mhurhangee/ep-ind-claims huggingface dataset:
Separator plate comprising at least two metallic layers, wherein the separator plate comprises beads for the limitation of openings for the supply and removal of coolant into the interspace of the at least two layers of the separator plate or for the supply and removal of reaction media (5, 6) to and from the cells, wherein the separator plate comprises a bead for the limitation of an electrochemically active area, wherein the bead for the limitation of the electrochemically active area surround the beads for the limitation of the openings in sections towards the outer edge of the separator plate, characterised in that at least one delimiting element for the guidance of media on an outer surface of the separator plate extends essentially transverse to the bead for the limitation of the electrochemically active area and essentially transverse to the outermost elements of the channel structure of the electrochemically active area; wherein in order to reduce or block the flow of coolant in the inner space of the bead for the limitation of the electrochemically active area, the bead for the limitation of the electrochemically active area itself and/or a structure guiding towards the bead for the limitation of the electrochemically active area at least in sections comprises a reduction and/or closure of its cross section, wherein the structures guiding towards the bead for the limitation of the electrochemically active area in the inner space of the separator plate are situated opposite to the at least one limiting element.
An in vitro method comprising detecting mutant human nucleophosmin protein or an oligonucleotide sequence encoding the mutant human NPM protein in a sample, the mutant human NPM protein characterized by having a cytoplasmic location and differing from wild-type human nucleophosmin by comprising a mutation that results in a loss of a tryptophan residue at positions 288 and 290 and a signal motif of nuclear export in the C-terminal region of the protein comprising an amino acid sequence selected from the group consisting of LxxxVxxVxL (SEQ ID No 1), LxxxLxxVxL (SEQ ID No 2), LxxxFxxVxL (SEQ ID No 3), LxxxMxxVxL (SEQ ID No 4), and LxxxCxxVxL (SEQ ID No 5).
A device in combination with a tube, the device being intended to shape the tube on at least one insert present in the tube by means of a compressive force generated by a shock wave formed by an electric arc generator, said device comprising at least a first forming cavity containing an immersion bath comprising a liquid in which the tube is dipped, said immersion bath being separated into two volumes, the first volume being that in which the shock wave deploys and the second volume being that in which the immersion liquid is absent or may escape under the effect of the compressive force formed in the first volume, the separation between the two volumes being ensured by the tube to be deformed.
A user interface apparatus for a vehicle, comprising: an interface unit, a display, a camera configured to capture a forward view image, and a processor configured to: receive information about an object located ahead of the vehicle through the interface unit; crop a part of the forward view image; control the display so as to overlay an augmented reality,AR, graphic object, corresponding to an object present in a crop area of the forward view image, on an image of the crop area of the forward view image; change the crop area based on driving situation information received through the interface unit; and control the display based on the driving situation information so as to change the AR graphic object, characterized in that the processor is further configured to: control the display so as to overlay a wall image on a line present in the crop area; and control the display in response to the changing of the crop area so as to change a position of the wall image. an interface unit, a display, a camera configured to capture a forward view image, and a processor configured to: receive information about an object located ahead of the vehicle through the interface unit; crop a part of the forward view image; control the display so as to overlay an augmented reality,AR, graphic object, corresponding to an object present in a crop area of the forward view image, on an image of the crop area of the forward view image; change the crop area based on driving situation information received through the interface unit; and control the display based on the driving situation information so as to change the AR graphic object, characterized in that the processor is further configured to: control the display so as to overlay a wall image on a line present in the crop area; and control the display in response to the changing of the crop area so as to change a position of the wall image. receive information about an object located ahead of the vehicle through the interface unit; crop a part of the forward view image; control the display so as to overlay an augmented reality,AR, graphic object, corresponding to an object present in a crop area of the forward view image, on an image of the crop area of the forward view image; change the crop area based on driving situation information received through the interface unit; and control the display based on the driving situation information so as to change the AR graphic object, characterized in that the processor is further configured to: control the display so as to overlay a wall image on a line present in the crop area; and control the display in response to the changing of the crop area so as to change a position of the wall image. control the display so as to overlay a wall image on a line present in the crop area; and control the display in response to the changing of the crop area so as to change a position of the wall image.
