Abstract: Aspects of the disclosure relate to a method for determining a location of a first device. The method comprises receiving, by the first device, at least one first signal from at least one second device. The method further comprises determining, by the first device, estimated first signal properties of at least one first signal. Also, the method comprises generating, by the first device, at least one second signal based on at least a portion of the estimated first signal properties. Further, the method comprises transmitting, by the first device, at least one second signal to at least one third device. In one or more embodiments, estimated second signal properties of at least one second signal are determined by at least one third device. In at least one embodiment, the location of the first device is determined by utilizing at least a portion of the estimated second signal properties.

Abstract: For global navigation satellite system (GNSS)-independent operation of auxiliary PNT systems, one or more ground stations of the auxiliary system have access to a non-GNSS source of precision timing. That source and known locations of the ground stations may be used to derive timing corrections to account for imperfect clocks in the satellites for non-purpose-built satellite systems being used for PNT. Crosslinks between satellites and/or propagation of timing correction through other ground stations are used to better control the timing and resulting precession of PNT in the PNT auxiliary system. The timing correction may be provided as a service to end users, other constellations, and/or other satellite operators.

Abstract: A computer apparatus comprising a computer chassis, a baseboard component disposed within the computer chassis and a computer module electronically coupled to the baseboard component is disclosed. A heat sink assembly is attached to the computer module to form a computer module heat sink assembly, wherein the heat sink assembly forms part of an integral exterior structure of the computer chassis. The chassis may comprise a compartment disposed through an exterior surface of the chassis for receiving the computer module heat sink assembly in mated fashion. The computer module heat sink assembly forms a water and air tight seal with the internal compartment of the chassis in mated fashion.

Abstract: A computer apparatus comprising a computer chassis, a baseboard component disposed within the computer chassis and a computer module electronically coupled to the baseboard component is disclosed. A heat sink assembly is attached to the computer module to form a computer module heat sink assembly, wherein the heat sink assembly forms part of an integral exterior structure of the computer chassis. The chassis may comprise a compartment disposed through an exterior surface of the chassis for receiving the computer module heat sink assembly in mated fashion. The computer module heat sink assembly forms a water and air tight seal with the internal compartment of the chassis in mated fashion.

Abstract: A stacking hard drive and backplane architecture allowing for systems with multiple hard drive configurations to be designed and produced while maintaining a standard common backplane between the various different end systems. An internal server assembly is internally arranged for vertical alignment of components enabling a dense architecture while effectively addressing thermal concerns and preventing components from overheating during use.

Abstract: A bipolar electrosurgical tool including a shaft to which active and return electrodes are mounted. The return electrode is mounted to the shaft and shaped to have an exposed surface that, in at least one direction has a substantially linear profile. A bore extends through the return electrode and opens into the portion of the exposed surface with the substantially linear profile. The active electrode is seated in the bore and extends forward from the exposed surface. A collar formed from electrically insulating material extends over the portion of the active electrode adjacent the return electrode. The collar extends both outwardly of the active electrode and forward of the exposed surface of the return electrode.