igorshishkovsky



Personal Websites

Beginning of Additive Technologies (site since 1997, Russian)

Igor Shishkovsky

Head of Additive Manufacturing Lab. at the CMТ (Skoltech), Prof. Igor Shishkovsky received his PhD from the P.N. Lebedev Physical Institute of Russian Academy of Sciences (RAS), Moscow (1992) and Doctor of Science from the Institute of Structural Macrokinetics and Material Science of the RAS (ISMAN, Chernogolovka, Moscow region, 2005). In the period from 1993 to 2013 years, Prof.  Shishkovsky held Professor positions at Sam GTU,  SamGU, and MGTU – Stankin. He was an Invited Professor in the Diagnostics and Imaging of Industrial Processes (DIPI) Laboratory at Ecole Nationale d’Ingenieurs de Saint Etienne (2006 – 07 & 2010 – 11, ENISE, France).  He is a co-author of over 200 scientific papers, 12 books/chapters, and 8 patents devoted to additive manufacturing (powder bed fusion, direct energy deposition, 3D laser cladding, etc) and by laser treatment of materials.

His current research interests are additive manufacturing of functional gradient parts, 4D printing, bio-fabrication of implants and scaffolds.

Ongoing projects:

  • The State Corporation RosAtom (VNIEF, Sarov) has funded from 2022 until 2024 the Project in frameworks of own the Unified Industry Thematic Plan ЕОТП-МТ-097 “3D Virtual Printer 2.0“. Project leader in CMT (Skoltech)- Shishkovsky I.V.
  • The Russian Foundation of Basic Researches (RFBR) has awarded support from 2021 until 2022 to our project No 20-51-56011 – “Topological design and selective laser melting of porous nitinol implants and scaffolds for medical applications” - Project leader – Shishkovsky I.V. 
  • The Russian Science Foundation has awarded support from 2020 until 2022 to our Project No 2020-19-00780 “The novel manufacturing approach to the production of highly efficient lead-free textured piezo-ceramic materials using additive manufacturing technologies” Project leader – Shishkovsky I.V. 

 

  • Provide multi-scale modeling and inverse design methodology to assist in navigating complex process-structure-property relationships in additive manufacturing;
  • Develop predictive process-structure-property-relationships integrated with CAD/E/M tools;
  • Develop Powder bed fusion (PBF) and Direct Energy Deposition (DED) of hot resistance powdered alloys with special properties;
  • Exploit unique AM characteristics to produce artificial structures and devices (for example base metamaterials, with a negative coefficient of thermal expansion or optical transmission or Poisson coefficient);
  • Fabricate functionally gradient materials and multiple materials, and embed smart components during fabrication processes;
  • Develop and identify green materials including recyclable, reusable, and biodegradable materials;
  • Realize 4D printing. Create methods to model and design with variability: shape, properties, process, etc. – implants, tissue engineering scaffolds, sustainable (green) sensors, devices, etc.

MANUSCRIPTS AND BOOK CHAPTERS:

Makarenko K., Dubinin O., Shishkovsky I. Direct Energy Deposition of Cu-Fe System Functionally Graded Materials: Miscibility Aspects, Cracking Sources, and Methods of Assisted Manufacturing, p. 245. Book Chapter 13 in InTech Publ., Igor V. Shishkovsky (Ed.) ‘Advanced Additive Manufacturing’, 2022, London, UK. ISBN: 978-1-83962-821-4, Print ISBN: 978-1-83962-820-7, 304 p. Open access

‘Advanced Additive Manufacturing’, Igor V. Shishkovsky (Ed.), 2022, London, UK. ISBN: 978-1-83962-821-4 , Print ISBN: 978-1-83962-820-7, 304 p. Open access

Shishkovsky I. Aerospace applications of the SLM process of functional and functional graded metal-matrix composites based on NiCr superalloys. Pages 265-280. Book Chapter 12 in Elsevier Publ., F. Froes, R. Boyer (Eds.) Additive Manufacturing for the Aerospace Industry. 1st Edition‘, 2019. ISBN: 978-0-12814-062-8, 482 p.

