cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.4121/uuid:ed77fee1-42f9-4d75-bb92-55893cc15429
title: IDRA weather radar measurements - month 2017-02

description: Parent item: IDRA weather radar measurements - all data Detailed observation of the spatial and temporal distribution of rainfall and drizzle, measured by IDRA (IRCTR Drizzle Radar) at Cabauw, Lopik, Netherlands. This is a growing time series of datasets, updated every few months. Measuring instrument: IDRA atmospheric radar in CESAR observatory, Cabauw IRCTR has built a high resolution radar system, IDRA (IRCTR Drizzle Radar), aimed at the detailed observation of the spatial and temporal distribution of rainfall and drizzle. The system was placed at the end of August 2007 on top of a 213 m high meteorological tower in the CESAR (Cabauw Experimental Site for Atmospheric Research) observatory in Cabauw, The Netherlands. This location has several advantages: In the first place, an increased sensitivity due to the reduction of the influence of ground clutter. Secondly, it allows direct observation of the horizontal distribution of low level clouds and fog. Finally, the presence of other instruments in the vicinity enhances the understanding of the physical processes in the atmosphere by synergistically combining their measurements. Data from other instruments at CESAR are available at {http://www.cesar-database.nl}. IDRA provides the horizontal distribution of reflectivity, mean Doppler velocity, Doppler spectrum width and polarimetric parameters like differential reflectivity, linear depolarization ratio or specific differential phase. The data collected is freely available to the scientific community.
DOI: 10.4121/uuid:eef82172-4b53-48e8-9031-3e276e95ce06
title: IDRA weather radar measurements - day 2017-05-18

description: Radar range: standard. Max rain level: strong rain. Parent item: IDRA weather radar measurements - month 2017-05 Measuring instrument: IDRA atmospheric radar in CESAR observatory, Cabauw IRCTR has built a high resolution radar system, IDRA (IRCTR Drizzle Radar), aimed at the detailed observation of the spatial and temporal distribution of rainfall and drizzle. The system was placed at the end of August 2007 on top of a 213 m high meteorological tower in the CESAR (Cabauw Experimental Site for Atmospheric Research) observatory in Cabauw, The Netherlands. This location has several advantages: In the first place, an increased sensitivity due to the reduction of the influence of ground clutter. Secondly, it allows direct observation of the horizontal distribution of low level clouds and fog. Finally, the presence of other instruments in the vicinity enhances the understanding of the physical processes in the atmosphere by synergistically combining their measurements. Data from other instruments at CESAR are available at {http://www.cesar-database.nl}. IDRA provides the horizontal distribution of reflectivity, mean Doppler velocity, Doppler spectrum width and polarimetric parameters like differential reflectivity, linear depolarization ratio or specific differential phase. The data collected is freely available to the scientific community.
DOI: 10.4121/uuid:f269ee5c-f28a-49d7-95f5-fc09d27ffd69
title: IDRA weather radar measurements - day 2017-01-29

description: Radar range: far. Max rain level: moderate rain. Parent item: IDRA weather radar measurements - month 2017-01 Measuring instrument: IDRA atmospheric radar in CESAR observatory, Cabauw IRCTR has built a high resolution radar system, IDRA (IRCTR Drizzle Radar), aimed at the detailed observation of the spatial and temporal distribution of rainfall and drizzle. The system was placed at the end of August 2007 on top of a 213 m high meteorological tower in the CESAR (Cabauw Experimental Site for Atmospheric Research) observatory in Cabauw, The Netherlands. This location has several advantages: In the first place, an increased sensitivity due to the reduction of the influence of ground clutter. Secondly, it allows direct observation of the horizontal distribution of low level clouds and fog. Finally, the presence of other instruments in the vicinity enhances the understanding of the physical processes in the atmosphere by synergistically combining their measurements. Data from other instruments at CESAR are available at {http://www.cesar-database.nl}. IDRA provides the horizontal distribution of reflectivity, mean Doppler velocity, Doppler spectrum width and polarimetric parameters like differential reflectivity, linear depolarization ratio or specific differential phase. The data collected is freely available to the scientific community.
DOI: 10.4121/uuid:f52e21b3-1f42-4fcf-9482-2f083de7f5a7
title: IDRA weather radar measurements - day 2017-03-04

