bluuebunny/crossref_metadata_2025_split huggingface dataset:
When sustainability backfires: A review on the unintended negative side‐effects of product and service sustainability on consumer behavior
Authors: Acuti Diletta , Pizzetti Marta , Dolnicar Sara 
Published: July 2022

AbstractThe existential need for more sustainable production and consumption has attracted substantial scholarly interest, which has focused on the positive outcomes of corporate sustainability. Negative side‐effects have been largely neglected. This study contributes (1) by synthesizing past research into such negative side‐effects from a diverse set of business disciplines; (2) by conceptualizing—for the first time—unintended negative side‐effects of product and service sustainability; and (3) by developing a research agenda guiding researchers in addressing the most important knowledge gaps. The synthesis of 94 articles identifies three main cognitive mechanisms (information elaboration, product perception bias, and self‐perception) and several emotionally aversive states (anxiety, shame, guilt, regret, distress, reduced enjoyment, frustration, discomfort, stress, and embarrassment) that are responsible for unintended negative side‐effects resulting from product and service sustainability. Immediate managerial implications from this study include the critical importance of simple corporate sustainable communication that does not require consumers to dedicate substantial cognitive resources. Important future research directions include the investigation of the effects of green hushing and the development and testing of practical ways to help companies to avoid the sustainability liability trap, which leads to reduced demand because of sustainable features of products or services.
Modeling and analysis of grain morphology effects on deformation response based on crystal plasticity finite element method
Authors: Gu S. , Zhao J. , Ma T. , Xu T. , Yu B. 
Published: July 2022

AbstractIn order to investigate the grain morphology effects on deformation response at macro‐ and micro‐scale in polycrystalline metal, a method considering grain size and shape effects is proposed based on the classical crystal plasticity finite element method in this paper. A grain morphology controlled polycrystalline geometry model consisting of grain shape models and grain size transition models is developed based on Voronoi diagram. Grain size effect is introduced into the classical crystal plasticity constitutive model quantitatively on the basis of Hall‐Petch type relationship. With the aid of the method, grain aggregate finite element meshes with different mean grain sizes are established to simulate the deformation response of polycrystalline pure copper. The predicted values of flow stresses show good agreement with experimental ones. Finally, a set of grain aggregate finite element meshes with same mean grain size but different grain distributions are developed to simulate the uniaxial tension processes of polycrystalline pure copper. The results shown that the effects of grain morphology on the macro‐scale deformation response are insignificant under a large number of grains with random morphology and orientation. When the grain distributions changes regularly along the x direction, the maximum decrease of flow stress data is 10 MPa.
Characterization of histone lysine β‐hydroxybutyrylation in bovine tissues, cells, and cumulus–oocyte complexes
Authors: Sangalli Juliano R. , Nociti Ricardo Perecin , del Collado Maite , Sampaio Rafael Vilar , da Silveira Juliano C. , Perecin Felipe , Smith Lawrence Charles , Ross Pablo J. , Meirelles Flávio V. 
Published: July 2022

AbstractBesides their canonical roles as energy sources, short‐chain fatty acids act as metabolic regulators of gene expression through histone posttranslational modifications. Ketone body β‐hydroxybutyrate (BHB) causes a novel epigenetic modification, histone lysine β‐hydroxybutyrylation (Kbhb), which is associated with genes upregulated in starvation‐responsive metabolic pathways. Dairy cows increase BHB in early lactation, and the effects of this increase on cellular epigenomes are unknown. We searched for and identified that Kbhb is present in bovine tissues in vivo and confirmed that this epigenetic mark is responsive to BHB in bovine and human fibroblasts cultured in vitro in a dose‐dependent manner. Maturation of cumulus–oocyte complexes with high concentrations of BHB did not affect the competence to complete meiotic maturation or to develop until the blastocyst stage. BHB treatment strongly induced H3K9bhb in cumulus cells, but faintly in oocytes. RNA‐seq analysis in cumulus cells indicated that BHB treatment altered the expression of 345 genes. The downregulated genes were mainly involved in glycolysis and ribosome assembly pathways, while the upregulated genes were involved in mitochondrial metabolism and oocyte development. The genes and pathways altered by BHB will provide entry points to carry out functional experiments aiming to mitigate metabolic disorders and improve fertility in cattle.
Fabrication, characterization, and selection using FAHP‐TOPSIS technique of zirconia, titanium oxide, and marble dust powder filled dental restorative composite materials
Authors: Yadav Ramkumar , Lee Hae‐Hyoung 
Published: July 2022

