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瓴愴姼雽� Serge Zhuiykov 甑愳垬, 鞝�靹� "Nanostructured Semiconductors" 於滍寪

2018雲� 2鞗�, 糖心logo入口 Serge Zhuiykov甑愳垬鞚� 靹� 氩堨Ц 鞐瓣惮鞝�靹滌澑 “雮橂吀 甑�臁� 氚橂弰觳�”臧�  氚滍枆霅橃榾雼�. 鞚� 毂呾潃 靹戈硠鞝侅溂搿� 臧�鞛� 韥�瓿� 鞓來枼霠� 鞛堧姅 Elsevier Science 歆�(Cambridge, UK)鞐� 鞚橅暣 於滍寪霅橃棃雼�.

“雮橂吀 甑�臁� 氚橂弰觳�”電� 鞝勲弰靹标臣 鞝勳瀽 氚办箻鞚� 氤胳�堨爜鞚� 氍茧Μ頃� 旮半皹鞚� 毽�敕绊晿鞓�雼�. 雮橂吀 瓴办爼 氚橂弰觳挫檧 攴胳棎 霐半ジ 旮办垹 氚� 鞝侅毄 鞓侅棴鞚� 鞐愲剤歆�靾橅檿旮办垹, 韮滌枒甏� 鞝勳��, 瓿犾泊 靷绊檾氍� 鞐半�� 鞝勳��鞕� 頇旐暀鞝� 頇橁步 靹检劀 霌膘棎 齑堨爯鞚� 霊愳棃雼�. 氚橂弰觳� 靷绊檾氍检潃 鞝勳瀽 瓿淀暀, 甏戫暀, 齑夒Г, 靹检劀 氚� 旮绊儉 旮半姤靹� 鞛レ箻鞐� 靷�鞖╇悳雼�. 鞚挫皑鞗愳爜鞚� 順曧儨鞐愳劀 氚橂弰觳� 靷绊檾氍检潣 韥�旮� 於曥唽電� 韸闺硠頃� 韸轨劚鞚� 雮橅儉雮措姅雿� 鞚措姅 牍犽ジ 鞝勲�橃檧 須�鞙�鞝侅澑 齑夒Г毳� 毵岆摐電旊嵃 鞚戩毄霅� 靾� 鞛堧嫟.

歆�雮� 氇� 雲勱皠 鞏戩瀽 頃滌爼 韸轨劚鞚� 臧�歆� 2D 氚橂弰觳措ゼ 韽�頃�頃� 靸堧…瓿� 韸闺硠頃� 旮半姤靹� 雮橂吀鞛�耄� 臧滊皽 攵勳暭鞐愳劀 瓯半寑頃� 氚滌爠霌れ澊 鞚措（鞏挫�岆嫟. 2D 雮橂吀瓴办爼鞚� 雮橂吀氙疙劙 雼�鞙勳潣 霊愱粯毳� 臧�歆� 鞎勳＜ 鞏囲潃 鞛�耄岇澊瓿�, 鞁�歆�鞏�1nm氤措嫟 鞏囲潃 雼�鞚茧秳鞛愳傅 氚橂弰觳� 靷绊檾氍� 鞛�耄岆�� 毵岆摛靾� 鞛堧嫟.  霐旍辜旖旉矊雼堧摐鞕� 臧欖潃 雮橂吀 瓴办爼瓿� 靷绊檾氍� 雮橂吀甑�臁办潣 鞐瓣惮 氚� 旮办垹鞐愳劀鞚� 鞓來枼霠�, 鞐愲剤歆� 鞝�鞛レ棎 靷�鞖╇悩電� 頃╈劚氍茧�滌劀鞚� 鞚戩毄臧�電レ劚霃� 雲检垹霅橃棃雼�.

