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17 pages, 4684 KB  
Article
Yellow Pigment Isolation During Optimization of Extracted Xylindein from Chlorociboria aeruginascens
by Padraic Duggan, Bo MacGill, Olivia Queisser, Cole Cerrato, Hayden Houck and Seri C. Robinson
Colorants 2026, 5(3), 31; https://doi.org/10.3390/colorants5030031 (registering DOI) - 11 Sep 2026
Abstract
The blue-green fungal pigment xylindein, extracted from species of the Chlorociboria genus, has a long history of use in the arts and is of growing interest to material scientists as a component in photovoltaic cells, textile dyes, and semiconductors. Although there is a [...] Read more.
The blue-green fungal pigment xylindein, extracted from species of the Chlorociboria genus, has a long history of use in the arts and is of growing interest to material scientists as a component in photovoltaic cells, textile dyes, and semiconductors. Although there is a plethora of fundamental research on xylindein, commercial scale-up of pigment production has not yet occurred, and the methodology for reliable batch culture growth is still evolving. To help aid in eventual commercial batch culturing and processing of xylindein, this research explored additional mechanical processing methods and solvent combinations. None of the physical processing steps (ultrasonication, centrifugation, and drying) produced significantly more xylindein than any other. However, all solvent combinations that contained benzyl alcohol extracted a visually significant amount of yellow color—a compound that was determined to be xylindein as well. Specifically, solvent combinations of dicholormethane (DCM) and benzyl alcohol (BA), methylethylketone (MEK) and BA, and tetrahydrofuran (THF) and MEK showed a significantly greater color shift toward the yellow spectrum. The results of this research, while unexpected, allow for control over the relative blue–yellow balance in xylindein pigment and for a reliable yellow pigment production from xylindein. Full article
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20 pages, 600 KB  
Article
Selective Confidence-Guided Projection-Based Encoding for Medical Image Classification
by Tao Chen, Chuan Zhou, Yifan Wang, Lubomir M. Hadjiiski and Qian Dong
J. Imaging 2026, 12(9), 436; https://doi.org/10.3390/jimaging12090436 (registering DOI) - 11 Sep 2026
Abstract
Deep neural networks have achieved strong performance in medical image classification, but their deployment may be constrained by the computational cost of high-capacity models. Knowledge distillation (KD) addresses this problem by transferring knowledge from a teacher to a lightweight student. However, the reliability [...] Read more.
Deep neural networks have achieved strong performance in medical image classification, but their deployment may be constrained by the computational cost of high-capacity models. Knowledge distillation (KD) addresses this problem by transferring knowledge from a teacher to a lightweight student. However, the reliability of teacher supervision may vary across samples, potentially introducing noisy guidance and local conflicts with ground-truth supervision. We propose Selective Confidence-guided Projection-based Encoding (SCOPE), a conflict-aware KD framework comprising Selective Relation Alignment (SRA) and Gradient Conflict Resolution (GCR). SRA constructs reliability-aware relational supervision by combining teacher-derived relations with dataset-specific auxiliary priors, whereas GCR removes distillation-gradient components that conflict with the classification objective. Experiments on nine medical image datasets and multiple teacher–student architectures demonstrate competitive predictive performance, improved training stability, and low computational overhead. Full article
(This article belongs to the Special Issue AI-Driven Medical Image Processing and Analysis)
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25 pages, 7343 KB  
Article
A Polarization-Adaptive and Multi-Wavelength-Weighted Method for Streak Image Reconstruction
by Yu Zhai, Sen Xie, Wenhao Li, Xuan Li, Xiuli Luo, Shangwei Guo and Liming Wang
Photonics 2026, 13(9), 858; https://doi.org/10.3390/photonics13090858 (registering DOI) - 11 Sep 2026
Abstract
To improve depth reconstruction accuracy of streak tube imaging LiDAR (STIL) under weak echo and low-contrast conditions in complex scattering environments, this paper proposes a hierarchical reliability-guided multispectral polarization reconstruction framework (MSP-STIL). The proposed method addresses measurement uncertainty in multi-wavelength and multi-polarization observations [...] Read more.
