Limitations Of Technology Research Articles

Exploring the intersection of digitalization and sustainability in oil palm production: challenges, opportunities, and future research agenda.

The increasing global demand for palm oil and its derivatives has led to significant environmental and social concerns, prompting the need for sustainable practices in oil palm production. In recent years, digital technologies have emerged as a potential solution to enhance sustainability in this sector. The objective of this review was to provide insights into the potential benefits and limitations of digital technologies in promoting sustainable practices in the oil palm industry, and to identify key challenges that must be addressed to ensure that digitalization contributes to sustainable development in this sector. To obtain valuable insights on this topic, this review employed a thorough analysis and exploration of relevant literature. Our findings highlight the transformative potential of digital technologies such as precision agriculture, data analytics, blockchain, and robotics to optimize resource utilization, improving efficiency, promoting social welfare, improving supply chain transparency, mitigating environmental impacts, and enhancing sustainability in oil palm production. However, the adoption of these technologies is hindered by several challenges, including high cost, lack of knowledge, and inadequate infrastructure. Our findings emphasize the importance of supportive policies, collaborative efforts, and targeted research to promote technology adoption and ensure equitable benefits across the oil palm industry. Recommendations are provided for industry stakeholders, policymakers, and researchers to leverage digitalization effectively and promote sustainable practices in the oil palm industry, ultimately contributing to global sustainability goals.

Heat transfer characteristic of an alumina oscillating heat pipe

Oscillating heat pipes (OHP) are a promising and highly efficient heat transfer technology especially in the field of power electronics thermal management. However, conventional metal OHP do not meet the need for insulation or low coefficients of thermal expansion. In order to expand the application field and break the application limitation of the OHP technology, alumina ceramic oscillating heat pipes was designed and investigated in this paper. The alumina OHPs combine the excellent insulating, oxidation-resistant, corrosion-resistant and low thermal expansion properties of alumina ceramic with the efficient heat exchange mechanism of oscillating heat pipe technology, exhibiting great application potential. An alumina flat-plate oscillating heat pipe was prepared, 6 internal microchannels were examined using micro-CT, and the microstructure was characterized using scanning electron microscopy. The heat transfer characteristics of the OHP charged with water were investigated using a heat transfer test system. Increasing heat loads were employed to the OHP, and the operating temperature of 20 °C and 60 °C as well as the orientation varied between 0° and 90° were also introduced. The oscillation motion of the alumina OHPs were investigated, including temperature oscillations before and after startup of the OHPs, and a comparison effective thermal conductivities at various tilt angles and operating temperatures was carried out. The experimental results revealed that the heat transfer performance of the alumina oscillating heat pipe significantly increased with the increased heat loads and reached to 861.7 W/(m∙K) at 56 W. The effective thermal conductivity of the OHP was 6 times higher than that of the empty OHP at heat load of 16 W. When the orientation was 30°, the temperature oscillation instability increased, the oscillation amplitude increased, and the heat transfer performance of the oscillating heat pipe decreased. As the operating temperature increased, the stability of temperature oscillations improved, the amplitude decreased, and heat transfer performance was enhanced.

Exploring oral bacterial compositional network in two oral disease groups using a convergent approach of NGS-molecular diagnostics.

Since most of the commonly known oral diseases are explained in link with balance of microbial community, an accurate bacterial taxonomy profiling for determining bacterial compositional network is essential. However, compared to intestinal microbiome, research data pool related to oral microbiome is small, and general 16S rRNA screening method has a taxonomy misclassification issue in confirming complex bacterial composition at the species level. Present study aimed to explore bacterial compositional networks at the species level within saliva of 39 oral disease patients (Dental Caries group: n = 26 and Periodontitis group: n = 13) through comparison with public Korean-specific healthy oral microbiome data. Here, we applied comprehensive molecular diagnostics based on qRT-PCR and Sanger sequencing methods to complement the technical limitations of NGS-based 16S V3-V4 amplicon sequencing technology. As a result of microbiome profiling at the genus level, relative frequencies of many nitrate-reducing bacteria within each oral disease group were found to be significantly low compared to the healthy group. In addition, the molecular diagnostics-based bacterial identification method allowed the determination of the correct taxonomy of screened primary colonizers (Streptococcus and Actinomyces unclassification clusters) for each oral disease. Finally, as with the results of microbiome profiling at the genus level, many core-species classified within the saliva of each oral disease group were also related to nitrate-reduction, and it was estimated that various pathogens associated with each disease formed a bacterial network with the core-species. Our study introduced a novel approach that can compensate for the difficulty of identifying an accurate bacterial compositional network at the species level due to unclear taxonomy classification by using the convergent approach of NGS-molecular diagnostics. Ultimately, we suggest that our experimental approach and results could be potential reference materials for researchers who intend to prevent oral disease by determining the correlation between oral health and bacterial compositional network according to the changes in the relative frequency for nitrate-reducing species.

