PrintShear:基于指纹变形的剪切输入

Jinyang Yu, Jianjiang Feng, Jie Zhou
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引用次数: 0

摘要

大多数基于触摸的输入设备,如触摸屏和触摸板,在手指触摸设备表面时捕获低分辨率的电容图像。这些设备只能输出接触点的二维(2D)位置,这对于复杂的控制任务是不够的,比如对3D对象的操作。为了扩展触摸输入的模式,研究人员提出了各种技术,包括手指姿势,和弦手势,触摸压力等。随着指纹传感技术,特别是屏下指纹传感器的快速发展,利用指纹图像生成控制多个自由度的输入命令已经成为可能。本文提出了一种基于指纹变形的剪切输入技术PrintShear。从指纹图像中提取横向、纵向和旋转变形,并映射到3DOF控制命令。进一步的自由度扩展可以通过识别触摸手指的接触区域来实现。我们进行了一个12人的用户研究,以评估PrintShear在3D对接任务中的性能。与其他输入法的比较表明了我们的方法的优越性。具体来说,在一个完整的6DOF 3D物体操作任务中,与传统的触摸输入相比,完成时间减少了19.79%。
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PrintShear: Shear Input Based on Fingerprint Deformation
Most touch-based input devices, such as touchscreens and touchpads, capture low-resolution capacitive images when a finger touches the device’s surface. These devices only output the two-dimensional (2D) positions of contacting points, which are insufficient for complex control tasks, such as the manipulation of 3D objects. To expand the modalities of touch inputs, researchers have proposed a variety of techniques, including finger poses, chording gestures, touch pressure, etc. With the rapid development of fingerprint sensing technology, especially under-screen fingerprint sensors, it has become possible to generate input commands to control multiple degrees of freedom (DOF) at a time using fingerprint images. In this paper, we propose PrintShear, a shear input technique based on fingerprint deformation. Lateral, longitudinal and rotational deformations are extracted from fingerprint images and mapped to 3DOF control commands. Further DOF expansion can be achieved through recognition of the contact region of the touching finger. We conducted a 12-person user study to evaluate the performance of PrintShear on 3D docking tasks. Comparisons with other input methods demonstrated the superiority of our approach. Specifically, a 19.79% reduction in completion time was achieved compared with conventional touch input in a full 6DOF 3D object manipulation task.
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