Improving Energy Efficiency with Supercritical Fluid Applications
JAN 19, 20269 MIN READ
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Supercritical Fluid Technology Background and Energy Goals
Supercritical fluids represent a unique state of matter that exists when a substance is heated and pressurized beyond its critical point, where distinct liquid and gas phases cease to exist. At this threshold, the fluid exhibits properties of both gases and liquids, possessing gas-like diffusivity and liquid-like density. Carbon dioxide, with its relatively accessible critical point of 31.1°C and 73.8 bar, has emerged as the most widely studied supercritical fluid due to its non-toxic, non-flammable nature and environmental compatibility. Water, though requiring more extreme conditions, also serves as a significant supercritical medium in various industrial applications.
The historical development of supercritical fluid technology traces back to the 19th century when Thomas Andrews first identified the critical point phenomenon in 1869. However, practical applications remained limited until the mid-20th century when the coffee industry pioneered supercritical CO2 extraction for decaffeination processes. This breakthrough demonstrated the technology's potential for selective separation without thermal degradation, establishing a foundation for broader industrial adoption.
The evolution toward energy efficiency applications gained momentum in the 1980s and 1990s as global energy concerns intensified. Researchers recognized that supercritical fluids could serve as superior heat transfer media, offering enhanced thermodynamic properties compared to conventional fluids. Their unique characteristics enable more efficient energy conversion processes, reduced temperature differentials in heat exchangers, and improved mass transfer rates in chemical reactions.
Contemporary energy goals driving supercritical fluid research focus on three primary objectives. First, reducing energy consumption in industrial processes through enhanced heat and mass transfer efficiency. Second, enabling waste heat recovery systems that operate at higher efficiency levels than traditional methods. Third, facilitating cleaner energy production by improving power generation cycles and carbon capture technologies. These objectives align with global sustainability targets and the urgent need to minimize industrial carbon footprints while maintaining economic viability.
The technology's potential extends across multiple energy-intensive sectors including power generation, chemical processing, materials synthesis, and thermal management systems. As industries face increasing pressure to reduce energy consumption and environmental impact, supercritical fluid applications offer a scientifically proven pathway toward achieving substantial efficiency improvements while supporting the transition to sustainable industrial practices.
The historical development of supercritical fluid technology traces back to the 19th century when Thomas Andrews first identified the critical point phenomenon in 1869. However, practical applications remained limited until the mid-20th century when the coffee industry pioneered supercritical CO2 extraction for decaffeination processes. This breakthrough demonstrated the technology's potential for selective separation without thermal degradation, establishing a foundation for broader industrial adoption.
The evolution toward energy efficiency applications gained momentum in the 1980s and 1990s as global energy concerns intensified. Researchers recognized that supercritical fluids could serve as superior heat transfer media, offering enhanced thermodynamic properties compared to conventional fluids. Their unique characteristics enable more efficient energy conversion processes, reduced temperature differentials in heat exchangers, and improved mass transfer rates in chemical reactions.
Contemporary energy goals driving supercritical fluid research focus on three primary objectives. First, reducing energy consumption in industrial processes through enhanced heat and mass transfer efficiency. Second, enabling waste heat recovery systems that operate at higher efficiency levels than traditional methods. Third, facilitating cleaner energy production by improving power generation cycles and carbon capture technologies. These objectives align with global sustainability targets and the urgent need to minimize industrial carbon footprints while maintaining economic viability.
The technology's potential extends across multiple energy-intensive sectors including power generation, chemical processing, materials synthesis, and thermal management systems. As industries face increasing pressure to reduce energy consumption and environmental impact, supercritical fluid applications offer a scientifically proven pathway toward achieving substantial efficiency improvements while supporting the transition to sustainable industrial practices.
Market Demand for Energy-Efficient Industrial Processes
The global industrial sector is undergoing a fundamental transformation driven by escalating energy costs, stringent environmental regulations, and corporate sustainability commitments. Industries such as chemical processing, pharmaceuticals, food and beverage, power generation, and materials manufacturing are actively seeking technologies that can substantially reduce energy consumption while maintaining or enhancing production efficiency. Supercritical fluid applications have emerged as a compelling solution to address these pressing demands, offering significant advantages over conventional thermal and mechanical separation processes.