description: Radar range: far. Max rain level: moderate rain. Parent item: IDRA weather radar measurements - month 2017-03 Measuring instrument: IDRA atmospheric radar in CESAR observatory, Cabauw IRCTR has built a high resolution radar system, IDRA (IRCTR Drizzle Radar), aimed at the detailed observation of the spatial and temporal distribution of rainfall and drizzle. The system was placed at the end of August 2007 on top of a 213 m high meteorological tower in the CESAR (Cabauw Experimental Site for Atmospheric Research) observatory in Cabauw, The Netherlands. This location has several advantages: In the first place, an increased sensitivity due to the reduction of the influence of ground clutter. Secondly, it allows direct observation of the horizontal distribution of low level clouds and fog. Finally, the presence of other instruments in the vicinity enhances the understanding of the physical processes in the atmosphere by synergistically combining their measurements. Data from other instruments at CESAR are available at {http://www.cesar-database.nl}. IDRA provides the horizontal distribution of reflectivity, mean Doppler velocity, Doppler spectrum width and polarimetric parameters like differential reflectivity, linear depolarization ratio or specific differential phase. The data collected is freely available to the scientific community.
DOI: 10.4121/uuid:f5f74a6d-6e9e-49cd-8a2d-f5db56fe5fc3
title: IDRA weather radar measurements - day 2017-03-12

description: Radar range: far. Max rain level: moderate rain. Parent item: IDRA weather radar measurements - month 2017-03 Measuring instrument: IDRA atmospheric radar in CESAR observatory, Cabauw IRCTR has built a high resolution radar system, IDRA (IRCTR Drizzle Radar), aimed at the detailed observation of the spatial and temporal distribution of rainfall and drizzle. The system was placed at the end of August 2007 on top of a 213 m high meteorological tower in the CESAR (Cabauw Experimental Site for Atmospheric Research) observatory in Cabauw, The Netherlands. This location has several advantages: In the first place, an increased sensitivity due to the reduction of the influence of ground clutter. Secondly, it allows direct observation of the horizontal distribution of low level clouds and fog. Finally, the presence of other instruments in the vicinity enhances the understanding of the physical processes in the atmosphere by synergistically combining their measurements. Data from other instruments at CESAR are available at {http://www.cesar-database.nl}. IDRA provides the horizontal distribution of reflectivity, mean Doppler velocity, Doppler spectrum width and polarimetric parameters like differential reflectivity, linear depolarization ratio or specific differential phase. The data collected is freely available to the scientific community.
DOI: 10.4121/uuid:f67eeec3-ea4b-4393-b515-bd8b89594c41
title: IDRA weather radar measurements - day 2017-01-12

description: Radar range: far. Max rain level: moderate rain. Parent item: IDRA weather radar measurements - month 2017-01 Measuring instrument: IDRA atmospheric radar in CESAR observatory, Cabauw IRCTR has built a high resolution radar system, IDRA (IRCTR Drizzle Radar), aimed at the detailed observation of the spatial and temporal distribution of rainfall and drizzle. The system was placed at the end of August 2007 on top of a 213 m high meteorological tower in the CESAR (Cabauw Experimental Site for Atmospheric Research) observatory in Cabauw, The Netherlands. This location has several advantages: In the first place, an increased sensitivity due to the reduction of the influence of ground clutter. Secondly, it allows direct observation of the horizontal distribution of low level clouds and fog. Finally, the presence of other instruments in the vicinity enhances the understanding of the physical processes in the atmosphere by synergistically combining their measurements. Data from other instruments at CESAR are available at {http://www.cesar-database.nl}. IDRA provides the horizontal distribution of reflectivity, mean Doppler velocity, Doppler spectrum width and polarimetric parameters like differential reflectivity, linear depolarization ratio or specific differential phase. The data collected is freely available to the scientific community.
DOI: 10.4121/uuid:f7001fb8-1dc6-4435-a2db-b8d2ef9233e3
title: IDRA weather radar measurements - day 2017-01-03

