Abstract: A converged enclosure is provided. The converged enclosure comprises a base panel, a housing coupled with the base panel and a plurality of ports housed on a front surface of the housing. The plurality of ports is arranged in a plurality of rows such that each row has one or more ports. The one or more ports in each of the plurality of rows is inclined at a predefined row angle (R1, R2, R3, R4) from a vertical base axis such that the predefined row angle of each of the plurality of rows is different. The plurality of ports is arranged in a plurality of columns such that each column has one or more ports. The one or more ports in each of the plurality of columns is inclined at a predefined column angle (C1, C2, C3) from a horizontal base axis such that the predefined column angle of each of the plurality of columns is different.

Abstract: The present disclosure provides an optical fibre joint enclosure for providing housing to a plurality of optical fibres and a plurality of optical fibre cables. Further, the optical fibre joint enclosure includes a dome cover, a latch, a metal lock wire, a lock and a port assembly. Furthermore, the optical fibre joint enclosure includes a plurality of storage baskets. The plurality of storage baskets includes a first basket, a second basket and a third basket. The first basket is positioned on a first side inside the dome cover of the optical fibre joint enclosure. The second basket is positioned on a second side inside the dome cover of the optical fibre joint enclosure. The third basket is positioned in middle of the first basket and the second basket.

Abstract: A converged enclosure is provided. The converged enclosure comprises a base panel, a housing coupled with the base panel and a plurality of ports housed on a front surface of the housing. The plurality of ports is arranged in a plurality of rows such that each row has one or more ports. The one or more ports in each of the plurality of rows is inclined at a predefined row angle (R1, R2, R3, R4) from a vertical base axis such that the predefined row angle of each of the plurality of rows is different. The plurality of ports is arranged in a plurality of columns such that each column has one or more ports. The one or more ports in each of the plurality of columns is inclined at a predefined column angle (C1, C2, C3) from a horizontal base axis such that the predefined column angle of each of the plurality of columns is different.

Abstract: The present invention discloses an optical fibre cable clamping apparatus (100) for clamping an optical fibre cable attached to a base comprising an upper clamp member and a lower clamp member, a grooved fibre extension for placing optical fibre elements and two grooved strength member extensions formed in the upper clamp member and the lower clamp member. In particular, the two grooved strength member extension is coupled to attach two strength members.

Abstract: The present invention discloses an optical fibre cable clamping apparatus (100) for clamping an optical fibre cable attached to a base comprising an upper clamp member and a lower clamp member, a grooved fibre extension for placing optical fibre elements and two grooved strength member extensions formed in the upper clamp member and the lower clamp member. In particular, the two grooved strength member extension is coupled to attach two strength members.

Abstract: An optical fibre enclosure comprises a housing coupled with a base panel and a plurality of staggered ports housed on a front surface of the housing. In particular, the plurality of staggered ports is arranged in two or more columns and two or more rows such that the plurality of staggered ports in the two or more columns is aligned to one or more column axes and the plurality of staggered ports in adjacent rows is not aligned to one or more row axes creating a space at a lower portion of at least one of the two or more columns.

Abstract: The present disclosure provides an optical fibre joint enclosure for providing housing to a plurality of optical fibres and a plurality of optical fibre cables. Further, the optical fibre joint enclosure includes a dome cover, a latch, a metal lock wire, a lock and a port assembly. Furthermore, the optical fibre joint enclosure includes a plurality of storage baskets. The plurality of storage baskets includes a first basket, a second basket and a third basket. The first basket is positioned on a first side inside the dome cover of the optical fibre joint enclosure. The second basket is positioned on a second side inside the dome cover of the optical fibre joint enclosure. The third basket is positioned in middle of the first basket and the second basket.

Abstract: Compositions, devices, systems, and methods directed to concentrating solar power are disclosed. In certain aspects, the disclosure is directed to a heat storage material comprising a transformative alloy composition (internal core component) Al—B—Si—Fe/Al2O3—B2O3—SiO2—Fe3O4 embedded in a SiC outer coating.

Abstract: Compositions, devices, systems, and methods directed to concentrating solar power are disclosed. In certain aspects, the disclosure is directed to a heat storage material comprising a transformative alloy composition (internal core component) Al—B—Si—Fe/Al2O3—B2O3—SiO2—Fe3O4 embedded in a SiC outer coating.

Abstract: A connector includes a shield that supports a housing. The housing includes a tongue that extends in a mating region defined by the shield. The tongue includes grooves (which may be on both sides of the shield) that support a plurality of terminals. The grooves each include a retention feature that secures the terminal in the groove while allowing a mating terminal to engage the terminals in the grooves without first engage the tongue.

Abstract: A connector includes a shield that supports a housing. The housing includes a tongue that extends in a mating region defined by the shield. The tongue includes grooves (which may be on both sides of the shield) that support a plurality of terminals. The grooves each include a retention feature that secures the terminal in the groove while allowing a mating terminal to engage the terminals in the grooves without first engage the tongue.

Abstract: A card connector essentially includes an insulation body, a metal shell and an ejection lever. The insulation body includes a pair of two guide arms formed at two sides of the insulation body, a plurality of conductive terminals and an ejection apparatus formed at one of the two guide arms. The metal shell is engaged with the insulation body for receiving a card. The ejection lever is pivotally attached to an inner surface of the metal shell thereby forming a pivot mechanism, and operatively connected to the ejection apparatus such that the ejection lever rotates around the pivot mechanism when the ejection apparatus is actuated. The metal shell includes an integrally formed bulge protruding from the metal shell, and the bulge is formed in the vicinity of the pivot mechanism so as to reinforce the strength and rigidity of the metal shell.

Abstract: A card connector essentially includes an insulation body, a metal shell and an ejection lever. The insulation body includes a pair of two guide arms formed at two sides of the insulation body, a plurality of conductive terminals and an ejection apparatus formed at one of the two guide arms. The metal shell is engaged with the insulation body for receiving a card. The ejection lever is pivotally attached to an inner surface of the metal shell thereby forming a pivot mechanism, and operatively connected to the ejection apparatus such that the ejection lever rotates around the pivot mechanism when the ejection apparatus is actuated. The metal shell includes an integrally formed bulge protruding from the metal shell, and the bulge is formed in the vicinity of the pivot mechanism so as to reinforce the strength and rigidity of the metal shell.

Abstract: A method of forming a semiconductor structure comprising the steps of: providing a body of semiconductor material including at least one generally planar surface; forming a mesa having at least one generally vertical wall over the planar surface; forming a layer of material generally conformally over the mesa and the planar surface so as to form a vertical spacer on the vertical wall; forming a protective mask selectively on the upper portion of the vertical spacer; and using the protective mask to etch and remove the unmasked portions of the layer of material and the mesa while leaving the vertical spacer.The process is used to form an FET by forming a gate insulating layer underneath of the vertical spacer, the vertical spacer being selected to comprise a conductive gate material such as doped polysilicon. The vertical gate structure is then used as a mask to dope the source and drain regions.