Piezoelectric actuator unit comprising a piezo actuator and also an encapsulation compound which surrounds the piezo actuator, wherein the encapsulation compound is arranged in a sleeve which contains, as hydrophobic material, a thermoplastic polyester, characterized in that the thermoplastic polyester comprises polybutylene terephthalate.
A tracking reference fixation support configured to fasten a medical tracking reference to a patient's head, the fixation support comprising: - an elastically deformable base-plate having a bottom surface, wherein the base-plate is configured to rest via the bottom surface against the surface of a patient's head; - an interface-plate providing an interface for rigidly attaching a medical tracking reference to the fixation support; characterized in that the base-plate has a preferred bending axis, and in that the fixation device further comprises - a pair of hinges that couple the interface-plate to the base-plate, which allows the base-plate to deform while the interface-plate remains substantially dimensionally stable, wherein each hinge is oriented substantially parallel to the preferred bending axis of the base-plate. - an elastically deformable base-plate having a bottom surface, wherein the base-plate is configured to rest via the bottom surface against the surface of a patient's head; - an interface-plate providing an interface for rigidly attaching a medical tracking reference to the fixation support; characterized in that the base-plate has a preferred bending axis, and in that the fixation device further comprises - a pair of hinges that couple the interface-plate to the base-plate, which allows the base-plate to deform while the interface-plate remains substantially dimensionally stable, wherein each hinge is oriented substantially parallel to the preferred bending axis of the base-plate.
A battery pack structure comprising: an electrical box comprising a housing configured to receive a battery protection circuit therein; a receiving case comprising an inner frame constituting a load-bearing structure and an outer panel supported by the inner frame, and configured to receive the electrical box and a battery module protected by the electrical box; and a top cover configured to cover an opening portion of an upper end of the receiving case, wherein the housing of the electrical box comprises flanges that contact the inner frame of the receiving case and are configured to support the inner frame, wherein the battery pack structure further comprises a grip rod coupled to the inner frame of the receiving case in the opening portion of the receiving case. and wherein the top cover comprises a snap-fit coupling portion coupled in a snap-fit manner to the grip rod. an electrical box comprising a housing configured to receive a battery protection circuit therein; a receiving case comprising an inner frame constituting a load-bearing structure and an outer panel supported by the inner frame, and configured to receive the electrical box and a battery module protected by the electrical box; and a top cover configured to cover an opening portion of an upper end of the receiving case, wherein the housing of the electrical box comprises flanges that contact the inner frame of the receiving case and are configured to support the inner frame, wherein the battery pack structure further comprises a grip rod coupled to the inner frame of the receiving case in the opening portion of the receiving case. and wherein the top cover comprises a snap-fit coupling portion coupled in a snap-fit manner to the grip rod.
A controller for a vehicle powered by a propulsion device, the controller comprising: a processing unit; an input for receiving one or more measures of parameters at the processing unit; and an output for providing one or more operating set points to the propulsion device based at least in part on the received one or more measures of parameters; and wherein the processing unit is configured to: receive a target speed for the vehicle over a travel horizon; obtain one or more measures of parameters related to the travel horizon; optimize a cost function of the vehicle to provide operating set points for the propulsion device by minimizing energy losses of the vehicle relative to the received target speed and one or more obtained measures of parameters related to the travel horizon; and wherein minimizing energy losses of the vehicle takes into account losses of power of the vehicle and recoverable power of the vehicle, characterized in that said cost function is defined as: J = ∑ i = 1 N horz c E ⋅ E i E n 2 + c v ⋅ v i − v ref v n 2 wherein C E and C v are pre-determined weights, E i is an energy model over increment i of the travel horizon, E n is an energy normalization factor, v i is an average speed of the vehicle over increment i of the travel horizon, v ref is a target speed of the vehicle and v n is a speed normalization factor. a processing unit; an input for receiving one or more measures of parameters at the processing unit; and an output for providing one or more operating set points to the propulsion device based at least in part on the received one or more measures of parameters; and wherein the processing unit is configured to: receive a target speed for the vehicle over a travel horizon; obtain one or more measures of parameters related to the travel horizon; optimize a cost function of the vehicle to provide operating set points for the propulsion device by minimizing energy losses of the vehicle relative to the received target speed and one or more obtained measures of parameters related to the travel horizon; and wherein minimizing energy losses of the vehicle takes into account losses of power of the vehicle and recoverable power of the vehicle, receive a target speed for the vehicle over a travel horizon; obtain one or more measures of parameters related to the travel horizon; optimize a cost function of the vehicle to provide operating set points for the propulsion device by minimizing energy losses of the vehicle relative to the received target speed and one or more obtained measures of parameters related to the travel horizon; and wherein minimizing energy losses of the vehicle takes into account losses of power of the vehicle and recoverable power of the vehicle, characterized in that said cost function is defined as: J = ∑ i = 1 N horz c E ⋅ E i E n 2 + c v ⋅ v i − v ref v n 2 wherein C E and C v are pre-determined weights, E i is an energy model over increment i of the travel horizon, E n is an energy normalization factor, v i is an average speed of the vehicle over increment i of the travel horizon, v ref is a target speed of the vehicle and v n is a speed normalization factor.
