Industrial Requirements Research Articles

Commerce and Management Education in India: 21st Century

Commerce and Management education in India has undergone significant transformations in the 21st century, driven by globalization, technological advancements, and changing market dynamics. This abstract provides a concise overview of the evolution, challenges, and prospects of commerce and management education in India during this era, Evolution: The 21st century witnessed a paradigm shift in commerce and management education in India. Traditional classroom teaching evolved into experiential learning methodologies, incorporating case studies, internships, and industry collaborations. The emergence of digital platforms facilitated distance learning, enabling access to quality education beyond geographical constraints. Additionally, interdisciplinary studies gained prominence, emphasizing holistic skill development among students. Challenges: Despite progress, commerce and management education in India face several challenges. Outdated curricula often fail to align with industry requirements, leading to a gap between academia and the corporate world. Quality assurance remains a concern, with issues like faculty shortages and infrastructure deficiencies affecting educational standards. Moreover, the rapid pace of technological advancements necessitates constant curriculum updates to ensure relevance and competitiveness. Prospects: The future of commerce and management education in India holds promising opportunities. Integration of emerging technologies such as artificial intelligence and data analytics into curriculum design can enhance students’ analytical and decision-making skills. Collaborations with industry players for skill-based training programs can bridge the gap between academia and industry expectations. Moreover, fostering entrepreneurship and innovation through incubation centres and startup initiatives can nurture a culture of creativity and enterprise among students. Conclusion: In conclusion, commerce and management education in 21st century India has evolved significantly to adapt to the dynamic global landscape. While challenges persist, such as outdated curricula and quality assurance issues, promising prospects lie ahead. By embracing technological advancements, fostering industry-academia collaborations, and promoting entrepreneurial spirit, India can further enhance the quality and relevance of commerce and management education, preparing students to thrive in the competitive global economy of the 21st century.

Synergistic CO2 capture using PANI-polymerized UiO-66 embedded in PEBAX mixed matrix membranes

In this study, mixed-matrix membranes (MMMs) were fabricated using a composite of UiO-66 and polyaniline (PANI) integrated into a polyether-block-amide (PEBAX) matrix. The successful synthesis of the UiO-66 and PANI@UiO-66 composites and their incorporation into the PEBAX matrix were validated through X-Ray Diffraction (XRD), Scanning Electron Microscopy (SEM), Fourier Transform Infrared (FTIR) Spectroscopy, Brunauer–Emmett–Teller (BET) analysis, and Thermogravimetric Analysis (TGA). Quantitative permeation tests revealed that the CO2 permeability in UiO-66 based MMMs increased by 90 % at 30 % filler loading (from 82 to 156 Barrer), and by 45 % (from 82 to 119 Barrer) in PANI@UiO-66 based MMMs, alongside substantial improvements in selectivity. For UiO-66 membranes we observed a selectivity drop for both gas pairs (CO2/CH4 and CO2/N2) that led to our motivation to modify the MOF. The CO2/CH4 selectivity of the PANI@UiO-66 based MMMs enhanced from 22 to 29 (34%) and the CO2/N2 selectivity from 48 to 57 (18%). Mixed-gas permeation tests further confirmed the efficacy of the membranes in real-world separation scenarios. The diffusivity and solubility results provide insights into the gas transport mechanisms, revealing the synergistic effects of filler incorporation on membrane performance. The integration of UiO-66 and PANI with PEBAX offers a promising pathway for developing efficient and effective gas separation technologies, aligning with the industrial requirements for environmental sustainability and energy efficiency.

A soft scanning electron microscopy for efficient segmentation of alloy microstructures based on a new self-supervised pre-training deep learning network

To provide an on-site metallographic segmentation using only optical microscopy images, sSEM-Net, a soft scanning electron microscopy network, is developed based on a self-supervised pre-training deep learning framework. During model training, only a sparse collection of SEM images is necessary for annotation assistance. By integrating CNN and Transformer, sSEM-Net efficiently utilizes global context information while mitigating data dependency and computational resource constraints. Using only readily available optical microscopy images as input, sSEM-Net achieves metallographic segmentation comparable to SEM images, catering to rapid and cost-effective industrial needs. This methodology leverages non-destructive inspection attributes, catering to rapid and cost-sensitive industrial requirements. The efficacy of the proposed sSEM-Net is demonstrated through metallographic structure analysis of TC4 titanium alloy, with potential extensions to other alloy types.

