Abstract: An integrated circuit (IC) device can include a plurality of analog blocks, including at least one fixed function analog circuit, a plurality of reconfigurable analog circuit blocks, at least one analog routing block reconfigurable to provide signal paths between any of the analog blocks; and a digital section comprising digital circuits; wherein each analog block includes dedicated of signal lines coupled to the at least one analog routing block.

Abstract: An integrated circuit (IC) device can include a plurality of analog blocks, including at least one fixed function analog circuit, and at least one reconfigurable analog circuit block selected from: a continuous time (CT) block comprising a plurality of reconfigurable amplifier circuits and a discrete time block comprising amplifiers with a reconfigurable switch network; an analog multiplexer (MUX) configured to selectively connect any of a plurality of input/outputs (I/Os) of the IC device to the analog blocks, the analog MUX including at least one low noise signal path pair having a lower resistance than other signal paths of the analog MUX; at least one analog routing block reconfigurable to provide signal paths between any of the analog blocks; a digital section comprising digital circuits; and a processor interface coupled to the analog blocks.

Abstract: An integrated circuit (IC) device can include a plurality of analog blocks, including at least one fixed function analog circuit, a plurality of reconfigurable analog circuit blocks, at least one analog routing block reconfigurable to provide signal paths between any of the analog blocks; and a digital section comprising digital circuits; wherein each analog block includes dedicated of signal lines coupled to the at least one analog routing block.

Abstract: An integrated circuit (IC) device can include a plurality of analog blocks, including at least one fixed function analog circuit, a plurality of reconfigurable analog circuit blocks, at least one analog routing block reconfigurable to provide signal paths between any of the analog blocks; and a digital section comprising digital circuits; wherein each analog block includes dedicated of signal lines coupled to the at least one analog routing block.

Abstract: An integrated circuit (IC) device can include a plurality of analog blocks, including at least one fixed function analog circuit, a plurality of reconfigurable analog circuit blocks, at least one analog routing block reconfigurable to provide signal paths between any of the analog blocks; and a digital section comprising digital circuits; wherein each analog block includes dedicated of signal lines coupled to the at least one analog routing block.

Abstract: An integrated circuit (IC) device can include a plurality of analog blocks, including at least one fixed function analog circuit, and at least one reconfigurable analog circuit block selected from: a continuous time (CT) block comprising a plurality of reconfigurable amplifier circuits and a discrete time block comprising amplifiers with a reconfigurable switch network; an analog multiplexer (MUX) configured to selectively connect any of a plurality of input/outputs (I/Os) of the IC device to the analog blocks, the analog MUX including at least one low noise signal path pair having a lower resistance than other signal paths of the analog MUX; at least one analog routing block reconfigurable to provide signal paths between any of the analog blocks; a digital section comprising digital circuits; and a processor interface coupled to the analog blocks.

Abstract: An integrated circuit device can include a plurality of analog blocks, including a plurality of programmable analog blocks configurable to provide different analog functions in response to configuration data, at least one programmable analog block including a programmable analog routing coupled to a plurality of external connections to the integrated circuit device; and a plurality of programmable digital blocks, at least one programmable digital block configurable into an analog block control circuit that configures the programmable analog routing.

Abstract: An integrated circuit device can include a plurality of analog blocks, at least a first analog block comprising a data converter circuit, each analog block including a programmable switch path coupled to a plurality of external connections to the integrated circuit device; and a plurality of programmable digital blocks, at least one programmable digital block configurable to control the programmable switch paths to couple external connections to the data converter circuit via an analog block other than the first analog block.

Abstract: Aspects of the disclosure are directed to a system having a particularly-configured microcontroller. In one embodiment, the microcontroller includes the following: a processor; a processor data bus connected to the processor; a set of peripherals; a peripheral data bus connected to the peripherals; a peripheral bus bridge providing an interface between the processor data bus and the peripheral data base and including a plurality of special function register bank blocks that are internal to the microcontroller, each register bank block having a respective output; and a register bank block decoder circuit for decoding interrupts to provide a selection output for activation of one of the plurality of register bank blocks.

Abstract: A programmable processing device having a non-volatile memory that may comprise a first memory portion and a second memory portion, where the first section of the first memory portion is configured to store program instructions or data and the second memory portion of the memory word is configured to store either the configuration data or the error detection bits depending upon if an error detection scheme is implemented for the program instructions or data.

Abstract: A microcontroller (30) includes a processor (32), an embedded memory (46) operatively coupled to the processor (32), and a microcontroller test interface (34) operatively connected to the processor (32) and the memory (36). The microcontroller (30) responds to a reset signal to perform a reset initiation that causes an initial disabled state of the test interface (34) to be set and execution of initiation code with the processor (32). This code execution optionally establishes a further disabled state. The microcontroller (30) provides an enabled state of the test interface for memory (46) access through the test interlace (34) during microcontroller (30) operation subsequent to the reset initiation unless the further disabled memory (46) access state is established by execution of the initiation code.

