POWER FLOWS IN A HYDROSTATIC-MECHANICAL TRANSMISSION OF A MINING LOCOMOTIVE DURING THE BRAKING PROCESS

This paper considers the braking process of a mine diesel locomotive with hydrostatic mechanical transmission (HSMT) operating according to the “input differential” scheme. Braking process modelinginvolves four implementation methods. Identificationand systematization of basic reg...

Full description

Bibliographic Details
Main Authors: Vadym SAMORODOV, Anatoliy BONDARENKO, Igor TARAN, Iryna KLYMENKO
Format: Article
Language:English
Published: Silesian University of Technology 2020-09-01
Series:Transport Problems
Subjects:
Online Access:http://transportproblems.polsl.pl/pl/Archiwum/2020/zeszyt3/2020t15z3_02.pdf
_version_ 1818883448560943104
author Vadym SAMORODOV
Anatoliy BONDARENKO
Igor TARAN
Iryna KLYMENKO
author_facet Vadym SAMORODOV
Anatoliy BONDARENKO
Igor TARAN
Iryna KLYMENKO
author_sort Vadym SAMORODOV
collection DOAJ
description This paper considers the braking process of a mine diesel locomotive with hydrostatic mechanical transmission (HSMT) operating according to the “input differential” scheme. Braking process modelinginvolves four implementation methods. Identificationand systematization of basic regularities in the distribution of power flows within a closed transmission contour in the process of braking have been performedwith the help of software support developed by means of MatLab/Simulink. The simulation results of braking due to the hydrostatic transmission and the braking system during the movement of a diesel locomotive in the transport and traction ranges are presented in the form of graphical correlations.The process of theoretical studies of the braking process of a diesel locomotive with HSMT operating according to the “input differential” scheme has helped determine that, in terms of deceleration at the expense of a hydrostatic drive (HSD) and braking system while preserving kinematic engine-wheels connection, it is not permitted to implement this method of braking process as it is followed by excess of the allowable value of working pressure differential within HSD up to 2.8 times.
first_indexed 2024-12-19T15:33:49Z
format Article
id doaj.art-35dc09af6f2946fda3ca2aa576d31b16
institution Directory Open Access Journal
issn 1896-0596
2300-861X
language English
last_indexed 2024-12-19T15:33:49Z
publishDate 2020-09-01
publisher Silesian University of Technology
record_format Article
series Transport Problems
spelling doaj.art-35dc09af6f2946fda3ca2aa576d31b162022-12-21T20:15:39ZengSilesian University of TechnologyTransport Problems1896-05962300-861X2020-09-01152172810.21307/tp-2020-030POWER FLOWS IN A HYDROSTATIC-MECHANICAL TRANSMISSION OF A MINING LOCOMOTIVE DURING THE BRAKING PROCESSVadym SAMORODOV0Anatoliy BONDARENKO1Igor TARAN2Iryna KLYMENKO3National Technical University "Kharkiv Polytechnic Institute"National Technical University "Kharkiv Polytechnic Institute"Dnipro University of TechnologyDnipro University of TechnologyThis paper considers the braking process of a mine diesel locomotive with hydrostatic mechanical transmission (HSMT) operating according to the “input differential” scheme. Braking process modelinginvolves four implementation methods. Identificationand systematization of basic regularities in the distribution of power flows within a closed transmission contour in the process of braking have been performedwith the help of software support developed by means of MatLab/Simulink. The simulation results of braking due to the hydrostatic transmission and the braking system during the movement of a diesel locomotive in the transport and traction ranges are presented in the form of graphical correlations.The process of theoretical studies of the braking process of a diesel locomotive with HSMT operating according to the “input differential” scheme has helped determine that, in terms of deceleration at the expense of a hydrostatic drive (HSD) and braking system while preserving kinematic engine-wheels connection, it is not permitted to implement this method of braking process as it is followed by excess of the allowable value of working pressure differential within HSD up to 2.8 times.http://transportproblems.polsl.pl/pl/Archiwum/2020/zeszyt3/2020t15z3_02.pdftransmissionmine diesel locomotivepower flowsbraking process
spellingShingle Vadym SAMORODOV
Anatoliy BONDARENKO
Igor TARAN
Iryna KLYMENKO
POWER FLOWS IN A HYDROSTATIC-MECHANICAL TRANSMISSION OF A MINING LOCOMOTIVE DURING THE BRAKING PROCESS
Transport Problems
transmission
mine diesel locomotive
power flows
braking process
title POWER FLOWS IN A HYDROSTATIC-MECHANICAL TRANSMISSION OF A MINING LOCOMOTIVE DURING THE BRAKING PROCESS
title_full POWER FLOWS IN A HYDROSTATIC-MECHANICAL TRANSMISSION OF A MINING LOCOMOTIVE DURING THE BRAKING PROCESS
title_fullStr POWER FLOWS IN A HYDROSTATIC-MECHANICAL TRANSMISSION OF A MINING LOCOMOTIVE DURING THE BRAKING PROCESS
title_full_unstemmed POWER FLOWS IN A HYDROSTATIC-MECHANICAL TRANSMISSION OF A MINING LOCOMOTIVE DURING THE BRAKING PROCESS
title_short POWER FLOWS IN A HYDROSTATIC-MECHANICAL TRANSMISSION OF A MINING LOCOMOTIVE DURING THE BRAKING PROCESS
title_sort power flows in a hydrostatic mechanical transmission of a mining locomotive during the braking process
topic transmission
mine diesel locomotive
power flows
braking process
url http://transportproblems.polsl.pl/pl/Archiwum/2020/zeszyt3/2020t15z3_02.pdf
work_keys_str_mv AT vadymsamorodov powerflowsinahydrostaticmechanicaltransmissionofamininglocomotiveduringthebrakingprocess
AT anatoliybondarenko powerflowsinahydrostaticmechanicaltransmissionofamininglocomotiveduringthebrakingprocess
AT igortaran powerflowsinahydrostaticmechanicaltransmissionofamininglocomotiveduringthebrakingprocess
AT irynaklymenko powerflowsinahydrostaticmechanicaltransmissionofamininglocomotiveduringthebrakingprocess