Abstract:
Described is an apparatus which comprises: an asynchronous clock generator to generate an asynchronous clock signal; a digital sampler for sampling a signal using the asynchronous clock signal; a duty cycle corrector (DCC) to receive a differential input clock and to generate a differential output clock, wherein the digital sampler to sample at least one of an output clock from the differential output clock; and a counter to count output of the digital sampler and to provide a control to the DCC to adjust duty cycle of the differential output clock.
Abstract:
Described is an apparatus which comprises: an amplifier; a first set of samplers to sample data output from the amplifier according to a clock signal, the set of samplers to generate an output; and a converter to convert the output of the first set of samplers to 1 -hot encoded data.
Abstract:
A digitally selectable power gate with thermometer-encoded upper bits may provide solutions for problems digital power gate-based regulators. These solutions may include the use of a fully binary power gate, either in structure or by local decoding of binary control signal to an addressable row-based power gate. This provides improved performance over a row-based code rotation, which is intended to avoid instantaneous overheating of power gate devices but may not mitigate aging effects. Another solution includes ganging a primary DLVR and one or more secondaries. The primary DLVR may include a voltage sense and active controller, which may forward its PG code to secondary instances. Therm and current sensor rotation may be performed locally at the secondaries and a current monitor data may be rolled up from all ganged DLVRs.
Abstract:
An apparatus includes a pair of voltage-controlled oscillators (VCOs). The pair includes a first VCO with a first biasing stage receiving an input voltage signal and a first output stage coupled to the first biasing stage. The first output stage generates a first output frequency signal based on the input voltage signal. The pair also includes a second VCO. The second VCO includes a second biasing stage receiving the input voltage signal and a second output stage coupled to the second biasing stage. The second output stage generates a second output frequency signal based on the input voltage signal.
Abstract:
Macro-transistor structures are disclosed. In some cases, the macro-transistor structures have the same number of terminals and properties similar to long-channel transistors, but are suitable for analog circuits in deep-submicron technologies at deep-submicron process nodes. The macro-transistor structures can be implemented, for instance, with a plurality of transistors constructed and arranged in series, and with their gates tied together, generally referred to herein as a transistor stack. One or more of the serial transistors within the stack can be implemented with a plurality of parallel transistors and/or can have a threshold voltage that is different from the threshold voltages of other transistors in the stack. Alternatively, or in addition, one or more of the serial transistors within the macro-transistor can be statically or dynamically controlled to tune the performance characteristics of the macro-transistor. The macro-transistors can be used in numerous circuits, such as varactors, VCOs, PLLs, and tunable circuits.
Abstract:
Described is an apparatus which comprises: an amplifier; a first set of samplers to sample data output from the amplifier according to a clock signal, the set of samplers to generate an output; and a converter to convert the output of the first set of samplers to 1 -hot encoded data.