bluuebunny/crossref_metadata_2025_split huggingface dataset:
Teaching biomedical terminology using binary texts: linguocognitive and translation aspects
Authors: Latishev Kirill Igorevich 
Published: February 2025

The purpose of the study is to form language competence as one of the main factors of professional growth of a future specialist. In particular, the research is based on the terminology of the field of biomedical engineering. Therefore, they need to be organized in order to simplify the definition process, to effectively highlight specific meanings and their translations, which in turn will allow scientists to explore certain phenomena and concepts with extraordinary accuracy. The article examines the peculiarities of cognitive and translational aspects of studying English and Russian terminology of biomedical engineering. It is noted that the specialized language of such an interdisciplinary field as biomedical engineering contains concepts that concentrate specific knowledge of technical, medical and topically scientific experience. In cognitive linguistics, concepts are considered in connection with the background knowledge. The specialized language of biomedical engineering is presented as a cognitive-communicative organization of concepts, notions and related terms in such highly specialized fields as bioinstrumentation, biomedical cybernetics, biomechanics, system physiology, rehabilitation engineering, diagnosis of diseases and disorders, etc. Translators should always take into account the following context criteria in the translation process: linguistic context, situational context and cognitive context. Based on the comparative analysis of binary texts – texts of the same genre and issue – the concept “sleep disturbance” is considered as a certain matrix of the terminological base of the concepts of the specified issue and basis for compiling highly specialized thematic mini-dictionaries. We must find as many unifying characteristics as possible, organizing the terms into conceptually similar groups, linking them with certain research methods, etc.
Unboxing Japanese Videogames
Authors: Roth Martin 
Published: February 2025

A new perspective on the spatial complexity and plurality of Japanese videogames.
Unboxing Japanese Videogames uncovers the complex and plural spatialities of commercial videogames published in Japan between 1985 and 2015. Rejecting the “boxing” inherent in the phrase “Japanese videogames,” Martin Roth explores a series of spatialities that unfold in videogame production and distribution. The book develops a notion of spatialization that is applied in the analysis of contents or genre distributions in Japan, the US, the UK, Germany, and France, the distribution of videogame works across different important markets, the geography of actors involved in videogame production and their gradual spatialization over time, and the functional spatialization of game production across a diverse range of platforms.
This book is the first English-language study to provide an overview of the subject and also the first to explore the spatial history of FromSoftware games. It stands out because it does so quantitatively, offering a macro-perspective on the field of commercial videogames instead of relying on sales statistics or case studies. In addition to a wide range of related scholarship in English, the book engages actively with scholarship and other relevant resources in Japanese. Over thirty visualizations make the findings of the book tangible and invite the reader to explore the spatial complexity of commercial videogames further.
Comparison of force-time characteristics of prone cervicothoracic spinal manipulative therapy between chiropractic interns and chiropractors: A cross-sectional study
Authors: Perron François , Funabashi Martha , Gauthier Jean-Luc , Pagé Isabelle 
Published: February 2025

ABSTRACT

Objective
Although the force-time characteristics of spinal manipulative therapy (SMT) have been extensively studied, evidence on the maturation of SMT delivered to the cervicothoracic junction is scarce. The aim of this study is to compare the force-time characteristics of a cervicothoracic SMT technique between experienced chiropractors and chiropractic interns.

Methods
Participants performed a total of 18 posterior-to-anterior cervicothoracic SMT on a human-shaped manikin, fixed to an instrumented treatment table. Participants were instructed to execute the technique, contacting either the right or the left side of the manikin, at 3 different levels of force: low, typical, and high. Three-level analysis of variance was used to assess the effect of group (experienced chiropractors or interns), force level, and contact side on force-time characteristics. Variability of these characteristics among participants was also evaluated.

Results
No statistically significant differences were observed in any of the force-time characteristics between chiropractic interns (n = 15) and experienced chiropractors (n = 10), nor on the contact side used to perform the SMT (p &gt; .05). Significant effects on force level were noted for all force-time characteristics (p &lt; .05), except for impulse duration (p &gt; .05). The interns displayed more variability than experienced chiropractors for the force at thrust initiation only (p = .02).

