cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.6084/m9.figshare.6260444.v2
title: Dataset from the paper "Perceptions of climate change across the Canadian forest sector: the key factors of institutional and geographical environment" (PLOS ONE)

description: Dataset containing answers from 974 respondents to a survey about perceptions on climate change across the Canadian forest sector. It contains individual responses about (i) general statements about climate change and its potential impacts (6 statements), (ii) impacts of climate change on forest ecosystems (7 statements), and (iii) current forest management practices and the need to adapt to climate change (5 statements). The responses to each of these questions are stored in a Likert scale ranging from "strongly disagree" to "strongly agree".
DOI: 10.6084/m9.figshare.6260444.v1
title: Dataset from the paper "Perceptions of climate change across the Canadian forest sector: the key factors of institutional and geographical environment" (PLOS ONE)

description: Dataset containing answers from 974 respondents to a survey about perceptions on climate change across the Canadian forest sector. It contains individual responses about (i) general statements about climate change and its potential impacts (6 statements), (ii) impacts of climate change on forest ecosystems (7 statements), and (iii) current forest management practices and the need to adapt to climate change (5 statements). The responses to each of these questions are stored in a Likert scale ranging from "strongly disagree" to "strongly agree".
DOI: 10.6084/m9.figshare.6260069
title: 4M crop simulation model

description: 4M crop simulation model: source code in Delphi language and executable
DOI: 10.6084/m9.figshare.6260003
title: Metabolite BridgeDb ID Mapping Database (20180508)

description: BridgeDb ID mapping database for metabolites, using HMDB 4.0 (Release of 06 May 2018), ChEBI 161, and Wikidata (08 May 2018) as data sources. No significant changes but just updated data.<br>If you use this data in your research, please cite this data set, and the BridgeDb, ChEBI, and HMDB articles.
DOI: 10.6084/m9.figshare.6259337
title: Dataset for: A Novel Amyloid Designable Scaffold and Potential Inhibitor Inspired by GAIIG of Amyloid Beta and the HIV-1 V3 loop

description: The GAIIG sequence, common to the amyloid beta peptide (residues 29-33) and to the HIV gp 120 (residues 24-28 in a typical V3 loop) self-assembles into amyloid fibrils as suggested by theory and experiments presented here. The longer YATGAIIGNII sequence from the V3 loop also self-assembles into amyloid fibrils of which the first three and the last two residues are outside the amyloid GAIIG core. We postulate that this sequence with suitable selected replacements at the flexible positions can serve as designable scaffold for novel amyloid-based materials. Moreover, the single X-ray crystal structure of the beta-breaker peptide GAIPIG at 1.05 Å resolution is reported. This structural information could serve as basis for structure-based design of potential inhibitors of amyloid formation.
DOI: 10.6084/m9.figshare.6259337.v1
title: Dataset for: A Novel Amyloid Designable Scaffold and Potential Inhibitor Inspired by GAIIG of Amyloid Beta and the HIV-1 V3 loop

description: The GAIIG sequence, common to the amyloid beta peptide (residues 29-33) and to the HIV gp 120 (residues 24-28 in a typical V3 loop) self-assembles into amyloid fibrils as suggested by theory and experiments presented here. The longer YATGAIIGNII sequence from the V3 loop also self-assembles into amyloid fibrils of which the first three and the last two residues are outside the amyloid GAIIG core. We postulate that this sequence with suitable selected replacements at the flexible positions can serve as designable scaffold for novel amyloid-based materials. Moreover, the single X-ray crystal structure of the beta-breaker peptide GAIPIG at 1.05 Å resolution is reported. This structural information could serve as basis for structure-based design of potential inhibitors of amyloid formation.
DOI: 10.6084/m9.figshare.6259313
title: WEP_Dataset.xlsx

description: Housing Association use of cross-subsidy.
DOI: 10.6084/m9.figshare.6259313.v1
title: WEP_Dataset.xlsx