Unveiling the human fetal-maternal interface during the first trimester: biophysical knowledge and gaps.

The intricate interplay between the developing placenta and fetal-maternal interactions is critical for pregnancy outcomes. Despite advancements, gaps persist in understanding biomechanics, transport processes, and blood circulation parameters, all of which are crucial for safe pregnancies. Moreover, the complexity of fetal-maternal interactions led to conflicting data and methodological variations. This review presents a comprehensive overview of current knowledge on fetal-maternal interface structures, with a particular focus on the first trimester. More in detail, the embryological development, structural characteristics, and physiological functions of placental chorionic plate and villi, fetal membranes and umbilical cord are discussed. Furthermore, a description of the main structures and features of maternal and fetal fluid dynamic exchanges is provided. However, ethical constraints and technological limitations pose still challenges to studying early placental development directly, which calls for sophisticated in vitro, microfluidic organotypic models for advancing our understanding. For this, knowledge about key in vivo parameters are necessary for their design. In this scenario, the integration of data from later gestational stages and mathematical/computational simulations have proven to be useful tools. Notwithstanding, further research into cellular and molecular mechanisms at the fetal-maternal interface is essential for enhancing prenatal care and improving maternal and fetal health outcomes.

The International Law Dilemma of Autonomous Weapon System

This paper aims to highlight the potential for serious humanitarian disasters caused by the rapid development of autonomous weapons systems, as they are currently unable to fully grasp the ability to analyze their targets and clearly distinguish between combatants and military targets due to current technological limitations. There is also controversy over whether autonomous weapons systems are combatants, and there is a certain degree of regulatory deficiencies in the field of international law. Existing international treaties are unable to perfectly regulate autonomous weapons systems and punish unlawful behavior. The paper mainly uses the method of analyzing specific problems based on legal principles and draws conclusions by referring to some cases. The conclusion of this paper is that the international community needs to establish a new, targeted international legal treaty, establish a more reasonable and realistic international soft law, establish and improve a broader international exchange system, and encourage countries to work together to solve this problem.

CRISPR technology in human diseases.

Gene editing is a growing gene engineering technique that allows accurate editing of a broad spectrum of gene-regulated diseases to achieve curative treatment and also has the potential to be used as an adjunct to the conventional treatment of diseases. Gene editing technology, mainly based on clustered regularly interspaced palindromic repeats (CRISPR)-CRISPR-associated protein systems, which is capable of generating genetic modifications in somatic cells, provides a promising new strategy for gene therapy for a wide range of human diseases. Currently, gene editing technology shows great application prospects in a variety of human diseases, not only in therapeutic potential but also in the construction of animal models of human diseases. This paper describes the application of gene editing technology in hematological diseases, solid tumors, immune disorders, ophthalmological diseases, and metabolic diseases; focuses on the therapeutic strategies of gene editing technology in sickle cell disease; provides an overview of the role of gene editing technology in the construction of animal models of human diseases; and discusses the limitations of gene editing technology in the treatment of diseases, which is intended to provide an important reference for the applications of gene editing technology in the human disease.

FDG-PET/MRI in colorectal cancer care: an updated systematic review.

Since its introduction in 2011, FDG-PET/MRI has been advocated as a useful adjunct in colorectal cancer care. However, gaps and limitations in current research remain. This systematic review aims to review the current literature to quantify the utility of FDG-PET/MRI in colorectal cancer care. An up-to-date review was performed on the available literature between 2000 and 2023 on PubMed, EMBASE, Medline, databases. All studies reporting on the use of FDG-PET/MRI in colorectal cancer care were analyzed. The main outcome measures were accuracy in initial staging, restaging, and detection of metastatic disease in both rectal as well as colon cancers. The secondary outcome was comparing the performance of FDG-PET/MRI versus Standard of Care Imaging (SCI). Finally, the clinical significance of FDG-PET/MRI was measured in the change in management resulting from imaging findings. A total of 22 observational studies were included, accounting for 988 patients. When individually compared to current Standard of Care Imaging (SCI)-MRI pelvis for rectal cancer and thoraco-abdominal contrast CT, PET/MRI proved superior in terms of distant metastatic disease detection. This led to as much as 21.0% change in management. However, the technological limitations of PET/MRI were once again highlighted, suggesting SCI should retain its place as first-line imaging. FDG-PET/MRI appears to be a promising adjunct in staging and restaging of colorectal cancer in carefully selected patients.

