bluuebunny/crossref_metadata_2025_split huggingface dataset:
Innovations in Fishing and Fish Processing Technologies (Co-Published With Crc Press,Uk)
Authors: Mohanthy Kumar Amulya 
Published: April 2023

The present book “Innovations in Fisheries and Fish Processing Technologies” covers the entire gamut of topics in the field of fishing technology. The book starts with, history, genetic resources m information on mariculture, ornamentals fishes, sustainable fishing, designing of new fishing gears and trawlers, storage and value addition, Packaging, nutraceuticals, utilization of waste material from fishes, fish products etc.
Handbook on Striped Murrel,Channa Striata
Authors: Raizada Sudhir , Srivastava P.P. 
Published: April 2023

This book contains the outcome of research work carried out by the authors and other researchers for the promotion of farming of a highly valuable fish species, striped murrel (Channastriata). However, this has become possible with the kind support of many persons, who helped us in carrying out work on this important fish species and encouraged us to write this book and hence authors wish to share their gratitude to them. Striped murrel or striped murrel or chevron murrel (Scientific name, Channastriata) is an important species of many countries of South-east Asia including India. It is popular for its esteemed taste, therapeutic values, ant nociceptive properties and hence consumed by many to induce healing and pain control after clinical operations. It contains high arachidonic acid (AA), which is a precursor of prostaglandin that may initiate blood clotting and enhance tissue growth. It is devoid of muscular spines and hence easily processed for making fillets for meeting the export demand. The species is air-breathing and can live without water for few hours and with little water for several hours, hence suitable for marketing in live condition to nearby and far places. In comparison to carps, the growth of this species is better in small rearing enclosures and hence farmers having small landholdings and entrepreneurs who wish to adopt intensive farming under indoor conditions, can make great use of this high value farming species. The efforts made in the past on farming of this species has not shown promising results due to several problems associated with its breeding, seed production, larval rearing, grow-out production and non-availability of species and size-specific artificial feeds. However major handicaps are now being understood with recent global research and it has become possible to overcome them to a larger extent. Therefore efforts have been made to compile the outcome of available research with personal research experience of the authors to provide updated information on this important valuable species for the promotion of aquaculture in respect of reproductive biology, breeding, larval rearing, cannibalism mitigation issues, fingerling rearing and grow-out productions under different farming system.
ANATOMICAL INVESTIGATION OF FIVE GENERA THE LEAST-KNOWN TIMBER OF APOCYNACEAE AND THEIR POTENTIAL UTILIZATION
Authors: Marbun Sari Delviana , Astutiputri Vidya Fatimah , Damayanti Ratih , Hadisunarso  , Trisatya Deazy Rachmi , Djarwanto  , Dewi Listya Mustika , Rahmanto Raden Gunawan Hadi , Agustiningrum Dyah Ayu , Pari Rohmah , Sofianto Imran Arra’d , Lisnawati Yunita , Kalima Titi , Suhartana Sona , Setiowati  , Krisdianto  , Wardhani Marfuah , Ismanto Agung , Yuniawati  , Nugroho Agung Wahyu , Utami Sri , Dwianto Wahyu , Fitriasari Widya , Bahanawan Adik , Adi Danang Sudarwako , Augustina Sarah 
Published: April 2023

Doubtlessly, wood identification is critically important for a number of sectors, including government organizations, the wooden-based industry, museums, law enforcement, and scientists working in the fields of botany, ecology, forestry, and wood technology. Unfortunately, most wood species listed as “the least-known species” lack essential knowledge or even their anatomical feature and basic properties to promote their usage. This research aimed to investigate the anatomical characteristics and fiber quality of the least-known timber species of Apocynaceae family, which are authentic wood collection from Xylarium Bogoriense, namely , Ervatamia. sphaerocarpa, E. aurantiaca, Kopsia flavida, Lepiniopsis ternatensis, Plumeria acuminata, P. rubra, and Voacanga foetida. Wood samples have indistinct growth ring boundaries, diffuse-porous vessels in diagonal and/or radial pattern, vessels in radial multiples of 4 or more cells, simple perforation plate, alternate intervessel pits; distinct borders of vessel-ray pits, similar with those of intervessel pits in size and shape throughout the ray cell, and septate fibers with simple pits to minutely bordered pits which are common in radial and tangential walls. Based on the fiber length and the derived values of fiber dimension, some species are classified into Quality Class II and III, and the rest of them are classified into Quality Class II or III for pulp and paper manufacturing. Based on general characteristics, commonly Apocynaceae can be used as handicrafts raw material. Based on the fiber quality, some species which are classified into Quality Class II, are predicted to have potential as pulp and paper material with medium quality.
Gas-saturated frozen rocks as an object of geocryology study
Authors: Khimenkov Aleksandr Nikolaevich , Koshurnikov Andrei Viktorovich , Dernova Elena Olegovna 
Published: April 2023

