bluuebunny/crossref_metadata_2025_split huggingface dataset:
Egg White Photocrosslinkable Hydrogels as Versatile Bioinks for Advanced Tissue Engineering Applications
Authors: Mahmoodi Mahboobeh , Darabi Mohammad Ali , Mohaghegh Neda , Erdem Ahmet , Ahari Amir , Abbasgholizadeh Reza , Tavafoghi Maryam , Mir Hashemian Paria , Hosseini Vahid , Iqbal Javed , Haghniaz Reihaneh , Montazerian Hossein , Jahangiry Jamileh , Nasrolahi Fatemeh , Mirjafari Arshia , Pagan Erik , Akbari Mohsen , Bae Hojae , John Johnson V. , Heidari Hossein , Khademhosseini Ali , Hassani Najafabadi Alireza 
Published: May 2024

AbstractThree dimensional (3D) bioprinting using photocrosslinkable hydrogels has gained considerable attention due to its versatility in various applications, including tissue engineering and drug delivery. Egg White (EW) is an organic biomaterial with excellent potential in tissue engineering. It provides abundant proteins, along with biocompatibility, bioactivity, adjustable mechanical properties, and intrinsic antiviral and antibacterial features. Here, a photocrosslinkable hydrogel derived from EW is developed through methacryloyl modification, resulting in Egg White methacryloyl (EWMA). Upon exposure to UV light, synthesized EWMA becomes crosslinked, creating hydrogels with remarkable bioactivity. These hydrogels offer adjustable mechanical and physical properties compatible with most current bioprinters. The EWMA hydrogels closely resemble the native extracellular matrix (ECM) due to cell‐binding and matrix metalloproteinase‐responsive motifs inherent in EW. In addition, EWMA promotes cell growth and proliferation in 3D cultures. It facilitates endothelialization when investigated with human umbilical vein endothelial cells (HUVECs), making it an attractive replacement for engineering hemocompatible vascular grafts and biomedical implants. In summary, the EWMA matrix enables the biofabrication of various living constructs. This breakthrough enhances the development of physiologically relevant 3D in vitro models and opens many opportunities in regenerative medicine.
Direct Z‐Scheme Xylan‐Based Carbon Dots@TiO2‐x Nanocomposites for Visible Light Driven Photocatalytic of Dye Degradation and Antibacterial
Authors: Cong Shurui , Cai Jihai , Li Xiaoyun , You Junqin , Wang Lei , Wang Xiaoying 
Published: May 2024

AbstractTiO2 photocatalysis has gained attention as a cost‐effective way of degrading contaminants. However, it relies on UV excitation and experiences rapid carrier recombination. To address these drawbacks, novel xylan‐based carbon dots@hydrogenated TiO2 (CDs@TiO2‐x) composited by direct Z‐scheme heterojunction is fabricated as a visible light‐driven photocatalytic material, which broadens the range of light absorption to visible light and suppresses the recombination of photogenerated carriers. The spindle‐shaped CDs@TiO2‐x has C/N/O/S groups, positive charges, and oxygen vacancies on its surface, and can degrade 89% of methylene blue and 87% of methyl orange within 90 min, and 99% of rhodamine B within 60 min in visible light. It also eradicates 99.9% of E. coli in 2 h and 97.1% of S. aureus in 2.5 h. These performances surpass CDs and TiO2‐x, and exhibit advantages in similar composite materials. The degradation pathways of dyes and the specific antibacterial processes induced by ROS are thoroughly investigated through LC‐MS testing and related enzyme activity assays. DFT calculations study the role of oxygen vacancies, heterojunction mechanism, and catalytic sites. This study has developed a novel nanocomposite with applications in both dye degradation and sterilization, offering insights for multifunctional materials based on photocatalysis and heterojunction.
Multiscale Porous Architecture Consisting of Graphene Aerogels and Metastructures Enabling Robust Thermal and Mechanical Functionalities of Phase Change Materials
Authors: Lee Joohyoung , Han Hyesu , Noh Dowon , Lee Jeongwoo , Lim Dahyun Daniel , Park Jinwoo , Gu Grace X. , Choi Wonjoon 
Published: May 2024