Abstract: One embodiment of the present application includes a microcontroller (30) that has an embedded memory (46), a programmable processor (32), and a test interface (34). The memory (46) is accessible through the test interface (34). In response to resetting this microcontroller (30), a counter is started and the test interface (34) is initially set to a disabled state while an initiation program is executed. The test interface (34) is changed to an enabled state—such that access to the embedded memory (46) is permitted through it—when the counter reaches a predefined value unless the microcontroller (30) executes programming code before the predefined value is reached to provide the disabled state during subsequent microcontroller (30) operation.

Abstract: One embodiment of the present invention is a microcontroller (24) including an embedded memory (42), waveform control circuitry (44) operatively coupled to the memory (42), several terminals (52), and a programmable processor (30). Processor (30) is responsive to execution of the first sequence of instructions to store a waveform bit pattern in memory (42) with a desired transmission timing. Waveform circuitry (44) is responsive to processor (30) to control transmission of the waveform bit pattern stored in memory (42) through one or more of the terminals (52) in accordance with the timing while processor (30) executes the second sequence of instructions to perform a different process.

Abstract: Aspects of the disclosure are directed to a system having a particularly-configured microcontroller. In one embodiment, the microcontroller includes the following: a processor; a processor data bus connected to the processor; a set of peripherals; a peripheral data bus connected to the peripherals; a peripheral bus bridge providing an interface between the processor data bus and the peripheral data base and including a plurality of special function register bank blocks that are internal to the microcontroller, each register bank block having a respective output; and a register bank block decoder circuit for decoding interrupts to provide a selection output for activation of one of the plurality of register bank blocks.

Abstract: One embodiment of the present invention is a microcontroller (24) including an embedded memory (42), waveform control circuitry (44) operatively coupled to the memory (42), several terminals (52), and a programmable processor (30). Processor (30) is responsive to execution of the first sequence of instructions to store a waveform bit pattern in memory (42) with a desired transmission timing. Waveform circuitry (44) is responsive to processor (30) to control transmission of the waveform bit pattern stored in memory (42) through one or more of the terminals (52) in accordance with the timing while processor (30) executes the second sequence of instructions to perform a different process.

Abstract: One embodiment of the present application includes a microcontroller (30) that has an embedded memory (46), a programmable processor (32), and a test interface (34). The memory (46) is accessible through the test interface (34). In response to resetting this microcontroller (30), a counter is started and the test interface (34) is initially set to a disabled state while an initiation program is executed. The test interface (34) is changed to an enabled state—such that access to the embedded memory (46) is permitted through it—when the counter reaches a predefined value unless the microcontroller (30) executes programming code before the predefined value is reached to provide the disabled state during subsequent microcontroller (30) operation.

Abstract: A microcontroller (30) includes a processor (32), an embedded memory (46) operatively coupled to the processor (32), and a microcontroller test interface (34) operatively connected to the processor (32) and the memory (36). The microcontroller (30) responds to a reset signal to perform a reset initiation that causes an initial disabled state of the test interface (34) to be set and execution of initiation code with the processor (32). This code execution optionally establishes a further disabled state. The microcontroller (30) provides an enabled state of the test interface for memory (46) access through the test interlace (34) during microcontroller (30) operation subsequent to the reset initiation unless the further disabled memory (46) access state is established by execution of the initiation code.

Abstract: All pointer-based accesses require first that the value contained in a pointer register to be read and then that value be used as an address to the appropriate region in random access memory (RAM). As implemented today, this requires two memory read access cycles, each of which takes at least one clock cycle and therefore this implementation does not allow single cycle operation. In accordance with an embodiment of the invention, when an access is performed to pointer memory to read the contents of a pointer, it is the shadow memory that is actually read and that returns the pointer value. Since the shadow memory is made up of pointer registers, a read access involves multiplexing out of appropriate data for the pointer address from these pointer registers to form a target pointer address.

Abstract: All Pointer-based accesses require first that the value contained in a pointer register (200a, 200b, 200c, 200d) to be read and then that value be used as an address to the appropriate region in random access memory (RAM) (104). As implemented today, this requires two memory read access cycles, each of which takes at least one clock cycle and therefore this implementation does not allow single cycle operation. In accordance with an embodiment of the invention, when an access is performed to pointer memory (103a, 103b, 103c, 103d) to read the contents of a pointer, it is the shadow memory that is actually read and that returns the pointer value. Since the shadow memory is made up of pointer registers (200a, 200b, 200c, 200d), a read access involves mutliplexing out of appropriate data for the pointer address from these pointer registers (200a, 200b, 200c, 200d) to form a target pointer address.

Abstract: Typically, for processing systems it must be guaranteed that all interrupted program stream parameters are restored before the execution of the first program stream resumes. If during this transfer an interrupt occurs, then all data may not be stored or restored. If the error free storage of the program register contents and other critical first program stream data does not occur, the processor (180) has no way of knowing whether the first program stream data restored to the registers has become corrupt or not. Thus, a novel register architecture (120, 121, 122, 123, 124, 125) is provided that facilitate processing of interrupting program streams without storing and restoring interrupted program stream critical data.