mhurhangee/patent-ind-claim-en huggingface dataset:
Panel suitable for assembling a waterproof floor or wall covering by interconnecting a plurality of said panels with each other, wherein the panel has a substantially planar top surface, and a substantially planar bottom surface, at least four substantially linear side edges comprising at least one pair of opposite side edges which are provided with interconnecting coupling means for interconnecting one panel with another, whereby said panel is rigid and has a sandwich structure which comprises a central layer and a top layer , wherein said central layer basically is composed of a thermoplastic material which contains one or more filler materials chosen from the group comprising calcium carbonate, wood dust, bamboo dust, rubber, cork, straw and paper, wherein the total ratio of filler material in the central layer is 30wt% or higher, wherein said thermoplastic material comprises polyvinylchloride and/or polyethylene, characterized in that said top layer is rigid, and in that the panel comprises furthermore a rigid bottom layer , and in that said rigid top layer and/or said rigid bottom layer comprise at least one ply of a cellulose-based layer and a cured resin.
A wind turbine nacelle mounted cooling system configured to be mounted on a first face of a nacelle of a wind turbine , the nacelle being rotably connected with a tower so that the nacelle is positioned in relation to a wind direction (W), the first face having a longitudinal extension substantially corresponding to the wind direction (W), the cooling system comprising: a projected wind area when in operation extending substantially in a perpendicular direction from the first face , the projected wind area is defined by at least a first cooling module having a first cooling area , characterised in that at least a part of the first cooling area is arranged with an angle (β) different from 90 degrees in relation to the longitudinal extension of the first face of the nacelle , and in that the first face has a transverse extension (t) being perpendicular to the longitudinal extension, the cooling system comprises a second cooling module having a second cooling area, the first cooling module and the second cooling module being arranged adjacent to each other in the transverse extension (t), where the first cooling area and the second cooling area define a V when seen from above. a projected wind area when in operation extending substantially in a perpendicular direction from the first face , the projected wind area is defined by at least a first cooling module having a first cooling area , characterised in that at least a part of the first cooling area is arranged with an angle (β) different from 90 degrees in relation to the longitudinal extension of the first face of the nacelle , and in that the first face has a transverse extension (t) being perpendicular to the longitudinal extension, the cooling system comprises a second cooling module having a second cooling area, the first cooling module and the second cooling module being arranged adjacent to each other in the transverse extension (t), where the first cooling area and the second cooling area define a V when seen from above.
A machine for making liquid or semi-liquid food products, comprising: - a frame ; - a product processing unit mounted on the frame and a control unit for driving the processing unit , the processing unit in turn comprising a first vessel rotating about its central axis and defining inside it a product processing chamber ; a stirrer provided with a spatula mounted inside the processing chamber , and a movement unit for moving the stirrer ; the machine being characterized in that the movement unit for moving the stirrer imparts to the spatula a first movement, towards and away from the bottom of the first vessel , and a second movement, towards and away from the inside wall of the first vessel , the first and second movements being independent of each other, wherein the movement unit comprises a first linear actuator and a second linear actuator driven by the control unit , the first and second movements being imparted by the first linear actuator and the second linear actuator , respectively. - a frame ; - a product processing unit mounted on the frame and a control unit for driving the processing unit , the processing unit in turn comprising a first vessel rotating about its central axis and defining inside it a product processing chamber ; a stirrer provided with a spatula mounted inside the processing chamber , and a movement unit for moving the stirrer ; the machine being characterized in that the movement unit for moving the stirrer imparts to the spatula a first movement, towards and away from the bottom of the first vessel , and a second movement, towards and away from the inside wall of the first vessel , the first and second movements being independent of each other, wherein the movement unit comprises a first linear actuator and a second linear actuator driven by the control unit , the first and second movements being imparted by the first linear actuator and the second linear actuator , respectively.
A method for producing a gelatin formed body, the method comprising: a step a of forming, on a substrate, a layer containing a powder which is obtained by air-drying an aqueous gelatin solution and has an average particle diameter of 25 to 200 μm; and a step b of jetting liquid droplets of an aqueous solution containing alcohols having a boiling point of 120°C or lower toward the layer formed in the step a from a nozzle and flying the jetted liquid droplets so that the liquid droplets are landed on the layer formed in the step a, thereby forming a gelatin formed body. a step a of forming, on a substrate, a layer containing a powder which is obtained by air-drying an aqueous gelatin solution and has an average particle diameter of 25 to 200 μm; and a step b of jetting liquid droplets of an aqueous solution containing alcohols having a boiling point of 120°C or lower toward the layer formed in the step a from a nozzle and flying the jetted liquid droplets so that the liquid droplets are landed on the layer formed in the step a, thereby forming a gelatin formed body.
