI: 10.6084/m9.figshare.5942590
title: Work in Marie Claire Australia October 2017

description: High Fashion images and video featuring work by Felicity Boevink from Marie Claire Australia
DOI: 10.6084/m9.figshare.5942590.v1
title: Work in Marie Claire Australia October 2017

description: High Fashion images and video featuring work by Felicity Boevink from Marie Claire Australia
DOI: 10.6084/m9.figshare.5942572
title: Workshop Presentation at " Coming into Fashion" - Home of the Arts Gold Coast

description: Developed and gave workshops as part of a major regional exhibition "Coming Into Fashion" at " The Home of the Arts GoldCoast " in December 2017.
DOI: 10.6084/m9.figshare.5942572.v2
title: Workshop Presentation at " Coming into Fashion" - Home of the Arts Gold Coast

description: Developed and gave workshops as part of a major regional exhibition "Coming Into Fashion" at " The Home of the Arts GoldCoast " in December 2017.
DOI: 10.6084/m9.figshare.5942572.v1
title: Exhibition - Home of the Arts - Gold Coast

description: Gave workshop for major regional exhibition "Coming Into Fashion" in December 2017.
DOI: 10.6084/m9.figshare.5942569.v1
title: Dipolar electrochemical properties for vanadium oxides

description: CV curves in the potential window of -0.8 to 0.8 V at various scan rates for a, NP <i>c</i>-V<sub>2</sub>O<sub>3</sub>, b, NP <i>c</i>-V<sub>2</sub>O<sub>3</sub>/<i>r</i>-VO<sub>2-<i>x</i></sub> and, c, NP <i>r</i>-VO<sub>2</sub> film electrodes. <br>
DOI: 10.6084/m9.figshare.5942548
title: Non-parametric Data Assimilation Scheme for Land Hydrological Applications

description: These data correspond to the paper entitled "" submitted to Water Resource Research journal.
DOI: 10.6084/m9.figshare.5942548.v2
title: Non-parametric Data Assimilation Scheme for Land Hydrological Applications

description: These data correspond to the paper entitled "" submitted to Water Resource Research journal.
DOI: 10.6084/m9.figshare.5942548.v1
title: Non-parametric Data Assimilation Scheme for Land Hydrological Applications

description: These data correspond to the paper entitled "" submitted to Water Resource Research journal.
DOI: 10.6084/m9.figshare.5942485
title: Drosophila melanogaster images thorax and abdomen from experimentally evolved (with predator) lineages

description: These images were from an experiment performed by Cody Porter using experimentally evolved lineages of <i>Drosophila melanogaster.</i> In particular these lineages (Experimental evolution performed by Dr. Michael DeNieu while a graduate student) were evolved either with a predator (juvenile Chinese mantids, <i>Tenodera aridifolia sinensis</i>) or no predator control lineages. <br><br>Dr. DeNieu speculated based on preliminary observations that the selected lineages may have evolved darker pigmentation. Cody Porter (while an undergraduate researcher in the lab) took standardized images of the Drosophila from the evolved lineages (control and predator) to measure any changes in pigmentation.<br><br>While our initial analysis did not show anything, images are provided in case they are useful for other researchers.<br><br>This work was conducted in the lab of Ian Dworkin while at Michigan State University.<br><br><br>All images were taken on a LeicaM125 Microscope with a Leica DFC400 digital camera, using Leica Application Suite (LAS) v3.4.0.<br><br>Image resolution of 1892 x 1040 px<br><br>scale was either 32X or 25X total magnification.<br><br><br>File Naming convention:<br><br>SEX (M/F)<br>treatment (control = con , selection = sel). selection lineages were the ones evolved with <br><br>predators. Controls evolved without predators.<br>1/2 - replicate evolved lineage (2 independently evolved lineages for control and treatment)<br>four - seven age of the fly being imaged in days<br>abdomen or thorax - which structure was being imaged<br>final number is individual<br><br>So<br><br><br>F_sel1_seven_abdomen_04.tif<br><br>means<br><br>Female selection lineage 1 imaged at seven days old for the abdomen, individual 4.<br><br>
DOI: 10.6084/m9.figshare.5942485.v1
title: Drosophila melanogaster images thorax and abdomen from experimentally evolved (with predator) lineages

description: These images were from an experiment performed by Cody Porter using experimentally evolved lineages of <i>Drosophila melanogaster.</i> In particular these lineages (Experimental evolution performed by Dr. Michael DeNieu while a graduate student) were evolved either with a predator (juvenile Chinese mantids, <i>Tenodera aridifolia sinensis</i>) or no predator control lineages. <br><br>Dr. DeNieu speculated based on preliminary observations that the selected lineages may have evolved darker pigmentation. Cody Porter (while an undergraduate researcher in the lab) took standardized images of the Drosophila from the evolved lineages (control and predator) to measure any changes in pigmentation.<br><br>While our initial analysis did not show anything, images are provided in case they are useful for other researchers.<br><br>This work was conducted in the lab of Ian Dworkin while at Michigan State University.<br><br><br>All images were taken on a LeicaM125 Microscope with a Leica DFC400 digital camera, using Leica Application Suite (LAS) v3.4.0.<br><br>Image resolution of 1892 x 1040 px<br><br>scale was either 32X or 25X total magnification.<br><br><br>File Naming convention:<br><br>SEX (M/F)<br>treatment (control = con , selection = sel). selection lineages were the ones evolved with <br><br>predators. Controls evolved without predators.<br>1/2 - replicate evolved lineage (2 independently evolved lineages for control and treatment)<br>four - seven age of the fly being imaged in days<br>abdomen or thorax - which structure was being imaged<br>final number is individual<br><br>So<br><br><br>F_sel1_seven_abdomen_04.tif<br><br>means<br><br>Female selection lineage 1 imaged at seven days old for the abdomen, individual 4.<br><br>
DOI: 10.6084/m9.figshare.5942485.v2
title: Drosophila melanogaster images thorax and abdomen from experimentally evolved (with predator) lineages