description: Housing Association use of cross-subsidy.
DOI: 10.6084/m9.figshare.6257237
title: Outer_shell.txt from Predicting double negativity using transmitted phase in space coiling metamaterials

description: Metamaterials are engineered materials that offer the flexibility to manipulate the incident waves leading to exotic applications such as cloaking, extraordinary transmission, sub-wavelength imaging and negative refraction. These concepts have largely been explored in the context of electromagnetic waves. Acoustic metamaterials, similar to their optical counterparts, demonstrate anomalous effective elastic properties. Recent developments have shown that coiling up the propagation path of acoustic wave results in effective elastic response of the metamaterial beyond the natural response of its constitutive materials. The effective response of metamaterials is generally evaluated using the ‘S’ parameter retrieval method based on amplitude of the waves. The phase for acoustic waves contains information of wave pressure and particle velocity. Here, we show using finite-element methods that phase reversal of transmitted waves may be used to predict extreme acoustic properties in space coiling metamaterials. This change in phase is the difference in the phase of the transmitted wave with respect to the incident wave. This method is simpler when compared with more rigorous, the ‘S’ parameter retrieval method. The inferences drawn using this method have been verified experimentally for labyrinthine metamaterials by showing negative refraction for the predicted band of frequencies.
DOI: 10.6084/m9.figshare.6257237.v1
title: Outer_shell.txt from Predicting double negativity using transmitted phase in space coiling metamaterials

description: Metamaterials are engineered materials that offer the flexibility to manipulate the incident waves leading to exotic applications such as cloaking, extraordinary transmission, sub-wavelength imaging and negative refraction. These concepts have largely been explored in the context of electromagnetic waves. Acoustic metamaterials, similar to their optical counterparts, demonstrate anomalous effective elastic properties. Recent developments have shown that coiling up the propagation path of acoustic wave results in effective elastic response of the metamaterial beyond the natural response of its constitutive materials. The effective response of metamaterials is generally evaluated using the ‘S’ parameter retrieval method based on amplitude of the waves. The phase for acoustic waves contains information of wave pressure and particle velocity. Here, we show using finite-element methods that phase reversal of transmitted waves may be used to predict extreme acoustic properties in space coiling metamaterials. This change in phase is the difference in the phase of the transmitted wave with respect to the incident wave. This method is simpler when compared with more rigorous, the ‘S’ parameter retrieval method. The inferences drawn using this method have been verified experimentally for labyrinthine metamaterials by showing negative refraction for the predicted band of frequencies.
DOI: 10.6084/m9.figshare.6257234
title: fig3b.txt from Predicting double negativity using transmitted phase in space coiling metamaterials

description: Metamaterials are engineered materials that offer the flexibility to manipulate the incident waves leading to exotic applications such as cloaking, extraordinary transmission, sub-wavelength imaging and negative refraction. These concepts have largely been explored in the context of electromagnetic waves. Acoustic metamaterials, similar to their optical counterparts, demonstrate anomalous effective elastic properties. Recent developments have shown that coiling up the propagation path of acoustic wave results in effective elastic response of the metamaterial beyond the natural response of its constitutive materials. The effective response of metamaterials is generally evaluated using the ‘S’ parameter retrieval method based on amplitude of the waves. The phase for acoustic waves contains information of wave pressure and particle velocity. Here, we show using finite-element methods that phase reversal of transmitted waves may be used to predict extreme acoustic properties in space coiling metamaterials. This change in phase is the difference in the phase of the transmitted wave with respect to the incident wave. This method is simpler when compared with more rigorous, the ‘S’ parameter retrieval method. The inferences drawn using this method have been verified experimentally for labyrinthine metamaterials by showing negative refraction for the predicted band of frequencies.
DOI: 10.6084/m9.figshare.6257234.v1
title: fig3b.txt from Predicting double negativity using transmitted phase in space coiling metamaterials

