mhurhangee/ep-ind-claims huggingface dataset:
A building transition, comprising a first building component, in particular a roller shutter guide rail, a slat guide rail, a window sill, a window or door frame, a pilaster strip or a beam; a second building component, in particular a thermal insulation and/or a plaster layer on a building wall; and a plastering strip arranged between the first building component and the second building component and having a base area; wherein a plastering portion is arranged on the front side of the base area; wherein the plastering strip has, in addition to the base area, a back-engaging fixing leg projecting rearwardly with respect to the main direction of extension of the base area; wherein the plastering strip is fixed with its back-engaging fixing leg in a gap between the first building component and the second building component, or wherein the plastering strip is glued to the outside of the first building component with an adhesive strip of its back-engaging fixing leg; wherein the base area of the plastering strip is arranged in front of the first building component; wherein a plaster layer is applied to the thermal insulation or the building wall, extending up to the plastering portion of the plastering strip; characterized in that an expansion strip with delayed expansion is arranged on the rear side of the base area, which expansion strip has expanded rearwardly, in particular after release of a trapping portion; and the expansion strip abuts on the front side of the first building component. a first building component, in particular a roller shutter guide rail, a slat guide rail, a window sill, a window or door frame, a pilaster strip or a beam; a second building component, in particular a thermal insulation and/or a plaster layer on a building wall; and a plastering strip arranged between the first building component and the second building component and having a base area; wherein a plastering portion is arranged on the front side of the base area; wherein the plastering strip has, in addition to the base area, a back-engaging fixing leg projecting rearwardly with respect to the main direction of extension of the base area; wherein the plastering strip is fixed with its back-engaging fixing leg in a gap between the first building component and the second building component, or wherein the plastering strip is glued to the outside of the first building component with an adhesive strip of its back-engaging fixing leg; wherein the base area of the plastering strip is arranged in front of the first building component; wherein a plaster layer is applied to the thermal insulation or the building wall, extending up to the plastering portion of the plastering strip; characterized in that an expansion strip with delayed expansion is arranged on the rear side of the base area, which expansion strip has expanded rearwardly, in particular after release of a trapping portion; and the expansion strip abuts on the front side of the first building component.
A power semiconductor unit, comprising: a power semiconductor switch adapted for switching a current through the power semiconductor unit, the power semiconductor switch comprising a positive power input, a negative power input and a gate; a gate driver circuit for receiving a gate signal (V S) from a gate signal input and for connecting the gate of the power semiconductor switch with a positive voltage reference (+V G) from a positive voltage reference input; where the gate driver circuit is further adapted for connecting the gate of the power semiconductor switch with a negative voltage reference (-VG) from a negative voltage reference input; a common mode coupling device for providing an impedance for a common mode current through auxiliary inputs of the power semiconductor unit, the auxiliary inputs comprising the gate signal input, the positive voltage reference input, the negative voltage reference input, a positive power reference input connected with the positive power input and a negative power reference input connected with the negative power input; wherein the common mode coupling device comprises a common mode choke with a single core coupling the auxiliary inputs (26, 28, 30, 32, 58). a power semiconductor switch adapted for switching a current through the power semiconductor unit, the power semiconductor switch comprising a positive power input, a negative power input and a gate; a gate driver circuit for receiving a gate signal (V S) from a gate signal input and for connecting the gate of the power semiconductor switch with a positive voltage reference (+V G) from a positive voltage reference input; where the gate driver circuit is further adapted for connecting the gate of the power semiconductor switch with a negative voltage reference (-VG) from a negative voltage reference input; a common mode coupling device for providing an impedance for a common mode current through auxiliary inputs of the power semiconductor unit, the auxiliary inputs comprising the gate signal input, the positive voltage reference input, the negative voltage reference input, a positive power reference input connected with the positive power input and a negative power reference input connected with the negative power input; wherein the common mode coupling device comprises a common mode choke with a single core coupling the auxiliary inputs (26, 28, 30, 32, 58).