description: Radar range: far. Max rain level: moderate rain. Parent item: IDRA weather radar measurements - month 2017-01 Measuring instrument: IDRA atmospheric radar in CESAR observatory, Cabauw IRCTR has built a high resolution radar system, IDRA (IRCTR Drizzle Radar), aimed at the detailed observation of the spatial and temporal distribution of rainfall and drizzle. The system was placed at the end of August 2007 on top of a 213 m high meteorological tower in the CESAR (Cabauw Experimental Site for Atmospheric Research) observatory in Cabauw, The Netherlands. This location has several advantages: In the first place, an increased sensitivity due to the reduction of the influence of ground clutter. Secondly, it allows direct observation of the horizontal distribution of low level clouds and fog. Finally, the presence of other instruments in the vicinity enhances the understanding of the physical processes in the atmosphere by synergistically combining their measurements. Data from other instruments at CESAR are available at {http://www.cesar-database.nl}. IDRA provides the horizontal distribution of reflectivity, mean Doppler velocity, Doppler spectrum width and polarimetric parameters like differential reflectivity, linear depolarization ratio or specific differential phase. The data collected is freely available to the scientific community.
DOI: 10.4121/uuid:fada0901-5c10-44ca-b48f-399dd2610ea7
title: IDRA weather radar measurements - day 2017-04-30

description: Radar range: standard. Max rain level: weak rain. Parent item: IDRA weather radar measurements - month 2017-04 Measuring instrument: IDRA atmospheric radar in CESAR observatory, Cabauw IRCTR has built a high resolution radar system, IDRA (IRCTR Drizzle Radar), aimed at the detailed observation of the spatial and temporal distribution of rainfall and drizzle. The system was placed at the end of August 2007 on top of a 213 m high meteorological tower in the CESAR (Cabauw Experimental Site for Atmospheric Research) observatory in Cabauw, The Netherlands. This location has several advantages: In the first place, an increased sensitivity due to the reduction of the influence of ground clutter. Secondly, it allows direct observation of the horizontal distribution of low level clouds and fog. Finally, the presence of other instruments in the vicinity enhances the understanding of the physical processes in the atmosphere by synergistically combining their measurements. Data from other instruments at CESAR are available at {http://www.cesar-database.nl}. IDRA provides the horizontal distribution of reflectivity, mean Doppler velocity, Doppler spectrum width and polarimetric parameters like differential reflectivity, linear depolarization ratio or specific differential phase. The data collected is freely available to the scientific community.
DOI: 10.4121/uuid:fbfb9caa-e83f-4ecf-8b3e-4e11c3e9da62
title: IDRA weather radar measurements - day 2017-01-05

description: Radar range: far. Max rain level: moderate rain. Parent item: IDRA weather radar measurements - month 2017-01 Measuring instrument: IDRA atmospheric radar in CESAR observatory, Cabauw IRCTR has built a high resolution radar system, IDRA (IRCTR Drizzle Radar), aimed at the detailed observation of the spatial and temporal distribution of rainfall and drizzle. The system was placed at the end of August 2007 on top of a 213 m high meteorological tower in the CESAR (Cabauw Experimental Site for Atmospheric Research) observatory in Cabauw, The Netherlands. This location has several advantages: In the first place, an increased sensitivity due to the reduction of the influence of ground clutter. Secondly, it allows direct observation of the horizontal distribution of low level clouds and fog. Finally, the presence of other instruments in the vicinity enhances the understanding of the physical processes in the atmosphere by synergistically combining their measurements. Data from other instruments at CESAR are available at {http://www.cesar-database.nl}. IDRA provides the horizontal distribution of reflectivity, mean Doppler velocity, Doppler spectrum width and polarimetric parameters like differential reflectivity, linear depolarization ratio or specific differential phase. The data collected is freely available to the scientific community.
DOI: 10.4121/uuid:fe344e6e-3684-4809-bd77-77f98fdecc85
title: IDRA weather radar measurements - day 2017-03-11

description: Radar range: far. Max rain level: moderate rain. Parent item: IDRA weather radar measurements - month 2017-03 Measuring instrument: IDRA atmospheric radar in CESAR observatory, Cabauw IRCTR has built a high resolution radar system, IDRA (IRCTR Drizzle Radar), aimed at the detailed observation of the spatial and temporal distribution of rainfall and drizzle. The system was placed at the end of August 2007 on top of a 213 m high meteorological tower in the CESAR (Cabauw Experimental Site for Atmospheric Research) observatory in Cabauw, The Netherlands. This location has several advantages: In the first place, an increased sensitivity due to the reduction of the influence of ground clutter. Secondly, it allows direct observation of the horizontal distribution of low level clouds and fog. Finally, the presence of other instruments in the vicinity enhances the understanding of the physical processes in the atmosphere by synergistically combining their measurements. Data from other instruments at CESAR are available at {http://www.cesar-database.nl}. IDRA provides the horizontal distribution of reflectivity, mean Doppler velocity, Doppler spectrum width and polarimetric parameters like differential reflectivity, linear depolarization ratio or specific differential phase. The data collected is freely available to the scientific community.
DOI: 10.4121/uuid:daa83d96-85d6-4739-841e-52abc86b6b15
title: Data and code: Supercurrent interference in few-mode nanowire Josephson junctions

