mhurhangee/ep-ind-claims huggingface dataset:
Stator segment for a hollow cylinder-shaped, segmented stator of an electrical machine, wherein the stator segment has: - a segment laminated core having a first edge portion and a second edge portion, which are each arranged on a segment boundary to the respective adjacent stator segment, and a central portion, which is arranged between the first edge portion and the second edge portion, and - coils each having at least one groove portion, wherein the segment laminated core has radially inwardly open grooves and radially inwardly open grooves extending in the axial direction arranged in the circumferential direction offset to one another, wherein the respective groove is embodied such that two groove portions can be arranged therein one on top of the other in the radial direction with the radially inwardly arranged groove portion functioning as a top bar and the radially outwardly arranged groove portion functions as a bottom bar, wherein the coils comprise first coils each having two first groove portions and two winding head portions, wherein the two first groove portions of the respective first coil are connected to one another on the respective axial end face by means of the respective winding head portion, wherein the two first groove portions of the respective first coil are arranged in different grooves, which are offset with respect to one another by a number of grooves, wherein in each case two first groove portions of different first coils arranged one on top of the other in the radial direction are arranged in the grooves of the central portion, wherein in each case a first groove portion of one of the first coils is arranged in the grooves of the respective edge portion (2, 3), characterised in that the coils comprise second coils each of which surrounds the segment laminated core and which each have a second groove portion, a back portion and two radial portions, wherein the back portion of the respective second coil is arranged on the radial outer side of the segment laminated core, wherein the respective second groove portion is connected to the back portion on the respective axial end face of the respective second coil by means of the respective radial portion, wherein the second groove portion of the respective second coil is arranged in one of the grooves of the respective edge portion (2, 3). - a segment laminated core having a first edge portion and a second edge portion, which are each arranged on a segment boundary to the respective adjacent stator segment, and a central portion, which is arranged between the first edge portion and the second edge portion, and - coils each having at least one groove portion,
A method performed by a wireless device for performing measurements where a current Radio Resource Control, RRC, status is one of the group consisting of: IDLE; and INACTIVE, the method comprising: monitoring for a potential reception of a downlink message from a base station in a cell that the wireless device is camping on, wherein the potential reception of the downlink message is a potential reception of one of the group consisting of: a paging message; and a message multiplexed with the paging message; detecting, based upon the reception of the downlink message, information regarding performing measurements, wherein the information regarding performing measurements comprises a measurement configuration that indicates that the wireless device shall perform new measurements according to the configuration received, restore a stored measurement configuration and apply the received measurement configuration on top of the stored measurement configuration; performing measurements, based on the information regarding performing the measurements, before reception of a resume message putting the wireless device in CONNECTED mode; and reporting measurement results to the base station. monitoring for a potential reception of a downlink message from a base station in a cell that the wireless device is camping on, wherein the potential reception of the downlink message is a potential reception of one of the group consisting of: a paging message; and a message multiplexed with the paging message; detecting, based upon the reception of the downlink message, information regarding performing measurements, wherein the information regarding performing measurements comprises a measurement configuration that indicates that the wireless device shall perform new measurements according to the configuration received, restore a stored measurement configuration and apply the received measurement configuration on top of the stored measurement configuration; performing measurements, based on the information regarding performing the measurements, before reception of a resume message putting the wireless device in CONNECTED mode; and reporting measurement results to the base station.
A profile for interior construction, in particular a ceiling profile, which extends along a longitudinal direction and which comprises at least one surface section in parallel with the longitudinal direction, wherein the surface section has a receiving cut which extends, starting from an end face of the profile, in the longitudinal direction into the surface section and which is configured to receive a flange of a support profile extending transversely to the longitudinal direction, wherein a support tab is provided at a side edge of the receiving cut which bounds the receiving cut transversely to the longitudinal direction, said support tab projecting from the surface section and enclosing an angle of more than 90° at least regionally along the side edge with the adjacent part of the surface section such that said support tab projects over the receiving cut, characterized in that the angle increases as the spacing from the end face increases.
