
Australia Hermetic Motor Market Overview, 2030
Description
France’s plastic recycling market has evolved steadily over the past four decades, shaped by regulatory initiatives, industrial investments, and growing public awareness. Early efforts in the 1980s and 1990s focused on mechanical recycling of PET and HDPE bottles through municipal collection programs and pilot sorting schemes. A major milestone came in 1992 with the creation of Citeo, a producer-led organization responsible for coordinating the collection, sorting, and recycling of packaging waste, which standardized recycling practices and incentivized manufacturers to improve packaging design for recyclability. During the 2000s, curbside collection expanded nationwide, and advanced sorting facilities incorporating optical and automated technologies increased recovery rates for PET, HDPE, and other rigid plastics. Regulatory measures, including the Extended Producer Responsibility (EPR) framework for packaging and the Grenelle de l’Environnement initiatives, reinforced recycling targets and promoted public-private collaboration, making France one of the most organized recycling systems in Europe.By the 2010s, PET recovery rates exceeded 60–65%, and significant investments in industrial-scale recycling plants allowed for large-scale production of food-grade rPET for bottles and textile fibers. The past few years have seen the introduction of chemical recycling pilots and mechanical-chemical hybrid approaches to process flexible, multilayer, and contaminated plastics. Brand commitments from major FMCG companies and EU recycled-content mandates are further accelerating demand for high-quality recyclates. Today, France’s plastic recycling market combines mature mechanical recycling infrastructure with emerging advanced recycling technologies, supported by strong regulation, producer engagement, and public participation, positioning the country to meet ambitious circular economy goals and address the challenges of mixed and hard-to-recycle plastic streams.
According to the research report, ""France Plastic Recycling Market Overview, 2030,"" published by Bonafide Research, the France Plastic Recycling market is anticipated to add to more than USD 790 Million by 2025–30. France’s plastic recycling sector is strongly shaped by a rigorous regulatory and policy environment aligned with European Union directives. The EU Green Deal and the Single-Use Plastics Directive set binding targets for collection, recycling, and recycled-content quotas, while national frameworks, such as the Extended Producer Responsibility (EPR) scheme, require producers to finance and organize packaging waste collection and recycling. Deposit Return Systems (DRS) are under evaluation for certain beverage containers, aiming to further increase PET recovery rates. Food-contact safety is regulated by the European Food Safety Authority (EFSA), ensuring that mechanically and chemically recycled plastics meet stringent standards for food and beverage applications. Compared to regions such as North America or Asia, France demonstrates a highly integrated regulatory approach combining producer accountability, public infrastructure, and compliance monitoring. From an environmental and social perspective, plastic recycling in France generates significant carbon footprint reductions compared to virgin plastics. Mechanical recycling of PET and HDPE can save up to 60% of energy and reduce GHG emissions by 25–30%, contributing to circular economy integration. Waste diversion from landfills is substantial, with PET recovery rates exceeding 60% and rigid plastics widely reprocessed. Socially, France’s recycling system relies primarily on formal collection infrastructure, with limited involvement of informal waste sectors, ensuring labor safety, traceability, and stable employment. Public awareness campaigns and community participation further enhance recycling effectiveness. France’s combination of strict regulatory oversight, producer responsibility, and structured collection systems drives environmental benefits, reduces landfill pressure, and strengthens social outcomes, positioning the country as a leader in sustainable and socially responsible plastic recycling within Europe.