Energy-intensive operations including extraction, purification, drying, and chemical synthesis represent major cost centers for industrial facilities. Traditional methods often require high temperatures, extended processing times, and substantial solvent usage, resulting in elevated operational expenses and environmental footprints. The market demand for alternatives that can deliver comparable or superior results with reduced energy input has intensified considerably. Supercritical fluid technology, particularly utilizing carbon dioxide, presents a pathway to achieve these objectives through lower operating temperatures, faster processing cycles, and solvent recyclability.
Regulatory frameworks worldwide are progressively tightening emissions standards and imposing carbon pricing mechanisms, compelling industries to adopt cleaner production technologies. The pharmaceutical and food sectors face additional pressure from consumer preferences for products manufactured through environmentally benign processes. These market forces have created substantial demand for supercritical fluid applications in extraction of natural compounds, decaffeination, essential oil production, and pharmaceutical ingredient purification, where energy efficiency directly translates to competitive advantage.
The chemical processing industry represents another significant demand driver, particularly for applications requiring precise control over reaction conditions and product purity. Supercritical fluids enable reactions at milder conditions compared to conventional high-temperature processes, reducing energy requirements while improving selectivity and yield. Industries producing specialty chemicals, polymers, and advanced materials are increasingly exploring supercritical fluid technologies to optimize their energy profiles and meet sustainability targets.
Market demand is further amplified by the growing emphasis on circular economy principles and waste valorization. Supercritical fluid extraction and processing enable recovery of valuable compounds from industrial byproducts and waste streams with minimal energy expenditure compared to traditional methods. This capability aligns with industrial strategies to transform waste management from a cost center into a value-generating activity while simultaneously reducing overall energy consumption across operations.
Energy-intensive operations including extraction, purification, drying, and chemical synthesis represent major cost centers for industrial facilities. Traditional methods often require high temperatures, extended processing times, and substantial solvent usage, resulting in elevated operational expenses and environmental footprints. The market demand for alternatives that can deliver comparable or superior results with reduced energy input has intensified considerably. Supercritical fluid technology, particularly utilizing carbon dioxide, presents a pathway to achieve these objectives through lower operating temperatures, faster processing cycles, and solvent recyclability.
Regulatory frameworks worldwide are progressively tightening emissions standards and imposing carbon pricing mechanisms, compelling industries to adopt cleaner production technologies. The pharmaceutical and food sectors face additional pressure from consumer preferences for products manufactured through environmentally benign processes. These market forces have created substantial demand for supercritical fluid applications in extraction of natural compounds, decaffeination, essential oil production, and pharmaceutical ingredient purification, where energy efficiency directly translates to competitive advantage.
The chemical processing industry represents another significant demand driver, particularly for applications requiring precise control over reaction conditions and product purity. Supercritical fluids enable reactions at milder conditions compared to conventional high-temperature processes, reducing energy requirements while improving selectivity and yield. Industries producing specialty chemicals, polymers, and advanced materials are increasingly exploring supercritical fluid technologies to optimize their energy profiles and meet sustainability targets.
Market demand is further amplified by the growing emphasis on circular economy principles and waste valorization. Supercritical fluid extraction and processing enable recovery of valuable compounds from industrial byproducts and waste streams with minimal energy expenditure compared to traditional methods. This capability aligns with industrial strategies to transform waste management from a cost center into a value-generating activity while simultaneously reducing overall energy consumption across operations.
Current Status and Challenges in Supercritical Fluid Systems
Supercritical fluid technology has achieved significant commercial deployment across multiple industrial sectors, yet its broader adoption for energy efficiency enhancement remains constrained by several technical and economic barriers. In power generation applications, supercritical carbon dioxide Brayton cycles have demonstrated theoretical efficiency improvements of 10-15% over conventional steam cycles, but practical implementations face challenges in turbomachinery design and heat exchanger optimization. The extreme operating conditions, typically exceeding 7.4 MPa and 31°C for CO2, demand materials capable of withstanding high pressures while maintaining thermal stability and corrosion resistance over extended operational periods.
Current supercritical fluid extraction and processing systems exhibit substantial energy consumption during compression and heating phases, which can offset potential efficiency gains. Industrial-scale operations struggle with maintaining precise control over critical parameters such as pressure, temperature, and fluid density, as minor fluctuations can dramatically alter fluid properties and process outcomes. The transition region near the critical point presents particular difficulties, where small changes in conditions produce disproportionate effects on system performance and energy requirements.
