Print Email Facebook Twitter Effective close-range accuracy comparison of microsoft hololens generation one and two using vuforia imagetargets Title Effective close-range accuracy comparison of microsoft hololens generation one and two using vuforia imagetargets Author Rieder, J.S.I. (TU Delft Mechatronic Design; TU Delft Stichting SAM|XL) van Tol, D.H. (TU Delft Mechatronic Design) Aschenbrenner, D. (TU Delft Mechatronic Design) Date 2021 Abstract This paper analyzes the effective accuracy for close-range operations for the first and the second generation of Microsoft HoloLens in combination with Vuforia Image Targets in a black-box approach. The implementation of Augmented Reality (AR) on optical see-through (OST), head-mounted devices (HMDs) has been proven viable for a variety of tasks, such as assembly, maintenance, or educational purposes. For most of these applications, minor localization errors are tolerated since no accurate alignment between the artificial and the real parts is required. For other potential applications, these accuracy errors represent a major obstacle. The "realistically achievable"accuracy remains largely unknown for close-range usages (e.g. within "arms-reach"of a user) for both generations of Microsoft HoloLens.Thus, the authors developed a method to benchmark and compare the applicability of these devices for tasks that demand a higher accuracy like composite manufacturing or medical surgery assistance. Furthermore, the method can be used for a broad variety of devices, establishing a platform for bench-marking and comparing these and future devices. This paper analyzes the performance of test users, which were asked to pinpoint the perceived location of holographic cones. The image recognition software package "Vuforia"was used to determine the spatial transform of the predefined ImageTarget. By comparing the user-markings with the algorithmic locations, a mean deviation of 2.59 ±1.79 [mm] (HL 1) and 1.11 ±0.98 [mm] (HL 2) has been found, which means that the mean accuracy improved by 57.1% and precision by 45.4%. The highest mean accuracy of a single test user has been measured with 0.47 ±1.683 [mm] (HL 1) and 0.085 ± 0.567 [mm] (HL 2). Subject Empirical studies in visualizationHuman computer interaction (HCI)Human-centered computingInteraction paradigmsMixed / augmented realityVisualization To reference this document use: http://resolver.tudelft.nl/uuid:4586915f-532c-4673-87ae-e172c59b7ebe DOI https://doi.org/10.1109/VRW52623.2021.00158 Publisher Institute of Electrical and Electronics Engineers (IEEE) ISBN 9780738113678 Source Proceedings - 2021 IEEE Conference on Virtual Reality and 3D User Interfaces Abstracts and Workshops, VRW 2021 Event 2021 IEEE Conference on Virtual Reality and 3D User Interfaces Abstracts and Workshops, VRW 2021, 2021-03-27 → 2021-04-03, Virtual, Lisbon, Portugal Series Proceedings - 2021 IEEE Conference on Virtual Reality and 3D User Interfaces Abstracts and Workshops, VRW 2021 Part of collection Institutional Repository Document type conference paper Rights © 2021 J.S.I. Rieder, D.H. van Tol, D. Aschenbrenner Files PDF IEEE_VR_2021_Poster_Abstract.pdf 951.1 KB Close viewer /islandora/object/uuid:4586915f-532c-4673-87ae-e172c59b7ebe/datastream/OBJ/view