Transition Strategy Research Articles

Public perceptions of mineral criticality and preferences for energy transition strategies in the United States

Critical minerals are essential for advancing the energy transition. However, the public’s perception of these minerals and their application is still not well understood. Here, we investigate public awareness and perceptions of critical minerals in the United States, based on a nationally representative survey of 1200 online respondents. While only 38% of respondents stated familiarity with critical minerals, over 80% recognized the importance of minerals in the energy transition. Participants were most supportive of strategies focused on mineral research and improving the environmental impacts of mining, while domestic mining received less support. Regression analysis shows that individuals who perceive mineral criticality based on their importance to clean energy support multiple mineral policies, whereas those concerned about import dependency or shortages prefer domestic mining. Individuals who believe environmental impacts should govern criticality designation oppose domestic mining and support mineral recycling and improving mining’s environmental impacts. These findings highlight the role of differing perceptions of mineral criticality in shaping policy preferences, emphasizing the need for public awareness to foster sustainable mineral strategies for the energy transition.

Fiscal Strategies for Sustainable Transition: Addressing Revenue Challenges and Infrastructure Investment

This research examines the fiscal challenges and potential solutions associated with the global transition to electric vehicles. Electric vehicle adoption is accelerating, and governments need more revenues from traditional fuel taxes while simultaneously needing to invest in charging infrastructure. The research examines possible tax strategies to reduce the budget deficit and provide long-term finance for transportation projects. It also emphasizes the importance of considering both tax policies’ short- and long-term impact on electric vehicle deployment and environmental goals. The research shows that phasing in taxes on electric vehicles, such as road tolls, mileage fees, battery production taxes, and electricity use taxes, can effectively offset lost revenues from fuel taxes. By proactively implementing such policies, governments may help smooth the transition to electric vehicles, ensure financial stability, and create a cleaner, more sustainable transportation system.

NAVIGATING ENERGY TRANSITION: VIETNAM’S PATH TO SUSTAINABILITY AND IMPLICATIONS FOR UKRAINE

Vietnam has achieved significant milestones in its energy transition, characterized by ambitious renewable energy targets and robust policies aimed at reducing carbon emissions. This paper delves into Vietnam’s strategic approach, progress, and the challenges faced in its journey towards a sustainable energy future. By analyzing the diversification of energy sources, modernization of infrastructure, and development of a carbon market, the paper underscores Vietnam’s efforts to balance energy security, sustainability, and economic resilience. The study highlights the critical role of comprehensive policy frameworks, technological advancements, and substantial investments in renewable energy. Vietnam’s experience serves as a valuable model for Ukraine, offering insights into effective energy transition strategies amidst unique geopolitical and economic challenges. The findings suggest that Vietnam’s approach, which integrates policy shifts, infrastructure upgrades, and economic adaptations, can provide a blueprint for Ukraine to achieve its own sustainable energy goals. This paper aims to contribute to the broader discourse on global energy transitions, emphasizing the importance of aligning national strategies with international climate commitments to foster a resilient and low-carbon energy future.

Factors associated with transition readiness among adolescents and young adults with spina bifida in South Korea.

This study aimed to examine the factors associated with transition readiness based on the healthcare transition model among adolescents and young adults (AYAs) with spina bifida (SB) in the individual (self-management and self-efficacy), family or social support (family function and social support), healthcare system, and environmental (transition environment) domains. Using face-to-face and online surveys, we conducted a cross-sectional study on AYAs with SB in South Korea. The participants were aged 13-25 years. Data were analyzed using descriptive statistics, t test, one-way analysis of variance, Pearson's correlation coefficients, and multiple regression analysis. A total of 110 AYAs with SB participated in this study. Their mean age was 19.85 (SD = 3.65) years. The mean score of transition readiness was 3.89 (SD = 0.70) out of 5. Transition readiness was statistically significantly associated with general (age), clinical (mobility), and individual (self-management) characteristics and family or social support (social support) and the healthcare system. These results suggest that it is necessary to develop tailored transition care programs that consider factors associated with transition readiness for AYAs with SB. The findings of this study increase our understanding of the transition readiness of AYAs with SB, which can help in the development of effective transition strategies.