In France, the plastic recycling landscape varies considerably across different polymer types, reflecting collection efficiency, industrial demand, and technical recyclability. Polyethylene Terephthalate (PET) is the most successfully recycled material, largely sourced from beverage bottles and food containers. Recovery rates exceed, supported by municipal curbside programs, pilot deposit return schemes, and industrial initiatives coordinated by Citeo. Recycled PET (rPET) is widely used in food-grade packaging, textiles, and fibers. High-Density Polyethylene (HDPE), primarily from milk jugs, detergent containers, and rigid packaging, is also efficiently collected and mechanically recycled, supplying rHDPE for bottles, piping, and industrial applications. Polypropylene (PP) recycling remains more limited, with post-consumer collection constrained by municipal acceptance and contamination issues; however, industrial scrap and pilot programs are expanding its use in automotive components, packaging, and industrial goods. Low-Density Polyethylene (LDPE), including films and flexible packaging, presents challenges due to contamination and light weight, with recovery primarily via retail drop-off points and industrial streams. Polyvinyl Chloride (PVC) recycling is minimal, largely restricted to construction and industrial applications because of additive complexity and contamination risk. Polystyrene (PS), particularly foamed and food-contact forms, is difficult to recycle mechanically, though chemical recycling trials are underway to recover monomers. The “Others” category, including ABS, polycarbonate, and nylon, is mainly recovered from post-industrial or electronic waste streams for automotive, electronics, and specialty applications. Overall, PET and HDPE dominate France’s recycling market, while investments in chemical recycling and advanced sorting technologies aim to increase recovery for PP, LDPE, PS, and other challenging polymers, supporting national circular economy and sustainability objectives.
In France, plastic recycling relies on two primary sources: post-consumer and post-industrial plastics, each contributing differently to circularity. Post-consumer plastic waste comes from households, commercial establishments, and retail, including PET and HDPE bottles, LDPE films, PP containers, and other packaging materials. Collection occurs through municipal curbside recycling programs, community drop-off points, and pilot deposit return schemes for beverage containers. PET recovery rates exceed 60%, ensuring a consistent supply of high-quality rPET for food-grade packaging, textiles, and industrial applications. HDPE is similarly collected and reprocessed, although flexible plastics, multilayer packaging, and PP remain more challenging due to contamination and mixed-resin streams. Extended Producer Responsibility (EPR) programs and industrial initiatives, coordinated through organizations such as Citeo, help standardize collection, improve feedstock quality, and incentivize public participation.Post-industrial plastic waste originates from manufacturing processes, including production offcuts, trim, rejected parts, and surplus materials from injection molding, extrusion, or packaging production. This stream is cleaner, more homogeneous, and easier to recycle than post-consumer waste, providing high-quality feedstock for mechanical recycling and industrial applications. Recyclates from post-industrial sources are commonly used in automotive parts, construction materials, packaging, and electronics, often in closed-loop systems. While post-consumer plastics drive landfill diversion and circularity at scale, post-industrial waste ensures consistent quality and volume for industrial end users. Collectively, these sources underpin France’s strong recycling performance for PET and HDPE, while ongoing investments in advanced sorting and chemical recycling aim to improve recovery rates for more challenging polymers such as LDPE, PP, PS, and multilayer packaging, supporting national circular economy and sustainability goals.
France’s plastic recycling sector is primarily dominated by mechanical recycling, while chemical recycling is emerging to handle complex and hard-to-recycle plastics. Mechanical recycling involves collection, sorting, washing, shredding, and remelting plastics into flakes or pellets for reuse. PET and HDPE dominate this segment, supported by municipal curbside programs, community drop-off points, and pilot deposit return schemes. Mechanical recycling benefits from established infrastructure, relatively low operational costs, and regulatory approval, particularly for food-grade rPET and industrial applications. However, the process faces challenges with flexible packaging, multilayer materials, and contaminated streams, which can reduce recyclate quality and limit its application.Chemical recycling, also known as advanced or feedstock recycling, is gaining traction in France as a complementary solution for plastics unsuitable for mechanical recycling. Technologies such as pyrolysis, depolymerization, and solvolysis break plastics down into monomers or feedstock oils that can be reused to produce virgin-quality polymers. Pilot projects and commercial-scale plants are being developed by local and international companies, often in collaboration with brands and technology providers, targeting LDPE films, PP, PS, and mixed or multilayer plastics. Chemical recycling offers the potential to expand overall circularity and meet recycled-content mandates, though it requires higher capital investment, energy input, and careful environmental oversight. France employs a hybrid approach, with mechanical recycling managing high-volume, high-quality streams like PET and HDPE, while chemical recycling addresses complex or contaminated plastics. This dual strategy supports national circular economy objectives, reduces landfill dependency, and strengthens the supply of high-quality recyclates for industrial and consumer applications.