The subject of the study of the proposed article is the gas component of the cryolithozone. If the solid and liquid phases of frozen rocks have been studied sufficiently deeply and systematically, then the gas component has been studied weakly and fragmentally. The object of the study is gas-saturated frozen soils, their spatial distribution and properties. Studies of recent decades have shown that the gas component plays a significant role in the structure and properties of frozen rocks. The author examines in detail such aspects of the topic as the effect of gas on the physical and mechanical properties of both thawed and frozen soils. Special attention is paid to the overlap of capillaries in the soil with gas, an increase in pore pressure, a weakening of soil consolidation and connections between soil particles. This, in turn, is expressed in a decrease in strength and density while increasing compressibility and porosity. The novelty of the study lies in the fact that for the first time a comparative analysis of data on the content of the gas component of the pressure in it and the processes occurring in frozen rocks was carried out. A special contribution of the author to the study of the topic is that the influence of free gas on their physical and mechanical properties is shown. The relevance of the topic under consideration is due to the need to study the patterns of deformation of frozen rocks depending on the degree of gas saturation. The article analyzes the state of the regulatory framework that takes into account the influence of gases on strength and deformative properties. Their almost complete absence was recorded. The importance of taking into account the possible increased pressure in gas-saturated frozen rocks in the development of research methods and regulatory documents for their use in engineering-geological and design work is shown. The materials considered indicate that gas-saturated frozen soils are a significant and important part of the cryolithozone and their study should be carried out within the framework of an independent section of geocryology.
Impact of Fibrinogen, Fibrin Thrombi, and Thrombin on Cancer Cell Extravasation Using In Vitro Microvascular Networks
Authors: Angelidakis Emmanouil , Chen Sophia , Zhang Shun , Wan Zhengpeng , Kamm Roger D. , Shelton Sarah E. 
Published: April 2023

AbstractA bidirectional association exists between metastatic dissemination and the hypercoagulable state associated with many types of cancer. As such, clinical studies have provided evidence that markers associated with elevated levels of coagulation and fibrinolysis correlate with decreased patient survival. However, elucidating the mechanisms underpinning the effects of different components of the coagulation system on metastasis formation is challenging both in animal models and 2D models lacking the complex cellular interactions necessary to model both thrombosis and metastasis. Here, an in vitro, 3D, microvascular model for observing the formation of fibrin thrombi is described, which is in turn used to study how different aspects of the hypercoagulable state associated with cancer affect the endothelium. Using this platform, cancer cells expressing ICAM‐1 are shown to form a fibrinogen‐dependent bridge and transmigrate through the endothelium more effectively. Cancer cells are also demonstrated to interact with fibrin thrombi, using them to adhere, spread, and enhance their extravasation efficiency. Finally, thrombin is also shown to enhance cancer cell extravasation. This system presents a physiologically relevant model of fibrin clot formation in the human microvasculature, enabling in‐depth investigation of the cellular interactions between cancer cells and the coagulation system affecting cancer cell extravasation.
Entering Voltage Hysteresis in Phase‐Separating Materials: Revealing the Electrochemical Signature of the Intraparticle Phase‐Separated State
Authors: Katrašnik Tomaž , Moškon Jože , Zelič Klemen , Mele Igor , Ruiz‐Zepeda Francisco , Gaberšček Miran 
Published: April 2023

