cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.24396/ordar-106
title: Effective porosity and sonic data at IODP NanTroSEIZE Site C0002

description: CEC_porosity_sample_data.csv: CEC, effective porosity, clay-bound water content, mercury injection capillary pressure measured on samples collected during IODP Expeditions 315, 338, 348 and 358 at Site C0002. Prediction_Vp_samples.csv, Prediction_Vp_from_effective_porosity_profile.csv: Modeled Vp from effective porosity measured on samples and exponential decay trend. Prediction_Vs_C0002A.csv, Prediction_Vs_C0002F.csv, Prediction_Vs_C0002P.csv, Prediction_Vs_C0002S.csv: Modeled Vs. Prediction_Phi_eff_C0002A.csv, Prediction_Phi_eff_C0002F.csv, Prediction_Phi_eff_C0002P.csv, Prediction_Phi_eff_C0002S_Ve.csv: Modeled effective porosity from Vp.
DOI: 10.17632/2fhk96s9jw.1
title: Dataset of Tax revenue determinants amid economic crises

description: Details are provided in the file
DOI: 10.17632/yyr576tjmc.1
title: The dimensionless Nusselt number data at different flow rates pertaining to the oxidation catalyst segmentation methods employed for continuous flow reactors

description: The dimensionless Nusselt number data at different flow rates are presented associated with the oxidation catalyst segmentation methods employed for continuous flow reactors. The reforming process proceeds in one set of the channels through which the endothermic reactants flow, and the exothermic oxidation process proceeds in the second set of the channels. Heat transfer occurs via conduction through the walls of the continuous flow reactor. For the endothermic reaction, the structure is especially effective because both the internal surfaces of the walls are coated with structured catalysts, which is capable of providing more efficient heat exchange and minimizing the problem of loss of catalytic activity. The channels are 0.7 millimeters in height and in width and 30.0 millimeters in length. Channel height refers to the inside height of a channel. To ensure the mechanical strength at elevated pressures, the thickness of the uncoated walls and the catalyst layers is 0.7 millimeters and 0.1 millimeters, respectively. The oxidation catalyst consists essentially of oxides of copper, zinc and aluminum. The oxidation catalyst allows for initial start-up and the heat-up of the continuous flow reactor system. The reforming catalyst consists essentially of copper and oxides of zinc and aluminum. The exothermic and endothermic processes are conducted at a pressure of 0.8 megapascals, with a methanol-air equivalence ratio of 0.8 and a steam-to-methanol molar ratio of 1.17. The inlet temperature of the mixtures is 373 degrees Kelvin. The temperature of the continuous flow reactor can be regulated by the balance of the flow rates so that the catalyst is not overheated by the exothermic process. To assure that adequate temperatures are provided for endothermic reforming, operating flow conditions are specified for the continuous flow reactor by giving the gas velocity. The boundary conditions relate macroscopic fluid flow at a catalytically active surface to the rates of surface reactions. Heterogeneous reactions at a catalytically active surface affect the heat and mass balance at the surface. In each reforming channel, the catalyst layer is reduced by half in amount. The catalyst segments have a uniform distribution of length, and the spacing between catalyst segments is equal to their length. The porous media model is applied to the computational domains of the catalytically active layers. Each porous medium is modeled by the modification of a heat conduction flux term to the standard gas phase energy balance equation.
Contributor: Junjie Chen, E-mail address: koncjj@gmail.com, ORCID: 0000-0002-5022-6863, Department of Energy and Power Engineering, School of Mechanical and Power Engineering, Henan Polytechnic University, 2000 Century Avenue, Jiaozuo, Henan, 454000, P.R. China
DOI: 10.5281/zenodo.7226457
title: [IO Islamic 3138] نگارستان