In France, the packaging industry is the largest consumer of recycled plastics, particularly PET and HDPE, used in beverage bottles, food containers, and household products. Collection and sorting programs, complemented by pilot deposit return schemes and initiatives coordinated by Citeo, ensure high-quality recyclates suitable for food-grade applications, packaging, and textile fibers. Brand commitments from companies such as Nestlé, Coca-Cola, and Danone, along with EU recycled-content mandates, further secure demand for recycled plastics. The electronics and electrical sector incorporates recycled ABS, polycarbonate, and polypropylene into appliance housings, connectors, and components. Recovery of engineering plastics from post-industrial and e-waste streams is expanding, although volumes remain moderate due to product complexity and contamination challenges. In the automotive industry, recycled PP, PET fibers, and nylon are increasingly utilized in interior trims, bumpers, and non-structural components, supported by French automotive manufacturers and suppliers adopting circular materials to meet sustainability goals. Building and construction applications include HDPE and PVC piping, insulation, composite panels, and exterior cladding, where post-industrial recyclates provide high-quality, durable feedstock for long-lasting applications. The others category covers textiles, furniture, and consumer goods, where recycled PET fibers are used in carpets, upholstery, and clothing. Overall, packaging dominates recycled plastic consumption, but electronics, automotive, and construction sectors are growing markets. These industries benefit from advanced sorting, mechanical and chemical recycling technologies, regulatory mandates, and circular economy initiatives, which together ensure a stable supply of high-quality recyclates and strengthen France’s leadership in sustainable and efficient plastic recycling.
Considered in this report
• Historic Year: 2019
• Base year: 2024
• Estimated year: 2025
• Forecast year: 2030
Aspects covered in this report
• Plastic Recycling Market with its value and forecast along with its segments
• Various drivers and challenges
• On-going trends and developments
• Top profiled companies
• Strategic recommendation
By Product Types
• Polyethylene Terephthalate (PET)
• High-Density Polyethylene (HDPE)
• Polypropylene (PP)
• Low-Density Polyethylene (LDPE)
• Polyvinyl Chloride (PVC)
• Polystyrene (PS)
• Others (ABS, Polycarbonate, Nylon, ETC.)
By Source
• Post-Consumer Plastic Waste
• Post-Industrial Plastic Waste
By Recycling Process
• Mechanical Recycling market
• Chemical recycling
• By End User Industries
• Packaging
• Electronics & Electrical
• Automotive
• Building & Construction
• Others
Considered in this report
• Historic Year: 2019
• Base year: 2024
• Estimated year: 2025
• Forecast year: 2030
Aspects covered in this report
• Hermetic Motor Market with its value and forecast along with its segments
• Various drivers and challenges
• On-going trends and developments
• Top profiled companies
• Strategic recommendation
By Power Output
• Fractional Horsepower (Up to 1HP)
• Integral Horsepower (Above 1HP)
By Voltage
• Upto 1kV
• 1kV-6.6kV
• Above 6.6kV
By Application
• Industrial Machinery
• Motor Vehicles
• HVAC Equipment
• Electrical Appliances
• Others
According to the research report, ""France Plastic Recycling Market Overview, 2030,"" published by Bonafide Research, the France Plastic Recycling market is anticipated to add to more than USD 790 Million by 2025–30. France’s plastic recycling sector is strongly shaped by a rigorous regulatory and policy environment aligned with European Union directives. The EU Green Deal and the Single-Use Plastics Directive set binding targets for collection, recycling, and recycled-content quotas, while national frameworks, such as the Extended Producer Responsibility (EPR) scheme, require producers to finance and organize packaging waste collection and recycling. Deposit Return Systems (DRS) are under evaluation for certain beverage containers, aiming to further increase PET recovery rates. Food-contact safety is regulated by the European Food Safety Authority (EFSA), ensuring that mechanically and chemically recycled plastics meet stringent standards for food and beverage applications. Compared to regions such as North America or Asia, France demonstrates a highly integrated regulatory approach combining producer accountability, public infrastructure, and compliance monitoring. From an environmental and social perspective, plastic recycling in France generates significant carbon footprint reductions compared to virgin plastics. Mechanical recycling of PET and HDPE can save up to 60% of energy and reduce GHG emissions by 25–30%, contributing to circular economy integration. Waste