Abstract: Loanword Research on Anglicisms has largely centered on lexical borrowing and phonological adaptation, with comparatively limited attention to morphosyntactic integration in recipient grammars. This study examines the syntactic behavior of single-word Anglicisms in Mexican Spanish, drawing on phonetically classified corpora of 131 monosyllabic Anglicisms with mon-ophthongs extracted from spontaneous speech by Spanish–English bilinguals in the Tijuana–San Diego border region. Building on prior acoustic analyses based on F1 and F2 vowel measure-ments, the study investigates the relationship between phonological adaptation and morphosyn-tactic integration. Results reveal a gradient pattern of incorporation. Anglicisms exhibiting Span-ish-like phonetic properties tend to occupy canonical syntactic positions and show greater com-patibility with Spanish functional morphology, whereas phonetically non-adapted forms more frequently resist morphological marking and display island-like behavior within otherwise Spanish clauses. The analysis examines distribution across nominal, adjectival, and prepositional domains, as well as object positions, enabling a fine-grained assessment of degrees of morpho-syntactic integration. The former is illustrated as follows: (1) Guardo cash ([kaʃ]) por si acaso (2) Si hacen match ([mæʧ]), puede funcionar Adopting a usage-based and contact-oriented perspective for syntactic borrowing (Bybee, 2015), the study is situated within the Matrix Language Frame model (Myers-Scotton, 1993; Muysken, 2000) and recent approaches to insertional borrowing (Poplack & Dion, 2012; Onysko & Win-ter-Froemel, 2011). A central contribution lies in establishing a principled link between morpho-syntactic behavior and an independently motivated phonetic classification, offering convergent evidence for the systematic integration of Anglicisms into Spanish grammar. At a broader ana-lytical level, the study advances debates on syntactic borrowing and contact-induced change by demonstrating that Anglicisms are subject to Spanish morphosyntactic constraints rather than functioning as unconstrained lexical insertions, and by developing an interface-based account of borrowing that captures the gradient nature of grammatical incorporation in contact settings and contributes a corpus-based, empirically grounded perspective to typologies of borrowing in Spanish contact linguistics

Abstract: A single paragraph of about 200 words maximum. For research articles, abstracts should give a pertinent overview of the work. We strongly encourage authors to use the following style of structured abstracts, but without headings: (1) Background: place the question addressed in a broad context and highlight the purpose of the study; (2) Methods: describe briefly the main methods or treatments applied; (3) Results: summarize the article’s main findings; (4) Conclusions: indicate the main conclusions or interpretations. The abstract should be an objective representation of the article, it must not contain results which are not presented and substantiated in the main text and should not exaggerate the main conclusions.

Abstract: The present study examined the effect of Enterococcus durans cell free supernatant (CFS) on interleukin (IL) 8, 10 and 1β gene expressions in the intestinal cell line HT-29 treated with Staphylococcus aureus CFS. HT-29 cells were incubated with E. durans CFS or S. aureus CFS, or S. aureus CFS plus E. durans CFS. All concentrations of E. durans CFS did not show cytotoxicity, while the highest treatment (44.9 μg/mL) with S. aureus CFS induced significant cell death. S. aureus CFS did not modify IL-1β gene expression, while E. durans CFS alone or in combination with S. aureus CFS reduced it. Treatment with S. aureus CFS induced greater expression of the IL-8 gene compared to S. aureus CFS plus E. durans CFS. S. aureus CFS alone or in combination with E. durans CFS increased the expression of the IL-10 gene, while E. durans CFS alone did not modify it. These results suggest a potential protective role of the E. durans secretome in mitigating the inflammatory environment in intestinal cells. This treatment could be useful to protect against possible contact with dangerous soluble microbial products present in food.