A method of manufacturing a seal assembly for a vehicle with said method utilizing a molding apparatus defining a mold cavity , said method comprising the steps of: extruding a first strip of material to form a first body having opposing first body ends ; extruding a second strip of material to form a second body having opposing second body ends ; positioning one of the first body ends and one of the second body ends into the mold cavity of the molding apparatus with the first body end positioned adjacent the second body end ; injecting an elastomeric material into the mold cavity to form a locator device having a foot portion and a tab portion extending from the foot portion with the tab portion defining a first reference point (R1) and with the foot portion of the locator device positioned adjacent the first body end ; and injecting a thermoplastic elastomeric material into the mold cavity to form a corner mold covering the first body end , the second body end , and the foot portion of the locator device with the corner mold defining a second reference point (R2), and the corner mold bonding the first body end , the second body end , and the locator device together and to fix the foot portion of the locator device to the first body end at a locator position such that a predetermined distance (D) between the first and second reference points (R1, R2) is maintained during the injecting of the thermoplastic elastomeric material. extruding a first strip of material to form a first body having opposing first body ends ; extruding a second strip of material to form a second body having opposing second body ends ; positioning one of the first body ends and one of the second body ends into the mold cavity of the molding apparatus with the first body end positioned adjacent the second body end ; injecting an elastomeric material into the mold cavity to form a locator device having a foot portion and a tab portion extending from the foot portion with the tab portion defining a first reference point (R1) and with the foot portion of the locator device positioned adjacent the first body end ; and injecting a thermoplastic elastomeric material into the mold cavity to form a corner mold covering the first body end , the second body end , and the foot portion of the locator device with the corner mold defining a second reference point (R2), and the corner mold bonding the first body end , the second body end , and the locator device together and to fix the foot portion of the locator device to the first body end at a locator position such that a predetermined distance (D) between the first and second reference points (R1, R2) is maintained during the injecting of the thermoplastic elastomeric material.
A dental implant for rotationally-oriented implantation in a jaw bone using a dental implant implanting tool , comprising: a body having a longitudinal extent along a coronal-apical axis, said body sized for implanting of an intrabony portion thereof within a jaw bone; said body having N facing directions around said coronal-apical axis, wherein N is at least two, each said facing direction is defined by the orientation of a cutaway region relative to said coronal-apical axis; said cutaway regions are equally spaced around said longitudinal axis of said implant; and a receiving volume comprising receiving surfaces for receiving an interlocking portion of the dental implant implanting tool; wherein said receiving volume is characterized by a complementary keying in the form of a hexagon having sides of different lengths , or a plurality of shape-keyed notches configured with a surface oriented to receive torquing, at least a first of the notches being distinct in shape from at least a second of the notches , such that the complementary keying enables said interlocking portion of the dental implant implanting tool to interlock in one of exactly N mating orientations wherein each of said N mating orientations corresponds to one of said N facing directions. a body having a longitudinal extent along a coronal-apical axis, said body sized for implanting of an intrabony portion thereof within a jaw bone; said body having N facing directions around said coronal-apical axis, wherein N is at least two, each said facing direction is defined by the orientation of a cutaway region relative to said coronal-apical axis; said cutaway regions are equally spaced around said longitudinal axis of said implant; and a receiving volume comprising receiving surfaces for receiving an interlocking portion of the dental implant implanting tool; wherein said receiving volume is characterized by a complementary keying in the form of a hexagon having sides of different lengths , or a plurality of shape-keyed notches configured with a surface oriented to receive torquing, at least a first of the notches being distinct in shape from at least a second of the notches , such that the complementary keying enables said interlocking portion of the dental implant implanting tool to interlock in one of exactly N mating orientations wherein each of said N mating orientations corresponds to one of said N facing directions.
A bearer handover control method, comprising: receiving, by a serving gateway, a bearer modification request message from a mobility management entity, wherein the bearer modification request message corresponds to one packet data network, PDN, connection, the bearer modification request message comprises bearer contexts corresponding to all the bearers in the PDN connection; matching, by the serving gateway, fully qualified tunnel endpoint identifiers, F-TEIDs, in the bearer contexts in the bearer modification request message with F-TEIDs in bearer contexts that are stored by the serving gateway; determining, by the serving gateway, a bearer in the PDN connection needing to be handed over from a source base station to a target base station when the F-TEID of the bearer is not matched; sending, by the serving gateway, an end marker message to the source base station only for the bearer needing to be handed over. receiving, by a serving gateway, a bearer modification request message from a mobility management entity, wherein the bearer modification request message corresponds to one packet data network, PDN, connection, the bearer modification request message comprises bearer contexts corresponding to all the bearers in the PDN connection; matching, by the serving gateway, fully qualified tunnel endpoint identifiers, F-TEIDs, in the bearer contexts in the bearer modification request message with F-TEIDs in bearer contexts that are stored by the serving gateway; determining, by the serving gateway, a bearer in the PDN connection needing to be handed over from a source base station to a target base station when the F-TEID of the bearer is not matched; sending, by the serving gateway, an end marker message to the source base station only for the bearer needing to be handed over.
