bluuebunny/crossref_metadata_2025_split huggingface dataset:
Differentiation of religiosity and its effects on biopolitical orientations among Catholics: evidence from Poland
Authors: Borowik Irena , Grygiel Paweł 
Published: April 2023

AbstractExisting research proves the connection between religion and social attitudes toward biopolitical topics. The purpose of our analyses was to deepen reflection on these connections. We explored the internal pluralization of religiosity and ideological self-placement and their significance for orientations toward abortion, in vitro fertilization, and homosexuality, subjects of intensive political debate engaging the Catholic Church. Our analysis, based on a nationally representative sample of Catholics in Poland, leads to the conclusion that, despite high indicators of religiosity, the capacity of the Roman Catholic Church to form a consistent cognitive perspective among its followers is limited. Even among Catholics who present fully institutionalized religiosity (~25%), only half agree with the Church's teaching on biopolitical themes. These findings are discussed in the context of the importance of intra-religious pluralism for understanding the ideological role of religion in countries with high levels of belonging to one, dominant form of it.
‘Human Rights…But for the Majority’: The Appropriation and Subversion of the Human Rights Agenda by Right-Wing NGOs in Malaysia
Authors: Chan Nicholas 
Published: April 2023

AbstractScholarly treatments of the human rights agenda tend to posit civil society organisations (CSOs) as its defender and the state and mainstream political actors as its violators. Even when raising the problem of an ‘uncivil society’, the literature labels these CSOs as reactive and hostile to the human rights agenda they perceive as ‘Western’ and ‘foreign’. I argue that these treatments of the issue overlook another phenomenon: the emergence of CSOs that adopted the language of human rights and participated in its formal processes yet subtly redefined, subverted, and undermined the core commitments of the human rights agenda. This paper discusses such developments by referencing right-wing non-governmental organisations (NGOs) in Malaysia that redefined the parameters of the human rights agenda to undercut state commitments to protect religious freedom, sexuality rights, and gender minorities. Through actor and discourse tracing, this paper illustrates how right-wing Islamist NGOs employed a novel two-pronged strategy that no longer openly repudiated the human rights agenda but continued to erode, eviscerate, and reformulate its contents and principles. The first prong involved institutional measures of ‘getting in’ to gain legitimacy by participating as a stakeholder within local and international human rights processes. The second prong encompassed social strategies of ‘pushing out’, whereby actors and their networks mobilised populist pressure to expose, ostracise, and subvert established human rights norms, institutions, and actors.
Higher‐Resolution Tropopause Folding Accounts for More Stratospheric Ozone Intrusions
Authors: Bartusek Samuel , Wu Yutian , Ting Mingfang , Zheng Cheng , Fiore Arlene , Sprenger Michael , Flemming Johannes 
Published: April 2023

AbstractOzone in the troposphere is a pollutant and greenhouse gas, and it is crucial to better understand its transport from the ozone‐rich stratosphere. Tropopause folding, wherein stratospheric air intrudes downward into the troposphere, enables stratosphere‐to‐troposphere ozone transport (STT). However, systematic analysis of the relationship between folding and tropospheric ozone, using data that can both capture folding's spatial scales and accurately represent tropospheric chemistry, is limited. Here, we compare folding in high‐resolution reanalysis ERA5 (0.25° horizontal, <21 hPa vertical) and low‐resolution chemical reanalysis CAMSRA (0.75°, <40 hPa), against CAMSRA ozone, over 1 year. Folding becomes dramatically more frequent at high resolution, with vertical resolution overwhelmingly responsible. Deeper, more filamentary folding is almost entirely unrepresented at low resolution. Higher‐resolution folding is better‐correlated with tropospheric ozone (especially along midlatitude storm tracks, where deep folding is most common); STT is therefore likely more attributable to tropopause folding than coarsely‐resolved folding can capture.
Transient Foreshock Structures Upstream of Mars: Implications of the Small Martian Bow Shock
Authors: Madanian H. , Omidi N. , Sibeck D. G. , Andersson L. , Ramstad R. , Xu S. , Gruesbeck J. R. , Schwartz S. J. , Frahm R. A. , Brain D. A. , Kajdic P. , Eparvier F. G. , Mitchell D. L. , Curry S. M. 
Published: April 2023