description: Metamaterials are engineered materials that offer the flexibility to manipulate the incident waves leading to exotic applications such as cloaking, extraordinary transmission, sub-wavelength imaging and negative refraction. These concepts have largely been explored in the context of electromagnetic waves. Acoustic metamaterials, similar to their optical counterparts, demonstrate anomalous effective elastic properties. Recent developments have shown that coiling up the propagation path of acoustic wave results in effective elastic response of the metamaterial beyond the natural response of its constitutive materials. The effective response of metamaterials is generally evaluated using the ‘S’ parameter retrieval method based on amplitude of the waves. The phase for acoustic waves contains information of wave pressure and particle velocity. Here, we show using finite-element methods that phase reversal of transmitted waves may be used to predict extreme acoustic properties in space coiling metamaterials. This change in phase is the difference in the phase of the transmitted wave with respect to the incident wave. This method is simpler when compared with more rigorous, the ‘S’ parameter retrieval method. The inferences drawn using this method have been verified experimentally for labyrinthine metamaterials by showing negative refraction for the predicted band of frequencies.
DOI: 10.6084/m9.figshare.6257231
title: 3D experimenal data.opj from Predicting double negativity using transmitted phase in space coiling metamaterials

description: Metamaterials are engineered materials that offer the flexibility to manipulate the incident waves leading to exotic applications such as cloaking, extraordinary transmission, sub-wavelength imaging and negative refraction. These concepts have largely been explored in the context of electromagnetic waves. Acoustic metamaterials, similar to their optical counterparts, demonstrate anomalous effective elastic properties. Recent developments have shown that coiling up the propagation path of acoustic wave results in effective elastic response of the metamaterial beyond the natural response of its constitutive materials. The effective response of metamaterials is generally evaluated using the ‘S’ parameter retrieval method based on amplitude of the waves. The phase for acoustic waves contains information of wave pressure and particle velocity. Here, we show using finite-element methods that phase reversal of transmitted waves may be used to predict extreme acoustic properties in space coiling metamaterials. This change in phase is the difference in the phase of the transmitted wave with respect to the incident wave. This method is simpler when compared with more rigorous, the ‘S’ parameter retrieval method. The inferences drawn using this method have been verified experimentally for labyrinthine metamaterials by showing negative refraction for the predicted band of frequencies.
DOI: 10.6084/m9.figshare.6257231.v1
title: 3D experimenal data.opj from Predicting double negativity using transmitted phase in space coiling metamaterials

description: Metamaterials are engineered materials that offer the flexibility to manipulate the incident waves leading to exotic applications such as cloaking, extraordinary transmission, sub-wavelength imaging and negative refraction. These concepts have largely been explored in the context of electromagnetic waves. Acoustic metamaterials, similar to their optical counterparts, demonstrate anomalous effective elastic properties. Recent developments have shown that coiling up the propagation path of acoustic wave results in effective elastic response of the metamaterial beyond the natural response of its constitutive materials. The effective response of metamaterials is generally evaluated using the ‘S’ parameter retrieval method based on amplitude of the waves. The phase for acoustic waves contains information of wave pressure and particle velocity. Here, we show using finite-element methods that phase reversal of transmitted waves may be used to predict extreme acoustic properties in space coiling metamaterials. This change in phase is the difference in the phase of the transmitted wave with respect to the incident wave. This method is simpler when compared with more rigorous, the ‘S’ parameter retrieval method. The inferences drawn using this method have been verified experimentally for labyrinthine metamaterials by showing negative refraction for the predicted band of frequencies.
DOI: 10.6084/m9.figshare.6257228
title: fig3a_data.txt from Predicting double negativity using transmitted phase in space coiling metamaterials

