Printed Program
As of 26/12/2024: (Alphabetical Order)
Alario-Franco international Symposium (2nd Intl Symp on Solid State Chemistry for Applications & Sustainable Development)
Dmitriev International Symposium
(6th Intl. Symp. on Sustainable Metals & Alloys Processing)
Horstemeyer International Symposium (7th Intl. symp. on Multiscale Material Mechanics & Sustainable Applications)
Kipouros International Symposium (8th Intl. Symp. on Sustainable Molten Salt, Ionic & Glass-forming Liquids & Powdered Materials)
Kolomaznik International Symposium (8th Intl. Symp. on Sustainable Materials Recycling Processes & Products)
Macdonald International Symposium (Intl Sympos. on Corrosion for Sustainable Development)
Marcus International Symposium (Intl. symp. on Solution Chemistry Sustainable Development)
Mauntz International Symposium (7th Intl. Symp. on Sustainable Energy Production: Fossil; Renewables; Nuclear; Waste handling , processing, & storage for all energy production technologies; Energy conservation)
Mizutani International Symposium (6th Intl. Symp. on Science of Intelligent & Sustainable Advanced Materials (SISAM))
Nolan International Symposium (2nd Intl Symp on Laws & their Applications for Sustainable Development)
Poveromo International Symposium (8th Intl. Symp. on Advanced Sustainable Iron & Steel Making)
Trovalusci International Symposium (17th Intl. Symp.
on Multiscale & Multiphysics Modelling of 'Complex' Material (MMCM17) )
Virk International Symposium (Intl Symp on Physics, Technology & Interdisciplinary Research for Sustainable Development)
Yazami International Symposium (7th Intl. Symp. on Sustainable Secondary Battery Manufacturing & Recycling)
Yoshikawa International Symposium (2nd Intl. Symp. on Oxidative Stress for Sustainable Development of Human Beings)
7th Intl. Symp. on Sustainable Mineral Processing
6th Intl. Symp. on New & Advanced Materials & Technologies for Energy, Environment, Health & Sustainable Development
7th Intl. Symp. on Sustainable Surface & Interface Engineering: Coatings for Extreme Environments
International Symposium on COVID-19/Infectious Diseases & their implications on Sustainable Development
4th Intl. Symp. on Sustainability of World Ecosystems in Anthropocene Era
3rd Intl. Symp. on Educational Strategies for Achieving a Sustainable Future
9th Intl. Symp. on Environmental, Policy, Management , Health, Economic , Financial, Social Issues Related to Technology & Scientific Innovation
Navrotsky International Symposium (Intl. symp. on Geochemistry for Sustainable Development)
2nd Intl Symp on Geomechanics & Applications for Sustainable Development
3rd Intl. Symp.on Advanced Manufacturing for Sustainable Development
5th Intl. Symp. on Sustainable Mathematics Applications
Intl. Symp. on Technological
Innovations in Medicine for Sustainable Development
7th Intl. Symp. on Synthesis & Properties of Nanomaterials for Future Energy Demands
International Symposium on Nanotechnology for Sustainable Development
8th Intl. Symp. on Sustainable Non-ferrous Smelting & Hydro/Electrochemical Processing
2nd Intl Symp on Green Chemistry & Polymers & their Application for Sustainable Development
Modelling, Materials & Processes Interdisciplinary symposium for sustainable development
Summit Plenary
9TH INTL. SYMP. ON ENVIRONMENTAL, POLICY, MANAGEMENT , HEALTH, ECONOMIC , FINANCIAL, SOCIAL ISSUES RELATED TO TECHNOLOGY & SCIENTIFIC INNOVATION
Editors: F. Kongoli, J. Antrekowitsch, T. Okura, Z. Wang, L. Liu, L. Guo, J. Ripke, E. Souza.