Assessment of surface quality and damages induced during dry helical milling of hybrid composite fiber metal laminates

Abstract The present work investigates the effectiveness of helical milling for making holes with excellent surface quality in carbon fiber aluminum laminates (CARALL) under dry-cutting conditions. The impact of cutting speed and axial pitch on hole surface quality was analyzed. The findings show that axial pitch and cutting speed significantly impact surface roughness. Utilization of lower cutting speed (30 m/min) and axial pitch (0.1 mm/rev) results in material adhesion and feed marks, thus lowering the surface roughness. Nevertheless, the surface finish was enhanced by using higher levels of process variables. Surface defects like chip adhesions, deformation marks, and material smearing were observed. The orientation of the cutting edge with the fibers greatly influenced the surface morphology. Exposed fibers with varying lengths were noted when machining fiber layers oriented at 135°, thus creating an irregular surface. Scanning Electron Microscopic observation of the carbon fiber layers displayed a cleanly cut surface without fiber pullout and crack or interlayer burrs. Moreover, the holes in the CARALL were devoid of delamination/debonding for all the combinations of process variables. In general, results demonstrate the suitability of helical milling for processing holes with superior surface quality and satisfying the stringent requirements of the aircraft industries.

PERFORMANCE EVALUATION OF OLD VINE VARIETIES IN THE CONTEXT OF ECOPEDOCLIMATIC CHALLENGES AT INCDBH ȘTEFĂNEȘTI, ARGEȘ

This scientific paper analyzes the agrobiological and technological characteristics of the old autochthonous ancestral grapevine varieties, focusing on the specific ecopedoclimatic conditions of the Ștefănești vineyard, Argeș, in the context of contemporary climate challenges. The study conducted in 2024 at INCDBH Ștefănești examined five distinct varieties: Ardeleanca, Coada oilor, Galbenă uriașă, Gordan, and Coarnă neagră. Advanced analytical techniques were applied to assess fertility, facilitating a thorough understanding of agrobiological dynamics. Additionally, technological variables reflecting productivity, yield, and the biochemical traits of the grapes were investigated. The results obtained highlight a significant variability in phenotypic responses, emphasizing the resilience of these ancestral varieties in the face of climatic stress. The correlations identified between analytical characteristics and sensory traits emphasize their relevance in shaping effective strategies for sustainable viticulture. This paper aims not only to rejuvenate interest in the native viticultural heritage but also to promote the integration of these ancestral varieties into the contemporary viticultural landscape, thereby contributing to the development of viable solutions that meet the sustainability requirements of the wine industry.

Bridging the Gap Between Industry Needs and Student Skills for Quality Education Through Sdgs: An Industry-Academia Collaboration in Curriculum Development

Objective: This study aims to explore the intricate relationship between student skills and industry demands, proposing a robust Industry-Academia Collaboration (IAC) framework to enhance curriculum alignment with dynamic industry requirements, thereby contributing to quality education and sustainable development goals (SDGs). Theoretical Framework: Grounded in Action Research, this study adopts a post-positivist approach to examine and address real-world educational challenges. By embedding critical thinking and participatory research, the framework aims to foster a symbiotic relationship between academia and industry. Method: Utilizing insights from two action research studies conducted in collaboration with universities, this method emphasizes iterative development and participatory research. The approach is centered on continuous engagement with industry partners, allowing for ongoing refinements and adaptations in educational strategies and interventions. Results and Discussion: Findings reveal that sustained Industry-Academia Collaboration facilitates multiple iterations of curriculum refinement, leading to enhanced alignment with industry needs and improved educational outcomes. The collaborative process not only bridges the skill gap but also fosters a deeper understanding of the practical application of academic knowledge in real-world settings. Research Implications: The study highlights the critical role of iterative collaboration in curriculum development, suggesting that such approaches are essential for achieving SDG 4, which focuses on quality education. Originality/Value: This research contributes to the literature by demonstrating how action research can effectively enhance Industry-Academia Collaboration, thereby supporting the integration of SDGs into curriculum development.

