cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.6084/m9.figshare.646178.v1
title: Phylogenetic tree from RDP of Dietzia sp str UCD-THP

description: An RDP-generated 16S phylogenetic tree of Dietzia sp str UCD-THP along with numerous Dietzia and Kocuria isolated, as well as an outgroup.
DOI: 10.6084/m9.figshare.646186.v1
title: Development of a low-cost device for observing indoor particle levels associated with source activities in the home

description: A small instrument package was developed to continuously observe particles, carbon dioxide,<br>temperature and movement at relatively low cost. Four identical packages were built and co-<br>located in a test home alongside a wide range of more sophisticated instruments. The<br>instruments were exposed to common indoor particle sources in a semi-controlled experiment,<br>and during normal occupation of the house.<br>Results indicate that each sensor requires individual calibration. The responses of the CO2<br>and particle sensors were highly consistent and correlated with much more expensive<br>instruments. The combination of CO2 and movement data was able to indicate the presence of<br>persons in the room, although not unambiguously. Trials are ongoing to investigate the impact<br>of instrument location within the home. The particle sensor responded clearly to cooking<br>sources and the infiltration of outdoor particles on evenings with elevated ambient PM10.
DOI: 10.6084/m9.figshare.646175
title: Phylogenetic tree from RDP showing Kocuria sp str UCD-OTCP

description: This is an RDP-generated 16S tree showing Kocuria sp str UCD-OTCP in the context of 160 other Kocuria isolates and one outgroup.
DOI: 10.6084/m9.figshare.646166
title: Supportive interventions and physiological changes in patients at baseline, pre- and post-cardiac arrest

description: Subject characteristics: patient data including alcohol and drug use, co-morbidities, vasopressor administration, and TISS score at baseline, pre- and post-arrest.
DOI: 10.6084/m9.figshare.646164
title: Single experiments in wild type (WT) mice

description: Units length of fluid column, nl total fluid volume collected, min collection time, flow flow rate (nl/min), Ucpm I125 counts per minute in total fluid volume, Bkg I125 background, column H net cpm (Ucpm-Bkg), TF tubular fluid (cpm/nl). P plasma (cpm/nl), TF/P ratio tubular fluid cpm divided by plasma cpm, SNGFR single nephron GFR (TF/P x flow rate), absorption fluid reabsorption (SNGFR - flow rate), % Del fluid delivered to collection site in % of SNGFR, % Abs fluid absorption in % of SNGFR, MAP mean arterial pressure during collection. U urine (cpm in 2 duplicates), P plasma (cpm in 2 samples in duplicates).
DOI: 10.6084/m9.figshare.646165
title: Data Summary of measurements of renal function in kidneys and single nephrons of wild type, Akita, and Akita/A1AR-/- mice

description: Units length of fluid column, nl total fluid volume collected, min collection time, flow flow rate (nl/min), Ucpm I125 counts per minute in total fluid volume, Bkg I125 background, column H net cpm (Ucpm-Bkg), TF tubular fluid (cpm/nl). P plasma (cpm/nl), TF/P ratio tubular fluid cpm divided by plasma cpm, SNGFR single nephron GFR (TF/P x flow rate), absorption fluid reabsorption (SNGFR - flow rate), % Del fluid delivered to collection site in % of SNGFR, % Abs fluid absorption in % of SNGFR, MAP mean arterial pressure during collection. U urine (cpm in 2 duplicates), P plasma (cpm in 2 samples in duplicates).
DOI: 10.6084/m9.figshare.646163
title: Single experiments in Akita/A1AR-/- (DKO) mice