To improve depth reconstruction accuracy of streak tube imaging LiDAR (STIL) under weak echo and low-contrast conditions in complex scattering environments, this paper proposes a hierarchical reliability-guided multispectral polarization reconstruction framework (MSP-STIL). The proposed method addresses measurement uncertainty in multi-wavelength and multi-polarization observations by constructing a progressive reliability modeling strategy, which evolves from polarization stability to statistical uncertainty and finally to signal strength enhancement. First, a Dual-channel Polarization Contrast (Pc) is introduced to evaluate local scattering stability and suppress fringe peak degradation caused by polarization distortion. Second, SNR is employed to model the uncertainty of depth measurements across different wavelength channels. Finally, echo intensity is incorporated as a confidence refinement factor to further enhance high-quality signals. Based on this hierarchical modeling strategy, an adaptive inverse-variance weighting scheme is developed to achieve robust multi-wavelength depth fusion. The results show that the proposed method outperforms equal-weight and single-feature methods in all test regions. Compared with the non-weighted method, the MAE, RE, MSE, RMSE, and STD are reduced by approximately 10.95%, 12.02%, 25.44%, 13.68%, and 15.58% on average, respectively. Under low signal-to-noise conditions (simulated by controlled noise levels) and long-distance detection scenarios, the proposed method still maintains low reconstruction errors and effectively suppresses depth fluctuations, demonstrating good noise resistance and distance robustness. In addition, the maximum contrast of the RGB image constructed through weighted fusion increases from 5.0065 to 5.8300, verifying the effectiveness of the proposed method in low-contrast complex scenes. Overall, the proposed MSP-STIL multi-feature joint weighting method shows clear advantages in reconstruction accuracy, robustness, and scene adaptability. Full article
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18 pages, 3838 KB  
Article
Effects of Variable-Speed Operation on the External Characteristics and Work Performance of Multiphase Pumps
by Rui Guo, Guangtai Shi, Zhongbin Chen, Qingxi Pei, Tongde Feng and Aijing Deng
Fluids 2026, 11(9), 229; https://doi.org/10.3390/fluids11090229 (registering DOI) - 11 Sep 2026
Abstract
Multiphase pumps are key equipment for the efficient transport of multiphase fluids in the petroleum industry, and their transient stability under variable-speed conditions directly affects system reliability. By combining numerical simulation with experimental validation, this study systematically investigates the evolution of external characteristics, [...] Read more.
Multiphase pumps are key equipment for the efficient transport of multiphase fluids in the petroleum industry, and their transient stability under variable-speed conditions directly affects system reliability. By combining numerical simulation with experimental validation, this study systematically investigates the evolution of external characteristics, energy conversion mechanisms, and the dynamic response of the internal flow field during a 0.4 s variable-frequency speed regulation cycle at inlet gas volume fractions (IGVFs) of 10% and 20%. The numerical model was validated against experimental measurements of a four-stage multiphase pump under pure-water steady-state conditions, with deviations in head, efficiency, and power all within 5%. The results show that during acceleration, the increase in hydraulic efficiency at the lower IGVF is greater than that at the higher IGVF; once deceleration begins, IGVF has no significant effect on hydraulic efficiency. At the investigated IGVFs of 10% and 20%, a higher IGVF increases the transient sensitivity of the internal flow field to speed variation, and increasing IGVF suppresses energy conversion in the impeller. The principal novelty of this work lies in the temporal decomposition of impeller work into dynamic and static pressure components during transient speed variation, revealing that static pressure power consistently accounts for more than 50% of the total power throughout the speed regulation cycle. As rotational speed increases, dynamic pressure power rises because the circumferential velocity of the fluid increases with impeller peripheral speed, while static pressure power also increases continuously owing to the enhanced static pressure work of the blades. During deceleration, the impeller’s energy transfer capability weakens with decreasing rotational speed, and both dynamic and static pressure power decline. These findings elucidate the coupled evolution of gas–liquid two-phase flow under variable-speed conditions and provide a theoretical basis for the operational optimization and speed control of multiphase pumps. Full article
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15 pages, 8821 KB  
Article
Matrix-Guided Size Selection of Plasmonic Nanoprobes for Improving Quantitative Robustness of SERS Lateral Flow Immunoassays
by Haowei Liu, Hao Wang, Shuo Zhang, Guoqiang Li, Xi Yu, Shengqi Yan and Limin Cao
Foods 2026, 15(18), 3221; https://doi.org/10.3390/foods15183221 (registering DOI) - 11 Sep 2026
Abstract
Surface-enhanced Raman scattering-based lateral flow immunoassays (SERS-LFIAs) have emerged as a promising platform for rapid food safety analysis. However, their quantitative reliability is often compromised by matrix-dependent variations during lateral flow, and the influence of probe size on analytical performance remains insufficiently understood. [...] Read more.
