Abstract: An apparatus is provided for auto-locating positions of a plurality of wireless sensors on a vehicle. The apparatus comprises a receiving unit for receiving signals from the plurality of wireless sensors. The apparatus further comprises a processing unit arranged to calculate a probability value for each one of the plurality of wireless sensors based upon signals that have accumulated over a period of time to provide a table of probability values. Each probability value contained in the table during a calculation cycle of the processing unit is indicative of likelihood of one of the plurality of wireless sensors being located at a corresponding one of a plurality of positions on the vehicle. Each one of the plurality of wireless sensors is associated with the position having the highest probability value during the calculation cycle.

Abstract: An apparatus is provided for auto-locating positions of a plurality of wireless sensors on a vehicle. The apparatus comprises a receiving unit for receiving signals from the plurality of wireless sensors. The apparatus further comprises a processing unit arranged to calculate a probability value for each one of the plurality of wireless sensors based upon signals that have accumulated over a period of time to provide a table of probability values. Each probability value contained in the table during a calculation cycle of the processing unit is indicative of likelihood of one of the plurality of wireless sensors being located at a corresponding one of a plurality of positions on the vehicle. Each one of the plurality of wireless sensors is associated with the position having the highest probability value during the calculation cycle.

Abstract: Various examples of a transmitting device with an antenna are disclosed. In one example, a transmitting device comprises a planar circuit board; a sensor mounted on the planar circuit board; a transmitter mounted on the planar circuit board and in communication with the sensor, the transmitter configured to periodically transmit signals containing a plurality of packets; and an antenna mounted on the planar circuit board and in electrical communication with the transmitter for transmitting the signals containing the plurality of packets. The antenna comprises a first end connected to the planar circuit board and a first support section; a meander line section connected to the first support section and a second support section and lying in a plane parallel with the circuit board; a second end connected to the second support section and an electrical ground.

Abstract: Various examples of a transmitting device with an antenna are disclosed. In one example, a transmitting device comprises a planar circuit board; a sensor mounted on the planar circuit board; a transmitter mounted on the planar circuit board and in communication with the sensor, the transmitter configured to periodically transmit signals containing a plurality of packets; and an antenna mounted on the planar circuit board and in electrical communication with the transmitter for transmitting the signals containing the plurality of packets. The antenna comprises a first end connected to the planar circuit board and a first support section; a meander line section connected to the first support section and a second support section and lying in a plane parallel with the circuit board; a second end connected to the second support section and an electrical ground.

Abstract: An improved Faraday cup array for determining the dose of ions delivered to a substrate during ion implantation and for monitoring the uniformity of the dose delivered to the substrate. The improved Faraday cup array incorporates a variable size ion beam aperture by changing only an insertable plate that defines the aperture without changing the position of the Faraday cups which are positioned for the operation of the largest ion beam aperture. The design enables the dose sensitivity range, typically 1011-1018 ions/cm2 to be extended to below 106 ions/cm2. The insertable plate/aperture arrangement is structurally simple and enables scaling to aperture areas between <1 cm2 and >750 cm2, and enables ultra-high vacuum (UHV) applications by incorporation of UHV-compatible materials.