Abstract: Power sourcing equipment (“PSE”) can temporarily suspend or indefinitely disable powered devices (“PDs”) exhibiting faults for more efficient resource utilization and preservation of the PSE hardware. The PSE maintains a first counter for each connected PD that indicates a count of fault events detected for the PD. Upon detecting a count of fault events for a PD within a designated time period that exceeds a first threshold, the PSE suspends the PD and increments a second counter maintained for the PD that indicates how many times the PD has been suspended. The PSE suspends processing of/responding to communications received from the suspended PD for the duration of the suspension. Subsequent fault detection and suspension for the PD can continue until the suspension count of the PD exceeds a second threshold, which triggers disabling of the faulty PD by discontinuing processing of/responding to communications received from the PD indefinitely.

Abstract: Some examples relate to identifying components of a wireless local area network based on a geographical specification. In an example, a connection may be established between a client device and a wireless access point (WAP) in a wireless local area network (WLAN) comprising a plurality of WAPs. The client device may transmit a geographical specification to a range monitoring engine. The range monitoring engine may identify a component of the WLAN based on the geographical specification and a first set of geographical coordinates of the WAP acting as a reference point.

Abstract: Some examples relate to identifying components of a wireless local area network based on a geographical specification. In an example, a connection may be established between a client device and a wireless access point (WAP) in a wireless local area network (WLAN) comprising a plurality of WAPs. The client device may transmit a geographical specification to a range monitoring engine. The range monitoring engine may identify a component of the WLAN based on the geographical specification and a first set of geographical coordinates of the WAP acting as a reference point.

Abstract: A wind blade with a self-supporting structural framework, having multiple chord-wise members and one or more span-wise members is provided. Each of the multiple chord-wise members and the one or more span-wise members have an aerodynamic contour. The wind blade also comprises a fabric skin located over the self-supporting structural framework in a tensioned state to generate an aerodynamic surface, wherein the fabric skin is attached via multiple tensioning members to both the chord wise members and span wise members.

Abstract: A rotor blade for a wind turbine includes an internal support structure extending span-wise from a blade root to a blade tip. A plurality of ribs are fixed to and spaced along the internal support structure, with each rib extending in a generally chord-wise direction and having a generally aerodynamic blade contour. A plurality of chord-wise oriented fabric strips are affixed to the ribs in a tensioned state, wherein the fabric strips define an aerodynamic outer skin of the rotor blade.

Abstract: A wind blade with a self-supporting structural framework, having multiple chord-wise members and one or more span-wise members is provided. Each of the multiple chord-wise members and the one or more span-wise members have an aerodynamic contour. The wind blade also comprises a fabric skin located over the self-supporting structural framework in a tensioned state to generate an aerodynamic surface, wherein the fabric skin is attached via multiple tensioning members to both the chord wise members and span wise members.