Surface-enhanced Raman scattering-based lateral flow immunoassays (SERS-LFIAs) have emerged as a promising platform for rapid food safety analysis. However, their quantitative reliability is often compromised by matrix-dependent variations during lateral flow, and the influence of probe size on analytical performance remains insufficiently understood. In this work, Au@DTNB immunoprobes with diameters of 15, 30, and 50 nm were prepared to systematically investigate the effect of nanoparticle size on the quantitative performance of SERS-LFIA for aflatoxin B1 (AFB1) detection. All three probe sizes exhibited excellent concentration-dependent responses and generated four-parameter logistic calibration curves with correlation coefficients (R2) of 0.997, 0.994, and 0.992, respectively. Although the 50 nm probes produced the strongest Raman signals, recovery experiments in rice and soybean samples revealed that the 15 nm probes provided the highest quantitative accuracy, with recoveries of 90.1–109.2% and 100.4–108.9%, respectively, and relative standard deviations below 7.2%. In contrast, larger probes exhibited progressively greater deviations from the spiked concentrations despite their stronger SERS responses. These results demonstrate that maximizing Raman signal intensity alone does not necessarily improve quantitative performance in complex food matrices. Instead, probe size should be optimized according to matrix characteristics to achieve reliable quantitative analysis. This work establishes a matrix-oriented strategy for probe size selection and provides practical guidance for the rational design of quantitative SERS-LFIA platforms for food safety analysis. Full article
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21 pages, 377 KB  
Article
Lightweight Dickson Modular Multiplication Using Regular Systolic Arrays for Resource-Restricted IoT Infrastructure
by Atef Ibrahim and Fayez Gebali
Computers 2026, 15(9), 610; https://doi.org/10.3390/computers15090610 (registering DOI) - 11 Sep 2026
Abstract
As the deployment of Internet of Things (IoT) ecosystems accelerates, safeguarding distributed networks against pervasive security and privacy threats has become a paramount concern. Integrating robust cryptographic protocols directly onto resource-limited edge devices offers a promising line of defense. However, severe hardware constraints [...] Read more.
