Hiroyuki Kajimoto

Hiroyuki Kajimoto

orcid

Research Focus & Metrics

Academic Career Length

24Years (2003-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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28 April 2016
Verified
Book Chapter
Closed access
PDF file
HKHiroyuki Kajimoto
Hiroyuki Kajimoto

1 January 2003 in IEEJ Transactions on Sensors and Micromachines
Verified
Journal Article
Closed access
KKKazuto Kamiyama
Kazuto Kamiyama
HKHiroyuki Kajimoto
Hiroyuki Kajimoto
MIMasahiko Inami
Masahiko Inami
NKNaoki Kawakami
Naoki Kawakami
STSusumu Tachi
Susumu Tachi


27 September 2025
Verified
Conference Paper
Open access
PPPraneeth Bimsara Perera
Praneeth Bimsara Perera
RPRavindu Madhushan Pushpakumara
Ravindu Madhushan Pushpakumara
HKHiroyuki Kajimoto
Hiroyuki Kajimoto
AJArata Jingu
Arata Jingu
JSJürgen Steimle
Jürgen Steimle
AWAnusha Withana
Anusha Withana


5 October 2024
Verified
Conference Paper
Open access
PPPraneeth Bimsara Perera
Praneeth Bimsara Perera
HMHansa Marasinghe
Hansa Marasinghe
TTTaiki Takami
Taiki Takami
HKHiroyuki Kajimoto
Hiroyuki Kajimoto
AWAnusha Withana
Anusha Withana
Tactile feedback mechanisms enhance the user experience of modern wearables by stimulating the sense of touch and enabling intuitive interactions. Electro-tactile stimulation-based tactile interfaces stand out due to their compact form factor and ability to deliver localized tactile sensations. Integrating force sensing with electro-tactile stimulation creates more responsive bidirectional systems that are beneficial in applications requiring precise control and feedback. However, current research often relies on separate sensors for force sensing, increasing system complexity and raising challenges in system scalability. We propose a novel approach that utilizes 3D-printed modified surfaces as the electro-tactile electrode interface to sense applied force and deliver feedback simultaneously without additional sensors. This method simplifies the system, maintains flexibility, and leverages the rapid prototyping capabilities of 3D printing. The functionality of this approach is validated through a user study (N=10), and two practical applications are proposed, both incorporating simultaneous sensing and tactile feedback.