First Implementation of Burrowing Motions in Dual-Reciprocating Drilling Using an Integrated Actuation Mechanism
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Pitcher, Craig and Gao, Yang (2017) First Implementation of Burrowing Motions in Dual-Reciprocating Drilling Using an Integrated Actuation Mechanism Advances in Space Research, 59 (5). pp. 1368-1380.
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First Implementation of Burrowing Motions.pdf - Accepted version Manuscript Available under License : See the attached licence file. Download (7MB) | Preview |
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Official URL: https://doi.org/10.1016/j.asr.2016.12.017
Abstract
The dual-reciprocating drill (DRD) is a biologically-inspired low-mass alternative to traditional drilling techniques, using backwards-facing teethed halves to grip the surrounding substrate, generating a traction force that reduces the required overhead penetration force. Previous experiments using a proof-of-concept test bench have provided evidence as to the significant role of sideways movements and lateral forces in improving drilling performance. The system is also progressing to a first system prototype concept, in which an actuation mechanism is integrated within the drill heads. To experimentally determine the effect of lateral motions, a new internal actuation mechanism was developed to allow the inclusion of controlled sideways movements, resulting in the creation of the circular and diagonal burrowing motions. This paper presents an investigation into the performance of the reciprocation and burrowing motions by testing them in a planetary regolith simulant. Analysis of force sensor measurements has shown a relationship between the penetration and traction forces and the internal friction of the mechanism and depth achieved. These tests have also experimentally demonstrated the benefit of lateral motions in drilling performance, with both the burrowing mechanisms and drilling tests performed at an angle able to penetrate further than traditional vertical reciprocation, leading to the proposition of new burrowing and diagonal drilling mechanics. From this, a new fully integrated system prototype can be developed which incorporates lateral motions that can optimise the drilling performance.
| Item Type: | Article | |||||||||
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| Subjects : | Electronic Engineering | |||||||||
| Divisions : | Faculty of Engineering and Physical Sciences > Electronic Engineering | |||||||||
| Authors : |
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| Date : | 1 March 2017 | |||||||||
| DOI : | 10.1016/j.asr.2016.12.017 | |||||||||
| Copyright Disclaimer : | © 2016. This manuscript version is made available under the CC-BY-NC-ND 4.0 license http://creativecommons.org/licenses/by-nc-nd/4.0/ | |||||||||
| Uncontrolled Keywords : | dual-reciprocating drilling, burrowing, lateral motion, integrated actuation mechanism, diagonal drilling | |||||||||
| Depositing User : | Symplectic Elements | |||||||||
| Date Deposited : | 17 Jan 2017 11:57 | |||||||||
| Last Modified : | 06 Sep 2019 11:25 | |||||||||
| URI: | http://epubs.surrey.ac.uk/id/eprint/813303 |
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