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Bioplas(cs, its Lifecycle, and Recycling system June 20, 2015 Material Technology : Research Presenta;on (ver.2) Sungmy Kim / MFA Transdisciplinary Design

Bioplastics, Lifecycle and Recycling System

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Page 1: Bioplastics, Lifecycle and Recycling System

Bioplas(cs,  its  Lifecycle,  and  Recycling  system  

June  20,  2015  Material  Technology  :  Research  Presenta;on  (ver.2)  

Sungmy  Kim  /  MFA  Transdisciplinary  Design    

Page 2: Bioplastics, Lifecycle and Recycling System

What  are  bioplas;cs?  

Contents  

Why  are  they  beMer  than  oil-­‐based  plas;cs?  

Types  of  bioplas;cs   Starch-­‐based  bioplas;cs  

Algae  bioplas;cs  

History  

Issues  of  bioplas;cs  

Limit  of  Plas;c  Recycling  symbols  

Industry  -­‐  Solanyl  

Applica;ons  

Issues  

Industry  -­‐  Algix  

Applica;ons  

Lack  of  facili;es  

Miscommunica;ons  between  products  and  bins  

Contents  

Food  supply  

GMO  

Non-­‐compostables  

Proposal  –  New  recycling  sign  system  

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What  are  Bioplas(cs?  

What  are  Bioplas;cs?  

Bioplas;cs  :  Substances  made  from  organic  biomass  sources,  such  as  vegetable  oils,                                            starch,  or  microorganism  

Biomass  :    Renewable  sources  from  living  (or  recently  living)  plant  and  animal  materials                                          which  can  be  used  as  fuel    Biopolymers  :  polymers  produced  by  living  organisms  (polymeric  biomolecules)  

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Why  are  Bioplas;cs  BeMer  than  Oil-­‐based  Plas;cs?    

Advantages  

Disadvantages  

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-­‐  Half  of  bioplas;cs  in  the  market  are  made  from  starch.  

-­‐  Starch-­‐based  plas;c  manufacturing  started  about  1950s.    -­‐  Mainly  it  started  from  starch  manufacturers.    -­‐  Starch  is  from  corn,  potato,  tapioca,  kenaf,  sugarcane,  or  cassava.  

Starch-­‐based  Bioplas(cs  

Starch-­‐based  Bioplas;cs  Bioplas;c   >  

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-­‐  Cutlery  is  the  most  common  starch-­‐based  bioplas;c  product.  

-­‐  Toyota  applied  starch-­‐based  bioplas;cs  for  car  interior  materials.  

Starch-­‐based  Bioplas(cs  Applica(ons  

Starch-­‐based  Bioplas;cs  Bioplas;c   >   >   Starch-­‐based  Bioplas;cs  Applica;on  

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Starch-­‐based  Bioplas;cs  Bioplas;c   >   >   Starch-­‐based  Bioplas;cs  Industry  

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-­‐  Uses  starch  from  byproduct  of  the  french-­‐fry  and  potato  processing  industry    -­‐  Biodegradable,  compostable,  a  single  material    -­‐  Degrada;on  period  is  between  3  months  to  2  years    -­‐  a  renewable  subs;tute  for  PET  or  PS  

-­‐  can  be  enhanced  by  applying  controlled  release  technology  to  add  func;onali;es  to  the  grades,  like  fer;lizers,  organic  pes;cides  and  fragrance.  

Starch-­‐based  Bioplas;cs  Bioplas;c   >   >   Manufacturer  :  Solanyl  

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-­‐  injec;on  molding,  sheet  extrusion,  profile  extrusion,  thermoforming  and  extrusion  film  blowing  products  available  

-­‐  Able  to  subs;tute  oil-­‐based  plas;cs  and  form  any  shape  like  them    

Processing  availability  

Starch-­‐based  Bioplas;cs  Bioplas;c   >   >   Solanyl  Processing  Availability  

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-­‐  ‘trade  union’  by  Rachel  Griffin  of  earnest  studio  

-­‐  uses  the  starch-­‐based  plas;c  Solanyl  as  a              link  between  mass  produc;on  and  handcraf    