As the deployment of Internet of Things (IoT) ecosystems accelerates, safeguarding distributed networks against pervasive security and privacy threats has become a paramount concern. Integrating robust cryptographic protocols directly onto resource-limited edge devices offers a promising line of defense. However, severe hardware constraints historically complicate practical implementation. Because finite-field arithmetic fundamentally dictates the speed and efficiency of these cryptographic primitives, optimizing underlying multiplication techniques remains critical. To address these challenges, this paper presents an innovative, highly regular bit-serial systolic architecture tailored specifically for Dickson modular multiplication in binary extension fields. This is achieved via a streamlined systolic mapping over GF(2l) using dependency graph extraction, scheduling vectors, and projection directions. With localized pathways, the structure is highly optimized for VLSI integration. The performance and effectiveness of the proposed system are thoroughly evaluated and validated through comprehensive simulation results. Based on analytical and gate-level modeling, the design significantly enhances efficiency, lowering area by at least 162.8%, power by at least 214.3%, Area–Time Product by at least 5%, and Time–Power Product by at least 25.6%. These findings confirm that the proposed architecture substantially outperforms state-of-the-art bit-serial multipliers across these key evaluation metrics. Consequently, this solution serves as an ideal cryptographic engine for tightly constrained IoT hardware and embedded nodes, reinforcing secure and energy-aware data processing. By fostering resilient infrastructure and green digital practices, the work directly supports sustainable digital transformation and robust edge computing security. Full article
(This article belongs to the Special Issue Privacy and Security for Cyber–Physical Systems (CPS))
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20 pages, 4187 KB  
Article
Rhizosheath Research at the Root–Soil–Microbiome Interface: A Bibliometric and Thematic Analysis of Stress Adaptation and Crop Resilience
by Elshafia Ali Hamid Mohammed, Mahbubjon Rahmatov, Mohammed Elsafy, Rodomiro Ortiz, Nataliya Bilyera, Michaela A. Dippold and Tilal Abdelhalim
Agriculture 2026, 16(18), 1953; https://doi.org/10.3390/agriculture16181953 (registering DOI) - 11 Sep 2026
Abstract
The rhizosheath is a dynamic plant–soil interface in which root traits, microbial activity, and soil physical properties jointly regulate plant adaptation to drought and nutrient limitation. Despite the growing interest in this field, it remains conceptually fragmented. This study mapped the development, structure, [...] Read more.
The rhizosheath is a dynamic plant–soil interface in which root traits, microbial activity, and soil physical properties jointly regulate plant adaptation to drought and nutrient limitation. Despite the growing interest in this field, it remains conceptually fragmented. This study mapped the development, structure, and emerging directions of rhizosheath research at the intersection of microbiome interactions, stress adaptation, and root-trait genetics. Bibliometric and science-mapping analyses were performed on 136 publications (2015–2026) retrieved from the Web of Science Core Collection. Using the Bibliometrix framework, we examined publication dynamics, collaboration networks, citation patterns, keyword co-occurrence, and thematic structures. The dataset comprised 136 publications, 6366 cited references, and 723 authors, with 54.41% international co-authorship. Logistic modeling described the accumulation of publications through 2025, identifying a growth inflection at 2022.54; a reliable saturation level could not be estimated because the 2026 data cover only a partial year. Document coupling resolved nine clusters dominated by soil–root interface processes (n = 51; 1358 citations) and plant–microbe interactions (n = 18; 895 citations). Thematic analysis positioned soil and rhizosheath as central domains and identified water stress as a key motor theme, whereas mucilage, hydraulic functioning, and microbiome assembly emerged as recent trends. Rhizosheath research is transitioning from descriptive characterization toward more integrated, mechanistic perspectives linking root traits, soil processes, and microbial dynamics. Progress will depend on resolving genotype × soil × microbiome interactions and advancing field-based cross-scale phenotyping to support climate-resilient cropping systems. Full article
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22 pages, 3819 KB  
Article
Dynamic Similarity Theory Based on Geometric Distortion and Material Compensation for On-Orbit Assembled Space Rod Structures
by Yongbo Ye, Sicheng Wang, Jianfei Yang, Dayu Zhang and Xiaofei Ma
Materials 2026, 19(18), 3878; https://doi.org/10.3390/ma19183878 (registering DOI) - 11 Sep 2026
Abstract
On-orbit assembly technology is the core method for constructing extremely large space structures, with assembly modules serving as the fundamental units for structural integration. Since ground dynamic verification of full-scale modules is often restricted by laboratory space, scaled models are required for equivalent [...] Read more.
