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Chemically modified  electrodes for ethyl  parathion Chemically modified  electrodes for ethyl  parathion Новинка

Chemically modified electrodes for ethyl parathion

4716 руб.
Parathion, also called parathion-ethyl or diethyl parathion, is an organophosphate compound. It is a potent insecticide and agaricide. It was originally developed by IG Farben in the 1940s. It is highly toxic to non-target organisms, including humans. Its use is banned or restricted in many countries, and there are proposals to ban it from all use. However, it is very toxic in nature and thus its analysis is of tremendous importance. The goal of the present investigation is basic cum applied in nature and it aims at the development of chemically modified electrode for ethyl parathion.
Chemically modified electrodes for methyl parathion Chemically modified electrodes for methyl parathion Новинка

Chemically modified electrodes for methyl parathion

4716 руб.
Methyl parathion was originally developed by the German pesticide company Bayer. It is a non-systemic pesticide that kills pests by acting as a stomach poison. It is used to control chewing and sucking insects in a wide range of crops, including cereals, fruit, vines, vegetables, ornaments, cotton and field crops. Methyl parathion is generally applied as a spray, mainly as an emulsifiable concentrate formulation. However, it is very toxice in nature and thus its analysis is of tremendous importance. The goal of the present investigation is basic cum applied in nature and it aims at the development of chemically modified electrode for methyl parathion.
Enzyme Electrodes For Biosensor & Biofuel Cell Applications Enzyme Electrodes For Biosensor & Biofuel Cell Applications Новинка

Enzyme Electrodes For Biosensor & Biofuel Cell Applications

7078 руб.
Enzyme electrodes are biochemical transducers. They function by converting biochemical reactions into electrochemical processes. This functionality could potentially give rise to a new generation of implantable medical devices such as biofuel cells and biosensors. The main aim of this study was to fabricate and characterise enzyme electrodes for potential use in these applications. The approach involved testing various materials such as different types of enzyme, polymeric electron transfer mediators, enzyme entrapment materials, conductive supports and matrices and biocompatible polymers. Various enzyme immobilisation methods were used and various polymeric electron transfer mediators were fabricated and tested. The investigation was based primarily on electrochemical techniques. The materials and immobilisation techniques presented could potentially be used to improve future enzyme electrodes. This may be achieved through the novel use of biocompatible and biomimicking polymers, through simple biofuel cell fabrication and with the use of multi analyte biosensors developed during this investigation.
Electrodes Formulation: Fabrication and Architectures/Properties/Performance Relationships Electrodes Formulation: Fabrication and Architectures/Properties/Performance Relationships Новинка

Electrodes Formulation: Fabrication and Architectures/Properties/Performance Relationships

6534 руб.
Li-ion battery technology is based on the reversible insertion of lithium in the active material structure. In the electrode, powder of active material must be combined with various additives, such as polymeric binders and electronically conductive agents, which give the electrode the suitable mechanical and electrical properties for the operations of assembly of the film electrode with other battery cells (separator, second electrode) and its operation during the life of the battery. These additives shall remain in small quantities in the electrode so as not to excessively reduce the energy density of the battery. From these considerations was born the issue of formulation of electrodes which is to determine the optimal combination of additives to achieve the best performance of the active material. This requires technological objective to analyze the influence of the development of the electrode to its architecture process, understand all the interactions between the different constituents of the electrode under the action of various stimuli (mechanical, chemical, electric), and requires a multidisciplinary and multi-scale with the development of sophisticated characterization techniques, both the electrodes are complex composites.
Bioactive electrodes for biomedical applications Bioactive electrodes for biomedical applications Новинка

Bioactive electrodes for biomedical applications

4468 руб.
This book illustrate the study and development of bioactive electrodes to apply in piezoelectric sensors for biomedical applications, respectively in internal orthopedic prosthesis. These electrodes are composed by Titanium doped with Silver and Gold. Titanium, being widely known for its biocompatibility, serves as electrical conductor, Silver acts as antibacterial agent and Gold is used to induce Silver ionization due to the formation of a galvanic pair, once the antibacterial effect is achieved by Silver ions. These electrodes were deposited on piezoelectric polymer, assembling a sensor capable of detecting anomalies, in real time, related to the implementation of prosthetic devices inside the human body. The objective is to produce biocompatible and antibacterial electrodes without compromising the electrical conductivity. Along the literature the reader can find a state of the art related to this matter as well as the main results of the physical, chemical, electrical and structural characterization performed in this study.
Nanostructured Electrodes Materials for Li-ion Batteries Nanostructured Electrodes Materials for Li-ion Batteries Новинка

Nanostructured Electrodes Materials for Li-ion Batteries

6426 руб.
The book is about the studies that have been focused on the synthesis and characterization of transition metal oxides as anode materials in lithium ion batteries. The synthesis methods were the hydrothermal method, the electrospinning method, and electrostatic spray deposition (ESD). By controlling the synthesis conditions, different morphologies can be obtained, which result in different electrochemical performances. All of these studies provide a fundamental basis for the development of high performance lithium ion batteries.

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Li-ion battery technology is based on the reversible insertion of lithium in the active material structure. In the electrode, powder of active material must be combined with various additives, such as polymeric binders and electronically conductive agents, which give the electrode the suitable mechanical and electrical properties for the operations of assembly of the film electrode with other battery cells (separator, second electrode) and its operation during the life of the battery. These additives shall remain in small quantities in the electrode so as not to excessively reduce the energy density of the battery. From these considerations was born the issue of formulation of electrodes which is to determine the optimal combination of additives to achieve the best performance of the active material. This requires technological objective to analyze the influence of the development of the electrode to its architecture process, understand all the interactions between the different constituents of the electrode under the action of various stimuli (mechanical, chemical, electric), and requires a multidisciplinary and multi-scale with the development of sophisticated characterization techniques, both the electrodes are complex composites.
купить very useful nice tips and electrodes fit cut40 50d ct312 electrodes standard many people like welcome wholesale 120pk