User Guide
Why can I only view 3 results?
You can also view all results when you are connected from the network of member institutions only. For non-member institutions, we are opening a 1-month free trial version if institution officials apply.
So many results that aren't mine?
References in many bibliographies are sometimes referred to as "Surname, I", so the citations of academics whose Surname and initials are the same may occasionally interfere. This problem is often the case with citation indexes all over the world.
How can I see only citations to my article?
After searching the name of your article, you can see the references to the article you selected as soon as you click on the details section.
  Citation Number 4
 Views 38
 Downloands 4
 Audio Listening 1
Mikrobiyal Yakıt Hücrelerinde Kullanılan Saf Kültür Mikroorganizmaları ve Genel Özellikleri
2020
Journal:  
Avrupa Bilim ve Teknoloji Dergisi
Author:  
Abstract:

Biyokütle enerjisi, günümüzün artan enerji taleplerini karşılamakta kaçınılmaz bir görev yürüten yenilenebilir bir enerjidir. Biyoyakıtların aksine, mikrobiyal yakıt hücreleri organik malzemelerde toplanan enerjiyi doğrudan biyoelektrikliğe dönüştürür. Mikrobiyal yakıt hücreleri, kalkınma odaklı ve çok yönlü bir yenilenebilir enerji teknolojisidir. Mikrobiyal yakıt hücresi (MYH), çeşitli organik malzemelerden (substratlardan) elektrik enerjisi üretimi için kullanılan çevre dostu bir teknolojidir. Mikrobiyal yakıt hücreleri, doğrudan elektrik enerjisi üretimi için alternatif bir enerji dönüşüm sistemi olarak büyük ilgi gördü. Mikrobiyal yakıt hücreleri (MYH’ler), atık ortamda yakıt kaynağı olarak düşük dereceli organik karbonları kullanabilir. Mikrobiyal yakıt hücrelerinin, yakıt kaynağı olarak düşük dereceli biyokütle veya hatta atık su kullanabilmesinden dolayı belirgin faydaları vardır. Mikrobiyal yakıt hücrelerinde elektrik üretiminin temeli, organik malzemelerin mikroorganizmalar tarafından katalize edilmesidir. Çünkü mikrobiyal yakıt hücreleri, organik maddeleri (substrat) oksitlemek için biyokatalizörler olarak mikroorganizmaları kullanır. Bir mikrobiyal yakıt hücresinde, organik maddeler (substratlar) elektron vericileridir. Organik malzemelerin oksidasyon (biyokataliz) çalışmalarından sonra anodik biyofilm bakterileri tarafından açığa çıkarılan elektronlar ilk önce anoksik koşullar altında anot elektrota aktarılır. Bu işlemleri yapan bakterilere elektrojen denir. Anot elektrot, elektrojenik biyofilm bakterileri tarafından anaerobik solunum için elektron alıcısı olarak kullanılır. Yani, anot ve mikroorganizma arasında bir elektron transfer işlemi gerçekleşir. Mikroorganizma ve elektrotlar arasındaki elektron transferi, doğrudan elektron transferi ve dolaylı (aracılı) elektron transferi olmak üzere iki mekanizmada gerçekleşir. Bu çalışmada, elektrojenik mikroorganizmalardan anot elektroduna elektron transfer mekanizması ayrıntılı olarak tartışılmıştır. Saf mikroorganizma kültürlerinin mikrobiyal yakıt hücrelerinde kullanımı anlatılmıştır. Bu çalışmanın sonucuna göre, yüksek elektrokimyasal aktivitelere sahip elektrojenik mikroorganizmaların keşfi, muhtemelen gelecekteki pratik sistem çalışmaları için mikrobiyal yakıt hücrelerinin gelişimini teşvik etmek için olağanüstü bir durum olacaktır.

