date: 2010-04-21T08:40:55Z pdf:PDFVersion: 1.5 pdf:docinfo:title: Recent Advances in Enzymatic Fuel Cells: Experiments and Modeling xmp:CreatorTool: Microsoft® Office Word 2007 access_permission:can_print_degraded: true subject: Enzymatic fuel cells convert the chemical energy of biofuels into electrical energy. Unlike traditional fuel cell types, which are mainly based on metal catalysts, the enzymatic fuel cells employ enzymes as catalysts. This fuel cell type can be used as an implantable power source for a variety of medical devices used in modern medicine to administer drugs, treat ailments and monitor bodily functions. Some advantages in comparison to conventional fuel cells include a simple fuel cell design and lower cost of the main fuel cell components, however they suffer from severe kinetic limitations mainly due to inefficiency in electron transfer between the enzyme and the electrode surface. In this review article, the major research activities concerned with the enzymatic fuel cells (anode and cathode development, system design, modeling) by highlighting the current problems (low cell voltage, low current density, stability) will be presented. language: zh-CN dc:format: application/pdf; version=1.5 pdf:docinfo:creator_tool: Microsoft® Office Word 2007 access_permission:fill_in_form: true pdf:encrypted: false dc:title: Recent Advances in Enzymatic Fuel Cells: Experiments and Modeling modified: 2010-04-21T08:40:55Z cp:subject: Enzymatic fuel cells convert the chemical energy of biofuels into electrical energy. Unlike traditional fuel cell types, which are mainly based on metal catalysts, the enzymatic fuel cells employ enzymes as catalysts. This fuel cell type can be used as an implantable power source for a variety of medical devices used in modern medicine to administer drugs, treat ailments and monitor bodily functions. Some advantages in comparison to conventional fuel cells include a simple fuel cell design and lower cost of the main fuel cell components, however they suffer from severe kinetic limitations mainly due to inefficiency in electron transfer between the enzyme and the electrode surface. In this review article, the major research activities concerned with the enzymatic fuel cells (anode and cathode development, system design, modeling) by highlighting the current problems (low cell voltage, low current density, stability) will be presented. pdf:docinfo:subject: Enzymatic fuel cells convert the chemical energy of biofuels into electrical energy. Unlike traditional fuel cell types, which are mainly based on metal catalysts, the enzymatic fuel cells employ enzymes as catalysts. This fuel cell type can be used as an implantable power source for a variety of medical devices used in modern medicine to administer drugs, treat ailments and monitor bodily functions. Some advantages in comparison to conventional fuel cells include a simple fuel cell design and lower cost of the main fuel cell components, however they suffer from severe kinetic limitations mainly due to inefficiency in electron transfer between the enzyme and the electrode surface. In this review article, the major research activities concerned with the enzymatic fuel cells (anode and cathode development, system design, modeling) by highlighting the current problems (low cell voltage, low current density, stability) will be presented. pdf:docinfo:creator: Ivan Ivanov meta:author: Tanja Vidakovi?-Koch meta:creation-date: 2010-04-21T07:22:25Z created: 2010-04-21T07:22:25Z access_permission:extract_for_accessibility: true Creation-Date: 2010-04-21T07:22:25Z Author: Tanja Vidakovi?-Koch producer: Microsoft® Office Word 2007 pdf:docinfo:producer: Microsoft® Office Word 2007 pdf:unmappedUnicodeCharsPerPage: 0 dc:description: Enzymatic fuel cells convert the chemical energy of biofuels into electrical energy. Unlike traditional fuel cell types, which are mainly based on metal catalysts, the enzymatic fuel cells employ enzymes as catalysts. This fuel cell type can be used as an implantable power source for a variety of medical devices used in modern medicine to administer drugs, treat ailments and monitor bodily functions. Some advantages in comparison to conventional fuel cells include a simple fuel cell design and lower cost of the main fuel cell components, however they suffer from severe kinetic limitations mainly due to inefficiency in electron transfer between the enzyme and the electrode surface. In this review article, the major research activities concerned with the enzymatic fuel cells (anode and cathode development, system design, modeling) by highlighting the current problems (low cell voltage, low current density, stability) will be presented. Keywords: "biofuel cell; enzymatic electrode; bioelectrocatalysis; modeling" access_permission:modify_annotations: true dc:creator: Tanja Vidakovi?-Koch description: Enzymatic fuel cells convert the chemical energy of biofuels into electrical energy. Unlike traditional fuel cell types, which are mainly based on metal catalysts, the enzymatic fuel cells employ enzymes as catalysts. This fuel cell type can be used as an implantable power source for a variety of medical devices used in modern medicine to administer drugs, treat ailments and monitor bodily functions. Some advantages in comparison to conventional fuel cells include a simple fuel cell design and lower cost of the main fuel cell components, however they suffer from severe kinetic limitations mainly due to inefficiency in electron transfer between the enzyme and the electrode surface. In this review article, the major research activities concerned with the enzymatic fuel cells (anode and cathode development, system design, modeling) by highlighting the current problems (low cell voltage, low current density, stability) will be presented. dcterms:created: 2010-04-21T07:22:25Z Last-Modified: 2010-04-21T08:40:55Z dcterms:modified: 2010-04-21T08:40:55Z title: Recent Advances in Enzymatic Fuel Cells: Experiments and Modeling xmpMM:DocumentID: uuid:40c74183-de0c-411c-858f-cce98ffe4fa5 Last-Save-Date: 2010-04-21T08:40:55Z pdf:docinfo:keywords: "biofuel cell; enzymatic electrode; bioelectrocatalysis; modeling" pdf:docinfo:modified: 2010-04-21T08:40:55Z meta:save-date: 2010-04-21T08:40:55Z Content-Type: application/pdf X-Parsed-By: org.apache.tika.parser.DefaultParser creator: Tanja Vidakovi?-Koch dc:language: zh-CN dc:subject: "biofuel cell; enzymatic electrode; bioelectrocatalysis; modeling" access_permission:assemble_document: true xmpTPg:NPages: 44 pdf:charsPerPage: 2142 access_permission:extract_content: true access_permission:can_print: true meta:keyword: "biofuel cell; enzymatic electrode; bioelectrocatalysis; modeling" access_permission:can_modify: true pdf:docinfo:created: 2010-04-21T07:22:25Z