Abstract: An alignment nozzle jig for centering a coater photoresist arm that includes an alignment nozzle block. The alignment nozzle jig also includes an endoscope holder removably secured to a bottom of the alignment nozzle block, an endoscope, and an alignment mark removably coupled to the endoscope holder opposite the alignment nozzle block. The alignment nozzle jig is retrieved from a nozzle bath by the coater arm and transferred to a center of a chuck in an associated process chamber. Via the endoscope, the coater photoresist arm is aligned with the center of the chuck using the alignment mark.

Abstract: An alignment nozzle jig for centering a coater photoresist arm that includes an alignment nozzle block. The alignment nozzle jig also includes an endoscope holder removably secured to a bottom of the alignment nozzle block, an endoscope, and an alignment mark removably coupled to the endoscope holder opposite the alignment nozzle block. The alignment nozzle jig is retrieved from a nozzle bath by the coater arm and transferred to a center of a chuck in an associated process chamber. Via the endoscope, the coater photoresist arm is aligned with the center of the chuck using the alignment mark.

Abstract: In one example, an electronic device may include a housing having an opening and an antenna assembly disposed in the housing. The antenna assembly may include an antenna mounted to the housing, an antenna module disposed corresponding to the opening, and a cable to connect the antenna to the antenna module via routing the cable through the opening.

Abstract: Examples of devices having a quarter-wavelength antenna are described herein. In an example, a device may include a chassis and a quarter-wavelength antenna. The quarter-wavelength antenna includes a resonant path electrically connected the chassis.

Abstract: An alignment nozzle jig for centering a coater photoresist arm that includes an alignment nozzle block. The alignment nozzle jig also includes an endoscope holder removably secured to a bottom of the alignment nozzle block, an endoscope, and an alignment mark removably coupled to the endoscope holder opposite the alignment nozzle block. The alignment nozzle jig is retrieved from a nozzle bath by the coater arm and transferred to a center of a chuck in an associated process chamber. Via the endoscope, the coater photoresist arm is aligned with the center of the chuck using the alignment mark.

Abstract: Example electronic devices are disclosed. In an example, the electronic device includes a housing and an antenna disposed within the housing. The antenna includes a conductive element to send and receive signals in a first frequency band, and a grounding member coupled to the conductive element and comprising a slot. The grounding member is to send and receive signals in a second frequency band.

Abstract: An example device includes a conductive housing. The conductive housing has a slot containing a dielectric material. An antenna includes a resonating element disposed within the slot. A first connector is disposed within the slot. A second connector is disposed within the slot. The resonating element of the antenna is located between the first connector and the second connector.

Abstract: Dual band slot antenna is described. The dual band slot antenna includes a ground plane having a slot, a conductive patch, a dielectric substrate disposed between the conductive patch and the ground plane, and a coaxial cable fastened on the conductive patch to form a first loop region and a second loop region of different sizes for dual band operation.

Abstract: In one example, an electronic device may include a housing having an opening and an antenna assembly disposed in the housing. The antenna assembly may include an antenna mounted to the housing, an antenna module disposed corresponding to the opening, and a cable to connect the antenna to the antenna module via routing the cable through the opening.

Abstract: An example device includes a conductive housing. The conductive housing has a slot containing a dielectric material. An antenna includes a resonating element disposed within the slot. A first connector is disposed within the slot. A second connector is disposed within the slot. The resonating element of the antenna is located between the first connector and the second connector.

Abstract: An example discloses a slot antenna. The slot antenna includes: a cover including a slot; and an antenna PCB including a feeding line across the slot. The antenna PCB is coupled with the cover through a positive feeding terminal of the feeding line. The slot is closed at its one width side within the cover. A length of the feeding line is larger than a width of the slot.

Abstract: Dual band slot antenna is described. The dual band slot antenna includes a ground plane having a slot, a conductive patch, a dielectric substrate disposed between the conductive patch and the ground plane, and a coaxial cable fastened on the conductive patch to form a first loop region and a second loop region of different sizes for dual band operation.

Abstract: An example discloses a slot antenna. The slot antenna includes: a cover including a slot; and an antenna PCB including a feeding line across the slot. The antenna PCB is coupled with the cover through a positive feeding terminal of the feeding line. The slot is closed at its one width side within the cover. A length of the feeding line is larger than a width of the slot.

Abstract: A mobile device includes a ground element, a conductive bezel, a nonconductive layer, and a feeding element. The conductive bezel is substantially independent of the ground element. A slot is formed in the conductive bezel. The nonconductive layer is affixed to the conductive bezel and covers the slot of the conductive bezel. The feeding element is close to the slot of the conductive bezel and is coupled to a signal source. An antenna structure is formed by the feeding element and the slot.

Abstract: A mobile device includes an antenna, an ESD (Electrostatic Discharge) protection component, a plurality of branches, and a switch. The antenna is configured to transmit and receive an RF (Radio Frequency) signal. The branches provide different inductances or different capacitances, and are respectively coupled to a ground voltage terminal. The switch is coupled through the ESD protection component to the antenna, and switches between the branches according to a control signal such that the antenna is capable of operating in a plurality of frequency intervals. The ESD protection component is configured to protect the switch from being damaged.

Abstract: A mobile device includes a ground element, a conductive bezel, a nonconductive layer, and a feeding element. The conductive bezel is substantially independent of the ground element. A slot is formed in the conductive bezel. The nonconductive layer is affixed to the conductive bezel and covers the slot of the conductive bezel. The feeding element is close to the slot of the conductive bezel and is coupled to a signal source. An antenna structure is formed by the feeding element and the slot.

Abstract: A mobile device includes an antenna, an ESD (Electrostatic Discharge) protection component, a plurality of branches, and a switch. The antenna is configured to transmit and receive an RF (Radio Frequency) signal. The branches provide different inductances or different capacitances, and are respectively coupled to a ground voltage terminal. The switch is coupled through the ESD protection component to the antenna, and switches between the branches according to a control signal such that the antenna is capable of operating in a plurality of frequency intervals. The ESD protection component is configured to protect the switch from being damaged.

Abstract: An improved structure of a magnet coupled type white glass ball transmission, more particularly an improved music white glass ball structure, being a breakthrough in the prior art that can generate only a single transmission and has a turning axle going into the white glass ball, which may lead to water leakage and requires use of an anti-leakage ferrule. By utilizing magnet coupled type white glass ball transmission, a rotor inside the glass ball can cause a propeller to rotate without making a through hole, so that swirls can be generated in the glass ball to drive floating particles or tinsels therein, thus creating a very beautiful scene. The power generated by the magnetic field drives a speed reduction gear set which transmit it to a turning disk at a reduced speed so that an ornament on the turning disk can turn round and round. Hence, a double transmission structure without making a through hole in the glass ball can be achieved.