The present invention relates to an installation bracket (100), comprising a top plate unit (102) configured to be positioned at the top end of a tubular element (104), and a clamping device (106) coupled to the top plate unit (102); wherein the clamping device (106) is configured to be clamped against the inner wall (108) of the tubular element (104) thereby fixing the installation bracket (100) to the tubular element (104) in its clamping state.

A radio frequency assembly (100) is described. The radio frequency assembly (100) comprises a radio frequency unit (102) comprising at least one unit connection member (110, 112) and at least one antenna (168), a bracket (104) comprising at least one bracket connection member (114, 116), and, at least one fastening member (108, 170). At least one of said at least one unit connection member (110, 112) and said at least one bracket connection member (114, 116) is curved. Each unit connection member (110, 112) is configured to be connectable to a respective bracket connection member (114, 116) with use of the fastening member (108, 170).

A metrocell antenna includes a plurality of linear arrays of first frequency band radiating elements, a first enclosure that includes a first of the linear arrays of first frequency band radiating elements mounted therein, a second enclosure that includes a second of the linear arrays of first frequency band radiating elements mounted therein, a third of the linear arrays of first frequency band radiating elements mounted within one of the first and second enclosures, a first RF port that is mounted through the first enclosure and a first blind-mate connector that provides an electrical connection between the first enclosure and the second of the linear arrays of first frequency band radiating elements that is mounted in the second enclosure.

In one embodiment of the present disclosure, an antenna assembly includes a patch antenna array including an upper patch antenna layer, a lower patch antenna layer, and a spacer therebetween, wherein the spacer includes a plurality of apertures defined by cell walls, wherein the each aperture aligns with an upper patch antenna element and a lower patent antenna element from the patch antenna array.

Provided is a clamping apparatus, for an antenna, having a simpler structure and reduced in size by having mechanisms for rotating the antenna in the vertical direction and horizontal direction integrating into one.

To this end, the clamping apparatus for an antenna according to the present invention comprises: a tilting bracket connected to the antenna to support the antenna; a base bracket provided on a support pole and protruding toward the antenna; an integrating housing having the tilting bracket coupled thereto so as to rotate in the vertical direction and coupled to the base bracket so as to rotate in the horizontal direction; a tilt driving unit for rotating the tilting bracket in the vertical direction; and a rotation driving unit for rotating the integrating housing in the horizontal direction, wherein the tilt driving unit and rotation driving unit are disposed inside the integrating housing.

A streetlight-mountable small cell includes a housing having one or more external surfaces exposed to atmospheric conditions when the small cell is deployed on a streetlight. The small cell also includes one or more internal chambers formed in the housing, power supply circuitry, and cellular-band transceiver circuitry. A standardized connector is arranged to pass power to the power supply circuitry when the small cell housing is deployed on the streetlight. At least one antenna-containment structure visually appears integrated with the one or more external surfaces. Each antenna-containment structure is arranged to contain at least one antenna positioned external to the one or more internal chambers, and at least one sub-structure is arranged to route a signal conduit from the at least one antenna to the cellular-band transceiver circuitry.

A base station antenna including a substrate, a plurality of oscillators, a control assembly, and a dielectric plate is provided. The substrate includes a first surface and a second surface disposed opposite to the first surface. The plurality of oscillators are disposed on the first surface of the substrate. The control assembly is disposed on the second surface of the substrate and electrically connected to the plurality of oscillators. The dielectric plate is disposed corresponding to the first surface of the substrate, and the plurality of oscillators are disposed between the first surface and the dielectric plate. Through the above arrangement, the base station antenna can have lower construction cost and debugging labor cost, and can eliminate influences of an antenna cover on antenna radiation performance at the same time.

A mount for an antenna includes: a plurality of horizontal members; and a plurality of vertical members interconnected with the horizontal members, the vertical members configured and arranged for mounting of at least one antenna. At least one of the horizontal members and/or the vertical members has a cross-section that reduces drag under wind load.

A mounting assembly can include or use a pole attachment mount, first, second, and third arms, respectively including proximal ends that are respectively couplable to the pole attachment mount, the proximal end of the second arm located between the proximal ends of the first and third arms, a first face member, coupled to a distal end of the first arm and coupled to a distal end of the second arm and a second face member, coupled to a distal end of the third arm and coupled to a distal end of the second arm. Multiple mounting assemblies can he attached to a pole such as to provide a mounting surface for communications equipment and orienting the same such as to cover multiple azimuths around the pole.

A multi-antenna mounting device includes: a mounting member to which two or more antennas are fixable; and a tilt angle adjusting mechanism including an upper adjusting component and a lower adjusting component spaced apart along a length direction of the mounting member. The upper adjusting component includes a plurality of tilt angle adjusting holes arranged in a row, one end of the upper adjusting component is connectable to the mounting member, and the other end is connectable to a user's support pole with a fastening element extending through one of the tilt angle adjusting holes. When the fastening element extends through different tilt angle adjusting holes, the multi-antenna assembly has different mechanical tilt angles relative to the support pole. The lower adjusting component includes a first section and a second section. The second section has a predetermined length and the first section is pivotable relative to the second section.