Abstract: A floor cleaning machine for cleaning a surface. The cleaning machine includes a body, an actuator supported by the body, a distribution nozzle supported by the body, and a supply tank assembly coupled to the body in fluid communication with the distribution nozzle. The supply tank includes a first tank that stores a first cleaning solution, a second tank that stores a second cleaning solution that is different from the first cleaning solution, and a third tank that stores water. The floor cleaning machine is operable in a first mode to wash the surface, in a second mode to sanitize the surface, and a third mode to rinse the surface. The distribution nozzle delivers the first cleaning solution onto the surface when the floor cleaning machine is in the first mode and delivers the second cleaning solution onto the surface when the floor cleaning machine is in the second mode.

Abstract: A floor cleaning machine for cleaning a surface includes a body, a distribution nozzle supported by the body, a supply tank assembly coupled to the body in fluid communication with the distribution nozzle, a suction nozzle supported by the body, and a suction source in fluid communication with the suction nozzle. The suction source is operable to draw fluid and dirt from the surface through the suction nozzle. The floor cleaning machine also includes a recovery tank coupled to the body in fluid communication with the suction source to receive and store fluid and dirt drawn through the suction nozzle. The floor cleaning machine is operable in a first mode to wash the surface and is operable in a second mode to sanitize the surface.

Abstract: Connector receptacles, examples of which comprise a housing having a first plurality of slots in a top side and a second plurality of slots in a bottom side, a top row of contacts positioned in the first plurality of slots in the housing, a bottom row of contacts positioned in the second plurality of slots in the housing, a top shell portion over the top of the housing, the top shell portion comprising first and second electromagnetic contacts extending from a front of the top shell and passing through openings in the top side of the housing, and a bottom shell portion under the bottom of the housing, the bottom shell portion comprising third and fourth electromagnetic contacts extending from a front of the bottom shell and passing through openings in the bottom side of the housing.

Abstract: Connector receptacles that may have a desired form factor to fit in a stylized device enclosure. These stylized connector receptacles and corresponding connector inserts may also be capable of high-speed performance. Examples may also provide circuitry for these connector inserts and connector receptacles that support these high speeds.

Abstract: An apparatus relating generally to an analog-to-digital converter (“ADC”) is disclosed. In such an apparatus, the ADC is configured for successive approximations. The ADC includes a digital-to-analog converter (“DAC”), a comparator, and a control block. The DAC is coupled to receive a reference input signal and coupled to provide an analog output signal. The analog output signal is capacitively coupled to an analog input node through a capacitor. The capacitor is coupled between the DAC and the comparator to provide capacitive coupling therebetween. The comparator is coupled to the analog input node. The comparator is further coupled to provide a comparator output signal to the control block. The control block is configured for successive approximations to provide a digital output signal to a digital output node. The DAC is coupled to the digital output node to receive the digital output signal as a feedback input signal.

Abstract: A circuit includes an amplifier including a differential input stage including a first input terminal and a second input terminal. The circuit further includes a differential input line coupled to the first input terminal and the second input terminal, and shielding at least partially encompassing the differential input line. The shielding is connected to a node of the differential input stage of the amplifier.

Abstract: An extractor-type surface cleaning machine includes a base or foot having a suction nozzle and a handle that is pivotally coupled to the foot and moveable between upright and inclined positions. The recovery tank is removably securable to the foot and fluidly communicates with the suction nozzle and the accessory. The recovery tank defines a collection chamber and a passage having an inlet in communication with the suction nozzle and an outlet. A valve member is moveable between a closed position substantially covering the outlet and an open position. Movement of the handle to the upright position moves the valve member to the closed position to block the passage during cleaning with the accessory hose. Movement of the handle to the inclined position allows movement of the valve member to the open position so that suction from the collection chamber is communicated to the suction nozzle for floor cleaning.

Abstract: A floor cleaning machine for cleaning a surface includes a body, a distribution nozzle supported by the body, a supply tank assembly coupled to the body in fluid communication with the distribution nozzle, a suction nozzle supported by the body, and a suction source in fluid communication with the suction nozzle. The suction source is operable to draw fluid and dirt from the surface through the suction nozzle. The floor cleaning machine also includes a recovery tank coupled to the body in fluid communication with the suction source to receive and store fluid and dirt drawn through the suction nozzle. The floor cleaning machine is operable in a first mode to wash the surface and is operable in a second mode to sanitize the surface.

Abstract: A system for use within an integrated circuit (IC) can include an input differential pair including a positive input node and a negative input node, a current source coupled to the input differential pair, and a current mirror. The current mirror can include at least a first active device and a second active device. The system can include a biasing transistor device having a source terminal coupled to a gate terminal of each of the first and second active devices, a gate terminal coupled to a drain terminal of the second active device, and a drain terminal coupled to a voltage source. The biasing transistor device is complementary to the current mirror.

Abstract: In accordance with some embodiments, a method for high frequency clock distribution in a VLSI system includes splitting an original master clock signal into one or more pairs of lower-frequency sub-clocks for a destination in the VLSI system, distributing each lower-frequency sub-clock of the one or more pairs of lower-frequency sub-clocks to a corresponding channel coupled to the destination, and reconstructing a reference master clock signal at the destination from the one or more pairs of lower-frequency sub-clocks, wherein the reconstructed reference master clock signal replicates the original master clock signal.

