bluuebunny/crossref_metadata_2025_split huggingface dataset:
Episciences overlay journals
Authors: Tournoy Raphaël 
Published: November 2023

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Episciences is a publishing platform for diamond open access overlay journals. The ambition is to provide scientific communities with the technical means to produce high-quality, cost-effective journals in line with FAIR principles. The process is based on open repositories (arXiv; Zenodo; HAL). All the published content of a journal is hosted on repositories. Episciences is therefore set up as a service layer for repositories, using them as input and output for open access publication.
The platform was launched in 2013 as a peer review service for preprints hosted in open archives. Over the years, the list of services offered has grown and adapted to new trends in scientific publications. For example, peer review reports are now a new type of content that can be hosted in repositories, along with datasets and software code for publications. Support for these new objects in Episciences increases transparency and reproducibility of science. Support for datasets and software code also means that both data journals and software journals can be easily created on top of repositories.
The platform has implemented new protocols and workflows promoted by the Confederation of Open Access Repositories (COAR) Next Generation Working Group, such as COAR Notify and SignPosting. It has enabled us to build innovative new services for researchers on top of the HAL repository. We have also connected Episciences to other open science services such as OpenAIRE Graph, OpenCitations and Scholexplorer. This has allowed us to add new services at the same time for journals and the HAL repository. The presentation will explain how Episciences and overlay journals in general can be a bridge between publications, open repositories, data and software repositories - and more broadly with open science infrastructures.
The role of global open data infrastructure in a changing policy, technology, and research environment
Authors: Lippincott Sarah , Treadway Jon 
Published: November 2023

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The proliferation of open data sharing policies (such as the wide-reaching NIH policy and Nelson Memo in the United States) reflect a growing push for greater collaboration, transparency, and accountability in scientific research. They assert that the open sharing of data underpinning research is essential to achieving the benefits of open science, that researchers and the general public have a right to access that data, and that the value of shared data lies in its (re)usability.
As the scientific community rallies to meet these new requirements, research data infrastructures like Dryad, an open data publishing platform and community, face myriad opportunities and challenges.
In this talk, the presenters will

summarize the impact that new policies, evolving researcher and institutional needs, coordinated support for open infrastructure, and other changes in the landscape are having on the Open Data movement and those that support it;
provide insight into Dryad’s experience addressing challenges like increasing file size and complexity, and simplifying data deposition workflows;
explore the opportunities and challenges presented by emerging new technologies such as machine learning, automation, and distributed data storage;
outline the ongoing relevance of non-specialist data infrastructures in the rapidly evolving research landscape, and how their role will have to change through collaboration and partnerships.
Designing an infrastructural service to bridging the open science ecosystem and society
Authors: Smaniotto Alessia , Achenbach Kelly 
Published: November 2023

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The presentation will be centred around lessons learned and experiences from the European project COESO, a double-layer research project providing a framework in support of collaborative engagement on societal issues. COESO supports ten citizen science pilots implementing a participatory approach in several European countries: small scale and high intensity collaborations, starting with the problem formulation and extending through the common analysis. The pilots include contributions from different disciplines of the social sciences and the humanities (history, philosophy, political science, sociology and anthropology) and involve artists, journalists, associative members, local authorities. The support provided to the pilots includes mutual learning sessions and accompaniment in the use of a research blogging platform: not only to share the projects’ results, but also to enhance the teams’ co-research activity. Furthermore, the COESO project develops a Virtual Ecosystem for Research Activation (the VERA platform), conceived as a "collaboratory", a common digital framework supporting the projects’ teams in finding partners, managing their project and finding funding. VERA is included among the "Research for Society" services of the OPERAS research infrastructure, whose mission is to support scholarly communication in the social sciences and the humanities (SSH) across Europe.
In the effort to build a sustainable framework to support participatory research in the SSH through a digital platform, the COESO project journey provided insights on the challenges and opportunities of participatory research with and within the SSH, including how a research infrastructure can effectively design a service to foster community engagement, bridging different research practices and systems of knowledge (ensemble of practices, methodologies, vocabularies, concepts, outputs), supporting innovation in output formats and setting the premise of an enhanced network of research data linking.
Participatory research and citizen science practices are research approaches that challenge the prevailing research processes, and potentially lead to innovative practices that allow for new bridges between knowledge systems and infrastructures. The presentation will highlight two innovative digital formats explored by two COESO pilots to render their research: (1) a multimodal website proposing an interactive map that guides visitors from the broader public to explore the research findings, which were accomplished through a plurality of participatory research approaches. It also includes the "data" behind: the website spatializes a set of materials: interviews, archives, focus groups, and portraits are displayed in a geographical space, and (2) the digital tool, Memorekall, which starts from a video recording to develop a multi-document (including notes, documents, audio, or web links) to record and document the creative process.
Potential of psychrotolerant rhizobacteria for the growth promotion of wheat (Triticum aestivum L.)
Authors: Abdullah Muhammad , Tariq Mohsin , Zahra Syeda Tahseen , Ahmad Azka , Zafar Marriam , Ali Shad 
Published: November 2023

