mhurhangee/ep-ind-claims huggingface dataset:
An inkjet printer comprising a vacuum table and an air-permeable media-support-layer, positioned on top of the vacuum table; - wherein the vacuum table comprises a plurality of cavity rooms, connected to a vacuum source, for forming a plurality of vacuum zones on the air-permeable media-support-layer; and - wherein each cavity room of the plurality of cavity rooms is closed by an air-permeable part of the air-permeable media-support-layer for forming a vacuum zone of the plurality of vacuum zones; and - wherein each cavity room of the plurality of cavity rooms comprises: a) a space, formed by a set of walls; and b) a bottom layer comprising a set of air-channels; and - wherein ratio of width to length of the minimum bounding box of the area formed by the set of walls is between 1:1 and 2:5; and - wherein each air-permeable part that closes a cavity room of the plurality of cavity rooms comprises a plurality of air-channels which are characterized that the sum of areas of the plurality of air-channels is equal or bigger than the sum of areas of the set of air-channels; and - wherein the sum of areas of the set of air-channels is smaller than the sum of areas of all air-channels which connect the set of air-channels with the vacuum source. - wherein the vacuum table comprises a plurality of cavity rooms, connected to a vacuum source, for forming a plurality of vacuum zones on the air-permeable media-support-layer; and - wherein each cavity room of the plurality of cavity rooms is closed by an air-permeable part of the air-permeable media-support-layer for forming a vacuum zone of the plurality of vacuum zones; and - wherein each cavity room of the plurality of cavity rooms comprises: a) a space, formed by a set of walls; and b) a bottom layer comprising a set of air-channels; and a) a space, formed by a set of walls; and b) a bottom layer comprising a set of air-channels; and - wherein ratio of width to length of the minimum bounding box of the area formed by the set of walls is between 1:1 and 2:5; and - wherein each air-permeable part that closes a cavity room of the plurality of cavity rooms comprises a plurality of air-channels which are characterized that the sum of areas of the plurality of air-channels is equal or bigger than the sum of areas of the set of air-channels; and - wherein the sum of areas of the set of air-channels is smaller than the sum of areas of all air-channels which connect the set of air-channels with the vacuum source.
Vehicle with a loading floor which has a plurality of lashing rails for securing loaded goods to a vehicle by means of lashing elements, wherein the lashing rails are each arranged with an elongated base body on a loading space area of the vehicle, and wherein the base body has in each case a profile that is at least largely open in cross-section for receiving the lashing elements, wherein the lashing rails further each comprise a profile which is at least largely closed in cross-section and which is arranged in parallel to the at least largely open profile, characterized in that the loading floor is composed of a first loading floor section (50a.1) and a second loading floor section (50a.2), and that two, first lashing rails (10.1) and three, second lashing rails (10.2) are set into the first loading floor section (50a.1), and two, first lashing rails (10.1) are set into second loading floor section (50a.2), wherein the first lashing rails (10.1) are connected by screws to the vehicle body at three points in each case, and wherein the second lashing rails (10.2) are glued to the first loading floor section (50a.1) without fastening means for connecting to the vehicle body. wherein the lashing rails are each arranged with an elongated base body on a loading space area of the vehicle, and wherein the base body has in each case a profile that is at least largely open in cross-section for receiving the lashing elements, wherein the lashing rails further each comprise a profile which is at least largely closed in cross-section and which is arranged in parallel to the at least largely open profile, characterized in that the loading floor is composed of a first loading floor section (50a.1) and a second loading floor section (50a.2), and that two, first lashing rails (10.1) and three, second lashing rails (10.2) are set into the first loading floor section (50a.1), and two, first lashing rails (10.1) are set into second loading floor section (50a.2), wherein the first lashing rails (10.1) are connected by screws to the vehicle body at three points in each case, and wherein the second lashing rails (10.2) are glued to the first loading floor section (50a.1) without fastening means for connecting to the vehicle body.