A portable communication device (10, 801) comprising: a flexible display; a housing accommodating the flexible display, the housing including a side portion (532, 542) and a top portion (831, 841) protruded from the side portion (532, 542); a first transparent member disposed over the flexible display and foldable according to the flexible display being folded; a first adhesive layer disposed between the flexible display and the first transparent member, the first adhesive layer having a first thickness; a second transparent member disposed over the first transparent member and foldable according to the flexible display being folded; and a second adhesive layer disposed between the first transparent member and the second transparent member, the second adhesive layer having a second thickness smaller than the first thickness; wherein the flexible display is visible through the first transparent member, the first adhesive layer, the second transparent member, and the second adhesive layer; wherein, when viewed in a direction substantially perpendicular to the flexible display, a first edge portion of the first transparent member is overlapped with and spaced apart from the top portion (831, 841) of the housing, and a second edge portion of the second transparent member is overlapped with and spaced apart from the top portion (831, 841), wherein the first edge portion is spaced apart from the side portion (532, 542) by a first distance, and the second edge portion is spaced apart from the side portion (532, 542) by a second distance greater than the first distance. a flexible display; a housing accommodating the flexible display, the housing including a side portion (532, 542) and a top portion (831, 841) protruded from the side portion (532, 542); a first transparent member disposed over the flexible display and foldable according to the flexible display being folded; a first adhesive layer disposed between the flexible display and the first transparent member, the first adhesive layer having a first thickness; a second transparent member disposed over the first transparent member and foldable according to the flexible display being folded; and a second adhesive layer disposed between the first transparent member and the second transparent member, the second adhesive layer having a second thickness smaller than the first thickness; wherein the flexible display is visible through the first transparent member, the first adhesive layer, the second transparent member, and the second adhesive layer; wherein, when viewed in a direction substantially perpendicular to the flexible display, a first edge portion of the first transparent member is overlapped with and spaced apart from the top portion (831, 841) of the housing, and a second edge portion of the second transparent member is overlapped with and spaced apart from the top portion (831, 841), wherein the first edge portion is spaced apart from the side portion (532, 542) by a first distance, and the second edge portion is spaced apart from the side portion (532, 542) by a second distance greater than the first distance.
A method performed by a first network node for enabling communication between a first wireless device served by a first core network in a communication network and a second wireless device served by a a second core network in the communication network, wherein the first wireless device is served by the first network node, the method comprising: - providing a first set of functionalities out of a total set of functionalities in the first core network of the communication network, which first set of functionalities belongs to a first network slice of the first core network, and is separated from another set of functionalities out of the total set of functionalities in the first core network, wherein the first network slice comprises the first network node, and wherein each network slice supports a type of wireless devices and/or a type of services; and - initiating a request transmission, to a receiving network node, for communicating with the second wireless device, which request transmission comprises a first network slice identity of the first network slice identifying the supported first set of functionalities. - providing a first set of functionalities out of a total set of functionalities in the first core network of the communication network, which first set of functionalities belongs to a first network slice of the first core network, and is separated from another set of functionalities out of the total set of functionalities in the first core network, wherein the first network slice comprises the first network node, and wherein each network slice supports a type of wireless devices and/or a type of services; and - initiating a request transmission, to a receiving network node, for communicating with the second wireless device, which request transmission comprises a first network slice identity of the first network slice identifying the supported first set of functionalities.