A variable speed wind turbine comprising: a generator; a power converter for converting at least a portion of electrical power generated by the generator; an energy management arrangement (104; 140) coupled to the power converter, the energy management arrangement comprises an energy storage unit (121; 141); and a controller, wherein the controller is adapted to detect a power imbalance event and to transfer at least a portion of excess electrical energy generated by the generator to the energy storage unit to be stored therein when the power imbalance event is detected, and wherein the power imbalance event comprises a wind gust event, characterised in that the variable speed wind turbine further comprises an uninterrupted power supply UPS coupled to the energy management arrangement, the UPS being adapted to receive electrical energy from the energy management arrangement to be stored therein. a generator; a power converter for converting at least a portion of electrical power generated by the generator; an energy management arrangement (104; 140) coupled to the power converter, the energy management arrangement comprises an energy storage unit (121; 141); and a controller, wherein the controller is adapted to detect a power imbalance event and to transfer at least a portion of excess electrical energy generated by the generator to the energy storage unit to be stored therein when the power imbalance event is detected, and wherein the power imbalance event comprises a wind gust event, characterised in that the variable speed wind turbine further comprises an uninterrupted power supply UPS coupled to the energy management arrangement, the UPS being adapted to receive electrical energy from the energy management arrangement to be stored therein.
A monopulse radar system comprising: an antenna array comprising a plurality of sub-arrays (101 - 124) operatively arranged in a first direction, each of the sub-arrays comprising a plurality of antenna elements grouped as a first group and a second group adjacent to each other in a second direction substantially perpendicular to the first direction; and a plurality of transmit/receive, T/R, modules respectively coupled to the plurality of antenna elements, and characterized in that the plurality of T/R modules are configured to enable the radar system to perform monopulse processing by enabling the antenna elements of the first groups and disabling the antenna elements of the second groups of a plurality of first sub-arrays from among the plurality of sub-arrays to form a first monopulse antenna, and enabling the antenna elements of the second groups and disabling the antenna elements of the first groups of a plurality of second sub-arrays, different from the first sub-arrays, from among the plurality of sub-arrays to form a second monopulse antenna, wherein the antenna elements are enabled or disabled by controlling weights assigned to corresponding T/R modules, respectively. an antenna array comprising a plurality of sub-arrays (101 - 124) operatively arranged in a first direction, each of the sub-arrays comprising a plurality of antenna elements grouped as a first group and a second group adjacent to each other in a second direction substantially perpendicular to the first direction; and a plurality of transmit/receive, T/R, modules respectively coupled to the plurality of antenna elements, and characterized in that the plurality of T/R modules are configured to enable the radar system to perform monopulse processing by enabling the antenna elements of the first groups and disabling the antenna elements of the second groups of a plurality of first sub-arrays from among the plurality of sub-arrays to form a first monopulse antenna, and enabling the antenna elements of the second groups and disabling the antenna elements of the first groups of a plurality of second sub-arrays, different from the first sub-arrays, from among the plurality of sub-arrays to form a second monopulse antenna, wherein the antenna elements are enabled or disabled by controlling weights assigned to corresponding T/R modules, respectively.
An optical transceiver device, comprising: a detection region for detecting light at a first wavelength for down-conversion of the detected light into wireless signals; characterized in that the OTD further comprises: an electro-absorption modulation region for modulating light having a second wavelength longer than the first wavelength by changing the forbidden gap of the modulation region according to input analog and/or digital signals to invoke changes in light absorption properties of the electro-absorption modulation region; wherein the detection region is substantially transparent to light at the second wavelength and located upstream to the modulation region with respect to direction of propagation of first wavelength light incident onto the detection region. a detection region for detecting light at a first wavelength for down-conversion of the detected light into wireless signals; characterized in that the OTD further comprises: an electro-absorption modulation region for modulating light having a second wavelength longer than the first wavelength by changing the forbidden gap of the modulation region according to input analog and/or digital signals to invoke changes in light absorption properties of the electro-absorption modulation region; wherein the detection region is substantially transparent to light at the second wavelength and located upstream to the modulation region with respect to direction of propagation of first wavelength light incident onto the detection region. an electro-absorption modulation region for modulating light having a second wavelength longer than the first wavelength by changing the forbidden gap of the modulation region according to input analog and/or digital signals to invoke changes in light absorption properties of the electro-absorption modulation region; wherein the detection region is substantially transparent to light at the second wavelength and located upstream to the modulation region with respect to direction of propagation of first wavelength light incident onto the detection region.
