Wykaz publikacji wybranego autora

Marcin Rywotycki, dr hab. inż., prof. AGH

profesor nadzwyczajny

Wydział Inżynierii Metali i Informatyki Przemysłowej
WIMiIP-ktc, Katedra Techniki Cieplnej i Ochrony Środowiska

  • 2020

    [dyscyplina 1] dziedzina nauk inżynieryjno-technicznych / inżynieria mechaniczna

    [dyscyplina 2] dziedzina nauk inżynieryjno-technicznych / inżynieria materiałowa (50%)

  • 2018

    [dyscyplina 1] dziedzina nauk inżynieryjno-technicznych / inżynieria materiałowa

    [dyscyplina 2] dziedzina nauk inżynieryjno-technicznych / inżynieria mechaniczna (50%)

[poprzednia klasyfikacja] obszar nauk technicznych / dziedzina nauk technicznych / metalurgia

Identyfikatory Autora Informacje o Autorze w systemach zewnętrznych

ORCID: 0000-0002-0738-0339 orcid iD

ResearcherID: S-7643-2017

Scopus: 35068589400

PBN: 5e70920b878c28a04738f0ff

OPI Nauka Polska

System Informacyjny AGH (SkOs)

1
  • A comparison of models describing heat transfer in the primary cooling zone of a continuous casting machine
2
  • Analysis of heat transfer and fluid flow in continuous steel casting
3
4
  • Applicable standards for low-emission low power heating devices in EU
5
  • Comparison of four models of radiative heat transfer between flat surface to evaluate the temperature field based on example of the continuous casting mould
6
  • Determination of heat flux at a solid-solid intreface
7
  • Development and verification of the scale formation model during high temperature oxidation for S235 steel
8
  • Development directions of photovoltaic panels recycling
9
  • Effect of hot-rolled heavy section bars post-deformation cooling on the microstructure refinement and mechanical properties of microalloyed steels
10
  • Effect of the casting speed and the superheat temperature on the temperature distribution for the billet surface in the continuous casting process
11
  • Energy losses from the furnace chamber walls during heating and heat treatment of heavy forgings
12
  • Experimental determination of the shell thickness within the primary cooling zone in the continuous casting process
13
  • Formation of multilayered scale in the process of high‑temperature oxidation of steel S235
14
  • Heat transfer at the steel to steel interface as a function of temperature and pressure
15
  • Heat transfer coefficient distribution over the Inconel plate cooled from high temperature by array of water jets
16
  • Heat transfer coefficient distribution over the inconel plate cooled from high temperature by the array of water jets
17
  • Heat transfer during cooling hot surfaces by liquids
18
  • Heat transfer in high-temperature contact processes with the participation of the oxidized layer
19
  • Identification of heat flux at solid to solid interface
20
  • Identification of the boundary conditions in the continuous casting of steel
21
  • Increase in the efficiency of electricity production with a thermoelectric generator (TEG)
22
  • Influence of the radiation shield on the temperature of rails rolled in the reversing mill
23
  • Methods of the surface temperature measurement for the casting billet in the continuous casting process under industrial conditions
24
  • Modeling of heat transfer and fluid flow in continuous casting of steel
25
  • Modelling liquid steel motion caused by electromagnetic stirring in continuous casting steel process