AbstractPassive thermal energy storage systems using phase change materials (PCMs) are promising for resolving temporal‐spatial overheating issues from small‐ to large‐scale platforms, yet their poor shape stability due to solid–liquid transition incurs PCM leakage and weak resistance against mechanical disturbance, limiting practical applications. While foam‐stable templates for PCMs have shown complement, they reveal massive leakage and collapse of liquefied PCMs under external loads or impacts. Herein, a multiscale porous architecture consisting of graphene aerogels (GAs) and meta structures enabling robust thermal‐mechanical functionalities of PCMs (3D‐MPGA) toward sustainable phase change thermal energy storage composites is reported. 3D‐printed mechanical metamaterials employing octet‐truss cells provide supportive strength and directionally‐assisted leakage reduction, while GAs serve as porous templates with surface‐interfacial contacts, thereby fixing paraffin wax as PCM inside their nano/micropores. The 3D‐MPGA shows intrinsic thermal characteristics of bulk PCMs, and improved thermal‐mechanical‐chemical stability, confirmed by long‐term heating‐cooling cycle tests over 10 h. Moreover, it exhibits highly reinforced strength (200–5000%) within a low density across ambient and melting temperatures, and maintains original shapes in the liquefied PCMs without severe leakage, against external loads. This work inspires rational strategies for advancing robust thermal‐mechanical functionalities for PCM‐based thermal energy storage systems.
On‐Chip Annealing Using Embedded Micro‐Heater for Highly Sensitive and Selective Gas Detection
Authors: Park Jinwoo , Shin Hunhee , Jung Gyuweon , Hong Seongbin , Park Min‐Kyu , Hwang Joon , Bae Jong‐Ho , Kim Jae‐Joon , Lee Jong‐Ho 
Published: May 2024

AbstractThe demand for gas sensing systems that enable fast and precise gas recognition is growing rapidly. However, substantial challenges arise from the complex fabrication process of sensor arrays, time‐consuming data transmission to an external processor, and high energy consumption in multi‐stage data processing. In this study, a gas sensing system using on‐chip annealing for fast and power‐efficient gas detection is proposed. By utilizing a micro‐heater embedded in the gas sensor, the sensing material of adjacent sensors in the same substrate can be easily varied without further fabrication steps. The response to oxidizing gas is constrained in metal oxide (MOX) sensing material with small grain sizes, as the depletion width of grain cannot extend beyond the grain size during the gas reaction. On the other hand, the response to reducing gases and humidity, which decrease the depletion width, is less affected by grain sizes. A readout circuit integrating a differential amplifier and dual FET‐type gas sensors effectively emphasizes the response to oxidizing gases by canceling the response to reducing gases and humidity. The selective on‐chip annealing method is applicable to various MOX sensing materials, demonstrating its potential for application in commercial fields due to its simplicity and expandability.
Self‐Healing Magnetic Field‐Assisted Threshold Switching Device Utilizing Dual Field‐Driven Filamentary Physics
Authors: Chu Daeyoung , Han Donghwan , Kang Sanghyun , Kim Gwon , Choi Yejoo , Jang Eungyo , Shin Changhwan 
Published: May 2024

AbstractAdvanced filamentary devices are crucial for developing low‐power devices to implement high‐speed logic and neuromorphic devices. Among these, HfO2‐based filamentary devices have attracted attention as viable options due to their threshold‐switching characteristics and compatibility with complementary metal‐oxide‐semiconductor (CMOS) technology. However, the unpredictability of conventional filament formation/rupture driven by an electric field challenges consistency and reliability. A paradigm shift from conventional stochastic electric field‐driven ion migration to controllable ion‐based transportation is essential to devise functional low‐power devices capable of controlling the filament process. This work introduces a magnetic field‐assisted threshold switching (MA‐TS) device, which integrates a neodymium magnet and a nickel (Ni) barrier layer to enable controlled dual field‐driven ion transportation. The dual field‐driven process combining the conventional vertical electric field‐driven ion migration with lateral magnetic field‐driven ion transportation, reveals a distinctive aspect of ion movement. The MA‐TS device achieves superior performances characterized by an ultra‐low threshold voltage (≈0 V), minimized leakage current in the off‐state, a variation‐immune hysteresis‐free characteristic, enhanced yield, and revival‐ability (i.e., self‐healing) after a failed TS operation. By overcoming the limitations of conventional filamentary devices, the MA‐TS device opens up a promising avenue for efficient and stable low‐power applications.
An Alkyne‐Bridged Covalent Organic Framework Featuring Interactive Pockets for Bromine Capture
Authors: De Ankita , Haldar Sattwick , Schmidt Johannes , Amirjalayer Saeed , Reichmayr Fanny , Lopatik Nikolaj , Shupletsov Leonid , Brunner Eike , Weidinger Inez M. , Schneemann Andreas 
Published: May 2024

