Abstract: The present disclosure relates to a tunable waveguide filter arrangement (110) comprising a first filter port (111), a second filter port (112) and a plurality of cavities (113, 114, 115, 116) that are positioned between the first filter port (111) and the second filter port (112). The cavities are electrically interconnected by being arranged in a partly interleaved manner such that overlaps form iris openings (117, 118, 119) between the cavities (113, 114, 115, 116). The tunable waveguide filter arrangement (110) comprises a dielectric element (120, 121, 122, 123) for each cavity (113, 114, 115, 116), extending a certain adjustable protrusion distance (P) along its longitudinal extension (L) from a waveguide top (124) towards a waveguide bottom (125). A longitudinal center (L) of each dielectric element (120, 121, 122, 123) is positioned at a certain closest distance (d1, d2, d3, d4, d5, d6) from at least one adjacent iris opening (117, 118, 119).

Abstract: The present disclosure relates to an electrical filter arrangement including a transmitter port, a receiver port and an antenna port. The electrical filter arrangement further includes a transmitter filter connected to the first transmitter port and a receiver filter connected to the receiver port. The electrical filter arrangement further includes a four-port circulator device that is connected between the filters, the antenna port, and a termination impedance that is connected to ground. The circulator device is adapted to admit signals to pass from the transmitter filter to the antenna port, from the antenna port to the receiver filter, and from the receiver filter to the termination impedance.

Abstract: The present disclosure relates to an antenna arrangement including a first antenna configured to operate within a first frequency band and a planar layer having an oblong conducting structure attached thereon, the conducting structure being arranged within an illumination-field of the first antenna. Further including a plurality of capacitive strips arranged on opposing longitudinal portions of the planar layer extending along a length of the conducting structure, the longitudinal portions being separated by the conducting structure.

Abstract: An absorption sheet for absorbing power from an electromagnetic wave generated by a device under test includes a substrate and an array of absorption elements. Each absorption element includes a conductive portion and a resistive portion. A system for performing a radiation characterization includes the absorption sheet. A method of measuring a radiative near field of a device under test and a method of characterizing a radiative near field of a device under test are also disclosed.

Abstract: The present disclosure relates to oscillator arrangement comprising an output port adapted to output an output signal with an output frequency (fout), an in loop oscillator that is adapted for an in loop oscillator frequency (fosc) and an additional oscillator that is adapted for an additional oscillator frequency (foscA). The output frequency (fout): exceeds the in loop oscillator frequency (fosc) and the additional oscillator frequency (foscA), is dependent on both the in loop oscillator frequency (fosc) and the additional oscillator frequency (foscA), and is adapted to control the in loop oscillator frequency (fosc) via a feed-back loop.

Abstract: The present disclosure relates to an antenna arrangement including a first antenna configured to operate within a first frequency band and a planar layer having an oblong conducting structure attached thereon, the conducting structure being arranged within an illumination-field of the first antenna. Further including a plurality of capacitive strips arranged on opposing longitudinal portions of the planar layer extending along a length of the conducting structure, the longitudinal portions being separated by the conducting structure.

Abstract: An adaptable microwave radio transceiver system having a microwave radio transceiver and at least two waveguide adapters, where the microwave radio transceiver is adapted for at least two waveguide frequency bands and includes at least one radio port that includes a corresponding probe of a fixed length and extends via an inner insulating part in a bottom in the corresponding radio port. Each waveguide adapter has a first end facing the corresponding bottom where each first end includes a bottom wall with an outer insulating part through which the corresponding probe is adapted to protrude a protrusion distance. The protrusion distance is dependent on a thickness of the bottom wall, where at least two waveguide adapters have different thickness of the corresponding bottom wall, where any one of the waveguide adapters is exchangeably mountable to the radio port.

Abstract: An absorption sheet for absorbing power from an electromagnetic wave generated by a device under test includes a substrate and an array of absorption elements. Each absorption element includes a conductive portion and a resistive portion. A system for performing a radiation characterization includes the absorption sheet. A method of measuring a radiative near field of a device under test and a method of characterizing a radiative near field of a device under test are also disclosed.

Abstract: The present disclosure relates to oscillator arrangement comprising an output port adapted to output an output signal with an output frequency (fout), an in loop oscillator that is adapted for an in loop oscillator frequency (fosc) and an additional oscillator that is adapted for an additional oscillator frequency (foscA). The output frequency (fout); exceeds the in loop oscillator frequency (fosc) and the additional oscillator frequency (foscA), is dependent on both the in loop oscillator frequency (fosc) and the additional oscillator frequency (foscA), and is adapted to control the in loop oscillator frequency (fosc) via a feed-back loop.

Abstract: The present disclosure relates to an oscillator device (1, 1?, 1?, 1??) comprising an active circuit device (2, 2??), a circuit board (3) and a cavity resonator (4, 4?). The active circuit device (2, 2??) comprises an amplifier unit (5), and the circuit board (3) comprises a first main side (6) and a second main side (7), where the active circuit device (2, 2??) is mounted to the first main side (6). The cavity resonator (4, 4?) is positioned on the second main side (7). The oscillator device (1) further comprises at least one excitation via connection (8) that runs through the circuit board (3) and electrically connects the active circuit device (2, 2??) to an excitation structure (9) inside the cavity resonator (4, 4?).