A method for making a 3D structure, said method comprising the steps of: providing a substantially coherent beam of electromagnetic radiation; directing said substantially coherent beam of electromagnetic radiation onto a mask element in direct optical communication with a radiation sensitive material; wherein said mask element is a phase mask that comprises a conformable elastomer having a selected relief pattern and at least one contact surface comprising the relief pattern in conformal contact with a contact surface of said radiation sensitive material, wherein said relief pattern generates a plurality of beams of electromagnetic radiation, thereby generating an optical interference pattern within said radiation sensitive material; wherein interactions of said electromagnetic radiation with said radiation sensitive material generates chemically modified regions of said radiation sensitive material, removing at least a portion of said chemically modified regions of said radiation sensitive material or removing at least a portion of said radiation sensitive material which is not chemically modified, thereby generating said 3D structure; providing a substantially coherent beam of electromagnetic radiation; directing said substantially coherent beam of electromagnetic radiation onto a mask element in direct optical communication with a radiation sensitive material; wherein said mask element is a phase mask that comprises a conformable elastomer having a selected relief pattern and at least one contact surface comprising the relief pattern in conformal contact with a contact surface of said radiation sensitive material, wherein said relief pattern generates a plurality of beams of electromagnetic radiation, thereby generating an optical interference pattern within said radiation sensitive material; wherein interactions of said electromagnetic radiation with said radiation sensitive material generates chemically modified regions of said radiation sensitive material, removing at least a portion of said chemically modified regions of said radiation sensitive material or removing at least a portion of said radiation sensitive material which is not chemically modified, thereby generating said 3D structure;
Key actuating device for turning a key located in a door lock of a door, in particular, a house door or the door of a flat, around a rotational axis comprising a rotary holding unit for a torque-proof accommodation of the free end of the key, at least one controllable drive motor unit (9, 9', 9"), a multi-part coupling device for drivingly coupling the controllable drive motor unit (9, 9', 9") with the rotary holding unit, a housing and a control unit for controlling the at least one controllable drive motor unit (9, 9', 9"), wherein the rotary holding unit and the multi-part coupling device are rotatably mounted relative to each other around the rotational axis, and wherein the rotary holding unit for rotatably mounting around the rotational axis is accommodated and integrated in the multi-part coupling device at least in sections, characterized in that the multi-part coupling device comprises at least an annular crown gear (10.1) and at least a coupling sleeve (10.2) accommodated in the annular crown gear (10.1) for establishing a torque-proof mechanical operative connection between the annular crown gear (10.1) and the rotary holding unit, which is accommodated in the coupling sleeve (10.2) at least in sections.
A gas shield for maintaining an optical input of an imager of a videoscope clear of debris, said gas shield including a tubular member for carrying a pressurized gas, said tubular member having a first end receiving the pressurized gas from a source, the optical input of said imager located inside said tubular member adjacent a second end thereof, at least one conductor carrying signals representative of an image captured by said imager, said conductor extended through said tubular member to said imager, said gas shield characterized by: an annular orifice located at the second end of said tubular member between an outer surface of said imager and an inner surface of said tubular member, said annular orifice carrying the pressurized gas around said imager, whereby the pressurized gas forced through the annular orifice forms an annular envelope of pressurized gas around said imager, said annular envelope of pressurized gas exits the gas shield axially outwardly at the second end of said tubular member without an obstruction that redirects the pressurized gas across the optical input, whereby the annular envelope of pressurized gas exiting axially outwardly from the annular orifice forms an annular shield around the optical input of said imager. an annular orifice located at the second end of said tubular member between an outer surface of said imager and an inner surface of said tubular member, said annular orifice carrying the pressurized gas around said imager, whereby the pressurized gas forced through the annular orifice forms an annular envelope of pressurized gas around said imager, said annular envelope of pressurized gas exits the gas shield axially outwardly at the second end of said tubular member without an obstruction that redirects the pressurized gas across the optical input, whereby the annular envelope of pressurized gas exiting axially outwardly from the annular orifice forms an annular shield around the optical input of said imager.
