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BIO-ON srl
                              via dante 7/b
              San Giorgio di Piano – 40016, Bologna - Italy
                             web: www.bio-on.it
                             mail: info@bio-on.it
                           phone: +39051893001
                  Primary contact: Marco Astorri, CEO

 Bio-on’s strength is the ability to produce highly pure PHAs at a competitive
   price with comparable mechanical features to PP, PE, PET, HDPE, LDPE.
PHA Polyhydroxyalkanoate is a 100% natural polymer of the polyester family.
       To this day, it is considered to be the best polymer in the world.
TARGETED PROBLEM
 Plastic pollution is "the accumulation in the environment of man-made
plastic products to the point where they create problems for wildlife and
             their habitats as well as for human populations”

•   Today plastics and synthetic polymers are produced mainly from
    hydrocarbons (oil)
 Bio-on can obtain plastic from the production of PHA: a truly biological
  plastic, result natural bacterial fermentation of agricultural wastes


•   Today plastic recycle processes use large quantities of energy and chemical
    products

 Bio-on plastic is 100% biodegradable in bacteriological impure water in few
  days
TO SOLVE THE PROBLEM
•   Bio-on’s aim is to work in the field of the modern biotechnologies applied to widely
    used materials. Bio-on intention is to create 100% natural products/solutions based
    on renewable resources or agricultural processing waste materials;
•   Bio-on offers a polymer technology: PHAs-Polyhydroxyalkanoates, a truly biological
    plastic for the full range of strategic applications.
    PHAs can compete with traditional plastics, PP, PE, PET, HDPE, LDPE;
•   TARGET: Bio-on directly targets the following sectors: food-processing (production and
    distribution), medical and pharma pac, electronics, automotive, design and clothing and
    others. It provides all players with the technology required to produce and use PHAs in
    line with their own characterizations;
•   Bio-on’ PHAs production:
     –   uses agricultural by-products
     –   does not use any raw material which is considered food (It does not use cereals)
     –   does not use large quantities of energy nor chemical products for the production of biomaterials
     –   does not use any of the traditional chemical products used for biopolymer recovery
     –   modular production unit, easy to connect to existing plants and easy to expand anywhere
     –   “Zero-miles” philosophy for the use of raw materials
     –   No genetically modified plants or bacteria are used (OGM Free)
     • Bio-on PHAs is 100% biodegradable both in soil and water, fresh and sea water:
       non forced biodegradability!
MARKET
•   The plants currently producing PHA in the Italian head-quarter of Bio-On are on
    laboratory scale (6 liters fermentors) and pre-industrial scale (1.400 liters fermentors);
    the availability of these facilities allows the fine tuning of the conditions for
    fermentation, to direct the production of PHAs with different molecular structures.

•   Bio-on issues licences enabling the production of MINERV-PHA™ to produce:




•   March 2012: Bio-on has chosen to work with Techint Engineering & Construction to
    build plants for the production of PHAs bioplastic. The technology developed over the
    last five years by bio-on can now be created worldwide on an industrial scale, with
    plants producing 10 thousand tons/year.
•   April 2012 : Bio-on and FLOS present the first product in the
    world made entirely of PHAs bio plastic, naturally 100%
    biodegradable in water. To test this revolutionary material
    Bio-on has chosen MISS SISSI, the lamp PHILIPPE STARK
    designed for FLOS in 1991.
TECHNOLOGY
•   From the selection of the bacterial strains isolated by Bio-on to the fermentation of beet sub
    products waste comes PHAs (Polyhydroxyalkanoate);
•   The “white discs” represent the organic polymer minerv PHAs obtained from sugar beet. These
    elements are the result of increased bacteria nourished by the juices of beet (waste molasses):
    natural bacterial fermentation in a few dozen hours;
•   The next step is the process of ‘recovery’: PHAs are retrieved and separated from the rest of the
    organic material, filtered and dried without any solvents;
•   All waste material (in small quantity) is re-entered in the initial production cycle in order to feed
    new bacterial colonies together with the beet intermediate juices;
•   From the PHAs powder extracted from bacteria we obtain PHA pellet for either injection or
    extrusion.