A dry aging system using oxygen, comprising: a refrigerating compartment ; one or more dry-aging rooms installed in the refrigerating compartment ; a vacuum pump configured to vacuumize the insides of the one or more dry-aging rooms ; an oxygen tank configured to store oxygen; a carbon dioxide tank configured to store carbon dioxide; a gas mixer configured to mix the oxygen supplied from the oxygen tank with the carbon dioxide supplied from the carbon dioxide tank ; a cooling pipe installed in the refrigerating compartment and configured to cool the mixed gas supplied from the gas mixer and supply the cooled mixed gas into the one or more dry-aging rooms ; a humidity controller configured to supply moisture into the one or more dry-aging rooms ; and a controller configured to separately control the one or more dry-aging rooms , configured to set a ratio of the oxygen and the carbon dioxide, which are supplied into each of the dry-aging rooms so as to supply the mixed gas, and configured to periodically detect the ratio of the oxygen and the carbon dioxide within the dry-aging room so that, if the detected ratio is different from the set value, the vacuum pump is driven to vacuumize the inside of the dry-aging room and to supply the mixed gas corresponding to the set value again into the dry-aging room by using the gas mixer . a refrigerating compartment ; one or more dry-aging rooms installed in the refrigerating compartment ; a vacuum pump configured to vacuumize the insides of the one or more dry-aging rooms ; an oxygen tank configured to store oxygen; a carbon dioxide tank configured to store carbon dioxide; a gas mixer configured to mix the oxygen supplied from the oxygen tank with the carbon dioxide supplied from the carbon dioxide tank ; a cooling pipe installed in the refrigerating compartment and configured to cool the mixed gas supplied from the gas mixer and supply the cooled mixed gas into the one or more dry-aging rooms ; a humidity controller configured to supply moisture into the one or more dry-aging rooms ; and a controller configured to separately control the one or more dry-aging rooms , configured to set a ratio of the oxygen and the carbon dioxide, which are supplied into each of the dry-aging rooms so as to supply the mixed gas, and configured to periodically detect the ratio of the oxygen and the carbon dioxide within the dry-aging room so that, if the detected ratio is different from the set value, the vacuum pump is driven to vacuumize the inside of the dry-aging room and to supply the mixed gas corresponding to the set value again into the dry-aging room by using the gas mixer .
A digital imaging method for use with an endoscope in ambient light deficient environments comprising: illuminating an environment using a source of visible, infrared or ultraviolet electromagnetic radiation; continuously focusing a scene onto a pixel array of a sensor ; sensing reflected electromagnetic radiation with said pixel array, wherein said pixel array generates image data; creating an image frame from said image data; detecting image textures and edges within the image frame; enhancing textures and edges within the image frame; retrieving from memory internal sensor properties pertaining to a pixel technology comprising a known-conversion gain for a given pixel or group of pixels and an applied sensor gain to: determine an expectation for the magnitude of noise for each pixel within an image frame based on the known-conversion gain for a given pixel or group of pixels; using said expectation for the magnitude of noise to control the enhancing of the textures and edges within the image frame; and creating a stream of images by sequentially combining a plurality of image frames. illuminating an environment using a source of visible, infrared or ultraviolet electromagnetic radiation; continuously focusing a scene onto a pixel array of a sensor ; sensing reflected electromagnetic radiation with said pixel array, wherein said pixel array generates image data; creating an image frame from said image data; detecting image textures and edges within the image frame; enhancing textures and edges within the image frame; retrieving from memory internal sensor properties pertaining to a pixel technology comprising a known-conversion gain for a given pixel or group of pixels and an applied sensor gain to: determine an expectation for the magnitude of noise for each pixel within an image frame based on the known-conversion gain for a given pixel or group of pixels; using said expectation for the magnitude of noise to control the enhancing of the textures and edges within the image frame; and creating a stream of images by sequentially combining a plurality of image frames. determine an expectation for the magnitude of noise for each pixel within an image frame based on the known-conversion gain for a given pixel or group of pixels; using said expectation for the magnitude of noise to control the enhancing of the textures and edges within the image frame; and creating a stream of images by sequentially combining a plurality of image frames.