AbstractHysteresis is a general phenomenon regularly observed in various materials. Usually, hysteretic behavior is an intrinsic property that cannot be circumvented in the nonequilibrium operation of the system. Herein, it is shown that, at least with regard to the hysteretic behavior of phase‐separating battery materials, it is possible to enter (deeply) the hysteretic loop at finite battery currents. This newly observed electric response of the electrode, which is inherent to phase‐separating materials, is related to its microscopic origin arising from a (significant) share of the active material residing in an intraparticle phase‐separated state. This intriguing observation is further generalized by revealing that a phase‐separating material can feature (significantly) different chemical potentials at the same bulk lithiation level and temperature when exposed to the same finite current and external voltage hysteresis. Therefore, the intraparticle phase‐separated state significantly affects the DC and AC characteristics of the battery. The experimental evidence for entering the intraparticle phase‐separated state is supported by thermodynamic reasoning and advanced modeling. The current findings will help advance the understanding, control, diagnostics, and monitoring of batteries composed of phase‐separating materials while also providing pertinent motivation for the enhancement of battery design and performance.
Engineering Amorphous–Crystallized Interface of ZrNx Barriers for Stable Inverted Perovskite Solar Cells
Authors: Xiao Mengqi , Yuan Guizhou , Lu Ziheng , Xia Jing , Li Dong , Chen Ying , Zhang Ying , Pei Fengtao , Chen Changli , Bai Yang , Song Tinglu , Dou Jie , Li Yujing , Chen Yihua , Xu Zipeng , Yang Xiaoyan , Liu Zelong , Liu Xingyu , Zhu Cheng , Chen Qi 
Published: April 2023

AbstractIt is challenging to achieve long‐term stability of perovskite solar cells due to the corrosion and diffusion of metal electrodes. Integration of compact barriers into devices has been recognized as an effective strategy to protect the perovskite absorber and electrode. However, the difficulty is to construct a thin layer of a few nanometers that can delay ion migration and impede chemical reactions simultaneously, in which the delicate microstructure design of a stable material plays an important role. Herein, ZrNx barrier films with high amorphization are introduced in p–i–n perovskite solar cells. To quantify the amorphous–crystalline (a–c) density, pattern recognition techniques are employed. It is found the decreasing a–c interface in an amorphous film leads to dense atom arrangement and uniform distribution of chemical potential, which retards the interdiffusion at the interface between ions and metal atoms and protect the electrodes from corrosion. The resultant solar cells exhibit improved operational stability, which retains 88% of initial efficiency after continuous maximum power point tracking under 1‐Sun illumination at room temperature (25 °C) for 1500 h.
Active Materials for Functional Origami
Authors: Leanza Sophie , Wu Shuai , Sun Xiaohao , Qi H. Jerry , Zhao Ruike Renee 
Published: April 2023

AbstractIn recent decades, origami has been explored to aid in the design of engineering structures. These structures span multiple scales and have been demonstrated to be used toward various areas such as aerospace, metamaterial, biomedical, robotics, and architectural applications. Conventionally, origami or deployable structures have been actuated by hands, motors, or pneumatic actuators, which can result in heavy or bulky structures. On the other hand, active materials, which reconfigure in response to external stimulus, eliminate the need for external mechanical loads and bulky actuation systems. Thus, in recent years, active materials incorporated with deployable structures have shown promise for remote actuation of light weight, programmable origami. In this review, active materials such as shape memory polymers (SMPs) and alloys (SMAs), hydrogels, liquid crystal elastomers (LCEs), magnetic soft materials (MSMs), and covalent adaptable network (CAN) polymers, their actuation mechanisms, as well as how they have been utilized for active origami and where these structures are applicable is discussed. Additionally, the state‐of‐the‐art fabrication methods to construct active origami are highlighted. The existing structural modeling strategies for origami, the constitutive models used to describe active materials, and the largest challenges and future directions for active origami research are summarized.
Highest‐Efficiency Flexible Perovskite Solar Module by Interface Engineering for Efficient Charge‐Transfer
Authors: Yang Dong , Yang Ruixia , Zhang Cong , Ye Tao , Wang Kai , Hou Yuchen , Zheng Luyao , Priya Shashank , Liu Shengzhong (Frank) 
Published: April 2023