Shishkovsky I. Introductory Chapter: Genome of Material for Combinatorial Design and Prototyping of Alloys, p. 1-9. Book Chapter 1 in InTech Publ., Igor V. Shishkovsky (Ed.) ‘Additive Manufacturing of High-performance Metals and Alloys. Modeling and Optimization‘, 2018, London, UK. ISBN: 978-1-78923-389-6, Print ISBN: 978-1-78923-388-9. Open access.

Volyansky I., Shishkovsky I. Laser-assisted 3D printing of functional graded structures from polymer covered nanocomposites, p 237-258. Book Chapter 11 in InTech Publ., Igor V. Shishkovsky (Ed.) ‘New Trends in 3D Printing’, 2016, Rijeka, Croatia. ISBN: 978-953-51-2480-1, Print ISBN: 978-953-51-2479-5, 268 p. Open access.

Шишковский И.В. Основы аддитивных технологий высокого разрешения. Из-во Питер, СПб, 2016, 400 c., ISBN 978-5-496-02049-7

Shishkovsky I.V., Nazarov A.P., Kotoban D.V., Kakovkina N.G. Comparison of additive technologies for gradient aerospace part fabrication from nickel-based superalloys. p . 221-245. Book Chapter 10 in InTech Publ., M. Aliofkhazraei (Ed.) “Superalloys”, Rijeka, Croatia, ISBN 978-953-51-2212-8, 2015, 344 p. Open access

Book chapters in J. Lawrence et al. (Eds.), Laser Surface Engineering. Processes and applications, 718 p. 2015, Woodhead Publishing Series in Electronic and Optical Materials, ELSEVIER SCIENCE & TECHNOLOGY, on – line ISBN 978-1-78242-074-3.

Shishkovsky I.V. Chemical and physical vapor deposition methods for nanocoatings. Book chapter in A. S. Hamdy and I. Tiginyanu (Eds.), ‘Nanocoatings and Ultra Thin-Films’, 2011, 414 p., Woodhead Publishing Limited, Abington Cambridge, UK, on – line ISBN 978-1-84569-812-6, pp. 57-77. doi:10.1533/9780857094902.1.57

Shishkovsky I.V. High-Speed Laser-Assisted Surface Modification. A book chapter in A. S. Hamdy (Ed.) High-Performance Coatings for Automotive and Aerospace Industries, Nova Science Publishers, NY, USA, June 2010, pp. 109-126. ISBN: 978-1-60876-579-9.

Шишковский И.В. Лазерный синтез функциональных мезоструктур и объемных изделий. Физматлит. М.: 2009. 424 c. ISBN 978-5-9221-1122-5.

Awards and Grants:

  •  Diploma of Samara Regional Administration and Science & Education Department for the active participation in the Teaching activity (2001);
  • The Diploma in the research competition at P.N. Lebedev Physical Institute of RAS for the 2007 year by the science group, which was named – “Laser synthesis of the 3D tools. Prospects and exhibits”;
  • Samara Region Award for 2000 and  2016 years in sciences and technology field from Samara Region Administration for the research study’s cycle in nomination ‘technical sciences': “Implants and scaffolds fabrication by means of additive technologies from titanium and nitinol alloys”;
  • The prize of “Crystals Best Paper Award 2015for the paper ” Intermetallics Synthesis in the Fe–Al System via Layer by Layer 3D Laser Cladding”, Igor Shishkovsky, Floran Missemer, Nina Kakovkina, and Igor Smurov, Crystals 2013, 3(4), 517–529; DOI: 10.3390/cryst3040517.
  • Grants of the Russian Foundation of the Basic Researches (2021-2022, 2017-2018, 2014-2016, 2013, 2010-2012, 2008, 2007-2008, 2006-2008, 2003-2004).
  • Grants of the Russian Science Foundation (2014-2016, 2015-2017, 2020-2022).
  • Grants of the Presidium of Russian Academy of Sciences in framework program “Fundamental sciences for medicine” (stages 2011, 2009-2010 and 2005-2006).
  • The State Corporation RosAtom (VNIEF, Sarov) has funded from 2019 until 2021 the Project in frameworks of own the Unified Industry Thematic Plan ЕОТП-МТ-097 “3D Virtual Printer 1.0“. Project leader in CMT/CDMM (Skoltech)- Shishkovsky I.V.

