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The global biodegradable polymers market is expected to grow at a CAGR of 21.1% during the period 2023-2028. The market is likely to be driven by increased interest in biodegradable materials for use in sectors such as packaging, agriculture, and medicine.
Organizations are engaged in modifying conventional materials to make them more user-friendly, and designing new polymer composites out of naturally occurring materials. While several biological materials may be used to form biodegradable polymer material, starch and fibre extracted from different types of plants are more commonly used. North America, Europe and Asia are expected to be key markets.
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Biodegradable polymers are commonly known as biopolymers, and are generally derived from different natural sources. Plastics such as PLA, PHA, and starch are generally used biopolymers with less damage to the environment. Biodegradability is a feature of polymers independent of their origin, and may be changed by making alterations at the molecular level. For example, some polymers are produced from petroleum feedstock, but are biodegradable. Biopolymers from renewable feedstock are the most plentiful and commonly available biopolymers.
Synthetic biopolymers are polymers modified from natural polymers or chemically synthesized from synthetic monomers such that they may undergo natural degradation, without leaving remains harmful to the environment. Through the use of technology, synthetic biopolymers may be formed, such as polycaprolactone (PCL), polyvinyl alcohol (PVOH), polylactic acid (PLA), polyglycolic acid (PGA), and polybutylene succinate (PBS). Advantages of synthetic biopolymers include the potential to set up a sustainable industry and improvement in properties like high gloss, durability, clarity, flexibility, and tensile strength. These advantages are expected to contribute to growth of global biodegradable polymers market.
Biopolymers may be classified under categories explained below:
Sugar-based biopolymers – These are the most common and widely studied biopolymers with significant potential in multiple applications. It is also known as polylactic acid (PLA). PLA is extracted from any fermentable sugar; however, corn forms the major source as it is among cheaper and easily available sugars across the globe. Sugarcane, cassava, tapioca root sugar beet pulp are other alternatives.
Starch-based biopolymers – Starch, a biopolymer and form of carbohydrate, is widely available in plant tissue. It is may be extracted from a variety of sources, including tapioca, potatoes, corn, and wheat.
Cellulose-based biopolymers – Cellulose is abundantly found in the plant cell walls. Glucose is the key constituent of cellulose. Cellulose may be employed either as filler or plasticizer in other biopolymers to enhance properties.
Applications of biodegradable polymers include collection bags for green waste, agricultural films, disposable items, flower containers, wrapping plastics, razors, bottles, sanitary products, sport clothes, conditioning and packaging, agricultural films, etc.
Biodegradable polymers are used in surgical implants employed in vascular or orthopaedic surgery and plain membranes. Biodegradable polyesters are extensively employed as porous structure in tissue engineering owing to their good strength and an adjustable degradation speed. Further, biodegradable polymers are employed as implantable matrices for controlled release of drugs within the body or as absorbable sutures.
In the automotive sector, PLA is mixed with fibres of kenaf to replace panels of car doors and dashboards. Starch-based polymers are employed as additive in tyre manufacturing; it decreases resistance to movement, fuel consumption and fine greenhouse gas emissions.
PLA and kenaf are also employed as composite in electronics applications.
In construction, PLA fibre is used for padding and carpet stone paving.
Certain items such as fishing hooks and biodegradable golf tees (Vegeplast, France) are starch based. PLA fibre is used to manufacture sports clothing.
Due to its function as an absorbent for heavy and radioactive metals, Chitin is used in wastewater treatment.
Aliphatic polyesters such as PLA, PBS, PCL and their copolymers are employed as biodegradable plastics to manufacture disposable consumer products, including disposable food service items (disposable cutlery and plates), diapers, cotton stalk, sanitary products, etc.
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By type, the market is segmented into:
By distribution channel, the market is divided into:
By region, the market is classified into:
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The report presents a detailed analysis of the following key players in the market, looking into their capacity, and latest developments like capacity expansions, plant turnarounds, and mergers and acquisitions:
The EMR report gives an in-depth insight into the industry by providing a SWOT analysis as well as an analysis of Porter’s Five Forces model.
