mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigerator comprising: a cabinet defining a storage compartment; a refrigerator door configured to open and close the storage compartment; a hinge assembly configured to couple the refrigerator door to the cabinet ; and a door opening device installed at the cabinet , the door opening device including a driving unit and a door opening part ; wherein the driving unit includes a driving motor and a power delivery part for delivering power of the driving motor to the door opening part , characterized in that the hinge assembly includes: a first link rotatably coupled to the cabinet , and a second link rotatably coupled to the refrigerator door ; andwherein the door opening part is configured to push the first link to thereby open the refrigerator door . a cabinet defining a storage compartment; a refrigerator door configured to open and close the storage compartment; a hinge assembly configured to couple the refrigerator door to the cabinet ; and a door opening device installed at the cabinet , the door opening device including a driving unit and a door opening part ; wherein the driving unit includes a driving motor and a power delivery part for delivering power of the driving motor to the door opening part , characterized in that the hinge assembly includes: a first link rotatably coupled to the cabinet , and a second link rotatably coupled to the refrigerator door ; andwherein the door opening part is configured to push the first link to thereby open the refrigerator door .
A method, comprising: transmitting , by a user equipment, at least one uplink signal to a plurality of network nodes of a wireless network based at least on the user equipment being in a RRC_CONNECTED_INACTIVE state such that the user equipment maintains connectivity with one of the network nodes; characterized by : in response to initiating a random access procedure with the network node that the user equipment maintains connectivity with receiving at least one connection message comprising a command to connect to at least two of the network nodes for communication; in response to the at least one connection message, changing from the RRC CONNECTED INACTIVE state to a RRC CONNECTED state; and transmitting data in a multiconnectivity session utilizing multiple communication links via the at least two network nodes. transmitting , by a user equipment, at least one uplink signal to a plurality of network nodes of a wireless network based at least on the user equipment being in a RRC_CONNECTED_INACTIVE state such that the user equipment maintains connectivity with one of the network nodes; characterized by : in response to initiating a random access procedure with the network node that the user equipment maintains connectivity with receiving at least one connection message comprising a command to connect to at least two of the network nodes for communication; in response to the at least one connection message, changing from the RRC CONNECTED INACTIVE state to a RRC CONNECTED state; and transmitting data in a multiconnectivity session utilizing multiple communication links via the at least two network nodes. in response to initiating a random access procedure with the network node that the user equipment maintains connectivity with receiving at least one connection message comprising a command to connect to at least two of the network nodes for communication; in response to the at least one connection message, changing from the RRC CONNECTED INACTIVE state to a RRC CONNECTED state; and transmitting data in a multiconnectivity session utilizing multiple communication links via the at least two network nodes.
A fusion polypeptide comprising: (i) the amino acid sequence of the endothelin A receptor ligand binding domains of Figures 6A-C; (ii) the amino acid sequence of the endothelin A receptor ligand binding domains of Figures 7A-C; (iii) the amino acid sequence of the endothelin A receptor ligand binding domains of Figures 8A-C; (iv) the amino acid sequence of the endothelin A receptor ligand binding domains of Figures 9A-C; (v) the amino acid sequence of the endothelin A receptor ligand binding domains of Figures 10A-C; (vi) the amino acid sequence of the endothelin A receptor ligand binding domains of Figures 11A-C; (vii) the amino acid sequence of the endothelin B receptor ligand binding domains of Figures 12A-B; (viii) the amino acid sequence of the endothelin B receptor ligand binding domains of Figures 13A-C; or (ix) the amino acid sequence of the endothelin B receptor ligand binding domains of Figures 14A-B. (i) the amino acid sequence of the endothelin A receptor ligand binding domains of Figures 6A-C; (ii) the amino acid sequence of the endothelin A receptor ligand binding domains of Figures 7A-C; (iii) the amino acid sequence of the endothelin A receptor ligand binding domains of Figures 8A-C; (iv) the amino acid sequence of the endothelin A receptor ligand binding domains of Figures 9A-C; (v) the amino acid sequence of the endothelin A receptor ligand binding domains of Figures 10A-C; (vi) the amino acid sequence of the endothelin A receptor ligand binding domains of Figures 11A-C; (vii) the amino acid sequence of the endothelin B receptor ligand binding domains of Figures 12A-B; (viii) the amino acid sequence of the endothelin B receptor ligand binding domains of Figures 13A-C; or (ix) the amino acid sequence of the endothelin B receptor ligand binding domains of Figures 14A-B.
