Abstract: Involved is an isolated antigen binding protein, being capable of binding CCR8 derived from a primate animal. Further involved are a pharmaceutical composition comprising the antigen binding protein, and an application of the antigen binding protein and/or the pharmaceutical composition in the prevention and/or treatment of a tumor or a cancer.

Abstract: The present disclosure provides a head-mounted display device, including a head-mounted part and a display part. The head-mounted display device further includes a rotation connecting assembly respectively connected to the head-mounted part and the display part, and configured to make the display part rotatable in a direction toward or away from a user face relative to the head-mounted part.

Abstract: The present disclosure provides a head-mounted display device, including a head-mounted part and a display part. The head-mounted display device further includes a rotation connecting assembly respectively connected to the head-mounted part and the display part, and configured to make the display part rotatable in a direction toward or away from a user face relative to the head-mounted part.

Abstract: A coaxial cable connector splice including a central conductor extending between opposed ends and an insulating structure interposed between the central conductor and an outer body.

Abstract: An insertion and extraction structure, an eyewear and an electronic device are provided. The insertion and extraction structure includes a main machine assembly and a support assembly, the support assembly includes a fixing member, the main machine assembly includes a first connector, the fixing member includes a second connector, and the main machine assembly is configured to be inserted into or extracted from the fixing member by cooperation between the first connector and the second connector; the first connector includes a first limiter portion, the fixing member includes a second limiter portion, and the first limiter portion is configured to cooperate with the second limiter portion so that the main machine assembly and the fixing member are positionally limited and are fixed in a situation where the main machine assembly is fixed by being inserted into the fixing member.

Abstract: A coaxial cable connector splice including a central conductor extending between opposed ends and an insulating structure interposed between the central conductor and an outer body.

Abstract: A coaxial cable connector splice including a central conductor extending between opposed ends and an insulating structure interposed between the central conductor and an outer body.

Abstract: A coaxial cable connector splice including a central conductor extending between opposed ends and an insulating structure interposed between the central conductor and an outer body.

Abstract: A coaxial cable connector splice including a central conductor extending between opposed ends and an insulating structure interposed between the central conductor and an outer body.

Abstract: An electromagnetic signal transport and distribution system and method provides for aggregating signals from multiple transport media and for distributing the signals to multiple end points in one or multiple formats to suit end user devices.

Abstract: A coaxial cable connector splice including a central conductor extending between opposed ends and an insulating structure interposed between the central conductor and an outer body.

Abstract: A coaxial cable connector splice including a central conductor extending between opposed ends and an insulating structure interposed between the central conductor and an outer body.

Abstract: An electromagnetic signal transport and distribution system and method provides for aggregating signals from multiple transport media and for distributing the signals to multiple end points in one or multiple formats to suit end user devices.

Abstract: A coaxial cable connector splice including a central conductor extending between opposed ends and an insulating structure interposed between the central conductor and an outer body.

Abstract: Substantially defect-free titanium aluminide components and methods are provided for manufacturing the same from articles formed by consolidation processes. The method includes providing an intermediate article comprised of a titanium aluminide alloy and formed by a consolidation process. The intermediate article is encapsulated with an aluminum-containing encapsulation layer. The intermediate article is compacted after the encapsulation step. A substantially defect-free titanium aluminide component comprises a compacted three-dimensional article comprised of titanium aluminide and formed by a consolidation process and an aluminum-containing encapsulation layer on at least one surface of the compacted three-dimensional article. The aluminum-containing encapsulation layer comprises an aluminide material, MCrAlY wherein M is cobalt, nickel, or a combination of cobalt and nickel, or TiAlCr.

Abstract: A coaxial cable connector including a body circuit borne by a non-conducting body substrate.

Abstract: A ground loop isolator for a coaxial cable, for example that blocks DC current but which allows a desired band of RF through the ground loop isolator, and which is small enough to fit in the areas where coupling of the desired electronic equipment is to occur. Embodiments may include an outer area allowing for easier manual coupling of the coaxial cable connector nut to electronic devices.

Abstract: A method is provided that includes depositing metal powder over a seed crystal having a predetermined primary orientation, scanning an initial pattern into the metal powder to melt or sinter the deposited metal powder, and re-scanning the initial pattern to re-melt the scanned metal powder and form an initial layer having the predetermined primary orientation. The method further includes depositing additional metal powder over the initial layer, scanning an additional pattern into the additional metal powder to melt or sinter at least a portion of the additional metal powder, re-scanning the additional pattern to re-melt a portion of the initial layer and the scanned deposited additional metal powder to form a successive layer having the predetermined primary orientation, and repeating the steps of depositing additional metal powder, scanning the additional pattern, and re-scanning the additional pattern, until a final shape of the component is achieved.

Abstract: Platinum-modified nickel-based superalloys and turbine engine components are provided. The platinum-modified nickel-based superalloy includes, by weight, aluminum, in a range of about 7.8 percent to about 8.2 percent, tantalum, in a range of about 5.0 percent to about 6.0 percent, rhenium, in a range of about 1.6 percent to about 2.0 percent, platinum, in a range of about 0.8 percent to about 1.4 percent, hafnium, in a range of about 0.20 percent to about 0.40 percent, silicon, in a range of about 0.30 percent to about 0.60 percent, about 0.02 percent carbon, about 0.01 percent boron, and a balance of nickel. The platinum-modified a nickel-based superalloy may also include, by weight, chromium in a range of about 4.0 percent to about 5.0 percent.

Abstract: Substantially defect-free titanium aluminide components and methods are provided for manufacturing the same from articles formed by consolidation processes. The method includes providing an intermediate article comprised of a titanium aluminide alloy and formed by a consolidation process. The intermediate article is encapsulated with an aluminum-containing encapsulation layer. The intermediate article is compacted after the encapsulation step. A substantially defect-free titanium aluminide component comprises a compacted three-dimensional article comprised of titanium aluminide and formed by a consolidation process and an aluminum-containing encapsulation layer on at least one surface of the compacted three-dimensional article. The aluminum-containing encapsulation layer comprises an aluminide material, MCrAlY wherein M is cobalt, nickel, or a combination of cobalt and nickel, or TiAlCr.