Starch-­‐based  Bioplas;cs  Bioplas;c   >   >   Solanyl  Applica;on  

Art  exhibi(on  

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-­‐  very  sensi;ve  to  humidity  -­‐  more  briMle  than  the  ABS  or  PLA  filament  -­‐  takes  longer  ;me  to  solidify  when  cooling  so  that  they  had  to  print                objects  at  a  very  low  extrusion  speed(30-­‐50  mm/s)    -­‐  ideal  extruder  temperature  should  be  at  185C    

Starch-­‐based  Bioplas;cs  Bioplas;c   >   >   Solanyl  3D  Prin;ng  

3D  Prin(ng  

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Issues  from  Starch-­‐based  Bioplas;cs  Bioplas;c   >  

Advantages  

Disadvantages  

3  Issues  on  Starch-­‐based  Bioplas(cs  

1  

2  3  

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Food   Industrial  Use  

“1  million  tons  of  bioplas;cs  produced  annually,  around  300,000  hectares  are  used  to  grow  crops,  or  0.02%  of  the  world's  total  naturally  irrigated  area  available  for  cul;va;on.  Even  if  half  the  world's  plas;cs  were  made  from  crops  grown  on  food  land,  the  industry  would  only  required  3%  of  the  world's  cul;vated  acreage”    

En;re  farmland  

VS.  

“By  2014,  almost  a  quarter  of  US  grain  produc;on  is  expected  to  be  turned  over  to  biofuels  and  bioplas;cs  produc;on,  poten;ally  causing  a  significant  rise  in  food  prices  that  will  hit  the  poorest  people  hardest”    

“Of  course  hunger  is  a  problem  but  it  has  a  lot  to  do  with  problems  with  distribu(on  and  waste.  Produc;on  is  actually  sufficient."  

Issues  from  Starch-­‐based  Bioplas;cs  Bioplas;c   >   >   Food  Supply  

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Some  of  the  bioplas;cs  are  using  gene;cally  modified  crops  or  gene;cally  modified  bacteria  to  op;mize  efficiency  for  industrial  use.  

-­‐  Gene  flow  :  Pollen  from  GMOs  can  be  resul;ng  in  hybrid  species.    

-­‐  Overuse  of  agricultural  chemicals            :  GMOs  require  more  agricultural  chemicals  (i.e.,  herbicides  and  insec;cides)            :  Some  GMOs  even  produce  their  own  pes;cides.  

Issues  from  Starch-­‐based  Bioplas;cs  Bioplas;c   >   >   GMO  

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Figure  1  

Usually  we  consider  that  all  bioplas;cs  are  biodgradable  and  bio-­‐based,  but  technically  some  bioplas;cs  are  non-­‐biodgradable  and  fossil-­‐based.  

Issues  from  Starch-­‐based  Bioplas;cs  Bioplas;c   >   >   Non-­‐compostables  

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Degradable  :  will  fragment  into  smaller  pieces    Biodegradable  :  capable  of  being  broken  down,  usually  by  bacteria,  into  basic  elements                                                                Compostable  :  capable  of  being  decomposed  by  microorganisms  in  the  presence  of  oxygen                                                          Waste  is  transformed  into  soil  amendments  such  as  humus  or  mulch.  

Biodegradable   Compostable  Degradable  

Features  of  Bioplas(cs  

Issues  from  Starch-­‐based  Bioplas;cs  Bioplas;c   >   >   Non-­‐compostables  

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Figure  2.  

Issues  from  Starch-­‐based  Bioplas;cs  Bioplas;c   >   >   Non-­‐compostables  

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Issues  from  Starch-­‐based  Bioplas;cs  Bioplas;c   >   >   Non-­‐compostables  

Biodegraded  plas(cs  are  more  harmful  than  non-­‐degradable  plas(cs.  

-­‐  Large  plas;c  waste  is  collec;ble,  but  some  plas;cs  are  only  biodegradable,  and  non-­‐compostable,  small  plas;c  pieces  are  spread  and  absorbed  by  animals.  

 -­‐  Many  cosme;cs  and  personal  care  products  contain  ;ny  plas;c  microbeads  that  

are  pollu;ng  environments.  Plas;c  microbeads  can  enter  the  bloodstream  through  the  gut,  and  then  they  can  circulate  in  the  bloodstream,  they  can  directly  enter  cells  and  and  ;ssues  of  these  animals.  

