MODELLING OF DEPLOYABLE CABLE NETS FOR ACTIVE SPACE DEBRIS REMOVAL
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Issue Vol. 8 No. 1 (2022)
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ENERGY HARVESTING – NEW GREEN ENERGY
Bartłomiej Ambrożkiewicz, Aasifa Rounak1-7
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DELAMINATION BUCKLING IN FOUR-POINT BENDING TESTS – AN EXPERIMENTAL INVESTIGATION
Nicola Dardano, Marco Paggi, Stefano Bennati, Paolo Sebastiano Valvo8-14
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INFLUENCE OF LAYER ARRANGEMENT ON THE STABILITY AND FAILURE OF THIN-WALLED COMPOSITE STRUCTURES
Kuba Roslaniec15-20
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MODELLING OF DEPLOYABLE CABLE NETS FOR ACTIVE SPACE DEBRIS REMOVAL
Paolo Fisicaro, Angelo Pasini, Paolo Sebastiano Valvo21-25
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COMPARATIVE ANALYSIS OF THE ENDURANCE OF UV-CURED ADHESIVE JOINTS
Jacek Ogrodniczek26-31
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REMOTE-CONTROLLED TWO-WHEELED SELF-BALANCING ROBOT
Przemysław Filipek32-41
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Przemysław Filipek42-49
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Abstract
Space debris represent a true risk for current and future activities in the circumterrestrial space, and remediation activities must be set out to guarantee the access to space in the future. For active debris removal, the development of an effective capturing mechanism remains an open issue. Among several proposals, cable nets are light, easily packable, scalable, and versatile. Nonetheless, guidance, navigation, and control aspects are especially critical in both the capture and post-capture phases. We present a finite element model of a deployable cable net. We consider a lumped mass/cable net system taking into account non-linearities arising both from large displacements and deformations, and from the different response of cables when subject to tension and compression. The problem is stated by using the nodal coordinates as Lagrangian coordinates. Lastly, the nonlinear governing equations of the system are obtained in a form ready for numerical integration.
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References
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Paolo Fisicaro, University of Pisa
PhD Student, Department of Civil and Industrial Engineering
Angelo Pasini, University of Pisa
Assistant Professor, Department of Civil and Industrial Engineering
