Aspects of the invention include a computer-implemented method including receiving image data describing an image on a flexible display and force data describing a force applied to the flexible display. The force is associated with a target object in the image, wherein the object is an image of a real-world object. A rendering of the target object is created as if the force were applied to the real-world object.

A method to communicate the effects of physical touches made to a touch screen includes acquiring touch information from a touch screen of a first device which is touched and controlling a touch screen of a second device to simulate effects of the touch applied to first device. The method utilizes piezoelectric elements, pressure sensors, temperature sensors, and temperature adjusting devices installed in the touch screens of both devices. A tactile interaction device is also provided.

An input device includes a touch plate having a central axis and a top surface with three outer points evenly spaced away from the central axis. A touch sensor is used to detect a user touch on the top surface at the first outer point, and a support mechanism supports the touch plate and is configured to translate the touch plate at the second and third outer points upon application of the user touch and translation of the touch plate at the first outer point. Translation of the three outer points is substantially equal along the central axis.

At an electronic device, detecting a compatible external device, where the external device is executing or has executed a first application. The detection may be made wirelessly. The electronic device also receives usage information regarding the first application from the external device. Display an affordance for user selection based on the received information. When the affordance is selected, launch a second application on the electronic device, the second application corresponding to the first application. In some examples, the second application is a different version of the first application. Launching the second application may additionally include bringing the second application to the same state as the first application. For example, if e-mail is being drafted on the external device, the electronic device may launch an e-mail editor showing the draft. In this way, a user can seamlessly transition from the use of one electronic device to another electronic device.

A viewing angle switching method is provided. The viewing angle switching method includes: displaying a first user interface, the first user interface including an environment picture and a viewing angle switching region, the environment picture including a three-dimensional virtual environment observed from a first viewing angle direction by a virtual object, and the viewing angle switching region including a viewing angle jumping element used for viewing angle jumping; receiving a viewing angle jumping signal triggered on a target viewing angle jumping element, the at least one viewing angle jumping element including the target viewing angle jumping element; determining a second viewing angle direction corresponding to the target viewing angle jumping element; and displaying a second user interface, the second user interface including the environment picture of the three-dimensional virtual environment observed from the second viewing angle direction by the virtual object.

Disclosed herein are methods, devices, and systems that may enable a touch-based interface to receive dynamic user inputs based on pressure. An exemplary method may involve: (a) detecting a touch interaction including an increase in pressure greater than a first threshold pressure-increase followed by a reduction in pressure greater than a threshold pressure-reduction; and (b) responsive to detecting the touch interaction, initiating an operation based on a region of the touch-based interface that corresponds to the touch interaction, wherein the operation is associated with the touch interaction.

A touch-and-display method is provided. The method includes receiving a touch operation entered by a user on a touch object. The touch object is a control element supporting an area change gesture and a touch-and-hold gesture. An interface is displayed corresponding to the area change gesture based on a touch area applied to the touch object in the touch operation meeting a preset condition within a first time threshold, and reaches, within a second time threshold, an area threshold for recognizing the area change gesture. A different interface is displayed corresponding to the touch-and-hold gesture based on the touch area applied to the touch object in the touch operation meeting the preset condition within the first time threshold but not reaching the area threshold within the second time threshold. Therefore, the efficiency of the mobile device responding to the touch gesture is increased.

For interpreting a click action, an apparatus includes a touch panel, a processor, and a memory that stores code, executable by the processor, including code that: determines a number of touch points for a click action of the touch panel, determines a touch force for each touch point of the click action, identifies a number of click points for the click action based on the touch force of each touch point, and outputs a click event based on the number of click points. The apparatus may also include code that determines a click location associated with the click action, in response to the number of click points being one, and compares the click location to a first area, wherein outputting a click event includes outputting a primary click event, in response to the click location being within the first area.

The operating device for a vehicle is provided with a housing having a front face with a receiving opening being delimited by an opening edge, and having a rear wall, and with an operating element being arranged in the receiving opening at a distance from the opening edge thereof and having an operating surface, said operating element having a front face provided with the operating surface, a rear face, and a delimiting edge region. The operating device further comprises a holding element having a bottom wall and support parts which protrude from the bottom wall and end below the delimiting edge region of the operating element and are mechanically coupled to the operating element in the delimiting edge region. The bottom wall of the holding element has a central region which is spaced from the support parts and within which the bottom wall of the holding element is supported against the rear wall of the housing. A manual actuation of the operating element is detected by multiple actuation sensors which are arranged between the bottom wall of the holding element and the rear wall of the housing within the surrounding region that surrounds the central region of the bottom wall of the holding element and is arranged at a distance from the rear wall of the housing. An evaluation unit receives the signals from the actuation sensors and evaluates said signals for the purpose of detecting a manual actuation of the operating element performed with a predefinable minimum pressing force.

Systems and methods for detecting touch events with an accelerometer are disclosed. In one aspect, a method includes measuring first accelerometer data at a first rate, detecting a first touch event based on the first accelerometer data, in response to detecting the first touch event, measuring second accelerometer data at a second rate, determining whether a second touch event is detected based on the second accelerometer data, measuring third accelerometer data at the first rate in response to an absence of the second touch event being detecting in the second accelerometer data over a predetermined threshold period of time.