mhurhangee/ep-ind-claims huggingface dataset:
Inorganic fiber comprising biosoluble fiber and a cationic surfactant adhering to the biosoluble fiber, the cationic surfactant being an alkyl amine acetate, wherein the biosoluble fiber has the following composition ratio I, II, III or IV: [Composition ratio I] the total of SiO 2, Al 2 O 3, ZrO 2 and TiO 2 50 to 82 wt%; and the total of CaO and MgO 18 to 50 wt% [Composition ratio II] SiO 2 50 to 82 wt%; and the total of CaO and MgO 10 to 43 wt% [Composition ratio III] SiO 2 70 to 82 wt%; CaO 1 to 9 wt%; MgO 10 to 29 wt%; and Al 2 O 3 less than 3 wt% [Composition ratio IV] SiO 2 70 to 82 wt%; CaO 10 to 29 wt%; MgO 1 wt% or less; and Al 2 O 3 less than 5 wt%. [Composition ratio I] the total of SiO 2, Al 2 O 3, ZrO 2 and TiO 2 50 to 82 wt%; and the total of CaO and MgO 18 to 50 wt% [Composition ratio II] SiO 2 50 to 82 wt%; and the total of CaO and MgO 10 to 43 wt% [Composition ratio III] SiO 2 70 to 82 wt%; CaO 1 to 9 wt%; MgO 10 to 29 wt%; and Al 2 O 3 less than 3 wt% [Composition ratio IV] SiO 2 70 to 82 wt%; CaO 10 to 29 wt%; MgO 1 wt% or less; and Al 2 O 3 less than 5 wt%.
Rechargeable electrochemical lithium-ion battery cell comprising a positive electrode comprising a first active material optionally initially containing a quantity Q1 of active lithium, a negative electrode comprising a second active material and having a surface on which an SEI (Solid Electrolyte Interphase) passivation layer is able to form, and an electrolyte for the lithium ions, wherein, facing the positive electrode, the negative electrode comprises a perforated lithium sheet having a thickness and a pattern of perforations chosen to constitute a quantity Q2 of lithium, wherein the quantity Q2 of lithium supplied by the perforated lithium sheet and the quantity Q1 of active lithium supplied by the first active material of the positive electrode, when said first active material initially comprises active lithium, constitutes the necessary quantity of lithium sufficient for balance of the electrochemical cell, wherein the perforation pattern of the lithium sheet forms perforations, the dimensions, shapes, arrangements, centre distance of the axes and opening ratios of which are chosen in combination with the thickness of said perforated lithium sheet to provide the quantity of lithium Q2, characterised in that the dimensions of the perforations are such that the distance between the centre of the perforation and the edge of the perforation is less than 2 mm.
A cloud streaming server, comprising: a capture unit configured to capture a changed region contained in a changed frame in comparison with a previous frame; an encoding unit configured to select a still image compression technique by considering one or more of a size of the changed region and an image type corresponding to the changed region and to perform a still image encoding of the changed region by using the selected still image compression technique; and a sending unit configured to perform a cloud streaming service based on a still image by sending the still-image-encoded changed region to a user, wherein the encoding unit is further configured, considering the size of the changed region, if the size of the changed region is equal to or greater than a reference value, to select the still image compression technique by considering the image type corresponding to the changed region. a capture unit configured to capture a changed region contained in a changed frame in comparison with a previous frame; an encoding unit configured to select a still image compression technique by considering one or more of a size of the changed region and an image type corresponding to the changed region and to perform a still image encoding of the changed region by using the selected still image compression technique; and a sending unit configured to perform a cloud streaming service based on a still image by sending the still-image-encoded changed region to a user, wherein the encoding unit is further configured, considering the size of the changed region, if the size of the changed region is equal to or greater than a reference value, to select the still image compression technique by considering the image type corresponding to the changed region.