Abstract: In structural equation modeling (SEM), model fit is commonly evaluated on a single sample, which limits evidence about out-of-sample generalisability in HR research. This study adapts repeated cross-validation to SEM and introduces a normalised generalisation gap (NG) index to quantify fit deterioration on unseen data relative to training fit. Using employee survey data (N = 1,040), we estimated a model in which quiet quitting and passive quitting predict work engagement and evaluated RMSEA across repeated 10×10 folds. In-sample fit indices were stable across training subsamples, yet test-set fit was consistently weaker. The NG index operationalises this decline as a standardised ratio, enabling transparent reporting of overfitting risk and model transportability. The procedure supports more robust evaluation of measurement models and structural relations in people analytics applications.

Abstract: Salmonella enterica remains a major threat to animal and human health because of its broad host range, increasing antimicrobial resistance (AMR), and capacity to form biofilms. Biofilm formation enhances bacterial persistence in host tissues, farm environments, food-processing systems, and clinical reservoirs, while also contributing to their tolerance against antibiotics, disinfectants, and other stresses. However, biofilm capacity is not uniform across serovars and is influenced by host adaptation, niche specialization, and accessory genome content. This review synthesizes current knowledge on the relationship between biofilm formation, AMR, and serovar-specific adaptation in Salmonella. It examines biofilm-associated traits across various hosts (e.g., gastrointestinal tract and gallbladder, and environmental (e.g., food-production and clinical) niches, and discusses comparative evidence from genomic, transcriptomic, proteomic, and metabolomic studies. Particular attention is given to the emerging concept of comparative biofilmomics, which integrates phenotypic and multi-omics data across diverse serovars and host sources to identify conserved and niche-specific determinants of persistence. This framework may help define high-risk lineages that couple multidrug resistance (MDR) with enhanced biofilm-forming capacity. A better understanding of these linked traits will support the development of more targeted interventions for controlling persistent Salmonella in veterinary, food production, and public health settings.

Abstract: In a previous work [Bakonyi et al., Eur. Phys. J. Plus 137, 871 (2022)], in-plane magnetoresistance results were reported on a thin strip-shaped foil sample of nanocrys-talline (nc) Ni metal. These studies have been by now complemented with the measure-ment of the temperature dependence of the resistivity as well as the field dependence of the resistivity and the Hall effect on the same sample at 3 K and 300 K in polar magnetic fields up to 140 kOe, i.e., with the magnetic field perpendicular to the strip plane. Due to the strong contribution of the grain-boundary scattering in the nc state, the residual re-sistivity was about 11 % of the room-temperature value. The polar magnetoresistance (PMR) showed a similar behavior to the previously reported transverse magnetoresistance (TMR), yielding an anisotropic magnetoresistance (AMR) value in good agreement with the AMR previously deduced from the in-plane MR data. As to the Hall effect, the results for the ordinary (Ro) and the anomalous (Rs) Hall coefficient fitted rather well into the rather dispersed reported data of bulk Ni at both temperatures. However, a closer look of the Rs values for nc-Ni revealed that at 300 K it is larger and at 3 K it is smaller than the corresponding bulk Ni values obtained on samples with the same zero-field resistivity as our nc-Ni foil. It will be discussed briefly that these deviations may be attributed to the nanocrystalline state containing a large density of grain boundaries.

Abstract: Metal forming processes play a key role in modern manufacturing, but they are characterized by high energy consumption and low overall efficiency. In this context, precise methods for monitoring the operational state and cycle-dependent metrics of manufactured parts are essential to implement energy optimization strategies. This article presents a data-driven and non-intrusive methodology to identify, in real time, the part under production and to estimate both cycle time and energy consumption per part. The method relies exclusively on electrical measurements taken at the main switchboard and at the first process-stage switchboard. These signals are used to calculate electrical quantities such as root mean square (RMS) current and active power, and a machine-learning (ML) approach is proposed to automatically identify the part in production. To this end, time-domain features are extracted directly from the signals, while time-frequency features are extracted using Continuous Wavelet Transform (CWT). These features are employed to train Support Vector Machine (SVM) classifiers optimized via grid search. Experimental results show that the model achieves a test accuracy of 99.9%. Once the production state is identified, the system estimates cycle time and energy per cycle in real time. Approximately 58,000 production cycles, corresponding to several part types were characterized.

