Abstract: A remote control is provided for controlling an electronic device, where the remote control includes a remote housing and a cradle. A strap is also provided for securing the remote control against an object. The remote housing is removably coupled to the cradle in a manner that allows the remote housing to rotate or be repositioned within the cradle such that the remote housing can remain in an upright position regardless of positioning of the remote control on the object.

Abstract: A fan with a rotatable fan housing is disclosed. The fan includes a base with right and left side supports and a fan housing that can rotate at least between 0 and 180 degrees relative to the base. A blower assembly within the fan housing produces an air stream, which exits the fan through a plurality of vertical vanes, which directs the air stream to blow vertically along the height of the fan housing. This design allows a user to feel more air along the vertical plane of the user's body, which is ideal in fitness and exercise contexts. The fan may also include a handle positioned around the fan housing's circumference for convenient adjustment and rotation.

Abstract: A method for dynamically controlling an electrical load of a recreational vehicle, including: defining predetermined load-shed levels, each load-shed level corresponding to a reduced electrical power output level supplied to electrically-powered devices; defining a device load-priority for each of the devices; receiving and processing battery data to determine a health of the battery; determining a total current draw on the battery when the recreational vehicle is operating; measuring an electrical output of a vehicle power-generation system; determining a load-shed level based on the determined health of the battery, current draw and electrical output of the power-generation system, the load-shed level corresponding to one of the predetermined load-shed levels; and selectively reducing electrical power supplied from the power-generation system or the battery to at least one of the electrically-powered devices based on the first load-shed level and the load-priority of the at least one electrical device.

Abstract: A polyester blend is made in a reaction of a linear polylactide resin and a thermoplastic epoxy group-containing polymer. The polyester blend is blended with a polyester having a glass transition temperature below 0C to form a polyester blend that is particular useful for making paperboard coatings in a melt extrusion process.

Abstract: A polyester blend is made in a reaction of a linear polylactide resin and a thermoplastic epoxy group-containing polymer. The polyester blend is blended with a polyester having a glass transition temperature below 0 C to form a polyester blend that is particular useful for making paperboard coatings in a melt extrusion process.