mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating an electric motor of an electric vehicle, in which an encoding unit of a drive system of an electric vehicle determines an angle position of a rotor of an electric motor of the drive system relative to a stator of the electric motor and a regulating unit of the drive system in a driving mode makes available to a field-oriented current vector, which comprises a flow-generating current component and a moment-generating current component , depending on the determined angle position a plurality of phase currents corresponding each case to phases (U, V, W) of the stator and applies the provided phase currents to the plurality of phases (U, V, W), characterised in that the regulating unit , in a heating mode of the drive system makes available to a field-oriented heating current vector, depending on an angle position determined once at a starting point in time of the heating mode and independently of a later determined angle position a plurality of phase heating currents , wherein the regulating unit at the starting point in time represents the field-oriented heating current vector as a zero vector and starting from the zero vector until a target point in time increases exclusively a flow-generating heating current component of the field-oriented heating current vector to a target value , predetermined by a heating control device of the drive system, which is greater than zero.
A method for transmitting an application programming interface, API, request, wherein the method comprises: receiving , by a first API gateway, a first API request; obtaining , by the first API gateway, a first forwarding label corresponding to the first API request, wherein the first forwarding label comprises a first target security domain identifier, and a security domain identifier of the first API gateway is different from the first target security domain identifier; and determining , by the first API gateway, an address of a second API gateway according to a mapping relationship between the first target security domain identifier and the address of the second API gateway; and sending the first API request to the second API gateway based on the address of the second API gateway, wherein the second API gateway is a next-hop API gateway of the first API gateway that sends the first API request to an API gateway corresponding to the first target security domain identifier. receiving , by a first API gateway, a first API request; obtaining , by the first API gateway, a first forwarding label corresponding to the first API request, wherein the first forwarding label comprises a first target security domain identifier, and a security domain identifier of the first API gateway is different from the first target security domain identifier; and determining , by the first API gateway, an address of a second API gateway according to a mapping relationship between the first target security domain identifier and the address of the second API gateway; and sending the first API request to the second API gateway based on the address of the second API gateway, wherein the second API gateway is a next-hop API gateway of the first API gateway that sends the first API request to an API gateway corresponding to the first target security domain identifier.
An axle for wheels of a two-track motor vehicle, the axle having, on each side of the vehicle, a wheel carrier , a damper strut , a transverse link , and a transverse leaf spring at least partially guiding a wheel laterally and/or in a vehicle longitudinal direction, the damper strut having a damper tube and a damper piston which is movable in the damper tube along a damper longitudinal axis (DA), the damper strut being attached by the damper tube to the wheel carrier and being supported at a first effective kinematic point (KP1) on the wheel carrier , the transverse link having a wheel-carrier-side end region and being attached by the wheel-carrier-side end region to the wheel carrier and being supported at a second effective kinematic point (KP2) on the wheel carrier, and, based on a functionally installed state of the axle in a two-track motor vehicle, the transverse leaf spring extending substantially in a vehicle transverse direction (y) and having at least one wheel-carrier-side end region, characterised in that the transverse leaf spring is attached by its wheel-carrier-side end region to the damper strut and is supported at a third effective kinematic point (KP3) on the damper strut , the transverse leaf spring being attached by its wheel-carrier-side end region to the damper strut in the region of the damper tube .
Method for the surface treatment of workpieces by means of abrasive media, comprising the following steps: - providing a treatment tool; - providing an abrasive medium; - supplying a workpiece having a surface to be treated; - surface treating the workpiece, involving depletion of material, wherein waste products are formed; and - processing the waste products, by wetting of the waste products; wherein at least one of said steps comprises the following: - adding an additive to lower a self-ignition tendency on the part of the waste products, the additive comprising a salt, composed of a carbonate and/or of a halogen anion. - providing a treatment tool; - providing an abrasive medium; - supplying a workpiece having a surface to be treated; - surface treating the workpiece, involving depletion of material, wherein waste products are formed; and - processing the waste products, by wetting of the waste products; wherein at least one of said steps comprises the following: - adding an additive to lower a self-ignition tendency on the part of the waste products, the additive comprising a salt, composed of a carbonate and/or of a halogen anion. - adding an additive to lower a self-ignition tendency on the part of the waste products, the additive comprising a salt, composed of a carbonate and/or of a halogen anion.