Keywords:

Purified Culture Microorganisms and General Features of Microbial Fuel Cells
2020
Author:  
Abstract:

Biomass energy is a renewable energy that plays an inevitable task in meeting today’s increasing energy demands. Unlike biofuels, microbial fuel cells convert the energy collected in organic materials directly into bioelectricity. Microbial fuel cells are a development-oriented and diverse renewable energy technology. Microbial fuel cell (MYH) is an environmentally friendly technology used for the production of electricity from various organic materials (substrates). Microbial fuel cells gained great interest as an alternative energy conversion system for direct electricity production. Microbial fuel cells (MYHs) can use low-degree organic carbon as a fuel source in waste environments. Microbial fuel cells have clear benefits because they are able to use low-degree biomass or even waste water as a fuel source. The basis of electricity production in microbial fuel cells is the catalysis of organic materials by microorganisms. Because microbial fuel cells use microorganisms as bio-catalisers to oxide organic substances (substrates). In a microbial fuel cell, organic substances (substrates) are electron donors. Electrons that are detected by anodic biophilic bacteria after the oxidation (biocatalysis) studies of organic materials are first transmitted into anot electrots under anoxic conditions. These bacteria are called electrogen. Anot electrots are used as an electron receiver for anaerobic respiration by electrogenic biofilm bacteria. There is an electron transfer process between anot and microorganism. The transmission of electrons between microorganisms and electrons occurs in two mechanisms: direct transmission of electrons and indirect transmission of electrons. In this study, the mechanism of electron transfer from electrogenic microorganisms to anot electrodes was discussed in detail. The use of pure microorganism cultures in microbial fuel cells is described. According to the result of this study, the discovery of electrogenic microorganisms with high electrochemical activity will likely be an extraordinary condition to encourage the development of microbial fuel cells for future practical system studies.

Keywords:

Pure Culture Microorganisms Used In Microbial Fuel Cells and General Properties
2020
Author:  
Abstract:

Biomass energy is a renewable energy that running an unavoidable task in meeting today's ever increasing energy demands. Unlike biofuels, microbial fuel cells convert energy harvested at organic materials directly into bioelectricity. Microbial fuel cells (MFC’s) are development-oriented as well-rounded a renewable energy technology. Microbial fuel cell (MFC) is an environmentally friendly technology used for electrical energy generation from a variety of organic materials (substrates). Microbial fuel cells have acquired considerable interest as an alternative energy conversion system for direct electrical energy generating. Microbial fuel cells can utilize low‐grade organic carbons as the fuel source in the waste environment. Microbial fuel cells (MFCs) have apparent benefits in that it can as fuel source utilize low‐grade biomass or even wastewater. The basis of electricity generation in microbial fuel cells is the catalysed of organic materials by microorganisms. In a microbial fuel cell, organic materials (substrates) are electron donors. Microbial fuel cells use microorganisms as biocatalysts to oxidize organic materials (substrate). Electrons released by anodic biofilm bacteria after oxidation (biocatalysis) works of the organic materials are first transferred to the anode electrode under anoxic condition. The bacteria that make these processes are called electrogen. Anode electrode is used by the electrogenic biofilm bacteria as the electron acceptor for anaerobic respiration. So, an electron transfer process takes place between the anode and the microorganism. Electron transfer among microorganism and electrodes occurs on two mechanisms, namely direct electron transfer and indirect (mediated) electron transfer. In this article, electron transfer mechanism from electrogenic microorganisms to anode electrode is discussed in detail. The use of pure microorganism cultures in microbial fuel cells has been told. Suggestions have been made for the future status of electrogenic microorganisms in microbial fuel cells. According to these results of this article, reconnaissance of electrogenic microorganisms with high electrochemical activities would probably be an extraordinary status for promoting the development of microbial fuel cells for very presumably future practical system works.

Keywords:

Citation Owners
Attention!
To view citations of publications, you must access Sobiad from a Member University Network. You can contact the Library and Documentation Department for our institution to become a member of Sobiad.
Off-Campus Access
If you are affiliated with a Sobiad Subscriber organization, you can use Login Panel for external access. You can easily sign up and log in with your corporate e-mail address.
Similar Articles








Avrupa Bilim ve Teknoloji Dergisi

Field :   Fen Bilimleri ve Matematik; Mühendislik

Journal Type :   Uluslararası

Metrics
Article : 3.175
Cite : 5.553
2023 Impact : 0.178
Avrupa Bilim ve Teknoloji Dergisi