Bioplastics Challenges and Facts

Similar documents
Let s make our Planet Clean & Green for the Next Generation!!!

Biodegradable & Bio-based Plastics Market Introduction & Framwork

Biodegradable plastics fact sheet

Transforming visions into realities. Compostable polymers with biobased content

Introduction to Biopolymers and Bioplastics

Biodegradable Packaging

nuplas BRINGING PLA TO MARKET

Biodegradable Packaging For Horticulture Factsheet

Bio-plastics, plastics derived from renewable biomass sources such as plant starches and

BIOBASED & BIODEGRADABLE POLYMER MATERIALS: RATIONALE, DRIVERS, AND TECHNOLOGY EXEMPLARS

BASF Biodegradables. Bioplastics 101. Daniel Hebert BASF Canada-Biodegradable Plastics

VELIBRE S BIODEGRADABLE RATIONALE. Why Velibre is the world s most sustainable capsule product

Bioeconomy Forum Finland 2012

Featuring 100 % renewable cartons

Sustainable plastics on mass events theory and practice

Sugarcane Polyolefins Adding value through the use of I m green Polyethylene. May 2014

Bio-feedstocks, Chemicals and Polymers. Trends, Success Stories and Challenges.

Evaluation of Polylactic Acid (PLA)

Metabolix: Pivot to Performance Focus

FROM CORN TO PLASTIC

San Francisco s Food Composting Program

Organics Recycling Best Practices

Biodegradable Flexible Packaging

GASIFICATION THE WASTE-TO-ENERGY SOLUTION SYNGAS WASTE STEAM CONSUMER PRODUCTS TRANSPORTATION FUELS HYDROGEN FOR OIL REFINING FERTILIZERS CHEMICALS

CIRCULAR ECONOMY: IT S REAL AND IT COMES WITH PLASTIC FOOD PACKAGING. THE ILIP CASE

Renewable. Ambient Compostable. FCN Approved

"Alternative ways for managing urban organic waste: Current practices and future trends" Prof. Maria Loizidou

The role of Biomass in Renewable Energy Sources and its potential for green house gas reduction

Sustainable Communities Need Sustainable Biomaterials

Green Chemistry in Action: Choosing the Right Materials Table 1 Sustainable Materials: Bioplastics

WEI LI presented WL-MP02-Standard Model. Semi-Automatic PET Reheat Stretch Blow Moulding Machine

DANONE PACKAGING POLICY LIC Y PACKAGING POLICY CO-BUILD THE CIRCULAR ECONOMY OF PACKAGING

Future of Solid Waste Management

Aerobic and Anaerobic Biodegradation. Danny Clark ENSO Bottles LLC 06/29/2010

Development of Engineered Biopolymers for the Wood Composite Market

Packaging, Sustaining the Asian Environment

The Future of Solid Waste Management

Thomas Grotkjær Biomass Conversion, Business Development

Product and chain development for Oil Palm

New GaBi Database for Bioplastics

PLA IN THE WASTE STREAM

Fact Sheet. Feb 2011

CITY OF ORILLIA BIODEGRADABLE BAG STUDY. December 2003 Solid Waste Management Division

Green PE Business. Augusto Morita Open Innovation

Presentations from ISO technical committees covering biotechnology-related issues. TC 61 Plastics

Certified Compostable Applications

This project is implemented through the CENTRAL EUROPE Programme co-financed by the ERDF 1

The Biotech Revolution in Europe What s needed to make it happen?

Biofuels and Food Security A consultation by the HLPE to set the track of its study.

CORBION: DEVELOPING A BIOBASED PORTFOLIO

A GUIDE TO WORKPLACE COMPOSTING

This is a draft revision of the briefing, and any comments are welcome please them to Becky Slater on

Biobased : An inseparable part of the adhesives market

Advances In Agricultural plastics Recycling in Europe

THE COMPANY. Property of Ecobags s.r.l. - Copy is forbidden without prior written consent of Ecobags s.r.l.

