Scientific Program

Conference Series Ltd invites all the participants across the globe to attend 7th World Convention on Waste Recycling and Reuse Tokyo, Japan.

Day 1 :

Keynote Forum

B. B. Jana

Member of National Academy of Agricultural Sciences, New Delhi

Keynote: Human urine as organic alternative to chemical fertilizers: Positive feedback to poverty alleviation and safety of Mother Earth

Time : 11 :30 am - 12 : 15 pm

Conference Series Recycling Summit 2018 International Conference Keynote Speaker B.  B. Jana photo
Biography:

Professor B.  B. Jana, a Fellow of National Academy of Agricultural Sciences, New Delhi  as well as some other prestigious Academies of India and  recipient of Joy Govinda Memorial Award of the Asiatic Society, is Emeritus Professor has passion for rural development through adopting the philosophy of wastes into wealth.  He has published several monographs, books and contributed chapters in UNESCO-Encyclopedia and has published more than 235 peer reviewed papers  and  supervised 32 Ph. D students. His domain of research  includes wastewater aquaculture, ecological sanitation, eco-restoration, ecological engineering, microbial nutrient cycling, integrated  organic farming,  impact of global warming and climate change issues in aquaculture, water conservation, etc.

 

Abstract:

Human urine is not a waste but a resource out of place.   Average person voids around  2 liters of urine per day which is rich in nitrogen (15-19%), phosphorous, (2.5-5%) potassium (3.0-4.5%), carbon (11-17%) calcium (4.5- 6%) apart from some growth promoting agents  such as  amino acids, glucose and vitamins and immense medicinal properties that enabled  it perfect  for  urine therapy.  More than 2.4 billion people in the world of which nearly 60% of  the  Indian population do not have access to proper sanitation causing high risk numerous of  airborne and waterborne diseases when discharged into the sewer system or through open defecation.  On the other hand, there is vast  scope for  its profitable uses in various economic driven activities. As a result, eco-san has emerged as eco-friendly alternative to close the loop between sanitation and agriculture by the way of providing organic fertilizers in agriculture and aquaculture production.  Urine diversion toilet is particularly useful  for collection and to  create safe fertilizers that would  substitute  cost intensive synthetic chemical fertilizers and provide  food security, poverty and malnutrition  alleviation, and improve the trade balance of countries importing chemical fertilizers. Researchers  have shown  human urine as a safe fertilizer in organic farming for  the production of  tomato, barley, wheat, spinach, Ash gold, French bean, pole bean, pumpkin, banana, green Amaranth, cucumber, etc.

 

Keynote Forum

Winnie SO Wing-mui

Director of the Centre for Education in Environmental Sustainability at the Education University of Hong Kong

Keynote: Education on Plastic Recycling Waste (PRW) Management in Hong Kong Schools

Time : 9:45 am - 10:30 am

Conference Series Recycling Summit 2018 International Conference Keynote Speaker Winnie SO Wing-mui photo
Biography:

Professor Winnie SO Wing-mui, Professor of the Department of Science & Environmental Studies, and Director of the Centre for Education in Environmental Sustainability at the Education University of Hong Kong. Prof So has actively engaged in environmental education work for years.  She initiated various environmental education programmes for school and University students, for example, the “I Act, U Act! - Education for Plastic Waste Recycling” and “Plastic Resources Education – 3Rs & 3Cs” , to carry out the education of plastic recycling with a new 8-compartment plastic waste recycling bin (8-bin) with designed patent received in 2015. Prof So has also endeavoured to promote the environmental sustainability work on solid waste management by organizing international conference and symposium in 2014 & 2016. She also actively served the Hong Kong community in various committees related to the environment, conservation, science and education

Abstract:

Plastics have become the ubiquitous material of the modern economy with their versatile properties. Global plastics production has increased twentyfold in the past half-century and is expected to double again in the next 20 years, which is an alarming situation. Hong Kong has certainly contributed to the plastics crisis, plastics are the third largest constituent of Municipal Solid Waste (MSW) locally, they accounted for 21% of total MSW in 2016, whereas the plastics recyclables’ recovery rate was only14%, most of them were accumulated in landfills and natural environment. Educating the next generation on plastic waste recycling and management is indispensable to tackle the problem, thereby, a series of Plastic Recycling Waste (PRW) education programs were initiated by the Education University in Hong Kong, which included “I Act, U Act!” for university students in 2013-2015 and “3Rs & 3Cs” for primary schools during 2016-2018. These programs demonstrated how the teaching and learning packages contribute to the plastic recycling work combined with the using of an innovative 8-compartments Plastic Recycling Bin (PRB). The PRB served as an education tool to assist the students to practice the proper plastic recycling steps (3Cs – Cleaning, Classification and Compression), and collected the eight types of plastics according to their Resin Identification Code (RIC) numbers. The size and design of each compartment were based on the statistical data and policies from different Asian countries. With the implementation of PRW education programs, partnership between local schools and recycling industries was developed, students were given the opportunities to study the works of recycling industries through site visits, talks sharing, and experiential learning activities in recycling centers. While recyclers collaborated with the University to collect the recycled plastics from schools regularly. This speech will help to draw global implications from the local lessons on education for plastic waste recycling.

