Selecting and Optimizing Origami Flasher Pattern Configurations for Finite-Thickness Deployable Space Arrays

Bolanos, Diana; Varela, Katie; Sargent, Brandon; Stephen, Mark; Howell, Larry L.; Magleby, Spencer P.

doi:10.1115/1.4055900

Cited by 10 publications

(3 citation statements)

References 11 publications

Supporting

Mentioning

Contrasting

Order By: Relevance

“…Within a high transition temperature environment, the design requires appropriate coupling mechanisms to minimize failures. Coupling mechanisms attribute to 10% of overall failures and thus optimization must be undertaken to maximize the durability and minimize the failure rate [21].…”

Section: General Design Objectives Of Cubesatmentioning

confidence: 99%

Optimization of DLTS Hinges for the Assembly of the Solar Arrays of a Communication CubeSat

Katsouli,

Griffiths,

Langford

2024

Applied Sciences

View full text Add to dashboard Cite

This paper demonstrates the analytical and numerical investigations for the obtainment of the predefined critical parameters of double-layer tape spring (DLTS) hinges. The DLTS hinge is utilized for the coupling between the solar panels to assist the accommodation and formulation of the assumed origami-based pattern of the solar arrays. They are examined for the assurance of safety, durability, non-permanent deformation, and stability from the stowed to the deployment configuration. Von Misses stress (σv) and steady-state moment simulations are investigated by varying the critical hinge design parameters of curvature radius (R), subtended angle (θ) and layer thickness (t). Two optimization models, Taguchi and response surface methodology/RSM, are utilized by employing the computational findings to obtain and validate the modified optimal geometric parameters within this analytical experiment. For the Taguchi method, the optimization of σv and the steady-state moment is accomplished with a t of 1.75–2.25 mm, R of 1.5–2.0 mm, and θ of 1–1.2°. Furthermore, the RSM model shows that the t, R, and θ parameters are determined to be 2.90 mm, 2 mm, and 1.35°, respectively. For optimization of the hinge design, both models should be considered for improved verification and accuracy of the results.

show abstract

Section: General Design Objectives Of Cubesatmentioning

confidence: 99%

Optimization of DLTS Hinges for the Assembly of the Solar Arrays of a Communication CubeSat

Katsouli,

Griffiths,

Langford

2024

Applied Sciences

View full text Add to dashboard Cite

show abstract

“…The thickness of the material, for example, often causes issues (ex. wrinkling, local buckling) during the coiling process [14,17,19,20], while alternate wrapping methods have been suggested that accommodate thickness [21][22][23]; these methods do not include a sealed inner volume and thus are not suitable for pneumatic actuator use.…”

Section: Party Horns and Coiled Inflatable Boomsmentioning

confidence: 99%

Soft Coiled Pneumatic Actuator with Integrated Length-Sensing Function for Feedback Control

Greenwood,

Felt

2023

Actuators

View full text Add to dashboard Cite

SPIRA Coil actuators are formed from thin sheets of PET plastic laminated into a coil shape that unfurls like a “party horn” when inflated, while many soft actuators require large pressures to create only modest strains, SPIRA Coils can easily be designed and fabricated to extend over dramatic distances with relatively low working pressures. Internal metalized PET strips separate in the extended portion of the actuator, creating an electrical circuit with a resistance that corresponds to the actuator length. This paper presents and experimentally validates easy-to-use design models for the actuators’ self-retracting spring stiffness, its pneumatic extension force, and its internal length-sensing electrical resistance. Testing of the self-sensing capabilities demonstrates that the embedded sensor can be used to determine the actuator length with virtually no hysteresis. Feedback control with the resistance-based sensing resulted in length-control errors within 5% of the extended actuator length (i.e., 3 cm of 60 cm).

show abstract

“…Thick plate origami is currently the mainstream research direction, which is fabricated * Author to whom any correspondence should be addressed. by assembling thin sheets made from either paper, plastic, or metal into 3D origami structure [9][10][11][12]. However, it often requires tedious assembly processes and additional binders or connection device (shaft hinge).…”

Section: Introductionmentioning

confidence: 99%

Influence of printing parameters and hinge structure on shape memory performance at the hinge in 4D origami structures

Liu,

Yang,

Wang

et al. 2024

Smart Mater. Struct.

View full text Add to dashboard Cite

Four-dimensionally (4D) printing technology effectively demonstrates the advantages of portability, foldability, and improved mechanical properties in origami structures. This study highlights the significance of printing process parameters and origami hinge structures in ensuring rapid and complete deployment of origami structures. Polylactic acid (PLA) based semicrystalline shape memory polymer was utilized to produce 4D printed origami structures. Through response surface analysis methods and bending tests, optimal printing parameters were determined, including layer thickness of 0.31 mm, extrusion speed of 17 mm/s, and infill percentage of 71%. Additionally, the study designed a U-shaped hinge and analyzed its recovery mechanism through micromorphology of bending hinges and recovery experiments.

show abstract

Selecting and Optimizing Origami Flasher Pattern Configurations for Finite-Thickness Deployable Space Arrays

Cited by 10 publications

References 11 publications

Optimization of DLTS Hinges for the Assembly of the Solar Arrays of a Communication CubeSat

Optimization of DLTS Hinges for the Assembly of the Solar Arrays of a Communication CubeSat

Soft Coiled Pneumatic Actuator with Integrated Length-Sensing Function for Feedback Control

Influence of printing parameters and hinge structure on shape memory performance at the hinge in 4D origami structures

Contact Info

Product

Resources

About