description: <strong>Nigâristân</strong><strong>.</strong> <strong>This manuscript is now IO Islamic 756 in the India Office collections.</strong> <strong>[metadata:</strong> <strong>Hermann Ethé</strong><strong><em>, </em></strong><strong><em>Catalogue of Persian Manuscripts in the Library of the India Office,</em></strong> <strong>2 vols. (Oxford: India Office, 1903): volume 1,</strong> <strong>number 3138 here with notations and hyperlinks].</strong> 756 Another copy of the same. Beginning: حمد و ستايش مر خدايرا كه ازليّتش از سمت بدايت منزّه است الخ. In the index the usual order of the seven bâbs is changed in this way, that the seventh, viz. در فوائد متفرّقه, appears as third, the third therefore as fourth, and so on (see fol. 81<sup>a</sup>), but in the text the arrangement agrees with that in the preceding copy: bâb I, on fol. 81<sup>a</sup>; II (not marked), on fol. 118<sup>b</sup>; III (not marked), on fol. 149<sup>a</sup>; IV, on fol. 178<sup>b</sup>; V (not marked), on fol. 236<sup>a</sup>; VI, on fol.271<sup>a</sup>; VII, on fol. 304<sup>a</sup>. No date; rather modern copy, bought (together with the Bahâristân, which forms the first part of this MS.) by Adam Clarke, for four guineas, 1817, from Mr. Henry George Keene, who acquired it in 1803. Received into the library, April 10, 1877. No. 3183, ff. 63-342, ll. 17; large and distinct Nasta’lîḳ; size, 11<sup>5/8</sup> in. by 6<sup>7/8</sup> in.
DOI: 10.5281/zenodo.7226456
title: [IO Islamic 3138] نگارستان

description: <strong>Nigâristân</strong><strong>.</strong> <strong>This manuscript is now IO Islamic 756 in the India Office collections.</strong> <strong>[metadata:</strong> <strong>Hermann Ethé</strong><strong><em>, </em></strong><strong><em>Catalogue of Persian Manuscripts in the Library of the India Office,</em></strong> <strong>2 vols. (Oxford: India Office, 1903): volume 1,</strong> <strong>number 3138 here with notations and hyperlinks].</strong> 756 Another copy of the same. Beginning: حمد و ستايش مر خدايرا كه ازليّتش از سمت بدايت منزّه است الخ. In the index the usual order of the seven bâbs is changed in this way, that the seventh, viz. در فوائد متفرّقه, appears as third, the third therefore as fourth, and so on (see fol. 81<sup>a</sup>), but in the text the arrangement agrees with that in the preceding copy: bâb I, on fol. 81<sup>a</sup>; II (not marked), on fol. 118<sup>b</sup>; III (not marked), on fol. 149<sup>a</sup>; IV, on fol. 178<sup>b</sup>; V (not marked), on fol. 236<sup>a</sup>; VI, on fol.271<sup>a</sup>; VII, on fol. 304<sup>a</sup>. No date; rather modern copy, bought (together with the Bahâristân, which forms the first part of this MS.) by Adam Clarke, for four guineas, 1817, from Mr. Henry George Keene, who acquired it in 1803. Received into the library, April 10, 1877. No. 3183, ff. 63-342, ll. 17; large and distinct Nasta’lîḳ; size, 11<sup>5/8</sup> in. by 6<sup>7/8</sup> in.
DOI: 10.6084/m9.figshare.3761562.v2376
title: Online Labour Index: Measuring the Online Gig Economy for Policy and Research

description: Data repository for the data underlying the Online Labour Index. See http://ilabour.oii.ox.ac.uk online-labour-index/ for details.
DOI: 10.17632/bfp3jv8dz3.1
title: WPI of food and energy resources

description: The dataset has been complied from Ministry of Statistics and Programme Implementation (MOSPI), Govt. of India for modelling food inflation w.r.t energy resources.
DOI: 10.17632/c4b7gn8bh7.1
title: Data/Software: Presynaptic Rac1 Controls Synaptic Strength Through the Regulation of Synaptic Vesicle Priming

description: Contains data and software from the publication: "Presynaptic Rac1 Controls Synaptic Strength Through the Regulation of Synaptic Vesicle Priming" currently under review. The preprint to this data set has been published on bioRxiv (https://doi.org/10.1101/2022.06.29.497712).