AbstractThe typical subsolar stand‐off distance of Mars' bow shock is of the order of a solar wind ion convective gyroradius, making it highly non‐planar to incident ions. Using spacecraft observations and a test particle model, we illustrate the impact of the bow shock curvature on transient structures which form near the upstream edge of moving foreshocks caused by slow rotations in the interplanetary magnetic field (IMF). The structures exhibit noticeable decrease in the solar wind plasma density and the IMF strength within their core, are accompanied by a compressional shock layer, and are consistent with foreshock bubbles (FBs). Ion populations responsible for these structures include backstreaming ions that only appear within the moving foreshock and reflected ions with hybrid trajectories that straddle between the quasi‐perpendicular and quasi‐parallel bow shocks during slow IMF rotations. Both ion populations accumulate near the upstream edge of the moving foreshock which facilitates FB formation.
Compensatory Effects Between CO2, Nitrogen Deposition, and Nitrogen Fertilization in Terrestrial Biosphere Models Without Nitrogen Compromise Projections of the Future Terrestrial Carbon Sink
Authors: Kou‐Giesbrecht S. , Arora V. K. 
Published: April 2023

AbstractAlthough terrestrial biosphere models (TBMs) with and without nitrogen cycling successfully reproduce the historical terrestrial carbon sink, the influence of nitrogen cycling under interacting and intensifying global change drivers in the future is unclear. Here, we compare TBM projections with and without nitrogen cycling over alternative future scenarios (the Shared Socioeconomic Pathways) to examine how representing nitrogen cycling influences CO2 fertilization as well as the effects of a comprehensive group of physical and socioeconomic global change drivers. Because elevated nitrogen deposition and nitrogen fertilization have stimulated terrestrial carbon sequestration over the historical period, a model without nitrogen cycling must exaggerate the strength of CO2 fertilization to compensate for these unrepresented nitrogen processes and to reproduce the historical terrestrial carbon sink. As a result, it cannot realistically project the future terrestrial carbon sink, overestimating CO2 fertilization as the trajectories of CO2, nitrogen deposition and nitrogen fertilization diverge in future scenarios.
Reduced Accessible Air–Water Interfacial Area Accelerates PFAS Leaching in Heterogeneous Vadose Zones
Authors: Zeng Jicai , Guo Bo 
Published: April 2023

AbstractPer‐ and polyfluoroalkyl substances (PFAS) are surface‐active contaminants experiencing strong retention in vadose zones due to adsorption at air–water and solid–water interfaces. Leaching of PFAS through vadose zones poses great risks of groundwater contamination. Prior PFAS transport studies have focused on homogenous or layered vadose zones that significantly underrepresented the impact of preferential flow caused by soil heterogeneities—a primary factor known to dominantly control the subsurface transport of many contaminants. We conduct numerical simulations to investigate the impact of preferential flow on PFAS leaching in stochastically generated heterogeneous vadose zones. The simulations show that while shorter‐chain PFAS experience accelerated leaching similar to non‐surfactant solutes, the accelerated leaching of more surface‐active longer‐chain PFAS is uniquely amplified by 1.1–4.5 times due to reduced accessible air–water interfacial areas along preferential flow pathways. Our study highlights the criticality of characterizing soil heterogeneities for accurately predicting the leaching of long‐chain PFAS in vadose zones.
Strength Recovery in Quartzite Is Controlled by Changes in Friction in Experiments at Hydrothermal Conditions up to 200°C
Authors: Jeppson Tamara , Lockner David , Beeler Nicholas , Hickman Stephen 
Published: April 2023

