Abstract: A smart antenna switching method is disclosed. Multiple wireless signal parameters of a wireless network environment are collected. Under a current operating phase, when a holding period of a to-be-switched antenna is 0, the qualities of wireless signals between an initial antenna and the to-be-switched antenna are compared according to the wireless signal parameters. When a comparing period of the to-be-switched antenna is 0, it is determined whether an antenna switching operation is performed. If the antenna switching operation is not performed, the next operating phase is served as the current operating phase. If the antenna switching operation is performed, a signal receiving-and-sending operating is switched from the to-be-switched antenna to the outdoor antenna or from the outdoor antenna to the to-be-switched antenna, and the previous operating phase is served as the current operating phase.

Abstract: A smart antenna switching method is disclosed. Multiple wireless signal parameters of a wireless network environment are collected. Under a current operating phase, when a holding period of a to-be-switched antenna is 0, the qualities of wireless signals between an initial antenna and the to-be-switched antenna are compared according to the wireless signal parameters. When a comparing period of the to-be-switched antenna is 0, it is determined whether an antenna switching operation is performed. If the antenna switching operation is not performed, the next operating phase is served as the current operating phase. If the antenna switching operation is performed, a signal receiving-and-sending operating is switched from the to-be-switched antenna to the outdoor antenna or from the outdoor antenna to the to-be-switched antenna, and the previous operating phase is served as the current operating phase.

Abstract: A method for providing better connecting signals is disclosed. Coordinates of multiple mobile terminals are obtained. Distances between a mobile Wi-Fi (MIFI) device and the mobile terminals are calculated according to received signal strength indicator (RSSI) values between the mobile terminals and the MIFI device, and a relative coordinate of the MIFI device is then calculated based on the distances. Unit vectors of the mobile terminals relative to the MIFI device are calculated according to the relative coordinate of the MIFI device and the coordinates of the mobile devices. Reference signal receiving power (RSRP) values of the mobile terminals are calculated and are multiplied by the unit vectors to obtain RSRP vectors of the mobile terminals. The RSRP vectors are added up to generate a position where the MIFI device moves to a base station.

Abstract: A smart antenna switching method is disclosed. Multiple wireless signal parameters of a wireless network environment are collected. Under a current operating phase, when a holding period of a to-be-switched antenna is 0, the qualities of wireless signals between an initial antenna and the to-be-switched antenna are compared according to the wireless signal parameters. When a comparing period of the to-be-switched antenna is 0, it is determined whether an antenna switching operation is performed. If the antenna switching operation is not performed, the next operating phase is served as the current operating phase. If the antenna switching operation is performed, a signal receiving-and-sending operating is switched from the to-be-switched antenna to the outdoor antenna or from the outdoor antenna to the to-be-switched antenna, and the previous operating phase is served as the current operating phase.

Abstract: A controlling method and a communication device are disclosed. The controlling method is applied to a communication device with a plurality of antennas. The controlling method includes the following operations: comparing a plurality of environmental parameters of the antennas in a comparison time interval to generate a determination result, wherein the determination result includes whether to switch the plurality of the antennas; adjusting the comparison time interval and a maintenance time interval according to the determination result; and transmitting or receiving wireless signals in the maintenance time interval. The controlling method and the communication device have the advantages of communication capability optimization and power saving.

Abstract: A controlling method and a communication device are disclosed. The controlling method is applied to a communication device with a plurality of antennas. The controlling method comprises: comparing a plurality of environmental parameters of the antennas in a comparison time interval to generate a determination result, wherein the determination result includes whether to switch the plurality of the antennas; adjusting the comparison time interval and a maintenance time interval according to the determination result; and transmitting or receiving wireless signals in the maintenance time interval. The controlling method and the communication device have the advantages of communication capability optimization and power saving.

Abstract: An upper extremity rehabilitation device includes: a base, a rotary shaft unit, a rotation drive unit, a brake unit, a linear move unit, a hand gripping assembly, a first and a second connecting rods. The rotary shaft unit is pivoted to the base. The rotation drive unit is disposed on the base and includes a drive portion connected to the first shaft portion. The brake unit includes an outer pipe disposed on the rotary shaft, and an inner pipe movably disposed in the outer pipe. The linear move unit includes a linear seat pivoted to the second shaft portion, and a linear platform movably disposed on the linear seat. The hand gripping assembly is disposed on the linear platform. The first connecting rod is pivoted to the brake unit. The second connecting rod is pivoted to the first connecting rod and the linear seat.