Method for operating an electric motor, characterised in that - a driving-performance-related torque set point is transmitted by a drive dynamics controller to an acoustic controller configured as a control device (P3), - an input value for defining an acoustic signal is received by the acoustic controller (P4), - a phase angle (Φ) of a rotor of the electric motor is transmitted by power electronics to the acoustic controller (P5), - at least one torque pattern of a combustion engine that is dependent on the phase angle (Φ) of the rotor of the electric motor is modulated by the acoustic controller onto the driving-performance-related torque setpoint (M p ) to generate a dynamic torque set point, wherein the dynamic torque set point (M dyn ) is such that a sound is generated according to the input value by the electric motor and/or a drive train (P6), - the dynamic torque set point is transmitted to a power electronics (P7). - a driving-performance-related torque set point is transmitted by a drive dynamics controller to an acoustic controller configured as a control device (P3), - an input value for defining an acoustic signal is received by the acoustic controller (P4), - a phase angle (Φ) of a rotor of the electric motor is transmitted by power electronics to the acoustic controller (P5), - at least one torque pattern of a combustion engine that is dependent on the phase angle (Φ) of the rotor of the electric motor is modulated by the acoustic controller onto the driving-performance-related torque setpoint (M p ) to generate a dynamic torque set point, wherein the dynamic torque set point (M dyn ) is such that a sound is generated according to the input value by the electric motor and/or a drive train (P6), - the dynamic torque set point is transmitted to a power electronics (P7).
An extreme ultraviolet (EUV) mask blank system consisting of: an ultra-low expansion substrate ; a multi-layer stack over the ultra-low expansion substrate ; optionally a planarization layer on the top of the ultra-low expansion substrate ; optionally an additional multi-layer stack formed directly on a planarization layer , optionally the multi-layer stack formed on the optional additional multi-layer stack ; a capping layer on and in direct contact with the multi-layer stack ; an absorber layer on and in direct contact with the capping layer and consisting of a single layer with a thickness of less than 80nm and less than 2% reflectivity of an extreme ultraviolet (EUV) light at a wavelength of 13.5 nm, wherein the absorber layer consists of Tin (Sn), Lead (Pb), Bismuth (Bi), Antimony (Sb), or Tellurium (Te); and an anti-reflective coating on the absorber layer . an ultra-low expansion substrate ; a multi-layer stack over the ultra-low expansion substrate ; optionally a planarization layer on the top of the ultra-low expansion substrate ; optionally an additional multi-layer stack formed directly on a planarization layer , optionally the multi-layer stack formed on the optional additional multi-layer stack ; a capping layer on and in direct contact with the multi-layer stack ; an absorber layer on and in direct contact with the capping layer and consisting of a single layer with a thickness of less than 80nm and less than 2% reflectivity of an extreme ultraviolet (EUV) light at a wavelength of 13.5 nm, wherein the absorber layer consists of Tin (Sn), Lead (Pb), Bismuth (Bi), Antimony (Sb), or Tellurium (Te); and an anti-reflective coating on the absorber layer .
An aircraft propulsion module comprising - a hydrogen storage system , - at least one electrochemical converter connected to the hydrogen storage system , wherein the at least one electrochemical converter is adapted to convert hydrogen supplied from the hydrogen storage system into electric energy, and - at least one electric motor electrically connected to the at least one electrochemical converter , wherein the electric motor is adapted to generate thrust; wherein - the propulsion module comprises at least one separation means adapted to separate at least one component of the propulsion module from the propulsion module , - the at at least one separable component is in slidable connection with a support and is held in position at the support by at least one axle leading through respective holes in the component and the support , - the at least one axle is held in place by a fixation element attached to a free end section of the axle , and - the at least one separation means is adapted to remove the at least one axle out of the respective holes against resistance from the respective fixation element . - a hydrogen storage system , - at least one electrochemical converter connected to the hydrogen storage system , wherein the at least one electrochemical converter is adapted to convert hydrogen supplied from the hydrogen storage system into electric energy, and - at least one electric motor electrically connected to the at least one electrochemical converter , wherein the electric motor is adapted to generate thrust; wherein - the propulsion module comprises at least one separation means adapted to separate at least one component of the propulsion module from the propulsion module , - the at at least one separable component is in slidable connection with a support and is held in position at the support by at least one axle leading through respective holes in the component and the support , - the at least one axle is held in place by a fixation element attached to a free end section of the axle , and - the at least one separation means is adapted to remove the at least one axle out of the respective holes against resistance from the respective fixation element .