33results about How to "Reduce and prevent interference" patented technology

A desk or table shield includes a clear face and two wings, is individually assignable, easily attached to a desk or table top, and include elbow openings preventing or reducing interference with arms during use. Clips are permanently attached to the desk or table top, and the shield engages and disengages from the clips to attach and detach from the desk or table. A template facilitates portioning the clips for attachment to the desk or table top. The wings are attached to the face by flexible hinges. Cable cutouts are provided for cabling. Carrying handles are provided by slots in the face and wings which align when the wings are folded against the face for carrying.

A method and apparatus for changing a frequency of a clock signal to avoid interference is disclosed. In one embodiment, data conveyed on a first interface is synchronized to a clock signal at a first frequency. Signals are conveyed on a second interface at another frequency. Responsive to a change of the frequency at which signals are conveyed on a second interface, a clock control unit associated with the first interface initiates a change of the clock signal to a second frequency. The second frequency may be chosen as to not cause interference with the frequency at which signals are conveyed on the second interface. The change of the clock frequency may be performed in such a manner as to prevent spurious activity on the clock line of the interface.

Provided is an interference control method that, in the case where a macro terminal does not exist close to the femtocell terminal, improves the coverage performance and bit rate of femtocell terminals, and also prevent deterioration in the performance of femtocell base stations, femtocell terminals, or macro terminals. In this method, the macro terminals (102, 103) will transmit, when the difference value between the RSRQs of the femtocell base stations (104) and the RSRQ of a macro base station (101) is greater than a prescribed threshold value, a request to start an interference control, the difference value, and identification information of the femtocell base station (104), to the macro base station (101). The macro base station (101) will transmit, on the basis of the request, the difference value, and identification information, an interference-control start-up request signaling to the femtocell base station (104) specified by the identification information. The femtocell base station (104) will conduct interference control, on the basis of the interference-control start-up request signaling, to femtocell terminals (105) registered with the femtocell base station (104).

Provided is a system for handling a semiconductor module, the system may include a rotor, a rotational driving device, at least one insertion portion, and at least one extraction portion. The rotor may be configured to rotate clockwise and counterclockwise around a rotation axis. The rotational driving device may be configured to rotate the rotor. The at least one insertion portion may be connected to the rotor and may be configured to insert a semiconductor module into a socket. The at least one extraction portion may be connected to the rotor and may be configured to extract the semiconductor module from the socket.

A method for providing a personalized bidirectional channel in broadcasting systems. In cellular broadcasting system the method contains the steps of: allocating a first group of subcarriers to broadcast transmission and a second group of subcarriers to personalized channels; reducing interference in the broadcast transmission by using equalizer; and reducing interference in the personalized channels by using controlled allocation of subcarriers in the second group to each subscriber. In OFDM broadcasting system the method contains the steps of: transmitting OFDM transmission from the base-station to the subscriber units; transmitting from the subscriber units to the base-station signals that are orthogonal to signals transmitted from the base-station; and receiving the orthogonal signals at the base-station.

An organic light emitting display device includes a substrate on which is included pixel columns extending in a column direction and adjacent to each other in a row direction, data lines extending in the column direction and adjacent to each other and between the pixel columns in the row direction, a power source line extending in the column direction, a scan line extending in the row direction, a switching transistor connected to the scan line and one of the data lines, a driving transistor connected to the switching transistor, an OLED connected to the driving transistor, and a storage capacitor including a first storage capacitor plate and a second storage capacitor plate overlapping the first storage capacitor plate in a thickness direction, connected to the power source line, and having a portion extending in the column direction between and not overlapping the data lines in the thickness direction.

An ATR-probe including: a housing having a media opening; a radiation guiding body closing the media opening and having two planparallel surfaces, between which light can be guided by means of total reflection. A section of a first planparallel surface bordered by a sealing ring can be contacted through the media opening with a medium to be measured. Transmission light conductors and receiving light conductors in the housing, wherein light is guided from the transmission light conductors, through the radiation guiding body, into the receiving light conductors; and wherein adjoining the first planparallel surface are first and second deflection surfaces, on which, respectively, light coupled into the radiation guiding body and light to be coupled out are deflected by total reflection, so that the light can be guided between the planparallel surfaces by means of total reflection. The light is not collimated, and the effective area of the transmission light conductors is smaller than the effective area of the receiving light conductors.

A display device including: a sensor device; a display module to display an image and having a first through-hole in which the sensor device is positioned; and a bottom panel cover on one surface of the display module and having a second through-hole in which the sensor device is positioned. The first through-hole has breadth that increases from the one surface of the display module toward another surface of the display module opposite to the one surface of the display module.

Disclosed is a display panel including: a liquid crystal layer; and a polarization-touch sensing layer stacked on one side of the liquid crystal layer, the polarization-touch sensing layer comprising: a plurality of wire grid areas configured to polarize incident light from a light source the wire grid areas including grid patterns configured to transmit a plurality of touch sensing signals; and a plurality of seam areas arranged in between the plurality of wire grid areas and including a conductive area configured to transmit the touch sensing signal between a pair of adjacent grid patterns, and a nonconductive area configured to block the plurality of touch sensing signals from being transmitted between the pair of grid patterns.

A phase shifter module includes a base material, a common terminal, and individual terminals, the common terminal and the individual terminals being provided at the base material. Inside the base material, phase shifters that are connected between the individual terminals and the common terminal, respectively, are provided. The phase shifters each include a primary coil and a secondary coil that is coupled to the primary coil by magnetic field coupling and define a transformer phase shifter. With this configuration, a phase shifter module for use with SAW filters while reducing or preventing interference among the SAW filters, a multiplexer / demultiplexer that includes the phase shifter module, and a communication apparatus that includes the phase shifter module, are obtained.