A security element for a data carrier, comprising a translucent carrier substrate the front side of which has a first motif with first motif elements that is recognizable upon viewing in incident light from the front side, and the back side of which has a second motif with second motif elements that is recognizable upon viewing in incident light from the back side, wherein the first motif elements and the second motif elements are arranged offset and together form a third motif that is recognizable upon viewing in transmission, and the front side of the security element in the region of and above the first motif is supplied with an optically variable element that does substantially not impair the recognizability of the first motif in incident light from the front side and the recognizability of the third motif in transmission, wherein the optically variable element has at least one first region and one second region which, upon viewing in incident light from the front side at a first top view angle, namely at an angle of 90° to the plane of the carrier substrate, appear to be visually uniform, and upon viewing in incident light from the front side at a second top view angle, namely at an angle of 20° to 60° to the plane of the carrier substrate, are visually distinguishable and form a fourth motif recognizable for the viewer, and the optically variable element is constituted homogeneously and with a suitable transparency or translucence, such that motif elements of the first and/or second motif arranged below the optically variable element are perceivable for the viewer, or the optically variable element has a microstructured configuration, namely a screening, which cannot be resolved by a viewer and is opaque, such that motif elements of the first and/or second motif arranged below the optically variable element are perceivable for the viewer.
Inductive power transfer pad, comprising - a first conductor arrangement a) configured for generating an electromagnetic field or b) configured for receiving an electromagnetic field during an inductive power transfer; and - an airflow generating system that is configured to generate an airflow during an inductive power transfer, a pressure generating unit of the airflow generating system being configured to suck in air from the surroundings so that the air flows through an interior space (40, 48) of the inductive power transfer pad and is directed back into the surroundings of the inductive power transfer pad through an airflow outlet portion and - wherein the inductive power transfer pad is configured to direct at least a part of the airflow into the surroundings along a surface of the inductive power transfer pad which faces during the inductive power transfer a device comprising a second conductor arrangement for a) receiving the electromagnetic field generated by the first conductor arrangement, in case the first conductor arrangement being configured for generating an electromagnetic field, or b) generating the electromagnetic field to be received by the first conductor arrangement, in case the first conductor arrangement being configured for receiving an electromagnetic field. - a first conductor arrangement a) configured for generating an electromagnetic field or b) configured for receiving an electromagnetic field during an inductive power transfer; and a) configured for generating an electromagnetic field or b) configured for receiving an electromagnetic field during an inductive power transfer; and - an airflow generating system that is configured to generate an airflow during an inductive power transfer, a pressure generating unit of the airflow generating system being configured to suck in air from the surroundings so that the air flows through an interior space (40, 48) of the inductive power transfer pad and is directed back into the surroundings of the inductive power transfer pad through an airflow outlet portion and - wherein the inductive power transfer pad is configured to direct at least a part of the airflow into the surroundings along a surface of the inductive power transfer pad which faces during the inductive power transfer a device comprising a second conductor arrangement for a) receiving the electromagnetic field generated by the first conductor arrangement, in case the first conductor arrangement being configured for generating an electromagnetic field, or b) generating the electromagnetic field to be received by the first conductor arrangement, in case the first conductor arrangement being configured for receiving an electromagnetic field. a) receiving the electromagnetic field generated by the first conductor arrangement, in case the first conductor arrangement being configured for generating an electromagnetic field, or b) generating the electromagnetic field to be received by the first conductor arrangement, in case the first conductor arrangement being configured for receiving an electromagnetic field.
A system comprising: a nitrogen oxide reduction catalyst fluidly coupled to an exhaust conduit of an engine system and configured to reduce nitrogen oxides in the engine exhaust; an ammonia oxidation catalyst fluidly coupled to the exhaust conduit downstream of the nitrogen oxide reduction catalyst and configured to reduce an ammonia in the engine exhaust; and a reductant injection control system configured to: read a first temperature of an exhaust exiting the nitrogen oxide reduction catalyst; if the first temperature is less than an upper temperature value and greater than a lower temperature value then to: a) determine a nitrogen oxide conversion rate of the nitrogen oxide reduction catalyst; b) determine an ammonia storage value of the nitrogen oxide reduction catalyst; and c) increase or decrease the injection of reductant based on the nitrogen oxide conversion rate, and the ammonia storage value. a nitrogen oxide reduction catalyst fluidly coupled to an exhaust conduit of an engine system and configured to reduce nitrogen oxides in the engine exhaust; an ammonia oxidation catalyst fluidly coupled to the exhaust conduit downstream of the nitrogen oxide reduction catalyst and configured to reduce an ammonia in the engine exhaust; and a reductant injection control system configured to: read a first temperature of an exhaust exiting the nitrogen oxide reduction catalyst; if the first temperature is less than an upper temperature value and read a first temperature of an exhaust exiting the nitrogen oxide reduction catalyst; if the first temperature is less than an upper temperature value and greater than a lower temperature value then to: a) determine a nitrogen oxide conversion rate of the nitrogen oxide reduction catalyst; b) determine an ammonia storage value of the nitrogen oxide reduction catalyst; and c) increase or decrease the injection of reductant based on the nitrogen oxide conversion rate, and the ammonia storage value. a) determine a nitrogen oxide conversion rate of the nitrogen oxide reduction catalyst; b) determine an ammonia storage value of the nitrogen oxide reduction catalyst; and c) increase or decrease the injection of reductant based on the nitrogen oxide conversion rate, and the ammonia storage value.