AbstractThe article aimed to develop and characterize the nano‐micro ceramic particle‐filled polymer‐based composite as dental materials. The current study also deals with the ranking of dental composites using a hybrid fuzzy analytic hierarchy process (FAHP)‐fuzzy technique for order of preference by similarity to ideal solution (FTOPSIS) methodology. Dental composites were fabricated from resin matrix and ceramic particulates. Two different series were fabricated. Zirconia, titanium oxide, and marble dust powder were used as ceramic particles in the dental composite. Bis‐GMA, TEGDMA, CQ, and DMAEMA were employed for the resin matrix of dental composite. The physical and mechanical properties were investigated for both dental formulations. The maximum and minimum compressive strengths were recorded in DM‐6 (321 MPa) and DT‐0 (190 MPa). Polymerization shrinkage was gradually decreased in both hybrid nZr‐TiO2 and hybrid nZr‐MDP formulations. The FTOPSIS was used to determine the rank of alternatives as DT‐6 > DM‐6 > DM‐4 > DT‐4 > DM‐2 > DM‐0 > DT‐0 > DT‐2.
Influence of LPRE on the size‐dependent phase velocity of sandwich beam including FG porous and smart nanocomposite layers
Authors: Al‐Furjan M. S. H. , Kong X. S. , Shan L. , Soleimani Jafari Gholamreza , Farrokhian A. , Shen X. , Kolahchi R. , Rajak Dipen Kumar 
Published: July 2022

AbstractThis article evaluates the wave velocity of a leptadenia pyrotechnica rheological elastomer (LPRE) microbeam surrounded by micro piezoelectric and porosity of functionally graded materials' (FGMs) layers. Different models of graphene nano plates (GPLs) for reinforcing the face sheet are assumed by adopting Halpin–Tsai modified micromechanics theory to obtain the Poisson's ratio and Young modulus of the smart layer. The material properties of the whole system as a viscoelastic state are hypothesized using the Kelvin–Voigt theory. The motion final equations are gained by utilizing the theory of Timoshenko and the couple stress model. An analytical solution method is adopted for computing the velocity of wave, cutoff frequency, and escape frequency from the motion final equations. The influences of different distribution and volume percent of GPLs, FGM properties as well as gradient index, the numeral parameter of any layer, damping of structure, and exerted voltage on the velocity of wave microbeam are studied. Moreover, it has been seen that a rise in the FGM index leads to reduced phase velocity, cutoff, and escape frequencies. Meanwhile, enhancing the volume percent of GPLs increases the wave velocity of the microstructure beam.
Influence of process parameters on mechanical strength, build time, and material consumption of3Dprinted polylactic acid parts
Authors: Singh Jatinder , Goyal Kapil Kumar , Kumar Rakesh , Gupta Vishal 
Published: July 2022

AbstractThe purpose of the study is to examine and analyze the effect of different process parameters of fused deposition modeling process, namely, nozzle diameter, build orientation, infill density, raster pattern, layer height, and print speed on the response variables, namely, tensile strength, build time, and material consumption. Taguchi L27orthogonal array experimental design has been adopted to print the PLA samples for experimental investigation. The optimum values of process parameters are obtained from the signal‐to‐noise ratio values of responses. The performed confirmation tests revealed that optimum process parameters combination determined through Taguchi method improves the tensile strength, reduce the build time, and material consumption significantly. Confirmation from analysis of variance (ANOVA) results revealed that the build orientation and nozzle diameter are the most influential process parameters for all the considered responses. The infill density is found to be an influential process parameter for material consumption. Further, the developed regression models for prediction of response characteristics and normal probability plots show significance of coefficients for predicted models. Results from the confirmation test revealed that the PLA part printed with optimum settings ((Nd)3‐(Bo)3‐(Id)3‐(Rp)1‐(Lh)2‐(Ps)1)) for tensile strength shows maximum tensile strength of 61.24 MPa with an improvement of 6.26%. Similarly, the part printed with the optimum settings ((Nd)3‐(Bo)1‐(Id)2‐(Rp)1‐(Lh)3‐(Ps)3) for build time takes 0.32 h of time with a reduction of 8.57%. The part printed with the optimum settings ((Nd)1‐(Bo)1‐(Id)1‐(Rp)2‐(Lh)1‐(Ps)2) for material consumption consumes material of 7.6 g with a reduction of 2.56%. Fracture mechanics results depict that variation of process parameters during the fabrication of samples has significant influence on the tensile strength.
A case of cervical schwannoma with upper tracheal stenosis followed up as asthma for 4 years
Authors: Naomi Akira , Hujiwara Hideyuki , Koizumi Tatsuhiko , Sakurai Yukari , Kohashi Yasuo , Yoneda Yukiko , Kitamura Yuka , Hattori Yoshinobu , Saitou Yuji 
Published: July 2022

