Abstract:
The present invention is a sensor interface or network of interfaces that utilizes high-temperature electronics to operate at elevated temperatures for applications that include but are not limited to aircraft and automobile engines, vehicle frames, refineries, nuclear and chemical production plants, and in downhole drilling for petroleum and natural gas. The interface or network provide connectors for a variety of sensors with analog and digital outputs, and can in turn provide data to an automated electronic control system or a monitor. Because the sensor interface may be placed in so-called “hot zones” nearer to the sensors being monitored than other systems that use conventional electronics, the sensor interface can increase noise immunity, increase reliability, decrease cost, reduce weight, and increase space.
Abstract:
The present invention provides a sprinkler with both a reversing part-circle mode and a non-reversing full-circle mode. More specifically, the present invention provides a mechanism for disengaging sprinkler arc stops, allowing for a full circle, non-reversing watering pattern.
Abstract:
The present invention relates to a method of determining both pressures and temperatures in a high temperature environment. The present invention also relates to a method of determining temperatures about a pressure-sensing element using a bi-functional heater. In addition, the present invention preferably relates to a pressure sensor with the pressure-sensing element and a heating element both integrated into the sensor's packaging, preferably onto the diaphragm of the pressure sensor, and particularly to such a pressure sensor capable of operating at high or elevated temperatures, and even more particularly to such a pressure sensor wherein the heating element is capable of both heating, at least in part, the pressure-sensing element and monitoring the temperature of the application area. Preferably, the pressure-sensing element is formed from shape memory alloy (SMA) materials that can be used at high or elevated temperatures as a pressure sensor with high sensitivity.
Abstract:
A securement device uses a pedestal secured to a support structure and comprising an outer casing with securing brackets. A receiving area is proximate one end, A mid-brace is secured at both ends to the interior. A release bar is pivotally affixed at one end with the other end extending through the casing. A vertical sleeve is secured between the mid-brace and the partially open top and contains a receiving area and an open channel. A spring is placed within the vertical sleeve and a capture rod, having a wedged receiving area, retained within the sleeve, resting on the spring. A draw rod is permanently secured to the capture rod at one end and slideably connected to the release bar at the other end. A locking member has a locking rod pivotally connected to the mid-brace and a locking bar affixed at a right angle. A release rod is affixed to the locking bar and extends into the partially open first end. A spring bar maintains pressure on the locking rod. A mobility aid connector has an attachment bar with releasable attachment locks. A tongue unit has a receiving area at one end and is attached to a hinge at the other end. The hinge provides limited horizontal movement between the tongue and the attachment bar. A brace is secured to the mobility aid frame and has receiving areas which are positioned to receive the releasable attachment locks.
Abstract:
The present invention relates to a method of determining both pressures and temperatures in a high temperature environment. The present invention also relates to a method of determining temperatures about a pressure-sensing element using a bi-functional heater. In addition, the present invention preferably relates to a pressure sensor with the pressure-sensing element and a heating element both integrated into the sensor's packaging, preferably onto the diaphragm of the pressure sensor, and particularly to such a pressure sensor capable of operating at high or elevated temperatures, and even more particularly to such a pressure sensor wherein the heating element is capable of both heating, at least in part, the pressure-sensing element and monitoring the temperature of the application area. Preferably, the pressure-sensing element is formed from shape memory alloy (SMA) materials that can be used at high or elevated temperatures as a pressure sensor with high sensitivity.