Geographically, advanced supercritical fluid research concentrates in North America, Europe, and East Asia, with the United States, Germany, Japan, and China leading in both fundamental research and industrial applications. However, technology transfer to emerging markets remains limited due to high capital costs and specialized expertise requirements. The lack of standardized design protocols and performance benchmarks across different application domains further complicates technology assessment and comparison.
Scaling challenges persist as a major impediment, particularly when transitioning from laboratory demonstrations to industrial-scale implementations. Heat transfer limitations in compact heat exchangers, seal integrity issues in high-pressure rotating equipment, and the absence of cost-effective materials for large-scale construction continue to restrict widespread deployment. Additionally, integration with existing industrial infrastructure requires substantial modifications, creating economic barriers that slow adoption rates despite proven technical advantages in controlled environments.
Current supercritical fluid extraction and processing systems exhibit substantial energy consumption during compression and heating phases, which can offset potential efficiency gains. Industrial-scale operations struggle with maintaining precise control over critical parameters such as pressure, temperature, and fluid density, as minor fluctuations can dramatically alter fluid properties and process outcomes. The transition region near the critical point presents particular difficulties, where small changes in conditions produce disproportionate effects on system performance and energy requirements.
Geographically, advanced supercritical fluid research concentrates in North America, Europe, and East Asia, with the United States, Germany, Japan, and China leading in both fundamental research and industrial applications. However, technology transfer to emerging markets remains limited due to high capital costs and specialized expertise requirements. The lack of standardized design protocols and performance benchmarks across different application domains further complicates technology assessment and comparison.
Scaling challenges persist as a major impediment, particularly when transitioning from laboratory demonstrations to industrial-scale implementations. Heat transfer limitations in compact heat exchangers, seal integrity issues in high-pressure rotating equipment, and the absence of cost-effective materials for large-scale construction continue to restrict widespread deployment. Additionally, integration with existing industrial infrastructure requires substantial modifications, creating economic barriers that slow adoption rates despite proven technical advantages in controlled environments.
Current Technical Solutions for Supercritical Processes
01 Heat recovery and energy optimization in supercritical fluid systems
Supercritical fluid systems can be designed with heat recovery mechanisms to improve overall energy efficiency. By capturing and reusing thermal energy from the process streams, the energy consumption can be significantly reduced. Heat exchangers and thermal integration strategies allow for the recovery of heat from high-temperature streams to preheat incoming fluids, minimizing the external energy input required. This approach is particularly effective in continuous supercritical fluid processes where steady-state operation enables consistent heat recovery.- Heat recovery and energy optimization in supercritical fluid systems: Supercritical fluid systems can be designed with heat recovery mechanisms to improve overall energy efficiency. By capturing and reusing thermal energy from the process streams, the energy consumption can be significantly reduced. Heat exchangers and thermal integration strategies allow for the preheating of incoming fluids using waste heat from the system, minimizing the external energy input required. This approach is particularly effective in continuous processing applications where steady-state operation enables consistent heat recovery.
- Pressure management and compression efficiency: Efficient pressure management is critical for energy optimization in supercritical fluid applications. Advanced compression systems with multi-stage configurations and intercooling can reduce the energy required to achieve supercritical conditions. Pressure recovery devices and expansion turbines can capture energy during depressurization phases, converting it back into useful work. Optimizing the pressure cycling and minimizing pressure drops throughout the system contribute to overall energy efficiency improvements.
- Process integration and co-solvent optimization: The selection and optimization of co-solvents in supercritical fluid processes can enhance energy efficiency by reducing the operating pressure and temperature requirements. Process integration techniques that combine multiple unit operations can minimize energy losses and improve overall system efficiency. By carefully selecting process parameters and fluid compositions, the energy demand for maintaining supercritical conditions can be reduced while maintaining process effectiveness.
- Advanced control systems and process monitoring: Implementation of sophisticated control systems and real-time monitoring enables dynamic optimization of supercritical fluid processes for maximum energy efficiency. Automated control algorithms can adjust operating parameters in response to changing conditions, ensuring optimal energy utilization throughout the process cycle. Predictive maintenance and performance monitoring systems help identify inefficiencies and enable timely interventions to maintain peak energy performance.
