Airplane Piston Engine Dynamics as an Aeronca E-113 Case Study

Kinematic equations were developed to describe the dynamic motions of the aircraft piston engine components in terms of time dependent position, velocity, and acceleration relationships. Using the Aeronca E-113 engine as a case study, the brake mean effective pressure (BMEP) rating was used to model...

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Main Author: Leigh, Michael Charles
Format: Others
Published: Trace: Tennessee Research and Creative Exchange 2009
Subjects:
Online Access:http://trace.tennessee.edu/utk_gradthes/44
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spelling ndltd-UTENN-oai-trace.tennessee.edu-utk_gradthes-10722011-12-13T16:21:19Z Airplane Piston Engine Dynamics as an Aeronca E-113 Case Study Leigh, Michael Charles Kinematic equations were developed to describe the dynamic motions of the aircraft piston engine components in terms of time dependent position, velocity, and acceleration relationships. Using the Aeronca E-113 engine as a case study, the brake mean effective pressure (BMEP) rating was used to model the cylinder gas pressure profile. The moments of inertia of the dynamic components including connecting rod, crankshaft, and propeller were measured using a pendulum swing method. Representative values were obtained for inertial and gas pressure forces acting on crankshaft journals, connecting rods, and cylinder walls. The resulting model can help in the design of crankshafts and other dynamically loaded parts to resist failure due to fatigue. 2009-08-01 text application/pdf http://trace.tennessee.edu/utk_gradthes/44 Masters Theses Trace: Tennessee Research and Creative Exchange Aerospace Engineering
collection NDLTD
format Others
sources NDLTD
topic Aerospace Engineering
spellingShingle Aerospace Engineering
Leigh, Michael Charles
Airplane Piston Engine Dynamics as an Aeronca E-113 Case Study
description Kinematic equations were developed to describe the dynamic motions of the aircraft piston engine components in terms of time dependent position, velocity, and acceleration relationships. Using the Aeronca E-113 engine as a case study, the brake mean effective pressure (BMEP) rating was used to model the cylinder gas pressure profile. The moments of inertia of the dynamic components including connecting rod, crankshaft, and propeller were measured using a pendulum swing method. Representative values were obtained for inertial and gas pressure forces acting on crankshaft journals, connecting rods, and cylinder walls. The resulting model can help in the design of crankshafts and other dynamically loaded parts to resist failure due to fatigue.
author Leigh, Michael Charles
author_facet Leigh, Michael Charles
author_sort Leigh, Michael Charles
title Airplane Piston Engine Dynamics as an Aeronca E-113 Case Study
title_short Airplane Piston Engine Dynamics as an Aeronca E-113 Case Study
title_full Airplane Piston Engine Dynamics as an Aeronca E-113 Case Study
title_fullStr Airplane Piston Engine Dynamics as an Aeronca E-113 Case Study
title_full_unstemmed Airplane Piston Engine Dynamics as an Aeronca E-113 Case Study
title_sort airplane piston engine dynamics as an aeronca e-113 case study
publisher Trace: Tennessee Research and Creative Exchange
publishDate 2009
url http://trace.tennessee.edu/utk_gradthes/44
work_keys_str_mv AT leighmichaelcharles airplanepistonenginedynamicsasanaeroncae113casestudy
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