AbstractThe electron‐transport layer (ETL) plays an important role in improving the performance of flexible perovskite solar cells (F‐PSCs). Herein, a room‐temperature‐processed SnO2:OH ETL is demonstrated, that exhibits reduced defect density, in particular lower oxygen vacancy concentration, with better energy band alignment and more wettable surface for quality perovskite deposition. More importantly, an efficient electron‐transfer channel is produced between the ETL and the perovskite layer due to the formation of hydrogen bonds at the interface, resulting in enhanced electron extraction from the perovskite. As a result, the efficiency of a large‐area (36.50 cm2) flexible perovskite solar module based on MAPbI3 is increased to as high as 18.71%; this is thought to be the highest reported PCE value for flexible perovskite solar modules to date. In addition, it exhibits high durability while maintaining over 83% of its initial PCE after flexing test cycles. Further, F‐PSCs with SnO2:OH show remarkably long‐term stability, owing to a high quality of the perovskite film and a strong coupling between the SnO2:OH and perovskite layer caused by hydrogen bonds, which successfully inhibits moisture permeation.
Laser Shock Introduced Strain and Plasmonic Nanogap Engineered Large‐Scale High‐Performance Monolayer 2D Material Optoelectronic Devices
Authors: Huang Zheng , Xu Shuoheng , Zhang Zequn , Wang Zifeng , Hu Yaowu 
Published: April 2023

AbstractThe poor light absorption and limited bandgap of monolayer 2D materials limit the overall performance of optoelectronic devices. In order to overcome these limitations, a method of laser shock induced chemical vapor deposition (CVD)grown 2D material straining and nanogap‐plasmonic enhancing is proposed. The tensile strain and plasmonic nanogaps are further adjusted by the collaborative deformation of nanoparticles and 2D materials induced by laser shock; thus, optimizing the performance of CVD‐grown 2D optoelectronic devices. After laser shock, the response speed of the device decreases by two orders of magnitude due to the field effect mobility increasing from 2.4 to 75.8 cm2 V−1 s−1. Due to the narrower plasmonic nanogap and the adjustment of band structure, the signal‐to‐noise ratio of monolayer molybdenumMoS2 optoelectronic devices is increased by 570%, the responsivity is increased by 67 times, and the spectral response range is extended to 720 nm. This large‐scale and ultra‐fast opto‐mechanical nanomanufacturing method provides a universal strategy for large‐scale adjustment of nanogap and 2D material strain, and also, a new avenue and approach for building high performance 2D optoelectronic devices.
Orthogonal‐Stacking Integration of Highly Conductive Silicide Nanowire Network as Flexible and Transparent Thin Films
Authors: Yuan Rongrong , Qian Wentao , Zhang Ying , Liu Zongguang , Wang Junzhuan , Xu Jun , Chen Kunji , Yu Linwei 
Published: April 2023

AbstractFlexible and transparent conductive (FTC) thin films are indispensable elements in building high‐performance flexible or soft electronics and displays. Slim inorganic nanowires (NWs), with excellent conductivity and durability, are ideal one‐dimensional ingredients to weave a quasi‐continuous FTC network. However, a precise spatial arrangement of these ultrathin NWs, to form an optimal interconnected network, represents still a difficult challenge. In this work, a catalytic growth of orderly SiNW arrays, via an in‐plane solid‐liquid‐solid mechanism, and an orthogonal‐stacking integration of the SiNWs into a 2‐layer cross‐linked network, followed by a direct alloy formation and soldering of highly conductive SiNi alloy NWs upon a flexible polyimide polymer, is demonstrated. It is also shown that the flexibility of the SiNi FTC network can be significantly enhanced with an elastic spring design of the silicide NW channels, leading to an impressive transmittance of ≈90%, a moderately equivalent sheet resistance of 130 Ω sq−1 and a durable flexibility that can sustain repetitive bending to a 2 mm radius for >1000 cycles. These results highlight the unique capabilities of an optimal spatial arrangement, precise assembly/soldering and elastic geometry design of alloy NWs to enable a new generation of high‐performance FTC thin film material for future flexible electronics, displays, and bio‐interfaced sensors.
Mask‐Based Separator with Sustained‐Release LiNO3 as Dendrite Growth Barrier for Potassium Metal Battery
Authors: Mou Peizhi , Zhang Liyuan , Lu Cheng , Luo Yusheng , Yuan Wenlu , Li Laiping , Chen Yong , Shen Zhen , Xu Jiaxin , Shu Jie 
Published: April 2023

