Abstract: A filter assembly comprises a housing, a filter element for filtering a fluid and positionable within the housing, and an expansion membrane assembly. The expansion membrane assembly fluidly separates and is positionable between the housing and the filter element. The membrane assembly extends along an inner surface, a top surface, and an outer surface of the housing.

Abstract: A filter assembly comprises a housing, a filter element for filtering a fluid and positionable within the housing, and an expansion membrane assembly. The expansion membrane assembly fluidly separates and is positionable between the housing and the filter element. The membrane assembly extends along an inner surface, a top surface, and an outer surface of the housing.

Abstract: A method is provided for generating a route among a plurality of waypoints. Methods may include: receiving an indication of an origin and a plurality of waypoints; initiating generation of competing routes from the origin to the plurality of waypoints; limiting generation of competing routes to a subset of the plurality of waypoints in response to at least one of the plurality of waypoints not in the subset of the plurality of waypoints requiring a route that is above a predefined routing cost; selecting a route from the origin to a waypoint of the subset of the plurality of waypoints; and providing route guidance along the selected route. Route cost may include one or more of travel time of the route, distance of the route, a bonus associated with a destination of the route, or a penalty associated with the destination of the route.

Abstract: Provided herein is a method, apparatus and computer program product for the generation of a route. In particular, the method may include receiving a plurality of trace points, where each of the plurality of trace points includes location information, receiving a distance tolerance value for each trace point, generating a first portion of a route using a first subset of the plurality of trace points, generating a second portion of the route using a second subset of the plurality of trace points, and concatenating the first portion of the route with the second portion of the route to generate a route. Generating the first portion of the route or the second portion of the route may optionally include removing a trace point that is less than a proximity tolerance distance away from a trace point immediately preceding the removed trace point in sequence.

Abstract: A method and a device for stringing together objects in transport systems, preferably in coating systems, for adjusting the distance between two objects, preferably substrates or substrate holders, being arranged one behind the other, wherein the front object moves at a process speed vp in the transport system and the rear object is at an undefined distance from the front object. The method comprises the following steps: (a) accelerating the rear substrate to an initial speed vx>vp; (b) detecting an increase in the driving torque when the rear substrate moves against the front substrate; (c) delaying the rear substrate by a predetermined value in order to establish a predetermined distance ap from the front substrate; and (d) adjusting the speed of the rear substrate to the process speed vp.

Abstract: A printing mechanism (10) has a plate cylinder (12) that supports a printing plate (18). A printing plate reference field (100) has a lowest reference field surface (101) lower than the printing plate (18) and a highest reference field surface (105) higher the printing plate in the printing motif region. A control unit can vary a distance between an impression cylinder (28) and the plate cylinder (12) for pressing a printing substrate against the printing plate (18) and can very a distance between an inking roller (20) and the printing plate (18). A first sensor (34) connected to the control unit determines a quality of a printed image of the printing plate reference field (100) on the printing substrate (30) and a second sensor (36) connected to the control unit determines a quality of a negative image of the printing plate reference field (100) on the inking roller (20).

Abstract: A device for cocking a weapon (11) having an axially movable actuating element (2) that can be coupled to a cocking element (11.1) on the weapon for the purpose of cocking the weapon (11) may include a control device (3) that couples the actuating element (2) to a safety locking element (11.2) on the weapon, whereby the weapon (11) is simultaneously made safe and is armed by actuation of the actuating element.

Abstract: A method and a device for stringing together objects in transport systems, preferably in coating systems, for adjusting the distance between two objects, preferably substrates or substrate holders, being arranged one behind the other, wherein the front object moves at a process speed vp in the transport system and the rear object is at an undefined distance from the front object. The method comprises the following steps: (a) accelerating the rear substrate to an initial speed vx>vp; (b) detecting an increase in the driving torque when the rear substrate moves against the front substrate; (c) delaying the rear substrate by a predetermined value in order to establish a predetermined distance ap from the front substrate; and (d) adjusting the speed of the rear substrate to the process speed vp.

Abstract: Provided herein is a method, apparatus and computer program product for the generation of a route. In particular, the method may include receiving a plurality of trace points, where each of the plurality of trace points includes location information, receiving a distance tolerance value for each trace point, generating a first portion of a route using a first subset of the plurality of trace points, generating a second portion of the route using a second subset of the plurality of trace points, and concatenating the first portion of the route with the second portion of the route to generate a route. Generating the first portion of the route or the second portion of the route may optionally include removing a trace point that is less than a proximity tolerance distance away from a trace point immediately preceding the removed trace point in sequence.

Abstract: A device for cocking a weapon (11) having an axially movable actuating element (2) that can be coupled to a cocking element (11.1) on the weapon for the purpose of cocking the weapon (11) may include a control device (3) that couples the actuating element (2) to a safety locking element (11.2) on the weapon, whereby the weapon (11) is simultaneously made safe and is armed by actuation of the actuating element.

Abstract: A mass label for labelling and detecting a biological molecule by mass spectroscopy, which label comprises the following structure: X-L-M wherein X is a mass marker moiety comprising the following group: formula (I), wherein the cyclic unit is aromatic or aliphatic and comprises from 0-3 double bonds independently between any two adjacent atoms; each Z is independently N, N(R1), C(R1), CO, CO(R1), C(R1)2, O or S; X is N, C or C(R1); each R1 is independently H, a substituted or unsubstituted straight or branched C1-C6 alkyl group, a substituted or unsubstituted aliphatic cyclic group, a substituted or unsubstituted aromatic group or a substituted or unsubstituted heterocyclic group; and y is an integer from 0-10, L is a cleavable linker comprising an amide bond and M is a mass normalization moiety.

