Abstract:
A signal sampling method, applied to a sensing system comprising a sensing matrix with a first sensing region and a second sensing region. The signal sampling method comprises: (a) applying a first single period sampling number to sample a sensing value of the first sensing region to generate a first sensing signal; and (b) applying a second single period sampling number to sample a sensing value of the second sensing region to generate a second sensing signal. The values of the first single period sampling number and the second single period sampling number are different. The selection for the single period sampling number is extended via sampling different sensing regions by different single period sampling numbers.
Abstract:
An electrically conductive structure comprising: a plurality of first electrically conductive lines; a plurality of second electrically conductive lines, crossed with the first electrically conductive lines, wherein at least one of the second electrically conductive line further comprises a second protruding part protruding from the second electrically conductive lines; and a first peripheral electrically conductive region, overlapped with a part of at least one of the first electrically conductive line, and comprises a first containing region configured to contain the second protruding part. A display apparatus and a capacitance touch control apparatus applying the electrically conductive structure are also disclosed.
Abstract:
A capacitive touch system including a drive end, a capacitive touch sensing device and a detection end is provided. The drive end inputs a modulated drive signal into an input channel of the capacitive sensing device, wherein the modulated drive signal includes a plurality of driving frequencies. The detection end detects a detection signal of an output channel of the capacitive sensing device and generates a two-dimensional detection vector corresponding to each of the driving frequencies. The capacitive touch system includes a touch panel or a touch keyboard.
Abstract:
An electrically conductive structure comprising: a plurality of first electrically conductive lines; a plurality of second electrically conductive lines, crossed with the first electrically conductive lines, wherein at least one of the second electrically conductive line further comprises a second protruding part protruding from the second electrically conductive lines; and a first peripheral electrically conductive region, overlapped with a part of at least one of the first electrically conductive line, and comprises a first containing region configured to contain the second protruding part. A display apparatus and a capacitance touch control apparatus applying the electrically conductive structure are also disclosed.
Abstract:
An input device including a plurality of press buttons and a touch control area is provided. The press buttons provide a key input function, and the touch control area provides a touch input function. Each of the press buttons pushes against an elastic pad which is used as a sensing electrode of the touch input function and as an elastic recovery element of the key input function.
Abstract:
A capacitance sensor, comprising: a plurality of first electrically conductive lines, wherein at least one side of two adjacent ones of the first electrically conductive lines respectively has a notch and the notches are opposite to each other; a second electrically conductive line, crossed with the first electrically conductive lines, wherein the second electrically conductive line further comprises a second protruding part protruding from the second electrically conductive line; wherein the second protruding part is located between the notches; wherein a distance between the two adjacent ones of the first electrically conductive lines at the side is larger than or equal to a maximum distance between the notches. Such capacitance sensor can provide sufficient capacitance value variation even at an edge region.
Abstract:
Disclosed is a three-dimensional gesture sensing method. The three-dimensional gesture sensing method comprises the following steps. Step A: driving at least one first conductive line of conductive lines in the touch sensing device as a first working sensing line, and driving at least one second conductive line of the conductive lines in the touch sensing device as a second working sensing line, such that a sensing area is formed between the first working sensing line and the second working sensing line. Step B: detecting a conductor according to the sensing area. Step C: dynamically adjusting at least the area, the position or the amount of the sensing area according to the conductor to implement a three-dimensional gesture sensing.
Abstract:
An hybrid touch control method applied to an electronic apparatus comprising a touch interface. The hybrid touch control method comprises: (a) sensing if an object presses the touch interface to generate a pressure sensing signal; (b) sensing if the object touches the touch interface to generate a touch sensing signal; and (c) controlling the electronic apparatus according to the pressure sensing signal, but not according to the touch sensing signal. The step (c) can be replaced by: maintain or to stop an operation that the electronic apparatus is performing according to the pressure sensing signal if the touch sensing signal indicates the object is in a predetermined region of the touch interface. Via such method, the electronic apparatus can still be well controlled even if the touch is performed to a region that is not sensitive to touch.
Abstract:
An input device including a plurality of press buttons and a touch control area is provided. The press buttons provide a key input function, and the touch control area provides a touch input function. Each of the press buttons pushes against an elastic pad which is used as a sensing electrode of the touch input function and as an elastic recovery element of the key input function.
Abstract:
A capacitance sensor, comprising: a plurality of first electrically conductive lines, wherein at least one side of two adjacent ones of the first electrically conductive lines respectively has a notch and the notches are opposite to each other; a second electrically conductive line, crossed with the first electrically conductive lines, wherein the second electrically conductive line further comprises a second protruding part protruding from the second electrically conductive line; wherein the second protruding part is located between the notches; wherein a distance between the two adjacent ones of the first electrically conductive lines at the side is larger than or equal to a maximum distance between the notches. Such capacitance sensor can provide sufficient capacitance value variation even at an edge region.