Abstract:
A method for generating Manchester-decoded binary values is disclosed, in which a signal having signal edges is first of all read in. A first sequence of decoded binary values is then generated by means of first Manchester decoding, in which a decoded binary value is allocated to each signal edge of the signal. A second sequence of decoded binary values is then generated by means of second Manchester decoding, in which a decoded binary value is allocated to every second signal edge. The second sequence is rejected if a signal edge of the signal which is not allowed with respect to the second Manchester decoding occurs. The first sequence is rejected if a signal edge of the signal which is required with respect to the first Manchester decoding is missing.
Abstract:
In an embodiment, an integrated circuit includes a communication interface configured to be coupled to a communication bus and an input circuit. The communication interface has a plurality of terminals. The input circuit has a first input coupled to a first terminal of the plurality of terminals, and a second input coupled to a second terminal of the plurality of terminals. The first input of the input circuit is configured to receive a first signal and the second input of the input circuit is configured to receive a second signal. The input circuit is configured to generate a reset signal at an output of the input circuit based on the first and second signals while the communication interface is unselected.
Abstract:
In an embodiment, an integrated circuit includes a communication interface configured to be coupled to a communication bus and an input circuit. The communication interface has a plurality of terminals. The input circuit has a first input coupled to a first terminal of the plurality of terminals, and a second input coupled to a second terminal of the plurality of terminals. The first input of the input circuit is configured to receive a first signal and the second input of the input circuit is configured to receive a second signal. The input circuit is configured to generate a reset signal at an output of the input circuit based on the first and second signals while the communication interface is unselected.
Abstract:
In accordance with some embodiments, a method is provided. The method includes accessing a predefined numeric sequence at an application processor. The method further includes receiving, from a sensor of the sensor system, a verification sequence having a predetermined quantity of repetitions of the predefined numeric sequence. The method further includes correlating the verification sequence with the predefined numeric sequence. The method further includes counting a quantity of correlations between the predefined numeric sequence and the verification sequence. The method further includes adjusting a parameter of the sensor or the application processor in response to the predetermined quantity of repetitions not equaling the quantity of correlations.
Abstract:
A method for generating Manchester-decoded binary values is disclosed, in which a signal having signal edges is first of all read in. A first sequence of decoded binary values is then generated by means of first Manchester decoding, in which a decoded binary value is allocated to each signal edge of the signal. A second sequence of decoded binary values is then generated by means of second Manchester decoding, in which a decoded binary value is allocated to every second signal edge. The second sequence is rejected if a signal edge of the signal which is not allowed with respect to the second Manchester decoding occurs. The first sequence is rejected if a signal edge of the signal which is required with respect to the first Manchester decoding is missing.
Abstract:
In accordance with some embodiments, a method is provided. The method includes accessing a predefined numeric sequence at an application processor. The method further includes receiving, from a sensor of the sensor system, a verification sequence having a predetermined quantity of repetitions of the predefined numeric sequence. The method further includes correlating the verification sequence with the predefined numeric sequence. The method further includes counting a quantity of correlations between the predefined numeric sequence and the verification sequence. The method further includes adjusting a parameter of the sensor or the application processor in response to the predetermined quantity of repetitions not equaling the quantity of correlations.
Abstract:
In accordance with some embodiments, a method is provided. The method includes accessing a predefined numeric sequence at an application processor. The method further includes receiving, from a sensor of the sensor system, a verification sequence having a predetermined quantity of repetitions of the predefined numeric sequence. The method further includes correlating the verification sequence with the predefined numeric sequence. The method further includes counting a quantity of correlations between the predefined numeric sequence and the verification sequence. The method further includes adjusting a parameter of the sensor or the application processor in response to the predetermined quantity of repetitions not equaling the quantity of correlations.
Abstract:
In accordance with some embodiments, a method is provided. The method includes accessing a predefined numeric sequence at an application processor. The method further includes receiving, from a sensor of the sensor system, a verification sequence having a predetermined quantity of repetitions of the predefined numeric sequence. The method further includes correlating the verification sequence with the predefined numeric sequence. The method further includes counting a quantity of correlations between the predefined numeric sequence and the verification sequence. The method further includes adjusting a parameter of the sensor or the application processor in response to the predetermined quantity of repetitions not equaling the quantity of correlations.