Synapses contain a limited number of synaptic vesicles (SVs) that are released in response to action potentials (APs). Therefore, sustaining synaptic transmission over a wide range of AP firing rates and timescales depends on SV release and replenishment. Although actin dynamics impact synaptic transmission, how presynaptic regulators of actin signaling cascades control SV release and replenishment remains unresolved. Rac1, a Rho GTPase, regulates actin signaling cascades that control synaptogenesis, neuronal development, and postsynaptic function. However, the presynaptic role of Rac1 in regulating synaptic transmission is unclear. To unravel Rac1’s roles in controlling transmitter release, we performed selective presynaptic ablation of Rac1 at the mature mouse calyx of Held synapse. Loss of Rac1 increased synaptic strength, accelerated EPSC recovery after conditioning stimulus trains, and augmented spontaneous SV release with no change in presynaptic morphology or AZ ultrastructure. Analyses with constrained short-term plasticity models revealed faster SV priming kinetics and, depending on model assumptions, elevated SV release probability or higher abundance of tightly docked fusion-competent SVs in Rac1-deficient synapses. We conclude that presynaptic Rac1 is a key regulator of synaptic transmission and plasticity mainly by regulating the dynamics of SV priming and potentially SV release probability.
DOI: 10.17632/c4b7gn8bh7.2
title: Data/Software: Presynaptic Rac1 Controls Synaptic Strength Through the Regulation of Synaptic Vesicle Priming

description: Contains data and software from the publication: "Presynaptic Rac1 Controls Synaptic Strength Through the Regulation of Synaptic Vesicle Priming" published in eLife (https://doi.org/10.7554/eLife.81505). The preprint to this data set has been published on bioRxiv (https://doi.org/10.1101/2022.06.29.497712).

Synapses contain a limited number of synaptic vesicles (SVs) that are released in response to action potentials (APs). Therefore, sustaining synaptic transmission over a wide range of AP firing rates and timescales depends on SV release and replenishment. Although actin dynamics impact synaptic transmission, how presynaptic regulators of actin signaling cascades control SV release and replenishment remains unresolved. Rac1, a Rho GTPase, regulates actin signaling cascades that control synaptogenesis, neuronal development, and postsynaptic function. However, the presynaptic role of Rac1 in regulating synaptic transmission is unclear. To unravel Rac1’s roles in controlling transmitter release, we performed selective presynaptic ablation of Rac1 at the mature mouse calyx of Held synapse. Loss of Rac1 increased synaptic strength, accelerated EPSC recovery after conditioning stimulus trains, and augmented spontaneous SV release with no change in presynaptic morphology or AZ ultrastructure. Analyses with constrained short-term plasticity models revealed faster SV priming kinetics and, depending on model assumptions, elevated SV release probability or higher abundance of tightly docked fusion-competent SVs in Rac1-deficient synapses. We conclude that presynaptic Rac1 is a key regulator of synaptic transmission and plasticity mainly by regulating the dynamics of SV priming and potentially SV release probability.
DOI: 10.17632/c4b7gn8bh7.3
title: Data/Software: Presynaptic Rac1 Controls Synaptic Strength Through the Regulation of Synaptic Vesicle Priming

description: Contains data and software from the publication: "Presynaptic Rac1 Controls Synaptic Strength Through the Regulation of Synaptic Vesicle Priming" published in eLife (https://doi.org/10.7554/eLife.81505). The preprint to this data set has been published on bioRxiv (https://doi.org/10.1101/2022.06.29.497712).