A Multimodal Perception-Enabled Flexible Memristor with Combined Sensing-Storage-Memory Functions for Enhanced Artificial Injury Recognition.

With the continuous advancement of wearable technology and advanced medical monitoring, there is an increasing demand for electronic devices that can adapt to complex environments and have high perceptual sensitivity. Here, a novel artificial injury perception device based on an Ag/HfOx/ITO/PET flexible memristor is designed to address the limitations of current technologies in multimodal perception and environmental adaptability. The memristor exhibits excellent resistive switching (RS) performance and mechanical flexibility under different bending angles (BAs), temperatures, humid environment, and repetitive folding conditions. Further, the device demonstrates the multimodal perception and conversion capabilities toward voltage, mechanical, and thermal stimuli through current response tests under different conditions, enabling not only the simulation of artificial injury perception but also holds promise for monitoring and controlling the movement of robotic arms. Moreover, the logical operation capability of the memristor-based reconfigurable logic (MRL) gates is also demonstrated, proving the device has great potential applications with sensing, storage, and memory functions. Overall, this study not only provides a direction for the development of the next-generation flexible multimodal sensors, but also has significant implications for technological advancements in many fields such as robotic arms, electronic skin (e-skin), and medical monitoring.

Cross-section extraction and model reconstruction of lava tube based on L1-medial skeleton

Lunar lava tube caves, due to their unique geographical structure and potential as shelters, have repeatedly emerged as prime candidates or priority areas during discussions on lunar base site selection. However, owing to current technological limitations and the complexities of lunar exploration, obtaining detailed data directly from the interiors of lunar lava tubes poses a significant challenge. Hence, the study of terrestrial lava tubes assumes critical importance. By delving into Earth’s lava tubes, we can gain insights into crucial aspects such as their formation mechanisms, geological characteristics, and stability, which can then inform and guide research on lava tubes found on extraterrestrial bodies like the Moon and Mars. During the data acquisition process for lava tubes, given their intricate spatial configurations and dim lighting conditions, we have opted to employ LiDAR technology to collect point cloud data, revealing the internal structural information of the lava tubes. Consequently, this paper thoroughly explores a method for extracting lava tube parameters and constructing models using this point cloud data. This approach encompasses four key steps: data preprocessing, axis construction of the lava tube, cross-sectional feature extraction, and 3D model reconstruction. Initially, raw data is refined through the creation of point cloud voxels to mitigate noise interference. Subsequently, an iterative algorithm is utilized to obtain the L1-medial skeleton, enabling precise capture of the lava tube’s axis information. Using this extracted axis, we proceed with sampling at fixed intervals to derive cross-sectional points of the lava tube. These points are then utilized to extract fundamental geometric parameters such as cross-sectional area, length, and width. Ultimately, by integrating all these cross-sectional point cloud data, a comprehensive 3D model of the lava tube is constructed. Remarkably, this method achieves a high degree of accuracy, with 99 % of the extracted cross-sectional points exhibiting an error of less than 0.12 m, and 99 % of the model’s positional errors falling within 0.15 m. This not only enhances the precision of parameter extraction but also provides significant technical support for in-depth studies of extraterrestrial volcanic activities and lava tube formation mechanisms. Furthermore, it offers a valuable tool for parameter extraction and research on other irregular natural tunnels.

Gas-Phase Unfolding Reveals Stability Shifts Associated with Substrate Binding in Modular Polyketide Synthases.