Abstract: Artificial intelligence is rapidly transforming education. Tools such as modern AI language models can now generate essays, explain complex concepts, create lesson plans, produce quizzes, and summarize entire textbooks within seconds. For many teachers and institutions, this raises an important question: what is the role of a human educator in an age when machines can instantly provide information? This paper presents an accessible framework that helps schools and colleges integrate artificial intelligence into teaching while preserving the essential human elements of education. Rather than viewing AI as a replacement for teachers, the framework positions AI as a powerful assistant that can support lesson preparation, personalized feedback, and adaptive learning resources. By automating repetitive tasks such as content generation, grading support, and material organization, AI allows educators to focus on what machines cannot easily replicate: mentorship, creativity, ethical reasoning, critical thinking, and inspiration.The framework outlines practical strategies for using AI responsibly in classrooms, including guidelines for AI-assisted lesson planning, student engagement techniques, and safeguards to maintain academic integrity. It also discusses how institutions can prepare both teachers and students for an AI-augmented learning environment by promoting digital literacy, responsible tool usage, and critical evaluation of AI-generated information.Ultimately, the goal of AI-enhanced teaching is not to replace educators, but to empower them. When used thoughtfully, artificial intelligence can reduce administrative workload, expand access to high-quality learning resources, and create more personalized educational experiences. In this vision, AI becomes a supportive partner, while teachers remain the guiding force who cultivate curiosity, wisdom, and human understanding in the classroom.

Abstract: This study presents a monitoring system designed as an integrated surveillance and decision support tool for the terrestrial and the ocean environments. The developed system integrates in situ ocean sensor for monitoring purposes as well as a real-time communication tool for data transfer combined with a power generating module to sustain power for all modules. The system is applied for a period of around six months in different seasons to detect, identify gradients of radioactivity in the atmosphere. The gross gamma-ray intensity as detected by the system was interpreted in qualitative manner according to the rainfall events. The background gamma-ray spectra during dry periods for different seasons are also discussed in terms of seasonality. The results of the analysis offer actionable insights through existing mechanisms to support authorities in rapid response and policy planning related to marine radioactivity issues.

Abstract: Modern financial markets are increasingly shaped by algorithmic trading systems and artificial intelligence techniques that process large volumes of financial data in real time. However, machine learning–based trading systems often suffer from signal instability and excessive sensitivity to market noise, which may lead to overtrading and increased financial risk. In highly volatile environments such as cryptocurrency markets, the re-liability of trading signals becomes a critical issue for both portfolio allocation and risk management. This study proposes an entropy-filtered machine learning framework designed to en-hance the stability and risk-awareness of algorithmic trading strategies. The proposed approach integrates entropy-based filtering techniques with machine learning classifiers in order to reduce noise in market signals improving the risk-adjusted stability of algo-rithmic trading strategies. Entropy measures are employed as a filtering mechanism that evaluates the informational content of market signals and suppresses unreliable predic-tions generated by the learning model. The empirical analysis is conducted using cryp-tocurrency market data, where the entropy-filtered machine learning framework is ap-plied to trading signal generation and portfolio decision making. The results indicate that the proposed approach improves the stability of trading signals and reduces the occur-rence of false signals compared to conventional machine learning trading models. Moreover, the integration of entropy filtering contributes to a more balanced risk–return profile and enhances the overall robustness of algorithmic trading strategies.The findings suggest that combining information-theoretic measures with machine learning tech-niques represents a promising direction for developing more reliable and risk-aware financial decision systems. The results suggest that entropy-based filtering can substan-tially improve the robustness and risk-awareness of machine learning trading systems, providing a promising direction for future AI-driven financial decision frameworks.

