Abstract: A mechanical seal assembly configured to be coupled to a rotating shaft of a machine, includes: rotating and stationary rings configured so that rotating ring rotates with the shaft and relative to the stationary ring; and a rotating ring drive ring that includes features formed at least on an outer surface thereof, the rotating drive ring configured to hold the rotating ring in a fixed relationship relative the rotating shaft. The features can increase the rotation of fluid near the seal when in operation.

Abstract: A flexible composite that can be set to become rigid or semi-rigid includes a first layer and a second layer opposing the first layer and separated from the first layer by a space. A fill material capable of setting to a rigid or semi-rigid solid is located in the space. A plurality of elements extend substantially into the space from the first layer and/or the second layer and which may pass through the opposing layer or join with other elements present in the space from an opposing layer, thereby forming linking elements for joining the layers together. The unset fill material is provided in the space at a pressure such that tension is applied one or more of the linking elements and to cause the first and/or second layers to bulge outwards relative to the longitudinal length of said one or more linking elements under tension.

Abstract: The present invention relates to a flexible composite that can be set to become rigid or semi-rigid, the composite comprising: a first layer; a second layer opposing the first layer and separated from the first layer by a space; a fill material located in the space between the first and second layers, which is capable of setting to a rigid or semi-rigid solid on the addition of a liquid, gas or radiation; a plurality of elements extending substantially into the space from the first layer and/or the second layer and which may pass through the opposing layer or join with other elements present in the space from an opposing layer, thereby forming linking elements for joining the layers together; and wherein the unset fill material is provided in the space at a pressure such that tension is applied one or more of the linking elements and to cause the first and/or second layers to bulge outwards relative to the longitudinal length of said one or more linking elements under tension.

Abstract: The present invention relates to a flexible composite that can be set to become rigid or semi-rigid, the composite comprising: a first layer; a second layer opposing the first layer and separated from the first layer by a space; a fill material located in the space between the first and second layers, which is capable of setting to a rigid or semi-rigid solid on the addition of a liquid, gas or radiation; a plurality of elements extending substantially into the space from the first layer and/or the second layer and which may pass through the opposing layer or join with other elements present in the space from an opposing layer, thereby forming linking elements for joining the layers together; and wherein the unset fill material is provided in the space at a pressure such that tension is applied one or more of the linking elements and to cause the first and/or second layers to bulge outwards relative to the longitudinal length of said one or more linking elements under tension.

Abstract: Systems and methods for controlling current or mitigating electromagnetic or radiation interference effects using a combination of a metal-oxide semiconductor field effect transistor (MOSFET) and junction field effect transistor (JFET) disposed perpendicularly and within a certain orientation to each other. An embodiment of the invention can be formed and operable for modulating current and/or voltage response or mitigating electromagnetic or radiation interference effects on the MOSFET by controlling a semi-conductive channel region (SCR) using an additional gate, e.g., JFET, disposed perpendicularly with respect to the MOSFET configured to generate an electromagnetic field into the MOSFET's semi-SCR. A control system for controlling operation is also provided to include automated systems including sensors as well as manually operated systems. Automated systems can include radiation sensors as well as other control systems such as radio frequency transmitter or receiver systems.

Abstract: Systems and methods for controlling current or mitigating electromagnetic or radiation interference effects using a combination of a metal-oxide semiconductor field effect transistor (MOSFET) and junction field effect transistor (JFET) disposed perpendicularly and within a certain orientation to each other. An embodiment of the invention can be formed and operable for modulating current and/or voltage response or mitigating electromagnetic or radiation interference effects on the MOSFET by controlling a semi-conductive channel region (SCR) using an additional gate, e.g., JFET, disposed perpendicularly with respect to the MOSFET configured to generate an electromagnetic field into the MOSFET's semi-SCR. A control system for controlling operation is also provided to include automated systems including sensors as well as manually operated systems. Automated systems can include radiation sensors as well as other control systems such as radio frequency transmitter or receiver systems.

Abstract: A liquid dispenser (100) having a chamber (102) configured to contain a liquid, the chamber (102) having a dispensing aperture (106), a liquid dispensing member (104) comprising a dispensing shaft (104A, 104B) disposed through the dispensing aperture (106), and a releasable latching mechanism, wherein the liquid dispensing member (104) is configured to move between a retracted position and an extended position in each of which the dispensing member (104) and the dispensing aperture (106) form a liquid-tight seal, the dispensing shaft (104A, 104B) is disposed through the dispensing aperture (106) in both the retracted position and the extended position, the liquid dispensing member (104) is configured to dispense a portion of liquid onto a liquid transfer portion (104B) of the dispensing shaft when the dispensing member (104) is extended towards the extended position and the liquid transfer portion is moved from inside the chamber (102) to outside the chamber (102), and the latching mechanism is configured to