Editorship:

Membership in International Scientific Committees:

Expert and Referee work:

  • Certified Expert of Russian Academy of Sciences (No- 2016-01-2111-9076, the order of the RAS Presidium from 27/07/2016 No 10108-509)
  • Member of DS 212.215.14 (Order of the Ministry of Education and Science of the Russian Federation No. 857/NK from 24 September 2019; specialties / chemical sciences /: 02.00.01 – Inorganic chemistry & 02.00.02 – Analytical chemistry) in Samara University
  • Certified Expert of Scientific Research Institute – Federal Research Center for Projects Evaluation and Consulting Services from 2013 (certificate No 04-00750);
  • A distinguished referee of the APPLIED SURFACE SCIENCE in 2014
  • A distinguished referee of the SURFACE & COATINGS TECHNOLOGY in 2015
  • A distinguished referee of the OPTICS AND LASER TECHNOLOGY in 2015, 2020
  • A distinguished referee of the JOURNAL OF THE AMERICAN CERAMIC SOCIETY in 2018
  • A distinguished referee of the ADDITIVE MANUFACTURING in 2020
  • A distinguished referee of the INTERMETALLICS in 2020
  • A distinguished referee of the MATERIALS & DESIGN in 2020
  • Reviewer of the RSF, RFBR, INTAS, CRDF, European science foundations (Estonia, Germany, Poland, Czech, Bulgaria)

We are looking for ambitious and hardworking graduated students for Master/PhD projects aimed to help

Directions of our current researches include but not restricted to :