A flow meter device comprising: a housing which is formed of an electrically-conductive material and accommodates therein a sensor for detecting a flow of a target; a radiation conductor which radiates an electric wave of a radio frequency signal; a circuit board which is electrically connected to the radiation conductor and in which a power supplying circuit for supplying radio-frequency electric power of the radio frequency signal to the radiation conductor is mounted; a casing which is formed of a non-electrically-conductive material, is placed on the housing , and accommodates therein the radiation conductor and the circuit board ; and a connecting member which is formed of the electrically-conductive material and electrically connects the housing and a ground of the power supplying circuit to each other, the circuit board including a power supplying point at which the power supplying circuit and the radiation conductor are electrically connected to each other, characterized in that : the connecting member is placed in the vicinity of the power supplying point and on an opposite side of the radiation conductor with respect to the power supplying point . a housing which is formed of an electrically-conductive material and accommodates therein a sensor for detecting a flow of a target; a radiation conductor which radiates an electric wave of a radio frequency signal; a circuit board which is electrically connected to the radiation conductor and in which a power supplying circuit for supplying radio-frequency electric power of the radio frequency signal to the radiation conductor is mounted; a casing which is formed of a non-electrically-conductive material, is placed on the housing , and accommodates therein the radiation conductor and the circuit board ; and a connecting member which is formed of the electrically-conductive material and electrically connects the housing and a ground of the power supplying circuit to each other, the circuit board including a power supplying point at which the power supplying circuit and the radiation conductor are electrically connected to each other, characterized in that : the connecting member is placed in the vicinity of the power supplying point and on an opposite side of the radiation conductor with respect to the power supplying point .
An IL-8 inhibitor, IL-6 inhibitor, and/or IL-1β inhibitor for use in a method of treating atherosclerosis in a human subject, the method comprising administering an effective amount of at least one IL-8 inhibitor, IL-6 inhibitor, and/or IL-1β inhibitor, wherein the subject has at least one loss-of-function TET2 mutation and/or at least one loss-of-function DNMT3A mutation, thereby treating atherosclerosis.
Method for high-resolution topography of the cornea of an eye, in which the eye is illuminated by the illumination source of a confocal, interferometric measuring arrangement, the light signals reflected by the cornea are detected both by the confocal, interferometric measuring arrangement and by a spatially resolving detector and said light signals are forwarded to an evaluation unit, wherein a) the illumination radiation is focused on the centre of curvature of the cornea, b) the part of the light signal reflected by the cornea that is output coupled from a beam splitter and imaged on the spatially resolving detector is superposed by a reference signal that is produced by a reference light source with a delay line, c) the reference signal has a similar and known wavefront form like that of the light signal reflected by the cornea and said reference signal is set by way of the delay line in such a way that it is able to interfere with the light signals reflected by the cornea, d) the distance of the corneal surface from a reference face is determined by the interferometric measuring arrangement at the same time as the interference pattern is produced on the spatially resolving detector and e) the topography of the cornea is determined by the evaluation unit from the measurement values of the spatially resolving detector and the interferometric measuring arrangement recorded at at least one time. a) the illumination radiation is focused on the centre of curvature of the cornea, b) the part of the light signal reflected by the cornea that is output coupled from a beam splitter and imaged on the spatially resolving detector is superposed by a reference signal that is produced by a reference light source with a delay line, c) the reference signal has a similar and known wavefront form like that of the light signal reflected by the cornea and said reference signal is set by way of the delay line in such a way that it is able to interfere with the light signals reflected by the cornea, d) the distance of the corneal surface from a reference face is determined by the interferometric measuring arrangement at the same time as the interference pattern is produced on the spatially resolving detector and e) the topography of the cornea is determined by the evaluation unit from the measurement values of the spatially resolving detector and the interferometric measuring arrangement recorded at at least one time.