A vehicle rear monitoring system comprising: a camera that captures an image of an area to a rear of a vehicle and outputs the captured image; a processing unit that processes the captured image, and creates a vehicle rear image; a display device that displays the vehicle rear image; and a traveling direction detecting device that detects a traveling direction of the vehicle and notifies the processing unit of the detected traveling direction, wherein the processing unit creates a first vehicle rear image that is the vehicle rear image that is displayed in a first display area that is a portion of a display area of the display device, when the traveling direction is forward, and creates a second vehicle rear image that is the vehicle rear image that is displayed in a second display area that is within the display area of the display device and that is an area that includes the first display area and is larger than the first display area, when the traveling direction is backward, characterized in that the processing unit creates the vehicle rear image such that an object included in the first vehicle rear image and the second vehicle rear image is the same size and in the same positional relationship when a change in the traveling direction of the vehicle is detected. a camera that captures an image of an area to a rear of a vehicle and outputs the captured image; a processing unit that processes the captured image, and creates a vehicle rear image; a display device that displays the vehicle rear image; and a traveling direction detecting device that detects a traveling direction of the vehicle and notifies the processing unit of the detected traveling direction, wherein the processing unit creates a first vehicle rear image that is the vehicle rear image that is displayed in a first display area that is a portion of a display area of the display device, when the traveling direction is forward, and creates a second vehicle rear image that is the vehicle rear image that is displayed in a second display area that is within the display area of the display device and that is an area that includes the first display area and is larger than the first display area, when the traveling direction is backward, characterized in that the processing unit creates the vehicle rear image such that an object included in the first vehicle rear image and the second vehicle rear image is the same size and in the same positional relationship when a change in the traveling direction of the vehicle is detected.
A switch short-circuited diagnosis method, configured for detecting a short-circuited state of a first bidirectional switch module; the first bidirectional switch module comprising a first switch branch, a second switch branch, and a third switch branch; the first switch branch coupled to a first phase wire of a three-phase power source, the second switch branch coupled to a second phase wire of the three-phase power source, and the third switch branch coupled to a third phase wire of the three-phase power source, characterized in that the method comprising steps of: determining an initial voltage interval of multiple voltage intervals according to voltage relationships of a voltage of the first phase wire, a voltage of the second phase wire, and a voltage of the third phase wire; and performing a switch short-circuited diagnosis of the first bidirectional switch module in the three consecutive voltage intervals from the initial voltage interval, and comprising steps of: turning on the first switch branch, the second switch branch, or the third switch branch of the first bidirectional switch module according to relationships of the voltage of the first phase wire, the voltage of the second phase wire, and the voltage of the third phase wire, determining whether an overcurrent occurs to diagnose whether the first switch branch, the second switch branch, or the third switch branch of the first bidirectional switch module is in the short-circuited state, and performing the switch short-circuited diagnosis for the next voltage interval. determining an initial voltage interval of multiple voltage intervals according to voltage relationships of a voltage of the first phase wire, a voltage of the second phase wire, and a voltage of the third phase wire; and performing a switch short-circuited diagnosis of the first bidirectional switch module in the three consecutive voltage intervals from the initial voltage interval, and comprising steps of: turning on the first switch branch, the second switch branch, or the third switch branch of the first bidirectional switch module according to relationships of the voltage of the first phase wire, the voltage of the second phase wire, and the voltage of the third phase wire, determining whether an overcurrent occurs to diagnose whether the first switch branch, the second switch branch, or the third switch branch of the first bidirectional switch module is in the short-circuited state, and performing the switch short-circuited diagnosis for the next voltage interval. determining whether an overcurrent occurs to diagnose whether the first switch branch, the second switch branch, or the third switch branch of the first bidirectional switch module is in the short-circuited state, and performing the switch short-circuited diagnosis for the next voltage interval.
Silicone material for protecting electronic devices, the silicone material comprising: a base resin contained in an amount of 62 to 75 wt%, based on a total weight of the silicone material; a thermal initiator comprising a silane coupling agent, wherein the thermal initiator is contained in an amount of 4 to 5 wt%, based on a total weight of the silicone material; a photoinitiator contained in an amount of 8 to 10 wt%, based on a total weight of the silicone material; an electrostatic discharge protecting filler; and a thermally conductive filler, wherein the base resin includes at least one of: polyurethane acrylate, isobonyl acrylate, modified acrylamide and hydroxy ethyl methacrylate; wherein the ESD protecting filler includes at least one of: aluminum oxide (Al 2 O 3), aluminum hydroxide, tin dioxide (SnO 2) and zinc oxide (ZnO), wherein the thermally conductive filler includes at least one of: fumed silica, magnesium oxide (MgO), boron nitride and aluminum nitride, and wherein the ESD protecting filler and the thermally conductive filler are contained in a combined amount of 22 to 32 wt%, based on a total weight of the silicone material. a base resin contained in an amount of 62 to 75 wt%, based on a total weight of the silicone material; a thermal initiator comprising a silane coupling agent, wherein the thermal initiator is contained in an amount of 4 to 5 wt%, based on a total weight of the silicone material; a photoinitiator contained in an amount of 8 to 10 wt%, based on a total weight of the silicone material; an electrostatic discharge protecting filler; and a thermally conductive filler, wherein the base resin includes at least one of: polyurethane acrylate, isobonyl acrylate, modified acrylamide and hydroxy ethyl methacrylate; wherein the ESD protecting filler includes at least one of: aluminum oxide (Al 2 O 3), aluminum hydroxide, tin dioxide (SnO 2) and zinc oxide (ZnO), wherein the thermally conductive filler includes at least one of: fumed silica, magnesium oxide (MgO), boron nitride and aluminum nitride, and wherein the ESD protecting filler and the thermally conductive filler are contained in a combined amount of 22 to 32 wt%, based on a total weight of the silicone material.