  1. Our approach by laser powder bed fusion (LPBF) fabrication of 3D parts from metal matrix composites (MMC) we implemented based on nickel-chrome heat resistant alloy with WC ceramic reinforcing additives. The possibility of functional graded structures (FGS) from these MMC for the account of increasing the alloying element concentration from 5% to 15%vol of the tungsten carbide in NiCrSiB self-fluxing alloy was shown. We strongly recommend additional heating of the initially powdered mixture and/or substrate for temperature gradient reduction in the volume of the 3D part, homogenization of structure and decreasing residual stresses and propensity to delamination. // Shishkovsky et al (2019). Layerwise fabrication refractory NiCrSiB composite with gradient grow of tungsten carbide additives by selective laser melting. Optics and Laser Technology, 120, 105723. doi: 10.1016/j.optlastec.2019.105723 (IF=4.94; Q1)
  1. The effect of laser thermocycling and tempering on structural heterogeneity and electro-structural properties of 2D layers and 3D multilayers of nickel-titanium intermetallide during the laser powder bed fusion (LPBF) process has been studied. Necessity of the laser melting and solidification parameters tuning, implementation of preliminary and subsequent laser tempering was proved by the final state of the shape memory alloy (SMA). It is shown that specific electrical resistivity of the studied phases (austenite, R-phase, martensite) abnormally varies with temperature. Varying structural heterogeneity by changing the laser influence parameters and/or heat treatment allows us to get a material with different functional properties. It can be used both in medicine for approximating SMA to the human body temperature, and also in high-temperature applications, as dampers. // Shishkovsky et al (2020). Influence of laser cycling on electro-structural features of nickel-titanium SMA fabricated by LPBF process. // Applied Surface Science, 508, 145278. doi: 10.1016/j.apsusc.2020.145278 (IF=7.39; Q1)
  1. Metamaterials are able to demonstrate extremely high rigidity in one direction and extremely high compliance in other directions. Pentamode metamaterials can, therefore, be considered as building blocks of exotic objects with any arbitrarily selected thermodynamically admissible elasticity tensor. In this study, several anisotropic individual and hybrid pentamode lattice structures were produced by the Multi Jet AM, mechanically tested under compression and compared with Comsol FEM simulation. It is concluded that the elastic E, shear G, and bulk moduli B of the hybrid structure are the superposition of the corresponding moduli of the individual lattice structures. Poisson’s ratio ν of the hybrid pentamode structure equals that of individual structure with higher Poisson’s ratio. The yield stress σy of the hybrid pentamode lattice structure depends on the elastic moduli of the constructing lattice structures, as well as the yield stress of the weaker lattice structure. // Mohammadi et al (2020). Hybrid anisotropic pentamode mechanical metamaterial produced by additive manufacturing technique. // Applied Physics Letters, 117, 061901; doi: 10.1063/5.0014167 (IF=3.97; Q1)
  1. This is a first review, which discusses the development prospects of additive technologies for the manufacturing of complex technological items on the surface of the Moon under scarce resource availability and low-gravity conditions. One of the expected materials for 3D printing as part of a prospective lunar research program is the lunar regolith. It is easily accessible on the Moon in a few forms, depending on geographical location. Due to the limited availability of the lunar regolith on Earth, several attempts to use geological simulants of the regolith were made by research groups worldwide to analyze the applicability of additive manufacturing (AM) technologies for lunar 3D printing. All available experiments with 3D printing for in-situ fabrication with lunar regolith were analyzed, systematized, and generalized. Finally, the basic requirements and approaches for adapting additive manufacturing methods to lunar surface conditions were formulated. // Isachenkov et al (2021). Regolith-based Additive Manufacturing for Sustainable Development of Lunar Infrastructure – an Overview.  Acta Astronautica, 180, 650-678. Doi: 10.1016/j.actaastro.2021.01.005 (IF=2.95; Q1)
  1. Piezoceramic materials provide the foundation for essential components of modern engineering applications in the fields of acoustics, sensorics, biomedical devices, and microelectronics. With device miniaturization, the industrial requirements for piezoceramics with complex geometries and improved efficiencies has grown tremendously. Additive manufacturing (AM) technologies applied to traditional piezoelectric materials has many obstacles to overcome, since typical piezoceramic products require complex and intricate shapes, and often consist of composite materials. This review intends to outline the current state of the art of AM technologies applied to the manufacture of piezoceramic materials. The properties of piezoceramics and their composites are compared for traditionally and additively manufactured devices. The pros and cons of AM technologies are discussed, and the problems to be addressed in our following studies work are highlighted. // Smirnov et al (2021). Progress and challenges of 3D-printing technologies in the manufacturing of piezoceramics.  Ceramics International, 47(8), 10478–10511. Doi: 10.1016/j.ceramint.2020.12.243 (IF=5.53; Q1)
  1. Lunar regolith is the most critical material for the in-situ resource utilization (ISRU) in the crewed Moon exploration missions. This natural material can be utilized for the additive manufacturing of concrete or ceramic parts on the Moon’s surface to support permanent human presence on the surface of Earth’s natural satellite. The present study describes the characterization of the LHS-1 and LMS-1 simulants using XRF, XRD, SEM, EDX, DTA, TGA, UV/Vis/NIR spectroscopy, and laser diffractometry methods to provide data on their mineral, chemical, and fractional composition, as well as, on their morphology and optical properties. It was found that LHS-1 and LMS-1 simulants well mimic the primary properties of the original lunar regolith and can be potentially used for ISRU research tasks. // Isachenkov et al (2022). Characterization of novel lunar highland and mare simulants for ISRU research applications.  Icarus, 376, 114873. Doi: 10.1016/j.icarus.2021.114873 (IF=3.66; Q1)
  1. Potential application of the additive manufactured (AM) parts is still inhibited by poor fatigue properties. In this work, we applied laser polishing to simultaneously reduce factors that affected the fatigue properties, such as surface roughness and sub-surface porosity. Our findings show that significant porosity reduction in sub-surface area can be achieved with one scan pass without major deterioration of surface quality. The surface quality, sub-surface layer porosity and mechanical properties of the laser polished with pore removing pass and conventionally laser polished samples are compared with as-built samples. // Panov et al (2022). Pore healing effect of laser polishing and its influence on fatigue properties of selective laser melted SS316L parts.  Optics and Laser Technology, 156, 108535. doi: 10.1016/j.optlastec.2022.108535 (IF=4.94; Q1)
  1. Additive manufacturing (AM) with lunar regolith is a promising in-situ fabrication and repair (ISFR) method that can be used for sustainable local production of engineering tools and components. The evolution of properties of highland and mare lunar regolith simulants concerning grinding-based pre-processing was studied in this work, relevant to stereolithography-based AM. Particle size distribution, mean particle size, UV–Vis, XRD and XRF spectra were acquainted from the samples, ground in a ball mill at various grinding times (to different fraction sizes). The photopolymerization efficiency was assessed for lunar simulant-infilled resins prepared from lunar regolith simulants ground with different parameters. It was found that the grinding time of lunar regolith simulants strongly influences their optical properties – the light absorption in the far UV increased by 5.5 times. Based on the measured photo-polymerization depth, the optimal grinding procedure for mare and highland lunar regolith simulants was determined. // Isachenkov et al (2022). The effect of particle size of highland and lunar regolith simulants on their printability in vat polymerisation additive manufacturing. Ceramics International, 48(23), 34713-19. doi: 10.1016/j.ceramint.2022.08.060 (IF=5.53; Q1)
  1. The direct energy deposition approach implements a unique opportunity for controlling the fabrication of functionally graded (FG) and sandwich structures from different metal powders for artificial physical properties management. Our study revealed the promising FGS into Fe-Cu system based of SS316L with bronze and for the first time prediction of mechanical properties in those sandwich systems. // Makarenko et al (2022). Mechanical characteristics of laser-deposited sandwich structures and quasi-homogeneous alloys of Fe-Cu system. Materials and Design, 224, 111313. Doi: 10.1016/j.matdes.2022.111313. (IF=9.42; Q1)