To be Updated with new approved abstracts
BioChar, The New Black Gold Pinchas
Mandell1;
1FAMILY OF ISRAEL FOUNDATION, Accord, United States; sips22_10_516
BioChar is a highly adsorbent, specially-produced nano-carbon with unique properties originally used as a soil amendment in agriculture. The Industrial process of Pyrolysis used to produce BioChar enables the creation of multiple profit centers utilizing renewable biomass as a feedstock and producing as a byproduct BioChar, Heat, Electricity, Bio- Diesel, Jet Fuel, and Tar.
To date, there are over 55 known uses for BioChar with many more being discovered every month. Its major uses today are in Sustainable Agriculture [1,2] which Improves soil fertility and increasing yield per hectare, water and fertilizer (nutrients) bind to the BioChar in the root zone and release it according to the plant’s requirements, prevents leaching (waste) of water and fertilizer and it’s contamination of ground water, development of healthy roots, reduces soil acidity, saves up to 50% in water usage as well as significant reduction in fertilizer consumption, growing organic crops economically, enables farming of desert land; Farm Animal Food Supplement [3] Additive to Asphalt, Concrete, and Plastics [4,5,6,7], Environmental Cleanup of Contaminated Soil & Water [8] As just a small sample of all the peer reviewed journal articles of new scientific findings leading to practical application for BioChar click HERE.
It turns out that the stable carbon matrix that BioChar is made of has all kinds of interesting properties. This carbon matrix which has both anionic and cationic exchange properties can hold on to things – water, air, metals and organic chemicals, and it also has unique thermal and electrical properties that are still being explored. Finally, the highly porous physical structure of BioChar provides habitat for microorganisms. With so many different properties, BioChar is bound to have a lot of different uses, but one function that all BioChar applications (other than burning it for fuel) share is carbon sequestration. By fixing easily degradable plant carbon into long-lasting charcoal, carbon dioxide is slowly but surely removed from the atmosphere. It is no wonder that it is considered and being called the “New Black GOLD”!
References:
[1] Biochar implications for sustainable agriculture and environment: A review South African Journal of Botany 127 December 2019 p.333-347
[2] Beneficial Effects of Biochar on Agriculture and Environments International Research Journal of Pure &
Applied Chemistry 21(15): 74-88, 2020
[3] The use of Biochar in animal feeding Schmidt H-P, Hagemann N, Draper K, Kammann C. 2019. PeerJ 7:e7373 https://doi.org/10.7717/peerj.7373
[4] Biochar for asphalt modification: A case of high-temperature properties improvement. 2022 Jan
15;804:150194. doi: 10.1016 Science of The Total Environment Volume 804, 15 January 2022, 150194
2021.150194.
[5] Biochar Amended Concrete for Carbon Sequestration October 2020 IOP Conference Series Materials Science and Engineering 936(1):012007 DOI:10.1088/1757-899X/936/1/012007
[6] Biochar-filled plastics: Effect of feedstock on thermal and mechanical properties Biomass Conversion and
Biorefinery Volume 12, pages 4349–4360 (2022)
[7] BIOCHAR USE IN BUILDING MATERIALS
[8] Effects of Biochar in Soil and Water Remediation: A Review Biodegradation DOI: http://dx.doi.org/ 10.5772/intechopen.101374 ISOTOPIC HOUSING Pinchas
Mandell1;
1FAMILY OF ISRAEL FOUNDATION, Accord, United States; sips22_10_517
Isotopic Housing™ Definition: A home which stands alone and requires no infrastructure whatsoever for water [1,2], electricity [3,4] or sewage treatment [5,6] making it completely independent. [8]
This new paradigm concept for green sustainable homes and communities is at the heart and center of the Family of Israel Foundation’s agenda for empowering mankind with the tools, technologies, and know-how to become completely decentralized and truly independent of anyone else for all the basic needs a person or family would require including the production of one’s own food (Hydroponically and organically grown chemical free fruits & vegetables as well as Aquaponic production of fresh fish as a source of high value healthy protein).