Conclusion
This study shows that both chiropractic interns and experienced clinicians deliver SMT to the cervicothoracic junction with similar force-time characteristics. However, final-year students exhibited greater variability in controlling their force just before initiating the thrust, indicating that some aspects of their motor skill may still be developing.
Bioengineered Versatile Heterojunctions as Stress Busters Targeting Matrix Degradation and Ferroptosis for Osteoarthritis Therapy
Authors: Zhang Zhao , Cheng Debin , Liu Dong , Dang Jingyi , Wang Xiaohe , Wu Hong , Fan Hongbin 
Published: January 2025

AbstractOsteoarthritis (OA) is a chronic joint disease characterized by degeneration of articular cartilage, with the underlying mechanism being the inability of chondrocytes to maintain homeostasis in response to the changing stress. The stress response triggered by excess ROS from various factors is critical in regulating chondrocyte survival and fate. In this study, 2D Mo4/3B2‐X MBene and cerium‐gallic acid metal‐polyphenol network (MPN) together with cartilage‐targeted shell of hyaluronic acid and WYRGRL (HW) are utilized to development bio‐heterojunction MBene@MPN‐HW (MBM‐HW) through self‐assembly. The bio‐heterojunction MBM‐HW not only demonstrates superoxide dismutase (SOD), catalase (CAT), and glutathione peroxidase (GPx) enzyme mimicking capabilities to effectively scavenge excess ROS, but also exhibits dual‐responsive release and cartilage‐targeting properties. Importantly, both in vivo and in vitro experiments indicate that MBM‐HW could alleviate chondrocyte oxidative stress, protect mitochondrial function, suppress cartilage matrix degeneration and ferroptosis, thereby slowing the progression of OA. Mechanistically, it is demonstrated that MBM‐HW could attenuate Perk/eIF2α cascade mediated integrated stress response to effectively restrain matrix degeneration and ferroptosis, thereby maintaining chondrocyte homeostasis. Overall, this work underscores the robust stress‐relieving capacity of bio‐heterojunction MBM‐HW, providing a novel approach for the treatment of OA.
Atmospheric Pressure Dried Discontinuous Pore Gradient Structured CNF‐Based Aerogel for Ultra‐Low Reflection, Broadband, and Super‐High EMI Shielding
Authors: Mao Yunshan , Sheng Yuhao , Fan Zheyu , Yang Jing , Liu Jian , Tang Chunxia , Fu Shaohai 
Published: January 2025

AbstractLarge scale production of aerogels with ultra‐low reflection coefficients for electromagnetic interference (EMI) shielding remains a significant challenge. This work reports a gradient and large area composite nanocellulose fiber aerogel (CNA) with discontinuous pores structures using ice crystal dissolution/regeneration and atmospheric pressure drying strategies. The CNA consisting of three layers of ordered‐ordered‐disordered pore orientation achieved ultra‐high EMI shielding efficiency (>90 dB) across ultra‐broad electromagnetic wave (EMW) bands (L, S, C, X, Ku‐band) and exhibited ultra‐low reflection coefficient (R ≈ 0.20). Simulation results confirmed that the average pore sizes of layers 1 and 2 should be 120 and 40 µm for achieving excellent EMW transmission and absorption, respectively. The disordered pore structure of layer 3 with an average size of less than 345 µm showed significant characteristics in reflecting EMW and is unaffected by the material dielectric properties. Furthermore, the CNA demonstrated great potential in selective recovery of ethanol waste produced from the aerogel preparation process. It showed an evaporation rate of 3.3 Kg m−2 h at 1.0 sun and yielded a concentration of up to 96.1% in a natural environment. This study provides new insights and approaches for the pore structure design of aerogels in EMI shielding.
CO2 Chemical Trap and Electronegative Microenvironment Enable Metal–Organic Framework with One‐Step Ethylene Purification from Quaternary Mixture
Authors: Zheng Mingze , Fang Zhi , Xue Wenjuan , Yan Tongan , Huang Hongliang , Zhong Chongli 
Published: January 2025

AbstractOne‐step purification of C2H4 from a four‐component CO2/C2H6/C2H2/C2H4 mixture with a single adsorbent is of great significance but very challenging. Herein a feasible and general strategy is reported for constructing chemical traps in MOF featuring an electronegative microenvironment in the pore wall for one‐step purification of C2H4 from the four‐component mixture. The enzyme‐mimicking Zn‐OH sites in CFA‐Zn‐OH, acting as a CO2 chemical trap, can efficiently fix CO2 while the electronegative pore wall in MOF ensures the preferential adsorption of C2H2 and C2H6 impurities, thus leading to the one‐step purification of C2H4 from a four‐component mixture. Mechanism studies reveal that the Zn‐OH sites in CFA‐Zn‐OH can chemically fix CO2 impurity in a reversible manner to form bicarbonate Zn‐HCO3, mimicking the carbonic anhydrase. In addition, the negative electrostatic potential of the pore wall allows CFA‐Zn‐OH to preferentially capture C2H2, and C2H6 impurities, thus ensuring one‐step C2H4 purification from the four‐component mixture. Column breakthrough experiments validated its ability for one‐step C2H4 purification on from the four‐component mixture and C2H4 with a purity of 99.9% can be directly harvested.
Mitochondria‐targeting Bimetallic Cluster Nanozymes Alleviate Neuropathic Pain Through Scavenging ROS and Reducing Inflammation
Authors: Cheng Xiaolei , Xia Tianjiao , Han Min , Xu Minhui , Yuan Weining , Wei Ziqi , Jiang Wei , Tang Hao , Bai Qian , Gu Xiaoping 
Published: January 2025

