Abstract: A rack assembly unit for mounting a control unit to a vehicle rack system is provided; a rack chassis and a tray are configured to receive the control unit for coupling to a vehicle system. The tray is movably coupled to the rack chassis at a coupling mechanism, which provides for movement of the tray relative to the rack chassis between open and closed positions. At the open position, the tray is spaced apart from rack chassis to facilitate user access to the tray and receiving the control unit therein. At the closed position, the tray is located fully inserted relative to the rack chassis and such that the control unit located in the tray is provided at a control unit operating position thermally coupled to a cold plate of a cooling system to provide for cooling of components of the control unit.

Abstract: An apparatus or system can act as a cooling device configured for cooling a plurality of high-power electronic components mounted on a circuit board. The apparatus includes a plurality of cooling plate assemblies, the cooling plate assemblies each including a cooling plate for mating to one of the high-power electronic components and an enclosure mounted to the cooling plate for defining a coolant transport path over at least part of a surface thereof. The apparatus further includes one or more flexible conduits that connect between the cooling plate assemblies for fluid communication between their respective coolant transport paths.

Abstract: A cooling device for cooling a plurality of electronic components mounted on a circuit board. The device includes a contact sheet shaped for conforming to the plurality of electronic components and comprising a mating face for mating against the plurality of electronic components and a cooled face. An enclosure is mounted to the cooled face and defines a coolant transport circuit for circulating coolant liquid therethrough. A coupling may be provided for biassing the mating face toward the plurality of electronic components.

Abstract: Vehicle power architecture including a plurality of functional blocks for implementing functions, a power supply input for receiving a direct current power supply, and an electric control unit, ECU. The ECU includes a control block for controlling the plurality of functional blocks to perform functions, and a plurality of power control switches, each being switchable under the control of the control block between a closed state where at least one respective functional block is connected to the power supply input and an open state where the at least one respective functional block is disconnected from the power supply input. The power control switches may be part of a power control module.

Abstract: A vehicle power architecture is disclosed that includes a plurality of functional blocks for implementing functions and a power supply input for receiving a power supply. The vehicle power architecture also includes an electronic control unit (ECU) comprising a plurality of power control switches, each being switchable between an open state where at least one of the functional blocks is disconnected from the power supply input and a closed state where the at least one functional block is connected to the power supply input. The vehicle power architecture further includes a trigger having a wake-up input for configuring the plurality of power control switches between the open state and the closed state.

Abstract: The present disclosure is directed a process for the electrolytic polishing of a metallic substrate, including the steps of (i) providing an electrolyte in an electrolytic cell having at least one electrode, (ii) disposing a metallic substrate as an anode in the electrolytic cell, (iii) applying a current at a voltage of 270 to 315 V from a power source between the at least one electrode and the metallic substrate, and (iv) immersing the metallic substrate in the electrolyte, wherein the electrolyte includes at least one acid compound, at least one fluoride compound, and at least one complexing agent.

Abstract: An electrolyte (EL) for the electrolytic polishing of a metallic substrate includes at least one fluoride compound (F) and/or one chloride compound (Cl), and at least one complexing agent (CA), wherein the electrolyte (EL) does not contain an acid compound that is not a complexing agent. Furthermore, a process for the electrolytic polishing of a metallic substrate wherein the electrolyte (EL) is applied is described.

Abstract: A method is provided for the nanostructuring and oxidation of a surface, which has an anodizable metal and/or an anodizable metal alloy, both being coated with an oxide layer, by way of a laser or particle radiation in an inert or reactive atmosphere and subsequent anodization. As a result, oxide nanostructures are formed on the entire surface, in titanium or titanium alloys in the form of nanotubes.

Abstract: An electrolyte (EL) for the electrolytic polishing of a metallic substrate includes at least one fluoride compound (F) and/or one chloride compound (Cl), and at least one complexing agent (CA), wherein the electrolyte (EL) does not contain an acid compound that is not a complexing agent. Furthermore, a process for the electrolytic polishing of a metallic substrate wherein the electrolyte (EL) is applied is described.