AbstractSeparators with low‐cost, superior mechanical properties, such as nanofiber materials, are considered a viable option for solving the dendritic problem in alkali metal batteries. Consuming the dendrites rather than blocking them underpins the long‐life stable cycle performance of the cell. Herein, a five‐layer structural separator (LiNO3@PVDF@mask) is presented, in which a mask is used as a framework and the polyvinylidene fluoride (PVDF) layer loaded with LiNO3 can generate a passivation layer by reacting with K dendrites. In the case of potassium metal batteries, for example, the LiNO3@PVDF@mask separator has excellent mechanical properties that can effectively cope with the hazards caused by the K dendrite. In addition, sustained‐release LiNO3 can react with penetrated K dendrites to form inactive substances like KNO3 and K2O, blocking further dendrite growth. Importantly, the LiNO3@PVDF@mask separator uses a low‐cost abundant mask and possesses excellent wettability of electrolyte with a reduced amount of liquid electrolyte, enabling one to further iron out cost problems. This study opens up a new direction for research and contributes to practical applications of flexible devices for rechargeable alkaline metal batteries.
Core‐Shell‐Type All‐Inorganic Heterometallic Nanoclusters: Record High‐Nuclearity Cobalt Polyoxoniobates for Visible‐Light‐Driven Photocatalytic CO2 Reduction
Authors: Guo Zheng‐Wei , Lin Ling‐Hui , Ye Jian‐Ping , Chen Yi , Li Xin‐Xiong , Lin Sen , Huang Jian‐Dong , Zheng Shou‐Tian 
Published: April 2023

AbstractOnly rarely have polyoxometalates been found to form core–shell nanoclusters. Here, we succeeded in isolating a series of rare giant and all‐inorganic core–shell cobalt polyoxoniobates (Co−PONbs) with diverse shapes, nuclearities and original topologies, including 50‐nuclearity {Co12Nb38O132}, 54‐nuclearity {Co20Nb34O128}, 62‐nuclearity {Co26Nb36O140} and 87‐nuclearity {Co33Nb54O188}. They are the largest Co−PONbs and also the polyoxometalates containing the greatest number of Co ions and the largest cobalt clusters known thus far. These molecular Co−PONbs have intriguing and atomically precise core–shell architectures comprising unique cobalt oxide cores and niobate oxide shells. In particular, the encapsulated cobalt oxide cores with different nuclearities have identical compositions, structures and mixed‐valence Co3+/Co2+ states as the different sized Co−O moieties of the bulk cubic‐spinel Co3O4, suggesting that they can serve as various molecular models of the cubic‐spinel Co3O4. The successful construction of the series of the Co−PONbs reveals a feasible and versatile synthetic method for making rare core–shell heterometallic PONbs. Further, these new‐type core–shell bimetal species are promising cluster molecular catalysts for visible‐light‐driven CO2 reduction.
Mechanochemical synthesis and antiproliferative activity of novel ferrocene quinoline/quinolone hybrids
Authors: Maračić Silvija , Jakopec Silvio , Piškor Martina , Leventić Marijana , Lapić Jasmina , Djaković Senka , Cetina Mario , Glavaš‐Obrovac Ljubica , Raić‐Malić Silvana 
Published: April 2023

The synthesis of novel 1,1′‐disubstituted ferrocene conjugates appended with N‐1 and O‐4 alkylated quinolone and quinoline was reported. The target compounds were synthesized employing a liquid‐assisted grinding (LAG) mechanochemical method in copper‐catalyzed azide‐alkyne cycloaddition (CuAAC) to obtain ferrocene−quinoline/quinolone hybrids (5a–5d, 6a–6d, 7a, 7b, 8a, and 8b) in higher yields and shorter reaction time compared to a conventional method, thus proving superiority of mechanochemistry versus conventional synthesis. Bis‐quinoline and bis‐quinolone ferrocene derivatives were evaluated for their antiproliferative effects on five selected tumor and two non‐tumor cell lines. Bis‐6‐methylquinolone–ferrocene conjugate 8b showed the best antiproliferative effect on T‐cell lymphoma (HuT78) cells (IC50 = 14.8 μM) and no cytotoxicity on both non‐tumor MDCK1 and BJ cells. Results obtained after mitochondrial membrane potential (∆Ψm) measurement using flow cytometry showed that compound 8b caused accumulation of HuT78 cells in subG0/G1 phase, disturbance of mitochondrial membrane potential, and apoptosis. The structure of the quinolone and ferrocene hybrid 8b can be further optimized to obtain candidates with better inhibitory effects on HuT78 cells.