description: Metamaterials are engineered materials that offer the flexibility to manipulate the incident waves leading to exotic applications such as cloaking, extraordinary transmission, sub-wavelength imaging and negative refraction. These concepts have largely been explored in the context of electromagnetic waves. Acoustic metamaterials, similar to their optical counterparts, demonstrate anomalous effective elastic properties. Recent developments have shown that coiling up the propagation path of acoustic wave results in effective elastic response of the metamaterial beyond the natural response of its constitutive materials. The effective response of metamaterials is generally evaluated using the ‘S’ parameter retrieval method based on amplitude of the waves. The phase for acoustic waves contains information of wave pressure and particle velocity. Here, we show using finite-element methods that phase reversal of transmitted waves may be used to predict extreme acoustic properties in space coiling metamaterials. This change in phase is the difference in the phase of the transmitted wave with respect to the incident wave. This method is simpler when compared with more rigorous, the ‘S’ parameter retrieval method. The inferences drawn using this method have been verified experimentally for labyrinthine metamaterials by showing negative refraction for the predicted band of frequencies.
DOI: 10.6084/m9.figshare.6257228.v1
title: fig3a_data.txt from Predicting double negativity using transmitted phase in space coiling metamaterials

description: Metamaterials are engineered materials that offer the flexibility to manipulate the incident waves leading to exotic applications such as cloaking, extraordinary transmission, sub-wavelength imaging and negative refraction. These concepts have largely been explored in the context of electromagnetic waves. Acoustic metamaterials, similar to their optical counterparts, demonstrate anomalous effective elastic properties. Recent developments have shown that coiling up the propagation path of acoustic wave results in effective elastic response of the metamaterial beyond the natural response of its constitutive materials. The effective response of metamaterials is generally evaluated using the ‘S’ parameter retrieval method based on amplitude of the waves. The phase for acoustic waves contains information of wave pressure and particle velocity. Here, we show using finite-element methods that phase reversal of transmitted waves may be used to predict extreme acoustic properties in space coiling metamaterials. This change in phase is the difference in the phase of the transmitted wave with respect to the incident wave. This method is simpler when compared with more rigorous, the ‘S’ parameter retrieval method. The inferences drawn using this method have been verified experimentally for labyrinthine metamaterials by showing negative refraction for the predicted band of frequencies.
DOI: 10.6084/m9.figshare.6257225
title: transmission_outer.txt from Predicting double negativity using transmitted phase in space coiling metamaterials

description: Metamaterials are engineered materials that offer the flexibility to manipulate the incident waves leading to exotic applications such as cloaking, extraordinary transmission, sub-wavelength imaging and negative refraction. These concepts have largely been explored in the context of electromagnetic waves. Acoustic metamaterials, similar to their optical counterparts, demonstrate anomalous effective elastic properties. Recent developments have shown that coiling up the propagation path of acoustic wave results in effective elastic response of the metamaterial beyond the natural response of its constitutive materials. The effective response of metamaterials is generally evaluated using the ‘S’ parameter retrieval method based on amplitude of the waves. The phase for acoustic waves contains information of wave pressure and particle velocity. Here, we show using finite-element methods that phase reversal of transmitted waves may be used to predict extreme acoustic properties in space coiling metamaterials. This change in phase is the difference in the phase of the transmitted wave with respect to the incident wave. This method is simpler when compared with more rigorous, the ‘S’ parameter retrieval method. The inferences drawn using this method have been verified experimentally for labyrinthine metamaterials by showing negative refraction for the predicted band of frequencies.
DOI: 10.6084/m9.figshare.6257225.v1
title: transmission_outer.txt from Predicting double negativity using transmitted phase in space coiling metamaterials