On-orbit assembly technology is the core method for constructing extremely large space structures, with assembly modules serving as the fundamental units for structural integration. Since ground dynamic verification of full-scale modules is often restricted by laboratory space, scaled models are required for equivalent evaluation. During the scaling of systems containing high-aspect-ratio flexible rods, traditional complete geometric similarity laws lead to severe dynamic distortion in these slender elements as dimensions are reduced. To address this issue, a dynamic equivalence method based on geometric distortion and material compensation specifically for space flexible rods is proposed. This theory permits non-proportional distortion of rod cross-sections by deriving distortion similarity laws and reconstructs dynamic consistency through material substitution. Numerical validation demonstrates that the method effectively eliminates prediction errors induced by size reduction. For free single rods, the prediction errors for the first three bending frequencies are maintained within 1%; for unconstrained two-bar mechanisms connected by spatial spherical joints, the error is maintained within 0.5%. Furthermore, upon introducing sliding rail boundary constraints, the scaled model accurately reproduces the spatial mode shapes of the prototype, with primary frequency errors converging to within 0.3%. This research provides a reliable theoretical basis for the ground experimental evaluation of on-orbit assembly equipment for extremely large space structures. Full article
(This article belongs to the Special Issue Experimental Testing and Numerical Modelling for Structural Dynamics)
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20 pages, 3145 KB  
Article
Tailoring Na+ and Cl-Selective Colorimetric Optode Arrays for Wearable Sweat Analysis: Composition Optimization and Measurement Conditions
by Vasiliy S. Syutkin, Ivan P. Gryazev, Daria A. Chetverikova, Andrey V. Kalinichev and Maria A. Peshkova
Sensors 2026, 26(18), 5774; https://doi.org/10.3390/s26185774 (registering DOI) - 11 Sep 2026
Abstract
Sweat testing is central to cystic fibrosis diagnosis, but conventional analysis depends on clinical instrumentation, creating a need for portable point-of-care alternatives. As Part 1 of this two-part study, we systematically optimized Na+- and Cl-selective colorimetric optodes and their [...] Read more.
Sweat testing is central to cystic fibrosis diagnosis, but conventional analysis depends on clinical instrumentation, creating a need for portable point-of-care alternatives. As Part 1 of this two-part study, we systematically optimized Na+- and Cl-selective colorimetric optodes and their measurement protocols for potential integration into a wearable device for in situ sweat analysis. Fifteen chromoionophore-based sensor compositions were screened over the physiologically relevant range of 5–100 mmol/L. Candidate optodes were selected based on stability in NaCl solutions and artificial sweat, hysteresis below 0.1 log units, and equilibration times under 15 min. Their analytical performance was evaluated by spectrophotometry and digital color analysis using smartphones and research-grade cameras, with a robustness parameter used to quantify signal reliability under different imaging conditions. A simple smartphone setup provided more robust performance than the tested laboratory imaging configurations. Incorporating light-scattering TiO2 particles into the PVC matrix produced opaque films that significantly reduced interference from colored samples without compromising sensitivity or response kinetics. Validation in artificial sweat yielded recoveries above 93% across pH 5.5–8.0. These results establish optimized sensor compositions and measurement conditions for colorimetric Na+ and Cl determination in sweat and provide the analytical basis for wearable-device development in Part 2. Full article
(This article belongs to the Section Chemical Sensors)
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13 pages, 907 KB  
Article
Accuracy of the My Jump Lab App for Two Methods of Single-Leg Countermovement Jump Height Assessment
by Jarosław Kabaciński and Michał Murawa
J. Clin. Med. 2026, 15(18), 7052; https://doi.org/10.3390/jcm15187052 (registering DOI) - 11 Sep 2026
Abstract
Background/Objectives: The My Jump Lab app can be used to examine inter-limb asymmetry during the countermovement jump (CMJ), both in healthy athletes and in athletes undergoing rehabilitation post-injury. However, the correct assessment of jump height (JH) using this application requires high measurement [...] Read more.