Compacting device comprising a poker compactor received on a carrier device for compacting bulk material in an open package, wherein the poker compactor comprises an outer wall that is at least partially gas-permeable and is connected with a suction duct, and wherein the poker compactor is suitable to be inserted into an open package to cause the poker compactor to come into contact with the bulk material and to degas and compact the bulk material in the open package, and wherein the poker compactor shows a longitudinal axis, characterized in that the poker compactor is pivotally received around the longitudinal axis.
A hinge assembly (10,225,600) for a toilet seat, the hinge assembly (110,225,600) comprising: a hinge post (125,605) for pivotally supporting the toilet seat on a toilet bowl, the hinge post (125,605) including a bushing (145,625) configured to extend into an opening in the toilet bowl, the bushing (145,625) including a plurality of deformable projections (147,630) extending radially outward therefrom, the plurality of projections (147,630) configured to deform as the bushing (145,625) is inserted into the opening to conform to the shape of the opening; a bolt (130,620) embedded in the hinge post (125,605) to inhibit rotation of the bolt (130,620) relative to the hinge post (125,605) and the bushing (145,625), the bolt (130,620) extending through the bushing (145,625) and being configured to extend through the opening in the toilet bowl; and a nut (135,435,535) threadable onto the bolt (130,620) to secure the hinge post (125,605) to the toilet bowl. a hinge post (125,605) for pivotally supporting the toilet seat on a toilet bowl, the hinge post (125,605) including a bushing (145,625) configured to extend into an opening in the toilet bowl, the bushing (145,625) including a plurality of deformable projections (147,630) extending radially outward therefrom, the plurality of projections (147,630) configured to deform as the bushing (145,625) is inserted into the opening to conform to the shape of the opening; a bolt (130,620) embedded in the hinge post (125,605) to inhibit rotation of the bolt (130,620) relative to the hinge post (125,605) and the bushing (145,625), the bolt (130,620) extending through the bushing (145,625) and being configured to extend through the opening in the toilet bowl; and a nut (135,435,535) threadable onto the bolt (130,620) to secure the hinge post (125,605) to the toilet bowl.
A method for conveying data from a transport climate control system (TCCS) that provides climate control within an internal space moved by a vehicle, the method comprising: determining, by a controller, a set of TCCS operational measurements; obtaining, by the controller, a set of TCCS operational settings, the set of TCCS operational settings including one or more of a tight temperature control configuration, a loose temperature control configuration, a setpoint temperature, a continuous airflow configuration, and a start-stop airflow configuration; determining, by the controller, a set of cargo measurements; tracking a freshness score to reflect a condition of goods in the internal space; determining the set of TCCS operational settings to achieve the freshness score; creating a shipment performance log based on the set of TCCS operational measurements, the set of TCCS operational settings, and the set of cargo measurements; publishing the shipment performance log to a data repository; and retrieving the shipment performance log to facilitate disposition of goods in the internal space, disposition of goods including one or more of accepting the goods, inspecting the goods, rejecting the goods, and intervening to save the goods based on the shipment performance log. determining, by a controller, a set of TCCS operational measurements; obtaining, by the controller, a set of TCCS operational settings, the set of TCCS operational settings including one or more of a tight temperature control configuration, a loose temperature control configuration, a setpoint temperature, a continuous airflow configuration, and a start-stop airflow configuration; determining, by the controller, a set of cargo measurements; tracking a freshness score to reflect a condition of goods in the internal space; determining the set of TCCS operational settings to achieve the freshness score; creating a shipment performance log based on the set of TCCS operational measurements, the set of TCCS operational settings, and the set of cargo measurements; publishing the shipment performance log to a data repository; and retrieving the shipment performance log to facilitate disposition of goods in the internal space, disposition of goods including one or more of accepting the goods, inspecting the goods, rejecting the goods, and intervening to save the goods based on the shipment performance log.
