mhurhangee/ep-ind-claims huggingface dataset:
A battery diagnosing apparatus, comprising: a measuring unit configured to measure discharge capacity and temperature of a battery; and an ohmic resistance determining unit configured to determine an ohmic resistance of the battery based on an impedance profile generated for the battery, characterized by a control unit configured to calculate a capacity change rate by comparing the discharge capacity of the battery measured by the measuring unit with a reference capacity, calculate a resistance change rate by comparing the ohmic resistance determined by the ohmic resistance determining unit with a reference resistance, judge an internal gas generation level of the battery by comparing magnitudes of the calculated resistance change rate and a criterion resistance change rate, and judge an internal gas generation cause of the battery by comparing magnitudes of the calculated capacity change rate and a criterion capacity change rate. a measuring unit configured to measure discharge capacity and temperature of a battery; and an ohmic resistance determining unit configured to determine an ohmic resistance of the battery based on an impedance profile generated for the battery, characterized by a control unit configured to calculate a capacity change rate by comparing the discharge capacity of the battery measured by the measuring unit with a reference capacity, calculate a resistance change rate by comparing the ohmic resistance determined by the ohmic resistance determining unit with a reference resistance, judge an internal gas generation level of the battery by comparing magnitudes of the calculated resistance change rate and a criterion resistance change rate, and judge an internal gas generation cause of the battery by comparing magnitudes of the calculated capacity change rate and a criterion capacity change rate.
An assembly system for a structure comprising: a motion platform configured to be positioned below a surface of a structure to perform an operation on the surface; a mobile platform configured to carry the motion platform across a floor of a manufacturing environment from a first location to a second location; an end effector on the motion platform, wherein the end effector is configured to hold a set of tools and perform the operation using the set of tools; and a pressure foot connected to the end effector and configured for identifying a contact force between the pressure foot and the surface of the structure. an end effector on the motion platform, wherein the end effector is configured to hold a set of tools and perform the operation using the set of tools; and a pressure foot connected to the end effector and configured for identifying a contact force between the pressure foot and the surface of the structure.
A sealable and peelable film comprising a four layer coextrudate comprising a core layer contributing predominantly towards the thickness of the film, a first sealing layer provided on one side of the core layer and a second sealing layer, or alternatively a laminating layer, provided on the other side of the core layer, and the film comprising a peeling layer in between the first sealing layer and the core layer and/or in between the second sealing layer, or alternatively the laminating layer, and the core layer, and wherein the peeling layer is adjacent the first sealing layer and/or the second sealing layer and/or the laminating layer such that there are no intervening layers between the peeling layer and its adjacent sealing and/or laminating layer, wherein the relative thickness of the peeling layer and its adjacent sealing and/or lamination layer (p:s/l ratio) is from 1:6 to 2:1, and wherein the thickness of the peeling layer is from 0.3μm to 3μm.
A dryer comprising: a hollow casing accommodating a fan and a heater and having an open front and an open rear; a rear cover connected to a rear edge of the casing to cover the rear of the casing; and a display device disposed at the rear of the casing and covering at least a part of the open rear, wherein the display device and a rear edge of the casing are spaced apart from each other to thereby form an air introduction area between the display device and the rear edge of the casing, characterized in that the rear cover comprises a cylindrical rear cover side wall, of which a front and a rear are open; and a rear cover plate covering the front of the rear cover side wall and being convex toward the front of the casing. a hollow casing accommodating a fan and a heater and having an open front and an open rear; a rear cover connected to a rear edge of the casing to cover the rear of the casing; and a display device disposed at the rear of the casing and covering at least a part of the open rear, wherein the display device and a rear edge of the casing are spaced apart from each other to thereby form an air introduction area between the display device and the rear edge of the casing, characterized in that the rear cover comprises a cylindrical rear cover side wall, of which a front and a rear are open; and a rear cover plate covering the front of the rear cover side wall and being convex toward the front of the casing.