description: Units length of fluid column, nl total fluid volume collected, min collection time, flow flow rate (nl/min), Ucpm I125 counts per minute in total fluid volume, Bkg I125 background, column H net cpm (Ucpm-Bkg), TF tubular fluid (cpm/nl). P plasma (cpm/nl), TF/P ratio tubular fluid cpm divided by plasma cpm, SNGFR single nephron GFR (TF/P x flow rate), absorption fluid reabsorption (SNGFR - flow rate), % Del fluid delivered to collection site in % of SNGFR, % Abs fluid absorption in % of SNGFR, MAP mean arterial pressure during collection. U urine (cpm in 2 duplicates), P plasma (cpm in 2 samples in duplicates).
DOI: 10.6084/m9.figshare.646166.v1
title: Supportive interventions and physiological changes in patients at baseline, pre- and post-cardiac arrest

description: Subject characteristics: patient data including alcohol and drug use, co-morbidities, vasopressor administration, and TISS score at baseline, pre- and post-arrest.
DOI: 10.6084/m9.figshare.646164.v1
title: Single experiments in wild type (WT) mice

description: Units length of fluid column, nl total fluid volume collected, min collection time, flow flow rate (nl/min), Ucpm I125 counts per minute in total fluid volume, Bkg I125 background, column H net cpm (Ucpm-Bkg), TF tubular fluid (cpm/nl). P plasma (cpm/nl), TF/P ratio tubular fluid cpm divided by plasma cpm, SNGFR single nephron GFR (TF/P x flow rate), absorption fluid reabsorption (SNGFR - flow rate), % Del fluid delivered to collection site in % of SNGFR, % Abs fluid absorption in % of SNGFR, MAP mean arterial pressure during collection. U urine (cpm in 2 duplicates), P plasma (cpm in 2 samples in duplicates).
DOI: 10.6084/m9.figshare.646165.v1
title: Data Summary of measurements of renal function in kidneys and single nephrons of wild type, Akita, and Akita/A1AR-/- mice

description: Units length of fluid column, nl total fluid volume collected, min collection time, flow flow rate (nl/min), Ucpm I125 counts per minute in total fluid volume, Bkg I125 background, column H net cpm (Ucpm-Bkg), TF tubular fluid (cpm/nl). P plasma (cpm/nl), TF/P ratio tubular fluid cpm divided by plasma cpm, SNGFR single nephron GFR (TF/P x flow rate), absorption fluid reabsorption (SNGFR - flow rate), % Del fluid delivered to collection site in % of SNGFR, % Abs fluid absorption in % of SNGFR, MAP mean arterial pressure during collection. U urine (cpm in 2 duplicates), P plasma (cpm in 2 samples in duplicates).
DOI: 10.6084/m9.figshare.646162
title: Single experiments in Akita mice

description: Units length of fluid column, nl total fluid volume collected, min collection time, flow flow rate (nl/min), Ucpm I125 counts per minute in total fluid volume, Bkg I125 background, column H net cpm (Ucpm-Bkg), TF tubular fluid (cpm/nl). P plasma (cpm/nl), TF/P ratio tubular fluid cpm divided by plasma cpm, SNGFR single nephron GFR (TF/P x flow rate), absorption fluid reabsorption (SNGFR - flow rate), % Del fluid delivered to collection site in % of SNGFR, % Abs fluid absorption in % of SNGFR, MAP mean arterial pressure during collection. U urine (cpm in 2 duplicates), P plasma (cpm in 2 samples in duplicates).
DOI: 10.6084/m9.figshare.646163.v1
title: Single experiments in Akita/A1AR-/- (DKO) mice

description: Units length of fluid column, nl total fluid volume collected, min collection time, flow flow rate (nl/min), Ucpm I125 counts per minute in total fluid volume, Bkg I125 background, column H net cpm (Ucpm-Bkg), TF tubular fluid (cpm/nl). P plasma (cpm/nl), TF/P ratio tubular fluid cpm divided by plasma cpm, SNGFR single nephron GFR (TF/P x flow rate), absorption fluid reabsorption (SNGFR - flow rate), % Del fluid delivered to collection site in % of SNGFR, % Abs fluid absorption in % of SNGFR, MAP mean arterial pressure during collection. U urine (cpm in 2 duplicates), P plasma (cpm in 2 samples in duplicates).
DOI: 10.6084/m9.figshare.645349
title: Spatial Analysis and Big Data: Challenges and Opportunities

