Abstract: A pharmacotherapeutic protocol enhancing neuro-restoration in the human brain for patients suffering with brain injuries and diseases, wherein the protocol comprises treating the patient with a combinatorial pharmacological composition comprising a pharmacologically effective amount of a first Neuroplasticity PA therapeutic agent exhibiting a mechanism of plasticity in at least one of Neurogenesis, Synaptogenesis, Remyelination, Angiogenesis, Bioenergetics, Inflammation and Apoptosis, and a pharmacologically effective amount of a second Neuroplasticity PA therapeutic agent exhibiting a mechanism of plasticity in at least one of Neurogenesis, Synaptogenesis, Remyelination, Angiogenesis, Bioenergetics, Inflammation and Apoptosis; wherein the mechanism of plasticity of the first Neuroplasticity PA therapeutic agent differs from the mechanism of plasticity of the second Neuroplasticity PA therapeutic agent. Combinatorial pharmacological composition are also disclosed.

Abstract: A mmWave antenna that has particular application to be used in a 5G radio. The antenna includes a RGB structure having a plurality of layers. The RGB structure includes a first via hole formed into the layers through one side of the RGB structure and filled with a first via and a second via hole formed into the layers through an opposite side of the RGB structure and filled with a second via, where the first and second vias are electrically coupled by an interconnect. Prepreg buildup layers are formed on the one side of the PCB structure and prepreg buildup layers are formed on the opposite side of the PCB structure. A beamforming IC is formed on the prepreg buildup layers on the one side of the PCB structure and an antenna radiating element is formed on the prepreg buildup layers on the opposite side of the PCB structure.

Abstract: A mmWave phased array antenna that has particular application to be used in a 5G radio. The antenna includes an enclosure and a RGB structure provided in the enclosure, where the RGB structure includes a plurality of layers having dielectric layers and conductive layers. The antenna also includes a plurality of radiating elements formed on one side of the RGB structure and a plurality of beamforming ICs formed on an opposite side of the RGB structure from the radiating elements, where gaps are defined between the beamforming ICs. A modular heatsink unit is removably coupled to the enclosure, and includes a heatsink, a plurality of pedestals thermally coupled thereto, where each pedestal is thermally coupled to one of the beamforming ICs, and a plurality of propagation suppressing elements, where a separate propagation suppressing clement is provided in each gap between the beamforming ICs.

Abstract: A mmWave antenna that has particular application to be used in a 5G radio. The antenna includes a thick copper power layer, a first prepreg layer formed on one side of the thick power layer, a signal layer formed on a side of the first prepreg layer opposite to the thick power layer, a second prepreg layer formed on a side of the signal layer opposite to the first prepreg layer and a thin copper power layer formed on a side of second prepreg layer opposite to the signal layer. Microvias extend through the first prepreg layer that electrically couple the thick copper layer to the signal layer and microvias extend through the second prepreg layer that electrically couple the thin copper layer to the signal layer, where the number of microvias extending through the first prepreg layer is less than the number of microvias extending through the second prepreg layer.

Abstract: A mmWave phased array antenna that has particular application to be used in a 5G radio. The antenna includes a PCB structure having a plurality of dielectric layers and conductive layers. A beamforming IC is formed on one side of the PCB structure and a patch antenna radiating element is formed at an opposite side of the PCB structure from the beamforming IC, where one of the dielectric layers is formed over the radiating element so that the radiating element is buried.

Abstract: A mmWave phased array antenna that has particular application to be used in a 5G radio. The antenna includes a RGB structure having a plurality of prepreg buildup layers including microvias on one side and on an opposite side. A plurality of beamforming ICs are formed on the prepreg buildup layers on the one side of the RGB structure and a plurality of horn antenna radiating element are formed on the prepreg buildup layers on the opposite side of the RGB structure, where each of the horn antenna radiating elements includes a feed structure formed in one of the prepreg buildup layers and a horn aperture extending from the feed structure and formed in a metal layer.

Abstract: An antenna backplane including a printed circuit board (PCB) having a first differential pair with a first conductor and a second conductor and a second differential pair with a third conductor and a fourth conductor. The first conductor is positioned a first distance from the second differential pair and the second conductor is positioned a second distance from the second differential pair of conductors, where the first distance is greater than the second distance. The third conductor is positioned the second distance from the first differential pair and the fourth conductor is positioned a third distance from the first differential pair, where the third distance is greater than the second distance. A phase-shifting series resonant circuit is coupled between the first conductor and the fourth conductor that provides approximately an odd-integer multiple of a 180 degree phase shift at a predetermined frequency.

Abstract: A printed circuit board (PCB), such as an antenna backplane, including a first conductor and a second conductor forming a differential pair, a first junction and a second junction connected to the first conductor and the second conductor, respectively, and a first impedance matching stub and a second impedance matching stub connected to the first conductor and the second conductor, respectively. The differential pair has a first impedance, the first junction and the second junction have a second impedance, and the first impedance matching stub and the second impedance matching stub match the second impedance to the first impedance. The PCB may have a connector that has differential pins joined to the first and second junctions, and the first impedance matching stub and the second impedance matching stub match an impedance of the junctions, pins, and a connector to the first impedance.

Abstract: A radome and a method for manufacturing same. A radome apparatus has a radome body having an aperture, a film covering the aperture, and a support installed into the aperture. The film and the support have a low loss at a desired operating frequency. The support provides backing, support, and rigidity for the film so that distortion of the film by weather conditions, such as wind, is reduced. Thus, the integrity of the RF transmission characteristics of the radome are preserved. The aperture, film, and support are in the boresight of an antenna and are large enough to accommodate a desired beam steering range. The radome body may be manufactured with the aperture and the film included therein by using an in-mold labeling process. The support may be installed in the aperture by a subsequent molding process.