description: Data and code for the paper: "Supercurrent interference in few-mode nanowire Josephson junctions" by Vincent Mourik, Daniel B. Szombati, Bas Nijholt, David J. van Woerkom, Attila Geresdi, Jun Chen, Viacheslav P. Ostroukh, Anton R. Akhmerov, Sebastian R. Plissard, Diana Car, Erik P. A. M. Bakkers, Dmitry I. Pikulin, Leo P. Kouwenhoven, and Sergey M. Frolov.
DOI: 10.4121/uuid:47b6c1d8-d3fd-4a96-9167-44e905b160aa
title: Quartz Crystal Microbalance (QCM) measurements inside Magnum-PSI

description: QCM measurements inside Magnum-PSI with tungsten, molybdenum, copper, tin and lithium targets. Also 2 null measurements in open air without deposition are included. A logbook is included with information about all the measurements
DOI: 10.4121/uuid:f82b6a24-201f-4de7-94cb-afc95ad1adea
title: Scripts accompanying the publication "Conductance through a helical state in an indium antimonide nanowire"

description: Scripts accompanying the publication "Conductance through a helical state in an indium antimonide nanowire" - published in Nature Communcations. The scripts are written in python (.py) and jupyter notebook (.ipynb) Parent item: Data and scripts accompanying the publication "Conductance through a helical state in an indium antimonide nanowire" Data and scripts accompanying the publication "Conductance through a helical state in an indium antimonide nanowire" - published in Nature Communcations.
DOI: 10.4121/uuid:4a7c2346-3370-4bec-9cc3-7b5bb174811b
title: Data presented in the paper 'Effects of sediment disturbance regimes on Spartina seedling establishment: implications for salt marsh creation and restoration'

description: The dataset contains seedling survival, critical erosion depth and morphological traits for Spartina alterniflora and Spartina anglica when been exposed to a set of accretion/erosion regimes in the laboratory. The study aims at gaining quantitative insight into how salt marsh seedling survival is affected by short-term sediment dynamics, and to what extent this may be mitigated by morphological adjustments by the plant.
DOI: 10.4121/uuid:214b7b5f-84cc-4b16-8026-3b76463e128d
title: Data presented in the paper "Zooming in and out: scale-dependence of extrinsic and intrinsic factors affecting salt marsh erosion"

description: This research aims to identify the critical extrinsic (wind exposure and foreshore morphology) and intrinsic factors (soil and vegetation properties) affecting the erosion of salt marsh edges at different spatial scales. The dataset includes the rates of cliff lateral retreat (.txt) quantified using a time series of aerial photographs taken over four salt marsh sites in the Westerschelde estuary, the Netherlands, the wind exposure of marsh edges (.txt), the input data of SWA (Simulating WAves Nearshore) model (.dat and .txt) and the output wave height of Westerschelde estuary (.dat)
DOI: 10.4121/uuid:42fd1be1-325f-47a4-ba39-31af35ca7f75
title: Evidence-Based Software Portfolio Management (EBSPM) Research Repository

description: The Evidence-Based Software Portfolio Management (EBSPM) Research Repository is a collection of data of finalized software projects in four different software companies. The repository is part of the EBSPM approach as documented in the PhD-thesis EBSPM by Hennie Huijgens (2017).
DOI: 10.4121/uuid:5c81f10a-1249-4b85-8dec-2b029dd88b99
title: Speulderbos flux, storage, and temperature profile measurements

description: Measurements of sensible and latent heat fluxes, heat storages and temperature profiles in the Speulderbos forest.
DOI: 10.4121/uuid:5f49027a-5213-4615-94f8-b8026ce795a3
title: The Andreev rectifier: a nonlocal conductance signature of topological phase transitions

description: Data for the paper The Andreev rectifier: a nonlocal conductance signature of topological phase transitions.
DOI: 10.4121/uuid:64c4d266-9508-412e-b902-7df7427e1bd7
title: Dataset belonging to: Bow thruster velocities at multiple bank slope configurations and the stability of slope material