Native mass spectrometry (MS), ion mobility (IM), and collision-induced unfolding (CIU) have all been widely used to study the binding of small molecules to proteins and their complexes. Despite many successes in detecting subtle gas-phase stability differences in smaller systems dominated by single-domain subunits, studies targeting complexes comprised of large, multidomain subunits still face many challenges. For example, polyketide synthases (PKSs) are multiprotein enzymes that use their modular architecture to produce polyketide natural products and form the basis for nearly one-third of pharmaceuticals. Here, we describe the development of CIU methods capable of extracting information from these multiprotein complexes and demonstrate the current limits of quantitative CIU technology by probing the stabilities ∼280 kDa PKS dimer protein complexes. Our approach detects the evidence of the stability shifts associated with substrate binding that accounts for <0.1% of the mass for the intact assembly.

Technology-Related Safety Events in Primary and Community Care Settings: A Scoping Review.

This scoping review assesses the current knowledge on technology-related safety events in primary and community care settings, focusing on patient safety and harm. Utilizing Arksey and O'Malley's methodological framework, a comprehensive literature search was conducted across various databases, yielding 17 relevant articles. The review highlighted predominant safety event issues, such as technology limitations, incorrect data, and software malfunctions, and identified essential risk mitigation strategies. Consultation with healthcare leaders reinforced these findings and revealed additional organizational challenges, emphasizing the need for continuous monitoring, reporting, and analyzing of HIT-related safety concerns. The findings suggest that while safety events in non-acute settings share similarities with those in acute care, they require specific attention and further research.

Scaling-Free Cathodes: Enabling Electrochemical Extraction of High-Purity Nano-CaCO3 and -Mg(OH)2 in Seawater.

For electrochemical application in seawater or brine, continuous scaling on cathodes will form insulation layers, making it nearly impossible to run an electrochemical reaction continuously. Herein, we report our discovery that a cathode consisting of conical nanobundle arrays with hydrophobic surfaces exhibits a unique scaling-free function. The hydrophobic surfaces will be covered with microbubbles created by electrolytic water splitting, which limits scale crystals from standing only on nanotips of conical nanobundles, and the bursting of large bubbles formed by the accumulation of microbubbles will cause a violent disturbance, removing scale crystals automatically from nanotips. Benefiting from the scaling-free properties of the cathode, high-purity nano-CaCO3 (98.9%) and nano-Mg(OH)2 (99.5%) were extracted from seawater. This novel scaling-free cathode is expected to eliminate the inherent limitations of electrochemical technology and open up a new route to seawater mining.

Peran Inovasi dalam Pengembangan Model Bisnis UMKM di Era Digital

The digital era has brought significant changes to various aspects of life, including the business world. Information and Communication Technology (ICT) offers new opportunities for Micro, Small, and Medium Enterprises (MSMEs) to innovate and enhance their competitiveness through various aspects such as products, processes, and business models. MSMEs play a crucial role in the Indonesian economy, contributing approximately 60% to Gross Domestic Product (GDP) and absorbing over 97% of the workforce. Despite this, MSMEs often face challenges such as limitations in capital, technology, and market access. Digital transformation presents great potential to address these challenges by improving operational efficiency, expanding market reach, and developing more relevant products and services. Business model innovation, which involves the use of digital technology to create effective solutions, can enhance MSME performance, as demonstrated by previous research. However, barriers such as limited resources and digital skills often hinder technology adoption. This research aims to examine the role of innovation in the development of MSME business models in the digital era, focusing on the utilization of digital technology, success factors of innovation, and impacts on business performance. Additionally, the study will explore strategies to overcome obstacles in the innovation process. The research is expected to provide in-depth insights and practical recommendations for MSMEs in developing innovative and sustainable business models in the digital era.

Occurrence of Microplastics in the Atmosphere: An Overview on Sources, Analytical Challenges, and Human Health Effects

The rapid spread and accumulation of microplastics (MPs) in environmental ecosystems result from extensive plastic usage. MPs have been found in both indoor and outdoor air. Outdoor MP levels vary widely across global cities, with reported ranges from 36 to 118 MPs m−2 day−1. However, differing measurement units complicate comparisons. Indoor MPs are particularly concerning due to the significant amount of time people spend indoors. For instance, MP concentrations in workplaces like reception areas and nail salons were found to be 309 ± 214 and 46 ± 55 MPs m−3, respectively. Technological limitations hinder the identification of MPs, with methods like µ-ATR-FTIR, µ-FTIR, and µ-Raman identifying MPs of different sizes. MPs smaller than 0.3 µm pose a health risk as they can be internalized in lung cells, while MPs larger than 10 µm are too large to enter alveolar macrophages. This review highlights the current understanding of airborne MPs, focusing on their sources, transport, and deposition mechanisms. It aims to provide a foundation for further studies to deeply assess the presence, abundance, and occurrence of MPs in aerosols, a subject that remains underexplored.