Abstract: A radome and a method for manufacturing same. A radome apparatus has a radome body having an aperture, a film covering the aperture, and a support installed into the aperture. The film and the support have a low loss at a desired operating frequency. The support provides backing, support, and rigidity for the film so that distortion of the film by weather conditions, such as wind, is reduced. Thus, the integrity of the RF transmission characteristics of the radome are preserved. The aperture, film, and support are in the boresight of an antenna and are large enough to accommodate a desired beam steering range. The radome body may be manufactured with the aperture and the film included therein by using an in-mold labeling process. The support may be installed in the aperture by a subsequent molding process.

Abstract: A radome and a method for manufacturing same. A radome apparatus has a radome body having an aperture, a film covering the aperture, and a support installed into the aperture. The film and the support have a low loss at a desired operating frequency. The support provides backing, support, and rigidity for the film so that distortion of the film by weather conditions, such as wind, is reduced. Thus, the integrity of the RF transmission characteristics of the radome are preserved. The aperture, film, and support are in the boresight of an antenna and are large enough to accommodate a desired beam steering range. The radome body may be manufactured with the aperture and the film included therein by using an in-mold labeling process. The support may be installed in the aperture by a subsequent molding process.

Abstract: A radome and a method for manufacturing same. A radome apparatus (10) has a radome body (12) having an aperture (14), a film (16) covering the aperture, and a support (18) installed into the aperture. The film and the support have a low loss at a desired operating frequency. The support provides backing, support, and rigidity for the film so that distortion of the film by weather conditions, such as wind, is reduced. Thus, the integrity of the RF transmission characteristics of the radome are preserved. The aperture, film, and support are in the boresight of an antenna (20, 28) and are large enough to accommodate a desired beam steering range. The radome body may be manufactured with the aperture and the film included therein by using an in-mold labeling process. The support may be installed in the aperture by a subsequent molding process.

Abstract: Provided are compositions comprising a bacterial strain of the genus Bacteroides, for use in a method of increasing the microbiota diversity and/or inducing stability of the microbiota of a subject.

Abstract: A probiotic composition is provided comprising at least two isolated bacterial species or comprising a purified bacterial preparation comprising at least two bacterial species, wherein the at least two bacterial species are selected from the group consisting of Coprococcus catus, Eubacterium rectale, Alistipes putredinis, Barnesiella intestinihominis, Roseburia hominis, Dorea longicatena and Faecalibacterium prausnitzii. Also provided are specific isolated bacterial strains and use of the composition for treating frailty and/or inflammation related to aging in elderly subjects.

Abstract: A radome and a method for manufacturing same. A radome apparatus (10) has a radome body (12) having an aperture (14), a film (16) covering the aperture, and a support (18) installed into the aperture. The film and the support have a low loss at a desired operating frequency. The support provides backing, support, and rigidity for the film so that distortion of the film by weather conditions, such as wind, is reduced. Thus, the integrity of the RF transmission characteristics of the radome are preserved. The aperture, film, and support are in the boresight of an antenna (20, 28) and are large enough to accommodate a desired beam steering range. The radome body may be manufactured with the aperture and the film included therein by using an in-mold labeling process. The support may be installed in the aperture by a subsequent molding process.

Abstract: A radome and a method for manufacturing same. A radome apparatus has a radome body having an aperture, a film covering the aperture, and a support installed into the aperture. The film and the support have a low loss at a desired operating frequency. The support provides backing, support, and rigidity for the film so that distortion of the film by weather conditions, such as wind, is reduced. Thus, the integrity of the RF transmission characteristics of the radome are preserved. The aperture, film, and support are in the boresight of an antenna and are large enough to accommodate a desired beam steering range. The radome body may be manufactured with the aperture and the film included therein by using an in-mold labeling process. The support may be installed in the aperture by a subsequent molding process.

Abstract: A radome and a method for manufacturing same. A radome apparatus (10) has a radome body (12) having an aperture (14), a film (16) covering the aperture, and a support (18) installed into the aperture. The film and the support have a low loss at a desired operating frequency. The support provides backing, support, and rigidity for the film so that distortion of the film by weather conditions, such as wind, is reduced. Thus, the integrity of the RF transmission characteristics of the radome are preserved. The aperture, film, and support are in the boresight of an antenna (20, 28) and are large enough to accommodate a desired beam steering range. The radome body may be manufactured with the aperture and the film included therein by using an in-mold labeling process. The support may be installed in the aperture by a subsequent molding process.

Abstract: A radome and a method for manufacturing same. A radome apparatus (10) has a radome body (12) having an aperture (14), a film (16) covering the aperture, and a support (18) installed into the aperture. The film and the support have a low loss at a desired operating frequency. The support provides backing, support, and rigidity for the film so that distortion of the film by weather conditions, such as wind, is reduced. Thus, the integrity of the RF transmission characteristics of the radome are preserved. The aperture, film, and support are in the boresight of an antenna (20, 28) and are large enough to accommodate a desired beam steering range. The radome body may be manufactured with the aperture and the film included therein by using an in-mold labeling process. The support may be installed in the aperture by a subsequent molding process.

Abstract: The application provides new and improved methods for diagnosing BAM.

Abstract: The application provides new and improved methods for diagnosing IBS.