Abstract: Systems and methods provide real-time shipping optimization recommendations for reducing the cost of shipping freight units in a shipment. System comprises a measurement system in communication with a computer system that comprises a client computer device in communication with a host computer system. The measurement system comprises multiple sensing devices to determine weight, dimensions, and other shipping parameters of the freight units in the shipment. The computer system computes a current shipping cost and density based on the shipping parameters. The computer system determines shipping recommendations including recommended adjustments to the shipping parameters that reduce the current shipping cost. The shipping recommendations are transmitted to the client computer device prior to loading the shipment onto a carrier vehicle for the shipment.

Abstract: Systems and methods provide real-time shipping optimization recommendations for reducing the cost of shipping freight units in a shipment. System comprises a measurement system in communication with a computer system that comprises a client computer device in communication with a host computer system. The measurement system comprises multiple sensing devices to determine weight, dimensions, and other shipping parameters of the freight units in the shipment. The computer system computes a current shipping cost and density based on the shipping parameters. The computer system determines shipping recommendations including recommended adjustments to the shipping parameters that reduce the current shipping cost. The shipping recommendations are transmitted to the client computer device prior to loading the shipment onto a carrier vehicle for the shipment.

Abstract: Systems and methods provide real-time shipping optimization recommendations for reducing the cost of shipping freight units in a shipment. System comprises a measurement system in communication with a computer system that comprises a client computer device in communication with a host computer system. The measurement system comprises multiple sensing devices to determine weight, dimensions, and other shipping parameters of the freight units in the shipment. The computer system computes a current shipping cost and density based on the shipping parameters. The computer system determines shipping recommendations including recommended adjustments to the shipping parameters that reduce the current shipping cost. The shipping recommendations are transmitted to the client computer device prior to loading the shipment onto a carrier vehicle for the shipment.

Abstract: The present disclosure relates to semiconductor structures and, more particularly, to differential silicide structures and methods of manufacture. The structure includes: a substrate; a gate structure comprising a silicided gate region; and source and drain regions adjacent to the gate structure and comprising S/D silicided regions having a differential thickness compared to the silicided gate region.

Abstract: The present disclosure relates to semiconductor structures and, more particularly, to differential silicide structures and methods of manufacture. The structure includes: a substrate; a gate structure comprising a silicided gate region; and source and drain regions adjacent to the gate structure and comprising S/D silicided regions having a differential thickness compared to the silicided gate region.

Abstract: Methods comprising forming a cobalt formation on an active feature of a semiconductor device, wherein the semiconductor device comprises an inactive feature above the cobalt formation; forming a cap on the cobalt formation; removing at least a portion of the inactive feature, wherein the cobalt formation is substantially not removed; forming a dielectric material above the cap; and forming a first contact to the cobalt formation. Systems configured to implement the methods. Semiconductor devices produced by the methods.

Abstract: Methods comprising forming a cobalt formation on an active feature of a semiconductor device, wherein the semiconductor device comprises an inactive feature above the cobalt formation; forming a cap on the cobalt formation; removing at least a portion of the inactive feature, wherein the cobalt formation is substantially not removed; forming a dielectric material above the cap; and forming a first contact to the cobalt formation. Systems configured to implement the methods. Semiconductor devices produced by the methods.

Abstract: Forming a contact is disclosed. A trench through an interlayer dielectric layer is opened down to a substrate. The interlayer dielectric layer is formed on the substrate such that the substrate is the bottom surface of the trench. A cleaning process of the trench is performed. The bottom surface of the trench is recessed. A trench contact epitaxial layer is formed in the trench. An oxide layer is formed on top of the trench contact epitaxial layer in the trench. A metal oxide layer is formed on top of the oxide layer in the trench. A metal contact is formed on top of the metal oxide layer, where the oxide layer and the metal oxide layer together form a dipole layer.

Abstract: Methods comprising forming a cobalt formation on an active feature of a semiconductor device, wherein the semiconductor device comprises an inactive feature above the cobalt formation; forming a cap on the cobalt formation; removing at least a portion of the inactive feature, wherein the cobalt formation is substantially not removed; forming a dielectric material above the cap; and forming a first contact to the cobalt formation. Systems configured to implement the methods. Semiconductor devices produced by the methods.

Abstract: Methods comprising forming a cobalt formation on an active feature of a semiconductor device, wherein the semiconductor device comprises an inactive feature above the cobalt formation; forming a cap on the cobalt formation; removing at least a portion of the inactive feature, wherein the cobalt formation is substantially not removed; forming a dielectric material above the cap; and forming a first contact to the cobalt formation. Systems configured to implement the methods. Semiconductor devices produced by the methods.