Storage device comprising a support and a basket installed on the support, the basket comprising a plurality of compartments distributed around a longitudinal axis, the basket comprising a central passage with a longitudinal axis, the support comprising a shaft with a longitudinal axis, the shaft being housed in the passage such that relative displacement is possible between the basket and the support along the longitudinal axis, and mechanical means for displacement of the basket relative to the support by a given angle about the longitudinal axis characterized in that the mechanical means are supported by the internal surface of the passage and the external surface of the shaft, said mechanical displacement means being actuated in each cycle, said cycle comprising a relative separation displacement along the longitudinal axis of the basket and the support and a relative approach displacement along the longitudinal axis of the basket and the support.
Method for the at least partially automated coordination of a path arrangement of a machine arrangement, which has a path of at least one first movable machine of the machine arrangement, and an additional path of at least one second movable machine, with the step: Establishing at least one waiting dependency (W2; W3) between a path point (K13; K14) of the path of the first machine of the machine arrangement and a path point (K22; K24) of the additional path to avoid a Collision of the second machine with the first machine with the proviso that a quality criterion for a common travel along the path arrangement and the additional path while maintaining this waiting dependency (W2; W3) is not worse, in particular better, than maintaining an alternative, opposite waiting dependency (W1; W4) between a path point (K15; K12) of the path of the first machine and a path point (K21; K25) of the additional path to avoid the same collision.
An instrument cluster assembly for a vehicle including a dashboard, the instrument cluster comprising: at least two gauges (28, 30) providing information relating to vehicle operation, a housing adapted for mounting onto a top surface of a dashboard, whereby the housing defines a top visible surface of the dashboard in an installed condition and supports the at least two gauges (28, 30) characterized by the at least two gauges (28, 30) are spaced apart to define an open space therebetween; the housing includes an opening through the top surface corresponding with the open space between the at least two gauges (28, 30); and a virtual display disposed within the open space between the two gauges (28, 30), wherein the virtual display comprises a display for generating images relating information indicative of vehicle operation and a reflective surface for viewing the displayed information by the operator between the at least two gauges (28, 30). at least two gauges (28, 30) providing information relating to vehicle operation, a housing adapted for mounting onto a top surface of a dashboard, whereby the housing defines a top visible surface of the dashboard in an installed condition and supports the at least two gauges (28, 30) characterized by the at least two gauges (28, 30) are spaced apart to define an open space therebetween; the housing includes an opening through the top surface corresponding with the open space between the at least two gauges (28, 30); and a virtual display disposed within the open space between the two gauges (28, 30), wherein the virtual display comprises a display for generating images relating information indicative of vehicle operation and a reflective surface for viewing the displayed information by the operator between the at least two gauges (28, 30).