REPORT FEATURES | DETAILS |
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Base Year | 2022 |
Historical Period | 2018-2022 |
Forecast Period | 2023-2028 |
Scope of the Report |
Historical and Forecast Trends, Industry Drivers and Constraints, Historical and Forecast Market Analysis by Segment:
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Breakup by Type |
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Breakup by Distribution Channel |
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Breakup by Region |
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Market Dynamics |
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Competitive Landscape |
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Companies Covered |
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Report Price and Purchase Option | Explore our purchase options that are best suited to your resources and industry needs. |
Delivery Format | Delivered as an attached PDF and Excel through email, with an option of receiving an editable PPT, according to the purchase option. |
*At Expert Market Research, we strive to always give you current and accurate information. The numbers depicted in the description are indicative and may differ from the actual numbers in the final EMR report.
1 Preface
2 Report Coverage – Key Segmentation and Scope
3 Report Description
3.1 Market Definition and Outlook
3.2 Properties and Application
3.3 Market Analysis
3.4 Key Players
4 Key Assumptions
5 Executive Summary
5.1 Overview
5.2 Key Drivers
5.3 Key Developments
5.4 Competitive Structure
5.5 Key Industrial Trends
6 Market Snapshot
6.1 Global
6.2 Regional
7 Opportunities and Challenges in the Market
8 Global Biodegradable Polymers Market Analysis
8.1 Key Industry Highlights
8.2 Global Biodegradable Polymers Historical Market (2018-2022)
8.3 Global Biodegradable Polymers Market Forecast (2023-2028)
8.4 Global Biodegradable Polymers Market by Type
8.4.1 Starch-based Plastics
8.4.1.1 Market Share
8.4.1.2 Historical Trend (2018-2022)
8.4.1.3 Forecast Trend (2023-2028)
8.4.2 Polylactic Acid (PLA)
8.4.2.1 Market Share
8.4.2.2 Historical Trend (2018-2022)
8.4.2.3 Forecast Trend (2023-2028)
8.4.3 Polyhydroxy Alkanoates (PHA)
8.4.3.1 Market Share
8.4.3.2 Historical Trend (2018-2022)
8.4.3.3 Forecast Trend (2023-2028)
8.4.4 Polyesters (PBS, PBAT, and PCL)
8.4.4.1 Market Share
8.4.4.2 Historical Trend (2018-2022)
8.4.4.3 Forecast Trend (2023-2028)
8.4.5 Cellulose Derivatives
8.4.5.1 Market Share
8.4.5.2 Historical Trend (2018-2022)
8.4.5.3 Forecast Trend (2023-2028)
8.5 Global Biodegradable Polymers Market by Distribution Channel
8.5.1 Agriculture
8.5.1.1 Market Share
8.5.1.2 Historical Trend (2018-2022)
8.5.1.3 Forecast Trend (2023-2028)
8.5.2 Healthcare
8.5.2.1 Market Share
8.5.2.2 Historical Trend (2018-2022)
8.5.2.3 Forecast Trend (2023-2028)
8.5.3 Textile
8.5.3.1 Market Share
8.5.3.2 Historical Trend (2018-2022)
8.5.3.3 Forecast Trend (2023-2028)
8.5.4 Packaging
8.5.4.1 Market Share
8.5.4.2 Historical Trend (2018-2022)
8.5.4.3 Forecast Trend (2023-2028)
8.5.5 Consumer Electronics
8.5.5.1 Market Share
8.5.5.2 Historical Trend (2018-2022)
8.5.5.3 Forecast Trend (2023-2028)
8.5.6 Others
8.6 Global Biodegradable Polymers Market by Region
8.6.1 North America
8.6.1.1 Market Share
8.6.1.2 Historical Trend (2018-2022)
8.6.1.3 Forecast Trend (2023-2028)
8.6.2 Europe
8.6.2.1 Market Share
8.6.2.2 Historical Trend (2018-2022)
8.6.2.3 Forecast Trend (2023-2028)
8.6.3 Asia Pacific
8.6.3.1 Market Share
8.6.3.2 Historical Trend (2018-2022)
8.6.3.3 Forecast Trend (2023-2028)
8.6.4 Latin America
8.6.4.1 Market Share
8.6.4.2 Historical Trend (2018-2022)
8.6.4.3 Forecast Trend (2023-2028)
8.6.5 Middle East and Africa
8.6.5.1 Market Share
8.6.5.2 Historical Trend (2018-2022)
8.6.5.3 Forecast Trend (2023-2028)
9 North America Biodegradable Polymers Market Analysis
9.1 United States of America