Abstract: The present disclosure relates to an electrical filter arrangement including a transmitter port, a receiver port and an antenna port. The electrical filter arrangement further includes a transmitter filter connected to the first transmitter port and a receiver filter connected to the receiver port. The electrical filter arrangement further includes a four-port circulator device that is connected between the filters, the antenna port, and a termination impedance that is connected to ground. The circulator device is adapted to admit signals to pass from the transmitter filter to the antenna port, from the antenna port to the receiver filter, and from the receiver filter to the termination impedance.

Abstract: The present invention relates to a method and apparatus that employs an opening/closing mechanism for controlling temperature and humidity in an electrical enclosure. The electrical enclosure comprises a first and a second vent hole, wherein the second vent hole is further a drain hole. The vent holes both comprise an opening/closing mechanism that can be controlled based on sensor data obtained inside and/or outside the electrical enclosure.

Abstract: The present disclosure relates to a waveguide interface comprising a first waveguide aperture, provided in a first waveguide device, a second waveguide aperture, provided in a second waveguide device, and a waveguide connecting tube having a longitudinal extension and comprising waveguide walls and a connecting waveguide aperture for transfer of microwave signals. The waveguide connecting tube comprises a first end that is adapted to be at least partly inserted into the first waveguide aperture, and a second end that is adapted to be at least partly inserted into the second waveguide aperture, such that the first waveguide aperture and the second waveguide aperture are electrically connected via the waveguide connecting tube.

Abstract: The present disclosure relates to an electronic component package arrangement comprising an integrated circuit (IC), a metal carrier and at least one flexible conductor device. The IC has an IC mounting surface and the metal carrier has a carrier mounting surface with an area that exceeds an area of the IC mounting surface, where the mounting surfaces are mounted to each other. The flexible conductor device is placed between the IC and the metal carrier and comprises a metallization that is carried on a flexible dielectric carrier material. The metallization forms flexible conductor tracks to which the IC is electrically connected and lead from the IC to a position distanced from the metal carrier such that the flexible conductor tracks can be electrically connected to an external device.

Abstract: An absorption sheet for absorbing power from an electromagnetic wave generated by a device under test includes a substrate and an array of absorption elements. Each absorption element includes a conductive portion and a resistive portion. A system for performing a radiation characterization includes the absorption sheet. A method of measuring a radiative near field of a device under test and a method of characterizing a radiative near field of a device under test are also disclosed.

Abstract: A filter device for routing microwave/RF signals is disclosed comprising an antenna port and at least one filter unit. Each filter unit comprises a receiving port, a transmitting port, an antenna node; a circulator comprising first, second, and third ports; and a receiver branch from the receiving port to the first port. The receiver branch comprises a receiver filter having first and second ports. Each filter unit also comprises a transmitter branch, comprising a transmitter filter having first and second ports. Moreover, the third port of the circulator is coupled to the antenna node. Each filter unit further comprises at least one of a receiver isolator coupled to the receiver filter and the circulator, and a transmitter isolator coupled to the transmitter filter and the circulator.

Abstract: An adaptable microwave radio transceiver system having a microwave radio transceiver and at least two waveguide adapters, where the microwave radio transceiver is adapted for at least two waveguide frequency bands and includes at least one radio port that includes a corresponding probe of a fixed length and extends via an inner insulating part in a bottom in the corresponding radio port. Each waveguide adapter comprises has a first end facing the corresponding bottom where each first end includes a bottom wall with an outer insulating part through which the corresponding probe is adapted to protrude a protrusion distance. The protrusion distance is dependent on a thickness of the bottom wall, where at least two waveguide adapters have different thickness of the corresponding bottom wall, where any one of the waveguide adapters is exchangeably mountable to the radio port.

Abstract: The present disclosure relates to an oscillator device (1, 1?, 1?, 1??) comprising an active circuit device (2, 2??), a circuit board (3) and a cavity resonator (4, 4?). The active circuit device (2, 2??) comprises an amplifier unit (5), and the circuit board (3) comprises a first main side (6) and a 5 second main side (7), where the active circuit device (2, 2??) is mounted to the first main side (6). The cavity resonator (4, 4?) is positioned on the second main side (7). The oscillator device (1) further comprises at least one excitation via connection (8) that runs through the circuit board (3) and electrically connects the active circuit device (2, 2??) to an excitation structure (9) inside the cavity resonator (4, 4?).

Abstract: The present disclosure relates to a device (140) adapted for aligning a first directive antenna (101) in an alignment direction D1 towards a second antenna (102). The device is adapted to acquire measurement data regarding: ?—a first signal power (301) received from the second antenna (102) using a first effective antenna aperture (202) when the first directive antenna (101) is moved along an angular span (306) passing a desired alignment angle (307) along a certain direction (111, 112); and ?—a second signal power (302) received from the second antenna (102) using a second effective antenna aperture (203) when the first directive antenna (101) is moved along an angular span (306) passing a desired alignment angle (307) along a certain direction, the second effective antenna aperture (203) being smaller than the first effective antenna aperture (202).

Abstract: The present disclosure relates to a device (140) adapted for aligning a first directive antenna (101) in an alignment direction D1 towards a second antenna (102). The device is adapted to acquire measurement data regarding: ?—a first signal power (301) received from the second antenna (102) using a first effective antenna aperture (202) when the first directive antenna (101) is moved along an angular span (306) passing a desired alignment angle (307) along a certain direction (111, 112); and?—a second signal power (302) received from the second antenna (102) using a second effective antenna aperture (203) when the first directive antenna (101) is moved along an angular span (306) passing a desired alignment angle (307) along a certain direction, the second effective antenna aperture (203) being smaller than the first effective antenna aperture (202).