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Algae  Bioplas(cs  

-­‐  Compostable,  renewable  resources  

-­‐  Higher  produc;vity  than  starch  in  the  same  scale  of  land  

-­‐  High  energy  efficiency  in  produc;on  

-­‐  Do  not  impact  on  the  available  farmable  land  

Algae  Bioplas;cs  Bioplas;c   >  

To  resolve  these  three  issues  of  starch-­‐based  bioplas;cs,    

algae  is  a  emerging  resource  for  bioplas;cs.  

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Algae  Bioplas;cs  Bioplas;c   >   Manufacturer  :  Algix  >  

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ALGIX  use  algae  to  clean  wastewater  by  absorbing  excess  nutrients  while  also  providing  algae  biomass  as  a  co-­‐product.    

Algae  Bioplas;cs  Bioplas;c   >   Applica;on  /  Water  Cleaning  Service  >  

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Algae  Bioplas;cs  Bioplas;c   >   3D  Prin;ng  Availability  >  

ALGIX  also  manufactures  3D-­‐Fuel,  resin  for  3D  printers.    

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Bioplas;c   >  

Advantages  

Disadvantages  

Other  Issues  of  Bioplas(cs  on  Sor(ng  Stage  

Other  Issues  on  Bioplas;cs  

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“Most  recycling  centers  are  not  set  up  to  handle  large  amounts  of  PLA.  Presently,  PLA  products  cannot  be  recycled  in  conjunc;on  with  petroleum-­‐based  products.”  

Other  Issues  on  Bioplas;cs  Bioplas;c   >  

1.  Lack  of  Facili(es  

Lack  of  Facili;es  >  

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Bioplas;c   >  

2.  Limit  of  Plas(c  Recycling  symbols  

Other  Issues  on  Bioplas;cs   Limit  of  Plas;c  Recycling  symbols  >  

Bioplas;cs  are  classified  in  No.7  plas;cs  which  is  for  the  plas;cs  that  are  the  most  difficult  to  be  recycled.  

This  resin  coding  system  was  developed  in  1988.  

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-­‐  “Interna;onal  Paper”  

-­‐  “Cau;on  contents  Hot”  

Bioplas;c   >   Other  Issues  on  Bioplas;cs   Miscommunica;ons  >  

3.  Miscommunica(ons  Between  Products  and  Bins  

Informa;on  on  a  coffee  lid  

-­‐  Manufacturer    

-­‐  Recycling  symbol    

1)  product  side  

Then,  where  should  it  go?  Landfill  or  recycling  center?    

-­‐>  This  lid  is  compostable!  Why  it  didn’t  men;on  its  compostability?  

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Bioplas;c   >   Other  Issues  on  Bioplas;cs   Miscommunica;ons  >  

3.  Miscommunica(ons  Between  Products  and  Bins  

2)  Bin  side  Is  it  easy  for  you  to  classify  your  waste?  

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The  New  School  Food  Waste  Collec(on  Loca(ons    -­‐  13th  Street  Residence  Cafeteria  

-­‐  Eugene  Lang,  65  West  11th  Street,  Lang  Café  

-­‐  Parsons  East,  25  East  13th  Street,  floors  2-­‐5    -­‐  Arnhold  Hall,  55  West  13th  Street,  Café  55                and  Library  Café    -­‐          The  University  Center  Cafeteria  and  Cafes  

Bioplas;c   >   Other  Issues  on  Bioplas;cs   Miscommunica;ons  >  

2)  Bin  side  Is  it  easy  for  you  to  find  compost  bins  near  you?  

3.  Miscommunica(ons  Between  Products  and  Bins  

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Bioplas;c   >   Other  Issues  on  Bioplas;cs   Miscommunica;ons  >  

3.  Miscommunica(ons  Between  Products  and  Bins  

2)  Bin  side  Is  it  easy  for  you  to  classify  your  waste  on  the  streets?  