9.1.1 Market Share
9.1.2 Historical Trend (2018-2022)
9.1.3 Forecast Trend (2023-2028)
9.2 Canada
9.2.1 Market Share
9.2.2 Historical Trend (2018-2022)
9.2.3 Forecast Trend (2023-2028)
10 Europe Biodegradable Polymers Market Analysis
10.1 United Kingdom
10.1.1 Market Share
10.1.2 Historical Trend (2018-2022)
10.1.3 Forecast Trend (2023-2028)
10.2 Germany
10.2.1 Market Share
10.2.2 Historical Trend (2018-2022)
10.2.3 Forecast Trend (2023-2028)
10.3 France
10.3.1 Market Share
10.3.2 Historical Trend (2018-2022)
10.3.3 Forecast Trend (2023-2028)
10.4 Italy
10.4.1 Market Share
10.4.2 Historical Trend (2018-2022)
10.4.3 Forecast Trend (2023-2028)
10.5 Others
11 Asia Pacific Biodegradable Polymers Market Analysis
11.1 China
11.1.1 Market Share
11.1.2 Historical Trend (2018-2022)
11.1.3 Forecast Trend (2023-2028)
11.2 Japan
11.2.1 Market Share
11.2.2 Historical Trend (2018-2022)
11.2.3 Forecast Trend (2023-2028)
11.3 India
11.3.1 Market Share
11.3.2 Historical Trend (2018-2022)
11.3.3 Forecast Trend (2023-2028)
11.4 ASEAN
11.4.1 Market Share
11.4.2 Historical Trend (2018-2022)
11.4.3 Forecast Trend (2023-2028)
11.5 Australia
11.5.1 Market Share
11.5.2 Historical Trend (2018-2022)
11.5.3 Forecast Trend (2023-2028)
11.6 Others
12 Latin America Biodegradable Polymers Market Analysis
12.1 Brazil
12.1.1 Market Share
12.1.2 Historical Trend (2018-2022)
12.1.3 Forecast Trend (2023-2028)
12.2 Argentina
12.2.1 Market Share
12.2.2 Historical Trend (2018-2022)
12.2.3 Forecast Trend (2023-2028)
12.3 Mexico
12.3.1 Market Share
12.3.2 Historical Trend (2018-2022)
12.3.3 Forecast Trend (2023-2028)
12.4 Others
13 Middle East and Africa Biodegradable Polymers Market Analysis
13.1 Saudi Arabia
13.1.1 Market Share
13.1.2 Historical Trend (2018-2022)
13.1.3 Forecast Trend (2023-2028)
13.2 United Arab Emirates
13.2.1 Market Share
13.2.2 Historical Trend (2018-2022)
13.2.3 Forecast Trend (2023-2028)
13.3 Nigeria
13.3.1 Market Share
13.3.2 Historical Trend (2018-2022)
13.3.3 Forecast Trend (2023-2028)
13.4 South Africa
13.4.1 Market Share
13.4.2 Historical Trend (2018-2022)
13.4.3 Forecast Trend (2023-2028)
13.5 Others
14 Market Dynamics
14.1 SWOT Analysis
14.1.1 Strengths
14.1.2 Weaknesses
14.1.3 Opportunities
14.1.4 Threats
14.2 Porter’s Five Forces Analysis
14.2.1 Supplier’s Power
14.2.2 Buyer’s Power
14.2.3 Threat of New Entrants
14.2.4 Degree of Rivalry
14.2.5 Threat of Substitutes
14.3 Key Indicators for Demand
14.4 Key Indicators for Price
15 Value Chain Analysis
16 Competitive Landscape
16.1 Market Structure
16.2 Company Profiles
16.2.1 BASF SE
16.2.1.1 Company Overview
16.2.1.2 Product Portfolio
16.2.1.3 Demographic Reach and Achievements
16.2.1.4 Certifications
16.2.2 NatureWorks LLC
16.2.2.1 Company Overview
16.2.2.2 Product Portfolio
16.2.2.3 Demographic Reach and Achievements
16.2.2.4 Certifications
16.2.3 Novamont SpA
16.2.3.1 Company Overview
16.2.3.2 Product Portfolio
16.2.3.3 Demographic Reach and Achievements
16.2.3.4 Certifications
16.2.4 Total Corbion PLA
16.2.4.1 Company Overview
16.2.4.2 Product Portfolio
16.2.4.3 Demographic Reach and Achievements
16.2.4.4 Certifications
16.2.5 Rodenburg Biopolymers
16.2.5.1 Company Overview
16.2.5.2 Product Portfolio
16.2.5.3 Demographic Reach and Achievements
16.2.5.4 Certifications
16.2.6 Biome Bioplastics Limited
16.2.6.1 Company Overview
16.2.6.2 Product Portfolio
16.2.6.3 Demographic Reach and Achievements
16.2.6.4 Certifications
16.2.7 Others
17 Key Trends and Developments in the Market
List of Figures and Tables
1. Global Biodegradable Polymers Market: Key Industry Highlights, 2018 and 2028
2. Global Biodegradable Polymers Historical Market: Breakup by Type (USD Million), 2018-2022
3. Global Biodegradable Polymers Market Forecast: Breakup by Type (USD Million), 2023-2028
4. Global Biodegradable Polymers Historical Market: Breakup by Distribution Channels (USD Million), 2018-2022