A microchannel device comprising: a channel unit which is formed by an upper channel member and a lower channel member which are laminated in a thickness direction to define a microchannel , at least one of the upper channel member or the lower channel member being made of a material having elasticity; and a pair of holding plates provided at both ends in the thickness direction of the channel unit and holding the channel unit in a state of being compressed in the thickness direction, characterized in that a porous membrane is disposed between the upper channel member and the lower channel member constituting the channel unit . a channel unit which is formed by an upper channel member and a lower channel member which are laminated in a thickness direction to define a microchannel , at least one of the upper channel member or the lower channel member being made of a material having elasticity; and a pair of holding plates provided at both ends in the thickness direction of the channel unit and holding the channel unit in a state of being compressed in the thickness direction, characterized in that a porous membrane is disposed between the upper channel member and the lower channel member constituting the channel unit .
An orthopedic device , comprising: a first panel defining opposed first and second sides ; a second panel having a first end , and a second end securable to the second side of the first panel at a location site ; a first strap having a first end overlying the second panel , and a second end securable to the second side of the first panel at the location site ; characterized in that the first end of the second panel is secured to the first side of the first panel along a seam ; the first end of the first strap is secured to the first side of the first panel along the seam ; and the orthopedic device further comprises a dynamic force strap adapted to extend, in use, helically between upper and lower portions of the orthopedic device and to connect to the first panel . a first panel defining opposed first and second sides ; a second panel having a first end , and a second end securable to the second side of the first panel at a location site ; a first strap having a first end overlying the second panel , and a second end securable to the second side of the first panel at the location site ; characterized in that the first end of the second panel is secured to the first side of the first panel along a seam ; the first end of the first strap is secured to the first side of the first panel along the seam ; and the orthopedic device further comprises a dynamic force strap adapted to extend, in use, helically between upper and lower portions of the orthopedic device and to connect to the first panel .
A flexible display comprising: a flexible display panel ; and a flexible display window having a coating structure that comprises a first silica nano particle coating layer comprising full-type silica nano particles and a second silica nano particle coating layer comprising hollow-type silica nano particles , the flexible display window being disposed on the flexible display panel, wherein the flexible display window comprises: a first flexible base layer comprising a first flexible resin; wherein the first silica nano particle coating layer is disposed on the first flexible base layer ; a second flexible base layer comprising a second flexible resin, wherein the second flexible base layer is disposed on the first silica nano particle coating layer ; a flexible hard coating layer comprising a flexible hard coating resin, the flexible hard coating layer being disposed on the second flexible base layer ; and wherein the second silica nano particle coating layer is disposed on the flexible hard coating layer , a flexible display panel ; and a flexible display window having a coating structure that comprises a first silica nano particle coating layer comprising full-type silica nano particles and a second silica nano particle coating layer comprising hollow-type silica nano particles , the flexible display window being disposed on the flexible display panel, wherein the flexible display window comprises: a first flexible base layer comprising a first flexible resin; wherein the first silica nano particle coating layer is disposed on the first flexible base layer ; a second flexible base layer comprising a second flexible resin, wherein the second flexible base layer is disposed on the first silica nano particle coating layer ; a flexible hard coating layer comprising a flexible hard coating resin, the flexible hard coating layer being disposed on the second flexible base layer ; and wherein the second silica nano particle coating layer is disposed on the flexible hard coating layer , a first flexible base layer comprising a first flexible resin; wherein the first silica nano particle coating layer is disposed on the first flexible base layer ; a second flexible base layer comprising a second flexible resin, wherein the second flexible base layer is disposed on the first silica nano particle coating layer ; a flexible hard coating layer comprising a flexible hard coating resin, the flexible hard coating layer being disposed on the second flexible base layer ; and wherein the second silica nano particle coating layer is disposed on the flexible hard coating layer ,
A cleaning system for cleaning live insects, in particular live insect larvae, or live worms comprising - a collecting device for receiving and for mixing the insects or the worms with water to form a mixture; - a first conveying device for conveying the mixture from the collecting device ; - a first larvae separating device for separating the insects or the worms from the water of the mixture conveyed by the first conveying device , wherein the separated water is available for further use in an insect system, in particular in the cleaning system, in particular is at least partially recirculated in the cleaning system. - a collecting device for receiving and for mixing the insects or the worms with water to form a mixture; - a first conveying device for conveying the mixture from the collecting device ; - a first larvae separating device for separating the insects or the worms from the water of the mixture conveyed by the first conveying device , wherein the separated water is available for further use in an insect system, in particular in the cleaning system, in particular is at least partially recirculated in the cleaning system.