diversion from landfills is substantial, with PET recovery rates exceeding 60% and rigid plastics widely reprocessed. Socially, France’s recycling system relies primarily on formal collection infrastructure, with limited involvement of informal waste sectors, ensuring labor safety, traceability, and stable employment. Public awareness campaigns and community participation further enhance recycling effectiveness. France’s combination of strict regulatory oversight, producer responsibility, and structured collection systems drives environmental benefits, reduces landfill pressure, and strengthens social outcomes, positioning the country as a leader in sustainable and socially responsible plastic recycling within Europe.
In France, the plastic recycling landscape varies considerably across different polymer types, reflecting collection efficiency, industrial demand, and technical recyclability. Polyethylene Terephthalate (PET) is the most successfully recycled material, largely sourced from beverage bottles and food containers. Recovery rates exceed, supported by municipal curbside programs, pilot deposit return schemes, and industrial initiatives coordinated by Citeo. Recycled PET (rPET) is widely used in food-grade packaging, textiles, and fibers. High-Density Polyethylene (HDPE), primarily from milk jugs, detergent containers, and rigid packaging, is also efficiently collected and mechanically recycled, supplying rHDPE for bottles, piping, and industrial applications. Polypropylene (PP) recycling remains more limited, with post-consumer collection constrained by municipal acceptance and contamination issues; however, industrial scrap and pilot programs are expanding its use in automotive components, packaging, and industrial goods. Low-Density Polyethylene (LDPE), including films and flexible packaging, presents challenges due to contamination and light weight, with recovery primarily via retail drop-off points and industrial streams. Polyvinyl Chloride (PVC) recycling is minimal, largely restricted to construction and industrial applications because of additive complexity and contamination risk. Polystyrene (PS), particularly foamed and food-contact forms, is difficult to recycle mechanically, though chemical recycling trials are underway to recover monomers. The “Others” category, including ABS, polycarbonate, and nylon, is mainly recovered from post-industrial or electronic waste streams for automotive, electronics, and specialty applications. Overall, PET and HDPE dominate France’s recycling market, while investments in chemical recycling and advanced sorting technologies aim to increase recovery for PP, LDPE, PS, and other challenging polymers, supporting national circular economy and sustainability objectives.
In France, plastic recycling relies on two primary sources: post-consumer and post-industrial plastics, each contributing differently to circularity. Post-consumer plastic waste comes from households, commercial establishments, and retail, including PET and HDPE bottles, LDPE films, PP containers, and other packaging materials. Collection occurs through municipal curbside recycling programs, community drop-off points, and pilot deposit return schemes for beverage containers. PET recovery rates exceed 60%, ensuring a consistent supply of high-quality rPET for food-grade packaging, textiles, and industrial applications. HDPE is similarly collected and reprocessed, although flexible plastics, multilayer packaging, and PP remain more challenging due to contamination and mixed-resin streams. Extended Producer Responsibility (EPR) programs and industrial initiatives, coordinated through organizations such as Citeo, help standardize collection, improve feedstock quality, and incentivize public participation.Post-industrial plastic waste originates from manufacturing processes, including production offcuts, trim, rejected parts, and surplus materials from injection molding, extrusion, or packaging production. This stream is cleaner, more homogeneous, and easier to recycle than post-consumer waste, providing high-quality feedstock for mechanical recycling and industrial applications. Recyclates from post-industrial sources are commonly used in automotive parts, construction materials, packaging, and electronics, often in closed-loop systems. While post-consumer plastics drive landfill diversion and circularity at scale, post-industrial waste ensures consistent quality and volume for industrial end users. Collectively, these sources underpin France’s strong recycling performance for PET and HDPE, while ongoing investments in advanced sorting and chemical recycling aim to improve recovery rates for more challenging polymers such as LDPE, PP, PS, and multilayer packaging, supporting national circular economy and sustainability goals.