                                  A huge work of selection of natural bacteria along the years, avoiding
                                  any use of GMOs, allowed the development of several grades of
                                  PHAs, that are spontaneously accumulated as energy storage by
                                  bacteria feeded with sugars. Polyhydroxyalkanoate PHAs are 100%
                                  bio-based, fully biodegradable plastic materials that can be
                                  considered as the best candidates for traditional oil-based plastics
                                  replacement thanks to their excellent balance of physical, thermal
                                  and mechanical properties. Bio-on produces on its own and licences
                                  world-wide the production of PHA through its patented technology.
MARKETING STRATEGY
NEXT STEP - 2013: Industry
•   Scale up industrial processes by defining production modules. We create complete Engineering from the laboratory
    to the production plant on an industrial scale, with production modules from 5 to 10 thousand tons per year.
•   Bio-on offers production technology licensing with design and implementation by qualified industry partners.
•   Bio-on has developed a partnership with the architect Enrico Iascone.
•   The low environmental impact of PHAs produced by Bio-on have encouraged him to design an eco-friendly
    production module in the most sustainable way possible. It is a large, yet reasonably priced project that makes the
    optimal use of space for people, materials used and environmental impact. The modular structure is expandable
    and can be built anywhere in the world.
•   The design incorporates an expandable PHA production capacity of 10 thousand tons per year.

Bio-on 1st Industrial PHAs production plant (2013) from sugar beet waste: Production, Labs, Office, Handling
COMPETITORS
                                   PHA                                   COMPETITORS

                                              New Best bio polymers         Food Material
Agricultural “waste” Material
                                                    standard
                                                                                 GMO
         GMO free