A photodetecting device comprising a semiconductor substrate having a first principal surface (1Na; 20a; 30a) and a second principal surface (1Nb; 20b; 30b) opposing each other and including a plurality of pixels one-dimensionally distributed on a single line, wherein, each of the pixels of the photodetecting device includes: a plurality of avalanche photodiodes each including a light receiving region, distributed two-dimensionally on the first principal surface side of the semiconductor substrate, and arranged to operate in Geiger mode; a plurality of quenching resistors provided on the first principal surface side of the semiconductor substrate, wherein each of the plurality of quenching resistors is electrically connected in series to a corresponding one of the plurality of avalanche photodiodes; and a signal processing unit arranged to process output signals from the plurality of avalanche photodiodes, and each of the signal processing units includes: a gate grounded circuit, wherein the plurality of avalanche photodiodes of the corresponding pixel are electrically connected in parallel to the gate grounded circuit (31; 41) via the plurality of quenching resistors; and a current mirror circuit (34; 44) electrically connected to the gate grounded circuit (31; 41) and arranged to output a signal corresponding to the output signals from the plurality of avalanche photodiodes. a plurality of avalanche photodiodes each including a light receiving region, distributed two-dimensionally on the first principal surface side of the semiconductor substrate, and arranged to operate in Geiger mode; a plurality of quenching resistors provided on the first principal surface side of the semiconductor substrate, wherein each of the plurality of quenching resistors is electrically connected in series to a corresponding one of the plurality of avalanche photodiodes; and a signal processing unit arranged to process output signals from the plurality of avalanche photodiodes, and each of the signal processing units includes: a gate grounded circuit, wherein the plurality of avalanche photodiodes of the corresponding pixel are electrically connected in parallel to the gate grounded circuit (31; 41) via the plurality of quenching resistors; and a current mirror circuit (34; 44) electrically connected to the gate grounded circuit (31; 41) and arranged to output a signal corresponding to the output signals from the plurality of avalanche photodiodes. a gate grounded circuit, wherein the plurality of avalanche photodiodes of the corresponding pixel are electrically connected in parallel to the gate grounded circuit (31; 41) via the plurality of quenching resistors; and a current mirror circuit (34; 44) electrically connected to the gate grounded circuit (31; 41) and arranged to output a signal corresponding to the output signals from the plurality of avalanche photodiodes.
A stove feeding module for feeding solid fuel to the grate of a combustion module of the stove, the feeding module comprising a storage space for solid fuel, characterised in that it further comprises a protective wall panel designed to be fitted along a wall and to protect the latter, the wall panel having a rear face facing the wall, and a front face exposed to the outside of the stove and facing the combustion module, wherein the projected area of the combustion module in orthogonal projection on the front face of the wall panel, is smaller than the area of that front face, and wherein the storage space extends along the rear face so as to be located between the wall panel and the wall when the wall panel is fitted along the wall.
A compound represented by the general formula or a stereoisomer, a tautomer thereof or a pharmaceutically acceptable salt thereof: wherein: D is CR 3; each R 1 is independently selected from the group consisting of hydrogen atom, halogen, cyano, heterocyclyl or heteroaryl; wherein said heterocyclyl or heteroaryl is optionally further substituted by alkyl; R 2 is hydrogen atom; R 3 is selected from the group consisting of cycloalkyl, wherein said cycloalkyl is optionally further substituted with one or more halogens; m is 0, 1 or 2; n is 0, 1 or 2. D is CR 3; each R 1 is independently selected from the group consisting of hydrogen atom, halogen, cyano, heterocyclyl or heteroaryl; wherein said heterocyclyl or heteroaryl is optionally further substituted by alkyl; R 2 is hydrogen atom; R 3 is selected from the group consisting of cycloalkyl, wherein said cycloalkyl is optionally further substituted with one or more halogens; m is 0, 1 or 2; n is 0, 1 or 2.
A method of generating two beams, having orthogonal polarizations, covering a selected area using an antenna (20; 30) comprising multiple dual-polarized array elements (11; 31), each dual-polarized array element having a first antenna element (11A; 31A) having a first phase centre (18; 28 A) and associated with a first polarization and a second antenna element (11B; 31B) having a second phase centre (18; 28 B) and associated with a second polarization, orthogonal to said first polarization, the first and second phase centres of said dual-polarized array elements are arranged in a first direction and symmetrically distributed across a two dimensional antenna surface in relation to a symmetry line (22; 32), perpendicular to said first direction, each beam is generated by feeding said multiple dual-polarized array elements, wherein said method comprises: - designing a first weight matrix having a first non-zero weight vector for the first polarization and a second non-zero weight vector for the second polarization, - applying the first weight matrix to said dual-polarized array elements to generate a first beam covering the selected area, - calculating a second weight matrix based on the weight vectors of the first weight matrix, and - applying the second weight matrix to said dual-polarized array elements to generate a second beam covering the selected area, wherein the first weight matrix W 1 T