France’s plastic recycling sector is primarily dominated by mechanical recycling, while chemical recycling is emerging to handle complex and hard-to-recycle plastics. Mechanical recycling involves collection, sorting, washing, shredding, and remelting plastics into flakes or pellets for reuse. PET and HDPE dominate this segment, supported by municipal curbside programs, community drop-off points, and pilot deposit return schemes. Mechanical recycling benefits from established infrastructure, relatively low operational costs, and regulatory approval, particularly for food-grade rPET and industrial applications. However, the process faces challenges with flexible packaging, multilayer materials, and contaminated streams, which can reduce recyclate quality and limit its application.Chemical recycling, also known as advanced or feedstock recycling, is gaining traction in France as a complementary solution for plastics unsuitable for mechanical recycling. Technologies such as pyrolysis, depolymerization, and solvolysis break plastics down into monomers or feedstock oils that can be reused to produce virgin-quality polymers. Pilot projects and commercial-scale plants are being developed by local and international companies, often in collaboration with brands and technology providers, targeting LDPE films, PP, PS, and mixed or multilayer plastics. Chemical recycling offers the potential to expand overall circularity and meet recycled-content mandates, though it requires higher capital investment, energy input, and careful environmental oversight. France employs a hybrid approach, with mechanical recycling managing high-volume, high-quality streams like PET and HDPE, while chemical recycling addresses complex or contaminated plastics. This dual strategy supports national circular economy objectives, reduces landfill dependency, and strengthens the supply of high-quality recyclates for industrial and consumer applications.
In France, the packaging industry is the largest consumer of recycled plastics, particularly PET and HDPE, used in beverage bottles, food containers, and household products. Collection and sorting programs, complemented by pilot deposit return schemes and initiatives coordinated by Citeo, ensure high-quality recyclates suitable for food-grade applications, packaging, and textile fibers. Brand commitments from companies such as Nestlé, Coca-Cola, and Danone, along with EU recycled-content mandates, further secure demand for recycled plastics. The electronics and electrical sector incorporates recycled ABS, polycarbonate, and polypropylene into appliance housings, connectors, and components. Recovery of engineering plastics from post-industrial and e-waste streams is expanding, although volumes remain moderate due to product complexity and contamination challenges. In the automotive industry, recycled PP, PET fibers, and nylon are increasingly utilized in interior trims, bumpers, and non-structural components, supported by French automotive manufacturers and suppliers adopting circular materials to meet sustainability goals. Building and construction applications include HDPE and PVC piping, insulation, composite panels, and exterior cladding, where post-industrial recyclates provide high-quality, durable feedstock for long-lasting applications. The others category covers textiles, furniture, and consumer goods, where recycled PET fibers are used in carpets, upholstery, and clothing. Overall, packaging dominates recycled plastic consumption, but electronics, automotive, and construction sectors are growing markets. These industries benefit from advanced sorting, mechanical and chemical recycling technologies, regulatory mandates, and circular economy initiatives, which together ensure a stable supply of high-quality recyclates and strengthen France’s leadership in sustainable and efficient plastic recycling.
