Abstract: Methods and systems for extending the functionality of an embedded Universal Serial Bus (USB) transceiver interface to handle threshold shift of a USB 2.0 bus during high-speed chirp are presented. A method for a transceiver of a host coupled by a USB 2.0 bus to a device includes receiving a control signal, and selecting one of a first and second zero level voltage threshold according to the control signal. The first threshold is higher than the second to compensate for a shift in a zero level of the bus during high-speed chirp. In one example, the transceiver selects the first threshold when driving a reset signal, and selects the second threshold after detecting a device high-speed chirp signal. In another example, the transceiver selects the second threshold after driving a high-speed chirp sequence. In one example, the control signal includes a signal of a host controller embedded USB transceiver interface.

Abstract: Methods and systems for extending the functionality of an embedded Universal Serial Bus (USB) transceiver interface to handle threshold shift of a USB 2.0 bus during high-speed chirp are presented. A method for a transceiver of a host coupled by a USB 2.0 bus to a device includes receiving a control signal, and selecting one of a first and second zero level voltage threshold according to the control signal. The first threshold is higher than the second to compensate for a shift in a zero level of the bus during high-speed chirp. In one example, the transceiver selects the first threshold when driving a reset signal, and selects the second threshold after detecting a device high-speed chirp signal. In another example, the transceiver selects the second threshold after driving a high-speed chirp sequence. In one example, the control signal includes a signal of a host controller embedded USB transceiver interface.

Abstract: Certain aspects of a method and system for using multiple memory regions for redundant remapping are disclosed. Aspects of one method may include dividing at least a portion of on-chip memory into a plurality of memory regions. Each of the plurality of memory regions may be mapped into a corresponding plurality of redundant memory regions, wherein if an error is detected in at least one of the plurality of memory regions, at least one of the plurality of memory regions having the detected error may be remapped to at least one of the corresponding plurality of redundant memory regions.

Abstract: Methods and systems for extending the functionality of an embedded Universal Serial Bus (USB) transceiver interface to handle threshold shift of a USB 2.0 bus during high-speed chirp are presented. A method for a transceiver of a host coupled by a USB 2.0 bus to a device includes receiving a control signal, and selecting one of a first and second zero level voltage threshold according to the control signal. The first threshold is higher than the second to compensate for a shift in a zero level of the bus during high-speed chirp. In one example, the transceiver selects the first threshold when driving a reset signal, and selects the second threshold after detecting a device high-speed chirp signal. In another example, the transceiver selects the second threshold after driving a high-speed chirp sequence. In one example, the control signal includes a signal of a host controller embedded USB transceiver interface.

Abstract: A multi-bit write pointer that is associated with a first clock can be converted to a single-bit write pointer. A multi-bit read pointer that is associated with a second clock can be converted to a single-bit read pointer. The first clock and the second clock are not synchronized. One or more guard bits can be associated with the single-bit write pointer and/or the single-bit read pointer. The single-bit write pointer and the single-bit read pointer can be compared. According to an embodiment, an error can be detected in response to comparing the single-bit write pointer and the single-bit read pointer.

Abstract: A universal integrated set-top box is implemented on single semiconductor substrate. The set-top box includes video and audio baseband functions on the common substrate. The set-top box is a universal set-top box chip that can process and demodulate multiple different types of inputs including satellite, cable, Internet, or other device inputs. This can be accomplished because the set-top box does not have a specific tuner integrated on the substrate, and therefore can take generic down-converted inputs, e.g. MPEG packets. In other words, an external tuner/decoder (of any type) can be connected to the set-top box input for processing, including for example, a satellite tuner, cable tuner, or any other type of tuner/decoder that can produce digital outputs (e.g. MPEG packets) for further processing in a set-top box. The set-top box also includes Ethernet and USB connections so as to receive inputs from other set-top boxes, Internet device, or other devices, with similar types of connections.

Abstract: Methods and systems for extending the functionality of an embedded Universal Serial Bus (USB) transceiver interface to handle threshold shift of a USB 2.0 bus during high-speed chirp are presented. A method for a transceiver of a host coupled by a USB 2.0 bus to a device includes receiving a control signal, and selecting one of a first and second zero level voltage threshold according to the control signal. The first threshold is higher than the second to compensate for a shift in a zero level of the bus during high-speed chirp. In one example, the transceiver selects the first threshold when driving a reset signal, and selects the second threshold after detecting a device high-speed chirp signal. In another example, the transceiver selects the second threshold after driving a high-speed chirp sequence. In one example, the control signal includes a signal of a host controller embedded USB transceiver interface.

Abstract: A multi-bit write pointer that is associated with a first clock can be converted to a single-bit write pointer. A multi-bit read pointer that is associated with a second clock can be converted to a single-bit read pointer. The first clock and the second clock are not synchronized. One or more guard bits can be associated with the single-bit write pointer and/or the single-bit read pointer. The single-bit write pointer and the single-bit read pointer can be compared. According to an embodiment, an error can be detected in response to comparing the single-bit write pointer and the single-bit read pointer.

Abstract: Methods and systems for processing multi-stage programming (MSP) bits within one-time-programmable (OTP) memory are disclosed herein. Aspects of the method may comprise determining whether at least one MSP memory bit in the OTP memory is programmed and whether a register bit associated with said at least one MSP memory bit is asserted. If the register bit is deasserted and the MSP memory bit is unprogrammed, the MSP memory bit may be programmed. The register bit in the OTP memory may be associated with the MSP memory bit. The MSP memory bit may be programmed to logic zero or logic one. If the register bit associated with the MSP memory bit is asserted, programming of the MSP memory bit may be blocked. The register bit associated with the MSP memory bit may be reset and it may be determined whether the MSP memory bit is accessed.

Abstract: Aspects of a method and system for blocking data in scan registers from being shifted out of a device may comprise preventing data intrusion in an integrated circuit by generating a device reset signal prior to entering scan mode. The method may further comprise detecting an attempt to enter said scan mode. The device reset signal may also be an internal reset signal. A subsequent device reset signal may be generated after entering scan mode. The subsequent device reset signal may be an internal pulse signal. The method may further comprise clearing stored data in an integrated circuit after generating a subsequent device reset signal.

Abstract: A video data processing device, such as a set-top box for satellite, DSL, or cable video and data services, has a USB 2.0 interface to support connections to local devices and networks. The interface is supported by drivers that provide data connectivity with the internal system bus of the data processing device, to support wired and/or wireless home networking with computers and other set-top boxes, data storage and retrieval on hard drives and other storage media, and other data transfer operations to support digital cameras, game ports, and printers.