The Need for Integrating Cloud-Based Project Management Tools in IT Curricula: Insights from Sri Lanka’s Software Industry

Cloud-based project management software is heavily used in the software development industry, with cloud computing advancements. As such software usage is becoming popular in the industry, empirical evidence suggests that investigating the efficient integration of cloud-based project management software into Information Technology degree programmes is crucial in bridging the gap between university education and industry requirements. Therefore, this mixed-method study was carried out in Sri Lanka, where the software development industry is a significant player in the service sector. To analyse the current uptake of such software, 102 firms were given a closed-ended questionnaire. The fact that 93% of respondents are using these tools and that they specified that their use is crucial for project success suggests that they should be integrated into the academic curricula of IT degrees. Thirteen interviews were also done with industry professionals. The thematic analysis showed that professionals who had studied using cloud-based project management software in their degrees found it easier to adopt them in the workplace than those who had not, suggesting the need for integrating them into academic curricula. Effective integration strategies included offering cloud-based project management tools as practical components required for use in projects, industry-led workshops, and online courses as assignments. These results can help higher education establishments improve their curricula, including the latest industry practices, to bridge the gap between academic and industry requirements.

Degrees of Freedom: Rethinking Higher Education Credentials in South Africa

The shifting landscape of higher education and the labour market has necessitated re-evaluating conventional degree programmes, leading to an exploration of macro-credentialing as a link between university offerings and industry requirements. This paper examines the traditional dominance of the degree and the concurrent rise of strategic partnerships between higher education institutions and businesses, with the goal of developing credentials more closely aligned with the dynamic needs of the modern workforce. Traditionally, university degrees have been viewed as the bedrock of educational achievement and a prerequisite for professional success. However, rapid technological advancements and changing economic demands have exposed limitations in the degree model, particularly its often inflexible curriculum and lengthy completion time. Consequently, there is growing interest, especially within Private higher education, in macro-credentialing, which encompasses an array of non-degree awards that can be directly linked to specific skill sets and employment opportunities. Through qualitative analysis of partnership models across diverse industries and countries, this study identifies core elements contributing to the successful integration of macro-credentials into educational and professional spheres. These elements include co-creating curricula (between industry and the university), shared governance structures between educational and corporate entities, and robust assessment methodologies that validate learner competencies consistent with industry standards. Additionally, the study explores potential challenges and resistance within academia and industry, including credential recognition issues, balancing theoretical knowledge versus practical skills, and economic impacts on traditional degree pathways. It proposes strategic approaches to mitigate these challenges, emphasising the importance of transparency, stakeholder engagement, and continuous evaluation. The incorporation of macro-credentialing via university (both public and private), TVET college and Community College - Business partnerships possesses considerable potential to tackle future student discipline trajectories, the dire unemployment of South African youth and the growing needs of upskilling via life-long learning. It demands continuous innovation in educational models to guarantee they promote individual career achievements and societal progress in an increasingly intricate global economy. This paradigm transition from the conventional degree to a more adaptable, competency-based credentialing structure signifies a crucial development in matching education and industry.

The Impact of Digital Transformation on Service Models and Employee Skill Requirements in Taiwan's Real Estate Brokerage Industry

This paper investigates how digital transformation impacts service delivery models and employee skill requirements in Taiwan's real estate brokerage industry. Through a multiple-case comparison approach, data was collected from 200 participants across real estate firms to examine organizational adaptation to technological change. The research employed structural equation modeling and hierarchical linear modeling to analyze relationships between compensation satisfaction (β = 0.45, p < 0.001), digital competency levels, and internal case circulation patterns. Results demonstrate that digital technologies significantly reshape brokerage operations, with digitalized companies achieving 32% higher client acquisition rates and 45% reduction in transaction processing time. Analysis reveals that employee digital literacy accounts for 28% of performance variance, while organizational support systems explain 23% of technology adoption rates. The findings extend service innovation literature by establishing empirical links between compensation systems and digital transformation success, providing a practical framework for technology integration in Taiwan's real estate sector. This research offers evidence-based recommendations for firms implementing digitalization strategies and developing employee capabilities in response to industry evolution.