Considered in this report
• Historic Year: 2019
• Base year: 2024
• Estimated year: 2025
• Forecast year: 2030
Aspects covered in this report
• Plastic Recycling Market with its value and forecast along with its segments
• Various drivers and challenges
• On-going trends and developments
• Top profiled companies
• Strategic recommendation
By Product Types
• Polyethylene Terephthalate (PET)
• High-Density Polyethylene (HDPE)
• Polypropylene (PP)
• Low-Density Polyethylene (LDPE)
• Polyvinyl Chloride (PVC)
• Polystyrene (PS)
• Others (ABS, Polycarbonate, Nylon, ETC.)
By Source
• Post-Consumer Plastic Waste
• Post-Industrial Plastic Waste
By Recycling Process
• Mechanical Recycling market
• Chemical recycling
• By End User Industries
• Packaging
• Electronics & Electrical
• Automotive
• Building & Construction
• Others
Considered in this report
• Historic Year: 2019
• Base year: 2024
• Estimated year: 2025
• Forecast year: 2030
Aspects covered in this report
• Hermetic Motor Market with its value and forecast along with its segments
• Various drivers and challenges
• On-going trends and developments
• Top profiled companies
• Strategic recommendation
By Power Output
• Fractional Horsepower (Up to 1HP)
• Integral Horsepower (Above 1HP)
By Voltage
• Upto 1kV
• 1kV-6.6kV
• Above 6.6kV
By Application
• Industrial Machinery
• Motor Vehicles
• HVAC Equipment
• Electrical Appliances
• Others
Table of Contents
76 Pages
- 1. Executive Summary
- 2. Market Structure
- 2.1. Market Considerate
- 2.2. Assumptions
- 2.3. Limitations
- 2.4. Abbreviations
- 2.5. Sources
- 2.6. Definitions
- 3. Research Methodology
- 3.1. Secondary Research
- 3.2. Primary Data Collection
- 3.3. Market Formation & Validation
- 3.4. Report Writing, Quality Check & Delivery
- 4. Australia Geography
- 4.1. Population Distribution Table
- 4.2. Australia Macro Economic Indicators
- 5. Market Dynamics
- 5.1. Key Insights
- 5.2. Recent Developments
- 5.3. Market Drivers & Opportunities
- 5.4. Market Restraints & Challenges
- 5.5. Market Trends
- 5.6. Supply chain Analysis
- 5.7. Policy & Regulatory Framework
- 5.8. Industry Experts Views
- 6. Australia Hermetic Motor Market Overview
- 6.1. Market Size By Value
- 6.2. Market Size and Forecast, By Power Output
- 6.3. Market Size and Forecast, By Voltage
- 6.4. Market Size and Forecast, By Application
- 6.5. Market Size and Forecast, By Region
- 7. Australia Hermetic Motor Market Segmentations
- 7.1. Australia Hermetic Motor Market, By Power Output
- 7.1.1. Australia Hermetic Motor Market Size, By Fractional Horsepower (Up to 1HP), 2019-2030
- 7.1.2. Australia Hermetic Motor Market Size, By Integral Horsepower (Above 1HP), 2019-2030
- 7.2. Australia Hermetic Motor Market, By Voltage
- 7.2.1. Australia Hermetic Motor Market Size, By Upto 1kV, 2019-2030
- 7.2.2. Australia Hermetic Motor Market Size, By 1kV-6.6kV, 2019-2030
- 7.2.3. Australia Hermetic Motor Market Size, By Above 6.6kV, 2019-2030
- 7.3. Australia Hermetic Motor Market, By Application
- 7.3.1. Australia Hermetic Motor Market Size, By Industrial Machinery, 2019-2030
- 7.3.2. Australia Hermetic Motor Market Size, By Motor Vehicles, 2019-2030
- 7.3.3. Australia Hermetic Motor Market Size, By HVAC Equipment, 2019-2030
- 7.3.4. Australia Hermetic Motor Market Size, By Electrical Appliances, 2019-2030
- 7.3.5. Australia Hermetic Motor Market Size, By Others, 2019-2030