An under-roof antenna module (115; 315) for a vehicle, the antenna module (115; 315) comprising: a metallic frame having an elongated form along a main direction and a series of perforations (15A, 15B, 15C; 205A, 205B, 205C) along a first direction, at least one transceiver , arranged at portions of the frame proximal to the at least one perforation (15A, 15B, 15C; 205A, 205B, 205C), wherein the elongated frame comprises three perforations distributed along the elongated form, one central perforation and two extreme perforations wherein the central perforation is towards the center of the frame and the extreme perforations are towards the edges of the elongated frame , wherein a first cellular telephony antenna is attached at an edge of an extreme perforation, a second cellular telephony antenna is attached at an edge of the other extreme perforation and a third and fourth telephony antennas are attached at a first and second edge of the central perforation, respectively, characterized in that the perforations (15A, 15B, 15C; 205A, 205B, 205C) comprise a rectangular shape, each having a first dimension of between 95 and 200 mm along the main direction and a second dimension of between 50 mm and 110 mm in a direction perpendicular to the main direction, respectively. a metallic frame having an elongated form along a main direction and a series of perforations (15A, 15B, 15C; 205A, 205B, 205C) along a first direction, at least one transceiver , arranged at portions of the frame proximal to the at least one perforation (15A, 15B, 15C; 205A, 205B, 205C), wherein the elongated frame comprises three perforations distributed along the elongated form, one central perforation and two extreme perforations wherein the central perforation is towards the center of the frame and the extreme perforations are towards the edges of the elongated frame , wherein a first cellular telephony antenna is attached at an edge of an extreme perforation, a second cellular telephony antenna is attached at an edge of the other extreme perforation and a third and fourth telephony antennas are attached at a first and second edge of the central perforation, respectively, characterized in that the perforations (15A, 15B, 15C; 205A, 205B, 205C) comprise a rectangular shape, each having a first dimension of between 95 and 200 mm along the main direction and a second dimension of between 50 mm and 110 mm in a direction perpendicular to the main direction, respectively.
An absorbent article comprising an absorbent core sandwiched between a liquid permeable topsheet and a liquid impermeable backsheet , and an acquisition distribution system positioned between said topsheet and said absorbent core , wherein the absorbent core comprises absorbent material selected from the group consisting of cellulose fibers, superabsorbent polymers and combinations thereof, wherein said absorbent material is contained within at least one core wrap substrate enclosing said absorbent material, and wherein a top layer of said core wrap is adhered to a bottom layer of said core wrap to form one or more channels substantially free of said absorbent material, wherein said channels have a length extending along a longitudinal axis and the absorbent core has a length extending along said longitudinal axis and wherein the length of said channels is from 10% to 95% of the length of said absorbent core and wherein said channels each follow a substantially continuous path such as from a first end of a channel to a second end of the same channel characterized in that the acquisition distribution system is multi-layered and comprises at least one spunbond layer and at least one meltblown layer, and wherein said acquisition distribution system is positioned between said absorbent core and said topsheet such that said spunbond and/or meltblown layers are in direct contact with said absorbent core and said topsheet , and wherein the acquisition distribution layer has a wetness retention factor of less than 11 as measured according to the method herein, and wherein the acquisition distribution system comprises synthetic fibers, wherein said synthetic fibers are comprised at a level of greater than 80%wt by weight of said acquisition distribution layer , and wherein said acquisition distribution layer has a basis weight of from 5 to 50 g/m 2 .
A paravalvular occlusion apparatus , comprising: a catheter comprising: a main body having a proximal end and a distal end ; a visualization element disposed in the distal end of the main body ; a working channel extending from the distal end of the main body ; and an elongate shaft extendable from the working channel ; and an occlusion device coupled to the elongate shaft , wherein the occlusion device comprises: a leading end including a first section ; and a trailing end opposite the leading end , the trailing end including a second section , wherein the first section and the second section are operable to be positioned along a perimeter of an artificial valve , characterised in that a shape of the first section of the occlusion device is different than a shape of the second section of the occlusion device , wherein the first section of the occlusion device has an interior concave surface operable to abut an exterior surface of a stent of the artificial valve . a main body having a proximal end and a distal end ; a visualization element disposed in the distal end of the main body ; a working channel extending from the distal end of the main body ; and an elongate shaft extendable from the working channel ; and an occlusion device coupled to the elongate shaft , wherein the occlusion device comprises: a leading end including a first section ; and a trailing end opposite the leading end , the trailing end including a second section , wherein the first section and the second section are operable to be positioned along a perimeter of an artificial valve , characterised in that a shape of the first section of the occlusion device is different than a shape of the second section of the occlusion device , wherein the first section of the occlusion device has an interior concave surface operable to abut an exterior surface of a stent of the artificial valve . a leading end including a first section ; and a trailing end opposite the leading end , the trailing end including a second section , wherein the first section and the second section are operable to be positioned along a perimeter of an artificial valve , characterised in that a shape of the first section of the occlusion device is different than a shape of the second section of the occlusion device , wherein the first section of the occlusion device has an interior concave surface operable to abut an exterior surface of a stent of the artificial valve .
