Selected Aspects of Heat Transfer Study in a Gun Barrel of an Anti-Aircraft Cannon

The paper presents the results of computer simulations of the transient heat flow in the barrel wall of a 35 mm caliber cannon for a single shot and a sequence of seven shots for a selected 30HN2MFA barrel steel. It was assumed that the inner surface of the barrel does not have a protective layer of...

Full description

Bibliographic Details
Main Authors: Mateusz ZIELIŃSKI, Piotr KONIORCZYK, Zbigniew SURMA, Marek PREISKORN, Judyta SIENKIEWICZ
Format: Article
Language:English
Published: Military University of Technology, Warsaw, Poland 2023-06-01
Series:Problemy Mechatroniki
Subjects:
Online Access:http://promechjournal.pl/gicid/01.3001.0053.6672
_version_ 1797773459299762176
author Mateusz ZIELIŃSKI
Piotr KONIORCZYK
Zbigniew SURMA
Marek PREISKORN
Judyta SIENKIEWICZ
author_facet Mateusz ZIELIŃSKI
Piotr KONIORCZYK
Zbigniew SURMA
Marek PREISKORN
Judyta SIENKIEWICZ
author_sort Mateusz ZIELIŃSKI
collection DOAJ
description The paper presents the results of computer simulations of the transient heat flow in the barrel wall of a 35 mm caliber cannon for a single shot and a sequence of seven shots for a selected 30HN2MFA barrel steel. It was assumed that the inner surface of the barrel does not have a protective layer of chromium or nitride. When calculating heat transfer in a barrel, constant and temperature variable values of thermal conductivity, specific heat and density (in the range from RT (Room Temperature) up to 1000) in the 30HN2MFA steel were assumed. The test results were compared for both cases. A barrel with a total length of 3150 mm was divided into 6 zones (i = 1,, 6) and in each of them, the heat flux density was calculated as a function of the time q _i (t) on the inner surface of the barrel. In each zone, the heat transfer coefficient, as a function of the time hi(t) and bore gas temperature as a function of the time Tg(t) to the cannon barrel for given ammunition parameters, was developed. A calculating time equaling 100 ms per single shot was assumed. The results of the calculations were obtained using FEM implemented in COMSOL Multiphysics ver. 5.6 software.
first_indexed 2024-03-12T22:06:50Z
format Article
id doaj.art-2702ede38e4f48c197a088aaee99f3be
institution Directory Open Access Journal
issn 2081-5891
2720-5266
language English
last_indexed 2024-03-12T22:06:50Z
publishDate 2023-06-01
publisher Military University of Technology, Warsaw, Poland
record_format Article
series Problemy Mechatroniki
spelling doaj.art-2702ede38e4f48c197a088aaee99f3be2023-07-24T11:10:10ZengMilitary University of Technology, Warsaw, PolandProblemy Mechatroniki2081-58912720-52662023-06-01142738610.5604/01.3001.0053.667201.3001.0053.6672Selected Aspects of Heat Transfer Study in a Gun Barrel of an Anti-Aircraft CannonMateusz ZIELIŃSKI0Piotr KONIORCZYK1Zbigniew SURMA2Marek PREISKORN3Judyta SIENKIEWICZ4Military University of Technology, Faculty of Mechatronics, Armament and Aerospace, Warsaw, PolandMilitary University of Technology, Faculty of Mechatronics, Armament and Aerospace, Warsaw, PolandMilitary University of Technology, Faculty of Mechatronics, Armament and Aerospace, Warsaw, PolandMilitary University of Technology, Faculty of Mechatronics, Armament and Aerospace, Warsaw, PolandMilitary University of Technology, Faculty of Mechatronics, Armament and Aerospace, Warsaw, PolandThe paper presents the results of computer simulations of the transient heat flow in the barrel wall of a 35 mm caliber cannon for a single shot and a sequence of seven shots for a selected 30HN2MFA barrel steel. It was assumed that the inner surface of the barrel does not have a protective layer of chromium or nitride. When calculating heat transfer in a barrel, constant and temperature variable values of thermal conductivity, specific heat and density (in the range from RT (Room Temperature) up to 1000) in the 30HN2MFA steel were assumed. The test results were compared for both cases. A barrel with a total length of 3150 mm was divided into 6 zones (i = 1,, 6) and in each of them, the heat flux density was calculated as a function of the time q _i (t) on the inner surface of the barrel. In each zone, the heat transfer coefficient, as a function of the time hi(t) and bore gas temperature as a function of the time Tg(t) to the cannon barrel for given ammunition parameters, was developed. A calculating time equaling 100 ms per single shot was assumed. The results of the calculations were obtained using FEM implemented in COMSOL Multiphysics ver. 5.6 software.http://promechjournal.pl/gicid/01.3001.0053.6672mechanical engineeringanti-aircraft cannon barrelheat transfernumerical simulationtemperature field
spellingShingle Mateusz ZIELIŃSKI
Piotr KONIORCZYK
Zbigniew SURMA
Marek PREISKORN
Judyta SIENKIEWICZ
Selected Aspects of Heat Transfer Study in a Gun Barrel of an Anti-Aircraft Cannon
Problemy Mechatroniki
mechanical engineering
anti-aircraft cannon barrel
heat transfer
numerical simulation
temperature field
title Selected Aspects of Heat Transfer Study in a Gun Barrel of an Anti-Aircraft Cannon
title_full Selected Aspects of Heat Transfer Study in a Gun Barrel of an Anti-Aircraft Cannon
title_fullStr Selected Aspects of Heat Transfer Study in a Gun Barrel of an Anti-Aircraft Cannon
title_full_unstemmed Selected Aspects of Heat Transfer Study in a Gun Barrel of an Anti-Aircraft Cannon
title_short Selected Aspects of Heat Transfer Study in a Gun Barrel of an Anti-Aircraft Cannon
title_sort selected aspects of heat transfer study in a gun barrel of an anti aircraft cannon
topic mechanical engineering
anti-aircraft cannon barrel
heat transfer
numerical simulation
temperature field
url http://promechjournal.pl/gicid/01.3001.0053.6672
work_keys_str_mv AT mateuszzielinski selectedaspectsofheattransferstudyinagunbarrelofanantiaircraftcannon
AT piotrkoniorczyk selectedaspectsofheattransferstudyinagunbarrelofanantiaircraftcannon
AT zbigniewsurma selectedaspectsofheattransferstudyinagunbarrelofanantiaircraftcannon
AT marekpreiskorn selectedaspectsofheattransferstudyinagunbarrelofanantiaircraftcannon
AT judytasienkiewicz selectedaspectsofheattransferstudyinagunbarrelofanantiaircraftcannon