description: SIAM 2013 Presentation
DOI: 10.6084/m9.figshare.646162.v1
title: Single experiments in Akita mice

description: Units length of fluid column, nl total fluid volume collected, min collection time, flow flow rate (nl/min), Ucpm I125 counts per minute in total fluid volume, Bkg I125 background, column H net cpm (Ucpm-Bkg), TF tubular fluid (cpm/nl). P plasma (cpm/nl), TF/P ratio tubular fluid cpm divided by plasma cpm, SNGFR single nephron GFR (TF/P x flow rate), absorption fluid reabsorption (SNGFR - flow rate), % Del fluid delivered to collection site in % of SNGFR, % Abs fluid absorption in % of SNGFR, MAP mean arterial pressure during collection. U urine (cpm in 2 duplicates), P plasma (cpm in 2 samples in duplicates).
DOI: 10.6084/m9.figshare.645344
title: Online monitoring of Marmorkrebs in the North American pet trade

description: Dataset used in following paper: Faulkes Z. 2013. How much is that crayfish in the window? Online monitoring of Marmorkrebs, <em>Procambarus fallax</em> f. <em>virginalis</em> (Hagen, 1870) in the North American pet trade. <em>Freshwater Crayfish</em> <strong>19</strong>(1): 39-44.
DOI: 10.6084/m9.figshare.645349.v1
title: Spatial Analysis and Big Data: Challenges and Opportunities

description: SIAM 2013 Presentation
DOI: 10.6084/m9.figshare.645347
title: Portfolio Valuation Under Liquidity and Expected Shortfall Constraints

description: In the standard approach to fund valuation, it is often assumed that markets are perfectly liquid and hence assets have unique prices. In practice, however, as has been widely documented, this is not the case. Asset values are impacted by deterioration of market liquidity (market depth). However, the work by Acerbi and Scandolo (Quantitative Finance, 2008, 8(7), 681) highlighted, in addition, the key role that the liquidity policies of the fund can have on the fund value. Funds with the identical positions but differing liquidity policies have different values. In this paper, we describe and analyze, the relationship between the fund value and the liquidity policy (constraints that can potentially be called upon, and that are imposed externally on the fund manager). These constraints, for example, can be a requirement to be able to generate an amount of cash (due to possible adverse redemption), a minimum weight requirement per asset, or a market risk constraint such as a maximum expected shortfall (ES).We employ a power-law Marginal Supply-Demand Curve (MSDC) to model market depth, together with various types of liquidity policies. These liquidity restrictions affect, to a varying degree, the liquidation process of illiquid and high volatility assets. We find that as the liquidity policy becomes stricter with the portfolio ES constraint, the liquidity costs increase significantly.
DOI: 10.6084/m9.figshare.645347.v1
title: PORTFOLIO LIQUIDITY MANAGEMENT WITH EXPECTED SHORTFALL CONSTRAINT

description: Abstract In a standard approach to portfolio valuation, it is assumed that market is perfectly liquid, so assets in the portfolio have unique prices. In reality, however, this does not seem to be true. Liquidity deterioration in the market may have an impact on the asset values. Also, the liquidity policy, which the portfolio is restricted by, can influence on its value. In this paper, we describe and analyze the relationship between the portfolio value and the liquidity policy. When quantifying the portfolio value, coherent portfolio risk measure (CPRM) is employed. In the portfolio valuation model, the Power-Law marginal supply-demand curve (MSDC) is used to deal with the different level of liquidity of the constituents. The portfolio value is assessed based on the liquidity constraints includes capital requirement, minimum weight and portfolio Expected Shortfall (ES) value. These restrictions affect, to a varying degree, the liquidation of illiquid and high volatility assets. We found that as liquidity policy becomes stricter with the portfolio ES constraint, the liquidation cost increases significantly. Also, the liquidation cost increased according to the portfolio ES liquidity policy is particularly pronounced as the size of the portfolio become larger and the trade duration becomes shorter.
DOI: 10.6084/m9.figshare.645336
title: Notes on Ceratopsians at the Canadian Museum of Nature