- 7.4. Australia Hermetic Motor Market, By Region
- 7.4.1. Australia Hermetic Motor Market Size, By North, 2019-2030
- 7.4.2. Australia Hermetic Motor Market Size, By East, 2019-2030
- 7.4.3. Australia Hermetic Motor Market Size, By West, 2019-2030
- 7.4.4. Australia Hermetic Motor Market Size, By South, 2019-2030
- 8. Australia Hermetic Motor Market Opportunity Assessment
- 8.1. By Power Output, 2025 to 2030
- 8.2. By Voltage, 2025 to 2030
- 8.3. By Application, 2025 to 2030
- 8.4. By Region, 2025 to 2030
- 9. Competitive Landscape
- 9.1. Porter's Five Forces
- 9.2. Company Profile
- 9.2.1. Company 1
- 9.2.1.1. Company Snapshot
- 9.2.1.2. Company Overview
- 9.2.1.3. Financial Highlights
- 9.2.1.4. Geographic Insights
- 9.2.1.5. Business Segment & Performance
- 9.2.1.6. Product Portfolio
- 9.2.1.7. Key Executives
- 9.2.1.8. Strategic Moves & Developments
- 9.2.2. Company 2
- 9.2.3. Company 3
- 9.2.4. Company 4
- 9.2.5. Company 5
- 9.2.6. Company 6
- 9.2.7. Company 7
- 9.2.8. Company 8
- 10. Strategic Recommendations
- 11. Disclaimer
- List of Tables
- Figure 1: Australia Hermetic Motor Market Size By Value (2019, 2024 & 2030F) (in USD Million)
- Figure 2: Market Attractiveness Index, By Power Output
- Figure 3: Market Attractiveness Index, By Voltage
- Figure 4: Market Attractiveness Index, By Application
- Figure 5: Market Attractiveness Index, By Region
- Figure 6: Porter's Five Forces of Australia Hermetic Motor Market
- List of Figures
- Table 1: Influencing Factors for Hermetic Motor Market, 2024
- Table 2: Australia Hermetic Motor Market Size and Forecast, By Power Output (2019 to 2030F) (In USD Million)
- Table 3: Australia Hermetic Motor Market Size and Forecast, By Voltage (2019 to 2030F) (In USD Million)
- Table 4: Australia Hermetic Motor Market Size and Forecast, By Application (2019 to 2030F) (In USD Million)
- Table 5: Australia Hermetic Motor Market Size and Forecast, By Region (2019 to 2030F) (In USD Million)
- Table 6: Australia Hermetic Motor Market Size of Fractional Horsepower (Up to 1HP) (2019 to 2030) in USD Million
- Table 7: Australia Hermetic Motor Market Size of Integral Horsepower (Above 1HP) (2019 to 2030) in USD Million
- Table 8: Australia Hermetic Motor Market Size of Upto 1kV (2019 to 2030) in USD Million
- Table 9: Australia Hermetic Motor Market Size of 1kV-6.6kV (2019 to 2030) in USD Million
- Table 10: Australia Hermetic Motor Market Size of Above 6.6kV (2019 to 2030) in USD Million
- Table 11: Australia Hermetic Motor Market Size of Industrial Machinery (2019 to 2030) in USD Million
- Table 12: Australia Hermetic Motor Market Size of Motor Vehicles (2019 to 2030) in USD Million
- Table 13: Australia Hermetic Motor Market Size of HVAC Equipment (2019 to 2030) in USD Million
- Table 14: Australia Hermetic Motor Market Size of Electrical Appliances (2019 to 2030) in USD Million
- Table 15: Australia Hermetic Motor Market Size of Others (2019 to 2030) in USD Million
- Table 16: Australia Hermetic Motor Market Size of North (2019 to 2030) in USD Million
- Table 17: Australia Hermetic Motor Market Size of East (2019 to 2030) in USD Million
- Table 18: Australia Hermetic Motor Market Size of West (2019 to 2030) in USD Million
- Table 19: Australia Hermetic Motor Market Size of South (2019 to 2030) in USD Million
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