AbstractThe high degree of corrosivity and reactivity of bromine, which is released from various sources, poses a serious threat to the environment. Moreover, its coexistence with iodine forming an equilibrium compound, iodine monobromide (IBr) necessitates the selective capture of bromine from halogen mixtures. The electrophilicity of halogens to π‐electron rich structures enabled us to strategically design a covalent organic framework for halogen capture, featuring a defined pore environment with localized sorption sites. The higher capture capacity of bromine (4.6 g g−1) over iodine by ~41 % shows its potential in selective capture. Spectroscopic results uncovering the preferential interaction sites are supported by theoretical investigations. The alkyne bridge is a core functionality promoting the selectivity in capture by synergistic physisorption, rationalized by the higher orbital overlap of bromine due to its smaller atomic size as well as reversible chemical interactions. The slip stacking in the structure has further promoted this phenomenon by creating clusters of molecular interaction sites with bromine intercalated between the layers. The inclusion of unsaturated moieties, i.e. triple bonds and the complementary pore geometry offer a promising design strategy for the construction of porous materials for halogen capture.
Stepwise Protonation of Three‐Dimensional Covalent Organic Frameworks for Enhancing Hydrogen Peroxide Photosynthesis
Authors: Dong Pengfei , Xu Xinyu , Wu Taikang , Luo Rengan , Kong Weisu , Xu Zhiyuan , Yuan Shuai , Zhou Jun , Lei Jianping 
Published: May 2024

AbstractThree‐dimensional covalent organic frameworks (3D COFs), recognized for their tailorable structures and accessible active sites, offer a promising platform for developing advanced photocatalysts. However, the difficulty in the synthesis and functionalization of 3D COFs hinders their further development. In this study, we present a series of 3D‐bcu‐COFs with 8 connected porphyrin units linked by linear linkers through imine bonds as a versatile platform for photocatalyst design. The photoresponse of 3D‐bcu‐COFs was initially modulated by functionalizing linear linkers with benzo‐thiadiazole or benzo‐selenadiazole groups. Furthermore, taking advantage of the well‐exposed porphyrin and imine sites in 3D‐bcu‐COFs, their photocatalytic activity was optimized by stepwise protonation of imine bonds and porphyrin centers. The dual protonated COF with benzo‐selenadiazole groups exhibited enhanced charge separation, leading to an increased photocatalytic H2O2 production under visible light. This enhancement demonstrates the combined benefits of linker functionalization and stepwise protonation on photocatalytic efficiency.
A ternary composite hydrophilic electrospinning membrane containing Au for fast oil–water separation and antibiotics degradation
Authors: Qi Ningxuan , Gao Mingyuan , Xu Tong , Li Chunping , Bai Jie 
Published: May 2024

AbstractWater pollution from industrial wastewater and oil spills, which threat marine lives and mankind continually have turned into one of the most severe challenges in worldwide due to the fast development of global industrialization and human activities. Various water‐treatment methods have been developed to solve the problems. However, these processes are often complicated and costly, making them fail to address the complicate water environment. Herein, a visible light‐responsive Au‐BiOCl/TiO2/PAN composite membrane with hydrophilic surface was prepared by combing electrospinning with solvothermal method. The composite membranes can efficiently separate emulsions with the highest flux of 50.16 L m−2 h−1 and oil/water mixtures (the highest flux was 4777.07 L m−2 h−1 bar−1). Moreover, the membranes can rapidly degrade antibiotics with an excellent degradation rate (95.70% in 60 min) under the visible light. Additionally, they can simultaneously degrade organic dye and separate oil/water emulsions under a gravity condition. It is expected that composite membranes will be an attractive candidate for complex wastewater treatment.
Machine learning investigation of polylactic acid bead foam extrusion
Authors: Shah Karim Ali , Brütting Christian , Albuquerque Rodrigo Q. , Ruckdäschel Holger 
Published: May 2024