                                                                      Heavy chemical solvent use
   NO chemical solvent

                                                                          Heavy energy use
      Low energy use

                                                                          Manufactory units
 IP & Engineering company

                                                                        High production costs
   Low production costs

                                                                         Slow time to market
    Fast time to market

                                                                          High logistics costs
Assuming a standard end user price per Kg. using the exclusive
method Bio-on to extract the polymer have costs equal to 7%, while    GMO Ww territory problem
with the methods known today, which use large amounts of
traditional chemistry, the cost is 70%.                                      NO licensing
TEAM
•   Mr Marco Astorri, funded Bio-on in 2007 and at present he is President of the
    Company. He is the key administrative manager of Bio-On, coordinator of all R&D
    activities and in charge of defining the company strategies for industrial development.
•   Mr Guido Cicognani, co-funded Bio-on in 2007 and at present he is the vice President
    of the Company. He collaborates with Astorri in the administrative, legal and financial
    tasks, he is in charge of innovation activities and knowledge exploitation.
•   Dr Simone Begotti, Bio-on's head biologist, manages the laboratory research tasks
    needed to the develop several grades of PHAs. Dr Begotti is an experienced
    biotechnologist with wide skills in the field of biofermentation and biorefinery; in Bio-
    on labs he is supported by 4 technical chemist-assistants and strictly collaborates with
    fully equipped external research centers for the characterization of the PHA collected
    by the fermentors.
•   Dr Luca Giamperi, Bio-on's chief materials development. His expertise in the field of
    polymer processing supports the team in the identification of the best chemical
    structures candidates for satisfying specific needs.
•   10 exclusive advisors experienced in different R&D themes and marketing strategy are
    involved in the Bio-on project assuring the quality of the products, their impact in the
    near future and the efficiency of the marketing and sales strategy.
FINANCIALS
•   Bio-on is an autonomous research entity funded in the form of small enterprise; figures
    in 2011:
     –   Employees: 6;
     –   Turnover: €. 1.154.618,33
     –   Balance sheet: €. 104.113
•   Bio-on’s richness is the know-how regarding the production of PHAs.
•   Bio-on has never raised money from banks, friends, family or angels. The company is
    self-financed and almost all profit is annualy re-invested in Bio-on’s staff, labs and
    facilities.
•   Bio-On would like to scale up industrial processes by realising industrial plants for the
    production of PHAs, from 5 to 10.000 tons/year, for the full range of strategic
    applications
•   The expected/estimates revenue are:
     –   In three years: redouble the actual one and reach around €. 2.300.000;
     –   In five years: triplicate the actual one and reach around €. 3.500.000
•   The capital needed for the next step is difficult to estimate and is linked to different
    factors: the marketing strategy is not fully yet decided (JV, investors, alliance, new
    partnership). The estimations on number of costumers and the conversion rate will
    follow it.
SUSTAINABILITY
•   Bio-on plastics are plastics in which all carbon is replaced by 100% renewable
    feedstocks.
•   Bio-on plastics are 100% biodegradable both in soil and water, fresh and sea
    water in few days.
•   To produce its plastics Bio-on:
     –   uses agricultural “waste” material (no GMO, no food)
     –   not use chemical solvents neither in the production nor in the extraction of PHAs
     –   uses low energy
     –   “zero-miles” philosophy in the whole chain
     –   contributes to healthier rural economies
•   Minerv PHAs (Bio-on plastic) is certified with the prestigious acknowledgment
    of its total and natural biodegradability in water and soil issued by AIB-
    VINCOTTE International. Bio-on is the first company in the world producing
    PHAs to get this important Certification year 2008.
•   Bio-on has designed a low-cost project for the production of PHAs as
    sustainable and environmental-friendly as possible that increases the value of
    space for people and reduce the environmental impact: the modular
    structure is expandable and can be built all over the world.
CURRENT STATUS
• April, 2012: MISS SISSI designed by Philippe Stark and
  produced with minerv PHAs is presentated world wide in
  Milan.



•   2012/2013: Bio-on is finalising the tests on its pilot plan
    and is mature enough to begin the 1st industrial plant for
    PHAs:
     –   Dimension: 10.000 mq.
     –   Production: 10.000 tons/year PHAs from sugar beet waste.
     –   Eco Building: no pollution.
     –   New Modular concept: “The same PHAs Building around
         the World”.


•   The $50,000 First Prize would be invested in the Bio-on pilot plan to co-fund
    the purchase of a new dryer in order to conduct new research activities on
    PHA characterization.

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Bio on think-beyond_plastic_pitch_deck_final