Abstract: Namibia’s rural communities continue to experience limited and unreliable electricity access despite the country’s exceptional solar, wind, and biomass renewable energy re-sources potential. Conventional grid extension remains financially and technically impractical for dispersed off-grid settlements, underscoring the need for cost-effective, re-renewable based alternatives. This paper presents a resource-driven design and multi objective optimization framework for Hybrid Renewable Energy Systems (HRESs) tailored to Namibia’s off-grid communities. The proposed model integrates solar PV, wind turbines, biomass generators, and hydrogen-based fuel cells with hybridized energy storage consisting of batteries, supercapacitors, and hydrogen tanks. Using the Non-dominated sorting Genetic Algorithm-II (NSGA-II), the system simultaneously minimizes Total Life Cycle Cost (TLCC), Levelized Cost of Electricity (LCOE), Loss of Power Supply Probability (LPSP), Carbon dioxide (CO₂) emissions, and Wasted Renewable Energy (WRE). The framework is applied to three rural villages, Oluundje, Ombudiya, and Onguati using high-resolution, site-specific renewable resource datasets and community-level load forecasts. Results demonstrate that resource-aligned configurations substantially improve system reliability (up to 99.28%), reduce LCOE (0.0023–0.0811 USD/kWh), and optimize dispatch behavior across seasonal variations. Storage hybridization further enhances stability by balancing transient and long-duration deficits. Com-pared to existing diesel mini-grids, the optimized HRESs achieve markedly superior techno-economic and environmental performance. The proposed framework offers a scalable, adaptable, and policy-ready tool for accelerating sustainable rural electrification in Namibia.

Abstract: Background: Whether inspired oxygen fraction (FiO₂) can modulate the internal meta-bolic cost of supramaximal high-intensity interval training (HIIT) and thereby direct training adaptation remains unclear. We tested whether hyperoxic versus hypoxic ex-posure during Tabata-format HIIT induces distinct adaptive phenotypes. Methods: Twenty-three physically active men completed 3 weeks of supramaximal Tabata HIIT (3 sessions·week⁻¹; 8 × 20 s with 10 s recovery) under hyperoxia (FiO₂ = 0.60, n = 13) or hypoxia (FiO₂ = 0.16, n = 10). Training intensity was regulated to main-tain a comparable internal physiological stimulus rather than an identical external workload. Pre- and post-intervention assessments included maximal oxygen uptake (VO₂max), first and second ventilatory thresholds (VT1, VT2), peak blood lactate, and session rating of perceived exertion (RPE). Post-intervention between-group differences were analysed using ANCOVA adjusted for baseline values; RPE was analysed using a linear mixed-effects model. Results: VO₂max improved in both groups but increased more after hyperoxic training than after hypoxic training (+3.69 vs. +1.50 mL·kg⁻¹·min⁻¹; β = 2.18 mL·kg⁻¹·min⁻¹, 95% CI [1.77–2.59], p < 0.001). Hyperoxia also produced larger gains in VT1 (β = 29.99 W, 95% CI [17.09–42.89], p < 0.001) and VT2 (β = 20.74 W, 95% CI [9.43–32.05], p = 0.001). Peak lactate responses diverged bidirectionally, decreasing in hyperoxia (−0.77 mmol·L⁻¹) and increasing slightly in hypoxia (+0.27 mmol·L⁻¹), with a significant ad-justed between-group effect (β = −1.02 mmol·L⁻¹, 95% CI [−1.47 to −0.57], p < 0.001). RPE declined across sessions in both groups, with a steeper decrease under hyperoxia (Con-dition × Session: β = −0.36, 95% CI [−0.44 to −0.28], p < 0.001). Conclusions: Hyperoxic and hypoxic supramaximal HIIT elicited distinct functional adaptive profiles. Hyperoxia induced greater improvements in aerobic capacity and ventilatory thresholds, reduced peak lactate accumulation, and accelerated the decline in perceived exertion, whereas hypoxia was associated with a more glycolytic response pattern. These findings support the interpretation that FiO₂ acts as a modulator of in-ternal physiological load and shapes the metabolic phenotype of adaptation during su-pramaximal interval training.

