Wasted tyres disposal by distillation and gasification Juan Echevarría (speaker) and Félix A. López Spanish National Research Council (CSIC) José Grau.

Slides:



Advertisements
Similar presentations
1 Environmentally friendly technology for municipal solid waste gasification From Science to Business October 2006 Kyiv Georgiy Geletukha t./fax:
Advertisements

Co-firing Biomass with Coal for Power Generation Suthum Patumsawad Department of Mechanical Engineering King Mongkuts Institute of Technology North Bangkok.
Boiler Technology for Biomass Residues
GREEN SOLUTION FOR SCRAP TIRES and Plastics 2014.
Industrial Processing Integration of alcohol and sugar production, Cogeneration of electricity Brazil’s Ethanol Experience and its Transferability World.
Cynar PLC are pioneers in developing a technology that turns end-of- life plastics otherwise destined for landfill, incineration or outsourcing into alternative/replacement.
OPPORTUNITIES FOR BUSINESSES TO DIRECTLY IMPROVE THE BOTTOM LINE THROUGH ENERGY EFFICIENCY 3 rd May 2010 Kees Brinkman Managing Director.
Olga LevinsonOlga Levinson Ray Techniques Ltd.Ray Techniques Ltd. Israel Israel.
Plasma Arc Gasification of Municipal Solid Waste
DynaMotive Energy Systems November 2002 Green Fuels to the World.
Prof. Halina Kruczek Head of steering committee Tel/fax: POLTEGOR – MEMEBER OF Cluster.
Southwark’s New District Heating Network.
Centre of Excellence THERMOCHEMICAL CONVERSION OF SOLID FUELS – Processes of pyrolysis, gasification and combustion of biomass an wastes. WORKGROUP 2 Pyrolysis.
Combined Heat and Power and Air Quality - Guidance for Local Authorities Ed Dearnley Policy Officer.
Sunflower Integrated Bioenergy Center SIBC. Kansas Bioscience Authority NISTAC (National Institute for Strategic Technology Acquisition and Commercialization)
Striclty for educational purposes Final project in M.Sc. Course for teachers, in the framework of the Caesarea –Rothschild program of the Feinberg Grad.
Presentation Technology ORC GREEN MACHINE
Advances in Energy Studies Porto Venere, September 2002 CO 2 capture and storage (with emphasis on PEACS project of UCE for the IEA Greenhouse Gas.
Low-temperature Catalytic Depolymerization
The importance of fossil fuels and the challenges facing their use
Coal and Gas Power Generation : Information sources Angela Betts and Sarah Davis.
Özgül AYYILDIZ.  Thermal Processing of Solid Wastes  Combustion Systems  Pyrolysis  Gasification  Case Studies  Conclusion.
Biomass Electricity Megan Ziolkowski November 29, 2009.
Bioenergy By:Aaron, Daniel,and Evan. What is bioenergy? Bioenergy is a renewable energy source made from biomass(which is organic materials such as plants.
Siemens sans siemens sans bold siemens sans italic siemens sans italic bold siemens sans black siemens black italic Siemens Building Technologies.
Bioenergy By:Aaron, Daniel,and Evan. What is bioenergy? Bioenergy is a renewable energy source made from biomass(which is organic materials such as plants.
Mississippi Power Kemper County IGCC Plant
Centre of Excellence THERMOCHEMICAL CONVERSION OF SOLID FUELS – Processes of pyrolysis, gasification and combustion of biomass an wastes. WORKGROUP 2 Pyrolysis.
Objective To assess the energy balance, emission of global warming gasses, and quantify the recycled nutrients by anaerobic digestion of source separated.
Geothermal Technologies Systems: Direct-use: A drilled well into a geothermal reservoir to provide a steady stream of hot water. Deep reservoirs to.
Solid Waste Management In Lahore LAHORE WASTE MANAGEMENT COMPANY
Coal NonRenewable Advantages: Produces a lot of energy, easy to find and obtain. Disadvantages: Burning coal produces air pollution.
Biomass & Biofuels San Jose State University FX Rongère March 2009.
THE ECOLOGICAL MONITORING CENTER. 2 JSC “Belgorkhimprom” Activity.
Using Natural ResourcesSection 2 Section 2: Energy and Resources Preview Key Ideas Bellringer The Search for Resources Making Oil Worldwide Energy Use.
1 N.K. Tovey ( 杜伟贤 ) M.A, PhD, CEng, MICE, CEnv Н.К.Тови М.А., д-р технических наук Energy Science Director CRed Project HSBC Director of Low Carbon Innovation.
Brussels, Dec 1, Making an inefficient energy system in Europe more efficient Sven Werner, professor Halmstad University, Sweden Partly based on.
ABDULAZEEZ MUHAMMAD ITEC211 BIOMASS. CONTENT BIOMASS WHERE DOES IT COME FROM ? TYPES OF BENEFICIAL BIOMASS METHODS OF CONVERSION ADVANTAGES AND.
Chapter 26 Energy Resources. Transfer of Solar Energy The energy that humans and The energy that humans and.
Technology for biodiesel production from crude or waste vegetable oils INCDO-INOE 2000 ICIA Cluj-Napoca Romania.
ENERGY UNITBTU CONTENT 1 barrel (42 gallons) of crude oil5,800,000 Btu 1 gallon of gasoline124,238 Btu (based on U.S. consumption, 2008) 1 gallon of diesel.
Ansaldo Ricerche S.p.A. Carbon Dioxide capture Berlin, March 2008.
Earth’s Resources Chapter Sixteen: Natural Resources and Conservation 16.1 Natural Resources and Energy 16.2 Supplying Our Energy Needs 16.3 Resources.
Life Cycle Assessment of Waste Conversion Technologies April 15, 2004.
Seamless Solutions from Study to Revamp tailor made solutions at least cost with minimum outlay We deliver Moscow / St Petersburg, March 2011.
From Waste to Oil – Innovative Solutions for a Sustainable Future CleanGas International Ltd. Ab We work actively for a sustainable ecosystem around the.
Briefing on the Pebble Bed Modular Reactor Portfolio Committee on Public Enterprises 18 February Top Secret - 1.
By :Jonathan Superczynski. Biomass Description The energy from plants and plant decay materials.
A technology and a separator for extraction of methane from the outgoing general mine ventilation flow. INNOVATION & TECHOLOGY GROUP, Kyiv, Ukraine.
Nuclear Power. What Is Nuclear Power? Nuclear power is the use of nuclear reactions that release nuclear energy, which generates heat. The energy produced.
Campus Energy Use Intelligent Infrastructure for Energy Efficiency May 25, 2007 Peter Cooper Dept of Facilities, Manager of Sustainable Engineering and.
The coal cycle. The numbers in this illustration indicate the amount of carbon in each location in gigatons.
Earth’s Resources Chapter Sixteen: Natural Resources and Conservation 16.1 Natural Resources and Energy 16.2 Supplying Our Energy Needs 16.3 Resources.
Non-renewable and Renewable Resources Coal, Nuclear, Natural Gas, Oil, Wood, Wind, Solar, Geothermal, Solar-Hydrogen.
Nuclear Power  Period 1  Benny Situ  Paolo Tolentino  David Liang.
Prepared by: Pn. Hairul Nazirah Abdul Halim
Fossil fuels: Energy from fossilised organic materials.
Integrated Food Security, Power Generation and Environmental Conservation Initiative BY AMALI ABRAHAM AMALI for the 2015 National Engineering Innovation.
Smart Islands What it means for business 1. 2 Smart Islands Context Highest home electricity consumption in the UK; over 6,000 kWh per year Has 21% fuel.
__________________________ © Cactus Moon Education, LLC. Cactus Moon Education, LLC. CACTUS MOON EDUCATION, LLC ENERGY FROM.
Biomass Power Generation : Recent Trends in Technology and Future Possibilities Narasimhan Santhanam Energy Alternatives India,
SINTEF Energi AS CenBio and Bioenergy Research at SINTEF Lars Sørum Research Director/Dr. ing. SINTEF Energy Research CenBio – Centre Coordinator.
Turbomachinery in Biofuel Production
NONRENEWABLE AND RENEWABLE RESOURCES
Why scrap tires ? At least one billion tires discarded around the world each and every year, but decomposition of one single tire requires 150 years. Unregulated.
Solid Waste ? The amount of solid waste generated in parallel with increasing population, urbanization and industrialization is increasing rapidly and.
Chapter 17 Energy: Some Basics.
Industrial Processing Integration of alcohol and sugar production, Cogeneration of electricity Brazil’s Ethanol Experience and its Transferability World.
Environmental Science 5e
Continue work on further promotion.
Presentation transcript:

Wasted tyres disposal by distillation and gasification Juan Echevarría (speaker) and Félix A. López Spanish National Research Council (CSIC) José Grau Enreco 2000, LTD.

Short description of the project or technology Short description of the project/ technology o semi-batch pilot plant that uses several fixed bed reactors in parallel (GRAUTHERMIC- Tyres® process) o electric co-generation turbine o Production of diesel-oil via fractionated distillation Application Processes:  Tyres  Biomass  Polymers Final Products: Oils (Diesel-oil) Carbon blacks Electricity

Applicability of the technology in Kazakhstan Field of technology: where and how the technology is applicable?  Pyrolysis. No restrictions on use Innovative content of the technology; feature of novelty. What is advantage of the technology in comparing with world-wide analogues? Where the technology was tested/ introduced/ patented?  new conception in the treatment of end-of-life tyres  does not use nitrogen atmosphere, yielding a gaseous stream with a greater gross calorific value, which is beneficial for the production of electricity (which is the end goal of this process).  modular and multifunctional facility.  a new system of propane burners for heating the reactors. The KELLER company has helped in this by designing a system that minimises gas consumption, optimising the heating process.  pre-industrial plant. 32 reactors (1,000 t/year). 100 kw.h turbine production  Lopez, F.A., T.A. Centeno, F.J. Alguacil, B. Lobato and J. Grau Method and unit for processing end-of-life tyres. PCT Patent number: 2012/ A1 What of benefit of introducing the technology? What is effect of the introducing (low power inputs, expansion of efficiency, affordability, others)?  disposal of toxic and dangerous waste  obtaining fuel and electricity  no emissions to the atmosphere What company is your potential partner in Kazakhstan? What kind activities are foreseen to cooperate with your potential partners (negotiation, signing of MoU, technology transfer)