  • 1. BIO-ON srl via dante 7/b San Giorgio di Piano – 40016, Bologna - Italy web: www.bio-on.it mail: info@bio-on.it phone: +39051893001 Primary contact: Marco Astorri, CEO Bio-on’s strength is the ability to produce highly pure PHAs at a competitive price with comparable mechanical features to PP, PE, PET, HDPE, LDPE. PHA Polyhydroxyalkanoate is a 100% natural polymer of the polyester family. To this day, it is considered to be the best polymer in the world.
  • 2. TARGETED PROBLEM Plastic pollution is "the accumulation in the environment of man-made plastic products to the point where they create problems for wildlife and their habitats as well as for human populations” • Today plastics and synthetic polymers are produced mainly from hydrocarbons (oil)  Bio-on can obtain plastic from the production of PHA: a truly biological plastic, result natural bacterial fermentation of agricultural wastes • Today plastic recycle processes use large quantities of energy and chemical products  Bio-on plastic is 100% biodegradable in bacteriological impure water in few days
  • 3. TO SOLVE THE PROBLEM • Bio-on’s aim is to work in the field of the modern biotechnologies applied to widely used materials. Bio-on intention is to create 100% natural products/solutions based on renewable resources or agricultural processing waste materials; • Bio-on offers a polymer technology: PHAs-Polyhydroxyalkanoates, a truly biological plastic for the full range of strategic applications. PHAs can compete with traditional plastics, PP, PE, PET, HDPE, LDPE; • TARGET: Bio-on directly targets the following sectors: food-processing (production and distribution), medical and pharma pac, electronics, automotive, design and clothing and others. It provides all players with the technology required to produce and use PHAs in line with their own characterizations; • Bio-on’ PHAs production: – uses agricultural by-products – does not use any raw material which is considered food (It does not use cereals) – does not use large quantities of energy nor chemical products for the production of biomaterials – does not use any of the traditional chemical products used for biopolymer recovery – modular production unit, easy to connect to existing plants and easy to expand anywhere – “Zero-miles” philosophy for the use of raw materials – No genetically modified plants or bacteria are used (OGM Free) • Bio-on PHAs is 100% biodegradable both in soil and water, fresh and sea water: non forced biodegradability!
  • 4. MARKET • The plants currently producing PHA in the Italian head-quarter of Bio-On are on laboratory scale (6 liters fermentors) and pre-industrial scale (1.400 liters fermentors); the availability of these facilities allows the fine tuning of the conditions for fermentation, to direct the production of PHAs with different molecular structures. • Bio-on issues licences enabling the production of MINERV-PHA™ to produce: • March 2012: Bio-on has chosen to work with Techint Engineering & Construction to build plants for the production of PHAs bioplastic. The technology developed over the last five years by bio-on can now be created worldwide on an industrial scale, with plants producing 10 thousand tons/year. • April 2012 : Bio-on and FLOS present the first product in the world made entirely of PHAs bio plastic, naturally 100% biodegradable in water. To test this revolutionary material Bio-on has chosen MISS SISSI, the lamp PHILIPPE STARK designed for FLOS in 1991.
  • 5. TECHNOLOGY • From the selection of the bacterial strains isolated by Bio-on to the fermentation of beet sub products waste comes PHAs (Polyhydroxyalkanoate); • The “white discs” represent the organic polymer minerv PHAs obtained from sugar beet. These elements are the result of increased bacteria nourished by the juices of beet (waste molasses): natural bacterial fermentation in a few dozen hours; • The next step is the process of ‘recovery’: PHAs are retrieved and separated from the rest of the organic material, filtered and dried without any solvents; • All waste material (in small quantity) is re-entered in the initial production cycle in order to feed new bacterial colonies together with the beet intermediate juices; • From the PHAs powder extracted from bacteria we obtain PHA pellet for either injection or extrusion. A huge work of selection of natural bacteria along the years, avoiding any use of GMOs, allowed the development of several grades of PHAs, that are spontaneously accumulated as energy storage by bacteria feeded with sugars. Polyhydroxyalkanoate PHAs are 100% bio-based, fully biodegradable plastic materials that can be considered as the best candidates for traditional oil-based plastics replacement thanks to their excellent balance of physical, thermal and mechanical properties. Bio-on produces on its own and licences world-wide the production of PHA through its patented technology.