5. Global Biodegradable Polymers Market Forecast: Breakup by Distribution Channels (USD Million), 2023-2028
6. Global Biodegradable Polymers Historical Market: Breakup by Region (USD Million), 2018-2022
7. Global Biodegradable Polymers Market Forecast: Breakup by Region (USD Million), 2023-2028
8. North America Biodegradable Polymers Historical Market: Breakup by Country (USD Million), 2018-2022
9. North America Biodegradable Polymers Market Forecast: Breakup by Country (USD Million), 2023-2028
10. Europe Biodegradable Polymers Historical Market: Breakup by Country (USD Million), 2018-2022
11. Europe Biodegradable Polymers Market Forecast: Breakup by Country (USD Million), 2023-2028
12. Asia Pacific Biodegradable Polymers Historical Market: Breakup by Country (USD Million), 2018-2022
13. Asia Pacific Biodegradable Polymers Market Forecast: Breakup by Country (USD Million), 2023-2028
14. Latin America Biodegradable Polymers Historical Market: Breakup by Country (USD Million), 2018-2022
15. Latin America Biodegradable Polymers Market Forecast: Breakup by Country (USD Million), 2023-2028
16. Middle East and Africa Biodegradable Polymers Historical Market: Breakup by Country (USD Million), 2018-2022
17. Middle East and Africa Biodegradable Polymers Market Forecast: Breakup by Country (USD Million), 2023-2028
18. Global Biodegradable Polymers Market Structure
The global biodegradable polymers market is projected to grow at a CAGR of 21.1% between 2023 and 2028.
The major drivers of the market include the increasing demand in the packaging industry, industrialisation and urbanisation, favourable government policies, and rise in awareness regarding the benefits of using biodegradable polymers.
The increased interest in biodegradable materials for use in various sectors and growing concerns regarding environmental degradation are the key industry trends propelling the market's growth.
The major regions in the industry are North America, Latin America, the Middle East and Africa, Europe, and the Asia Pacific.
Based on type, the market is divided into starch-based plastics, polylactic acid (PLA), polyhydroxy alkanoates (PHA), polyesters (PBS, PBAT, and PCL), and cellulose derivatives.
The several distribution channels are agriculture, healthcare, textile, packaging, and consumer electronics, among others.
The major players in the industry are BASF SE, NatureWorks LLC, Novamont SpA, Total Corbion PLA, Rodenburg Biopolymers, and Biome Bioplastics Limited, among others.
The global biodegradable polymers market was driven by the increased interest in biodegradable materials for use in various sectors in the historical period. Aided by the favourable government policies and rise in awareness regarding the benefits of using biodegradable polymers, the market is expected to grow at the CAGR of 21.1% in the forecast period of 2023-2028.
EMR's meticulous research methodology delves deep into the market, covering the macro and micro aspects of the industry. Based on type, the market is divided into starch-based plastics, polylactic acid (PLA), polyhydroxy alkanoates (PHA), polyesters (PBS, PBAT, and PCL), and cellulose derivatives. The several distribution channels are agriculture, healthcare, textile, packaging, and consumer electronics, among others. The major regional markets for biodegradable polymers are North America, Europe, the Asia Pacific, Latin America, the Middle East and Africa. The major players in the industry are BASF SE, NatureWorks LLC, Novamont SpA, Total Corbion PLA, Rodenburg Biopolymers, and Biome Bioplastics Limited, among others.
EMR's research methodology uses a combination of cutting-edge analytical tools and the expertise of their highly accomplished team, thus, providing their customers with market insights that are accurate, actionable and help them remain ahead of their competition.
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