Creating and using Exclusive Technologies to Gain a Competitive Edge in the Southern Region of Nigeria

This article examined the crucial significance of proprietary technologies in promoting competitive advantage among enterprises in South-South Nigeria, an area of economic importance renowned for its abundant natural resources and growing industries. The study underscores the significance of technical advancement in crucial industries such as oil and gas, agriculture, and manufacturing while drawing attention to the distinct obstacles and prospects in the area. Despite making progress, the southern region of Nigeria, known as the South-South, still encounters major obstacles such as insufficient financing for research and development, restricted availability of state-of-the-art technology, a scarcity of highly qualified personnel, and ineffective frameworks for protecting intellectual property rights. The research examined the present condition of proprietary technology development, identify key barriers, and evaluate the effect on competitive advantage. Research indicates that increasing investment in research and development, boosting technical infrastructure, aligning educational curricula with industrial requirements, and strengthening the intellectual property rights framework are crucial measures for fostering technological innovation and creating economic diversity in the area. Keywords: Advancements in technology, Exclusive Technologies, Strategic advantage over competitors, Research and Development, Intellectual Property Rights.

Optimization of Filling Material Ratio in Yellow Phosphorus Slag Mine.

Yellow phosphorus slag has been considered as a potential cement substitute for mine filling material due to its cementing activity; however, its slow setting and low early strength have limited broader use. This study investigates the grading, compactness, and strength of yellow phosphorus slag combined with tailing sand. Using yellow phosphorus slag as an aggregate, cement as a binder, and mixing tailing sand in different ratios, this study evaluates its feasibility as a coarse aggregate in mine backfill. The key findings are as follows. (1) The grading index of tailing sand was 0.5, aligning with Fuller grading, but it required mixing with coarse aggregates to enhance strength and reduce cement consumption. Yellow phosphorus slag, with a grading index of 0.97, does not match Fuller's curve and thus benefits from mixing with tailing sand. (2) For mixtures of waste rock and tailings, the 5:5 ratio aligned closely with Fuller's theory, showing optimal packing density and strength. Mixtures of yellow phosphorus slag and tailings at ratios of 3:7, 4:6, and 5:5 had R2 values of 0.73, 0.80, and 0.85, respectively, confirming reliable fit. The 5:5 mixture provided the best packing density and strength. (3) A new strength prediction model, accounting for aggregate, cement, and water effects, suggests that a 5:5 ratio with a 71% mass concentration and 1/7 ash-sand ratio meets industrial strength requirements. FLAC3D simulations indicated that cemented backfill reduces stress concentrations caused by excavation and supports stability during mining while also absorbing energy through compaction, creating favorable conditions for safe mining operations.

A Questionnaire-based Research and Analysis Report on the Demand and Status of Language Services in the Energy and Power Industry in Hebei Province

This report analyzes the demand for language service professionals in Hebei’s energy and power industry from three key perspectives: enterprise requirements, translation education, and student employment planning. The 45 valid questionnaires cover four key aspects related to enterprises including the business scope, international business activity, language service team building and employment requirements. Despite the energy and power industry in Hebei Province have made significant strides in international collaboration, there is a gap between professional training and industry requirements. Enterprises demand language service personnel to maintain proficiency in terminology, have industry knowledge, master technical competence, and own international communication skills that most translation students lack. It can be seen that there are issues with the alignment between educational content and the actual need of enterprises. In addition, the results from teachers’ survey identified challenges in terms of aspects of teaching methods, curriculum setting, and the cooperation with enterprises. The report thus recommends to enhance the professional skills and industry knowledge of energy and power language services of translation students through various measures, including establishing professional knowledge bases and terminology bases of energy and power, designing relevant courses and practical projects, and strengthening school-enterprise cooperation. By performing these practices, it could better adapt to the future energy and power industry market demand. Furthermore, this report emphasizes that the education system needs to better adapt to the development of the industry, especially in the cultivation of interdisciplinary language service capabilities, and strengthen cooperation with energy and power companies to jointly develop language service talent training programs that meet the specific needs of the industry.

The Shear Performance of an Aircraft off Pin Made of Quartz Fiber Reinforced Phenolics: The Effect of the Fiber Distribution Property.

Emergency breakaway pins (EBPs) have been widely used in aircraft, especially in the suspension connection between the engine device and the airfoil. Currently, the existing EBPs, which are made of metal materials, barely satisfy the lightweight requirement of the airplane industry. Thus, the construction of a novel EBP with quartz fiber reinforced phenolics is proposed in this study, and the shear response is examined experimentally using a double-sided shear test. The effect of the fiber distribution characteristic on the shear strength is then assessed quantitatively. The failure patterns, including the damage morphology of the two types of samples were then reconstructed using scanning electron microscopy (SEM). Experimental results showed that the breakaway composite pin fabricated by the laminated composite had a superior shear response than its counterpart with randomly distributed fibers for its uniaxially distributed fiber yarns provided a longer put-out damage trace that contributed to a higher shear-loading bearing capacity for the entire composite EBP. In specific, the average values of the shear strength and the shear stiffness for the former samples were higher by 61% and 22%, respectively, than that for the latter samples. Additionally, the composite EBP also has an excellent combination of lightweight advantage and stronger shear-bearing capacity over competing pins, providing novel insight for more secure designs for civil and military aviation.