Abstract: A metal or ceramic component includes at least one multi-dimensionally structured connection portion, wherein the connection portion is intended for forming an adhesive bond to fiber-reinforced polymer laminate, and wherein the metal or ceramic component has a milliscale structure, in particular formed by anchoring elements, and a microscale structure on the connection portion and the anchoring elements, over which microscale structure an additional nanoscale structure is formed.

Abstract: An electrolyte (EL) for the electrolytic polishing of a metallic substrate includes at least one acid compound (A), at least one fluoride compound (F), and at least one complexing agent (CA). Furthermore, a process for the electrolytic polishing of a metallic substrate wherein the electrolyte (EL) including at least one acid compound (A), at least one fluoride compound (F), and at least one complexing agent (CA) is applied.

Abstract: An endoprosthesis has a surface area which comprises a metal, a metal alloy, a ceramic, a platic material or a fiber-reinforced plastic material, and is uninterruptedly covered with a tissue-inductive or anticoagulant coating, at least partially. The surface area to which the coating is applied has been provided prior to that application with nanostructures having a height and a width in the range of 5 to 999 nm. A method for producing the endoprosthesis provides an endoprosthesis having these features.

Abstract: A method is provided for the nanostructuring and oxidation of a surface, which has an anodizable metal and/or an anodizable metal alloy, both being coated with an oxide layer, by way of a laser or particle radiation in an inert or reactive atmosphere and subsequent anodization. As a result, oxide nanostructures are formed on the entire surface, in titanium or titanium alloys in the form of nanotubes.

Abstract: A method for producing a metal or metal alloy surface or metal oxide layer or metal alloy oxide layer on the surface of a workpiece having surface structures with dimensions in the sub-micrometer range, involves scanning the entire surface of the metal or of the metal alloy or of the metal or metal alloy oxide layer on the metal or the metal alloy on which the structures are to be produced and which are accessible to laser radiation one or more times by a pulsed laser beam in such a way that adjacent flecks of light of the laser beam adjoin one another without gaps or overlap one another and a specific region of a predetermined relation between method parameters is satisfied.

Abstract: A method for producing a chemically modified metal surface or metal alloy surface or metal oxide layer or metal alloy oxide layer on the surface of a workpiece, which surface or layer includes surface structures having dimensions in the sub-micrometer range. The method involves scanning, one or several times using a pulsed laser beam, the entire surface of the metal or metal alloy, or the metal oxide layer or metal alloy oxide layer on the metal or metal alloy, on which surface or layer the structures are to be produced and which is accessible to laser radiation. The scanning is performed in an atmosphere containing a gas or gas mixture that reacts with the surface, such that adjacent flecks of light of the laser beam adjoin each other without an interspace in between or overlap and a predetermined range of a defined relation between process parameters is satisfied.

Abstract: A method for producing an adhesion promoting layer on a surface of a titanium material involves introducing the surface into an aqueous alkaline solution of sodium hydroxide at a concentration in a range from 100 to 300 g/l, sodium tartrate at a concentration in a range from 20 to 200 g/l, methyl glycine diacetic acid trisodium at a concentration in a range from 5 g/l to 60 g/l, and pentasodium triphosphate at a concentration in a range from 2 g/l to 20 g/l. A voltage is applied between the solution and the titanium material for a predefined period of time, in order to produce the layer by anodic oxidation of the surface.

Abstract: The invention relates to a method for promoting the adhesion of a surface of a titanium material (5). In order to enable improved, in particular environmentally friendly, adhesion promotion of the surface, an adhesion promoting layer is applied, which comprises nanotubes (13) that include titanium dioxide (TiO2) and have diameters of 10 to 300 nm. The method also comprises applying an organic material to the adhesion promoting layer (11) with good adhesion.