Evaluation of biomass‐based cook stoves in Ethiopia: A transition strategy from conventional to modern cook stoves

AbstractPerformance improvement of cookstoves has a vital role in reducing indoor air pollution and deforestation. In this study, biomass‐based cook stoves onsite data survey and experimental approaches were carried out to evaluate the performance of different cook stoves. Based on this feasibility research, it was shown that firewood accounted for 75% of the fuel type usage. The results of several studies and experimental performance testing indicated that the efficiency of cook stoves for 3‐stone, lakech, mirt, gonze, tikikil, and pyrolysis stoves was 10%, 25%, 48%, 50%, and 76%, respectively. Merely 87 out of the total 1986 families with kebeles had improved cookstoves; the remaining households used 3‐stone stove types. According to the study, the pyrolysis stove had the lowest fuel consumption rate and cooking time, while the 3‐stone stove had the greatest fuel consumption rate and cooking time. The improvement stove reduced emissions, and the highest emission reduction stove was the gasifier stove, with a magnitude of 1.229 tons CO2/HH/Year. Among cooking stoves, gasifier stoves have a great advantage in producing energy and biochar.

A Global Perspective on Transition Models for Pediatric to Adult Cystic Fibrosis Care: What Has Been Made So Far?

Interest in the transition of care for cystic fibrosis (CF) patients has grown significantly over time, driven by advancements in treatment that have extended life expectancy. As more CF patients survive into adulthood, the need for structured transition strategies has become a priority for healthcare systems worldwide. Transition programs for CF differ globally, reflecting varying resources and healthcare systems. In North America, the US CF Foundation has fostered adult care since the 1990s, with accreditation standards mandating adult programs and structured transition guidelines, exemplified by the CF RISE program for gradual responsibility shifts. Canada integrates US-inspired models, emphasizing national advocacy and outcomes evaluation. In Europe, approaches varies widely; the UK leads with structured programs like the Liverpool model and robust registry support, while France and Germany adopt multidisciplinary methods. In Australia and New Zealand, youth-centered policies prioritize early planning and access via telemedicine. In Asia, where CF is rare, transitions are less formalized, with some progress in countries like Japan and Turkey, though resource gaps and limited data tracking remain significant challenges. Despite varied approaches across countries, common barriers like resource limitations and psychological readiness continue to challenge successful transitions. Highlighting the importance of centralized, well-coordinated transition programs, recent initiatives have focused on the implementation of national and international CF registries to enhance health outcomes and quality of life. This narrative review provides a global perspective on transition strategies developed across various healthcare systems for CF patients, identifying best practices, common challenges, and outcomes related to the continuity of care.

Utilization of satellite data in determining hydropower potential to support energy security in new capital city region of Indonesia

The relocation of the national capital from DKI Jakarta to the East Kalimantan region and its people migration requires energy escalation. This project will require an additional 1,555 MW of electricity from existing conditions. In line with Indonesia's clean energy transition, this need can be addressed by developing renewable energy infrastructure, particularly hydropower. This study evaluates the hydropower potential in the Mahakam River using a run-of-river scheme. Given the limited availability of hydro-climatological ground stations, satellite data such as CFSR-TRMM, SRTM DEM, DSMW, and land-cover data were utilized, supported by the SWAT rainfall-runoff model for hydrological analysis. Data calibration was applied, and discharge results were analyzed using a new diversion algorithm to estimate potential power output. Innovative resampling of headrace arrangements was introduced to mitigate potential hydropower conflict sites. Social factors, including protected areas and water transportation routes, were also incorporated to minimize land disputes. The study identified 25 mini-hydropower sites and 16 micro-hydropower sites with a total capacity of 105.4 MW and 9 MW, respectively. These small-scale hydropower systems could supply 3.4% of the projected electricity demand for the new capital city called Nusantara (IKN), and potentially reduce annual carbon emissions by approximately 480,000 tons. The use of satellite data requires meticulous attention to ensure that data acquisition and processing yield reliable results while accurately reflecting field conditions. This research position also provides an initial overview of energy transition strategies in the IKN area through hydropower development and the subsequent potential assessment.