We will also include 3D Printing technologies for additive manufacturing which will utilize as its manufacturing feed-stock, plastic made from Hemp that is 10x stronger than steel, half the weight, and biodegradable [7]. This will allow the independent manufacturing of any item or tool which may be needed and can also be used to provide an addition income stream.
One of the hallmark features of Isotopic Homes™ & communities is that instead of a person having to make a living to provide for a home, the home provides a living for its inhabitants. This is not just some Utopian dream, it is actually something we can do right here, right now! All that is left to do is to optimize the symphony of technologies.
References:
[1]Atmospheric Water Harvesting on Micro-nanotextured Biphilic Surfaces ACS Appl. Nano Mater. 2022, 5, 8, 11334–11341 Publication Date: August 11, 2022
[2] High-yield solar-driven atmospheric water harvesting of metal–organic-framework-derived nanoporous carbon with fast-diffusion water channels Nature Nanotechnology volume17, pages 857–863 (2022)
[3]Approaches for High-Efficiency III-V/Si Tandem Solar Cells Energy and Power Engineering Vol.13 No.12,
December 2021
[4] Inventor John R. Tuttle Method and system of extracting energy from wind (Bladless WindPipe) US Patent
# US9926914B2
[5] MagneGas - An Alternative Technology for Clean Energy American Journal of Modern Physics Volume 6,
Issue 4-1, August 2017, Pages: 53-63
[6] MagneGas gives recycling wastewater a real-world test NY Daily News May 21, 2015 at 4:34 pm
[7] Hemp is the Future of Plastics 2018 3rd International Conference on Advances on Clean Energy Research (ICACER 2018) E3S Web Conf. Volume 51, 2018
[8] “Isotopic Housing” Video Presentation MERCURY IN BRAZILIAN ARTISANAL MINING : RELATIONS WITH ENVIRONMENTAL DEGRADATION AND HUMAN HEALTH Francisco
Souza1;
1IFPB, Campina Grande, Brazil; sips22_10_160_FS
Mining has always been marked by exposure to various risks capable of promoting pathologies to workers [1]. Physical, chemical, biological, ergonomic and accident risks are common in the mineral extractive sector.
Mineral deposit mining and concentration processes can release toxic metals into the environment, e.g. cyanides and mercury, used respectively in the leaching and amalgamation of gold. Mining is one of the main sources of environmental contamination by heavy metals, whose main vectors are wind and erosion [2]. They also have high levels of reactivity and bioaccumulation, that is, they are able to trigger several non-metabolizable chemical reactions, which makes them remain cumulative along the food chain [3].
Among the metals released into the environment, mercury is considered the most toxic potential and the only one that has been proven to undergo biomagnification along the trophic chain, also suffering, organification and reaching its most toxic form (methylmercury) in the aquatic system [4]. The consumption of contaminated fish is the main route of human exposure to methylmercury.
Artisanal mining, which uses gold-mercury amalgam to extract gold from the ore, is a significant source of exposure for workers and surrounding populations. Miners burn the gold-mercury amalgam to vaporize the mercury and recover the gold. In addition, metal mercury residues are usually dumped near or into watercourses and can lead to high concentrations of methylmercury in fish. The consumption of contaminated fish by community residents can result in the ingestion of high levels of methylmercury [5].
Keywords:
Contamination; Health; Mineral; Mining; Sustainability;References:
REFERENCES:
[1] M. N. A. de Sousa, A. L. D. Bezerra, B. M. O. Santos, J. E. Z., D. Bertoncello, P. R. V. Quemelo. Ver. Cient. Eletr. de Eng. Produção. 1099–1120. 2015..
[2] J. M. Navarro, R. Torres, K. Acuña, C. Duarte, P. H. Manriquez, M. Lardies, N. A. Lagos, C. Vargas, V. Aguilera. Chemosphere. 2013. 1242-1248.
[3] M. Cardoso. . 2011.
[4] B. S. Homrich, C. R. P. Fernandes, J. R. G. Viera. IBEAS. 2014. 1-7.
[5] Who. IOMC. 2008. 169 pp.To be Updated with new approved abstracts