Abstract: Background/Aim: Albuminuria is an established marker of endothelial dysfunction and an independent predictor of cardiovascular risk. Polycystic ovary syndrome (PCOS) is associated with early metabolic and vascular abnormalities; however, whether urinary albumin excretion differs across PCOS phenotypes remains unclear. This study aimed to evaluate urinary albumin excretion using the urinary albumin-to-creatinine ratio (U-ACR) across distinct PCOS phenotypes and to examine its association with metabolic parameters. Materials and Methods: In this cross-sectional study, 180 women aged 18-35 years with PCOS and 51 age-matched healthy controls were included. PCOS phenotypes were classified according to the Rotterdam criteria as Phenotype A (n = 96), Phenotype B (n = 19), Phenotype C (n = 35), and Phenotype D (n = 30). Insulin resistance was assessed using the homeostasis model assessment for insulin resistance (HOMA-IR). Urinary albumin and creatinine levels were measured in morning urine samples, and U-ACR was calculated. Results: Age was comparable across all groups. Body mass index, waist circumference, diastolic blood pressure, and HOMA-IR were significantly higher in Phenotype A compared with controls and other phenotypes, indicating a more adverse metabolic profile. Serum creatinine levels were similar across all groups. Despite this unfavorable metabolic profile in Phenotype A, U-ACR was significantly elevated only in Phenotype B compared with controls (p = 0.018) and Phenotype D (p = 0.016). No significant correlations were observed between U-ACR and age, body mass index, or HOMA-IR. When participants were categorized according to U-ACR levels (< 30, 30-299.9, and ≥ 300 mg/g creatinine), no significant differences in category distribution were observed between the total PCOS cohort, phenotype subgroups, and controls. Conclusion: Among PCOS phenotypes, U-ACR elevation was observed exclusively in Phenotype B despite similar renal function markers. Notably, this occurred even though Phenotype A exhibited a more adverse metabolic profile, suggesting a dissociation between metabolic burden and early microvascular involvement across PCOS phenotypes. These findings indicate that vascular risk in PCOS may be phenotype-dependent and support the potential value of phenotype-oriented cardiovascular risk assessment.

Abstract: Artificial Intelligence (AI) has developed over the years from rudimentary systems of symbolic reasoning in the middle of the twentieth century to sophisticated data-driven and generative architectures, which give rise to modern society. The acceleration of machine learning, deep neural networks and large-scale computational infrastructures has turned AI into a basic technology in the economic, social, and societal sectors. This paper investigates the history of the development of AI and critically discusses its influence on society in the 21 st century. Following a narrative review approach, the paper summarises interdisciplinary literature of technological innovation, economic transformation, social change, ethical governance, and sustainability issues.Various findings are found in the analysis. To begin with, AI has greatly increased productivity and operational efficiency in the industry as well as redefining the labor markets and skill requirements. Second, AI-centered systems have enhanced the provision of services in the education, health, transportation, and government sectors, though the issue of bias, privacy, transparency, and accountability continues to be present. Third, the spread of AI to safety-critical systems highlights the value of reliability, regulation, and human-oriented design. Finally, the environmental impact of large-scale AI models represents the necessity of sustainable development practices.The paper concludes that AI is an opportunity for transformation and a governance challenge. The implications to be considered in the future are the emergence of human-focused AI models, the creation of control measures, and the introduction of sustainability indicators into technological change. The fair and responsible implementation of AI will be required in order to maximise the positive impacts on society and reduce the risks in the long term.

