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v. 17 n. 2 (2017)
Julio-Diciembre

ARTICULOS

Audio effects on haptics perception during drilling simulation

https://doi.org/10.19053/1900771X.v17.n2.2017.7179

Publicado 2017-07-04

  • Yair Valbuena
    • ,
  • Álvaro Uribe-Quevedo
    • ,
  • Alexandra Velasco-Vivas

Yair Valbuena
Universidad Militar Nueva Granada

Álvaro Uribe-Quevedo
Universidad Militar Nueva Granada

Alexandra Velasco-Vivas
Universidad Militar Nueva Granada

Resumo

Virtual reality has provided immersion and interactions through computer generated environments attempting to reproduce real life experiences through sensorial stimuli. Realism can be achieved through multimodal interactions which can enhance the user’s presence within the computer generated world. The most notorious advances in virtual reality can be seen in computer graphics visuals, where photorealism is the norm thriving to overcome the uncanny valley. Other advances have followed related to sound, haptics, and in a lesser manner smell and taste feedback. Currently, virtual reality systems (multimodal immersion and interactions through visual-haptic-sound) are being massively used in entertainment (e.g., cinema, video games, art), and in non-entertainment scenarios (e.g., social inclusion, educational, training, therapy, and tourism). Moreover, the cost reduction of virtual reality technologies has resulted in the availability at a consumer-level of various haptic, headsets, and motion tracking devices. Current consumer-level devices offer low-fidelity experiences due to the properties of the sensors, displays, and other electro-mechanical devices, that may not be suitable for high-precision or realistic experiences requiring dexterity. However, research has been conducted on how toovercome or compensate the lack of high fidelity to provide an engaging user experience using storytelling, multimodal interactions and gaming elements. Our work focuses on analyzing the possible effects of auditory perception on haptic feedback within a drilling scenario. Drilling involves multimodal interactions and it is a task with multiple applications in medicine, crafting, and construction. We compare two drilling scenarios were two groups of participants had to drill through wood while listening to contextual and non-contextual audios. We gathered their perception using a survey after the task completion. From the results, we believe that sound does influence the haptic perception, but further experiments are required to better comprehend the implications and possible medical applications.

Palavras-chave

Fidelity, haptics, simulation

PDF (English)

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