- Equipment design and insulation improvements: Specialized equipment design focusing on thermal insulation and minimizing heat losses is essential for improving energy efficiency in supercritical fluid systems. Advanced materials and insulation technologies reduce the energy required to maintain supercritical conditions. Compact reactor designs and optimized flow paths minimize dead volumes and reduce the overall energy footprint. Equipment modifications that reduce friction losses and improve fluid dynamics contribute to lower energy consumption.
02 Optimization of supercritical fluid extraction processes
Energy efficiency in supercritical fluid extraction can be enhanced through process optimization, including the selection of appropriate operating conditions such as pressure, temperature, and flow rates. By optimizing these parameters, the extraction efficiency can be maximized while minimizing energy consumption. Advanced control systems and process modeling techniques enable real-time adjustments to maintain optimal conditions throughout the extraction cycle. The use of co-solvents and modifiers can also improve extraction selectivity and reduce the overall energy requirements.Expand Specific Solutions03 Energy-efficient compression and pumping systems
The compression and pumping of supercritical fluids represent significant energy consumption points in supercritical fluid systems. Energy efficiency can be improved through the use of advanced compressor designs, variable speed drives, and optimized pumping strategies. Multi-stage compression with intercooling can reduce the overall energy requirement compared to single-stage compression. Additionally, the implementation of pressure swing systems and the recycling of supercritical fluids can minimize the need for continuous compression, thereby reducing energy consumption.Expand Specific Solutions04 Integration of renewable energy sources with supercritical fluid systems
The integration of renewable energy sources such as solar thermal, geothermal, or waste heat can significantly improve the energy efficiency and sustainability of supercritical fluid operations. By utilizing renewable energy to provide the heating or cooling requirements of the system, the dependence on conventional energy sources can be reduced. Hybrid systems that combine supercritical fluid technology with renewable energy infrastructure offer enhanced energy efficiency and reduced environmental impact. Energy storage systems can also be incorporated to manage intermittent renewable energy supply.Expand Specific Solutions05 Advanced materials and equipment design for reduced energy loss
The use of advanced materials and optimized equipment design can minimize energy losses in supercritical fluid systems. Improved insulation materials reduce heat loss from high-temperature components, while advanced sealing technologies prevent fluid leakage and maintain system pressure with minimal energy input. The design of reactors and vessels with enhanced heat transfer characteristics allows for more efficient thermal management. Compact and modular equipment designs can also reduce the overall energy footprint by minimizing the volume of fluid that needs to be maintained at supercritical conditions.Expand Specific Solutions
Major Players in Supercritical Fluid Applications
The supercritical fluid applications for energy efficiency represent a maturing technology transitioning from research to commercial deployment, with growing market potential driven by decarbonization demands. Major energy corporations like Saudi Arabian Oil Co. and Aramco Services Co. are exploring industrial-scale implementations, while specialized innovators such as Energy Dome SpA and Peregrine Turbine Technologies LLC advance CO₂-based energy storage and power generation systems. Technology maturity varies across applications, with established players like Fuji Electric Co., Praxair Technology, and Applied Materials Inc. integrating supercritical fluids into manufacturing and industrial processes, while academic institutions including Xi'an Jiaotong University, University of California, and South China University of Technology drive fundamental research breakthroughs. The competitive landscape reflects a convergence of traditional energy giants, technology manufacturers, and emerging cleantech companies positioning for leadership in this expanding sector.
Saudi Arabian Oil Co.
Technical Solution: Saudi Aramco has developed advanced supercritical CO2 (sCO2) power cycle technology for enhanced oil recovery and power generation applications. Their technical approach integrates sCO2 Brayton cycles with existing infrastructure to achieve thermal efficiencies exceeding 50% in combined cycle configurations[1][4]. The company focuses on utilizing supercritical CO2 as both a working fluid in power generation and as an injection medium for enhanced oil recovery, creating synergies between energy production and resource extraction. Their systems operate at pressures above 7.4 MPa and temperatures reaching 700°C, enabling compact turbomachinery designs with significantly reduced footprint compared to conventional steam cycles[2][5]. The technology demonstrates particular advantages in desert environments where water scarcity makes traditional cooling systems impractical.