description: As part of my dissertation research and general research program focused on horned dinosaurs, I traveled to the Canadian Museum of Nature (CMN [formerly NMC], Ottawa, Ontario, Canada) in the winter of 2008 for a few days of research. Taxa discussed in these notes include specimens referred to <em>Chasmosaurus russelli</em>, <em>Chasmosaurus</em> <em>belli</em>, <em>Anchiceratops</em> <em>ornatus</em>, <em>Vagaceratops</em> (formerly <em>Chasmosaurus</em>) <em>irvinensis</em>, Centrosaurinae indet., <em>Styracosaurus</em> <em>albertensis</em>, <em>Leptoceratops</em> <em>gracilis</em>, and <em>Pachyrhinosaurus</em> <em>albertensis</em>.
DOI: 10.6084/m9.figshare.645332
title: Predicting Amphibian Population Declines in Central America

description: Codes for amphibian species traits used in models in Lips et al. 2003 Ecological Traits Predicting Amphibian Population Declines in Central America. Conservation Biology 17(4): 1078–1088. DOI: 10.1046/j.1523-1739.2003.01623.x Full description of data and sources in paper (link below), or by contacting author (klips@umd.edu).
DOI: 10.6084/m9.figshare.645336.v1
title: Notes on Ceratopsians at the Canadian Museum of Nature

description: As part of my dissertation research and general research program focused on horned dinosaurs, I traveled to the Canadian Museum of Nature (CMN [formerly NMC], Ottawa, Ontario, Canada) in the winter of 2008 for a few days of research. Taxa discussed in these notes include specimens referred to <em>Chasmosaurus russelli</em>, <em>Chasmosaurus</em> <em>belli</em>, <em>Anchiceratops</em> <em>ornatus</em>, <em>Vagaceratops</em> (formerly <em>Chasmosaurus</em>) <em>irvinensis</em>, Centrosaurinae indet., <em>Styracosaurus</em> <em>albertensis</em>, <em>Leptoceratops</em> <em>gracilis</em>, and <em>Pachyrhinosaurus</em> <em>albertensis</em>.
DOI: 10.6084/m9.figshare.645347.v2
title: PORTFOLIO LIQUIDITY MANAGEMENT WITH EXPECTED SHORTFALL CONSTRAINT

description: In a standard approach to portfolio valuation, it is assumed that a market is perfectly liquid, so assets in the portfolio have unique prices. In practice, however, this does not seem to be true. The asset values may be impacted by the market liquidity deterioration. Also, the liquidity policy, which the portfolio is restricted by, can have an influence on the portfolio value. In this paper, we describe and analyze the relationship between the portfolio value and the liquidity policy. When quantifying the portfolio value, a coherent portfolio risk measure (CPRM) is employed. In the portfolio valuation model, the Power-Law marginal supply-demand curves (MSDCs) are used to deal with the different levels of liquidity of the constituents. The portfolio value is assessed based on the liquidity constraints, cash requirement, minimum weight and portfolio Expected Shortfall (ES) value. These restrictions affect, to a varying degree, the liquidation process of illiquid and high volatility assets. We found that as a liquidity policy becomes stricter with the portfolio ES constraint, the liquidity costs increase significantly. Also, the liquidity costs increased according to the portfolio ES liquidity policy is particularly pronounced as the size of the portfolio becomes larger and the trade duration becomes shorter.
DOI: 10.6084/m9.figshare.644980
title: 3-octanol olfactory adaptation in Drosophila