 

 

Interested Msс/PhD and Postdoc candidates are welcome to write to Prof. Igor Shishkovsky at i.shishkovsky@skoltech.ru for further details.


PhD students

  • Daniil Popov (PhD-3) – Thesis title ‘Numerical and experimental investigation of the laser structuring processes based on the remelting of the metallic surface
  • Stanislav Chernishihin (PhD-4) – Thesis title ‘Topological design and selective laser melting of porous nitinol implants and scaffolds for medical applications
  • Konstantin Makarenko (PhD-4) – Thesis title ‘Fabrication of functionally-graded structures and tools via Direct Energy Deposition’
  • Yulia Kuzminova (PhD-4) – Thesis title ‘Microstructure and mechanical properties of high and medium-entropy alloys after powder bed fusion process’

MSc students:

  • Amit Dev (MSc2) – – Thesis draft title ‘Numerical modeling of delivery and pool melting for powders  of two dissimilar alloys during DED’
  • Tuseef Arshad (MSc2) – – Thesis draft title ‘SLA based 3D printing of PZT ceramics: experimental and numerical study’

Alumni:

  • Zamila Issabaeva (M.Sc. – defense 07.06.2022)- Thesis title ‘Prediction of the mechanical behavior of Poly Lactic Acid parts with Shape Memory Effect fabricated by FDM’
  • Igor Pchelintsev (M.Sc. – defense 08.06.2022) – Thesis title ‘Production of complex hierarchical structures from zirconium ceramics by UV stereolithography for application in SOFC fuel cells
  • Yulia Bondareva, Junior Researcher at CMT –  Skoltech  (Ph.D. – defense 05.10.2020) -Thesis title ‘Sulfonimide-based dendrimers: synthesis and application for surface functionalization
stanislavevlashin
Stanislav Evlashin
Leading Research Scientist
svyatoslavchugunov
Svyatoslav Chugunov
Senior Research Scientist
olegdubinin
Oleg Dubinin
Engineer
denisfirsov
Denis Firsov
Engineer
yuliakuzminova
Yulia Kuzminova
PhD student
evgeniimaltsev
Evgenii Maltsev
Research Scientist
daniilpanov
Daniil Panov
PhD student
andreytihonov
Andrey Tikhonov
Engineer
yuliabondareva
Julia Bondareva
Junior Research Scientist