A method for treating a surface of medical device, in particular a metallic medical device, comprising the following steps: - providing a colloid-dispersed system, - subjecting a medical device to the colloid-dispersed system such that a surface of the medical device which is to be treated is immersed in the colloid-dispersed system, - generating an AC voltage difference between the medical device as a first electrode and/or a second electrode positioned in the colloid-dispersed system to convert the immersed surface to an oxide film by plasma electrolytic oxidation wherein the converted surface is partially covered by islands formed by colloid-dispersed particles of the colloid-dispersed system, wherein the AC voltage is provided as an asymmetric AC voltage and/or as a sinus-shaped AC voltage, and wherein the AC voltage difference is generated by a power supply unit and supplied to the first electrode and/or the second electrode such that a uniform electric field distribution is achieved by providing means for connecting the first electrode having an adapted reduced or an adapted increased cross section with respect to the cross section of the connected medical device, wherein the cross section ratio, which is the quotient of the medical device cross section divided by the cross section of the means for connecting the first electrode, ranges from 0,75 to 4. - providing a colloid-dispersed system, - subjecting a medical device to the colloid-dispersed system such that a surface of the medical device which is to be treated is immersed in the colloid-dispersed system, - generating an AC voltage difference between the medical device as a first electrode and/or a second electrode positioned in the colloid-dispersed system
An olefin polymerization process, wherein propylene and C4 to C10 α-olefin and optionally ethylene are reacted in the presence of a Ziegler-Natta catalyst so as to obtain a propylene polymer composition, wherein the polypropylene comprises C4 to C10 α-olefin -derived comonomer units in an amount of from 0,5 wt-% to 15 wt% and ethylene-derived comonomer units in an amount of 0 wt% to 3 wt%, and the Ziegler-Natta catalyst comprises i) an external donor of the following formula (R 3) z (R 2 O) y Si(R 1) x wherein x is 1 or 2; y is 2 or 3; and z is 0 or 1; under the provision that x+y+z=4; R 1 is an organic residue of the following formula wherein the carbon atom bonded to the Si atom is a secondary carbon atom and the residues R 4 and R 5 bonded to the secondary carbon atom are, independently from each other, a C 1-2 alkyl group, R 2 is a linear C 1-4 alkyl and R 3 is a linear C 1-4 alkyl, and ii) a solid Ziegler-Natta catalyst component, which is free of any external carrier material. i) an external donor of the following formula (R 3) z (R 2 O) y Si(R 1) x wherein x is 1 or 2; y is 2 or 3; and z is 0 or 1; under the provision that x+y+z=4; R 1 is an organic residue of the following formula wherein the carbon atom bonded to the Si atom is a secondary carbon atom and the residues R 4 and R 5 bonded to the secondary carbon atom are, independently from each other, a C 1-2 alkyl group, R 2 is a linear C 1-4 alkyl and R 3 is a linear C 1-4 alkyl, and x is 1 or 2; y is 2 or 3; and z is 0 or 1; under the provision that x+y+z=4; R 1 is an organic residue of the following formula wherein the carbon atom bonded to the Si atom is a secondary carbon atom and the residues R 4 and R 5 bonded to the secondary carbon atom are, independently from each other, a C 1-2 alkyl group, R 2 is a linear C 1-4 alkyl and R 3 is a linear C 1-4 alkyl, the carbon atom bonded to the Si atom is a secondary carbon atom and the residues R 4 and R 5 bonded to the secondary carbon atom are, independently from each other, a C 1-2 alkyl group, R 2 is a linear C 1-4 alkyl and R 3 is a linear C 1-4 alkyl, ii) a solid Ziegler-Natta catalyst component, which is free of any external carrier material.
A sports boot, in particular a ski boot for exercising ski sports, with a lower boot portion intended to receive a user's foot and an upper boot portion intended to receive the lower leg portion of this user, the upper boot portion being connected to the lower boot portion, a sensor assembly comprising multiple distributed pressure-sensitive sensors (9a-d), which are connected or can be connected via electrical cables (17a-d) to an electronic signal processing device, wherein at least two sensors (9a, 9b) of the sensor assembly are provided on a sole assembly of the sports boot, and wherein at least one first sensor is positioned in a front foot portion of the sole assembly and at least one second sensor is positioned in a heel portion of the sole assembly, wherein the at least one first sensor in the front foot portion of the sole assembly is connected to the at least one second sensor in the heel portion of the sole assembly via a multipolar foil strip conductor, wherein the multipolar foil strip conductor is designed so as to have a length adjustable as necessary, such that a distance between the at least one first sensor and the at least one second sensor can be adapted to various sole lengths during the course of manufacturing of the sports boot, characterized in that the foil strip conductor comprises a first foil strip conductor portion connected to the at least one second sensor and a second foil strip conductor portion (38") connected to the at least one first sensor, and that an overlap width between the first foil strip conductor portion and the second foil strip conductor portion (38") is designed so as to be changeable, so that an accordingly assembled foil strip conductor can be adapted to different sole lengths as necessary.
Method for preparing a tissue construct for medical purposes, in which living cells are, in vitro, seeded onto a matrix or introduced into a matrix in order to yield the tissue construct following further treatment steps, characterized in that the primarily applied or introduced cells contain endothelial progenitor cells which have not been passaged multiple times and have a content of both early outgrowth endothelial progenitor cells (EOEC) and late outgrowth endothelial progenitor cells (LOEC), and that, besides the endothelial progenitor cells, one or more cell types selected from the group consisting of myoblasts, myofibroblasts, smooth muscle cells, smooth muscle progenitor cells and/or fibroblasts are applied or introduced simultaneously or sequentially.