Abstract: The invention relates to a clamp slide rail mounting device for the reversible attachment of a mounting slide within a profile rail, where one or more objects can be attached to the mounting slide and the mounting slide can be guided within the profile rail. The mounting slide features a spring latching element with spring latching element depressions, which is placed within a groove with groove latch projections, where a rotation of the spring latching element around a spring latching element longitudinal axis causes the groove latch projections to engage form-fittingly into the spring latching element depressions.

Abstract: The invention relates to a clamp slide rail mounting device for the reversible attachment of a mounting slide within a profile rail, where one or more objects can be attached to the mounting slide and the mounting slide can be guided within the profile rail. The mounting slide features a spring latching element with spring latching element depressions, which is placed within a groove with groove latch projections, where a rotation of the spring latching element around a spring latching element longitudinal axis causes the groove latch projections to engage form-fittingly into the spring latching element depressions.

Abstract: Coating (210) deposited on a surface of a substrate (201) comprising a multi-layered film (216) consisting of a plurality of A-layers and a plurality of B-layers deposited alternating one on each other forming a A/B/A/B/A . . . architecture, the A-layers comprising aluminium chromium boron nitride and the B-layers comprising aluminium chromium nitride and not comprising boron, whereas the multi-layered film (216) comprises at least a first portion (216a) and a last portion (216c), wherein the average boron content in the first coating portion (216a) is higher than the average boron content in the last coating portion (216c), and both the first coating portion (216a) and the last coating portion (216c) exhibit inherent compressive stresses and wherein the inherent compressive stress in the first coating portion (216a) is lower than it in the last coating portion (216c).

Abstract: The invention relates to a heat sink (1) for an electric machine, which heat sink has at least one cooling channel (7), which adjoins an interior (3) surrounded by the heat sink (1). The heat sink (1) is characterized in that the heat sink (1) is designed as a single-piece plate (5) bent into a closed ring, in the case of which plate two opposite abutting surfaces (19, 21) are connected to each other in a fluid-tight manner in the region of a joint (17), wherein a plurality of closed channels (7) extend in the plate (5), which channels extend at an angle to the circumferential direction of the ring in such a way that adjacent channels (7) lead into each other in the region of the joint (17) and thus form a continuous, spiral channel, which extends in a plurality of spiral turns from an axially front end (22) to an axially rear end (24) of the annular heat sink (1).

Abstract: Laboratory equipment holder to mount and position glass flasks in a simple and secure manner. The laboratory equipment holder includes of a component on which at least one holding device is attached and both the component and also the holding device and the connection between the component and holding device can be mechanically loaded with at least one filled piece of laboratory equipment, and the component includes on one of its sides at least one recess. At least the end thereof within the component is embodied in an at least semicircular manner and at least the smallest diameter of the semicircular section of the recess is smaller than the largest diameter of the truncated conical neck of the piece of laboratory equipment and/or is smaller than the largest diameter of the beaded edge-like enlargement of the neck of the piece of laboratory equipment.

Abstract: The invention relates to a heat sink (1) for an electric machine, which heat sink has at least one cooling channel (7), which adjoins an interior (3) surrounded by the heat sink (1). The heat sink (1) is characterized in that the heat sink (1) is designed as a single-piece plate (5) bent into a closed ring, in the case of which plate two opposite abutting surfaces (19, 21) are connected to each other in a fluid-tight manner in the region of a joint (17), wherein a plurality of closed channels (7) extend in the plate (5), which channels extend at an angle to the circumferential direction of the ring in such a way that adjacent channels (7) lead into each other in the region of the joint (17) and thus form a continuous, spiral channel, which extends in a plurality of spiral turns from an axially front end (22) to an axially rear end (24) of the annular heat sink (1).

Abstract: A coated product having coating that includes a layer of hard material having a defined multi-ply layer structure, thereby significantly minimizing or preventing heat input into the coated substrate resulting from the effect of thermal hot spots.

Abstract: Coating (210) deposited on a surface of a substrate (201) comprising a multi-layered film (216) consisting of a plurality of A-layers and a plurality of B-layers deposited alternating one on each other forming a A/B/A/B/A . . . architecture, the A-layers comprising aluminium chromium boron nitride and the B-layers comprising aluminium chromium nitride and not comprising boron, whereas the multi-layered film (216) comprises at least a first portion (216a) and a last portion (216c), wherein the average boron content in the first coating portion (216a) is higher than the average boron content in the last coating portion (216c), and both the first coating portion (216a) and the last coating portion (216c) exhibit inherent compressive stresses and wherein the inherent compressive stress in the first coating portion (216a) is lower than it in the last coating portion (216c).