Abstract: Background: Hypernatremia is an infrequent but clinically relevant electrolyte disorder in older adults and is associated with poor outcomes. Patients managed through Hospital-at-Home (HaH) programs, particularly those living in institutional settings, are especially vulnerable due to functional dependency and cognitive impairment. Evidence regarding the prevalence and prognostic impact of hypernatremia in HaH settings remains limited; Methods: We conducted a retrospective observational cohort study including all patients admitted to a Hospital-at-Home unit between 2019 and 2024. Patients were classified according to care setting as home-dwelling or institutionalized. Hypernatremia was defined as a serum sodium concentration &gt;145 mmol/L. Sociodemographic, functional (Barthel Index), and cognitive (Global Deterioration Scale) variables were collected. Mortality during HaH admission and at 30, 60, and 90 days was analyzed, and survival was assessed using Kaplan–Meier methods.; Results: A total of 4,501 patients were included, of whom 2,701 were treated at home and 1,800 in institutional settings. Hypernatremia was significantly more prevalent among institutionalized patients than among home-dwelling patients (3.1% vs. 0.8%, p &lt; 0.001). Institutionalized patients with hypernatremia showed greater functional dependency (Barthel Index 11 vs. 15, p = 0.041) and more advanced cognitive impairment (GDS 6 vs. 5.5, p = 0.033) compared with those without hypernatremia. Mortality among institutionalized patients with hypernatremia was high, reaching 32.9% during HaH admission, 61.2% at 30 days, 70.6% at 60 days, and approximately 79% at 90 days. Kaplan–Meier analysis demonstrated a rapid decline in survival during the first month following diagnosis.; Conclusions: In Hospital-at-Home programs, hypernatremia is more prevalent among institutionalized older adults and is strongly associated with severe functional and cognitive impairment and very high short- and medium-term mortality. These findings suggest that hypernatremia should be considered a marker of advanced frailty rather than an isolated electrolyte disturbance and highlight the need for enhanced preventive and monitoring strategies in institutional and HaH care settings.

Abstract: Background and Objective: After a SARS-CoV-2 infection, a Long COVID (LC) syndrome occurred in a high proportion of patients with affecting their health. Estimating the incidence, risk and protective factors of LC was the aim of our study. Material and Methods: We performed a prospective population-based cohort study on the Borriana COVID-19 cohort (Castellon province, Valencia Community, Spain) from May 2020 to August 2023 with a follow-up of 40 months, and considering the LC definition from the World Health Organization. We used inverse probability weighted regression. Results: With a response rate of 63.8% of a total of 722 participants, the average age was 37.7±17.4 years with 460 (62.3%) females, 644 had suffered a SARS-CoV-2 infection, and 184 suffered LC with a cumulative incidence of 28.6%. A total of 135 patients with LC remained affected, and a death associated with the syndrome occurred in 0.54% of them. Significant risk factors for LC were older age, female, chronic disease, SARS-CoV-2 exposure, reinfections and severity. Asymptomatic cases and SARS-CoV-2 vaccinations were significantly protective factors. Conclusions: A high incidence of LC was found with low recovery rate, and several risk and protective factors. Continued follow-up for non-recovered LC patients, surveillance of infections, and a SARS-CoV-2 vaccination for an at-risk population can be recommended.

Abstract: We prove Convex Seed Universality for the Kreuzer—Skarke classification of four-dimensional reflexive polytopes. Every reflexive polytope in the Kreuzer—Skarke dataset arises from a primitive convex seed through a finite sequence of four toric operations: unimodular transformations, stellar subdivisions, polar duality, and lattice translations. Seed orbits coincide with connected components of the GKZ secondary fan, and the Hodge numbers of the associated Calabi—Yau hypersurfaces remain constant on each orbit. The seed invariant matrix is identified with the GLSM charge matrix, providing a natural toric-geometric interpretation of the construction. Four structural theorems: Seed Completeness, Orbit Connectivity, Hodge Invariance, and Exhaustiveness, together establish seed universality for the entire Kreuzer—Skarke dataset.