description: Drosophila flies were presented with 3-octanol (adapted) or parafin oil (sham adapted) for one minute in the upper arm of a T-maze, directly before being tested for their avoidance toward this odor. The flies were let to choose between 3-octanol and parafin oil odors for one minute in the T-maze. We see a significant decrease in the avoidance of the flies toward 3-octanol after adaptation. This is a reproduction of data obtained by Klemens F. Störtkuhl (1999). Odor delivery through air bubbling in odorized parafin oil. Airflow=0.35 l/min, odor =37.4 microliter odorant (3-octanol: &gt;95% purity; Fluka 74878, Sigma- Aldrich, St Louis, MO, USA) in 40.3 g of parafin oil. Störtkuhl KF, Hovemann BT, Carlson JR (1999) Olfactory adaptation depends on the Trp Ca2+ channel in Drosophila. The Journal of neuroscience : the official journal of the Society for Neuroscience 19: 4839–46.
DOI: 10.6084/m9.figshare.644914
title: Gaussian Job Archive for C153H153(1-)

description: Archive of work produced using the resources of the Imperial College High Performance Computing Service.
DOI: 10.6084/m9.figshare.645347.v3
title: PORTFOLIO LIQUIDITY MANAGEMENT WITH EXPECTED SHORTFALL CONSTRAINT

description: In a standard approach to portfolio valuation, it is assumed that a market is perfectly liquid, so assets in the portfolio have unique prices. In practice, however, this does not seem to be true. The asset values may be impacted by the market liquidity deterioration. Also, the liquidity policy, which the portfolio is restricted by, can have an influence on the portfolio value. In this paper, we describe and analyze the relationship between the portfolio value and the liquidity policy. When quantifying the portfolio value, a coherent portfolio risk measure (CPRM) is employed. In the portfolio valuation model, the Power-Law marginal supply-demand curves (MSDCs) are used to deal with the different levels of liquidity of the constituents. The portfolio value is assessed based on the liquidity constraints, cash requirement, minimum weight and portfolio Expected Shortfall (ES) value. These restrictions affect, to a varying degree, the liquidation process of illiquid and high volatility assets. We found that as a liquidity policy becomes stricter with the portfolio ES constraint, the liquidity costs increase significantly. Also, the liquidity costs increased according to the portfolio ES liquidity policy is particularly pronounced as the size of the portfolio becomes larger and the trade duration becomes shorter.
DOI: 10.6084/m9.figshare.644914.v1
title: Gaussian Job Archive for C153H153(1-)

description: Archive of work produced using the resources of the Imperial College High Performance Computing Service.
DOI: 10.6084/m9.figshare.645347.v4
title: PORTFOLIO LIQUIDITY MANAGEMENT WITH EXPECTED SHORTFALL CONSTRAINT

description: In a standard approach to portfolio valuation, it is assumed that a market is perfectly liquid, so assets in the portfolio have unique prices. In practice, however, this does not seem to be true. The asset values may be impacted by the market liquidity deterioration. Also, the liquidity policy, which the portfolio is restricted by, can have an influence on the portfolio value. In this paper, we describe and analyze the relationship between the portfolio value and the liquidity policy. When quantifying the portfolio value, a coherent portfolio risk measure (CPRM) is employed. In the portfolio valuation model, the Power-Law marginal supply-demand curves (MSDCs) are used to deal with the different levels of liquidity of the constituents. The portfolio value is assessed based on the liquidity constraints, cash requirement, minimum weight and portfolio Expected Shortfall (ES) value. These restrictions affect, to a varying degree, the liquidation process of illiquid and high volatility assets. We found that as a liquidity policy becomes stricter with the portfolio ES constraint, the liquidity costs increase significantly. Also, the liquidity costs increased according to the portfolio ES liquidity policy is particularly pronounced as the size of the portfolio becomes larger and the trade duration becomes shorter.
DOI: 10.6084/m9.figshare.645347.v5
title: PORTFOLIO LIQUIDITY MANAGEMENT WITH EXPECTED SHORTFALL CONSTRAINT