Solar Power Electric Vehicle

The integration of solar power with electric vehicles (SPEVs) represents a significant advancement towards sustainable transportation solutions. This paper explores the feasibility, advantages, challenges, and future prospects associated with SPEVs through a comprehensive review of literature and analysis. Key findings highlight the potential of SPEVs to reduce greenhouse gas emissions, enhance energy security, and provide long-term cost savings despite facing barriers such as high initial costs and technological limitations. The paper concludes with recommendations for policymakers, researchers, and industry stakeholders to accelerate the development and adoption of SPEVs in the automotive sector.

Bio-based resources: systemic & circular solutions for (agro)environmental services.

The global promotion of decarbonisation through the circular solutions and (re)use of bio-based resources (BBR), i.e. waste streams, notably from the agricultural, forest and municipal sectors has steadily increased in recent decades. Among the transformative solutions offered by BBR, biosolids (BS), biochars (BC), and bioashes (BA) specifically attract scientific attention due to their highly complex organo-mineral matrices, which present significant potential for recovery in the agro-/forest-ecosystems. These materials enhance various soil (i) chemical (pH, macro/micro nutrient concentrations, organic matter content), (ii) physical (porosity, water-air relations, compaction) or (iii) microbial (diversity, activity) properties. Furthermore, some of transformed BBR contribute to a multitude of environmental services such as the remediation of contaminated sites and wastewater treatment, employing cost-effective and eco-friendly approaches that align with circular economy/waste management principles, ultimately contributing to climate change mitigation. However, several challenges impede the widespread utilization/transformation of BBR, including technological limitations in processing and application, concerns about contamination (e.g., PAHs, PCBs, micro/nano plastics present in BS), toxicity issues (e.g., heavy metals in BA or nanoparticles in BC), and regulatory constraints (e.g., non-uniform regulations governing the reuse of BA and BS). Addressing these challenges demands an interdisciplinary and intersectoral approach to fully unlock the potential of BBR in sustainable decarbonisation efforts.

Exploring the viability of Virtual Reality as a teaching method for knee aspiration

Knee arthrocentesis is a simple procedure commonly performed by general practitioners and junior doctors. As such, doctors should be competent and comfortable in performing the technique by themselves; however, they need to be adequately trained. The best method to ensure practitioner proficiency is by optimizing teaching at an institutional level, thus, educating all future doctors in the procedure. However, the Coronavirus Disease 19 (COVID-19) pandemic caused significant disruption to hospital teaching for medical students which necessitated investigating the effectiveness of virtual reality (VR) as a platform to emulate hospital teaching of knee arthrocentesis. A workshop was conducted with 100 fourth year medical students divided into three Groups: A, B and C, each receiving a pre-reading online lecture. Group A was placed in an Objective Structured Clinical Examination (OSCE) station where they were assessed by a blinded orthopaedic surgeon using the OSCE assessment rubric. Group B undertook a hands-on practice station prior to assessment, while Group C received a VR video (courtesy of the University of Adelaide’s Health Simulation) in the form of VR headset or 360° surround immersion room and hands-on station followed by the OSCE. Upon completion of the workshop, students completed a questionnaire on their confidence with the procedure and the practicality of the VR station. OSCE scores were compared between Groups B and C to investigate the educational value of VR teaching. On average, students with VR headsets reported higher confidence with the procedure and were more inclined to undertake it on their own. Students in Group C who used the VR station prior to assessment scored higher than the non-VR Groups (Group A, 56%; Group B, 67%; Group C 83%). Students in Group A had statistically significant results on average compared to those in Group B (t(69) = 3.003, p = 0.003), as do students in Group B compared to Group C (t(62) = 5.400, p < 0.001). Within Group C students who were given VR headsets scored higher than immersion room students. The VR headset was beneficial in providing students with a representation of how knee arthrocentesis may be conducted in the hospital setting. While VR will not replace conventional in-hospital teaching, given current technological limitations, it serves as an effective teaching aid for arthrocentesis and has many other potential applications for a wide scope of medicine and surgical training.