Production Simulation of Stimulated Reservoir Volume in Gas Hydrate Formation with Three-Dimensional Embedded Discrete Fracture Model

Natural gas hydrates (NGHs) in the Shenhu area of the South China Sea are deposited in low-permeability clayey silt sediments. As a renewable energy source with such a low carbon emission, the exploitation and recovery rate of NGH make it difficult to meet industrial requirements using existing development strategies. Research into an economically rewarding method of gas hydrate development is important for sustainable energy development. Hydraulic fracturing is an effective stimulation technique to improve the fluid conductivity. In this paper, an efficient three-dimensional embedded discrete fracture model is developed to investigate the production simulation of hydraulically fractured gas hydrate reservoirs considering the stimulated reservoir volume (SRV). The proposed model is applied to a hydraulically fractured production evaluation of vertical wells, horizontal wells, and complex structural wells. To verify the feasibility of the method, three test cases are established for different well types as well as different fractures. The effects of fracture position, fracture conductivity, fracture half-length, and stimulated reservoir volume size on gas production are presented. The results show that the production enhancement in multi-stage fractured horizontal wells is obvious compared to that of vertical wells, while spiral multilateral wells are less sensitive to fractures due to the distribution of wellbore branches and perforation points. Appropriate stimulated reservoir volume size can obtain high gas production and production efficiency.

Modular design and custom development in ERP systems

Abstract. Enterprise Resource Planning (ERP) systems are integral to modern business operations, offering streamlined processes and enhanced efficiency. This paper explores the advantages and disadvantages of modular design in ERP systems and examines custom development methods to address unique industry requirements. The study highlights the benefits of modular design, such as flexibility, scalability, and reduced complexity, while also addressing challenges like integration issues and system fragmentation. Strategies for efficient module integration, including standardized protocols and middleware solutions, are discussed to mitigate these challenges. Custom development methods, including vendor tools, scratch-built modules, and third-party collaborations, are analyzed for their effectiveness in achieving tailored ERP solutions. Case studies from the manufacturing, healthcare, and retail industries illustrate the practical applications and outcomes of modular ERP systems, providing insights into the implementation process and potential obstacles. The findings underscore the importance of careful planning, stakeholder involvement, and comprehensive training to ensure successful ERP system deployment and utilization.

Boosting MgO hydration through sodium bicarbonate: Enhancing the strength of MgO-calcined clay cementitious materials

The slow early strength development of MgO-calcined clay cementitious materials poses significant challenges in meeting industrial requirements, thereby limiting their large-scale application. To address this issue, this study employed 1 wt% of sodium bicarbonate to activate the MgO-calcined clay cementitious materials and compared its effectiveness with that of two commonly used early strength agents: calcium chloride and sodium sulfate. The results demonstrated that sodium bicarbonate promoted strength development more effectively than both calcium chloride and sodium sulfate. This enhanced performance was attributed to the superior ability of sodium bicarbonate to facilitate the dissolution of the Mg(OH)2 surface layer formed during the hydration of MgO. Consequently, the reactivity of MgO was improved, leading to the formation of more hydration products. This study provides a pathway for the activation and application of MgO-calcined clay cementitious materials.

Review of Ni-Based Materials for Industrial Alkaline Hydrogen Production.

Hydrogen has been recognized as a green energy carrier, which can relieve energy shortage and environmental pollution. Currently, alkaline water electrolysis (AWE) driven by renewable energy to produce large-scale green hydrogen is a mainstream technology. However, tardy cathodic hydrogen evolution reaction (HER) and stability issue of catalysts make it challenging to meet the industrial requirements. Ni-based materials have attracted wide attention, thanks to their low cost and rich tuning possibilities, and many efforts have focused on their activity and stability. However, due to the significant discrepancy between laboratory and industrial conditions, these catalysts have not been widely deployed in industrial AWE. In this review, we first introduce the differences between laboratory and industrial stage, especially concerning equipment, protocols and evaluation metrics. To shorten these gaps, some strategies are proposed to improve the activity and stability of the Ni-based catalysts. Besides, some key issues related to the catalysts in industrial AWE device are also emphasized, including reverse-current and foreign ions in the electrolyte. Finally, the challenges and outlooks on the industrial alkaline AWE are discussed.