description: Metamaterials are engineered materials that offer the flexibility to manipulate the incident waves leading to exotic applications such as cloaking, extraordinary transmission, sub-wavelength imaging and negative refraction. These concepts have largely been explored in the context of electromagnetic waves. Acoustic metamaterials, similar to their optical counterparts, demonstrate anomalous effective elastic properties. Recent developments have shown that coiling up the propagation path of acoustic wave results in effective elastic response of the metamaterial beyond the natural response of its constitutive materials. The effective response of metamaterials is generally evaluated using the ‘S’ parameter retrieval method based on amplitude of the waves. The phase for acoustic waves contains information of wave pressure and particle velocity. Here, we show using finite-element methods that phase reversal of transmitted waves may be used to predict extreme acoustic properties in space coiling metamaterials. This change in phase is the difference in the phase of the transmitted wave with respect to the incident wave. This method is simpler when compared with more rigorous, the ‘S’ parameter retrieval method. The inferences drawn using this method have been verified experimentally for labyrinthine metamaterials by showing negative refraction for the predicted band of frequencies.
DOI: 10.6084/m9.figshare.6257222
title: transmission_3D.txt from Predicting double negativity using transmitted phase in space coiling metamaterials

description: Metamaterials are engineered materials that offer the flexibility to manipulate the incident waves leading to exotic applications such as cloaking, extraordinary transmission, sub-wavelength imaging and negative refraction. These concepts have largely been explored in the context of electromagnetic waves. Acoustic metamaterials, similar to their optical counterparts, demonstrate anomalous effective elastic properties. Recent developments have shown that coiling up the propagation path of acoustic wave results in effective elastic response of the metamaterial beyond the natural response of its constitutive materials. The effective response of metamaterials is generally evaluated using the ‘S’ parameter retrieval method based on amplitude of the waves. The phase for acoustic waves contains information of wave pressure and particle velocity. Here, we show using finite-element methods that phase reversal of transmitted waves may be used to predict extreme acoustic properties in space coiling metamaterials. This change in phase is the difference in the phase of the transmitted wave with respect to the incident wave. This method is simpler when compared with more rigorous, the ‘S’ parameter retrieval method. The inferences drawn using this method have been verified experimentally for labyrinthine metamaterials by showing negative refraction for the predicted band of frequencies.
DOI: 10.6084/m9.figshare.6257222.v1
title: transmission_3D.txt from Predicting double negativity using transmitted phase in space coiling metamaterials

description: Metamaterials are engineered materials that offer the flexibility to manipulate the incident waves leading to exotic applications such as cloaking, extraordinary transmission, sub-wavelength imaging and negative refraction. These concepts have largely been explored in the context of electromagnetic waves. Acoustic metamaterials, similar to their optical counterparts, demonstrate anomalous effective elastic properties. Recent developments have shown that coiling up the propagation path of acoustic wave results in effective elastic response of the metamaterial beyond the natural response of its constitutive materials. The effective response of metamaterials is generally evaluated using the ‘S’ parameter retrieval method based on amplitude of the waves. The phase for acoustic waves contains information of wave pressure and particle velocity. Here, we show using finite-element methods that phase reversal of transmitted waves may be used to predict extreme acoustic properties in space coiling metamaterials. This change in phase is the difference in the phase of the transmitted wave with respect to the incident wave. This method is simpler when compared with more rigorous, the ‘S’ parameter retrieval method. The inferences drawn using this method have been verified experimentally for labyrinthine metamaterials by showing negative refraction for the predicted band of frequencies.
DOI: 10.6084/m9.figshare.6256601
title: exam_geneticst_region.bam.bai

description: exam_geneticst_region
DOI: 10.6084/m9.figshare.6256601.v1
title: exam_geneticst_region.bam.bai

description: exam_geneticst_region
DOI: 10.6084/m9.figshare.6256148
title: Data Package - Thermal Regime 2013-2017, Gámanjunni 3 Rockslide and Rock Glacier, Manndalen, Troms

description: The Excel file contains temperature measurements and graphs from an ongoing temperature campaign published as part of a Norut report entitled “Instrumentation and temperature data (2013–2017), Gámanjunni 3 Rockslide and Rock Glacier, Manndalen, Troms” by Harald Øverli Eriksen.<br> <br> Reference to report related to this data: Eriksen, H. Ø., 2018, Instrumentation and temperature data (2013–2017), Gámanjunni 3 Rockslide and Rock Glacier, Manndalen, Troms. Norut report.<br>