Implementation of Online Teacher Professional Development Programs: Physical Education Teacher Perspectives

One current focus in education is the importance of developing professionalism among physical education teachers to meet the demands and challenges of physical education in the 21st century. Several challenges faced by physical education teachers in implementing online professional development programs include limited access to technology, reduced social interaction, and difficulties in assessing and providing immediate feedback. Additional challenges that require further investigation include the relevance of content and its adaptation specifically to the physical education curriculum and practical contexts. The relevance of physical education teachers' understanding of online professional development programs involves program design and improvement, professional growth and efficacy, implementation and adoption, policy, and advocacy. This study aims to explore the perspectives of physical education teachers on participating in online professional development programs. The method used is quantitative research with a descriptive quantitative design. The sampling technique employed is census sampling, involving all members of the population in the survey, thus including 245 teachers from across Indonesia who are participating in the online development program. The results show that over 80% of participants were able to receive and assimilate the material provided by instructors through a Learning Management System (LMS) during the specified duration of the online teacher development program. Indeed, more than 75% of participants were able to not be disturbed by network issues in their area. Significant differences were reported beyond these percentages, including differences in age groups, teaching experience, and geographical location. Other findings from this study reveal that more than 50% of participants were not interested in the online teacher development program. Factors causing this lack of interest include limited social interaction, digital fatigue, mistrust in effectiveness, and limitations in technology and internet access. The practical implications of these findings are to enhance interactivity, address digital fatigue, improve content relevance, and provide technological support. Future research directions on this topic include longitudinal studies to evaluate the long-term impact of online learning programs on teaching practices and learning outcomes, aiming to identify ongoing changes and improvements in teaching practices. Key Words: Implementation, Perception, Physical Education, Teacher Professional Development

Implementation of Telemedicine in Medical Practice: Opportunities and Barriers

The integration of telemedicine into medical practice represents a transformative shift in healthcare delivery, offering both unprecedented opportunities and encountering significant barriers. This journal article explores the implementation of telemedicine, examining the multifaceted landscape of benefits and challenges associated with its adoption in medical settings. The opportunities presented by telemedicine include enhanced accessibility to healthcare services, especially in remote or underserved areas, improved patient outcomes through timely interventions, and increased efficiency in healthcare delivery. Telemedicine also facilitates remote patient monitoring, teleconsultations, and the exchange of medical information, contributing to a more patient-centric and adaptable healthcare system. However, the implementation of telemedicine faces several barriers, including regulatory complexities, concerns about data security and privacy, technological infrastructure limitations, and the need for healthcare professionals to adapt to new modes of communication. Cultural and organizational resistance further complicates the seamless integration of telemedicine into established medical practices. The article critically analyzes case studies and global implementations of telemedicine, highlighting successful models and lessons learned. It emphasizes the importance of policy frameworks, standardization, and ongoing training for healthcare providers to optimize the benefits of telemedicine while mitigating potential risks.

Decolorization, degradation, and detoxification of textile dye and efficient hydrogen production by highly-stable MIL-177-LT@NiFe-LDH photoelectrocatalyst: Mechanism and economical studies

Combining organic compounds with inorganic layers leads to the development of innovative organic-inorganic hybrid materials with specific functional properties, opening up possibilities for advanced applications that go beyond current technological limits. In the present study, Ti-MOF (MIL-177-LT) was decorated with NiFe layered double hydroxide (NiFe-LDH) to fabricate a heteroatom electrocatalyst (MIL-177-LT@NiFe-LDH). The synthesized electrode included capable electron transportation, long-term stability, and high specific surface area. Photoelectrocatalytic degradation of the Azo dye (Acid Red 18) from water was studied with respect to the influence of pH, bias potential, temperature, and dye concentration. It was found that hydrogen evolution reaction (HER) has minimized overpotentials, i.e., 130 and 182 mV corresponding to the current densities of 400 and 1000 mA cm−2, respectively. High stability was also observed when a current density of 5000 mA cm−2 was applied to the modified electrode for 500 h. The layered architecture of the MIL-177-LT@NiFe-LDH composite provides high surface points for the degradation of dye molecules and water splitting for HER. The electrocatalyst showed great stability in the degradation process. The experiment was powered by solar cells, reducing the need for electricity and resulting in cost savings. Additionally, the treatment process was analyzed in terms of costs. Therefore, a promising approach is suggested in this study for developing high-performance organic-inorganic hybrid materials with exceptional electrochemical and photocatalytic properties.