AbstractCases of upper tracheal stenosis due to cervical schwannoma are fairly rare; therefore, no treatment has been determined. In this case, our patient had been treated for asthma for 4 years and was admitted to our hospital because of exacerbation. Computed tomography showed a tracheal stenosis lesion just below the vocal cords, and a biopsy revealed schwannoma. Conservative therapy was preferred rather than tumour resection by surgery. Follow‐up for 5 years showed no changes on imaging. Conservative treatment is considered as an option if the extratracheal tumour does not grow.
Synthesis, Molecular Modelling and In Vitro Anti‐inflammatory Activity of Novel 1,2,4‐Triazolo[4,3‐a]quinoxaline Derivatives
Authors: Doğan Inci Selin , Kahveci Bahittin , Sari Suat , Kolci Kübra , Reis Rengin , SIPAHI Hande 
Published: July 2022

AbstractIn this study, a series of 12 new 1,2,4‐triazolo[4,3‐a]quinoxalines (3 a‐l) were synthesized to investigate their anti‐inflammatory activities. An efficient method for synthesis of 1,2,4‐triazolo[4,3‐a]quinoxaline compounds (3 a‐l) rendered a cyclo‐condensation between iminoester derivatives (Compounds 1 a‐l) and 1‐(quinoxalin‐2‐yl)hydrazine (Compound 2). The synthesized compound's structural elucidation was carried out using 1H‐ and 13C‐NMR, Mass analysis. Cytotoxicity profiles of the title compounds were assessed by MTT assay, and anti‐inflammatory activities were investigated by determining nitrite levels in LPS‐induced RAW264.7 murine macrophage cells. In addition, the ability of the compounds to reduce nitrite levels was modelled using molecular docking method. Compound 3 a‐l showed good anti‐inflammatory activities. Compound 3 f exhibited the most remarkable nitrite‐reducing effect (65.12±1.62 %), which was similar to the nitrite inhibition seen with IND (63.83±4.20 %) compared to LPS‐induced control. Besides, 3 f was followed by 3 i and 3 g, causing a significant decline in nitrite levels (51.56±8.68 % and 51.13±8.29 %, respectively). Molecular docking studies predicted that the compounds showed high affinity and formed key interactions with the active site of inducible nitric oxide synthase (iNOS), a key enzyme responsible for elevated nitrite levels. Thus, the current study explored a new series of 1,2,4‐triazolo[4,3‐a]quinoxaline analogs with promising nitrite‐reducing effects, most probably due to iNOS inhibition.
Specific‐Tuning Band Structure in Hetero‐Semiconductor Nanorods to Match with Reduction of Oxygen Molecules for Low‐Intensity Yet Highly Effective Sonodynamic/Hole Therapy of Tumors
Authors: Bian Kexin , Yang Weitao , Xu Yan , Zeng Weiwei , Wang Hui , Liang Hongying , Cui Tianming , Wang Zhuo , Zhang Bingbo 
Published: July 2022

AbstractSonosensitizers‐assisted sonodynamic therapy (SDT) has been emerging as a promising treatment for cancers, and yet few specific regulations of band structure of sonosensitizers have been reported in relation to oxygen in tissues. Herein, by a gradient doping technique to modulate the band structure of hetero‐semiconductor nanorods, it is found that the reduction potential of band‐edge is very critical to reactive oxygen species (ROS) production under low‐intensity ultrasound (US) irradiation and particularly, when aligned with the reduction of oxygen, ROS generation is found to be most significantly enhanced. Withal, US‐generated oxidation holes are found to be effective in consuming overexpressed glutathione in tumor lesions, which amplifies cellular oxidative stress and finally induces tumor cell death. Moreover, the intrinsic fluorescence property of semiconductors provides imaging capability to illumine tumor area and guide the SDT process. This study demonstrates that the reduction potential state of sonosensitizers is of crucial importance in ROS generation and the proposed reduction potential‐tailored hetero‐semiconductor nanorods materialize low‐intensity US irradiation yet highly effective SDT and synergetic hole therapy of tumors with imaging guidance and reduced radiation injury.
Short‐Term Wind Speed and Direction Forecasting by3DCNNand Deep ConvolutionalLSTM
Authors: Sari Anggraini Puspita , Suzuki Hiroshi , Kitajima Takahiro , Yasuno Takashi , Prasetya Dwi Arman , Arifuddin Rahman 
Published: July 2022