Definitions. Biodegradable vs. Compostable Plastics

Aerobic and Anaerobic Biodegradation

SUSTAINABLE BIOPLASTICS INDUSTRY FROM RENEWABLE RESOURCES IN MALAYSIA

Sustainable packaging

Boosting the industrial biotechnology to boost the European Bioeconomy

Intelligent plastics, naturally

A new assessment of the material use of renewable raw materials

Sao Paulo. May th September 2007

Biomass as an Energy Resource for Michigan: Opportunities, Challenges and Policies. William A. Knudson Working Paper January 2011

Introduction to Engineering

Bio coating. a sustainable solution f r flexible packaging. Stefano Tominetti, Ph.D. Managing Director

Pouch Packaging: Popular, Profitable and Problematic

Presented by: USA Biogas

Business Presentation Tel

Transatlantic Innovation Action Partnership Work Plan

Green Thumb Initiative

The USDA BioPreferred Program as a Driver for Biobased Product Producers

The Importance of Partnerships in the World Bioeconomy

GREEN PLASTICS (1 HR)

GCE Environmental Technology. Energy from Biomass. For first teaching from September 2013 For first award in Summer 2014

Industrial implementation of biodegradable and compostable packaging nets for agricultural and shellfish products

EV0422 Assessing the Environmental Impacts of Oxo-degradable Plastics Across Their Life Cycle

Plastic Bags. (Recyclable Film) NERC Patty Moore Consultant to American Chemistry Council

Biowaste Management in Italy and Quality Assurance

Purchasing Specifications for Compostable Food Service Ware

6. Good Practice Example: Biogas in Germany

Program OK 12. Bio products degradation in seawater

Industry initiatives to reduce food waste

MULTI-WASTE TREATMENT AND VALORISATION BY THERMOCHEMICAL PROCESSES. Francisco Corona Encinas M Sc.

แผนพ ฒนาพล งงานทดแทนและพล งงานทางเล อก พ.ศ Alternative Energy Development Plan: AEDP2015

Lenzing Beyond Organic Cotton. Michael Kininmonth

Lignin Extraction Process Plant Residues for Green Chemistry and Biogas. Berlin,

Printing and Writing Papers Life- Cycle Assessment Frequently Asked Questions

BIOMASS. Biomass Project Biodegradable Materials for Sustainable Agriculture and Tourism. Layman s Report

INCO-Biomat Project. Opportunity study about the processing of cottonseed proteins into materials for agro-industries in South- America

Oxo-Biodegradable Plastics Association

Alternative Paving Binders Gayle King Rocky Mountain Asphalt Conference

The Role of Biodegradable Waste Management in Europe. Dr. Stefanie Siebert, Quality Manager, European Compost Network ECN

Thailand Sugar Industry and Opportunities. 28 January 2016 Upsorn Pliansinchai Vice-President, Mitr Phol Innovation and Research center

Sustainable Succinic Acid

Algae Wastewater Biogas Robert Reinhardt AlgEn, algal technology centre, Slovenia

PROCESS ECONOMICS PROGRAM

Sustainable Development & Our approach to Packaging for a Sustainable Future. Gail Tavill

Transcription:

Bioplastics Challenges and Facts FKuR Kunststoff GmbH Siemensring 79, 47877 Willich/Germany & FKuR Plastics Corporation 921 West New Hope Drive, Bldg. 605, Cedar Park, TX/USA Julia Dolfen Market Development Chart 1

FKuR - Who we are Founded in 1992 as Forschungsinstitut Kunststoff und Recycling Since 1998 cooperation with the Fraunhofer Institute UMSICHT, Oberhausen, Germany; mutual development and material research of Bioplastics Since 2003 operating as FKuR Kunststoff GmbH, privately owned company with the commitment to produce sustainable materials Since September 2009 operating in Cedar Park, Texas, as FKuR Plastics Corporation Produced resins (Brands): Bio-Flex ; Biograde ; Fibrolon ; Terralene Chart 2