Synapses contain a limited number of synaptic vesicles (SVs) that are released in response to action potentials (APs). Therefore, sustaining synaptic transmission over a wide range of AP firing rates and timescales depends on SV release and replenishment. Although actin dynamics impact synaptic transmission, how presynaptic regulators of actin signaling cascades control SV release and replenishment remains unresolved. Rac1, a Rho GTPase, regulates actin signaling cascades that control synaptogenesis, neuronal development, and postsynaptic function. However, the presynaptic role of Rac1 in regulating synaptic transmission is unclear. To unravel Rac1’s roles in controlling transmitter release, we performed selective presynaptic ablation of Rac1 at the mature mouse calyx of Held synapse. Loss of Rac1 increased synaptic strength, accelerated EPSC recovery after conditioning stimulus trains, and augmented spontaneous SV release with no change in presynaptic morphology or AZ ultrastructure. Analyses with constrained short-term plasticity models revealed faster SV priming kinetics and, depending on model assumptions, elevated SV release probability or higher abundance of tightly docked fusion-competent SVs in Rac1-deficient synapses. We conclude that presynaptic Rac1 is a key regulator of synaptic transmission and plasticity mainly by regulating the dynamics of SV priming and potentially SV release probability.
DOI: 10.17632/c4b7gn8bh7.4
title: Data/Software: Presynaptic Rac1 Controls Synaptic Strength Through the Regulation of Synaptic Vesicle Priming

description: Contains data and software from the publication: "Presynaptic Rac1 Controls Synaptic Strength Through the Regulation of Synaptic Vesicle Priming" published in eLife (https://doi.org/10.7554/eLife.81505, PMID: 36214784 DOI: 10.7554/eLife.81505). The preprint to this data set has been published on bioRxiv (https://doi.org/10.1101/2022.06.29.497712).

ABSTRACT:
Synapses contain a limited number of synaptic vesicles (SVs) that are released in response to action potentials (APs). Therefore, sustaining synaptic transmission over a wide range of AP firing rates and timescales depends on SV release and replenishment. Although actin dynamics impact synaptic transmission, how presynaptic regulators of actin signaling cascades control SV release and replenishment remains unresolved. Rac1, a Rho GTPase, regulates actin signaling cascades that control synaptogenesis, neuronal development, and postsynaptic function. However, the presynaptic role of Rac1 in regulating synaptic transmission is unclear. To unravel Rac1’s roles in controlling transmitter release, we performed selective presynaptic ablation of Rac1 at the mature mouse calyx of Held synapse. Loss of Rac1 increased synaptic strength, accelerated EPSC recovery after conditioning stimulus trains, and augmented spontaneous SV release with no change in presynaptic morphology or AZ ultrastructure. Analyses with constrained short-term plasticity models revealed faster SV priming kinetics and, depending on model assumptions, elevated SV release probability or higher abundance of tightly docked fusion-competent SVs in Rac1-deficient synapses. We conclude that presynaptic Rac1 is a key regulator of synaptic transmission and plasticity mainly by regulating the dynamics of SV priming and potentially SV release probability.
DOI: 10.17632/wfft36pdb3.1
title: A Dataset of Sexual Harassment Studies in Indonesia

description: This dataset is a supplementary file to support research about sexual harassment in Indonesia (https://doi.org/10.1016/j.heliyon.2022.e10194). The dataset was developed in line with a data article to reveal several studies by undergraduate students at the Islamic State Universities of Indonesia (UIN).
DOI: 10.17632/k2v9kdwrkt.1
title: Mean fluid temperature data for endothermic steam reforming processes in continuous flow reactor systems at different pressures