AbstractThis paper investigates a deep learning‐based wind‐forecasting model to establish an accurate forecasting model which can support the increasing growth of wind power generation. The wind forecasting means wind speed and direction forecasting at the same time. Proposed forecasting model consists of three‐dimensional convolutional neural network and deep convolutional long short‐term memory (3DCNN‐DConvLSTM), and forecasts the wind vector which expressed as time‐sequential images. DConvLSTM model learns spatiotemporal features from time‐series image data that represent a spatial and temporal change of wind speed and direction. The forecasting model combined of 3DCNN and DConvLSTM is effective to decrease training time, and forecasting error in comparison to the DConvLSTM model. Input of the forecasting model is wind speed and direction that is expressed as an image on 2D coordinate and uses the measured data by the Automated Meteorological Data Acquisition System (AMeDAS), Japan. Forecasting accuracy with one‐hour ahead and its usefulness of the proposed forecasting model is evaluated with simulation results for four seasons that is typical of Japan climate, and demonstrated by comparison with fully connected‐LSTM (FC‐LSTM), encoder‐decoder based 3DCNN (ED‐3DCNN), DConvLSTM, and persistent models. © 2022 Institute of Electrical Engineers of Japan. Published by Wiley Periodicals LLC.
Pediatric patient with a bilateral Salter-Harris II fracture and slipped capital femoral epiphysis secondary to autosomal recessive osteopetrosis
Authors: Jaber Ayham , Schwarze Martin , Steinle Verena , Götze Marco , Hagmann Sébastien 
Published: July 2022

AbstractTreatment of femoral neck fractures secondary to osteopetrosis is an uncertain and puzzled decision. Experience in the treatment, especially in the pediatric population, is scarcely reported. The duration of conservative treatment is prolonged and poses the risks of non-union and development of coxa vara deformity. The recommended treatment is closed reduction and internal fixation; however, surgery on osteopetrotic bone is challenging due to defective bone marrow function, delayed consolidation and higher risk of intraoperative fractures. Slipped capital femoral epiphysis secondary to osteopetrosis is very rarely reported. This article presents the case of a 5-year-old female patient with rapidly deteriorating physical function due to bilateral proximal femoral Salter-Harris type II fractures with associated slippage of the growth plates secondary to confirmed autosomal recessive osteopetrosis. Operative treatment was performed in a tertiary level orthopedic center with closed reduction and internal fixation with cannulated screws. A loss of fixation with coxa vara deformity was seen on the left side 7 months postoperatively with increasing pain. A revision surgery with reosteosynthesis and a valgus osteotomy was thus performed which showed good subjective and objective results 1 year postoperatively with complete bony union.
Laparoscopic Left Hemihepatectomy Using the Hilar Plate‐First Approach (with Video)
Authors: Cho Sung Chun , Kim Ji Hoon 
Published: July 2022

AbstractBackgroundEffective inflow and outflow control of the liver is essential for a safe hepatectomy. Detachment of the hilar plate is a fundamental technique in the Glissonean approach. The hilar plate is situated near the middle hepatic vein, which runs in the midplane of the liver, and serves as a landmark during hemihepatectomy. In this study, we describe the technical details and surgical outcomes of laparoscopic left hemihepatectomy using the hilar plate‐first approach.MethodsThe key procedures of the hilar plate‐first approach included the following: (1) detachment of the hilar plate for the left Glissonean approach, (2) the middle hepatic vein approach from the hilar plate, (3) parenchymal transection along the ischemic line and middle hepatic vein, and (4) transection of the left Glissonean pedicle at the ventral aspect of the Arantius ligament.ResultsBetween September 2020 and September 2021, 12 patients underwent laparoscopic left hemihepatectomy using the hilar plate‐first approach. The median operation time was 227 min (range 140–350 min), and the median estimated blood loss was 82.5 ml (range 50–150 ml). The median length of postoperative hospital stay was 7 days (range 5–10 days). No major complications, including biliary complications, were observed.ConclusionThe hilar plate‐first approach contributes to the standardization of surgical techniques for laparoscopic left hemihepatectomy. This technique is a safe and effective approach for the inflow and outflow systems of the left hemiliver.
Successful catheter ablation of a left posterolateral accessory bypass tract and periinterventional management in a patient with MELAS syndrome
Authors: Goette Andreas , Brandner Sybille , Wojcik Michal Jakub , Berger Christian , Hammwöhner Matthias 
Published: July 2022