 

Keynote Forum

B. B. Jana

Member of National Academy of Agricultural Sciences, New Delhi

Keynote: Human urine as organic alternative to chemical fertilizers: Positive feedback to poverty alleviation and safety of Mother Earth

Time : 11 :30 am - 12 : 15 pm

Conference Series Recycling Summit 2018 International Conference Keynote Speaker B. B. Jana photo
Biography:

Professor B.  B. Jana, a Fellow of National Academy of Agricultural Sciences, New Delhi  as well as some other prestigious Academies of India and  recipient of Joy Govinda Memorial Award of the Asiatic Society, is Emeritus Professor has passion for rural development through adopting the philosophy of wastes into wealth.  He has published several monographs, books and contributed chapters in UNESCO-Encyclopedia and has published more than 235 peer reviewed papers  and  supervised 32 Ph. D students. His domain of research  includes wastewater aquaculture, ecological sanitation, eco-restoration, ecological engineering, microbial nutrient cycling, integrated  organic farming,  impact of global warming and climate change issues in aquaculture, water conservation, etc.

 

Abstract:

Human urine is not a waste but a resource out of place.   Average person voids around  2 liters of urine per day which is rich in nitrogen (15-19%), phosphorous, (2.5-5%) potassium (3.0-4.5%), carbon (11-17%) calcium (4.5- 6%) apart from some growth promoting agents  such as  amino acids, glucose and vitamins and immense medicinal properties that enabled  it perfect  for  urine therapy.  More than 2.4 billion people in the world of which nearly 60% of  the  Indian population do not have access to proper sanitation causing high risk numerous of  airborne and waterborne diseases when discharged into the sewer system or through open defecation.  On the other hand, there is vast  scope for  its profitable uses in various economic driven activities. As a result, eco-san has emerged as eco-friendly alternative to close the loop between sanitation and agriculture by the way of providing organic fertilizers in agriculture and aquaculture production.  Urine diversion toilet is particularly useful  for collection and to  create safe fertilizers that would  substitute  cost intensive synthetic chemical fertilizers and provide  food security, poverty and malnutrition  alleviation, and improve the trade balance of countries importing chemical fertilizers. Researchers  have shown  human urine as a safe fertilizer in organic farming for  the production of  tomato, barley, wheat, spinach, Ash gold, French bean, pole bean, pumpkin, banana, green Amaranth, cucumber, etc.

 

Keynote Forum

Katsutoshi Inoue

Saga University, Japan

Keynote: Recovery of precious metals by means of adsorption using microalgal waste

Time : 11:00-11:45

Conference Series Recycling Summit 2018 International Conference Keynote Speaker Katsutoshi Inoue photo
Biography:

Katsutoshi Inoue has received Bachelor’s degree from Kyushu University, Department of Organic Synthesis, Master’s degree from the same university. He became a Lecturer of Saga University, Department of Applied Chemistry in 1971. He has completed his PhD degree from Kyushu University and became an Associate Professor of Saga University in 1974 and then became Full Professor of Saga University in 1986. He retired from Saga University and became a Professor Emeritus of the same university in 2009. His field is separation chemistry and technology such as adsorption, ion exchange and solvent extraction.

Abstract:

Novel environmentally benign adsorbent was prepared from waste residue of microalgae after extracting biodiesel oil by a simple manner of treating in concentrated sulfuric acid at high temperature. Although the feed material, the microalgal waste itself, was found to selectively adsorb gold(III), palladium(II) and platinum(IV) from hydrochloric acid solution over base metals such as copper(II), nickel(II) and so on, the adsorption of gold(III) was dramatically enhanced by the treatment using concentrated sulfuric acid; it was recovered as metallic gold particles. In order to improve the adsorption behavior for palladium(II) and platinum(IV), some chemically modified microalgal gels were also prepared by immobilizing some functional groups such as dithiooxamide, polyethyleneimine and trimethylamine. In addition to the basic investigation about the adsorption behaviors of these biosorbents, adsorptive recovery of precious metals was also investigated from actual leach liquor of printed circuit board of spent mobile phones using the chemically modified adsorbent in order to verify its effectiveness for practical application.