Course MA06243 – Fundamentals of Additive Technologies

Additive manufacturing (AM), also called 3D printing, has become an extremely promising technology nowadays. Unlike traditional manufacturing processes such as welding, milling, and melting that involve multi-stage processing and treatments, AM allows creating products with a new level of performance and shapes. Moreover, this technique allows to the production of prototypes rapidly and leads to reducing costs and risks. Another crucial advantage of the technology is the unprecedented design flexibility that lets us create samples of high quality based on different materials such as metals, alloys, ceramics, polymers, composite materials, etc.

The main goal of this course is to represent the fundamental basis of different additive technologies to the students. In this course, a wide range of questions will be addressed, beginning from the process of chain and designing the structures up to various 3D printing technologies, materials and process parameters, benefits and drawbacks of AM approaches will be considered. During laboratory class, we will get acquainted with the additive technologies on various printing machines. Students will be able to create their own models, print them in metals, ceramics, and polymers, and also analyze the properties of the final samples. During this course, a complete cycle of production of samples using various 3D printing techniques will be explored both theoretically and practically.

Course MA03354 – 3D Bioprinting: Processes, Materials, and Applications

Additive manufacturing technology offers significant advantages for biomedical devices and tissue engineering due to its ability to manufacture low-volume or one-of-a-kind parts on-demand based on patient-specific needs, at no additional cost for different designs that can vary from patient to patient, while also offering flexibility in the starting materials.

The course starts with the introduction of tissue engineering (TE) and scaffold-based TE approaches. A big part of the course will be devoted to the main processes of 3D bio-fabrication. We will describe the key stages in 3D bioprinting, which are the material choice (bio-materials and cell source), pre-processing (CAD and topological optimization), processing (the 3D bioprinting systems and processes), and post-processing (cell culture). The application areas of bio-printing, including tissue engineering and regenerative medicine, clinics and transplantation, pharmaceutics, and the future trends in bioprinting that will revolutionize the organ transplantation technology in the next decades will be discussed.

Course MA03249 – Industrial Robotics

Course MA03356 – Thermal spraying and functional coatings

– Maxim Isachenkov (PhD) gave a lecture on the Colonization of the Moon using 3D printing. // His most high-impact studies are below:

Additive manufacturing (AM) with lunar regolith is a promising in-situ fabrication and repair (ISFR) method that can be used for sustainable local production of engineering tools and components. The evolution of properties of highland and mare lunar regolith simulants concerning grinding-based pre-processing was studied in this work, relevant to stereolithography-based AM. Particle size distribution, mean particle size, UV–Vis, XRD and XRF spectra were acquainted from the samples, ground in a ball mill at various grinding times (to different fraction sizes). The photopolymerization efficiency was assessed for lunar simulant-infilled resins prepared from lunar regolith simulants ground with different parameters. It was found that the grinding time of lunar regolith simulants strongly influences their optical properties – the light absorption in the far UV increased by 5.5 times. Based on the measured photo-polymerization depth, the optimal grinding procedure for mare and highland lunar regolith simulants was determined. // Isachenkov et al (2022). The effect of particle size of highland and lunar regolith simulants on their printability in vat polymerisation additive manufacturing. // Ceramics International, 48(23), 34713-19. doi: 10.1016/j.ceramint.2022.08.060 (IF=5.53; Q1)