AbstractMELAS syndrome is defined as a combination of mitochondrial myopathy, encephalopathy, lactic acidosis and stroke-like episodes resulting from mutations in mitochondrial DNA. All medical interventions in these patients appear challenging due to a high risk of lactate acidosis or anesthesiological complications. Of note, previous reports suggest that these patients have a higher incidence of Wolff-Parkinson-White (WPW) syndrome. Here, a case of successful catheter ablation of a posteroseptal bypass tract using analgosedation in a patient with MELAS syndrome combined with WPW syndrome is presented.
First genetic data for the critically endangered Cuban endemic Zapata Rail Cyanolimnas cerverai, and the taxonomic implications
Authors: Brown Alex F. , Lawrie Yvonne , Shannon Thomas J. , Collinson J. Martin , Kirwan Guy M. , Kirkconnell Arturo , Stervander Martin 
Published: July 2022

AbstractThe taxonomic affinity of the near-flightless Zapata Rail Cyanolimnas cerverai, a critically endangered and highly localized species endemic to Cuba, has long been debated. Morphological analyses have suggested that this species, which constitutes a monotypic genus, could be related either to the extinct Tahitian Cave Rails (Nesotrochis sp.) or to the South American rail tribe Pardirallini, i.e., the genera Neocrex, Mustelirallus, and Pardirallus. While pronounced phenotypic convergence—and divergence—among rails have repeatedly proven morphology-based phylogenies unreliable, thus far no attempt to sequence DNA from the enigmatic Cyanolimnas has succeeded. In this study, we extracted historic DNA from a museum specimen collected in 1927 and sequenced multiple short fragments that allowed us to assemble a partial sequence of the mitochondrial cytochrome oxidase I gene. Phylogenetic analyses confirm that Cyanolimnas belongs in tribe Pardirallini as sister to genus Neocrex, from which it diverged about 6 million years ago. Their divergence from Mustelirallus was estimated at about 9 million years ago. Based on morphology and our mitochondrial phylogeny, we conclude that it is unjustified to retain the monotypic genus Cyanolimnas and tentatively recommend that C. cerverai and the two Neocrex species are ascribed to genus Mustelirallus.
Assessment of Ligament Viscoelastic Properties Using Raman Spectroscopy
Authors: Cui Andy , Nippolainen Ervin , Shaikh Rubina , Torniainen Jari , Ristaniemi Aapo , Finnilä Mikko , Korhonen Rami K. , Saarakkala Simo , Herzog Walter , Töyräs Juha , Afara Isaac O. 
Published: July 2022

AbstractInjuries to the ligaments of the knee commonly impact vulnerable and physically active individuals. These injuries can lead to the development of degenerative diseases such as post-traumatic osteoarthritis (PTOA). Non-invasive optical modalities, such as infrared and Raman spectroscopy, provide means for quantitative evaluation of knee joint tissues and have been proposed as potential quantitative diagnostic tools for arthroscopy. In this study, we evaluate Raman spectroscopy as a viable tool for estimating functional properties of collateral ligaments. Artificial trauma was induced by anterior cruciate ligament transection (ACLT) in the left or right knee joint of skeletally mature New Zealand rabbits. The corresponding contralateral (CL) samples were extracted from healthy unoperated joints along with a separate group of control (CNTRL) animals. The rabbits were sacrificed at 8 weeks after ACLT. The ligaments were then harvested and measured using Raman spectroscopy. A uniaxial tensile stress-relaxation testing protocol was adopted for determining several biomechanical properties of the samples. Partial least squares (PLS) regression models were then employed to correlate the spectral data with the biomechanical properties. Results show that the capacity of Raman spectroscopy for estimating the biomechanical properties of the ligament samples varies depending on the target property, with prediction error ranging from 15.78% for tissue cross-sectional area to 30.39% for stiffness. The hysteresis under cyclic loading at 2 Hz (RMSE = 6.22%, Normalized RMSE = 22.24%) can be accurately estimated from the Raman data which describes the viscous damping properties of the tissue. We conclude that Raman spectroscopy has the potential for non-destructively estimating ligament biomechanical properties in health and disease, thus enhancing the diagnostic value of optical arthroscopic evaluations of ligament integrity.