mhurhangee/ep-ind-claims huggingface dataset:
Process for producing polyisocyanurate plastics, comprising the following steps: a) providing a polyisocyanate composition A) which contains oligomeric polyisocyanates and is low in monomeric diisocyanates, "low in monomeric diisocyanates" meaning that the polyisocyanate composition A) has a content of monomeric diisocyanates of at most 20% by weight; b) catalytically trimerizing the polyisocyanate composition A). a) providing a polyisocyanate composition A) which contains oligomeric polyisocyanates and is low in monomeric diisocyanates, "low in monomeric diisocyanates" meaning that the polyisocyanate composition A) has a content of monomeric diisocyanates of at most 20% by weight; b) catalytically trimerizing the polyisocyanate composition A).
An aerogel blanket having a moisture impregnation rate of 28 days (MIR-28D) of 100 wt% or less, which is calculated by Equation 1 below: Moisture impregnation rate of 28 days MIR − 28 D, wt % = Aerogel blanket weight after impregnation in distilled water of 21 ± 2 ° C for 28 days − Aerogel blanket weight before impregnation in distilled water / Aerogel blanket weight before impregnation in distilled water × 100.
A method implemented in a second access node of a wireless communications system including a user equipment, UE, supporting frequency division duplex, FDD, time division duplex, TDD, carrier aggregation, CA, a first access node operable to transmit to the UE data on a first duplex mode carrier as a primary component carrier, PCell, the first duplex mode being TDD, and the second access node operable to transmit to the UE data on a second duplex mode carrier, the second duplex mode being FDD, the method comprising: transmitting, to the UE, data on the second duplex mode carrier as a secondary component carrier, SCell, and wherein the UE transmits, on the first duplex mode carrier, to the first access node, a hybrid automatic repeat request acknowledgment, HARQ-ACK, in subframe 8, and associating the HARQ-ACK with data transmitted from the second access node to the UE on the second duplex mode carrier with subframes 2, 3, and 4. transmitting, to the UE, data on the second duplex mode carrier as a secondary component carrier, SCell, and wherein the UE transmits, on the first duplex mode carrier, to the first access node, a hybrid automatic repeat request acknowledgment, HARQ-ACK, in subframe 8, and associating the HARQ-ACK with data transmitted from the second access node to the UE on the second duplex mode carrier with subframes 2, 3, and 4.
An implantable valve system comprising: a housing with a resilient membrane defining a reservoir in fluid communication with at least a first port and a second port, and having a longitudinal axis; at least a first set of opposing sealing features (42, 44) disposed on upper and lower surfaces within the housing; wherein the membrane is capable of being: depressed by a human finger to bring the sealing features together to substantially restrict fluid from passing through at least one of the first and second ports (14, 16); and depressed additionally by a rolling motion of the finger in a first direction to drive fluid through the second port and by a rolling motion of the finger in a second direction to drive fluid through the first port. a housing with a resilient membrane defining a reservoir in fluid communication with at least a first port and a second port, and having a longitudinal axis; at least a first set of opposing sealing features (42, 44) disposed on upper and lower surfaces within the housing; depressed by a human finger to bring the sealing features together to substantially restrict fluid from passing through at least one of the first and second ports (14, 16); and depressed additionally by a rolling motion of the finger in a first direction to drive fluid through the second port and by a rolling motion of the finger in a second direction to drive fluid through the first port.
A method of operating a vacuum pump (10, 111) which has a rotor (12, 149), a stator, an actively regulated magnetic bearing (20, 22) for supporting the rotor (12, 149) and a safety bearing for the rotor (12, 149), wherein the method comprises that: a set of operating specifications for the vacuum pump (10, 111) is provided that has at least one operating state of the vacuum pump (10, 111) to be achieved during a disturbance event, a disturbance event is detected during which the rotor (12, 149), with respect to the stator, leaves a spatial region provided for the rotor (12, 149) such that wear occurs at the safety bearing, a wear increment for the safety bearing is estimated based on the detected disturbance event, the wear increment is added to a variable for the total wear of the safety bearing, and, based on the set of operating specifications for the vacuum pump (10, 111) and based on the variable for the total wear of the safety bearing, a determination is made whether a measure for stabilizing the rotor (12, 149) is performed. a set of operating specifications for the vacuum pump (10, 111) is provided that has at least one operating state of the vacuum pump (10, 111) to be achieved during a disturbance event, a disturbance event is detected during which the rotor (12, 149), with respect to the stator, leaves a spatial region provided for the rotor (12, 149) such that wear occurs at the safety bearing, a wear increment for the safety bearing is estimated based on the detected disturbance event, the wear increment is added to a variable for the total wear of the safety bearing, and, based on the set of operating specifications for the vacuum pump (10, 111) and based on the variable for the total wear of the safety bearing, a determination is made whether a measure for stabilizing the rotor (12, 149) is performed.