Wheat is the second most important staple crop grown and consumed worldwide. Temperature fluctuations especially the cold stress during the winter season reduces wheat growth and grain yield. Psychrotolerant plant growth-promoting rhizobacteria (PGPR) may improve plant stress-tolerance in addition to serve as biofertilizer. The present study aimed to isolate and identify PGPR, with the potential to tolerate cold stress for subsequent use in supporting wheat growth under cold stress. Ten psychrotolerant bacteria were isolated from the wheat rhizosphere at 4 °C and tested for their ability to grow at wide range of temperature ranging from −8 °C to 36 °C and multiple plant beneficial traits. All bacteria were able to grow at 4 °C to 32 °C temperature range and solubilized phosphorus except WR23 at 4 °C, whereas all the bacteria solubilized phosphorus at 28 °C. Seven bacteria produced indole-3-acetic acid at 4 °C, whereas all produced indole-3-acetic acid at 28 °C. Seven bacteria showed the ability to fix nitrogen at 4 °C, while all the bacteria fixed nitrogen at 28 °C. Only one bacterium showed the potential to produce cellulase at 4 °C, whereas four bacteria showed the potential to produce cellulase at 28 °C. Seven bacteria produced pectinase at 4 °C, while one bacterium produced pectinase at 28 °C. Only one bacterium solubilized the zinc at 4 °C, whereas six bacteria solubilized the zinc at 28 °C using ZnO as the primary zinc source. Five bacteria solubilized the zinc at 4 °C, while seven bacteria solubilized the zinc at 28 °C using ZnCO3 as the primary zinc source. All the bacteria produced biofilm at 4 °C and 28 °C. In general, we noticed behavior of higher production of plant growth-promoting substances at 28 °C, except pectinase assay. Overall, in vitro testing confirms that microbes perform their inherent properties efficiently at optimum temperatures rather than the low temperatures due to high metabolic rate. Five potential rhizobacteria were selected based on the in vitro testing and evaluated for plant growth-promoting potential on wheat under controlled conditions. WR22 and WR24 significantly improved wheat growth, specifically increasing plant dry weight by 42% and 58%, respectively. 16S rRNA sequence analysis of WR22 showed 99.78% similarity with Cupriavidus campinensis and WR24 showed 99.9% similarity with Enterobacter ludwigii. This is the first report highlighting the association of C. campinensis and E. ludwigii with wheat rhizosphere. These bacteria can serve as potential candidates for biofertilizer to mitigate the chilling effect and improve wheat production after field-testing.
Alveolar antral artery: cone beam computed tomography study and clinical context
Authors: Staněk Ján , Machálková Kateřina , Staňková Magdalena , Zapletalová Jana , Kocurová Tat’ána 
Published: November 2023

Purpose
Anastomosis between posterior superior alveolar artery and infraorbital artery can go through bony canal in the lateral wall of the maxilla. This artery is called alveolar antral artery. It can complicate lateral sinus lift procedure by bleeding and hemosinus formation or bone graft wash out. The artery can also go in soft tissues where is not visible on cone beam computed tomography. In previous studies, the relation of this artery to sinus floor or alveolar process was measured. These structures are highly unstable during lifetime and after tooth loss. The aim of this study is to study presence and relations of bony canal in the lateral maxillary wall, to characterize the group of patients which is more likely to have bone canal in the lateral maxilla. The aim and the novelty of this study is the describing of the relationship of the bony canal to the more stable structure of hard palate and describing the relation of presence of bony canal on width of maxillary sinus, and to facilitate the prediction of presence of the alveolar antral artery.