An electronic device comprising: a housing having a front plate and a back plate , the back plate consisting of a ceramic portion (281; 211) consisting of a ceramic material, and a polymer portion (282; 212) formed on an inner surface of the ceramic portion (281; 211) and including a polymer material; and an antenna structure disposed within the housing and configured to radiate a radio frequency, RF, signal to an outside of the housing , wherein the back plate of the housing includes a first portion (283; 213), wherein the first portion (283; 213) comprises a region through which the RF signal passes, and a second portion formed around the first portion (283; 213), wherein, in the first portion (283; 213), the ceramic portion (281; 211) is thinner than in the second portion, wherein, in the first portion (283; 213), a ratio of a thickness of the polymer portion (282; 212) to an entire thickness of the first portion (283; 213) is a first ratio, wherein, in the second portion, a ratio of a thickness of the polymer portion (282; 212) to an entire thickness of the second portion is a second ratio, wherein the antenna structure is disposed so as to be spaced apart from the polymer portion (282; 212) in the region of the first portion (283; 213), and wherein the polymer portion (282; 212) is configured to provide mechanical rigidity for the ceramic portion (281; 211) at least in the first portion (283; 213) of the back plate of the housing . a housing having a front plate and a back plate , the back plate consisting of a ceramic portion (281; 211) consisting of a ceramic material, and a polymer portion (282; 212) formed on an inner surface of the ceramic portion (281; 211) and including a polymer material; and an antenna structure disposed within the housing and configured to radiate a radio frequency, RF, signal to an outside of the housing , wherein the back plate of the housing includes a first portion (283; 213), wherein the first portion (283; 213) comprises a region through which the RF signal passes, and a second portion formed around the first portion (283; 213), wherein, in the first portion (283; 213), the ceramic portion (281; 211) is thinner than in the second portion, wherein, in the first portion (283; 213), a ratio of a thickness of the polymer portion (282; 212) to an entire thickness of the first portion (283; 213) is a first ratio, wherein, in the second portion, a ratio of a thickness of the polymer portion (282; 212) to an entire thickness of the second portion is a second ratio, wherein the antenna structure is disposed so as to be spaced apart from the polymer portion (282; 212) in the region of the first portion (283; 213), and wherein the polymer portion (282; 212) is configured to provide mechanical rigidity for the ceramic portion (281; 211) at least in the first portion (283; 213) of the back plate of the housing .
A cinema screen comprising: a light emitting display positionable to emit light towards a viewer seating area in a theatre, characterised in that the light emitting display has a surface that is configured for reflecting sound waves from the viewer seating area in multiple directions that include reflecting sound waves away from the viewer seating area.
A method of operating a mobile robot , comprising: performing, by a processor of the mobile robot, operations comprising: operating a drive to navigate the mobile robot in an operating environment ; detecting, via at least one localization sensor (270A-H) of the mobile robot, localization data responsive to operating the drive to navigate the mobile robot in the operating environment, wherein the localization data is detected in a surface mapping routine to record 2-dimensional occupancy data representing locations of the operating environment and/or poses of the mobile robot thereon; acquiring, via at least one wireless receiver of the mobile robot, wireless communication signals responsive to operating the drive to navigate the mobile robot in the operating environment, wherein the wireless communication signals are transmitted by at least one electronic device (110; 120; 122; 124; 126; 127; 128; 140; 164) that is local to the operating environment; and determining a location of the mobile robot in the operating environment, characterized in that the determination is based on correlation of the localization data detected by the at least one localization sensor and the wireless communication signals acquired by the at least one wireless receiver, wherein the correlation is a correlation of the placement and the location of the at least one electronic device in the operating environment identified based on the wireless communication signals with an image of the at least one electronic device captured in the localization data. operating a drive to navigate the mobile robot in an operating environment ; detecting, via at least one localization sensor (270A-H) of the mobile robot, localization data responsive to operating the drive to navigate the mobile robot in the operating environment, wherein the localization data is detected in a surface mapping routine to record 2-dimensional occupancy data representing locations of the operating environment and/or poses of the mobile robot thereon; acquiring, via at least one wireless receiver of the mobile robot, wireless communication signals responsive to operating the drive to navigate the mobile robot in the operating environment, wherein the wireless communication signals are transmitted by at least one electronic device (110; 120; 122; 124; 126; 127; 128; 140; 164) that is local to the operating environment; and determining a location of the mobile robot in the operating environment, characterized in that the determination is based on correlation of the localization data detected by the at least one localization sensor and the wireless communication signals acquired by the at least one wireless receiver, wherein the correlation is a correlation of the placement and the location of the at least one electronic device in the operating environment identified based on the wireless communication signals with an image of the at least one electronic device captured in the localization data.