AbstractNeuropathic pain is a significant public health concern. Inflammatory mediators and reactive oxygen species (ROS) are recognized as primary contributors to pain perception. In this study, a mitochondria‐targeted modification of bimetallic cluster nanozyme (TPP‐Au‐Ru) is developed. This TPP‐Au‐Ru nanozyme exhibits a high affinity for the mitochondrial matrix, effectively scavenging ROS and attenuating inflammatory mediators in both in vitro and in vivo settings. Additionally, the nanozyme inhibits the activation of the MAPK and NF‐κB signaling cascades and protect mitochondrial function. Furthermore, a therapeutic dose of the TPP‐Au‐Ru nanozyme is able to alleviate nociceptive symptoms for up to 36 h with minimal biological toxicity. Therefore, the sustained mitochondrial delivery of TPP‐Au‐Ru nanozyme provides an effective and long‐lasting approach to neuropathic pain. This innovative approach shows promise for the development of more efficient therapeutic interventions, potentially revolutionizing the management of neuropathic pain and enhancing the quality of life for affected individuals.
From Printed Devices to Vertically Stacked, 3D Flexible Hybrid Systems
Authors: Liu Fengyuan , Christou Adamos , Dahiya Abhishek Singh , Dahiya Ravinder 
Published: January 2025

AbstractThe pursuit of miniaturized Si electronics has revolutionized computing and communication. During recent years, the value addition in electronics has also been achieved through printing, flexible and stretchable electronics form factors, and integration over areas larger than wafer size. Unlike Si semiconductor manufacturing which takes months from tape‐out to wafer production, printed electronics offers greater flexibility and fast‐prototyping capabilities with lesser resources and waste generation. While significant advances have been made with various types of printed sensors and other passive devices, printed circuits still lag behind Si‐based electronics in terms of performance, integration density, and functionality. In this regard, recent advances using high‐resolution printing coupled with the use of high mobility materials and device engineering, for both in‐plane and out‐of‐plane integration, raise hopes. This paper focuses on the progress in printed electronics, highlighting emerging printing technologies and related aspects such as resource efficiency, environmental impact, integration scale, and the novel functionalities enabled by vertical integration of printed electronics. By highlighting these advances, this paper intends to reveal the future promise of printed electronics as a sustainable and resource‐efficient route for realizing high‐performance integrated circuits and systems.
Self‐Adaptive Polarized Photoresponse in Organic Single‐Crystal Phototransistors for Bionic Night‐Time Polarization Perception
Authors: Pan Jing , Chen Shuai , Chen Shuang , Wang Jinwen , Su Mingming , Jia Ruofei , Jie Jiansheng , Zhang Xiujuan 
Published: January 2025

AbstractThe emerging semiconductor micro/nanocrystals with intrinsic anisotropy have provided new perspectives for low‐cost and simplified polarimetry. However, the low polarization sensitivity of state‐of‐the‐art polarimeters based on anisotropic semiconductors under weak and partially polarized light severely hinders their practical application in complex dim environments. Here, a photo‐adaptive polarization‐sensitive organic phototransistor (POL‐OPT) is demonstrated for bionic weak‐light polarization perception. The combination of highly anisotropic organic crystals with charge‐storage accumulative effect enables a self‐adaptive polarized photoresponse of the phototransistor to imitate the bionic scotopic adaptation process. Consequently, an ultrahigh dichroic ratio (DR) of over 105 is achieved through time accumulation under an ultraweak light intensity of 200 nW cm−2, which is among the highest in polarization‐sensitive photodetectors. Furthermore, POL‐OPT array is constructed for effective polarization perception in an artificial moonlit environment with a low degree of linear polarization (DoLP) down to 0.26, reaching the detection threshold of night‐active dung beetles. This study offers a new opportunity for the development of new‐generation high‐performance polarimeters for polarization imaging, bionic navigation, and artificial visual systems.
Colloidal Quantum‐Dot Heterojunction Imagers for Room‐Temperature Thermal Imaging
Authors: Mu Ge , Zheng Xiaolong , Tan Yimei , Liu Yanfei , Hao Qun , Weng Kangkang , Tang Xin 
Published: January 2025