Abstract: A capacitor in an integrated circuit (“IC”) has a distribution grid formed in a first patterned metal layer of the integrated circuit and a first vertical conductive filament connected to and extending away from the distribution grid along a first direction. A second vertical conductive filament is connected to the distribution grid and extends in the opposite direction. First and second grid plates are formed in the metal layers above and below the first patterned metal layer. The grid plates surround the first and second vertical conductive filaments. The distribution grid, first vertical conductive filament and second vertical conductive filament are connected to and form a portion of a first node of the capacitor and the first grid plate and the second grid plate are connected to and form a portion of a second node of the capacitor.

Abstract: An offset cancellation circuit can include an amplifier having a negative input, a positive input, and a single-ended output, wherein the positive input is configured to receive a reference voltage. The circuit also can include a capacitor having a first terminal and a second terminal. The first terminal can be coupled to the negative input of the amplifier. The capacitor can be configured to sample the offset voltage of the amplifier. The second terminal of the capacitor can be selectively coupled to the output of the amplifier.

Abstract: An extractor cleaning machine includes a base having a distribution nozzle and a suction nozzle, a suction source in fluid communication with the suction nozzle, a recovery tank removably coupled to the base and having a recovery tank handle, an extractor handle pivotally coupled to the base, and a supply tank coupled to the extractor handle for pivotal movement with the extractor handle with respect to the base. At least a portion of the supply tank is positioned above and over the recovery tank in a direction normal to a surface to be cleaned when the extractor handle is in an upright storage position. The supply tank is in fluid communication with the distribution nozzle to supply cleaning fluid to the distribution nozzle. The extractor cleaning machine is liftable by the recovery tank handle when the extractor handle is in the upright storage position.

Abstract: A capacitor in an integrated circuit (“IC”) has a first plurality of conductive crosses formed in a layer of the IC electrically connected to and forming a portion of a first node of the capacitor and a second plurality of conductive crosses formed in the metal layer of the IC. The conductive crosses in the second plurality of conductive crosses are electrically connected to and form a portion of a second node of the capacitor and capacitively couple to the first node.

Abstract: An extractor cleaning machine includes a base having a distribution nozzle and a suction nozzle, a suction source in fluid communication with the suction nozzle, a recovery tank removably coupled to the base and having a recovery tank handle, an extractor handle pivotally coupled to the base, and a supply tank coupled to the extractor handle for pivotal movement with the extractor handle with respect to the base. At least a portion of the supply tank is positioned above and over the recovery tank in a direction normal to a surface to be cleaned when the extractor handle is in an upright storage position. The supply tank is in fluid communication with the distribution nozzle to supply cleaning fluid to the distribution nozzle. The extractor cleaning machine is liftable by the recovery tank handle when the extractor handle is in the upright storage position.

Abstract: An extractor-type surface cleaning machine includes a base or foot having a suction nozzle and a handle that is pivotally coupled to the foot and moveable between upright and inclined positions. The recovery tank is removably securable to the foot and fluidly communicates with the suction nozzle and the accessory. The recovery tank defines a collection chamber and a passage having an inlet in communication with the suction nozzle and an outlet. A valve member is moveable between a closed position substantially covering the outlet and an open position. Movement of the handle to the upright position moves the valve member to the closed position to block the passage during cleaning with the accessory hose. Movement of the handle to the inclined position allows movement of the valve member to the open position so that suction from the collection chamber is communicated to the suction nozzle for floor cleaning.

Abstract: A capacitor in an IC has a first layer of conductive strips extending along a first direction (Z-direction). A first plurality of conductive strips in the first layer forms a portion a first node of the capacitor and alternates with a second plurality of conductive strips forming a portion of a second node of the capacitor. A plate layer adjacent to the first layer has a third plurality of conductive strips forming a portion the first node. Each strip in the third plurality of conductive strips is adjacent to another strip forming a part of the first node. The strips in the plate layer extend along a second direction (X-direction) orthogonal to the first direction. A first via electrically connects a first conductive strip in the first plurality of conductive strips in the first layer to a second conductive strip in the plate layer.

Abstract: A capacitor in an integrated circuit (“IC”) includes a core capacitor portion having first conductive elements electrically connected to and forming a part of a first node of the capacitor formed in a first layer and second conductive elements electrically connected to and forming a part of a second node of the capacitor formed in the first layer. The first and second conductive elements alternate in the first conductive layer. Third conductive elements electrically connected to and forming a part of the first node are formed in a second layer adjacent to the first layer. The capacitor also includes a shield capacitor portion having fourth conductive elements formed in at least first, second, third, and fourth layers. The shield capacitor portion is electrically connected to and forms a part of the second node of the capacitor and surrounds the first and third conductive elements.

Abstract: A capacitor in an integrated circuit (“IC”) has a first node conductor formed in a first metal layer of the IC with a first spine extending along a first direction, a first vertical element extending from the first spine along a second direction perpendicular to the first direction. A first capital element extends along the first direction, and a first serif element extends from the capital element. The capacitor also has a second node conductor having a second spine, a second vertical element extending from the second spine toward the first spine, a second capital element, and a second serif element extending from the second capital between the first vertical element and the first serif element.