Green Transformation Strategies of the Financial Industry under the Background of Dual Carbon

The green transformation of the financial sector has emerged as a crucial catalyst in advancing sustainable economic and social development, amidst the global battle against climate change and the pursuit of attaining peak carbon emissions and achieving carbon neutrality. This paper focuses on the green transition strategy of the financial industry under the dual-carbon target. This study aims to analyze the importance and obstacles associated with the green transformation of the financial sector in light of the dual-carbon target. The study will also assess the current status of the financial industry within the context of dual-carbon, examine the essential factors for the transformation of the financial sector, examine the practices and experiences of Hangzhou, and draw conclusions regarding the key factors for transforming the financial industry. Furthermore, this study employs a combination of literature review and macro-analysis to explore the future development trajectory of green finance. This study finds that the green transition strategies for the financial sector are policy guidance and supervision, innovation of green products and services, and international exchange and cooperation. The study reveals that Hangzhou has established a relatively comprehensive green financial system propelled by policy guidance, market-driven innovation, and international collaboration. The paper concludes by presenting the challenges and solutions encountered in the transition. It proposes policy recommendations to promote the financial industry's transition further and provides theoretical references and practical guidance for the sustainable development of China's financial sector.

Ag-doped PDA interface strategy for selective electron transition integrating EMI shielding and anti-corrosion performance

Metal-based electromagnetic interference (EMI) shielding composites are essential for ensuring electromagnetic compatibility but are often compromised by susceptibility to corrosion, especially in harsh environments. Existing strategies to mitigate coupling corrosion typically involve physical barriers, which inevitably hinder conductivity. In this study, we introduce a novel interface doping approach to fabricate lightweight Graphite@PDA/Ag@Ag composites that simultaneously enhance EMI shielding and corrosion resistance. The PDA/Ag layer selectively regulates electrons with different migration directions and energies to migrate, increasing charge transfer resistance at Ag/graphite interfaces and ensuring conductivity through a tunneling effect. This design achieves an ultralow corrosion rate of 4.313 × 10-8 μm/yr (a billionth that of 316L stainless steel) alongside superior EMI shielding effectiveness of 109 dB in the X-band at 1.5 mm thickness. Remarkably, the composite maintains over 90 dB shielding efficiency after 7 d in NaCl solutions across various pH levels. Furthermore, simulated corrosion under South China Sea conditions predicts a coating loss of less than 0.026 μm over 7 years. This work presents a transformative approach to mitigating coupling corrosion in EMI shielding materials, offering a practical route to high-performance, corrosion-resistant composites without the need for a protective topcoat.

Evaluation framework for quantum security risk assessment: A comprehensive strategy for quantum-safe transition

Evaluation framework for quantum security risk assessment: A comprehensive strategy for quantum-safe transition

Transition and Post-fault Correction Strategy for a Single-Phase Inverter With Improved Redundant Leg Utilization

Transition and Post-fault Correction Strategy for a Single-Phase Inverter With Improved Redundant Leg Utilization

Thermal boundary conductance enhancement of the Si/diamond interface via atomic transition strategy