Abstract: A hard material layer system with a multilayer structure, comprising alternating layers A and B, with A layers having the composition MeApAOnANmA in atomic percent and B layers having the composition MeBpBOnBNmB in atomic percent, where the thermal conductivity of the A layers is greater than the thermal conductivity of the B layers. MeA and MeB each comprise at least one metal of the group Ti, Zr, Hf, V, Nb, Ta, Cr, Mo, W, and Al, pA indicates the atomic percentage of MeA and pB indicates the atomic percentage of MeB and the following is true: PA=PB, nA indicates the oxygen concentration in the A layers in atomic percent and nB indicates the oxygen concentration in the B layers in atomic percent and the following is true: nA<nB, and mA indicates the nitrogen concentration in the A layers in atomic percent and mB indicates the nitrogen concentration in the B layers in atomic percent and the following is true: pA/(nA+mA)=pB/(nB+mB).

Abstract: The invention relates to a method for producing an electrically conductive connection between a copper component 23, 23a and an aluminum component 24 by means of cold metal transfer welding, in which a welding wire is periodically moved back and forth from the material of a component to be welded.

Abstract: A coated product having coating that includes a layer of hard material having a defined multi-ply layer structure, thereby significantly minimizing or preventing heat input into the coated substrate resulting from the effect of thermal hot spots.

Abstract: The present invention relates to a coating system comprising at least one multi-layered film formed of alternated A- and B-nanolayers deposited one on each other characterized in that the A-nanolayers contain essentially aluminum chromium boron nitride and the B-nanolayers contain essentially aluminum chromium nitride.

Abstract: A hard material layer system with a multilayer structure, comprising alternating layers A and B, with A layers having the composition MeApAOANmA in atomic percent and B layers having the composition MeBpBOnBNmB in atomic percent, where the thermal conductivity of the A layers is greater than the thermal conductivity of the B layers. MeA and MeB each comprise at least one metal of the group Ti, Zr, Hf, V, Nb, Ta, Cr, Mo, W, and Al, pA indicates the atomic percentage of MeA and pB indicates the atomic percentage of MeB and the following is true: PA=PB, nA indicates the oxygen concentration in the A layers in atomic percent and nB indicates the oxygen concentration in the B layers in atomic percent and the following is true: nA<nB, and mA indicates the nitrogen concentration in the A layers in atomic percent and mB indicates the nitrogen concentration in the B layers in atomic percent and the following is true: pA/(nA+mA)=pB/(nB+mB).

Abstract: The present invention relates to a coating system comprising at least one multi-layered film formed of alternated A- and B-nanolayers deposited one on each other characterized in that the A-nanolayers contain essentially aluminium chromium boron nitride and the B-nanolayers contain essentially aluminium chromium nitride.

Abstract: A system, method and computer program for managing resources within an integrated development environment for multiple users. The resources include both content resources and people resources. The method comprises: managing a plurality of nodes representing resources, the nodes including content nodes and person nodes, wherein the node contains a resource reference for referencing the resource; managing one or more links representing one or more relationships between the resources, the links including links between content nodes, between person nodes and between content and person nodes, each link comprising node references to identify the nodes in the relationships and an importance value to identify the importance of the relationship; providing an interface for selecting one of the plurality of content nodes or person nodes; adapting, in response to the user selected node, one or more importance values of certain links.

Abstract: A method is provided for managing resources within an integrated development environment for multiple users. The resources include both content resources and people resources. The method comprises managing a plurality of nodes representing resources. The nodes include content nodes and person nodes. The node contains a resource reference for referencing the resource. The method comprises managing one or more links representing one or more relationships between the resources. Each link comprises node references to identify the nodes in the relationships and an importance value to identify the importance of the relationship. The method further comprises providing an interface for selecting one of the plurality of content nodes or person nodes and estimating, in response to a selected nodes, a node having a likelihood of subsequent selection based on the importance value of its link to the selected nodes. The method comprises providing an interface for selecting said estimated node.

Abstract: A system, method and computer program for managing resources within an integrated development environment for multiple users. The resources include both content resources and people resources. The method comprises: managing a plurality of nodes representing resources, said nodes including content nodes and person nodes, wherein the node contains a resource reference for referencing the resource; managing one or more links representing one or more relationships between the resources, said links including links between content nodes, between person nodes and between content and person nodes, each link comprising node references to identify the nodes in the relationships and an importance value to identify the importance of the relationship; providing an interface for selecting one of the plurality of content nodes or person nodes; adapting, in response to the user selected node, one or more importance values of certain links.

Abstract: A system, method and computer program for managing resources within an integrated development environment for multiple users. The resources include both content resources and people resources.

Abstract: A system, method and computer program for managing resources within an integrated development environment for multiple users. The resources include both content resources and people resources.