description: The objective of this research was to extend and validate a method to determine hydraulic bed loads on slopes induced by bow thrusters and a method to determine the stability of slope material. In order to fulfill this objective scale model tests are conducted at the test facilities of Deltares. Velocity and stability measurements are performed during multiple test scenarios that contain variations in slope angle, axial distance and pile configuration. From the obtained data of the velocity measurements the time-averaged velocity and the turbulence intensities are determined. These values are compared to the theoretical values and a correction factor for the underestimation of the hydraulic bed load on a slope is defined. After that the consequences for a design of a slope protection are evaluated. Furthermore, for the stability tests it is determined what the critical slope velocity is. This is done for multiple criteria of initiation of motion. With these critical slope velocities a stability parameter for the stability relations can be determined that is applicable at situations similar to the scenario tested. These determined stability parameters are compared to the recommended stability parameters and the differences are evaluated.
DOI: 10.4121/uuid:7cdcab96-aea2-48b2-939b-9eb67b3532f3
title: Water and air temperature at Amalia van Solmslaan pond, Delft, 2014

description: This data set contains: (1) two DTS datasets for two 2m tall setups reaching from the muddy under-layer of the pond through the water to the air above the pond, and (2) meteorological data measured above the middle of the pond during the same period (wind speed and direction, temperature, relative humidity, rain, radiation (longwave, shortwave, in, and out)). The meteo data are in local time (LC), DTS data in LC-1, and the radiation data in LC-1. The meteo data and radiation data are in the form of excel file, the DTS data are in a matlab file.
DOI: 10.4121/uuid:2ab14bbf-f45f-4580-8ed4-8ed93a160526
title: Measurement on rocking of cubes in a double layer on a breakwater

description: Measurement of angular velocity and acceleration using Tinyduino Sensors for randomly placed double layer cubes in order to calculate the impact velocity for the instrumented cubes
DOI: 10.4121/uuid:fb121478-2c50-4a1e-aad4-ad46b87045e4
title: Subnanometer-accuracy optical distance ruler based on fluorescence quenching by transparent conductors

description: Lifetime data of perylene and Alexa 430 emitters as a function of distance to an ITO-coated cover slide.
DOI: 10.4121/uuid:a06e90c7-9ca1-45df-ad37-e99bdbf75b78
title: Coq formalisation of Consistent Consequence for Boolean Equation Systems

description: This data set contains a computer-checkable formal mathematical proof of the soundness and completeness of a proof system for the "consistent consequence" relation on Boolean equation systems, along with a formalisation of Boolean equation systems, the notion of solution and a formalisation of the relation between a solution of a Boolean equation system and a consistent consequence on such an equation system. The proofs can be machine-checked using the Coq proof assistant, version CoqIDE 8.5pl2; these proofs accompany the paper "A Formalisation of Consistent Consequence for Boolean Equation Systems" by Van Delft, Geuvers & Willemse that is part of the (forthcoming) proceedings of the 8th International Conference on Interactive Theorem Proving.
DOI: 10.4121/uuid:87829ef5-be45-40e7-a0a7-b4c514633e26
title: A free-surface solar pond model with a sloping edge: model code and data [version 1]

description: A non-hydrostatic free-surface model was set up to simulate salt and heat transport in a solar pond in order to: 1) investigate the added value of free-surface models for these types of simulations, and 2) assess the importance of heat transport along a sloping side wall. This data set presents the source code, the raw measurement and model data, and several movies comparing the vertical two-dimensional (2DV) model simulations to the measurements. The presented model code is an extension of the SWASH non-hydrostatic model, which is briefly introduced in this document. A complete discussion of the model results and conclusions are provided in an accompanying article.
DOI: 10.4121/uuid:2877a48d-da69-4ee3-a76b-834487ba8c30
title: A free-surface solar pond model with a sloping edge: model code and data

description: A non-hydrostatic free-surface model was set up to simulate salt and heat transport in a solar pond in order to: 1) investigate the added value of free-surface models for these types of simulations, and 2) assess the importance of heat transport along a sloping side wall. This data set presents the source code, the raw measurement and model data, and several movies comparing the vertical two-dimensional (2DV) model simulations to the measurements. To demonstrate the added value of a free surface approach, this data set includes model results for both free surface and rigid-lid simulations. The presented model code is an extension of the SWASH non-hydrostatic model, which is briefly introduced in this document. A complete discussion of the model results and conclusions are provided in an accompanying article.