  • Biomass and Bio energy | Chemical Waste Recycling | Engineering a Green World | Recycling Business

Session Introduction

Annemiek Verrips

CPB Netherlands Bureau for Economic Policy Analysis, Netherlands

Title: The circular economy of plastic: Case of the Netherlands

Time : 11:35-12:05

Speaker
Biography:

Annemiek Verrips has studied both Chemistry and Economics at VU University in Amsterdam. Since 2000, she is working at CPB Netherlands Bureau for Economic Policy Analysis. She has carried out cost benefit analyses in various fields of interest such as mobility, sustainable energy, physical planning, fresh water and water safety. As a Project Leader, she published a study on the circular economy of plasti

Abstract:

The circular economy aims to reduce the use of raw materials, promote re-use and recycling and limit waste. This study focuses on the circular economy of plastics and investigates what major problems are in relation to the use of plastic and to what extent government policy is effective. We carried out a literature study and paid several working visits. The production of plastic has grown enormously and is expected to increase further. The most important environmental damage caused by plastic is pollution, especially plastic soup, and carbon emissions. The depletion of natural resources, oil and gas, is not an important issue in relation to plastic. An increase in the recycling of household plastic will not automatically benefit the environment. It is preferable to augment the quality of recycled plastic over increasing quantity. Policy could provide incentives to increase the quality of recycled plastic. Furthermore, businesses could alter their strategy by using plastics that are better recyclable. The environmental benefits of recycling household plastic are currently limited. It does not reduce littering or plastic soup. Carbon reduction is limited to about 0.15 percent of total carbon emission in the Netherlands. The use of bio-based plastic (plastic made of biomass) is no solution with respect to plastic soup. Most bio-based plastic are not biodegradable. For bioplastic to be biodegradable you generally need an industrial environment. Bio-based plastic can reduce carbon emissions, but net results vary widely due to side effects (biodiversity, food, energy, use of fertilizers). Policy measures that help reduce littering and plastic soup could be: extending the packaging deposit system, regulation with respect to plastic (for example in cosmetics), innovation in removing plastics from waste water and measures to reduce plastic in organic waste which is turned into compost. 

Fernando Coelho

University of Birmingham, UK

Title: Refining recycled neodymium magnetic powder
Speaker
Biography:

Fernando Coelho is currently pursuing PhD in Chemical Engineering from University of Birmingham, UK. He has completed his Bachelor’s and Master’s degrees in Environmental Engineering from University of Aveiro in Portugal. He is an early stage Researcher of H2020 DEMETER-European Training Network for the design and recycling of rare-earth permanent magnet motors and generators in hybrid and full electric vehicles.

Abstract:

Concerns have grown across the globe regarding within securing reliable, sustainable and access of certain raw materials including Rare Earth Elements (REEs) which play an important role in different industries such as clean energy and transportation. The high demand of REEs and low natural abundance in REE ore have aroused serious concerns in supply thus recycling has been proposed as one option to solve this supply chain balance problem. Permanent magnet is the application with highest consumption of REEs by end use and the magnets of the Hard Drive Disk (HDD) has been suggested as the most prominent source recycling source of REE. Recycling process of HDD has developed at University of Birmingham where hydrogen has been employed to decrepitate sintered neodymium-iron-boron into a powder which can then be reprocessed to produce new NdFeB magnets. However, the success of recycling methods using hydrogenation treatments is sensitive to the amount of oxidation which drops the magnetic properties of sintered NdFeB magnets. The additional oxygen mainly occurs at the finest particles of Grain Boundary Phase (GBP) in which is too small to be separate by sieving or conventional screening technology. This work focuses on investigation of different physical separation techniques (gravitational, magnetic and flotation) of the ultra-fines particles of the hydrogenated NdFeB recycled powder. It has been shown that magnetic concentration is possible when using a wet low intensity magnetic separation. Both the magnetic concentrator and flotation result in a similar performance.

Speaker
Biography:

Andrzej L Wasiak is involved in several research topics belonging mainly to the area of production engineering. His interests are focused on experimental studies as well as mathematical modeling of various processes important for creation of materials, products or harvesting of energy, especially from renewable resources. In his approach, sustainability is idealized notion that can be realized only as asymptotic solution i.e., at any instant of time only with some limited accuracy. He is an active Academic Teacher and also Member of several Polish and international scientific organizations.
 