Background/Objectives: The My Jump Lab app can be used to examine inter-limb asymmetry during the countermovement jump (CMJ), both in healthy athletes and in athletes undergoing rehabilitation post-injury. However, the correct assessment of jump height (JH) using this application requires high measurement accuracy, similar to the method of double integration of vertical ground reaction force values. This study aimed to determine the validity and reliability of the My Jump Lab app for estimating jump height (JH) during the single-leg countermovement jump (CMJ). Methods: Twenty-two healthy male adults performed single-leg CMJs for the dominant lower extremity (D) and non-dominant lower extremity (ND). The AMTI force platform and an iPhone 13 smartphone were used. JH during the CMJ was estimated based on the displacement of the jumper’s center of mass (force platform), the jumper’s flight time (smartphone and My Jump Lab), and the flight time of the reflective marker placed on the jumper’s sacrum (smartphone and My Jump Lab-M). Results: The assessment of the concurrent validity showed (1) poor agreement between the My Jump Lab and the force platform for the ND and D (p < 0.001) and (2) moderate (ND) and good (D) agreement between the My Jump Lab-M and the force platform (p < 0.001). Conclusions: The results of the single-leg CMJ height estimation revealed the greater accuracy of the My Jump Lab-M method compared with the My Jump Lab method. However, due to the good agreement between My Jump Lab-M and the gold standard, this new method may not provide an objective assessment of the height in this vertical jump. Therefore, the most accurate method of double integration of vertical ground reaction force values is recommended for the single-leg CMJ test. Full article
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38 pages, 18273 KB  
Article
TROPOMI-Referenced Reconstruction and Model Interpretation of Long-Term City-Scale NO2 Column Density in East Asia Using Machine Learning
by Jiaqi Zhang, Qing Sun, Heming Yang, Yanbiao Xi, Feifei Cheng and Jie Feng
Sustainability 2026, 18(18), 9349; https://doi.org/10.3390/su18189349 (registering DOI) - 11 Sep 2026
Abstract
Reliable long-term city-scale nitrogen dioxide (NO2) records are essential for evaluating urban air quality change, but the short observation period of TROPOMI limits long-term applications. This study developed a TROPOMI-referenced machine learning framework to reconstruct annual tropospheric NO2 column density [...] Read more.
Reliable long-term city-scale nitrogen dioxide (NO2) records are essential for evaluating urban air quality change, but the short observation period of TROPOMI limits long-term applications. This study developed a TROPOMI-referenced machine learning framework to reconstruct annual tropospheric NO2 column density for 436 cities in China, Japan, South Korea, North Korea, and Mongolia from 2000 to 2022 using 18 annual predictors comprising five natural environmental variables, six meteorological variables, and seven sectoral anthropogenic NOx emission variables. To reduce spatial leakage, the 436 city polygons were assigned to a regular 5° × 5° grid using the largest equal-area polygon intersection fraction. The 61 occupied, non-overlapping blocks were allocated deterministically to five folds, with all 2019–2022 observations from each city retained in its assigned block. Model performance was calculated from the concatenated predictions for the five held-out block sets. Among nine models, random forest (RF) achieved the best independent test performance (R2 = 0.885; RMSE = 1.968 × 10−5 mol m−2). During 2005–2022, annual city-level RF–OMI correlations ranged from 0.850 to 0.945, and their normalized regional annual series were strongly correlated (r = 0.877). Against ground observations, RF better represented intercity differences in China (mean annual r = 0.791 versus 0.735 for OMI), whereas OMI performed better at the Japanese city scale (0.857 versus 0.810 for RF); nevertheless, RF closely reproduced the Japanese national annual trend (r = 0.989). The East Asian mean increased significantly during 2000–2011 (Theil–Sen slope = +0.095 × 10−5 mol m−2 yr−1), declined significantly during 2011–2018 (−0.140 × 10−5 mol m−2 yr−1), and remained nonsignificantly negative during 2018–2022 (−0.060 × 10−5 mol m−2 yr−1). China peaked in 2011, Japan and North Korea showed significant long-term decreases, South Korea showed a significant overall decline, and Mongolia had no significant full-period trend. SHAP analysis showed that industrial combustion emissions, surface pressure, and road emissions had the highest global mean absolute SHAP values, with nonlinear and direction-dependent associations with RF predictions. The resulting dataset supports regional and national long-term NO2 assessment, while country-specific and city-scale uncertainties should be considered in local applications. Full article
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22 pages, 2661 KB  
Review
Evaluation of Large Language Models as Tools, Models, and Partners in Creative Thinking Research: A Selective Narrative Review with the GCA Framework
by Kexin Huang, Chunlei Liu and Jiaqin Yang
J. Intell. 2026, 14(9), 218; https://doi.org/10.3390/jintelligence14090218 (registering DOI) - 11 Sep 2026
Abstract
Creativity research faces three persistent bottlenecks: divergent-thinking scoring is labour-intensive, cognitive models of creativity remain underspecified, and laboratory tasks fall short of real-world creative achievement. Large language models (LLMs) offer potential solutions, but the field lacks a structured framework for evaluating them. This [...] Read more.