is defined as: W 1 T = W 1 ⁢ A T W 1 ⁢ B T = w 11 A w 12 A ⋯ w 1 ⁢ N A w 11 B w 12 B ⋯ w 1 ⁢ N B W 1 ⁢ A T is the first weight vector with elements w 1 ⁢ n A; n = 1 - N, W 1 ⁢ B T is the second weight vector with elements w 1 ⁢ n B; n = 1 - N, A represents the first polarization and B represents the second polarization, and the second weight matrix W 2 T is calculated as: W 2 T = W 2 ⁢ A T W 2 ⁢ B T = conj ⁢ - W 1 ⁢ B T W 1 ⁢ A T ⁢ F = conj ⁢ - w 11 B - w 12 B ⋯ - w 1 ⁢ N B w 11 A w 12 A ⋯ w 1 ⁢ N A ⁢ 0 0 ⋯ 1 ⋮ ⋮... ⋮ 0 1 ⋯ 0 1 0 ⋯ 0 = = - w 1 ⁢ N B * ⋯ - w 12 B * - w 11 B * w 1 ⁢ N A * ⋯ w 12 A * w 11 A * = w 21 A w 22 A ⋯ w 2 ⁢ N A w 21 B w 22 B ⋯ w 2 ⁢ N B W 2 ⁢ A T is the first weight vector with elements w 2 ⁢ n A; n = 1 - N, W 2 ⁢ B T is the second weight vector with elements w 2 ⁢ n B; n = 1 - N, and wherein W 2 T = W 2 ⁢ A T W 2 ⁢ B T = conj ⁢ - W 1 ⁢ B T W 1 ⁢ A T ⁢ F represents an operation performed on the "N" complex elements of the weight vectors of the first weight matrix to obtain the second weight matrix to generate the second beam with the same power pattern as the first beam and orthogonal polarization to the first beam in all directions. - designing a first weight matrix having a first non-zero weight vector for the first polarization and a second non-zero weight vector for the second polarization, - applying the first weight matrix to said dual-polarized array elements to generate a first beam covering the selected area, - calculating a second weight matrix based on the weight vectors of the first weight matrix, and - applying the second weight matrix to said dual-polarized array elements to generate a second beam covering the selected area,
A system for transmitting a video signal from a Video Input to a Video Output, comprising at least one transmission controller, the at least one transmission controller including: a video drive module configured to receive the video signal sent by the Video Input, amplify the video signal and transmit the amplified video signal to a node; a closed loop suppression module coupled to the node and the Video Output, and configured to receive the amplified video signal from the node, transmit the amplified video signal to the Video Output, receive a reverse control signal from the Video Output, and adjust a voltage of the node and a voltage of the Video Output according to the voltage of the reverse control signal; a reverse control extraction module configured to receive the voltage of the node and the voltage of the Video Output, and output conduction control signal when the voltage of the Video Output is greater than the voltage of the node; and a reverse control superimposing module configured to receive the conduction control signal and provide a reference voltage signal of a reference voltage end to the Video Input under the control of the conduction control signal. a video drive module configured to receive the video signal sent by the Video Input, amplify the video signal and transmit the amplified video signal to a node; a closed loop suppression module coupled to the node and the Video Output, and configured to receive the amplified video signal from the node, transmit the amplified video signal to the Video Output, receive a reverse control signal from the Video Output, and adjust a voltage of the node and a voltage of the Video Output according to the voltage of the reverse control signal; a reverse control extraction module configured to receive the voltage of the node and the voltage of the Video Output, and output conduction control signal when the voltage of the Video Output is greater than the voltage of the node; and a reverse control superimposing module configured to receive the conduction control signal and provide a reference voltage signal of a reference voltage end to the Video Input under the control of the conduction control signal.
A polymer composition comprising: silica as a filler; a polymer having a repeating unit derived from a conjugated diene compound, having a peak temperature of a tanδ temperature dispersion curve of -110°C or more and less than -30°C, and having at least one functional group selected from a group consisting of a nitrogen-containing functional group, a silicon-containing functional group, and an oxygen containing functional group; and a polymer having a repeating unit derived from a conjugated diene compound and a repeating unit derived from an aromatic vinyl compound, having a peak temperature of a tanδ temperature dispersion curve of -30°C or more and 10°C or less, and having at least one functional group selected from a group consisting of a nitrogen-containing functional group, a silicon-containing functional group, and an oxygen containing functional group, the polymer and the polymer being incompatible with each other, and a concentration of functional groups per unit mass of the polymer being higher than a concentration of functional groups per unit mass of the polymer. silica as a filler; a polymer having a repeating unit derived from a conjugated diene compound, having a peak temperature of a tanδ temperature dispersion curve of -110°C or more and less than -30°C, and having at least one functional group selected from a group consisting of a nitrogen-containing functional group, a silicon-containing functional group, and an oxygen containing functional group; and a polymer having a repeating unit derived from a conjugated diene compound and a repeating unit derived from an aromatic vinyl compound, having a peak temperature of a tanδ temperature dispersion curve of -30°C or more and 10°C or less, and having at least one functional group selected from a group consisting of a nitrogen-containing functional group, a silicon-containing functional group, and an oxygen containing functional group, the polymer and the polymer being incompatible with each other, and a concentration of functional groups per unit mass of the polymer being higher than a concentration of functional groups per unit mass of the polymer.