Abstract: The invention relates to a method and a device for aligning substrates (2) in an XY-plane. A polygonal, flat substrate (2), the substrate plane of which is parallel to the XY-plane or lies in the XY-plane, is aligned with respect to reference coordinates and a reference angular position in the XY-plane. A corner (12) of the substrate (2) is detected using image detecting means (9). In addition, the position coordinates of the substrate (2) are determined. Using evaluating means (10), the angular position of the corner (12) of the substrate (2) in the XY-plane is determined, and the position differences between the reference coordinates and the position coordinates as well as the angle difference between the reference angular position and the angular position of the substrate corner (12) are calculated. The substrate (2) is moved and/or rotated in the XY-plane according to the determined position difference or the angle difference.

Abstract: An object (1) is identified based on the unique, characteristic, optical properties (10) before the object is processed in a facility (3). In addition, a clear identification is assigned to the object (1). All production data and process parameters for all facilities (3) through which the object (1) passes are stored together with the identification in an electronic data processing means (6). After the object (1) has passed through a facility (3), the object (1) can be identified again based on its unique, characteristic, optical properties (10). Thus, it can be examined whether the system for tracking the object (1) within a production facility (3) functions without errors. Alternatively, the new identification can also be used to assign a new identification to an object (1) for which the unique, characteristic, optical properties (10) have changed during the production process.

Abstract: A method for welding two metal parts from aluminum alloys with the steps: melting of the metal parts to be joined in a weld region through an energy input by means of a laser beam with the formation of a weld seam, smoothing the surface of the weld seam through a further energy input with partial melting of the weld seam in the region of the surface, wherein the further energy input is a defocused laser beam, of which the focal point is positioned in the beam direction in front of or behind the surface of the weld seam, wherein the defocused laser beam and the surface normal of a surface of the two metal parts to which the laser beam is applied, incorporate an angle of greater than or equal to 5 degrees, and a connecting arrangement welded with this method.

Abstract: A method for operating a first and a second electrical load or consumer in an alternating current network. The method can be operated in an optional first operating mode, in which the positive and negative half waves for each load are controlled with a first leading edge phase angle. In addition, a second operating mode is provided, in which a first part of the positive and negative half waves for the first load and a second part of the positive and negative half waves for the second load are controlled with respective second leading edge phase angles. Furthermore, a device for performing the method, having first and second leading edge phase-angle control for the first and second loads.

Abstract: A method for welding two metal parts from aluminium alloys with the steps: melting of the metal parts to be joined in a weld region through an energy input by means of a laser beam with the formation of a weld seam, smoothing the surface of the weld seam through a further energy input with partial melting of the weld seam in the region of the surface, wherein the further energy input is a defocused laser beam, of which the focal point is positioned in the beam direction in front of or behind the surface of the weld seam, wherein the defocused laser beam and the surface normal of a surface of the two metal parts to which the laser beam is applied, incorporate an angle of greater than or equal to 5 degrees, and a connecting arrangement welded with this method.

Abstract: A cooling device is provided having three storage zones that are insulated from each other and cooled via evaporators through which a coolant flows. A first coolant circuit extends through a first and a second of the three storage zones and a second coolant circuit positioned parallel to the first coolant circuit extends through the first and the third of the storage zones.

Abstract: A processing area of a structural component, such as a gas turbine component, is heated by irradiation with several laser sources prior to and/or during and/or after carrying out a processing such as a deposit welding or machining of the component on the processing area. For the heating, each laser source directs a respective energy beam onto the processing area, which respectively produces an energy spot on the processing area. The respective positions of the energy spots are static or quasi-static on the processing area. The energy spots jointly heat the processing area.

Abstract: The invention relates to a method and a device for aligning substrates (2) in an XY-plane. A polygonal, flat substrate (2), the substrate plane of which is parallel to the XY-plane or lies in the XY-plane, is aligned with respect to reference coordinates and a reference angular position in the XY-plane. A corner (12) of the substrate (2) is detected using image detecting means (9). In addition, the position coordinates of the substrate (2) are determined. Using evaluating means (10), the angular position of the corner (12) of the substrate (2) in the XY-plane is determined, and the position differences between the reference coordinates and the position coordinates as well as the angle difference between the reference angular position and the angular position of the substrate corner (12) are calculated. The substrate (2) is moved and/or rotated in the XY-plane according to the determined position difference or the angle difference.

Abstract: An object (1) is identified based on the unique, characteristic, optical properties (10) before the object is processed in a facility (3). In addition, a clear identification is assigned to the object (1). All production data and process parameters for all facilities (3) through which the object (1) passes are stored together with the identification in an electronic data processing means (6). After the object (1) has passed through a facility (3), the object (1) can be identified again based on its unique, characteristic, optical properties (10). Thus, it can be examined whether the system for tracking the object (1) within a production facility (3) functions without errors. Alternatively, the new identification can also be used to assign a new identification to an object (1) for which the unique, characteristic, optical properties (10) have changed during the production process.