AbstractThis study employs machine learning algorithms to analyze the bead foam extrusion process and to assess the impact of processing parameters, specifically focusing on their effects on bead foam density and melt pressure in under water granulation (UWG) for polylactic acid (PLA). These interrelated parameters, influenced by processing parameters such as temperature, screw speed, and blowing agent, possess challenges for traditional empirical methods to capture. The key factors that significantly impact the prediction of melt pressure in UWG are blowing agent, injector pressure, temperature in B‐extruder and die size. Likewise, essential parameters for predicting bead foam density comprise blowing agent, injector pressure, temperature in B‐extruder, die plate temperature, melt temperature in B‐extruder, and melt pressure in B‐extruder. Machine learning (ML) models were employed to forecast bead foam density and melt pressure in UWG using various processing parameters in PLA bead foam extrusion. The random forest model achieved a high coefficient of determination score of 0.96 for predicting melt pressure in UWG. Additionally, the decision tree model demonstrated effective predictions for bead density, with the score: 0.81. These ML models can be applied to diverse materials, leading to more sustainable, efficient processes for bead foam extrusion.
Investigating the effect of electromagnetic field and Eucalyptus oil Citriodora on polymorphism of PVDF film
Authors: Doaei Marjan , Mousavi Seyed Mahmoud , Saljoughi Ehsan , Karkhanechi Hamed 
Published: May 2024

AbstractPolyvinylidene fluoride (PVDF) films were prepared for evaluating the effect of electromagnetic field and Eucalyptus oil Citriodora as an additive on the polymorphism. The values of PVDF crystalline phases were determined by attenuated total reflection‐Fourier transform infrared spectroscopy. Differential scanning calorimetry was performed to achieve the crystallinity degree of the PVDF films. To evaluate the impact of the electromagnetic field on the PVDF crystalline phases, the polymeric solution was placed in 1 tesla electromagnetic field for different times. The proper time for dominating the β phase was determined 10 min. Additionally, the sum of β and γ phases percentages augmented from 28.8 for the sample without the additive of Eucalyptus oil Citriodora to 65.2 for the sample containing 8% additive.
Ameliorating carbon capture efficiency of polysulfone membranes via collegial incorporation of zeolite imidazole frameworks and carbon nanotubes
Authors: Sarfraz Muhammad , Alomar Muneerah , Ma Xiaohua , Riaz Aqib 
Published: May 2024

AbstractContinuously exacerbating situation of global warming can be effectively mitigated by controlling carbon emissions from combustion processes through economically attractive membrane technology. Carbon capture efficiency of prospective membranes can be significantly improved via synergistically incorporating CO2‐selective ZIF‐300 nanoparticles and carbon nanotubes (CNTs) into polysulfone (PSF) matrix. Solution‐casting coupled with phase‐inversion processes were employed to concoct hybrid membranes containing varying loadings of both nanofillers. Manufactured composite membranes showed improved matrix structure, uniform nanofillers scattering, enhanced thermal resistance, and ameliorated nanofillers‐polysulfone interfacial adhesion as evidenced by morphological and thermal analysis. Both sorption and permeation measurements for CO2 and N2 gases performed on created membranes indicated upgraded CO2 permeability and CO2/N2 permselectivity on account of collegial impact of added nanofillers. In contrast to pristine polysulfone membrane rendering CO2 intake of 4.1 and CO2/N2 sorption selectivity of 12, hybrid membrane containing 15% ZIF‐300 and 3% CNTs uplifted corresponding values to 12 and 22, respectively. As compared to unadulterated polysulfone membrane, CO2 permeability and CO2/N2 permselectivity of hybrid membrane doped with optimized nanofillers loading of were, respectively, elevated by five‐ and three‐folds. Unique features of manufactured membranes can best be manifested in terms of their ability to maintain gas separation performance from post‐combustion effluents.
Emergence of a Hidden Magnetic Phase in LaFe11.8Si1.2 Investigated by Inelastic Neutron Scattering as a Function of Magnetic Field and Temperature
Authors: Morrison Kelly , Betouras Joseph J. , Venkat Guru , Ewings Russell A. , Caruana Andrew J. , Skokov Konstantin P. , Gutfleisch Oliver , Cohen Lesley F. 
Published: May 2024