A method for generating an Approximate Nearest Neighbor Field (ANNF) for images of an input video, the method comprising steps of - generating a plurality of downscaled versions of the images of the input video at different spatial, temporal or spatio-temporal scales; - generating an Inverse Approximate Nearest Neighbor Field (IANNF) for the input video by finding for each patch of the downscaled images k e similar patches in the input video, with k e being one or more, wherein the patches of the downscaled images and the patches of the input video have a same size being a first size; - generating an ANNF for the input video by reversing the IANNF, and - filling gaps in the ANNF by searching nearest neighbors for those patches of the input video that are not in the IANNF. - generating a plurality of downscaled versions of the images of the input video at different spatial, temporal or spatio-temporal scales; - generating an Inverse Approximate Nearest Neighbor Field (IANNF) for the input video by finding for each patch of the downscaled images k e similar patches in the input video, with k e being one or more, wherein the patches of the downscaled images and the patches of the input video have a same size being a first size; - generating an ANNF for the input video by reversing the IANNF, and - filling gaps in the ANNF by searching nearest neighbors for those patches of the input video that are not in the IANNF.
Machine tool with a machine bed designed as an inclined bed, with a slide and / or tailstock and with an more particularly closed linear guide provided between the machine bed and slide and / or tailstock, which has a first sliding guide with a flat guide, which has at least one support guide with a first guide surface and which has at least one lateral guide with a second guide surface, having a wrap-around guide securing the support guide, which has a wrap-around strip with a third guide surface, wherein the third guide surface of the wrap-around guide is arranged inclined to the second guide surface of the lateral guide, and having a clamping device, wherein the clamping device interacts with the wrap-around strip for clamping the wrap-around guide with the aid of the third guide surface to fix the sliding guide, wherein the third guide surface of the wrap-around strip is arranged inclined to the first guide surface of the support guide, wherein the first guide surface of the support guide of the first sliding guide adjoins the inclined surface of the inclined bed running horizontally.
A flavorful tobacco composition for use in a tobacco product in the form of a sugar-containing syrup derived from the stalk of a plant of the Nicotiana species, and comprising sugar compounds from the stalk of the plant, wherein the syrup has a brix level of at least 20, and wherein, optionally, the sugar-containing syrup is in essentially solvent free form.
Downhole drilling head for mounting onto a drilling tool for reboring a stuck valve, comprising: - a hole saw having a cylindrical body with a circumferential rim and a longitudinal axis going through a centre of the cylindrical body, and - a drill bit extending along the longitudinal axis and through the centre of the cylindrical body, wherein the circumferential rim has at least one cutting edge rotating for cutting a piece out of the stuck valve, and characterised in that the drill bit has a retractable projection; wherein when drilling in the valve, the projection is in its retracted position while being passed by the piece being cut out by the cutting edge, the projection subsequently returning to its projected position, and the piece thus returning with the drilling bit when the drilling ends. - a hole saw having a cylindrical body with a circumferential rim and a longitudinal axis going through a centre of the cylindrical body, and - a drill bit extending along the longitudinal axis and through the centre of the cylindrical body,
A bearing surface transporter with an upper part for receiving an object to be transported, such as a bearing surface of an operating table, and with a lower part, wherein the lower part comprises: at least three double steering rollers for manually displacing the bearing surface transporter in any direction, at least one motorized drive roller, a lowering mechanism for selectively lowering and lifting the at least one drive roller relatively to the double steering rollers, wherein the drive roller(s) assume(s) an upper position for manually displacing the bearing surface transporter and a lower position for motorically moving the bearing surface transporter, wherein the lowering mechanism comprises a pedal which can be actuated in an actuating direction, and wherein the lowering mechanism is designed such that a first actuation of the pedal in the actuation direction lowers the at least one drive roller from the upper to the lower position and that a second actuation of the pedal in the actuation direction lifts the at least one drive roller from the lower to the upper position. at least three double steering rollers for manually displacing the bearing surface transporter in any direction, at least one motorized drive roller, a lowering mechanism for selectively lowering and lifting the at least one drive roller relatively to the double steering rollers, wherein the drive roller(s) assume(s) an upper position for manually displacing the bearing surface transporter and a lower position for motorically moving the bearing surface transporter, wherein the lowering mechanism comprises a pedal which can be actuated in an actuating direction, and wherein the lowering mechanism is designed such that a first actuation of the pedal in the actuation direction lowers the at least one drive roller from the upper to the lower position and that a second actuation of the pedal in the actuation direction lifts the at least one drive roller from the lower to the upper position.