Overview Basics Successful Market Placements Challenges and Facts Raw Material Sources Green Washing Composting Program Infrastructure Outlook Chart 3

Overview Basics Successful Market Placements Challenges and Facts Raw Material Sources Green Washing Composting Program Infrastructure Outlook Chart 4

Basics Biodegradable Plastics (Either Fossil or Renewable Carbon Source) Biodegradation doesn t depend on the origin of the raw material, but on the chemical structure of the polymer chain Biodegradation is a biological process of organic matter being degraded by micro-organisms (fungi, bacteria) and ultimately converted to water, CO 2 /methane, energy and biomass. There is no defined time frame for biodegradability as well as no generally accepted definition Compostable Plastics (Plastics that are Biodegradable under Composting Conditions) The common US Standard to test compostability for packaging is ASTM D 6400 standard (EU equivalent EN 13432): 1. Inherent Biodegradation: 90% of the organic carbon must be converted to carbon dioxide by the end of the test period (180 days); 2. Disintegration: After 12 weeks no more than 10% of its organic dry weight remains after sieving on a 2 mm sieve; 3. Safety: The plastic product can demonstrate terrestrial and aquatic safety (amount of heavy metals, germination rate not less than 90%) Chart 5

Basics Degradation process at 65 C (Bio-Flex Multilayer Film) 0 days 10 days 18 days Chart 6

Basics Biobased Plastics (Renewable Carbon Source) Biobased Plastics are plastics that are made from renewable or reproducible sources such as plant based products/feedstock, e.g. bio-ethanol made from sugar cane, or PLA Biobased Plastics are not automatically biodegradable Bio-PE made of bio-ethanol for instance is a regular plastic and can also be recycled Oxo- or Photodegradable Plastics/ Additives Oxo- or Photodegradable Additives are incorporated in conventional plastics such as PE, PP, or PS at the moment of conversion into final products. These additives can be based on organic materials, like starch or transition metals like cobalt, nickel and zinc. Organic additives can biodegrade in few weeks. The key point is nevertheless that the remaining 95% - 99% of traditional polymers would only fragmentize to hardly visible polymer particles. Additives based on transition metals foster oxidation and chain degradation in plastics, especially when exposed to heat and light (photo degradable). Results of this chain degradation are small, hardly visible polymer particles that do not biodegrade, but move through our eco compartments Chart 7

Basics The Variation of Biopolymers has increased! Renewable Resources Bio-PE PHA CA PLA Bio-PA Bio-Blends TPS Not biodegradable Biodegradable Conventional plastics, e. g. PE, PP, ABS PBAT PBS Petrochemical raw materials Chart 8

Overview Basics Successful Market Placements Challenges and Facts Raw Material Sources Green Washing Composting Program Infrastructure Outlook Chart 9

Successful Market Placements Deep-Freeze Packaging FKuR resins for McCain Chart 10

Successful Market Placements Back Sheets for Baby Diapers FKuR Bio-Flex Chart 11

Successful Market Placements Computer Keyboard and Mouse FKuR resins for Fujitsu Chart 12

Successful Market Placements Danone Bottle and Yoghurt Cup Green HDPE and PLA Chart 13

Successful Market Placements Sun Chips Bag PLA and PBAT Chart 14

Successful Market Placements Compostable Food Service Ware PLA and Cellulose Acetate Chart 15

Overview Basics Successful Market Placements Challenges and Facts Raw Material Sources Green Washing Composting Program Infrastructure Outlook Chart 16

Raw Material Challenge Biobased Plastics are mainly based on first generation feedstock* and therefore a potential competition with food and animal feed *Sugar, starch, plant oil and natural rubber Facts Most of the arable land is used for animal feed (69%), followed by food (17%), material use (7% including bioplastics) and finally bioenergy (3,5%) 2010 about 724,000 tons of bio-based plastics were produced; 2.5 tons of biobased plastics can be produced per hectare and per year= crops for biobased plastics were grown on 290,000 hectares (0,02% of global arable land) Chart 17