An acrylic polymer having a lactone ring structure in the main chain, the acrylic polymer having a melt flow rate of 2 g/10 minutes to 9 g/10 minutes as measured at 230°C under a load of 3.8 kg according to JIS K 7210 and a molecular weight distribution (Mw/Mn) of 1.5 to 2.2 determined by gel permeation chromatography.
Method, comprising: forming at least one trench in non-device regions of a first surface of a semiconductor wafer, the non-device regions being arranged between component positions, the component positions comprising device regions and a first metallization structure; applying a first polymer layer to the first surface of a semiconductor wafer such that the trenches and edge regions of the component positions are covered with the first polymer layer and such that at least a portion of the first metallization structure is uncovered by the first polymer layer; removing portions of a second surface of the semiconductor wafer, the second surface opposing the first surface, revealing portions of the first polymer layer in the non-device regions and producing a worked second surface; applying a second metallization structure to the worked second surface, removing portions of the second metallization structure from the first polymer layer arranged in the non-device regions and producing discrete conductive portions in the device regions on the worked second surface, removing a portion of the first polymer layer, arranged in the non-device regions, inserting a separation line through the first polymer layer in the non-device regions to form a plurality of separate semiconductor dies. forming at least one trench in non-device regions of a first surface of a semiconductor wafer, the non-device regions being arranged between component positions, the component positions comprising device regions and a first metallization structure; applying a first polymer layer to the first surface of a semiconductor wafer such that the trenches and edge regions of the component positions are covered with the first polymer layer and such that at least a portion of the first metallization structure is uncovered by the first polymer layer; removing portions of a second surface of the semiconductor wafer, the second surface opposing the first surface, revealing portions of the first polymer layer in the non-device regions and producing a worked second surface; applying a second metallization structure to the worked second surface, removing portions of the second metallization structure from the first polymer layer arranged in the non-device regions and producing discrete conductive portions in the device regions on the worked second surface, removing a portion of the first polymer layer, arranged in the non-device regions, inserting a separation line through the first polymer layer in the non-device regions to form a plurality of separate semiconductor dies.
Device (1, 11) for monitoring an available thrust margin of an anti-torque member of a rotorcraft as a function of flight conditions, said rotorcraft including a powerplant rotating at least one main rotor participating at least in the lift of said rotorcraft, said anti-torque member participating in the control of the yaw movements of said rotorcraft, characterised in that said device (1, 11) includes: • a computer (6, 16) configured to calculate a current value of an operating parameter representative of said thrust margin of said anti-torque member, said operating parameter being a function of a ratio between an available power of said powerplant and at least one physicochemical parameter representative of a density of the surrounding outside air, and • comparison means (8, 18) configured to compare said current value of said operating parameter with a predetermined threshold value of said operating parameter and to determine said available thrust margin of said anti-torque member. • a computer (6, 16) configured to calculate a current value of an operating parameter representative of said thrust margin of said anti-torque member, said operating parameter being a function of a ratio between an available power of said powerplant and at least one physicochemical parameter representative of a density of the surrounding outside air, and • comparison means (8, 18) configured to compare said current value of said operating parameter with a predetermined threshold value of said operating parameter and to determine said available thrust margin of said anti-torque member.