An optical communications network , characterized in that the optical communications network comprises: an optical line termination ; a first arrayed waveguide grating, AWG, comprising four input ports and four output ports; four feeder fibres each coupled between said optical line termination and a respective one of said four input ports, wherein three feeder fibres of the four feeder fibres are allocated as working feeder fibres and one feeder fibre of the four feeder fibres is allocated as a backup feeder fibre ; four wavelength division multiplexed passive optical network distribution networks, WDM PON, each coupled to a respective one of said four output ports; and twelve optical network units , wherein each WDM PON comprises a second AWG , wherein each of the second AWG comprises one input port and four output ports, said output ports being respectively coupled to three distribution fibres and a backup fibre , wherein the backup fibre comprises three branches each of which is respectively coupled to the three distribution fibres , wherein each of the twelve optical network units is respectively coupled to a distribution fiber, and wherein the three optical network units of each WDM PON are respectively coupled pairwise via interconnection fibres to optical network units of the other three WDM PONs . an optical line termination ; a first arrayed waveguide grating, AWG, comprising four input ports and four output ports; four feeder fibres each coupled between said optical line termination and a respective one of said four input ports, wherein three feeder fibres of the four feeder fibres are allocated as working feeder fibres and one feeder fibre of the four feeder fibres is allocated as a backup feeder fibre ; four wavelength division multiplexed passive optical network distribution networks, WDM PON, each coupled to a respective one of said four output ports; and twelve optical network units , wherein each WDM PON comprises a second AWG , wherein each of the second AWG comprises one input port and four output ports, said output ports being respectively coupled to three distribution fibres and a backup fibre , wherein the backup fibre comprises three branches each of which is respectively coupled to the three distribution fibres , wherein each of the twelve optical network units is respectively coupled to a distribution fiber, and wherein the three optical network units of each WDM PON are respectively coupled pairwise via interconnection fibres to optical network units of the other three WDM PONs .
A battery system comprising: a stack comprising a plurality of battery cells (10 1 , 10 2 , ..., 10 12 ; 20 1 , 20 2 , ..., 20 18 ) being stacked along a virtual reference axis (z); a pack frame comprising a first end plate and a second end plate ; one or more fluid springs configured for holding a fluid; one or more fluid pressure adjusting means for adjusting a fluid pressure within the at least one fluid spring ; a control unit configured for controlling the one or more fluid pressure adjusting means ; wherein the stack is placed between the first end plate and the second end plate ; wherein each of the one or more fluid springs is positioned between the first endplate and the second end plate, and is configured for exerting a pressure on at least one of the battery cells in a direction along the reference axis (z); wherein each of the fluid pressure adjusting means is connected to one or more fluid springs ; wherein the control unit is configured for receiving a safety check signal indicating a negative acceleration from at least one safety check sensor comprising an acceleration sensor configured to detect a negative acceleration with an absolute acceleration value equal to or larger than a predefined positive value; and wherein the control unit is further configured for evaluating, whether one or more received safety check signal(s), which indicate a negative acceleration, may indicate a safety critical situation, and for operating, upon evaluation that the safety check signal(s) indicating a negative acceleration may indicate a safety critical situation, the fluid pressure adjusting means such that the fluid pressure in the fluid springs is decreased. a stack comprising a plurality of battery cells (10 1 , 10 2 , ..., 10 12 ; 20 1 , 20 2 , ..., 20 18 ) being stacked along a virtual reference axis (z); a pack frame comprising a first end plate and a second end plate ; one or more fluid springs configured for holding a fluid; one or more fluid pressure adjusting means for adjusting a fluid pressure within the at least one fluid spring ; a control unit configured for controlling the one or more fluid pressure adjusting means ; wherein the stack is placed between the first end plate and the second end plate ; wherein each of the one or more fluid springs is positioned between the first endplate and the second end plate, and is configured for exerting a pressure on at least one of the battery cells in a direction along the reference axis (z); wherein each of the fluid pressure adjusting means is connected to one or more fluid springs ;
Food preparation entity comprising a cavity for receiving food to be prepared and at least two cameras for capturing images of the food included in the cavity , wherein said cameras are positioned such that images are captured from different points of view, wherein each camera comprises a certain field of view (4.1, 5.1), wherein immediately adjacent fields of view (4.1, 5.1) of said cameras at least partially overlap; wherein each camera comprises a main view axis (4.2, 5.2) and wherein a processing entity is provided which is configured to calculate three-dimensional information of the food included in the cavity based on the images provided by the cameras , characterized in that the angle (α) between the main view axes (4.2, 5.2) of cameras providing immediately adjacent fields of view (4.1, 5.1) is in the range between 10° and 15°, most preferably 11°, 12°, 13° or 14°.