A logarithmic curve generation method, comprising: determining a dynamic range of a photosensitive element of a mobile device and a coding depth of the mobile device, wherein the coding depth of the mobile device is a bit depth indicating a quantity of bits occupied by one code value indicating brightness of the photosensitive element of the mobile device; obtaining a plurality of numerical points within the dynamic range, wherein each numerical point comprises a stop within the dynamic range and a corresponding code value; andcon-verting the code value into a normalized code value having a value range of [0,1], performing curve fitting based on the plurality of numerical points to obtain a log curve, wherein when the mobile device shoots in a log mode, the log curve is used to convert, into a code value, a raw signal that is output by the photosensitive element and that indicates brightness; when a horizontal axis is scene reflectance and a vertical axis is normalized code value, a formula of the log curve is as follows: if T_scene_reflection is greater than 0.0028, Y_cv = 0.3145 × log 10 (5.555556 × T_scene_reflection + 0.07907) + 0.4471; or if T_scene_reflection is not greater than 0.0028, Y_cv = 11.4695 × T_scene_reflection + 0.0928641; and T_scene_reflection is the scene reflectance, and Y_cv is the normalized code value, wherein T_scene_reflection = 0.18 × 2 Stop. determining a dynamic range of a photosensitive element of a mobile device and a coding depth of the mobile device, wherein the coding depth of the mobile device is a bit depth indicating a quantity of bits occupied by one code value indicating brightness of the photosensitive element of the mobile device; obtaining a plurality of numerical points within the dynamic range, wherein each numerical point comprises a stop within the dynamic range and a corresponding code value; andcon-verting the code value into a normalized code value having a value range of [0,1], performing curve fitting based on the plurality of numerical points to obtain a log curve, wherein when the mobile device shoots in a log mode, the log curve is used to convert, into a code value, a raw signal that is output by the photosensitive element and that indicates brightness; when a horizontal axis is scene reflectance and a vertical axis is normalized code value, a formula of the log curve is as follows: if T_scene_reflection is greater than 0.0028, Y_cv = 0.3145 × log 10 (5.555556 × T_scene_reflection + 0.07907) + 0.4471; or if T_scene_reflection is not greater than 0.0028, Y_cv = 11.4695 × T_scene_reflection + 0.0928641; and T_scene_reflection is the scene reflectance, and Y_cv is the normalized code value, wherein T_scene_reflection = 0.18 × 2 Stop. if T_scene_reflection is greater than 0.0028, Y_cv = 0.3145 × log 10 (5.555556 × T_scene_reflection + 0.07907) + 0.4471; or if T_scene_reflection is not greater than 0.0028, Y_cv = 11.4695 × T_scene_reflection + 0.0928641; and T_scene_reflection is the scene reflectance, and Y_cv is the normalized code value, wherein T_scene_reflection = 0.18 × 2 Stop.
A thermoplastic polyurethane obtainable or obtained by conversion of at least components (i) to (iii): (i) a polyisocyanate composition; (ii) propane-1,3-diol as chain extender; (iii) a polyol composition, wherein no further chain extender is used aside from propane-1,3-diol and wherein the polyol composition comprises at least polytetrahydrofuran, and the polyisocyanate composition comprises at least methylene diphenyl diisocyanate, wherein the polytetrahydrofuran has a molecular weight Mn in the range from 650 g/mol to 1400 g/mol. (i) a polyisocyanate composition; (ii) propane-1,3-diol as chain extender; (iii) a polyol composition, wherein no further chain extender is used aside from propane-1,3-diol and wherein the polyol composition comprises at least polytetrahydrofuran, and the polyisocyanate composition comprises at least methylene diphenyl diisocyanate, wherein the polytetrahydrofuran has a molecular weight Mn in the range from 650 g/mol to 1400 g/mol.
A fuel cell system which comprises a fuel cell stack that generates electrical power by electrochemical reaction of fuel and oxidant, the fuel cell system comprising: a temperature measurement device that measures the temperature of said fuel cell stack; and a control device that estimates the water volume inside the fuel cell stack on the basis of the measured temperature; wherein the estimated water volume is the residual water volume (Wr) at the time when power generation is shut down and is estimated from the measured temperature (Ts) at the time when power generation is shut down, wherein the fuel cell system further comprises a total generated electrical energy storage device that stores the value pertaining to the total generated electrical energy of the fuel cell stack in the period from start-up to shutdown of power generation; and characterised in that when the stored value in said total generated electrical energy storage device is below a prescribed level, said control device estimates the residual water volume using a control map according to which the residual water volume is larger when said stored value is larger; and, when said stored value exceeds prescribed level, said control device estimates the residual water volume using a control map according to which the residual water volume is smaller when said stored value is larger. a temperature measurement device that measures the temperature of said fuel cell stack; and a control device that estimates the water volume inside the fuel cell stack on the basis of the measured temperature;