A method of wireless communication, comprising: receiving, by a user equipment (704, 1302), feedback configuration information that associates a plurality of admissible rank value sets to channel state information, CSI, feedback process sets, each admissible rank value set including at least one rank indicator, RI, and precoding matrix indicator, PMI, pair, RI-PMI pair, each CSI feedback process set including at least one CSI feedback process, and each CSI feedback process being based on an admissible rank value set from the plurality of admissible rank value sets; wherein receiving the feedback configuration information comprises receiving a bitmap specifying an admissible rank value set associated to each CSI feedback process set, and conditioning each CSI feedback process set by the admissible rank value set by determining at least one RI from the admissible rank value set specified in the bitmap; determining a selected admissible rank value set based on the plurality of admissible rank value sets, the selecting being based on signaling from a base station; determining at least one RI-PMI pair corresponding to the selected admissible rank value set; determining at least one channel quality indicator, CQI, each CQI corresponding to one of the at least one RI-PMI pair; and transmitting a CSI report including the at least one RI-PMI pair and the at least one CQI to the base station. receiving, by a user equipment (704, 1302), feedback configuration information that associates a plurality of admissible rank value sets to channel state information, CSI, feedback process sets, each admissible rank value set including at least one rank indicator, RI, and precoding matrix indicator, PMI, pair, RI-PMI pair, each CSI feedback process set including at least one CSI feedback process, and each CSI feedback process being based on an admissible rank value set from the plurality of admissible rank value sets; wherein receiving the feedback configuration information comprises receiving a bitmap specifying an admissible rank value set associated to each CSI feedback process set, and conditioning each CSI feedback process set by the admissible rank value set by determining at least one RI from the admissible rank value set specified in the bitmap; determining a selected admissible rank value set based on the plurality of admissible rank value sets, the selecting being based on signaling from a base station; determining at least one RI-PMI pair corresponding to the selected admissible rank value set; determining at least one channel quality indicator, CQI, each CQI corresponding to one of the at least one RI-PMI pair; and transmitting a CSI report including the at least one RI-PMI pair and the at least one CQI to the base station.
A method for projecting an electron beam onto a target comprising correction of the electron scattering effects in the target, characterized in that said correction comprises a step of calculating a point spread function having a radial variation according to a piecewise polynomial function.
A method for producing a veneered board, which comprises a veneer having an upper face and a lower face and a carrier board having an upper face and a lower face, comprising the steps of: - providing a veneer, - applying an additive between binder and veneer, then applying a binder onto the upper face of the carrier board or the lower face of the veneer, wherein a PU prepolymer is used as the binder, - producing a stack of materials to be pressed comprising the carrier board and the veneer with the binder arranged between the carrier board and the veneer and with the additive arranged between the binder and the veneer, - pressing the stack of materials to be pressed in order to form a veneered board wherein one of the following substances is used as an additive, either individually or in a mixture: flame retardant, UV stabilizer, infrared absorber, agent for increasing conductivity, antibacterial agent, antifungal agent, an-tialgal agent, hydrophobizing agent, bleaching agent, stain. - providing a veneer, - applying an additive between binder and veneer, then applying a binder onto the upper face of the carrier board or the lower face of the veneer, wherein a PU prepolymer is used as the binder, - producing a stack of materials to be pressed comprising the carrier board and the veneer with the binder arranged between the carrier board and the veneer and with the additive arranged between the binder and the veneer, - pressing the stack of materials to be pressed in order to form a veneered board
Method for morphing a standard 3D model based on a 2D video frame at a particular instance in time (2D video frame), said method comprising the steps of - performing an initial morphing of said standard 3D model using said 2D video frame (2D video frame), a detection model and a morphing model, thereby obtaining a morphed standard 3D model for said 2D video frame at said particular instance in time - determining the optical flow between the 2D "video frame " and the morphed standard 3D model, - applying the optical flow to said morphed standard 3D model, thereby providing a fine tuned morphed 3D standard model at said particular instance in time wherein determining the optical flow between the 2D video frame and the morphed standard 3D model at said particular instance in time comprises: - determining a first optical flow between the 2D projection of the morphed standard 3D model and the 2D projection of a previous fine tuned morphed 3D standard model (T-1) determined on a previous 2D video frame "(T-1)," - determining a second optical flow between the actual 2D frame and the 2D projection of the previous fine tuned morphed 3D standard model (T-1) determined on said previous 2D video frame (T-1), - combining said first and second optical flow to obtain a third optical flow between the 2D video frame and the 2D projection of the morphed standard 3D model, - back-projecting said third optical flow based on depth information obtained during the 2D projection of said morphed standard 3D model to obtain the optical flow between the 2D video frame and the morphed standard 3D model. - performing an initial morphing of said standard 3D model using said 2D video frame (2D video frame), a detection model and a morphing model, thereby obtaining a morphed standard 3D model for said 2D video frame at said particular instance in time - determining the optical flow between the 2D "video frame " and the morphed standard 3D model, - applying the optical flow to said morphed standard 3D model, thereby providing a fine tuned morphed 3D standard model at said particular instance in time wherein determining the optical flow between the 2D video frame and the morphed standard 3D model at said particular instance in time comprises: - determining a first optical flow between the 2D projection of the morphed standard 3D model and the 2D projection of a previous fine tuned morphed 3D standard model (T-1) determined on a previous 2D video frame "(T-1)," - determining a second optical flow between the actual 2D frame and the 2D projection of the previous fine tuned morphed 3D standard model (T-1) determined on said previous 2D video frame (T-1), - combining said first and second optical flow to obtain a third optical flow between the 2D video frame and the 2D projection of the morphed standard 3D model, - back-projecting said third optical flow based on depth information obtained during the 2D projection of said morphed standard 3D model to obtain the optical flow between the 2D video frame and the morphed standard 3D model.