Abstract: A conductive source/drain contact is formed within a trench overlying a raised epitaxial source/drain junction. The conductive contact includes a conductive liner and a conductive fill material formed directly over the conductive liner. The conductive fill material is selected from a platinum group metal such as ruthenium. The conductive liner may be directionally deposited into the trench and is adapted to form a metal silicide in situ through a reaction with the epitaxial layer.

Abstract: A conductive source/drain contact is formed within a trench overlying a raised epitaxial source/drain junction. The conductive contact includes a conductive liner and a conductive fill material formed directly over the conductive liner. The conductive fill material is selected from a platinum group metal such as ruthenium. The conductive liner may be directionally deposited into the trench and is adapted to form a metal silicide in situ through a reaction with the epitaxial layer.

Abstract: A clothing pocket insert includes: an anchoring portion defining a longitudinal axis and configured to reside within a pocket of a torso garment; an arm extending from the anchoring portion transversely relative to the longitudinal axis; and a connecting portion connected to the arm and configured to couple with an electrical device.

Abstract: Forming a contact is disclosed. A trench through an interlayer dielectric layer is opened down to a substrate. The interlayer dielectric layer is formed on the substrate such that the substrate is the bottom surface of the trench. A cleaning process of the trench is performed. The bottom surface of the trench is recessed. A trench contact epitaxial layer is formed in the trench. An oxide layer is formed on top of the trench contact epitaxial layer in the trench. A metal oxide layer is formed on top of the oxide layer in the trench. A metal contact is formed on top of the metal oxide layer, where the oxide layer and the metal oxide layer together form a dipole layer.

Abstract: Forming a contact is disclosed. A trench through an interlayer dielectric layer is opened down to a substrate. The interlayer dielectric layer is formed on the substrate such that the substrate is the bottom surface of the trench. A cleaning process of the trench is performed. The bottom surface of the trench is recessed. A trench contact epitaxial layer is formed in the trench. An oxide layer is formed on top of the trench contact epitaxial layer in the trench. A metal oxide layer is formed on top of the oxide layer in the trench. A metal contact is formed on top of the metal oxide layer, where the oxide layer and the metal oxide layer together form a dipole layer.

Abstract: A FinFET device includes a plurality of spaced-apart trenches in a semiconducting substrate, the plurality of spaced-apart trenches at least partially defining a fin for the FinFET device, wherein the fin comprises a first semiconductor material. A first layer of insulating material is positioned above a bottom surface of each of the plurality of spaced-apart trenches and an etch stop layer is positioned above an upper surface of the first layer of insulating material in each of the plurality of spaced-apart trenches. A metal silicide region is positioned on at least all sidewall surfaces of the fin that extend above the upper surface of the etch stop layer.

Abstract: Disclosed herein are various FinFET semiconductor devices with improved source/drain resistance and various methods of making such devices. One illustrative device disclosed herein includes a plurality of spaced-apart trenches in a semiconducting substrate, wherein the trenches at least partially define a fin for the device, an etch stop layer positioned above a bottom surface of each of the trenches, and a metal silicide region formed on all exposed surfaces of the fin that are positioned above an upper surface of the etch stop layer.

Abstract: An MOSFET device having a Silicide layer of uniform thickness, and methods for its fabrication, are provided. One such method involves depositing a metal layer over wide and narrow contact trenches on the surface of a silicon semiconductor substrate. Upon formation of a uniformly thin amorphous intermixed alloy layer at the metal/silicon interface, the excess (unreacted) metal is removed. The device is annealed to facilitate the formation of a thin silicide layer on the substrate surface which exhibits uniform thickness at the bottoms of both wide and narrow contact trenches.

Abstract: Disclosed herein are various FinFET semiconductor devices with improved source/drain resistance and various methods of making such devices. One illustrative device disclosed herein includes a plurality of spaced-apart trenches in a semiconducting substrate, wherein the trenches at least partially define a fin for the device, an etch stop layer positioned above a bottom surface of each of the trenches, and a metal silicide region formed on all exposed surfaces of the fin that are positioned above an upper surface of the etch stop layer.

Abstract: An MOSFET device having a Silicide layer of uniform thickness, and methods for its fabrication, are provided. One such method involves depositing a metal layer over wide and narrow contact trenches on the surface of a silicon semiconductor substrate. Upon formation of a uniformly thin amorphous intermixed alloy layer at the metal/silicon interface, the excess (unreacted) metal is removed. The device is annealed to facilitate the formation of a thin silicide layer on the substrate surface which exhibits uniform thickness at the bottoms of both wide and narrow contact trenches.