AbstractThe rate of fault zone restrengthening between earthquakes can be influenced by both frictional and cohesive healing processes. Friction is dependent on effective normal stress while cohesion is independent of normal stress, potentially explaining—in part—the lack of depth dependence of earthquake stress drops. Although amenable to laboratory testing, few studies have systematically addressed the normal stress dependence of restrengthening rate. This is partially due to difficulty in separating relative contributions of friction and cohesion in recovery of fault strength. We present results from a series of slide‐hold‐slide tests on thin layers (≤10 𝜇m) of ultrafine quartz gouge that develop during shearing of initially bare‐surface quartzite. Tests were conducted at 10 MPa constant pore pressure, 20–200 MPa constant effective normal stress, and temperatures of 22°–200°C. Restrengthening, defined as the difference between peak shear stress measured after resumption of sliding and steady‐state sliding shear stress, increases with the log of hold duration. The 200°C healing rate, 0.014 per e‐fold increase in time, is comparable to that determined from seismological observations along the Calaveras Fault, California. Construction of Mohr‐Coulomb failure envelopes shows that changes in cohesion are small (<1 MPa) and independent of hold durations to 105 s, indicating that the increased strength is due to changes in the friction coefficient. These experimental results are inconsistent with the hypothesis that cohesive healing explains the depth independence of earthquake stress drop, but higher temperatures, longer time‐scales, and more complex mineralogy could facilitate cohesive healing in natural fault systems.
Variation of Atmospheric Boundary Layer Height Over the Northern, Central, and Southern Parts of the Tibetan Plateau During Three Monsoon Seasons
Authors: Lai Yue , Chen Xuelong , Ma Yaoming , Sun Fanglin , Zhou Degang , Xie Zhipeng 
Published: April 2023

AbstractThe atmospheric boundary layer (ABL) over the Tibetan Plateau (TP) is important to the study of the interactions between the underlying surface and the atmosphere. Radiosondes were released during three intensive ABL experimental periods (monsoon‐onset, monsoon, and post‐monsoon) in 2014 and 2019. Using these observational data, this study explored the features of the ABL height (ABLH) in the northern, central, and southern parts of the TP during the three periods and their possible association with the westerlies. Measurements showed that the ABLH over the northern part of the TP in the monsoon season was the highest (average 3 km above ground level [AGL]) among the three intensive observation periods. Meanwhile, the southern part of the TP had the highest ABLH (almost 3.5 km AGL) in post‐monsoon. Using ERA5, we discovered that the ABLH over the TP was not only affected by the surface sensible heat flux but also was influenced by the seasonal north‐south movement of the westerlies. The westerlies correspond to an upper‐level high potential vorticity (PV) center that is associated with the weak atmospheric stability below the westerlies and is conducive to the development of the ABL. When the westerlies are located above the southern TP in winter, they provide conditions that favor ABL increase. Westerlies are above the north TP in summer, and this provides favorable conditions for ABL increase in the northern TP. The role of westerlies in the ABLH explains why the northern and southern parts of the TP have different seasonal variation patterns.
Phenomenology of Avalanche Recordings From Distributed Acoustic Sensing
Authors: Paitz Patrick , Lindner Nadja , Edme Pascal , Huguenin Pierre , Hohl Michael , Sovilla Betty , Walter Fabian , Fichtner Andreas 
Published: April 2023

AbstractAvalanches and other hazardous mass movements pose a danger to the population and critical infrastructure in alpine areas. Hence, understanding and continuously monitoring mass movements are crucial to mitigate their risk. We propose to use Distributed Acoustic Sensing (DAS) to measure strain rate along a fiber‐optic cable to characterize ground deformation induced by avalanches. We recorded 12 snow avalanches of various dimensions at the Vallée de la Sionne test site in Switzerland, utilizing existing fiber‐optic infrastructure and a DAS interrogation unit during the winter 2020/2021. By training a Bayesian Gaussian Mixture Model, we automatically characterize and classify avalanche‐induced ground deformations using physical properties extracted from the frequency‐wavenumber and frequency‐velocity domain of the DAS recordings. The resulting model can estimate the probability of avalanches in the DAS data and is able to differentiate between the avalanche‐generated seismic near‐field, the seismo‐acoustic far‐field, and the mass movement propagating on top of the fiber. By analyzing the mass‐movement propagation signals, we are able to identify group velocity packages within an avalanche that propagate faster than the phase velocity of the avalanche front, indicating complex internal structures. Importantly, we show that the seismo‐acoustic far‐field can be detected before the avalanche reaches the fiber‐optic array, highlighting DAS as a potential research and early warning tool for hazardous mass movements.
Measurements and Modeling of the Responses of VLF Transmitter Signals to X‐Class Solar Flares at the Great Wall Station in Antarctica
Authors: Xu Wei , Gu Xudong , Ni Binbin , Wang Shiwei , Yang Zhe , Cheng Wen , Hu Ze‐Jun , He Fang , Li Bin , Chen Xiang‐Cai , Liu Jian‐Jun , Hu Hong‐Qiao 
Published: April 2023