A device for facilitating rolling of a surgical mesh onto a surgical instrument, the device comprising a sleeve comprising two portions longitudinally hingedly connected to each other to provide a slit along a length of the sleeve, wherein the sleeve has an open configuration for operably coupling with an unrolled mesh on a surgical instrument, and a closed configuration wherein the two portions are substantially adjacent to one another to form an internal cavity for facilitating rolling of the mesh onto the instrument; characterized in that insertion fins (401, 402) are connected to the distal end of the sleeve, the insertion fins being adapted to open valves of surgical ports.
Fuel-tank filler neck, which is arranged at the upper end of a filling pipe leading to a fuel tank, the filler neck comprising a liquid separator fastened to the upper end of the filling pipe, which separator has a separating chamber in flow connection with the filling pipe, to which chamber a vent line of the fuel tank is connected, the separating chamber of the liquid separator being annular cylindrical and having a lateral off-center connection for the vent line, so that a vortex flow can form in the annular cylindrical separating chamber, characterized in that the liquid separator has a separator housing which is fastened to the filling pipe and which comprises a cup-shaped outer housing having a base and a cylindrical outer casing wall and an inner housing that is arranged concentrically in the outer housing and has a cylindrical inner casing wall, the annular cylindrical separating chamber extending between the outer casing wall and the inner casing wall. the separating chamber of the liquid separator being annular cylindrical and having a lateral off-center connection for the vent line, so that a vortex flow can form in the annular cylindrical separating chamber, characterized in that the liquid separator has a separator housing which is fastened to the filling pipe and which comprises a cup-shaped outer housing having a base and a cylindrical outer casing wall and an inner housing that is arranged concentrically in the outer housing and has a cylindrical inner casing wall, the annular cylindrical separating chamber extending between the outer casing wall and the inner casing wall.
An apparatus (100, 200) for installation or removal of a turbine blade, the apparatus comprising: an operative head (104, 204) configured to engage an axial sidewall of a turbine blade base; and a mount (110, 210) removably coupled to a portion of a turbomachine assembly by a coupler (112, 212a, 212b), wherein the operative head is slidably coupled to the mount such that the operative head selectively engages the axial sidewall of the turbine blade base, and wherein the operative head is shaped to impart an axial and a circumferential force against the turbine blade base, characterized in that the apparatus further comprises a vibrating assembly (102, 202) including a vibratory drive mechanism (103, 203) coupled to the operative head, the vibrating assembly (102, 202) generating mechanical vibrational oscillations imparting an axial and a circumferential force against the turbine blade base through the operative head. an operative head (104, 204) configured to engage an axial sidewall of a turbine blade base; and a mount (110, 210) removably coupled to a portion of a turbomachine assembly by a coupler (112, 212a, 212b), wherein the operative head is slidably coupled to the mount such that the operative head selectively engages the axial sidewall of the turbine blade base, and wherein the operative head is shaped to impart an axial and a circumferential force against the turbine blade base, characterized in that the apparatus further comprises a vibrating assembly (102, 202) including a vibratory drive mechanism (103, 203) coupled to the operative head, the vibrating assembly (102, 202) generating mechanical vibrational oscillations imparting an axial and a circumferential force against the turbine blade base through the operative head.
A water based drilling fluid comprising water and 0.01 to 10 wt% of an additive composition, wherein the additive composition comprises: 0.01 to 10 wt% of at least one of a metal dithiophosphate compound and a sulfurized olefin; and a reaction product of: a. at least one hydrocarbyl substituted carboxylic acid or an ester or anhydride thereof; and b. at least one polyalkylene glycol wherein the hydrocarbyl substituent of the hydrocarbyl substituted carboxylic acid comprises a C 10 to C 22 straight chain or branched alkane or alkene. 0.01 to 10 wt% of at least one of a metal dithiophosphate compound and a sulfurized olefin; and a reaction product of: a. at least one hydrocarbyl substituted carboxylic acid or an ester or anhydride thereof; and b. at least one polyalkylene glycol a. at least one hydrocarbyl substituted carboxylic acid or an ester or anhydride thereof; and b. at least one polyalkylene glycol wherein the hydrocarbyl substituent of the hydrocarbyl substituted carboxylic acid comprises a C 10 to C 22 straight chain or branched alkane or alkene.