description: These images were from an experiment performed by Cody Porter using experimentally evolved lineages of <i>Drosophila melanogaster.</i> In particular these lineages (Experimental evolution performed by Dr. Michael DeNieu while a graduate student) were evolved either with a predator (juvenile Chinese mantids, <i>Tenodera aridifolia sinensis</i>) or no predator control lineages. <br><br>Dr. DeNieu speculated based on preliminary observations that the selected lineages may have evolved darker pigmentation. Cody Porter (while an undergraduate researcher in the lab) took standardized images of the Drosophila from the evolved lineages (control and predator) to measure any changes in pigmentation.<br><br>While our initial analysis did not show anything, images are provided in case they are useful for other researchers.<br><br>This work was conducted in the lab of Ian Dworkin while at Michigan State University.<br><br><br>All images were taken on a LeicaM125 Microscope with a Leica DFC400 digital camera, using Leica Application Suite (LAS) v3.4.0.<br><br>Image resolution of 1892 x 1040 px<br><br>scale was either 32X or 25X total magnification.<br><br><br>File Naming convention:<br><br>SEX (M/F)<br>treatment (control = con , selection = sel). selection lineages were the ones evolved with <br><br>predators. Controls evolved without predators.<br>1/2 - replicate evolved lineage (2 independently evolved lineages for control and treatment)<br>four - seven age of the fly being imaged in days<br>abdomen or thorax - which structure was being imaged<br>final number is individual<br><br>So<br><br><br>F_sel1_seven_abdomen_04.tif<br><br>means<br><br>Female selection lineage 1 imaged at seven days old for the abdomen, individual 4.<br><br>
DOI: 10.6084/m9.figshare.5942485.v4
title: Drosophila melanogaster images thorax and abdomen from experimentally evolved (with predator) lineages

description: These images were from an experiment performed by Cody Porter using experimentally evolved lineages of <i>Drosophila melanogaster.</i> In particular these lineages (Experimental evolution performed by Dr. Michael DeNieu while a graduate student) were evolved either with a predator (juvenile Chinese mantids, <i>Tenodera aridifolia sinensis</i>) or no predator control lineages. <br><br>Dr. DeNieu speculated based on preliminary observations that the selected lineages may have evolved darker pigmentation. Cody Porter (while an undergraduate researcher in the lab) took standardized images of the Drosophila from the evolved lineages (control and predator) to measure any changes in pigmentation.<br><br>While our initial analysis did not show anything, images are provided in case they are useful for other researchers.<br><br>This work was conducted in the lab of Ian Dworkin while at Michigan State University.<br><br><br>All images were taken on a LeicaM125 Microscope with a Leica DFC400 digital camera, using Leica Application Suite (LAS) v3.4.0.<br><br>Image resolution of 1892 x 1040 px<br><br>scale was either 32X or 25X total magnification.<br><br><br>File Naming convention:<br><br>SEX (M/F)<br>treatment (control = con , selection = sel). selection lineages were the ones evolved with <br><br>predators. Controls evolved without predators.<br>1/2 - replicate evolved lineage (2 independently evolved lineages for control and treatment)<br>four - seven age of the fly being imaged in days<br>abdomen or thorax - which structure was being imaged<br>final number is individual<br><br>So<br><br><br>F_sel1_seven_abdomen_04.tif<br><br>means<br><br>Female selection lineage 1 imaged at seven days old for the abdomen, individual 4.<br><br>
DOI: 10.6084/m9.figshare.5942485.v3
title: Drosophila melanogaster images thorax and abdomen from experimentally evolved (with predator) lineages

description: These images were from an experiment performed by Cody Porter using experimentally evolved lineages of <i>Drosophila melanogaster.</i> In particular these lineages (Experimental evolution performed by Dr. Michael DeNieu while a graduate student) were evolved either with a predator (juvenile Chinese mantids, <i>Tenodera aridifolia sinensis</i>) or no predator control lineages. <br><br>Dr. DeNieu speculated based on preliminary observations that the selected lineages may have evolved darker pigmentation. Cody Porter (while an undergraduate researcher in the lab) took standardized images of the Drosophila from the evolved lineages (control and predator) to measure any changes in pigmentation.<br><br>While our initial analysis did not show anything, images are provided in case they are useful for other researchers.<br><br>This work was conducted in the lab of Ian Dworkin while at Michigan State University.<br><br><br>All images were taken on a LeicaM125 Microscope with a Leica DFC400 digital camera, using Leica Application Suite (LAS) v3.4.0.<br><br>Image resolution of 1892 x 1040 px<br><br>scale was either 32X or 25X total magnification.<br><br><br>File Naming convention:<br><br>SEX (M/F)<br>treatment (control = con , selection = sel). selection lineages were the ones evolved with <br><br>predators. Controls evolved without predators.<br>1/2 - replicate evolved lineage (2 independently evolved lineages for control and treatment)<br>four - seven age of the fly being imaged in days<br>abdomen or thorax - which structure was being imaged<br>final number is individual<br><br>So<br><br><br>F_sel1_seven_abdomen_04.tif<br><br>means<br><br>Female selection lineage 1 imaged at seven days old for the abdomen, individual 4.<br><br>