  • 6. MARKETING STRATEGY NEXT STEP - 2013: Industry • Scale up industrial processes by defining production modules. We create complete Engineering from the laboratory to the production plant on an industrial scale, with production modules from 5 to 10 thousand tons per year. • Bio-on offers production technology licensing with design and implementation by qualified industry partners. • Bio-on has developed a partnership with the architect Enrico Iascone. • The low environmental impact of PHAs produced by Bio-on have encouraged him to design an eco-friendly production module in the most sustainable way possible. It is a large, yet reasonably priced project that makes the optimal use of space for people, materials used and environmental impact. The modular structure is expandable and can be built anywhere in the world. • The design incorporates an expandable PHA production capacity of 10 thousand tons per year. Bio-on 1st Industrial PHAs production plant (2013) from sugar beet waste: Production, Labs, Office, Handling
  • 7. COMPETITORS PHA COMPETITORS New Best bio polymers Food Material Agricultural “waste” Material standard GMO GMO free Heavy chemical solvent use NO chemical solvent Heavy energy use Low energy use Manufactory units IP & Engineering company High production costs Low production costs Slow time to market Fast time to market High logistics costs Assuming a standard end user price per Kg. using the exclusive method Bio-on to extract the polymer have costs equal to 7%, while GMO Ww territory problem with the methods known today, which use large amounts of traditional chemistry, the cost is 70%. NO licensing
  • 8. TEAM • Mr Marco Astorri, funded Bio-on in 2007 and at present he is President of the Company. He is the key administrative manager of Bio-On, coordinator of all R&D activities and in charge of defining the company strategies for industrial development. • Mr Guido Cicognani, co-funded Bio-on in 2007 and at present he is the vice President of the Company. He collaborates with Astorri in the administrative, legal and financial tasks, he is in charge of innovation activities and knowledge exploitation. • Dr Simone Begotti, Bio-on's head biologist, manages the laboratory research tasks needed to the develop several grades of PHAs. Dr Begotti is an experienced biotechnologist with wide skills in the field of biofermentation and biorefinery; in Bio- on labs he is supported by 4 technical chemist-assistants and strictly collaborates with fully equipped external research centers for the characterization of the PHA collected by the fermentors. • Dr Luca Giamperi, Bio-on's chief materials development. His expertise in the field of polymer processing supports the team in the identification of the best chemical structures candidates for satisfying specific needs. • 10 exclusive advisors experienced in different R&D themes and marketing strategy are involved in the Bio-on project assuring the quality of the products, their impact in the near future and the efficiency of the marketing and sales strategy.
  • 9. FINANCIALS • Bio-on is an autonomous research entity funded in the form of small enterprise; figures in 2011: – Employees: 6; – Turnover: €. 1.154.618,33 – Balance sheet: €. 104.113 • Bio-on’s richness is the know-how regarding the production of PHAs. • Bio-on has never raised money from banks, friends, family or angels. The company is self-financed and almost all profit is annualy re-invested in Bio-on’s staff, labs and facilities. • Bio-On would like to scale up industrial processes by realising industrial plants for the production of PHAs, from 5 to 10.000 tons/year, for the full range of strategic applications • The expected/estimates revenue are: – In three years: redouble the actual one and reach around €. 2.300.000; – In five years: triplicate the actual one and reach around €. 3.500.000 • The capital needed for the next step is difficult to estimate and is linked to different factors: the marketing strategy is not fully yet decided (JV, investors, alliance, new partnership). The estimations on number of costumers and the conversion rate will follow it.
  • 10. SUSTAINABILITY • Bio-on plastics are plastics in which all carbon is replaced by 100% renewable feedstocks. • Bio-on plastics are 100% biodegradable both in soil and water, fresh and sea water in few days. • To produce its plastics Bio-on: – uses agricultural “waste” material (no GMO, no food) – not use chemical solvents neither in the production nor in the extraction of PHAs – uses low energy – “zero-miles” philosophy in the whole chain – contributes to healthier rural economies • Minerv PHAs (Bio-on plastic) is certified with the prestigious acknowledgment of its total and natural biodegradability in water and soil issued by AIB- VINCOTTE International. Bio-on is the first company in the world producing PHAs to get this important Certification year 2008. • Bio-on has designed a low-cost project for the production of PHAs as sustainable and environmental-friendly as possible that increases the value of space for people and reduce the environmental impact: the modular structure is expandable and can be built all over the world.
  • 11. CURRENT STATUS • April, 2012: MISS SISSI designed by Philippe Stark and produced with minerv PHAs is presentated world wide in Milan. • 2012/2013: Bio-on is finalising the tests on its pilot plan and is mature enough to begin the 1st industrial plant for PHAs: – Dimension: 10.000 mq. – Production: 10.000 tons/year PHAs from sugar beet waste. – Eco Building: no pollution. – New Modular concept: “The same PHAs Building around the World”. • The $50,000 First Prize would be invested in the Bio-on pilot plan to co-fund the purchase of a new dryer in order to conduct new research activities on PHA characterization.