AbstractRoom‐temperature operation or high‐operation temperature (HOT) is essential for mid‐wave infrared (MWIR) optoelectronics devices providing low‐cost and compact systems for numerous applications. Colloidal quantum dots (CQDs) have emerged as a rising candidate to enable photodetectors to operate at HOT or room temperature and develop the next‐generation infrared focal plane array (FPA) imagers. Here, band‐engineered heterojunctions are demonstrated to suppress dark current with well‐passivated mercury telluride (HgTe) CQDs enabling room‐temperature MWIR imaging by single‐pixel scanning and 640 × 512 FPA sensitive thermal imaging above 250 K. As a result, the room‐temperature detectivity reaches as high as 1.26 × 1010 Jones, and the noise equivalent temperature difference (NETD) is as good as 25 mK up to 200 K.
Constructing Pillar‐Layered Covalent Organic Frameworks via Metal–Ligand Coordination for Electrochemical CO2 Reduction
Authors: Yang Tianfu , Hu Hongyin , Wang Yan , Chen Xinqi , Fan Jianxian , Li Donghua , Liu Shuangbin , Li Jinmei , He Tianwei , Lu Shuanglong , Qiu Li 
Published: January 2025

AbstractGrowing global concerns over energy security and climate change have intensified efforts to develop sustainable strategies for electrochemical CO2 reduction (eCO2RR). Covalent Organic Frameworks (COFs) have emerged as promising electrocatalysts for eCO2RR due to their tunable structures, high surface areas, and abundance of active sites. However, the performance of 2D COFs is often limited by layer stacking, which restricts active site exposure and reduces selectivity. To overcome these challenges, a new class of COFs known as pillar‐layered COFs (PL‐COFs) is developed featuring adjustable interlayer spacing and a 3D architecture. Characterization using PXRD, TEM, XPS, and EIS confirmed the successful integration of pillar molecules, which leads to increased interlayer spacing, crystallinity, and porosity. These structural advancements result in significantly improved electrochemical activity and selectivity for CO2‐to‐CO conversion. Density functional theory simulations revealed that enhanced CO2 adsorption and CO desorption contribute to the outstanding performance of PL‐COF‐1, which boasts the largest interlayer spacing. This material achieved an impressive Faradaic efficiency of 91.3% and demonstrated a significant current density, outperforming both the original COF‐366‐Co and PL‐COF‐2. These findings highlight the effectiveness of the pillaring strategy in optimizing COF‐based electrocatalysts, paving the way for next‐generation materials for CO2 reduction and sustainable energy conversion.
Self‐Powered Polarization‐Sensitive 3D Photodetector with Fast Response Enabled by Mechanically‐Guided Assembly of Tubular MoS2/GaAs/InGaAs Heterostructure
Authors: Shen Mingyang , Wang Qi , Liu Hao , Ye Han , Yuan Xueguang , Zhang Yangan , Wei Bo , He Xue , Liu Kai , Cai Shiwei , Huang Yongqing , Ren Xiaomin 
Published: January 2025

Abstract3D photodetectors (3dPDs) fabricated by mechanically‐guided assembly have garnered significant attention for their unique structures and photodetection capabilities. However, 3dPDs constructed with heterostructures still face major challenges and have yet to demonstrate self‐powered polarization‐sensitive photodetection, owing to the extreme difficulties in 3D assembly of heterostructures and the fabrication of perfectly‐matched electrodes. In this study, self‐powered polarization‐sensitive 3dPDs based on heterostructures have been demonstrated for the first time through the controllable rolling assembly and crafted electrode design of tubular MoS2/GaAs/InGaAs heterostructure. A dichroic ratio of 1.39 is measured under 650 nm wide‐angle omnidirectional incident light, and the underlying polarization mechanism is clearly elucidated through comparative experiments and simulations, primarily attributed to the uniaxially‐strained MoS2 in the self‐rolled‐up heterostructure. Benefiting from the built‐in electric field offered by the heterostructure, the as‐fabricated self‐powered 3dPD demonstrates a fast response time (τr/τf) of 710/700 µs, which is nearly two orders faster than the self‐powered polarization‐sensitive tubular 3dPD based on homostructures, meanwhile achieving a responsivity of 86 mA W−1. Significantly‐improved polarization‐sensitive photodetection performance of heterostructure‐based self‐powered 3dPDs can be expected via introducing functionalized 2D materials and semiconductors, thus making tubular 3dPDs great application prospects in low‐power consumption, fast recognition, and target tracking.
Near‐Infrared Organic Ultralong Room‐Temperature Phosphorescence Materials Constructed via Multiple Phosphorescence Resonance Energy Transfer
Authors: Yu Longyue , Feng Ning , Fu Wenwen , Huang Xionghui , Li Xin , Xin Xia , Hao Jingcheng , Li Hongguang 
Published: January 2025

