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Prospects for the production of high- performance solar cells in - - PowerPoint PPT Presentation

Russian Science Technology and Education Conference Minneapolis, Minnesota, October 5-9, and Phoenix, Arizona, October 12-16, 2020 Prospects for the production of high- performance solar cells in space Nikiforov A. I., Preobrazhensky V.V,


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Prospects for the production of high- performance solar cells in space

Nikiforov A. I., Preobrazhensky V.V, Pchelyakov O.P.

Rzhanov Institute of Semiconductors Physics SB RAS, Novosibirsk, Russia Russian Science Technology and Education Conference Minneapolis, Minnesota, October 5-9, and Phoenix, Arizona, October 12-16, 2020

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www.isp.nsc.ru

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Examples of vacuum technological equipment

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New generation of Automated Compact MBE-CBE Installation «Katun 100» industrial focused, very convenient in operation

Installation depending on directions of its use can consist of the several specialized vacuum chambers: chambers of a loading - unloading of plates – substrates (2 cartridges on 7 plates in diameter of 102 mm); chambers epitaxial growth of elementary semiconductors (Si, Ge), metal, dielectric layers are supplied with electron beam evaporators, gas and plasma sources of molecular beams; chambers for grovth of А3В5, A3N and А2В6 semiconductor compounds can contain up to 12 molecular sources, including ventille type for antimony, phosphorus and arsenic.

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Two-chamber installation «Katun 100»

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«ОКА-Т-ISS» project

The equipment for molecular beam epitaxy in space Vsc

Weight, kg 230 Consumed power, kW 4,0 Duration of the experiment session, days 30 Number of sessions during active lifetime 14 Diameter of underlying substrate 100 mm

Spaceship«ОКА-Т»

Basic characteristics of МBE facility

Installation diagram of MBE

molecular screen

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Examples of specific applications in high-performance solar cells

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Creation of basic technological processes for the manufacture of a new generation of light flexible photovoltaic converters of space based solar energy on the basis of heteroepitaxial structures of AIIIBV compounds

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Al Polyimide film 50 microns Au Heterostructure Silicone layer Metallization based on ti/Al/Ti/Au layers

Жидкий азот 25°С 25°С

Flexible carrier for technology with substrate removal by dissolution

Flexible carrier ensures the safety of fragile heterostructures under mechanical influences.

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Testing for resistance to bending deformations

reverse contact direct contact

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Ultrahigh vacuum space MBE technology

  • Research and technology objective:

Fabrication and processing of new materials, creation of semiconductor epitaxial quantum-sized nanostructures for physical research, comparative analysis of electron and optical properties of space and ground grown new objects

  • The basic tasks:

Development of space technology for manufactory by MBE semiconductor multilayer alternative substrates and nanostructures for micro-, nano-, optoelectronic and ultrahigh efficiency solar cells, high frequency devices, photodetectors and phototransistors, night vision systems etc. for industrial application

Blinov V.V., Zvorykin L.L., Ivanov A.I., Ignatyev А., Mashanov V. I., Preobrazhenskiy V.V., Pcheljakov O. P., Sokolov L.V. Patent “The Device for MBE Growth of Nanomaterials in an Outer Space” № 2008118835 03.04.2009

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Epitaxial Growth in Space

  • Design New Technologies and

Devices with Advanced Materials

  • Customize Materials Properties
  • Develop Micro, Nano, and

‘Atomo’-Tailored Materials

  • Atom-by-atom, atomic layer-by

atomic layer growth of a crystalline thin film on an atomically ordered substrate

  • Materials design at the atomic

level

  • Cleanliness of semiconductor

material also should be at a atomic level < 1014 cm-3 ≤ 10-10 N0

Discover New Materials Properties under Epi Growth

Useful atoms 10-4Torr Impurity Atom << 10-14 Torr

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The basic concept of orbital vacuum laboratory

Conventional boundary of a wake

Technological medium in the free space

Aristotel [384-322 year B.C.] R.N. Kostoff [1970] L.Melfi at al. [1976] A.Ignatiev at al. [1986] L.L. Zvorikin at al. [1996]

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Possible configuration of installation "Shield"

Blinov V.V., Zvorykin L.L., Ivanov A.I., Ignatyev А., Mashanov V. I, Preobrazhenskiy V.V., Pcheljakov O. P., Sokolov L.V. Patent on The device for MBE growth of nanomaterials in an outer space № 2008118835 03.04/2009

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The Design-Layout Scheme of “Oka-T”

  • f First Stage with an Air Lock and the Protective Molecular

Screen of I stage General view Oka -T General view Oka in a flight configuration (with opened screen MBE)

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Oka-T - the Space complex of II stage

Interorbital tow The protective screen

The lock chamber and technological MBE installation The automatic machine with Ballistic capsules

The specialised container Protective cover

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Epitaxyal growth of nanoheterostructures in conditions of an orbital international space station

P > 10 - 5 Pa

АFМ

P < 10 - 14 Pa

Flight direction

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NEW DIRECTION OF SPACE ACTIVITY

INDUSTRIAL PRODUCTION SEMICONDUCTOR NANO-HETEROSTRUCTURES IN ULTRAHIGH SPACE VACUUM CONDITIONS OF ORBITAL FLIGHT

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The international strategic consortium « Aerospace industrial systems »

NPO " MOLNIYA", Aerospace corporation " Nika ", NPO " Energomash“ V.P.Glushko, МОКB "Mars", CAGI. N.E.Zhukovskogo, АНТК O.K.Antonova, PTI A.F. Ioffe, ISP A.V. Rzhanova Siberian Branch RAS, at al. 25

МАКС

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STAGES OF MOLECULAR BEAM EPITAXY DEVELOPMENT

➢The first stage (MBE yesterday)

The development of a method has played a main role in deriving of new knowledges about processes on a surface of crystals during adsorptions, desorption, accommodation, diffusion of atoms and molecules during growth of thin films and nanostructures

➢The second stage (MBE today)

MBE method becomes main technology for production of multilayer heterosistems with quantum-sized structures for researches and device applications

➢Third stage (MBE tomorrow)

Emerging of a new generation of technology for realization all modifications

  • f methods MBE + LPCVD + CBE in ground cluster installations, and also in

conditions of open deep space behind a molecular screen

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Prospects for the international cooperation

New generation of nanoelectronics, nanophotonics and photovoltaic

➢ Joint investigation of fundamental processes on clean surface of semiconductors and self-organization phenomena during MBE, CBE and CVD growth of nanostructures in ground and in space ultra vacuum condition ➢ Joint experimental studies, theoretical modeling and comparative analysis of electron and optical properties of space and ground grown nanostructures ➢ Joint research, development and production of new types of nanoscale heterostructures for solar cells, high frequency devices, photodetectors and phototransistors, night vision systems for industrial application, including manufactory in space ➢ Joint development and production of optimized nanotechnological equipment for MBE, CBE, CVD and so on in space orbital flight ➢ Mutual contacts, scientific and business conferences and workshops

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