Materials
The cone beam computed tomography scans of the patients (251 in number) of the university hospital were examined for presence of alveolar antral artery (148 was fulfilled inclusion criteria), patient were characterized by gender, age, and sinus type (wide, average, narrow). The diameter of the bony canal and its relation to the level of sinus floor and hard palate were measured.

Results
The cone beam computed tomography scans of 148 patients, out of it 55 man (37,2%) and 93 women (62,8%). Bony canal containing alveolar anastomosis was found in 69 cases (57,0%). Presence of the bony canal in the lateral wall of maxillae showed statistical probability depending on age with p = 0, 064 according to Mann-Whitney test. The older patients have more likely the bony canal. The presence of the alveolar antral artery was found more likely in the wide sinuses. The hard palate level can serve as a prediction point of alveolar antral artery only in first molar and second premolar region. In accordance with previous studies the width of bony canal is significantly higher in group of man (p = 0, 015). There was found a correlation between smaller distance of bony canal from sinus floor in the presence of teeth (p = 0, 067). After tooth loss the distance between sinus floor and bony canal increases, but the distance of bony canal to hard palate level stays constant. This can be explained hypothetically so that periodontal ligaments and root surface acts as a barrier for sinus pneumatization.

Conclusion
Lateral sinus lifting in some cases can be unenviable, the knowledge about alveolar antral artery anatomy can reduce the risk of arterial bleeding. The cone-beam computed tomography is a routine examination prior to augmentation surgery and therefore the data obtained from it has an impact on clinical practice.
Exploring the role of simulator fidelity in the safety validation of learning‐enabled autonomous systems
Authors: Baheri Ali 
Published: November 2023

AbstractThis article presents key insights from the New Faculty Highlights talk given at AAAI 2023, focusing on the crucial role of fidelity simulators in the safety evaluation of learning‐enabled components (LECs) within safety‐critical systems. With the rising integration of LECs in safety‐critical systems, the imperative for rigorous safety and reliability verification has intensified. Safety assurance goes beyond mere compliance, forming a foundational element in the deployment of LECs to reduce risks and ensure robust operation. In this evolving field, simulations have become an indispensable tool, and fidelity's role as a critical parameter is increasingly recognized. By employing multifidelity simulations that balance the needs for accuracy and computational efficiency, new paths toward comprehensive safety validation are emerging. This article delves into our recent research, emphasizing the role of simulation fidelity in the validation of LECs in safety‐critical systems.
Transition Metal Selenides for Supercapacitors
Authors: Tang Guilin , Liang Jing , Wu Wei 
Published: November 2023

AbstractThe advancements in high‐performance flexible energy storage devices are crucial to realize the integration and multifunctionality of wearable devices. Transition metal selenides (TMSes), possess high theoretical capacity and electrical conductivity, which hold great promise for energy storage applications. This review provides a succinct summary of the progress of TMSes as high‐performance electrode materials for supercapacitor applications. First, the energy storage mechanism of TMSes and the effective strategies for achieving high‐performance TMSes are discussed. Subsequently, the recent process of TMSes‐based supercapacitors and other multifunctional applications is summarized. This paper aims to provide the superiority of TMSes as electrode materials and their recent advances for energy devices, to promote the development of high‐performance TMSes electrode materials in the fields of energy storage.
Additive Manufacturing of Shape Memory Thermoset Composites with Directional Thermal Conductivity
Authors: Hong Yinglun , Azcune Itxaso , Rekondo Alaitz , Jiang Tianhui , Zhou Shitong , Lowe Tristan , Saiz Eduardo 
Published: November 2023