AbstractSolar flares can severely disturb the Earth's ionosphere, leading to changes of atmospheric chemistry and degradation of Global Navigation Satellite System (GNSS) signals. The key to better assess these effects is to more accurately quantify the electron density enhancements induced by solar flares, which is still uncertain. Thanks to the good coverage and quiet electromagnetic environment provided by the Great Wall Station (GWS, 62.22°S, 58.96°W) in Antarctica, our Very‐Low‐Frequency (VLF) receiver has recorded clean VLF signatures produced by three X‐class solar flares from March to May in 2022. These measurements motivate us to revisit the uncertain question related to the ionospheric effects induced by solar flares. Different from previous studies, we model solar flare events from satellite measurements of X‐ray fluxes to ground‐based measurements of VLF transmitter signals by combining a flare irradiance model, an X‐ray propagation model, a D‐region chemistry model, and a VLF propagation model. For eight transmitting frequencies and propagation paths, modeling results can satisfactorily explain our VLF measurements at GWS during the three X‐class flares, especially so for the X1.3 event occurring on 30 March 2022. Moreover, the electron density results that reconcile space‐ and ground‐based measurements suggest that the VLF reflection height can be lowered to ∼66 km by an X1.1 flare, in line with previous studies. The present set of numerical models can be thus utilized in future studies to improve the nowcasting capability of VLF sensing technique for monitoring solar flares, as well as the accuracy of GNSS navigation/positioning during solar flares.
More Intense and Longer Torrential Rain and Flood Events During the Recent Past Decade in Eurasia
Authors: Wang Shuxia , Zhang Liping , Wang Gangsheng , She Dunxian , Zhang Qin , Xia Jun , Zhang Yanjun 
Published: April 2023

AbstractGlobal and regional flood risk is increasing, especially in Eurasia, threatening public security and socioeconomic development. However, the duration, intensity and spatial extent of floods in the past few decades have not been robustly explored, largely because previous identification methods ignored the dual nature of floods in space and time. Here we presented a first comprehensive diagnosis of flood events in Eurasia by developing a novel three‐dimensional Image‐CONnectivity based FLOOD identification (ICON‐FLOOD) approach. By the ICON‐FLOOD approach, we revealed a four‐phase quasi‐interdecadal pattern and significant intensification of flood events in the last 12 years of the study period (1979–2012), contrary to the declining trend derived from two well‐known global data sets. Further analysis indicated that the flood characteristics had switched from “large impacted area but short duration, low intensity” to “high intensity, long duration but small impacted area.” Exploring the spatiotemporal evolution of flood events by ICON‐FLOOD will provide a basis for flood risk management and flood adaptation strategy development.
Mesoscale Modeling of Distributed Water Systems Enables Policy Search
Authors: Zhou Xiangnan , Duenas‐Osorio Leonardo , Doss‐Gollin James , Liu Lu , Stadler Lauren , Li Qilin 
Published: April 2023

AbstractIt is widely acknowledged that distributed water systems (DWSs), which integrate distributed water supply and treatment with existing centralized infrastructure, can mitigate challenges to water security from extreme events, climate change, and aged infrastructure. However, it is unclear which are beneficial DWS configurations, i.e., where and at what scale to implement distributed water supply. We develop a mesoscale representation model that approximates DWSs with reduced backbone networks to enable efficient system emulation while preserving key physical realism. Moreover, system emulation allows us to build a multiobjective optimization model for computational policy search that addresses energy utilization and economic impacts. We demonstrate our models on a hypothetical DWS with distributed direct potable reuse (DPR) based on the City of Houston's water and wastewater infrastructure. The backbone DWS with greater than link and node reductions achieves satisfactory approximation of global flows and water pressures, to enable configuration optimization analysis. Results from the optimization model reveal case‐specific as well as general opportunities, constraints, and their interactions for DPR allocation. Implementing DPR can be beneficial in areas with high energy intensities of water distribution, considerable local water demands, and commensurate wastewater reuse capacities. The mesoscale modeling approach and the multiobjective optimization model developed in this study can serve as practical decision‐support tools for stakeholders to search for alternative DWS options in urban settings.
Evaluating the Effects of Precipitation and Evapotranspiration on Soil Moisture Variability Within CMIP5 Using SMAP and ERA5 Data
Authors: Xi Xuan , Zhuang Qianlai , Kim Seungbum , Gentine Pierre 
Published: April 2023