Strengths: Extensive integration capabilities with existing oil and gas infrastructure, proven operational experience in harsh environments, strong financial resources for large-scale deployment. Weaknesses: Primary focus on fossil fuel applications may limit diversification into renewable energy integration, technology development closely tied to hydrocarbon industry needs.
Energy Dome SpA
Technical Solution: Energy Dome has pioneered the CO2 Battery technology, which utilizes supercritical CO2 phase transitions for long-duration energy storage. Their system stores energy by compressing CO2 gas into a liquid state within a high-pressure storage dome, and releases energy by allowing the liquid CO2 to expand back to gas through a turbine[3][6]. The process achieves round-trip efficiencies of 75-80% with storage durations ranging from 4 to 24+ hours[7][8]. The technology operates without rare materials, uses commercially available components, and can be deployed rapidly with construction times of 18-24 months. Their first commercial-scale 25 MW/200 MWh facility demonstrates the scalability of supercritical fluid energy storage for grid stabilization and renewable energy integration. The system maintains energy density of approximately 8-10 MWh per dome unit while operating at ambient temperature conditions.
Strengths: Innovative closed-loop system with no emissions, uses abundant CO2 as working fluid, modular and scalable design, relatively low capital costs compared to lithium-ion batteries for long-duration storage. Weaknesses: Limited operational track record at commercial scale, technology still in early deployment phase, requires significant land area for dome installations.
Core Patents in Supercritical Energy Efficiency
Supercritical fluid power generation system
PatentWO2021181663A1
Innovation
- A closed cycle supercritical fluid power generation system using a heat source, turbine, cooler, and compression device, with an intermediate heat medium circulation section that includes a heat recovery heat exchanger and an intermediate heat exchanger, where a liquid heat medium transfers heat from a high-temperature gas to the supercritical fluid, reducing the need for expensive corrosion-resistant materials and allowing for a smaller heat transfer area.
Supercritical fluid-drying apparatus and method for drying gel
PatentActiveUS20250178911A1
Innovation
- The supercritical fluid-drying apparatus includes a circulation compressor, a drying unit, a separation unit, an expander, and a heating-medium storage tank, which allows for efficient pressurization and heating of the fluid, energy recovery through expansion, and improved solvent separation, thereby reducing energy consumption and enhancing drying efficiency.
Environmental Impact and Sustainability Assessment
Supercritical fluid applications present significant environmental advantages compared to conventional industrial processes, primarily through reduced chemical consumption and waste generation. The substitution of organic solvents with supercritical carbon dioxide in extraction and processing operations eliminates toxic solvent residues and minimizes hazardous waste streams. This transition directly addresses growing regulatory pressures and corporate sustainability commitments across pharmaceutical, food processing, and chemical manufacturing sectors. The closed-loop nature of supercritical fluid systems enables solvent recovery rates exceeding 95%, substantially reducing environmental discharge and operational costs.
The carbon footprint assessment of supercritical fluid technologies reveals a complex balance between energy consumption and environmental benefits. While high-pressure operations require substantial compression energy, the elimination of solvent distillation and waste treatment processes often results in net energy savings of 20-40% compared to traditional methods. Life cycle analyses demonstrate that supercritical CO2 extraction systems achieve payback periods of 3-5 years in terms of environmental impact reduction, with particular advantages in water conservation and air quality improvement.
Resource efficiency metrics indicate that supercritical fluid processes consume 60-80% less water than conventional extraction methods, addressing critical concerns in water-stressed regions. The technology's ability to operate at moderate temperatures preserves thermally sensitive compounds while reducing thermal energy requirements. Additionally, the use of naturally abundant CO2 as a primary working fluid, particularly when sourced from industrial waste streams, contributes to circular economy principles and carbon utilization strategies.
Sustainability assessments must also consider the infrastructure requirements and material intensity of high-pressure systems. The manufacturing of pressure vessels and specialized equipment involves significant embodied energy and rare materials. However, the extended operational lifespan of supercritical fluid systems, typically 15-20 years, and their modular scalability provide favorable sustainability profiles when evaluated across full technology lifecycles. Integration with renewable energy sources further enhances the environmental credentials of these applications, positioning supercritical fluid technology as a viable pathway toward industrial decarbonization and sustainable manufacturing practices.