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Recyclables   Biodegradables   Compostables  

“Recyclable”   “Biodegradable”   “Compostable”  

Proposal   >   New  recycling  sign  system  

Proposal  :  New  Recycling  Sign  System  

-­‐  To  reduce  manual  waste  classifica;on  work    -­‐  To  inform  products’  capacity  and  lifecycle  to  consumers  -­‐  To  encourage  manufacturers  to  use  compostable  materials  -­‐  examples  :    

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Thank  you  

Page 32: Bioplastics, Lifecycle and Recycling System

“Bioplas;c,”  accessed  April  21,  2015,  hMp://en.wikipedia.org/wiki/Bioplas;c#Starch-­‐based_plas;cs      Figure  1.  “What  are  bioplas;cs?”  accessed  April  20,  2015,  hMp://en.european-­‐bioplas;cs.org/wp-­‐content/uploads/2011/04/fs/Bioplas;cs_eng.pdf.      Figure  2.  “What  is  the  difference  between  Compostable  and  Biodegradable  bags?”  accessed  April  21,  2015,  hMp://jeffries.com.au/compostable-­‐vs-­‐biodegradable.html      “Bioplas;cs  -­‐  natural  plas;c  -­‐  sustainable  plas;cs  -­‐  plas;c  bags  -­‐  biodegradable  plas;cs,”  accessed  April  22,  2015,  hMp://www.seao2.com/bioplas;cs/      “Solanyl®  BP”  accessed  April  20,  2015,  hMp://library.materialconnexion.com.libproxy.newschool.edu/ProductPage.aspx?MC=641901#.VVeLATwz3MA.gmail      “What  are  Solanyl®  Biopolymers?”,  accessed  April  21,  2015,  hMp://www.solanyl.ca/      “Starch  based  plas;c  vessels  trade  union  by  earnest  studio,”  Accessed  April  22,  2015,  hMp://www.designboom.com/design/starch-­‐based-­‐plas;c-­‐vessels-­‐trade-­‐union-­‐by-­‐earnest-­‐studio/      “3D  prin;ng  with  Solanyl  filament  made  from  potato  skin,”  accessed  April  12,  2015,  hMp://www.3ders.org/ar;cles/20140806-­‐3d-­‐prin;ng-­‐with-­‐solanyl-­‐filament-­‐made-­‐from-­‐potato-­‐skin.html      “Recycling  Terms,”  accessed  April  20,  2015,  hMp://www.recommunity.com/educa;on/      “The  New  Bioplas;cs,  More  Than  Just  Forks,”  accessed  April  19,  2015,  hMp://www.ny;mes.com/2007/03/07/business/businessspecial2/07plas;c.html?_r=0      “Bioplas;cs  and  biodegradable  plas;cs,”  accessed  April  19,  2015,  hMp://www.explainthatstuff.com/bioplas;cs.html    “Report:  Bioplas;cs  pose  no  threat  to  food  supply,”  accessed  April  20,  2015,  hMp://www.plas;csnews.com/ar;cle/20130409/NEWS/130409913/report-­‐bioplas;cs-­‐pose-­‐no-­‐threat-­‐to-­‐food-­‐supply      

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Brian  Momani,  Assessment  of  the  Impacts  of  Bioplas2cs:  Energy  Usage,  Fossil  Fuel  Usage,  Pollu2on,  Health  Effects,  Effects  on  the  Food  Supply,  and  Economic  Effects  Compared  to  Petroleum  Based  Plas2cs,  accessed  April  20,  2015,  hMps://www.wpi.edu/Pubs/E-­‐project/Available/E-­‐project-­‐031609-­‐205515/unrestricted/bioplas;cs.pdf      “Bioproducts  Not  biofuels,”  accessed  April  22,  2015,  hMp://algix.com/why-­‐algae/bioproducts-­‐not-­‐biofuels/      “Solaplast  Overview,”  accessed  April  22,  2015,  hMps://www.youtube.com/watch?v=-­‐IEthAtMVwA&feature=youtu.be&t=1m3s      “ALGIX  -­‐  3D  Fuel,”  accessed  April  22,  2015,  hMps://www.youtube.com/watch?v=dC7QLoO59S4      “Managing  Waste  and  Improving  Resource  Efficiency,”  accessed  April  21,  2015,  hMp://www.newschool.edu/sustainability/managing-­‐waste/    “Microplas;c  beads:  how  your  exfolia;ng  scrub  might  be  harming  the  ocean,”  accessed  June  19,  2015,  hMp://www.abc.net.au/environment/ar;cles/2014/09/10/4084109.htm            

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