AbstractShape memory epoxy vitrimers and their composites are candidate materials for multiple engineering applications due to the commercial availability of their precursors combined with their functionality, mechanical properties, and recyclability. However, the manufacturing of vitrimer composites through conventional mould‐casting limits the flexibility in the design of complex parts. In this work feedstock inks are formulated based on reduced graphene oxide and hexagonal boron nitride (hBN) to 3D‐print epoxy vitrimer‐based composites by direct ink writing (DIW). The introduction of hBN platelets (up to 22 vol.%) and their alignment during printing enhances the fracture resistance of the material and induces directional thermal transport. The in‐plane thermal conductivities (3 W m−1 K−1) are nearly one order of magnitude higher than the matrix material. The high conductivity results in faster actuation times and can be combined with the printing process to build structures designed to manage heat flow.
Natural Polyphenolic Nanodots for Alzheimer's Disease Treatment
Authors: Yang Peng , Huang Qianqian , Zhang Jianhua , Li Yiwen , Gao Huile , Gu Zhipeng 
Published: November 2023

AbstractThe abnormal amyloid‐β accumulation is essential and obbligato in Alzheimer's disease pathogenesis and natural polyphenols exhibit great potential as amyloid aggregation inhibitors. However, the poor metabolic stability, low bioavailability, and weak blood–brain barrier crossing ability of natural polyphenol molecules fail to meet clinical needs. Here, a universal protocol to prepare natural polyphenolic nanodots is developed by heating in aqueous solution without unacceptable additives. The nanodots are able to not only inhibit amyloid‐β fibrillization and trigger the fibril disaggregation, but mitigate the amyloid‐β‐plaque‐induced cascade impairments including normalizing oxidative microenvironment, altering microglial polarization, and rescuing neuronal death and synaptic loss, which results in significant improvements in recognition and cognition deficits in transgenic mice. More importantly, natural polyphenolic nanodots possess stronger antiamyloidogenic performance compared with small molecule, as well as penetrate the blood–brain barrier. The excellent biocompatibility further guarantees the potential of natural polyphenolic nanodots for clinical applications. It is expected that natural polyphenolic nanodots provide an attractive paradigm to support the development of the therapeutics for Alzheimer's disease.
Rapid Synthesis of Trimetallic Nanozyme for Sustainable Cascaded Catalytic Therapy via Tumor Microenvironment Remodulation
Authors: Jia Xiuna , Wang, Jin , Wang Erkang 
Published: November 2023

AbstractTumor microenvironment (TME)‐responsive nanozyme‐catalyzed cancer therapy shows great potential due to its specificity and efficiency. However, breaking the self‐adaption of tumors and improving the sustainable remodeling TME ability remains a major challenge for developing novel nanozymes. Here, a rapid method is developed first to synthesize unprecedented trimetalic nanozyme (AuMnCu, AMC) with a targeting peptide (AMCc), which exhibits excellent peroxidase‐like, catalase‐like, and glucose oxidase‐like activities. The released Cu and Mn ions in TME consume endogenous H2O2 and produce O2, while the AMCccatalyzes glucose oxidation reaction to generate H2O2 and gluconic acid, which achieves the starvation therapy by depleting the energy and enhances the chemodynamic therapy effect by lowering the pH of the TME and producing extra H2O2. Meanwhile, the reactive oxygen species damage is amplified, as AMCc can constantly oxidize intracellular reductive glutathione through the cyclic valence alternation of Cu and Mn ions, and the generated Cu+ elevate the production of ·OH from H2O2. Further studies depict that the well‐designed AMCc exhibits the excellent photothermal performance and achieves TME‐responsive sustainable starvation/photothermal‐enhanced chemodynamic synergistic effects in vitro and in vivo. Overall, a promising approach is demonstrated here to design “all‐in‐one” nanozyme for theranostics by remodeling the TME.
Shortwave Infrared Organic Photodiodes Realized by Polaron Engineering
Authors: Lee Sangjun , Lee Juhyeok , Sim Hye Ryun , So Chan , Chung Dae Sung 
Published: November 2023