AbstractThe NaZn13 type itinerant magnet LaFe13−xSix has seen considerable interest due to its unique combination of large magnetocaloric effect and low hysteresis. Here, this alloy with a combination of magnetometry, bespoke microcalorimetry, and inelastic neutron scattering is investigated. Inelastic neutron scattering reveals the presence of broad quasielastic scattering that persists across the magnetic transition, which is attributed to spin fluctuations. In addition, a quasielastic peak is observed at Q = 0.52 Å−1 for x = 1.2 that exists only in the paramagnetic state in proximity to the itinerant metamagnetic transition and argue that this indicates emergence of a hidden mag the netic phase that drives the first‐order phase transition in this system.
Observation of Hydrostatic‐Pressure‐Modulated Giant Caloric Effect and Electronic Topological Transition
Authors: Yang Jinying , Liu Xingchen , Wang Yibo , Zhang Shen , Liu Yang , Dong Xuebin , Feng Yiting , Ren Qiusa , He Ping , Lyu Meng , Wang Binbin , Wang Shouguo , Wu Guangheng , Zhang Xixiang , Liu Enke 
Published: May 2024

AbstractPhase transition is a fundamental phenomenon in condensed matter physics, in which states of matter transform to each other with various critical behaviors under different conditions. The magnetic martensitic transformation features significant multi‐caloric effects that benefit the solid‐state cooling or heat pumping. Meanwhile, the electronic topological transition (ETT) driven by pressure has been rarely reported in martensitic systems. Here, the modulation effects of hydrostatic pressure on phase transitions in a magnetic martensitic alloy are reported. Owing to the huge volume expansion during the transition, the martensitic transition temperature is driven from 339 to 273 K by pressure within 1 GPa, resulting in highly tunable giant baro‐ and magneto‐caloric effects (BCE and MCE) in a wide working temperature range. Interestingly, an ETT is further induced by pressure in the martensite phase, with a sudden drop of the measured saturation magnetization around 0.6 GPa. First‐principles calculations reveal a sharp change in the density of states (DOS) due to the orbit shift around the Fermi level at the same pressure and reproduce the experimental observation of magnetization. Besides, the ETT is accompanied by remarkable changes in the lattice parameters and the unit‐cell orthorhombicity. The study provides insight into pressure‐modulated exotic phase‐transition phenomena in magnetic martensitic systems.
Weaving feathers of intangible and tangible knowledge: Historical records and human‐bird interactions in the Marquesas Islands
Authors: Pillay Patricia 
Published: May 2024

AbstractBirds fulfilled an essential role in ancient Polynesian cultures. They were prized for their bones and colourful feathers, fat, and protein; their cultural importance is further highlighted in Polynesian oral histories. This research investigates the dynamics of human‐bird interactions over time in the Marquesas Archipelago as known from archaeology, oral histories, ethnohistorical records, and museum collections. I analyse the range of avian taxa represented across the various datasets and their cultural uses. The results demonstrate that while some species are represented across one or more datasets, understanding the full extent of species’ cultural roles and use requires more than one thread of analysis, particularly for those taxa with limited or no archaeological signature. Two forms of managed resource use emerge from this study. One is tapu (prohibition of use), and the second is the conservative use of birds as a resource such as restricted feather collecting. Red feathers, represented in museum objects and historical accounts, highlight multiple taxa being used for specific adornment types. The combined analyses provide insights into the loss and persistence of species, as well as aspects of Marquesan cultural management.
From genetic mosaicism to tumorigenesis through indirect genetic effects
Authors: Capp Jean‐Pascal , Catania Francesco , Thomas Frédéric 
Published: May 2024

AbstractGenetic mosaicism has long been linked to aging, and several hypotheses have been proposed to explain the potential connections between mosaicism and susceptibility to cancer. It has been proposed that mosaicism may disrupt tissue homeostasis by affecting intercellular communications and releasing microenvironmental constraints within tissues. The underlying mechanisms driving these tissue‐level influences remain unidentified, however. Here, we present an evolutionary perspective on the interplay between mosaicism and cancer, suggesting that the tissue‐level impacts of genetic mosaicism can be attributed to Indirect Genetic Effects (IGEs). IGEs can increase the level of cellular stochasticity and phenotypic instability among adjacent cells, thereby elevating the risk of cancer development within the tissue. Moreover, as cells experience phenotypic changes in response to challenging microenvironmental conditions, these changes can initiate a cascade of nongenetic alterations, referred to as Indirect non‐Genetic Effects (InGEs), which in turn catalyze IGEs among surrounding cells. We argue that incorporating both InGEs and IGEs into our understanding of the process of oncogenic transformation could trigger a major paradigm shift in cancer research with far‐reaching implications for practical applications.