Self-Levelling Feller-Buncher Productivity Based on Lidar-Derived Slope

The purpose of the study was to examine the ability of LiDAR (Light Detection and Ranging) to derive terrain slope over large areas and to use the derived slope data to model the effect of slope on the productivity of a self-levelling feller-buncher in order to predict its productivity for a wide ra...

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Bibliographic Details
Main Authors: Mauricio Acuna, Mark Brown, Muhammad Alam
Format: Article
Language:English
Published: University of Zagreb, Faculty of Forestry 2013-01-01
Series:Croatian Journal of Forest Engineering
Online Access:https://hrcak.srce.hr/file/172652
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spelling doaj-7248336878d24c6481df53e5430ee1602020-11-25T00:47:04ZengUniversity of Zagreb, Faculty of ForestryCroatian Journal of Forest Engineering1845-57191848-96722013-01-01342273281116783Self-Levelling Feller-Buncher Productivity Based on Lidar-Derived SlopeMauricio Acuna0Mark Brown1Muhammad Alam2Australia Forest Operations Research Alliance (AFORA) University of the Sunshine Coast Hobart, Tasmania, 7001, AustraliaAustralia Forest Operations Research Alliance (AFORA) University of the Sunshine Coast Maroochydore DC, Queensland, 4558 AustraliaUniversity of Melbourne 500 Yarra Boulevard Richmond, Australia 3121The purpose of the study was to examine the ability of LiDAR (Light Detection and Ranging) to derive terrain slope over large areas and to use the derived slope data to model the effect of slope on the productivity of a self-levelling feller-buncher in order to predict its productivity for a wide range of slopes. The study was carried out for a self-levelling tracked feller-buncher in a 24-year old radiata pine (Pinus radiata) plantation near Port Arthur, Tasmania, Australia undertaking a clear felling operation. Tree heights and diameter at breast height were measured prior to the harvesting operation. Low intensity LiDAR (>3 points m-2) flown in 2011 over the study site was used to derive slope classes. A time and motion study carried out for the harvesting operation was used to evaluate the impact of tree volume and slope on the feller-buncher productivity. The results showed the ability of LiDAR to derive terrain slope classes. The study found that for an average tree volume of 0.53 m3, productivities of 97 m3 PMH -1 (Productive Machine Hours excluding delays) and 73 m3 PMH -1 were predicted for the moderate slope (11–18°) and steep slope (18–27°), respectively. The difference in feller-buncher productivity between the two slope classes was found to result from operator technique differences related to felling. The productivity models were tested with trees within the study area not used in model development and were found to be able to predict the productivity of the feller-buncher.https://hrcak.srce.hr/file/172652
collection DOAJ
language English
format Article
sources DOAJ
author Mauricio Acuna
Mark Brown
Muhammad Alam
spellingShingle Mauricio Acuna
Mark Brown
Muhammad Alam
Self-Levelling Feller-Buncher Productivity Based on Lidar-Derived Slope
Croatian Journal of Forest Engineering
author_facet Mauricio Acuna
Mark Brown
Muhammad Alam
author_sort Mauricio Acuna
title Self-Levelling Feller-Buncher Productivity Based on Lidar-Derived Slope
title_short Self-Levelling Feller-Buncher Productivity Based on Lidar-Derived Slope
title_full Self-Levelling Feller-Buncher Productivity Based on Lidar-Derived Slope
title_fullStr Self-Levelling Feller-Buncher Productivity Based on Lidar-Derived Slope
title_full_unstemmed Self-Levelling Feller-Buncher Productivity Based on Lidar-Derived Slope
title_sort self-levelling feller-buncher productivity based on lidar-derived slope
publisher University of Zagreb, Faculty of Forestry
series Croatian Journal of Forest Engineering
issn 1845-5719
1848-9672
publishDate 2013-01-01
description The purpose of the study was to examine the ability of LiDAR (Light Detection and Ranging) to derive terrain slope over large areas and to use the derived slope data to model the effect of slope on the productivity of a self-levelling feller-buncher in order to predict its productivity for a wide range of slopes. The study was carried out for a self-levelling tracked feller-buncher in a 24-year old radiata pine (Pinus radiata) plantation near Port Arthur, Tasmania, Australia undertaking a clear felling operation. Tree heights and diameter at breast height were measured prior to the harvesting operation. Low intensity LiDAR (>3 points m-2) flown in 2011 over the study site was used to derive slope classes. A time and motion study carried out for the harvesting operation was used to evaluate the impact of tree volume and slope on the feller-buncher productivity. The results showed the ability of LiDAR to derive terrain slope classes. The study found that for an average tree volume of 0.53 m3, productivities of 97 m3 PMH -1 (Productive Machine Hours excluding delays) and 73 m3 PMH -1 were predicted for the moderate slope (11–18°) and steep slope (18–27°), respectively. The difference in feller-buncher productivity between the two slope classes was found to result from operator technique differences related to felling. The productivity models were tested with trees within the study area not used in model development and were found to be able to predict the productivity of the feller-buncher.
url https://hrcak.srce.hr/file/172652
work_keys_str_mv AT mauricioacuna selflevellingfellerbuncherproductivitybasedonlidarderivedslope
AT markbrown selflevellingfellerbuncherproductivitybasedonlidarderivedslope
AT muhammadalam selflevellingfellerbuncherproductivitybasedonlidarderivedslope
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