AbstractA novel approach for developing shortwave IR (SWIR) organic photodiodes (OPDs) using doped polymers is presented. SWIR OPDs are challenging to produce because of the limitations in extending the absorption of conjugated molecules and the high dark currents of SWIR‐absorbing materials. Herein, it is shown that the conversion of bound polarons to free polarons by light energy can be utilized as an SWIR photodetection mechanism. To maximize the bound‐polaron density and bound‐to‐free polaron ratio of the doped polymer film, the doping process is engineered and dopant molecules are diffused into the crystalline domain of the polymer matrix and a direct correlation between the bound‐to‐free polaron ratio and device performance is confirmed. The optimized double‐doped SWIR OPD exhibits a high external quantum efficiency of 77 100% and specific detectivity of 1.11 × 1011 Jones against SWIR. These findings demonstrate the application potential of polarons as alternatives for Frenkel excitons in SWIR OPDs.
Red Fluorescent Carbon Dots with Alkyl Chain Achieving Stable Electroluminescence via an In Situ Electric Excitation
Authors: Shen Jian , Zhang Tianyang , Shen Wan‐shan , Li Zenan , Yuan Weijie , Huang Hui , Liu Yang , Liao Liang‐sheng , Kang Zhenhui 
Published: November 2023

AbstractThe energy barrier between the highest occupied molecular orbital (HOMO) of the emission layer (EML) and the hole transport layer material (HTL) restricts the development of carbon dots (CDs) based light‐emitting diodes (LEDs). Here, the fabrication of red fluorescent CDs (RCDs) by a one‐step solvothermal method is reported. These RCDs have a photoluminescence quantum yield (PLQY) of 47.97% and a full width at half maximum (FWHM) of 26 nm. This study also shows the RCDs‐based LEDs fabrication with Poly(9,9‐dioctylfluorene‐co‐N‐(4‐butylphenyl) diphenylamine (TFB) as HTL. In normal case, these devices are not able to work due to the large interfacial energy barrier between RCDs and TFB. While, the RCDs‐LEDs can overcome through interfacial energy barriers and achieve stable carrier injecting by a simple in situ electric excitation at the current of 50 mA cm−2. This work provides a new strategy to overcome the obstacle of mismatch of interfacial energy levels in the LEDs by an in situ electric excitation.
Green‐Emitting Oxonitridoberyllosilicate Ba[BeSiON2]:Eu2+ for Wide Gamut Displays
Authors: Giftthaler Tobias , Strobel Philipp , Weiler Volker , Haffner Arthur , Neuer Andreas , Steinadler Jennifer , Bräuniger Thomas , Kloß Simon D. , Rudel Stefan , Schmidt Peter J. , Schnick Wolfgang 
Published: November 2023

AbstractLight‐emitting diodes (LEDs) producing pure, highly saturated colors are the industry standard for efficient backlighting of high‐color gamut displays. Vivid color reproduction, matching the eye's perception of nature, is the central paradigm in the design of narrow‐band emitting phosphors. To cover a wide range of naturally occurring color tones, expansion of the color gamut in the green spectral region, and therefore an advanced applicable green phosphor, is highly desired. Herein, the oxonitridoberyllosilicate Ba[BeSiON2]:Eu2+ showing outstanding narrow‐band green emission (λmax ≈526 nm with FWHM ≈1600 cm−1 (≈45 nm), x = 0.212, y = 0.715) when excited with InGaN‐based blue LEDs is presented. High quantum efficiency and low thermal quenching (>90% rel. quantum efficiency at 100 °C) as well as excellent scalability make the material suitable for industrial application in high color‐gamut LED displays. A prototype phosphor‐converted‐LED (pc‐LED), with green‐emitting Ba[BeSiON2]:Eu2+ and K2SiF6:Mn4+ as red phosphor shows an extraordinary coverage in the CIE 1931 color space of 109% compared to the DCI‐P3 standard, topping the widely applied β‐SiAlON:Eu2+ phosphor (104%), making it suitable for use in phone displays, monitors, and television screens.