Challenges and Opportunities for Collaboration Between Academic Biobanks and Industry: Results of an International Survey of Academic Biobanks.

Aim of the Survey: When it comes to collaboration between academic biobanks and the pharmaceutical/biotechnology industry, the criteria for effective collaborations are still unclear. Researchers in industry and academic biobanks can have different incentives and requirements that the other party is often not familiar with. This survey was conducted in an attempt to increase understanding of these fundamental knowledge gaps that may be obstacles to optimal collaboration between academia and industry. Key Findings from the Survey: There were 53 total respondents. Although this was a global survey, most respondents (n = 29) were from North America, likely reflecting overall investment in research in this region and possibly increased interactions between academia and industry as well. Most respondent academic biobanks collect multiple sample types with most (>90%) collecting both biofluids (including blood) and tissue. Most of the participating academic biobanks were aware that they were not (35%), or only partially (35%), using the full potential of their inventory. One option for increasing utilization rates is by collaborating with industry partners. The main issues when working with industry were perceived to be a combination of challenges including contractual (55%), consent restrictions (45%), timelines (41%), or time pressure (36%). Time taken to put agreements together was also a significant hurdle (54%), together with the industry's administrative requirements (36%). Brief Conclusions from the Survey: To take advantage of opportunities for joint collaboration, it is essential that the parties involved build trust. The first step is to understand the different requirements and needs of the other party and to establish efficient structures for joint cooperation. This survey has highlighted key areas to be addressed as the next steps for strengthening bonds between academic biobanks and industry partners.

Dynamic unbalance identification in steady-state rotating machinery: A hybrid methodology integrating physical and data-driven techniques

Rotating machinery plays a strategic role in key industrial sectors, making its analysis a subject of great interest for both academia and industry. Effective maintenance planning for this equipment is essential for asset management and for meeting current industrial requirements. To address this demand, this work presents a novel unbalance identification approach based on a digital representation of a rotating machine's dynamic behavior in relation to the development of specific faults. A hybrid methodology is proposed, integrating Finite Element Modeling, a Kalman Filter for parameter estimation, and Referenced Moving Window Principal Component Analysis. This Principal Component Analysis extension enhances vibration pattern recognition, enabling accurate fault quantification directly from slight changes in the system's steady-state behavior. The methodology uniquely eliminates the need for phase angle measurements, facilitating continuous monitoring of unbalance progression in steady-state conditions. Two case studies demonstrate the methodology's potential: one utilizing synthetic data from a Floating Production Storage and Offloading centrifugal compressor unit, and the other based on real data from a hydroelectric turbine-generator. These studies illustrate the integration of computational modeling, data-driven analysis, and monitored vibration data, achieving robust and accurate unbalance identification. This approach provides valuable insights into current capabilities and opens promising pathways for future applications, particularly in the digital twin domain for rotating machinery.

Novel Graphene‐Epoxy Composite with Aligned Architecture and Ultrahigh Thermal Conductivity

AbstractBecause of the surge in the power density of electronic devices, there is an urgent need for improvements in the thermal conductivity of packaging materials. Nowadays, epoxy composites supplemented with thermally conductive fillers are widely used for this purpose, but unfortunately, none of them can satisfactorily meet industrial requirements. Herein, this article reports on a novel method to prepare well‐shaped and highly ordered graphene‐epoxy composite architecture; that is, the epoxy infiltrates into tubular graphene columns that have been restored to the high thermally conductive structure of graphene. As a result, the newly developed graphene‐epoxy composite exhibits record‐high thermal conductivity of 69.74 W m−1 K−1 with filler content of only 11.22 wt.%. The unprecedentedly high thermal conductivity stems from the construction of thermally conductive channels and restoration of the inherent π–π conjugate structure of graphene. These findings not only offer a breakthrough in packaging materials with significantly enhanced thermal conductivity but also provide a promising avenue for the development of other advanced graphene‐added composites.