Creativity research faces three persistent bottlenecks: divergent-thinking scoring is labour-intensive, cognitive models of creativity remain underspecified, and laboratory tasks fall short of real-world creative achievement. Large language models (LLMs) offer potential solutions, but the field lacks a structured framework for evaluating them. This selective narrative review (January 2018–June 2026) applies the generation–capability–assessment (GCA) framework, whose three axes are operationalised through descriptive criteria with provisional heuristic thresholds. On the generation axis, LLMs exceed average human performance on divergent-thinking tasks in most independent comparisons (Hedges’ g ≈ 0.5–2.6), an advantage qualified by fluency dependency, the superiority of top-performing humans at scale, and a novelty–typicality trade-off. On the capability axis, LLMs simulate some task-level associative behaviour and can generate hypotheses for human research, but there is no evidence that they instantiate human-like creative mechanisms. On the assessment axis, automated scoring shows promising reliability and convergent validity for specific languages and tasks (ICC ≥ 0.80 and r ≥ 0.70 in selected studies), but cross-language generalisation is largely untested and individual-level use is unsupported. Human–AI co-creativity may benefit from a division of labour, although social–affective dimensions may matter more than cognitive support. We provide a GCA reporting protocol and identify research priorities. Full article
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42 pages, 659 KB  
Article
Valid but Not Always Runnable: An Open, Reproducible Benchmark of Large Language Models Drafting Gherkin Scenarios
by Patrick Deininger and Wolfgang Slany
AI 2026, 7(9), 359; https://doi.org/10.3390/ai7090359 (registering DOI) - 11 Sep 2026
Abstract
Behaviour-Driven Development (BDD) encodes acceptance criteria in Gherkin, but hand-authoring is laborious, and it is unclear which large language model (LLM) drafts it best. We benchmark eight LLMs generating Gherkin from three requirement corpora (requirement lists, user stories, RFP excerpts) over 2960 generations, [...] Read more.
Behaviour-Driven Development (BDD) encodes acceptance criteria in Gherkin, but hand-authoring is laborious, and it is unclear which large language model (LLM) drafts it best. We benchmark eight LLMs generating Gherkin from three requirement corpora (requirement lists, user stories, RFP excerpts) over 2960 generations, scoring validity, runner acceptance, judged coverage and quality, similarity to gold standard, stability, and cost. Validity is near the ceiling, yet only 78% of outputs load in the Cucumber runner: a fifth emits several Feature blocks per file. Two student annotators (a small, non-expert panel) calibrate the judge on 72 blinded generations. Human score levels are matched (error 0.33 versus 0.35 between the humans) but outputs are ordered far less reliably (ICC 0.47 versus 0.64; coverage 0.21 versus 0.76): magnitudes hold, but fine rankings do not. Against that gold standard, models span 66–107% of the human–human ceiling, ordering differently again. Pareto analysis leaves three of eight models non-dominated: cost varies 157×, judged quality 0.36 points. Per-model prompt tuning yields no cross-validated gain; a restrictive token budget truncates verbose models. Two newer models displace the low-cost front: tier-level findings transfer, and model names are dated quickly. We release the corpora, gold standard, and prototype. Model choice should weigh cost and runner acceptance over judged quality. Full article
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34 pages, 6223 KB  
Article
An Intelligent Thermographic Framework for Automated Diagnosis and Health Monitoring of Photovoltaic Modules
by Domenico De Carlo, Salvatore Calcagno and Giovanni Angiulli
Appl. Sci. 2026, 16(18), 9018; https://doi.org/10.3390/app16189018 (registering DOI) - 11 Sep 2026
Abstract
Reliable automated monitoring of photovoltaic modules is essential for improving energy efficiency, operational safety, and predictive maintenance. Infrared thermography is one of the most effective solutions for identifying localised thermal anomalies, such as hotspots, micro-cracks, connection faults, shading effects and other conditions of [...] Read more.