AbstractOrganic ultralong room‐temperature phosphorescence (OURTP) materials with white and near‐infrared (NIR) emission have unparalleled advantages in information encryption, bio‐imaging, and materials science. However, limited by the energy gap law, the NIR OURTP materials (exceeding 700 nm) are very rare, furthermore, these materials typically exhibit very brief phosphorescence lifetimes. Therefore, there is an urgent need to find methods to achieve NIR afterglow emission with ultralong lifetimes from organic chromophores. Here, a universal strategy has been proposed to endow polymeric afterglow materials with wide color, ultralong lifetimes, and persistent NIR emission based on multiple sequential phosphorescence resonance energy transfer (P‐FRET). The poly(acrylamide‐co‐N‐vinylcarbazole) (PAMCz) with blue‐emission OURTP act as the energy donor while traditional highly fluorescent dyes (BODIPY derivatives, rhodamine b (RhB) and sulfo‐cyanine5 (Cy5)) with green/red/NIR fluorescence act as the energy acceptor. Significantly, the multi‐pathway sequential P‐FRET shows distinct advantages over single‐path sequential PRET, including higher antennae effect (AE), a broader spectrum of color‐tunability facilitated by the intermediary acceptor, and improved phosphorescence intensity and lifetimes of the terminal acceptor. By simply regulating the doping composition and concentration of these acceptors, a perfect white‐emission with CIE coordinate (0.336, 0.330) and persistent NIR‐emission with 2.7 s phosphorescence lifetimes are successfully realized.
Accelerating Discovery of Infrared Nonlinear Optical Materials with High Lattice Thermal Conductivity: Combining Machine Learning and First‐Principles Calculations
Authors: Liu Qingyu , An Ran , Li Chenxu , Chu Dongdong , Zhao Wang , Pan Shilie , Yang Zhihua 
Published: January 2025

AbstractThe exploration of mid/far‐infrared (mid/far‐IR) nonlinear optical (NLO) materials with high lattice thermal conductivity (LTC) is urgent in advancing laser technology, as LTC enhances resistance to high laser‐induced damage. To address the issue of the existing methods being time‐consuming when measuring LTC, this study employed machine learning (ML) methods to efficiently predict кL based on a high‐quality dataset. Seven ML models are trained, and the most optimal model is selected for identifying promising NLO materials with high LTC (кL > 1.0 W m−1 K−1). The application of the model to predict the LTC led to the discovery of LiZnGaSe3 and BeAl2Se4 as potential chalcogenide candidates from the NLO materials database. The integration of ML methods with first‐principles calculations confirmed the mechanical properties and high LTC of LiZnGaSe3 and BeAl2Se4. The chemical heatmaps of chalcogenides with high LTC are recommended. This approach facilitates the rapid screening and discovery of promising mid/far‐IR NLO materials with balanced properties and complements the кL data in the NLO materials database as an additional screening parameter for material properties.
Noble Metal Coating on Perovskite Microcrystals for Robust and Plasmonic Lasing Applications
Authors: Cho Sangyeon , Yan Hao , Yun Seok Hyun 
Published: January 2025

AbstractLead halide perovskites (LHP) are solution‐processable semiconductor materials with high optical gain and broad wavelength tunability, making them well‐suited for laser applications. Here, a solution‐based method for the 3D conformal coating of LHP microcrystals with noble metals is presented. A nanoscale metal coating layer is found to significantly enhance both laser performance and environmental stability. This enables gold‐coated CsPbBr3 microcrystals to be delivered into live cells, achieving single‐mode plasmonic lasing under optical pumping. Silver‐coated CsPbBr3 particles demonstrate stable plasmonic lasing in the air. This one‐pot synthesis method opens new possibilities for leveraging LHPs to implant micro‐laser sources into physical, biological, and industrial systems.