An apparatus, the apparatus comprises sending means for sending wireless push session initiation requests characterized in that the apparatus is capable of: piggybacking update data in a wireless push session initiation request to make an update message over a short message service bearer, sending a plurality of such update messages over the short message service bearer to enable a server to receive the update data. piggybacking update data in a wireless push session initiation request to make an update message over a short message service bearer, sending a plurality of such update messages over the short message service bearer to enable a server to receive the update data.
A drip control device configured to be used with a boom microphone, whereby the drip control device consists of elastic material and has, measured in longitudinal direction of a boom of the boom microphone, a length in boom direction and, measured in the length perpendicular to the longitudinal direction of the boom, has an outer diameter, and that, with respect to a ratio of these dimensions, the ratio is L/D > 1, whereby the drip control device is configured for installation around the boom at a distance from a microphone of the boom microphone, and characterised in that • it has either the shape of a hollow cylinder with a jacket, and that its inside diameter is no larger than the outside diameter of the boom and in that the jacket of the hollow cylinder has a cut extending across its entire length and its entire thickness, and in that the outer jacket surface has grooves, nubs, ribs, ridges, wells, dents, indentations and other structural elements so as to make sure that the device can receive and hold the growing size of the beads of perspiration; • or it consists substantially of a helically shaped band, an inside diameter of which is no larger than the outside diameter of the boom. • it has either the shape of a hollow cylinder with a jacket, and that its inside diameter is no larger than the outside diameter of the boom and in that the jacket of the hollow cylinder has a cut extending across its entire length and its entire thickness, and in that the outer jacket surface has grooves, nubs, ribs, ridges, wells, dents, indentations and other structural elements so as to make sure that the device can receive and hold the growing size of the beads of perspiration; • or it consists substantially of a helically shaped band, an inside diameter of which is no larger than the outside diameter of the boom.
Cabin module for an aircraft, the cabin module having a sanitary unit; wherein the sanitary unit has a toilet cubicle with a toilet; wherein the toilet cubicle is formed by four side walls (18a, 18b, 18c, 18d) and the toilet is arranged on a first side wall; wherein a first access door is arranged in a second side wall, which extends transversely to the first side wall and adjoins the first side wall; wherein a surface which is designed to at least partially accommodate a wheelchair is provided within the toilet cubicle; wherein the cabin module is configured to be installed with the second side wall transversely to the direction of flight; wherein the first side wall is aligned with an external wall in the installed state; wherein a second access door is arranged in a third side wall, which extends transversely to the second side wall and adjoins the second side wall; wherein the second and the third side wall are connected at right angles by a connection region; wherein a connecting door is provided, which adjoins the connection region and is designed to separate from an aisle region a secondary access region, which is situated in front of the second access door, outside the toilet cubicle; wherein a frame structure is provided, which adjoins the toilet cubicle on a side opposite the first side wall; wherein the frame structure can be connected to a primary structure of a fuselage structure; wherein the frame structure has at least two vertical structural elements (36a, 36b), which form a first frame side, which adjoins the second side wall and in which the connecting door is provided; and wherein at least the first access door and the connecting door are secured on the frame structure.
An additively manufactured component, comprising a heat transfer augmentation feature; characterised in that: said heat transfer augmentation feature includes a passage, the heat transfer augmentation feature has a surface finish with a surface roughness average of between about 125 - 900 micro inches (3.175 - 22.86 μm), and said surface finish includes a defined contour defined with respect to an airflow, the surface finish configured to control airflow turbulence to tailor heat transfer.
A multilayer material for the production of a shell of a balloon of an aerostat, the shell enclosing a carrier gas, the multilayer material comprising at least the following layers: - a structural layer, which comprises a structural fabric; and - a sealing layer to the carrier gas; these layers being distributed between an external face of the shell and an internal face of the shell, the internal face being intended to be in contact with the carrier gas when the latter is enclosed in the shell, characterised in that the multilayer material furthermore comprises an electric charge dissipation layer, which forms the internal face and which has a layer resistance of between 10 4 and 10 8 Ohm per square. - a structural layer, which comprises a structural fabric; and - a sealing layer to the carrier gas; these layers being distributed between an external face of the shell and an internal face of the shell, the internal face being intended to be in contact with the carrier gas when the latter is enclosed in the shell, characterised in that the multilayer material furthermore comprises an electric charge dissipation layer, which forms the internal face and which has a layer resistance of between 10 4 and 10 8 Ohm per square.