An apparatus, comprising: a first interface that interfaces at least one electrocardiogram monitor monitoring a patient; a memory that stores instructions, and a processor that executes the instructions, wherein, when executed by the processor , the instructions cause the apparatus to: identify a plurality of heart beats from electrocardiogram waves received via the first interface from the at least one electrocardiogram monitor ; separate the plurality of heart beats into first temporal windows; extract features of the heart beats in each of the first temporal windows as first extracted features for each first temporal window; generate, based on the first extracted features, generated features across a second temporal window that includes a plurality of the first temporal windows; apply trained artificial intelligence to the generated features; predict hemodynamic instability for the patient based on applying the trained artificial intelligence to the generated features, and output an alert warning of the hemodynamic instability based on predicting the hemodynamic instability. a first interface that interfaces at least one electrocardiogram monitor monitoring a patient; a memory that stores instructions, and a processor that executes the instructions, wherein, when executed by the processor , the instructions cause the apparatus to: identify a plurality of heart beats from electrocardiogram waves received via the first interface from the at least one electrocardiogram monitor ; separate the plurality of heart beats into first temporal windows; extract features of the heart beats in each of the first temporal windows as first extracted features for each first temporal window; generate, based on the first extracted features, generated features across a second temporal window that includes a plurality of the first temporal windows; apply trained artificial intelligence to the generated features; predict hemodynamic instability for the patient based on applying the trained artificial intelligence to the generated features, and output an alert warning of the hemodynamic instability based on predicting the hemodynamic instability. identify a plurality of heart beats from electrocardiogram waves received via the first interface from the at least one electrocardiogram monitor ; separate the plurality of heart beats into first temporal windows; extract features of the heart beats in each of the first temporal windows as first extracted features for each first temporal window; generate, based on the first extracted features, generated features across a second temporal window that includes a plurality of the first temporal windows; apply trained artificial intelligence to the generated features; predict hemodynamic instability for the patient based on applying the trained artificial intelligence to the generated features, and output an alert warning of the hemodynamic instability based on predicting the hemodynamic instability.
A lithographic printing plate precursor comprising: an aluminum support; and an image recording layer, wherein the aluminum support includes an aluminum plate and an anodized aluminum film disposed on the aluminum plate, the anodized film is positioned on a side of the image recording layer with respect to the aluminum plate, the anodized film has micropores extending from a surface of the anodized film on the side of the image recording layer in a depth direction, the micropores have an opening ratio of 20% to 70%, a steepness a45 indicating an area ratio of a portion having an inclining degree of 45° or greater on the surface of the anodized film on the side of the image recording layer, which is obtained by extracting a component having a wavelength of 0.2 to 2 μm, is in a range of 3% to 25%, and an arithmetic average roughness Ra on the surface of the anodized film on the side of the image recording layer is in a range of 0.25 to 0.60 μm. an aluminum support; and an image recording layer, wherein the aluminum support includes an aluminum plate and an anodized aluminum film disposed on the aluminum plate, the anodized film is positioned on a side of the image recording layer with respect to the aluminum plate, the anodized film has micropores extending from a surface of the anodized film on the side of the image recording layer in a depth direction, the micropores have an opening ratio of 20% to 70%, a steepness a45 indicating an area ratio of a portion having an inclining degree of 45° or greater on the surface of the anodized film on the side of the image recording layer, which is obtained by extracting a component having a wavelength of 0.2 to 2 μm, is in a range of 3% to 25%, and an arithmetic average roughness Ra on the surface of the anodized film on the side of the image recording layer is in a range of 0.25 to 0.60 μm.