2D 氚橂弰觳� 肟愲�� 鞎勲媹霛� 雿� 欷戩殧頃滉矁鞚�MoS₂, MoSe₂, WS₂, WSe₂ 霌标臣 臧欖潃 2D 旮堨啀 霐旍辜旖旉矊雼堧摐臧� 旮绊儉 氙胳劯 甑�臁� 雽�鞚戨�缄臣 牍勱祼鞁� 鞝勳瀽 韸滊嫕鞐愳劀 鞖办垬頃� 韸轨劚鞚� 雮橅儉雰堧嫟. 鞚� 雲茧�胳棎電� 鞗愳瀽旄� 歃濎癌 (ALD)瓿� 臧欖潃 順勲寑 斓滉碃旮� 鞝滌瀾 旮办垹霃� 韽�頃�頃滊嫟.  ALD電� 霊愱粯臧� 1.0 nm 氙鸽�岇澑 2D 氚橂弰觳挫潣 臧滊皽鞐愳劀 鞖办垬頃� 靹彪姤鞚� 鞛呾�濏枅雼�. 鞚� 毂呾潃 雮橂吀旮办垹瓿� 雮橂吀 瓴办爼鞚� 氚橂弰觳措ゼ 鞐瓣惮頃橂姅 頃欖垹鞐瓣惮鞛� 氚� 靷办梾鞐瓣惮鞛愲摛鞐愱矊 鞝來暕頃橂嫟.

Serge Zhuiykov  甑愳垬

Serge Zhuiykov 甑愳垬電� 鞚胳矞 靻‰弰鞐� 鞙勳箻頃橁碃 鞛堧姅 瓴愴姼雽�頃欔祼 旮�搿滊矊旌犿嵓鞀� (Ghent University Global Campus)鞚� 鞚戩毄 攵勳劃 氚� 氍茧Μ 頇旐暀瓿� 甑愳垬鞚措┌, 糖心logo入口頇橁步 氚� 鞐愲剤歆� 鞐瓣惮 靹柬劙鞚� 毂呾瀯鞛愳澊雼�.

鞗愲��:&苍产蝉辫;

In February 2018 糖心logo入口 Professor Serge Zhuiykov just published his third monograph “Nanostructured Semiconductors”. The book was published by the Elsevier Science in Cambridge, UK – the biggest and the most influential scientific Publisher in the world.

Nanostructured Semiconductors reviews the fundamental physics of conductivity and electron arrangement before proceeding to practical applications. It focuses on the development of semiconductor nanocrystals, their technologies, and applications, including energy harvesting, solar cells, solid oxide fuel cells, and chemical environmental sensors. Semiconductor oxides are used in electronics, optics, catalysts, sensors, and other functional devices. In their two-dimensional (2D) form, the reduction in size confers exceptional properties, useful for creating faster electronics and more efficient catalysts.

During last few years there has been significant progress in the development of new functional nanomaterials with unique and sometimes unpredictable quantum-confined properties within the class what it called 2D semiconductors. These 2D nanocrystals represent extremely thin nano-structures with the thickness of just a few nano-meters and sometimes monolayers of semiconductor oxides with the thickness less than 1.0 nm. The impact of 2D nanocrystals such as dichalcogenides and oxide nanostructures on research and technology is explored, leading to a discussion of their incorporation into composites for use in energy storage.

Since that time, not only were 2D semiconductor oxides further developed, more importantly, 2D metal dichalcogenides, such as MoS₂, MoSe₂, WS₂, WSe₂ and others also progressed significantly in their electronic tuning through the surface functionalization demonstrating outstanding properties compared to their bulk and microstructural counterparts. The book has been expanded to include these advancements including the state-of-the-art modern fabrication technologies such as atomic layer deposition (ALD). ALD has clearly been demonstrated the superior capabilities in the development of wafer-scaled conformal defects-free 2D semiconductors with the controllable thickness deposition rates for semiconductor monolayers with the thickness less than 1.0 nm.

This book is suitable for academic and industrial researchers in materials science and engineering fields working with modern nano-technologies and nano-crystalline semiconductors.

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