Abstract:

Every human constructed as well as natural object operates for limited lifetime. What happens to various technical objects after their end of life is reached? Frequently they are disposed somewhere in the nature and undergo slow degradation and fragmentation. The resulting particles are dispersed over the soil, atmosphere or ocean waters. Such dispersed matter, because of its very high entropy is practically impossible to recover, so it is irreversibly lost for the human community, in spite of that, it remains on the Earth. The scale of global production is so large that depletion of the resources becomes the real threat. The other problem connected to the dispersed matter is that majority of substances being dispersed in the environment are harmful for living organisms, including humans and therefore, bring damage to the global natural environment. Consequently, dispersing of substances should be avoided. The recycling of materials and other resources intuitively seems to be a remedy for both threats mentioned. Recycling, however, is a technological process, which also requires consumption of some resources and consumption of energy, what in consequence introduces similar threats as the other production processes. The mathematical model presented in this paper enables analysis of the effects of material recycling on productivity of primary technological process. It demonstrates effects caused using the fraction of recirculated material (resource), ‘α’, as well as the effect of the instant of time ‘tz’, when this fraction of the material is recirculated. The progress of a process in such a case is represented as:

 

Where τ is a current time and a, k and n are parameters of a kinetic equation. The other subject concerns analysis of the choices of technological processes of recycling as well as summarizes criteria that should be fulfilled by appropriately chosen technological processes of recycling.

 

Biography:

Indra Prasad Dahal is an MBA from Saraswati Multiple Campus, Kathmandu from Tribhuwan University, Nepal and MPhil in Central Department of Public Administration College, Kathmandu under Tribhuwan University, Nepal. He is an Academic Coordinator, Member of research committee, an Associate Professor and teaching Project Management and Research Methodology in Lincoln College, Kathmandu, Nepal.

Abstract:

Solid waste management in Nepal has been one of the important and seriously discussed topics. Kathmandu metropolitan city is unable to handle the solid waste by itself. This study will focus on community participation in solid waste management in Kathmandu. There are varieties of study areas for my research such as Old Newar Settlement (Ashan and Jyatha), Thamel (Tourism area) and Samakhuhsi Town Planning (ward no. 29 out of 38 wards of Kathmandu metropolitan city.) Waste management in those areas has been managed through NGOs and private sectors, communities and metropolitan authority. Household questionnaire and interviews will be used as the research tools and a total of 120 respondents interviewed from study area. The study will use both qualitative and quantitative approach to analyze the information. Nearly 75% of the total waste generated in Kathmandu is of organic type which can be composted. The main aim of solid waste management practice is seen in all these settlements to segregate waste at source. All the communities have different approaches which the people follow in segregating waste. In all the settlements, bins are provided. At Ashan and Local Newar Settlement area has a central collection system, but the community members are asked to segregate waste. In Thamel too, it is a similar case, but a private company is involved (directly) in managing waste. In Samakhushi Town Planning area, people are encouraged to manage waste in individual level in their own household. This study will try to depict the status of solid waste management practices as well as the status of community participation community members in other activities such as recycling-reuse, disposal of waste, decision making within entire ward no. 29 out of 38 wards of Kathmandu metropolitan city.

Biography:

Nutthiwut Boonsa-ard and Maturot Timsuwan is currently a Medical student at Faculty of Medicine, Thammasat University, Thailand.
 

Abstract:

Nowadays, climate change is global environmental issues, so the organization should have carbon profile for management of carbon dioxide emission. The purposes of this project are to show the result of carbon footprint that is surveyed from 3rd year medical students and three departments in Faculty of Medicine, Thammasat University, including Department of Education, Transportation and Laboratory. This project used participatory action research among medical students and personnel to reduce carbon dioxide emission in faculty of medicine. Initially, third year medical students were surveyed about energy use in daily life. For the three departments, we used secondary data, including paper and ink use from department of education, diesel use from department of transportation, and chemical substances and electricity use from laboratory. We also created learning activity for third year medical students and collected them the opinions about carbon dioxide reduction. Finally, we presented the results and opinions to the heads of three departments. The results showed that third year medical students emitted carbon dioxide approximately 2.01-ton CO2 eq/year/person in daily life and gave the opinions about carbon dioxide reduction. Carbon footprint of three departments, including Department of Education, Transportation and Laboratory are 5.92, 6.43, 25.65-ton CO2 eq/year, respectively. For pre-test and post-test in topic climate change and carbon footprint, the third-year medical students have average score of 85.2%, 97.8 %, 54.8%, 86.6%, respectively