description: The mean fluid temperature data at different pressures are obtained for the coupling of endothermic and exothermic reactions in chemical reactors. To overcome the challenges and limitations posed by batch reactors in general, continuous flow reactor systems are designed and manufactured. These continuous flow reactors possess great potential to replace batch systems for most of the applications across various industries. Flow reactors are devices in which chemical reactions take place in microchannels. Microreactors are continuous flow reactors, whereby the chemical reaction happens continuously. Microreactors offer many advantages over conventional batch reactors, including vastly improved heat transfer, increased control of reaction kinetics, higher yields, improved operational safety and higher energy efficiency. Continuous flow reactors are characterized by unique internal structure, which is able to improve the mixing of fluids, enhance mass transfer and increase total heat transfer efficiency, hence appropriate for multi-phase reactions as well as those with high risks or under harsh conditions such as high temperature and low temperature. Exothermic and endothermic reactions take place simultaneously in continuous flow reactor systems whereby the heat required for the latter is supplied by the former. Heat transfer occurs via conduction through the walls of the reactor. For the endothermic reaction, the structure is especially effective because both the internal surfaces of the walls are coated with structured catalysts. The channels are 0.7 millimeters in height and in width and 30.0 millimeters in length. To ensure the mechanical strength at elevated pressures, the thickness of the uncoated walls and the catalyst layers is 0.7 millimeters and 0.1 millimeters, respectively. The oxidation catalyst consists essentially of oxides of copper, zinc and aluminum. The reforming catalyst consists essentially of copper and oxides of zinc and aluminum. The exothermic and endothermic processes are conducted with a methanol-air equivalence ratio of 0.8 and a steam-to-methanol molar ratio of 1.17. The inlet temperature of the mixtures is 373 degrees Kelvin. The gas velocity is 2.0 meters per second at the reforming channel inlets and 0.6 meters per second at the oxidation channel inlets, thereby assuring sufficient heat in the reactor. The boundary conditions relate macroscopic fluid flow at a catalytically active surface to the rates of surface reactions. Heterogeneous reactions at a catalytically active surface affect the heat and mass balance at the surface.
Contributor: Junjie Chen, E-mail address: koncjj@gmail.com, ORCID: 0000-0002-5022-6863, Department of Energy and Power Engineering, School of Mechanical and Power Engineering, Henan Polytechnic University, 2000 Century Avenue, Jiaozuo, Henan, 454000, P.R. China
DOI: 10.17632/xrszyw6xk2.1
title: Mediating Role of Consumer Innovativeness toward Health Protective Behaviours in Private Healthcare

description: Data was analysed by using both SPSS and PLS-SEM.
DOI: 10.5281/zenodo.7226471
title: [IO Islamic 3458] انوار سهيلى

description: <strong>Anwâr-i-Suhailî.</strong> <strong>This manuscript is now IO Islamic 757 in the India Office collections.</strong> <strong>[metadata:</strong> <strong>Hermann Ethé</strong><strong><em>, </em></strong><strong><em>Catalogue of Persian Manuscripts in the Library of the India Office,</em></strong> <strong>2 vols. (Oxford: India Office, 1903): volume 1,</strong> <strong>number 3458 here with notations and hyperlinks].</strong> 757 Anwâr-i-Suhailî (انوار سهيلى). The Persian translation of Kalilah and Dimnah, by Ḥusain bin ‘Alî al-Wâ’iż alkâshifî, who died A.H. 910 (A.D. 1505); comp. Bodleian Cat., Nos. 431-437; Rieu ii. p. 756 ; W. Pertsch, Berlin Cat., p. 970 sq.; J. Aumer, p. 46 ; Cat. des MSS. et Xylographes, p. 409; Ḥ. Khalfa v. p. 239 ; Zenker i. pp. 83 and 84. Edited Calcutta, 1804, 1816, 1824, etc; Hertford (by Ch. Stewart), 1805, by J.W. Ouseley, 1851; lithographed A.H. 1270 ; translated into English by E.B. Eastwick, Hertford, 1854, by A.N. Wollaston, London, 1878. Parts of the Anwâr-i-Suhailî have been printed in text and translation in the Asiatic Journal, vol. v, in Langlès’ Chrestomathy (see on this very rare publication Pertsch, Berlin Cat., p. 442, note 2), and in Spiegel’s Chrestomathia Persica, pp. 23-40. The latter have been translated into German by H. Ethé (Morgenländische Studien, Leipzig, 1868, pp. 147-166); some miscellaneous verses from the Anwâr-i-Suhailî have been published in English translation in A. Roger’s Persian Anthology, London, 1889, pp. 35-47. The composition of this modernized version of Naṣr-allâh bin Muḥammad bin al-Ḥamîd’s older Persian translation of Al-Muḳaffa’s’ Arabic text (which was made about A.H. 539=A.D. 1144, 1145, see Bodleian Cat., No. 430) was suggested to the author by Niżâm-aldîn Amîr Shaikh Aḥmad al-Suhailî, who died A.H. 907 or 908 (A.D. 1501-1503). It contains fourteen chapters. Beginning:حضرت حكيم على الاطلاق جلت حكمته كه وظائف الخ. This copy, which is very much soiled, is dated the 8th of Shawwâl, A.H. 1097 (A.D. 1688, Aug. 28). A few various readings on the margin. No. 3458, olim 8. J. 23, ff. 235, ll. 21; careless Nasta’lîḳ; size, 9<sup>1/4</sup> in. by 5 in.
DOI: 10.5281/zenodo.7226470
title: [IO Islamic 3458] انوار سهيلى