Abstract: Bedding serves a vital role in horse stable management. Although earlier research has examined stress responses to bedding materials, the effect of bedding types on these responses in horses of different sizes has not been studied. This study assessed the influence of bedding materials (straw vs rice husk) and body size (horses taller than the upper bar of the front gate [H1] vs shorter ones [H2]) on stress responses. Stress was evaluated using behavioural scores, recumbent time, and autonomic regulation via heart rate (HR) and heart rate variability (HRV). Microenvironmental variables such as relative humidity (RH), air temperature (AT), volatile organic compounds (VOCs), carbon dioxide (CO₂), particle counts (PC; PC1, 2.5 and 5) and fine particulate matter (PM; PM1, 2.5 and 5) were also recorded. No differences were observed in RH, AT, VOCs or CO₂ between stables with different bedding materials. However, PC (1, 2.5 and 5) and PM (1, 2.5 and 5) levels were higher in stables with rice husk than in those with straw. Beat-to-beat (RR) intervals increased, and HR decreased in both H1 and H2 horses on straw during the night (p < 0.05). H1 horses generally showed lower HR and higher RR intervals than H2 horses during housing, regardless of the bedding material used (p < 0.05–0.0001). Although bedding and body size affected behavioural scores and several HRV metrics, no significant within- or between-group differences were detected. These findings suggest that both bedding material and body size influence stress responses; however, short-term individual box housing may not provide sufficient stressors to produce significant differences.

Abstract: Quantum mechanics predicts measurement outcomes with remarkable accuracy, yet the physical mechanism responsible for measurement remains unspecified. Standard formulations treat collapse as an external postulate or informational update, leaving the origin of measurement outside the theory’s physical description. This paper proposes a mass-induced mechanism for quantum measurement within the framework of Quantum Substrate Dynamics (QSD), in which the observer is not a privileged entity but a coherence structure formed by stable matter interacting with propagating excitations. In QSD, stable matter forms mass-phase structures possessing finite coherence envelopes that evolve through discrete Causality Intervals (CIs) governing how the substrate can reconfigure. Massless excitations, such as photons, lack coherence envelopes and therefore cannot initiate collapse; they propagate only through geometric constraints imposed by nearby mass-phase structures. Measurement occurs when the coherence envelope of a mass-phase structure intersects a propagating excitation and enforces local CI pacing and curvature--compliance limits on the substrate. Collapse is therefore realized as a structural re-locking of the substrate, in which only configurations compatible with the local mass-phase environment can persist. This mechanism reproduces key empirical features of quantum experiments, including the material dependence of diffraction and detection, the emergence of interference patterns at mass-phase boundaries, and the absence of photon--photon interaction in free space. Within this framework, longstanding interpretational paradoxes---including Wigner's friend, Schr\"odinger's cat, contextuality, and delayed-choice interference---admit consistent physical explanations without invoking observer-dependent realities, global wavefunction collapse, or branching worlds. Quantum measurement therefore emerges as a mass-induced structural process, in which observation reflects the deterministic reconfiguration of the substrate under finite coherence and curvature constraints rather than an epistemic update or interpretational supplement.

Abstract: This paper introduces a novel theoretical framework in which wave energy serves as the fundamental basis for understanding the structure and dynamics of the universe. Within this model, elementary particles are interpreted as distinct vibrational modes of wave energy, while fundamental forces—such as gravity and electromagnetism—are represented as interference patterns arising from the interaction of these waves. Furthermore, spacetime is conceptualized as an emergent energy network formed by the multidimensional interference of wave energy. The framework incorporates the influence of extra spatial dimensions, offering new insights into phenomena such as dark matter and dark energy. Additionally, it provides corrected energy level calculations for the hydrogen atom that account for the effects of higher-dimensional contributions. The mathematical formulation is based on generalized wave equations in D-dimensions, with testable predictions for modified energy spectra.