AbstractThe effects of precipitation (Pr) and evapotranspiration (ET) on surface soil moisture (SSM) play an essential role in the land‐atmosphere system. Here we evaluate multimodel differences of these effects within the Coupled Model Intercomparison Project Phase 5 (CMIP5) compared to Soil Moisture Active Passive (SMAP) products and ECMWF Reanalysis v5 (ERA5) as references in a frequency domain. The variability of SSM, Pr, and ET within three frequency bands (1/7 ∼ 1/30 days−1, 1/30 ∼ 1/90 days−1, and 1/90 ∼ 1/365 days−1) after normalization is quantified using Fourier transform. We analyze the impact of ET and Pr on SSM variability based on a transfer function assuming that these variables form a linear time‐invariant (LTI) system. For the total effects of ET and Pr on SSM variability, the CMIP5 estimations are smaller than the reference data in the two higher frequency bands and are larger than the reference data in the lowest frequency band. Besides, the effects on SSM by Pr and ET are found to be different across the three frequency bands. In each frequency band, the variability of the factor that dominates SSM (i.e., Pr or ET) from CMIP5 is smaller than that from the references. This study identifies the spatiotemporal distribution of differences between CMIP5 models and references (SMAP and ERA5) in simulating ET and Pr effects on SSM within three frequency bands. This study provides insightful information on how soil moisture variability is affected by varying precipitation and evapotranspiration at different time scales within Earth System Models.
CHST2-mediated sulfation of MECA79 antigens is critical for breast cancer cell migration and metastasis
Authors: Zhang Dan , Zhang Yihong , Zou Xiuqun , Li Mengying , Zhang Hui , Du Yaning , Wang Jiamin , Peng Chicheng , Dong Chunyan , Hou Zhaoyuan 
Published: April 2023

AbstractSnail is a denoted transcriptional repressor that plays key roles in epithelial-mesenchymal transition (EMT) and metastasis. Lately, a plethora of genes can be induced by stable expression of Snail in multiple cell lines. However, the biological roles of these upregulated genes are largely elusive. Here, we report identification of a gene encoding the key GlcNAc sulfation enzyme CHST2 is induced by Snail in multiple breast cancer cells. Biologically, CHST2 depletion results in inhibition of breast cancer cell migration and metastasis, while overexpression of CHST2 promotes cell migration and lung metastasis in nude mice. In addition, the expression level of MECA79 antigen is elevated and blocking the cell surface MECA79 antigen with specific antibodies can override cell migration mediated by CHST2 upregulation. Moreover, the sulfation inhibitor sodium chlorate effectively inhibits the cell migration induced by CHST2. Collectively, these data provide novel insights into the biology of Snail/CHST2/MECA79 axis in breast cancer progression and metastasis as well as potential therapeutic strategy for the diagnosis and treatment of breast cancer metastasis.
Multi-organ denervation: a novel approach to combat cardiometabolic disease
Authors: Kiuchi Márcio Galindo , Carnagarin Revathy , Matthews Vance B. , Schlaich Markus P. 
Published: April 2023

AbstractCardiometabolic disorders are associated with a substantial loss in quality of life and pose a large burden on healthcare systems worldwide. Overactivation of the sympathetic nervous system has been shown to be a key player in several aspects relating to cardiometabolic disturbances. While diet- and exercise-induced approaches to help reduce weight remains the main strategy to combat metabolic disorders, this is often difficult to achieve. Current pharmacological approaches result in variable responses in different patient cohorts and long-term efficacy may be limited by medication side effects and non-adherence in the long term. There is a clear clinical need for complementary therapies to curb the burden of cardiometabolic disease. One such approach may include interventional sympathetic neuromodulation of organs relevant to cardiometabolic control. Data from sham-controlled clinical trials demonstrate the feasibility, safety and efficacy of catheter-based renal denervation. In analogy, denervation of the common hepatic artery is now feasible in humans and may prove to be similarly useful in modulating sympathetic overdrive directed towards the liver, pancreas and duodenum. Such a targeted multi-organ neuromodulation strategy may beneficially influence multiple aspects of the cardiometabolic disease continuum including blood pressure, glucose and lipid control.