Reliable automated monitoring of photovoltaic modules is essential for improving energy efficiency, operational safety, and predictive maintenance. Infrared thermography is one of the most effective solutions for identifying localised thermal anomalies, such as hotspots, micro-cracks, connection faults, shading effects and other conditions of degradation that can compromise the performance of the photovoltaic system. The interpretation of thermographic images is still frequently reliant on the operator’s experience or on automated procedures based exclusively on image processing techniques or artificial intelligence models often regarded as black-box models, thereby limiting their reliability, robustness and interpretability. This study presents an integrated diagnostic framework combining infrared thermography, computer vision, and artificial intelligence for the automated diagnosis and health monitoring of photovoltaic modules operating under real-world conditions. The proposed methodology extends beyond hotspot detection by integrating thermal image preprocessing, anomaly detection and segmentation, extraction of thermal and geometric descriptors, and intelligent fault classification. The resulting diagnostic information enables automated fault-type classification and quantitative severity assessment, providing interpretable condition indicators for photovoltaic module monitoring. The methodology was validated using a database comprising 1560 thermographic images acquired from photovoltaic modules under representative operating conditions. The experimental evaluation demonstrated an overall classification accuracy of 97.6%, an F1-score of 97.0%, and an area under the ROC curve (AUC) of 0.991 for the fault-type classification task. The proposed framework therefore provides an interpretable and computationally efficient decision-support methodology for photovoltaic condition assessment, while its integration into longitudinal predictive-maintenance systems remains a subject for future investigation. Full article
(This article belongs to the Special Issue Fault Diagnosis and Condition Monitoring of Power Electronics Systems)
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33 pages, 10983 KB  
Perspective
On-Skin Wearable Health Monitoring Devices: Recent Trends and Perspectives
by Francisco J. Romero, Isabel Blasco-Pascual, Alfonso Salinas-Castillo, Noel Rodríguez and Diego P. Morales
Sensors 2026, 26(18), 5770; https://doi.org/10.3390/s26185770 (registering DOI) - 11 Sep 2026
Abstract
On-skin non-invasive Wearable Health-Monitoring Devices (WHMDs) have rapidly evolved from laboratory prototypes into commercially viable systems capable of continuously tracking physiological and biochemical signals. By integrating epidermal temperature sensors, electrophysiological electrodes, biochemical sensing platforms, low-power electronics, and wireless communication technologies, these systems are [...] Read more.
On-skin non-invasive Wearable Health-Monitoring Devices (WHMDs) have rapidly evolved from laboratory prototypes into commercially viable systems capable of continuously tracking physiological and biochemical signals. By integrating epidermal temperature sensors, electrophysiological electrodes, biochemical sensing platforms, low-power electronics, and wireless communication technologies, these systems are emerging as key enablers of personalized and decentralized healthcare through the continuous acquisition of clinically relevant information directly from the skin surface. In this Perspective, we present our view on the state-of-the-art across the key technological pillars that define modern on-skin WHMDs, including non-invasive sensing strategies, advanced materials, processing and wireless communication units, energy-storage solutions, energy-harvesting techniques, and power-management architectures, with a particular focus on technologies that have already reached high Technology Readiness Levels (TRLs). We highlight how the next-generation of on-skin WHMDs must balance performance with sustainability and long-term reliability. This includes the adoption of biodegradable and recyclable materials, low-power and reconfigurable electronics, solid-state batteries, and hybrid energy-harvesting systems. By aligning technological innovation with human-centric and eco-friendly design principles, on-skin WHMDs can evolve into scalable, equitable, and environmentally responsible tools for future digital healthcare. Full article
(This article belongs to the Special Issue Wearable Technologies and Sensors for Health Monitoring)
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