Developing multi-chip systems introduces significant thermal management challenges, due to dense vertical stacking and interconnections. Specifically, the increased number of interfaces within the heat conduction path of the chips significantly impedes the effective heat transfer. This study utilizes a series of molecular dynamics simulations to explore how the structure and atomic composition at interfaces affect their thermal conduction abilities. This study initially reveals substantial differences in thermal conduction capabilities between Si/Diamond, SiC/Diamond, and Diamond/Diamond interfaces. Further investigations focus on interfaces between different structures of SiC and diamond, clearly identifying the atomic composition and structure at the interface as key factors influencing thermal boundary conductance (TBC). Based on these findings, the study proposes a strategy for atomic transition that involves inserting SiC into the Si/Diamond interface. Under optimal thickness conditions for the SiC transition layer, a significant increase in theoretical TBC is achieved, from 477.1 MW/m²K to 701.1 MW/m²K, which is twice the value predicted by the existing diffusive mismatch model (DMM) for Si/Diamond interfaces. Lastly, through the developed 3D IC model, the study examines the impact of TBC variations on the peak temperature of the entire device, thereby further emphasizing the importance of enhancing interface thermal conduction capabilities. This series provides strategic guidance for thermal management in 3D ICs and offers a theoretical basis for chip design and material selection.

A switched model predictive control with parametric weights-based mode transition strategy for a novel parallel hybrid electric vehicle

In a novel parallel hybrid electric vehicle (HEV) configuration, the transition from pure electric mode to hybrid mode encompasses critical operations such as engine startup, coordinated control of motor and engine torque, and engagement of the clutch. Addressing the intricate challenges associated with enhancing speed tracking performance during and after mode transition, mitigating jerk during mode transition, and minimizing mode transition time, this paper conducts a meticulous analysis of the vehicle configuration and mode transition process. The mode transition process is systematically delineated into four stages, with each stage characterized by the establishment of dynamic models. Subsequently, a mode transition strategy is proposed, leveraging switched model predictive control with parametric weights (SMPC-PW). This controller framework includes the design of two model predictive controllers (MPC) tailored for two pivotal stages, the formulation of a parametric weights pattern based on pre-transition acceleration, and the development of a stage switching strategy to ensure seamless switches between controllers. The efficacy of the proposed strategy is validated through co-simulations in the Simulink and GT-Power environment. The fine-tuning of MPC parameters is grounded in multiple sets of prediction horizons and sampling time simulation results. In comparison to strategies based on MPC and PID under various acceleration scenarios, the SMPC-PW strategy consistently maintains acceleration control below 10 m/s3. It not only achieves superior speed tracking during and after mode transition but also reduces mode switch time by 0.1 s-0.3 s. These compelling results unequivocally demonstrate that the proposed mode transition strategy significantly elevates the quality of mode transition for this specific parallel HEV configuration.

PyPSA-BD: A customized model to explore decarbonized energy transition for developing country

This article provides high-resolution, evidence-based insights towards power sector planning for a developing country. We consider the PyPSA-BD model as a cutting-edge contribution as it’s a fully customized adaptation of PyPSA-Earth for Bangladesh to identify challenges and opportunities for transitioning to a decarbonized power system through counterfactual validation of inputs from national official statistics with a spatial resolution of 30km x 30km and an hourly temporal resolution. Its open-source framework is helpful for future researchers and decision-makers in developing countries like Bangladesh to develop more scenarios to answer any policy-relevant questions as per national need. With 2019 as a reference year, scenarios for 2030, 2041, and 2050 align with national renewable energy integration and decarbonization targets revealing cost-effective generation expansions, diversification of installed capacity through renewable energy penetration, net employment generation, additional land and investment requirement. Model results show that the 2019 installed capacity of 18.94 GW will grow to 61.45 GW by 2030, 102.36 GW by 2041, and 281.52 GW by 2050. By 2050, a storage capacity of 28.5 GW will be required to maintain grid stability. This transition could create approximately 6.7 million jobs and reduce generation costs to 7.63 BDT/kWh by 2050, requiring 3690.85 sq.km of land. Achieving these outcomes will demand an annual investment of approximately 1.99% of Bangladesh’s 2023 GDP from 2025, underscoring the need for national and international finance mobilization. The results guide policymakers to develop sustainable energy transition strategies for Bangladesh that provide power supply security at both spatial and temporal scale.