A method for regenerative driving of one or more transducers comprising: for each of a plurality of driving cycles, enabling the one or more transducers for driving, resulting in a number of enabled transducers; configuring a configurable capacitive energy storage element based on the number of enabled transducers and a desired overall capacitance; transferring a predetermined quantity of energy from a power supply to a first inductive energy transfer element (114, 214); distributing the predetermined quantity of energy from the first inductive energy transfer element, to the configurable capacitive energy storage element and to one or more capacitive energy storage elements of a plurality of capacitive energy storage elements, each energy storage element of the plurality of energy storage elements being coupled to an associated transducer; transferring energy from the one or more capacitive energy storage elements and from the configurable capacitive energy storage element to a second inductive energy transfer element (114, 214); and transferring energy from the second inductive energy transfer element to the power supply. enabling the one or more transducers for driving, resulting in a number of enabled transducers; configuring a configurable capacitive energy storage element based on the number of enabled transducers and a desired overall capacitance; transferring a predetermined quantity of energy from a power supply to a first inductive energy transfer element (114, 214); distributing the predetermined quantity of energy from the first inductive energy transfer element, to the configurable capacitive energy storage element and to one or more capacitive energy storage elements of a plurality of capacitive energy storage elements, each energy storage element of the plurality of energy storage elements being coupled to an associated transducer; transferring energy from the one or more capacitive energy storage elements and from the configurable capacitive energy storage element to a second inductive energy transfer element (114, 214); and transferring energy from the second inductive energy transfer element to the power supply.
A method for handing over a mobile relay node from a source base station to a target base station, wherein a user equipment is adapted to communicate with a further user equipment using a communication path via the mobile relay node and the source base station by using a first gateway functionality of the source base station, and wherein a management unit is adapted to manage the communication path, the method comprising preparing, by the management unit, a handover of the mobile relay node from the source base station to the target base station, allocating, by the management unit, resources in the target base station for providing a second gateway functionality for a further communication path for the user equipment via the mobile relay node and the target base station to the further user equipment, establishing, by the management unit, the second gateway functionality for the further communication path for the user equipment via the mobile relay node and the target base station to the further user equipment, and handing over, by the management unit, the mobile relay node from the source base station to the target base station.
Bending press with a tool-positioning device for at least two tool positions (19, 20) for at least one tool set (10, 11) comprising a tool clamping adapter and at least one bending tool, which tool positions (19, 20) can be optionally fixed in the direction of a length of a tool bar of a bending press, characterized in that for each tool position (19, 20) a pair of claw-shaped positioning elements that are spaced apart in the direction of the length of the tool bar are arranged connected to the tool bar, which positioning elements are spaced from each other by an adjustment range of the tool set (10, 11) and the tool clamping adapter is adjustably mounted in a holding slot running in the direction of the length of the tool bar and comprises a pair of positioning means that can be brought into engagement with the positioning elements in the respective tool position (19, 20).
A method of wireless communication performed by a user equipment, UE, (302, 604) comprising: receiving, over a wireless communication network operating in accordance with a first radio access technology, RAT, a configuration (720, 820) to provide at least one positioning state information, PSI, report, the first RAT associated with a first positioning technology, the configuration (720, 820) associated with at least one second RAT and/or at least one second positioning technology, or both to be used to estimate a location of the UE; obtaining, according to the configuration, at least a first set of positioning measurements using the at least one second RAT, the at least one second positioning technology, or both; and transmitting, according to the configuration, the at least one PSI report on physical resources allocated for a physical uplink channel or a physical sidelink channel of the first RAT, the at least one PSI report including at least the first set of positioning measurements. receiving, over a wireless communication network operating in accordance with a first radio access technology, RAT, a configuration (720, 820) to provide at least one positioning state information, PSI, report, the first RAT associated with a first positioning technology, the configuration (720, 820) associated with at least one second RAT and/or at least one second positioning technology, or both to be used to estimate a location of the UE; obtaining, according to the configuration, at least a first set of positioning measurements using the at least one second RAT, the at least one second positioning technology, or both; and transmitting, according to the configuration, the at least one PSI report on physical resources allocated for a physical uplink channel or a physical sidelink channel of the first RAT, the at least one PSI report including at least the first set of positioning measurements.