Raw Material To substitute all 250 million tons of plastic in the world with biobased plastic will demand 100 million hectares or 7% of the global arable land According to the Nova Institute 0.6 to 1.6 billion hectares could be added to the current 1.4 billion hectares of crop land, if political reforms (e.g. eliminate export subsidies) and investments in agro-technologies take place Other measures that could be taken: switch to more vegetarian food (protein from cattle demands 40-50 more times biomass than soya), reduce food losses (one third of the worldwide food produced for human consumption is lost or wasted), switch from bio- to solar energy (which is 40 to 50 times more land efficient) Also: Strong efforts are being undertaken by the Bioplastics industry to develop Bioplastics from agricultural residues (potato skin) and other waste streams. There are also a range of Bioplastic materials that already use second generation feedstock (e.g. wood). Chart 18

Overview Basics Successful Market Placements Challenges and Facts Raw Material Sources Green Washing Composting Program Infrastructure Outlook Chart 19

Green Washing Challenge Bioplastics and related terms are being misused by various manufacturers to place their products more attractively on the market Facts eco safe, environmental friendly, essentially non toxic, earthsmart, or degradable these are examples of slogans used by manufacturers to trick the uninformed and overwhelmed consumer Consumers are often willing to pay more money for sustainable products, but don t have the time to study and check different labels and claims, that often grow faster than education can catch up with. Chart 20

Green Washing There is no legislation at the federal level that requires a label to be backed up by scientific tests. However the Federal Trade Commission s Green Guides specify guidelines for the use of environmental marketing. Public education about labeling, standards as well as bioplastics in general has to be increased to avoid frustration of the consumers and misuse of manufactures Examples for labels that are based on commonly acknowledged standards and corresponding certification processes: Chart 21

Overview Basics Successful Market Placements Challenges and Facts Raw Material Sources Green Washing Composting Program Infrastructure Outlook Chart 22

Composting Program Infrastructure Challenge The lack of an infrastructure for the appropriate disposal compostable Bioplastics Facts Apart from marine degradation, anaerobic digestion and recycling, the most suitable end of life option for compostable bioplastics are industrial composting facilities There are approximately 350 food and yard waste composting sides in North America (Germany: 980) but few of these facilities accept compostable bioplastics. Composting sides that accept bioplastics often have differing composting standards (e.g. decomposing duration) Chart 23

Composting Program Infrastructure A few US cities accept compostable plastics in their bio bins, also a few chains, like Whole Foods, or closed loop events (London 2012 Olympics), collect compostable plastic trash, but in general the consumer doesn t know where to dispose the sustainable sandwich box certified compostable. Canada established a well functioning composting infrastructure: Almost all of the Canadian composting facilities accept correct labeled compostable plastics. Cities and retailers work hand in hand to offer and distribute compostable plastic bags. Recyclability seems to be the new sustainability trend in North America, still just 28% of all recyclables actually get recycled. Compostable plastics cant compete with recyclables, but some biobased plastics, like Bio-PE can. Signs of hope for compostable plastics: Increasing amount of industrial composting facilities as well as anaerobic digestion plants; $ 3/ton tipping fee for landfills; Plastic bag bans; rising petroleum costs, USCC Compostable Plastics Task Force Chart 24

Overview Basics Successful Market Placements Challenges and Facts Raw Material Sources Green Washing Composting Program Infrastructure Outlook Chart 25

Outlook Global demand for biodegradable and biobased plastics will more than triple to over one million metric tons in 2015, valued at $ 2,9 billion Excellent growth is forecast for the two leading biodegradable plastics, starch based resins and PLA. But non-biodegradable and renewable resins, like Bio-PE, will be the primary driver of bioplastics demand through 2015 and beyond Bioplastics can become a valuable component in a closed loop system and make a remarkable contribution to a sustainable development, if the industry and the government are willing to invest in education and conversion. Chart 26

Thank you very much for your attention! www.fkur.com Chart 27