H Induced Metal-Insulation Transition Boosts the Stability of High Temperature Polymer Electrolyte Membrane Fuel Cells.

High temperature polymer electrolyte membrane fuel cells (HT-PEMFCs) have garnered significant attention due to their expanded range of hydrogen sources and simplified management systems. However, the frequent start-up and shut-down (SU/SD)caused fuel starvationoperation condition seriously deteriorates the performance and lifetime of the fuel cell.In this manuscript, VO2was incorporated in the anodeto restrain fuel starvationof the electrode. Under the operation condition, the insulative VO2would reversiblytransform into metallic HxVO2byintercalating hydrogen, and HxVO2can automatically release hydrogen,whichcouldact as the hydrogen bufferand suppress reverse-current degradation. After the hydrogen release, the generated insulating VO2would prevent theside reactions during fuel starvation.Comparedto the traditionalPt anode, the electrodewith VO2showed much higheroutput powerand greatly improved durability after fuel starvation. This work demonstrates the in-situreversible hydrogen storage/release-controlled metal-insulator phase transition strategy to enhance the durability of fuel cells.

H Induced Metal‐Insulation Transition Boosts the Stability of High Temperature Polymer Electrolyte Membrane Fuel Cells

High temperature polymer electrolyte membrane fuel cells (HT‐PEMFCs) have garnered significant attention due to their expanded range of hydrogen sources and simplified management systems. However, the frequent start‐up and shut‐down (SU/SD) caused fuel starvation operation condition seriously deteriorates the performance and lifetime of the fuel cell. In this manuscript, VO2 was incorporated in the anode to restrain fuel starvation of the electrode. Under the operation condition, the insulative VO2 would reversibly transform into metallic HxVO2 by intercalating hydrogen, and HxVO2 can automatically release hydrogen, which could act as the hydrogen buffer and suppress reverse‐current degradation. After the hydrogen release, the generated insulating VO2 would prevent the side reactions during fuel starvation. Compared to the traditional Pt anode, the electrode with VO2 showed much higher output power and greatly improved durability after fuel starvation. This work demonstrates the in‐situ reversible hydrogen storage/release‐controlled metal‐insulator phase transition strategy to enhance the durability of fuel cells.

Exploring Post-Quantum Cryptography: Review and Directions for the Transition Process

As quantum computing advances, current cryptographic protocols are increasingly vulnerable to quantum attacks, particularly those based on Public Key Infrastructure (PKI) like RSA or Elliptic Curve Cryptography (ECC). This paper presents a comprehensive review of Post-Quantum Cryptography (PQC) as a solution to protect digital systems in the quantum era. We provide an in-depth analysis of various quantum-resistant cryptographic algorithms, including lattice-based, code-based, hash-based, isogeny-based, and multivariate approaches. The review highlights the National Institute of Standards and Technology (NIST) PQC standardization process, highlighting key algorithms, such as CRYSTALS–Kyber, CRYSTALS–Dilithium, Falcon, and SPHINCS+, and discusses the strengths, vulnerabilities, and implementation challenges of the leading algorithms. In addition, we explore transition strategies for organizations, emphasizing hybrid cryptography to ensure backward compatibility during migration. This study offers key insights into the future of cryptographic standards and the critical steps necessary to prepare for the transition from classical to quantum-resistant systems.

The effect of survival pressure-based defector reward behavior on cooperation in spatial prisoner's dilemma games.