Lunar regolith is the most critical material for the in-situ resource utilization (ISRU) in the crewed Moon exploration missions. This natural material can be utilized for the additive manufacturing of concrete or ceramic parts on the Moon’s surface to support permanent human presence on the surface of Earth’s natural satellite. The present study describes the characterization of the LHS-1 and LMS-1 simulants using XRF, XRD, SEM, EDX, DTA, TGA, UV/Vis/NIR spectroscopy, and laser diffractometry methods to provide data on their mineral, chemical, and fractional composition, as well as, on their morphology and optical properties. It was found that LHS-1 and LMS-1 simulants well mimic the primary properties of the original lunar regolith and can be potentially used for ISRU research tasks. // Isachenkov et al (2022). Characterization of novel lunar highland and mare simulants for ISRU research applications. // Icarus, 376, 114873. Doi: 10.1016/j.icarus.2021.114873 (IF=3.66; Q1)

This is a first review, which discusses the development prospects of additive technologies for the manufacturing of complex technological items on the surface of the Moon under scarce resource availability and low-gravity conditions. One of the expected materials for 3D printing as part of a prospective lunar research program is the lunar regolith. It is easily accessible on the Moon in a few forms, depending on geographical location. Due to the limited availability of the lunar regolith on Earth, several attempts to use geological simulants of the regolith were made by research groups worldwide to analyze the applicability of additive manufacturing (AM) technologies for lunar 3D printing. All available experiments with 3D printing for in-situ fabrication with lunar regolith were analyzed, systematized, and generalized. Finally, the basic requirements and approaches for adapting additive manufacturing methods to lunar surface conditions were formulated . // Isachenkov et al (2021). Regolith-based Additive Manufacturing for Sustainable Development of Lunar Infrastructure – an Overview. // Acta Astronautica, 180, 650-678. Doi: 10.1016/j.actaastro.2021.01.005 (IF=2.95; Q1)

31.08.2022 – Skoltech PhD student Stanislav Chernyshikhin (PhD) told Kommersant  (RUS) about a 3D printing technology for manufacturing superelastic dental instruments. //  His most high-impact studies are below:

07.09.2022 – Skoltech PhD student Daniil Panov about  Laser polishes 3D-printed metal parts better than ever before . // His most high-impact studies are below:

Potential application of the additive manufactured (AM) parts is still inhibited by poor fatigue properties. In this work, we applied laser polishing to simultaneously reduce factors that affected the fatigue properties, such as surface roughness and sub-surface porosity. Our findings show that significant porosity reduction in sub-surface area can be achieved with one scan pass without major deterioration of surface quality. The surface quality, sub-surface layer porosity and mechanical properties of the laser polished with pore removing pass and conventionally laser polished samples are compared with as-built samples. Panov et al (2022). Pore healing effect of laser polishing and its influence on fatigue properties of selective laser melted SS316L parts. // Optics and Laser Technology, 156, 108535. doi: 10.1016/j.optlastec.2022.108535 (IF=4.94; Q1)

ФИО: Шишковский Игорь Владимирович

Занимаемая должность (должности): Доцент

Преподаваемые дисциплины:

  • Course MA06243 – Fundamentals of Additive Technologies (Фундаментальные основы аддитивных технологий)
  • Course MA03354 – 3D Bioprinting: Processes, Materials and Applications (3D биопринтинг: процессы, материалы и приложения)
  • Course MA03249 – Industrial Robotics (Индустриальная робототехника)
  • Course MA03356 – Thermal spraying and functional coatings (Термическое напыление и функциональные покрытия)

Ученая степень: Доктор физико-математических наук (спец. – химическая физика, вкл. физику горения и взрыва – 01.04.17),  2005 – Институт структурной макрокинетики и проблем материаловедения, Черноголовка, Москв. обл. ;  Кандидат физико-математических наук (спец. – физика твердого тела – 01.04.07), 1992  – Физический институт им. П.Н. Лебедева РАН, Москва.

Ученое звание (при наличии): Доцент по кафедре общей и лазерной физики (СамГТУ), 1998

Наименование направления подготовки и/или специальности: Теоретическая физика

Данные о повышении квалификации и/или профессиональной переподготовке (при наличии): нет

Общий стаж работы: 40 год

Стаж работы по специальности: 40 год