description: In a standard approach to portfolio valuation, it is assumed that a market is perfectly liquid, so assets in the portfolio have unique prices. In practice, however, this does not seem to be true. The asset values may be impacted by the market liquidity deterioration. Also, the liquidity policy, which the portfolio is restricted by, can have an influence on the portfolio value. In this paper, we describe and analyze the relationship between the portfolio value and the liquidity policy. In the portfolio valuation model, the Power-Law marginal supply-demand curves (MSDCs) are used to deal with the different levels of liquidity of the constituents. The portfolio value is assessed based on the liquidity constraints, cash requirement, minimum weight and portfolio Expected Shortfall (ES) value. These restrictions affect, to a varying degree, the liquidation process of illiquid and high volatility assets. We found that as a liquidity policy becomes stricter with the portfolio ES constraint, the liquidity costs increase significantly. Also, the liquidity costs increased according to the portfolio ES liquidity policy is particularly pronounced as the size of the portfolio becomes larger and the trade duration becomes shorter.
DOI: 10.6084/m9.figshare.645347.v7
title: Portfolio Valuation Under Liquidity and Expected Shortfall Constraints

description: In the standard approach to fund valuation, it is often assumed that markets are perfectly liquid and hence assets have unique prices. In practice, however, as has been widely documented, this is not the case. Asset values are impacted by deterioration of market liquidity (market depth). However, the work by Acerbi and Scandolo (Quantitative Finance, 2008, 8(7), 681) highlighted, in addition, the key role that the liquidity policies of the fund can have on the fund value. Funds with the identical positions but differing liquidity policies have different values. In this paper, we describe and analyze, the relationship between the fund value and the liquidity policy (constraints that can potentially be called upon, and that are imposed externally on the fund manager). These constraints, for example, can be a requirement to be able to generate an amount of cash (due to possible adverse redemption), a minimum weight requirement per asset, or a market risk constraint such as a maximum expected shortfall (ES).We employ a power-law Marginal Supply-Demand Curve (MSDC) to model market depth, together with various types of liquidity policies. These liquidity restrictions affect, to a varying degree, the liquidation process of illiquid and high volatility assets. We find that as the liquidity policy becomes stricter with the portfolio ES constraint, the liquidity costs increase significantly.
DOI: 10.6084/m9.figshare.645347.v6
title: PORTFOLIO LIQUIDITY MANAGEMENT WITH EXPECTED SHORTFALL CONSTRAINT

description: In the standard approach to fund valuation, it is often assumed that markets are perfectly liquid and hence assets have unique prices. In practice, however, as has been widely documented, this is not the case. Asset values are impacted by deterioration of market liquidity (market depth). However, the work by Acerbi and Scandolo (Quantitative Finance, 2008, 8(7), 681) highlighted, in addition, the key role that the liquidity policies of the fund can have on the fund value. Funds with the identical positions but differing liquidity policies have different values. In this paper, we describe and analyze, the relationship between the fund value and the liquidity policy (constraints that can potentially be called upon, and that are imposed externally on the fund manager). These constraints, for example, can be a requirement to be able to generate an amount of cash (due to possible adverse redemption), a minimum weight requirement per asset, or a market risk constraint such as a maximum expected shortfall (ES).We employ a power-law Marginal Supply-Demand Curve (MSDC) to model market depth, together with various types of liquidity policies. These liquidity restrictions affect, to a varying degree, the liquidation process of illiquid and high volatility assets. We find that as the liquidity policy becomes stricter with the portfolio ES constraint, the liquidity costs increase significantly.
DOI: 10.6084/m9.figshare.644627
title: Gaussian Job Archive for C144H144

description: Archive of work produced using the resources of the Imperial College High Performance Computing Service.