The carbon footprint assessment of supercritical fluid technologies reveals a complex balance between energy consumption and environmental benefits. While high-pressure operations require substantial compression energy, the elimination of solvent distillation and waste treatment processes often results in net energy savings of 20-40% compared to traditional methods. Life cycle analyses demonstrate that supercritical CO2 extraction systems achieve payback periods of 3-5 years in terms of environmental impact reduction, with particular advantages in water conservation and air quality improvement.
Resource efficiency metrics indicate that supercritical fluid processes consume 60-80% less water than conventional extraction methods, addressing critical concerns in water-stressed regions. The technology's ability to operate at moderate temperatures preserves thermally sensitive compounds while reducing thermal energy requirements. Additionally, the use of naturally abundant CO2 as a primary working fluid, particularly when sourced from industrial waste streams, contributes to circular economy principles and carbon utilization strategies.
Sustainability assessments must also consider the infrastructure requirements and material intensity of high-pressure systems. The manufacturing of pressure vessels and specialized equipment involves significant embodied energy and rare materials. However, the extended operational lifespan of supercritical fluid systems, typically 15-20 years, and their modular scalability provide favorable sustainability profiles when evaluated across full technology lifecycles. Integration with renewable energy sources further enhances the environmental credentials of these applications, positioning supercritical fluid technology as a viable pathway toward industrial decarbonization and sustainable manufacturing practices.
Cost-Benefit Analysis of Supercritical Implementation
The economic viability of supercritical fluid technology hinges on a comprehensive evaluation of initial capital expenditure against long-term operational savings and productivity gains. Capital costs typically encompass specialized high-pressure equipment, safety systems, and facility modifications capable of withstanding operating pressures ranging from 74 to 220 bar. These upfront investments can be substantial, often requiring 30-50% more capital than conventional processing systems. However, this initial premium must be weighed against significant reductions in energy consumption, with supercritical CO2 systems demonstrating 20-40% lower energy requirements compared to traditional thermal separation processes.
Operational cost advantages emerge primarily from reduced solvent consumption, elimination of solvent recovery infrastructure, and decreased waste treatment expenses. Supercritical fluid extraction eliminates the need for organic solvents, translating to annual savings of 15-25% in consumable materials. Additionally, the closed-loop nature of supercritical systems minimizes environmental compliance costs and reduces liability exposure associated with hazardous waste disposal.
The payback period for supercritical implementations varies considerably across applications, typically ranging from 3 to 7 years depending on production scale and energy prices. Large-scale operations processing over 10 tons daily achieve faster returns due to economies of scale, while smaller installations may require extended timeframes to justify investment. Energy-intensive industries such as food processing and pharmaceutical manufacturing realize accelerated payback through substantial utility cost reductions.
Risk factors influencing cost-benefit calculations include technology maturity levels, operator training requirements, and maintenance complexity. While supercritical systems demand specialized technical expertise, automation advances have reduced labor intensity by approximately 30% compared to first-generation implementations. Furthermore, equipment reliability improvements have extended maintenance intervals, contributing to enhanced overall equipment effectiveness and reduced total cost of ownership over typical 15-20 year operational lifespans.
Operational cost advantages emerge primarily from reduced solvent consumption, elimination of solvent recovery infrastructure, and decreased waste treatment expenses. Supercritical fluid extraction eliminates the need for organic solvents, translating to annual savings of 15-25% in consumable materials. Additionally, the closed-loop nature of supercritical systems minimizes environmental compliance costs and reduces liability exposure associated with hazardous waste disposal.
The payback period for supercritical implementations varies considerably across applications, typically ranging from 3 to 7 years depending on production scale and energy prices. Large-scale operations processing over 10 tons daily achieve faster returns due to economies of scale, while smaller installations may require extended timeframes to justify investment. Energy-intensive industries such as food processing and pharmaceutical manufacturing realize accelerated payback through substantial utility cost reductions.
Risk factors influencing cost-benefit calculations include technology maturity levels, operator training requirements, and maintenance complexity. While supercritical systems demand specialized technical expertise, automation advances have reduced labor intensity by approximately 30% compared to first-generation implementations. Furthermore, equipment reliability improvements have extended maintenance intervals, contributing to enhanced overall equipment effectiveness and reduced total cost of ownership over typical 15-20 year operational lifespans.
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