Abstract: Apparatus, systems and techniques for using composite left and right handed (CRLH) metamaterial (MTM) structure antenna elements and arrays to provide radiation pattern shaping and beam switching.

Abstract: Techniques, antenna systems and apparatus based on composite right and left handed (CRLH) metamaterial (MTM) structures to couple CRLH MTM circuits to transistors to amplify signals in wireless RF receivers and transmitters.

Abstract: Techniques and apparatus based on metamaterial structures to achieve tunable operations of an antenna at different antenna frequencies.

Abstract: The invention relates to a box (1) for accommodating and laying optical waveguides and/or copper conductors, with the box (1) comprising at least one housing (10) and at least one cover (20), with the cover (20) being attached to the housing (10) such that it can pivot, with the cover (20) being attached to the housing (10) such that it can be detached, with the cover (20) having at least one receptacle for a pin element (90), with the housing (10) having at least one pin element (90), it being possible for the at least one pin element (90) to be held by means of the receptacle for a pin element (90), and it being possible for the at least one pin element (90) to be displaced parallel to a pivot axis relative to the holding element (80).

Abstract: Antennas for wireless communications based on metamaterial (MTM) structures to arrange one or more antenna sections of an MTM antenna away from one or more other antenna sections of the same MTM antenna so that the antenna sections of the MTM antenna are spatially distributed in a non-planar configuration to provide a compact structure adapted to fit to an allocated space or volume of a wireless communication device, such as a portable wireless communication device.

Abstract: An antenna is presented having a flared structure wherein charge is induced from one portion of the structure to another. The flared structure may be a V-shaped or other shaped element. The antenna includes at least one parasitic element to increase the gain of the antenna and extend the radiation pattern generated by the antenna in a given direction.

Abstract: Techniques and devices based on antenna structures with a MTM loading element.

Abstract: The invention relates to a fiber optic telecommunications module (100) comprising: a main housing portion (102) including a top wall (108), a bottom wall (110), a first transverse sidewall (106), a rear wall (112), an open front end (120), and an open second side (116), the main housing portion (102) including an optical component (130); a cover portion (104, 104a) coupled to the main housing portion (102) to close up the open second side (116) of the main housing portion (102) and keep the optical component (130) within the main housing portion (102); a first fiber optic adapter module (316) and a second fiber optic adapter module (316) removably coupled to the main housing portion (102) to close the open front end (120) of the main housing portion (102), the first and second fiber optic adapter modules (316) being provided in a stacked arrangement in a direction extending from the first transverse (106) sidewall toward the cover portion (104, 104a); wherein each of the first and second fiber optic adapter m

Abstract: The invention relates to a holder (1) for at least one cassette, with the holder (1) having at least one shaft holder (100), at least one shaft element (200, 250) and at least one cassette, with the at least one cassette being attached to the shaft element (200, 250) such that it can pivot about a pivoting axis, with the at least one shaft element (200, 250) being attached to the shaft holder (100), with the at least one shaft element (200, 250) having a guidance channel (212, 212a; 253, 253a; 254, 254a), with the guidance channel (212, 212a; 253, 253a; 254, 254a) running at least partially parallel to the pivoting axis, with the cassette having at least one element (515, 515a) for rotatable mounting, wherein at least one element (515, 515a) is mounted, for rotatable mounting, such that it can rotate on the at least one shaft element (200, 250).

Abstract: Antennas for wireless communications based on metamaterial (MTM) structures to arrange one or more antenna sections of an MTM antenna away from one or more other antenna sections of the same MTM antenna so that the antenna sections of the MTM antenna are spatially distributed in a non-planar configuration to provide a compact structure adapted to fit to an allocated space or volume of a wireless communication device, such as a portable wireless communication device.

Abstract: Disclosed is a carrier assembly for and a method of manufacturing an optical device. The method comprises providing a silicon substrate; attaching a number of optical dies on the silicon substrate to form an optical device carrier assembly; providing a corresponding number of through holes in the silicon substrate to permit the passage of light therethrough and further providing guide holes in the silicon substrate to present means for passive alignment of an external optical connection; and dicing the optical device carrier assembly to form individual optical devices. Preferably, the step of attaching a number of optical dies comprises using self-alignment of solder bumps using gaseous flux, the through holes are dry etched into the silicon substrate, and/or the volume between the optical die and silicon substrate is filled with a transparent polymer. Preferably, the transparent polymer is silicone rubber or epoxy.

Abstract: An automatic gain control circuit including a variable gain amplifier (11) adapted to receive a received signal (R) and to output an amplified signal (A) to an analog to digital converter (20), and a gain controller (12) which is connected to said variable gain amplifier (11) for receiving said amplified signal (A) and for controlling a gain of said variable gain amplifier (11). The gain controller (12) is adapted to determine an occurrence of a threshold event each time the amplified signal (A) has reached a predetermined threshold, decrease the gain of the variable gain amplifier (11) at each occurrence of a threshold event, measure a delay since the last threshold event, increase the gain of the variable gain amplifier (11) if the delay is greater than a delay specified value and if the gain of the variable gain amplifier (11) is not maximum.

Abstract: A potting material for an electronic component, an electronic component, and a process for positioning ferrites in an electronic material are disclosed. The potting material is formed by curing a mixture. The mixture includes an epoxy component, an organic amine hardener, a viscosity-controlling agent, and a silica. The potting material has a coefficient of thermal expansion between an inorganic ferrite coefficient of thermal expansion and an organic substrate coefficient of thermal expansion of the electronic component. The potting material includes a rigidity permitting via drilling by one or more of mechanical drilling and laser burning.

Abstract: Broadly speaking, disclosed is a carrier assembly for an optical device, the carrier assembly comprising in combination: a glass substrate with an optical die thereon; and a silicon carrier attached to the glass carrier. During manufacture, a number of optical dies can be attached on the glass substrate using self-alignment of AuSn solder bumps using gaseous flux at about 300 deg C. The glass carrier can be mounted to the silicon carrier to form an optical device carrier assembly comprising micromechanical guide holes to facilitate a optical fiber connection, using self-alignment of SnAg solder bumps using gaseous flux at about 250 deg C. Each individual optical device can be tested at a wafer scale. The resulting optical device assembly can be diced to form individual optical devices having a carrier assembly that exhibits the traits of both a silicon carrier and a glass carrier.