description: <strong>Anwâr-i-Suhailî.</strong> <strong>This manuscript is now IO Islamic 757 in the India Office collections.</strong> <strong>[metadata:</strong> <strong>Hermann Ethé</strong><strong><em>, </em></strong><strong><em>Catalogue of Persian Manuscripts in the Library of the India Office,</em></strong> <strong>2 vols. (Oxford: India Office, 1903): volume 1,</strong> <strong>number 3458 here with notations and hyperlinks].</strong> 757 Anwâr-i-Suhailî (انوار سهيلى). The Persian translation of Kalilah and Dimnah, by Ḥusain bin ‘Alî al-Wâ’iż alkâshifî, who died A.H. 910 (A.D. 1505); comp. Bodleian Cat., Nos. 431-437; Rieu ii. p. 756 ; W. Pertsch, Berlin Cat., p. 970 sq.; J. Aumer, p. 46 ; Cat. des MSS. et Xylographes, p. 409; Ḥ. Khalfa v. p. 239 ; Zenker i. pp. 83 and 84. Edited Calcutta, 1804, 1816, 1824, etc; Hertford (by Ch. Stewart), 1805, by J.W. Ouseley, 1851; lithographed A.H. 1270 ; translated into English by E.B. Eastwick, Hertford, 1854, by A.N. Wollaston, London, 1878. Parts of the Anwâr-i-Suhailî have been printed in text and translation in the Asiatic Journal, vol. v, in Langlès’ Chrestomathy (see on this very rare publication Pertsch, Berlin Cat., p. 442, note 2), and in Spiegel’s Chrestomathia Persica, pp. 23-40. The latter have been translated into German by H. Ethé (Morgenländische Studien, Leipzig, 1868, pp. 147-166); some miscellaneous verses from the Anwâr-i-Suhailî have been published in English translation in A. Roger’s Persian Anthology, London, 1889, pp. 35-47. The composition of this modernized version of Naṣr-allâh bin Muḥammad bin al-Ḥamîd’s older Persian translation of Al-Muḳaffa’s’ Arabic text (which was made about A.H. 539=A.D. 1144, 1145, see Bodleian Cat., No. 430) was suggested to the author by Niżâm-aldîn Amîr Shaikh Aḥmad al-Suhailî, who died A.H. 907 or 908 (A.D. 1501-1503). It contains fourteen chapters. Beginning:حضرت حكيم على الاطلاق جلت حكمته كه وظائف الخ. This copy, which is very much soiled, is dated the 8th of Shawwâl, A.H. 1097 (A.D. 1688, Aug. 28). A few various readings on the margin. No. 3458, olim 8. J. 23, ff. 235, ll. 21; careless Nasta’lîḳ; size, 9<sup>1/4</sup> in. by 5 in.
DOI: 10.17632/p5b3nh8t8c.1
title: Liver transcriptome analysis reveals the molecular responses to low-salinity in large yellow croaker Larimichthys crocea

description: RNA-seq original data