Research has shown that rewarding behavior can greatly facilitate the occurrence of cooperation in social dilemmas. Yet rewards entail costs, making the reward itself an altruistic behavior. The reasons for adopting rewarding behaviors then become an interesting matter, so we propose a game model in which defectors are pressured by survival to adopt rewarding behaviors. Research suggests that defector reward strategies can be used as a transition strategy for defectors to alleviate survival stress and promote cooperation in the spatial prisoner's dilemma. A small survival pressure threshold will make it altogether easier for defectors to adopt a strategy that rewards defection and thus tempts the emergence of cooperators in their neighborhood. In addition, the effect of the payment cost α and the reward amount β of the rewarding behavior on the evolution of the system will be limited by the temptation b of the defector, and the effect of each parameter on the promotion of cooperation in the system is not linear. That is, when α is fixed, b and β can still optimize the level of cooperation in a given combination. The same holds for α and β when b is fixed.

When terrorists attempt politics: an evaluation of Lashkar-e-Taiba’s pursuit of political transformation

ABSTRACT In recent years, the United Nations (UN) designated terrorist organization Lashkar-e-Taiba (LeT), a group with links to the Pakistani security establishment, has been pursuing a strategy of political transition. This paper explores whether existing counter-terrorism frameworks such as the UN-led disarmament, demobilization, and reintegration (DDR) and state-led de-radicalization and disengagement programs adequately explain the transition of terrorist organizations into the political arena. It is argued that a lack of organizational consensus, the failure to evolve an ideological consensus for renouncing violence and endorsing democracy, and unpromising domestic and international political environments are the strongest predictors of difficulties in achieving successful transformation.

Predicting CO2 and H2 Solubility in Pure Water and Various Aqueous Systems: Implication for CO2–EOR, Carbon Capture and Sequestration, Natural Hydrogen Production and Underground Hydrogen Storage

The growing energy demand and the need for climate mitigation strategies have spurred interest in the application of CO2–enhanced oil recovery (CO2–EOR) and carbon capture, utilization, and storage (CCUS). Furthermore, natural hydrogen (H2) production and underground hydrogen storage (UHS) in geological media have emerged as promising technologies for cleaner energy and achieving net–zero emissions. However, selecting a suitable geological storage medium is complex, as it depends on the physicochemical and petrophysical characteristics of the host rock. Solubility is a key factor affecting the above–mentioned processes, and it is critical to understand phase distribution and estimating trapping capacities. This paper conducts a succinct review of predictive techniques and present novel simple and non–iterative predictive models for swift and reliable prediction of solubility behaviors in CO2–brine and H2–brine systems under varying conditions of pressure, temperature, and salinity (T–P–m salts), which are crucial for many geological and energy–related applications. The proposed models predict CO2 solubility in CO2 + H2O and CO2 + brine systems containing mixed salts and various single salt systems (Na+, K+, Ca2+, Mg2+, Cl−, SO42−) under typical geological conditions (273.15–523.15 K, 0–71 MPa), as well as H2 solubility in H2 + H2O and H2 + brine systems containing NaCl (273.15–630 K, 0–101 MPa). The proposed models are validated against experimental data, with average absolute errors for CO2 solubility in pure water and brine ranging between 8.19 and 8.80% and for H2 solubility in pure water and brine between 4.03 and 9.91%, respectively. These results demonstrate that the models can accurately predict solubility over a wide range of conditions while remaining computationally efficient compared to traditional models. Importantly, the proposed models can reproduce abrupt variations in phase composition during phase transitions and account for the influence of different ions on CO2 solubility. The solubility models accurately capture the salting–out (SO) characteristics of CO2 and H2 gas in various types of salt systems which are consistent with previous studies. The simplified solubility models for CO2 and H2 presented in this study offer significant advantages over conventional approaches, including computational efficiency and accuracy across a wide range of geological conditions. The explicit, derivative–continuous nature of these models eliminates the need for iterative algorithms, making them suitable for integration into large–scale multiphase flow simulations. This work contributes to the field by offering reliable tools for modeling solubility in various subsurface energy and environmental–related applications, facilitating their application in energy transition strategies aimed at reducing carbon emissions.