A triggerable fuse for low-voltage applications for the protection of devices adapted to be connected to a power supply system, consisting of at least one fuse element located between two contacts and arranged within a housing, and comprising a triggering device for the controlled disconnection of the fuse element in the event of malfunctions or overload conditions of the respectively connected device, an extinguishing agent being introduced in the housing, the at least one fuse element including a multitude of electrical constrictions (2B, 3B), which are designed for the rated load of a respective fuse (A, B), characterized in that at least one further, additional geometric constriction is provided which, when subjected to tensile stress, is adapted to be disconnected by rupturing as a function of the triggering device, and wherein the at least one further, additional geometric constriction, despite a smaller cross-section at an identical current load, will not respond before the electrical constrictions (2B, 3B) at all current loads, but in a time-delayed manner or at higher loads. comprising a triggering device for the controlled disconnection of the fuse element in the event of malfunctions or overload conditions of the respectively connected device, an extinguishing agent being introduced in the housing, the at least one fuse element including a multitude of electrical constrictions (2B, 3B), which are designed for the rated load of a respective fuse (A, B), characterized in that at least one further, additional geometric constriction is provided which, when subjected to tensile stress, is adapted to be disconnected by rupturing as a function of the triggering device, and wherein the at least one further, additional geometric constriction, despite a smaller cross-section at an identical current load, will not respond before the electrical constrictions (2B, 3B) at all current loads, but in a time-delayed manner or at higher loads.
A seat back comprising: a backrest formed of a first polymeric material for supporting an occupant; a reinforcing composite layer connected to said backrest and formed of a second polymeric material and a plurality of fibers impregnated in said second polymeric material; characterized by a one-piece bracket anchored to said backrest for coupling to a seat cushion and formed of a second material different than said first polymeric material of said backrest; wherein said first polymeric material defines a first pillar, a second pillar spaced from said first pillar, and a middle section extending from said first pillar to said second pillar with said reinforcing composite layer elongated in a vertical direction along said first pillar; and wherein said bracket is elongated in a vertical direction along said backrest and overmolded by said first polymeric material and wherein said first polymeric material is melt bonded to said second polymeric material of said reinforcing composite layer integrating said backrest, said bracket, and said reinforcing composite layer. a backrest formed of a first polymeric material for supporting an occupant; a reinforcing composite layer connected to said backrest and formed of a second polymeric material and a plurality of fibers impregnated in said second polymeric material; characterized by a one-piece bracket anchored to said backrest for coupling to a seat cushion and formed of a second material different than said first polymeric material of said backrest; wherein said first polymeric material defines a first pillar, a second pillar spaced from said first pillar, and a middle section extending from said first pillar to said second pillar with said reinforcing composite layer elongated in a vertical direction along said first pillar; and wherein said bracket is elongated in a vertical direction along said backrest and overmolded by said first polymeric material and wherein said first polymeric material is melt bonded to said second polymeric material of said reinforcing composite layer integrating said backrest, said bracket, and said reinforcing composite layer.
A computer-implemented method for providing an asynchronous execution queue for accelerator hardware, the method comprising: replacing a malloc operation in an execution queue to be sent to an accelerator with an asynchronous malloc operation that returns a unique reference pointer, whereby the reference pointer on the accelerator hardware gets translated later into a physical memory pointer, whereby execution of the asynchronous malloc operation in the execution queue by the accelerator allocates a requested memory size and adds an entry to a look-up table accessible by the accelerator that maps the reference pointer to a corresponding memory address, whereby all data pointers that are shared between the accelerator and a host get replaced with reference pointers.
An apparatus of a user equipment, UE, configured for direct device-to-device, D2D, communication with one or more other UEs (10, 20), the apparatus comprising: a transceiver circuitry; and a processing circuitry, configured to: receive, from an enhanced node B, eNB, an allocation of resources for D2D communication; modulate control information, for a D2D transmission within resource elements, REs, of a physical D2D control channel, in accordance with a single-carrier frequency division multiplexing, SC-FDM, technique; modulate data, for a D2D transmission within REs of a physical D2D shared channel, in accordance with the SC-FDM technique; provide synchronization information for the D2D transmissions, the synchronization information based on signaling; and generate a demodulation reference signal, DMRS, for transmission within the resources allocated by the eNB for D2D communication, the DMRS configured for demodulation of the physical D2D control channel and the physical D2D shared channel, wherein the REs of the physical D2D control channel and the REs of the physical D2D shared channel are within the resources allocated by the eNB for D2D communication. receive, from an enhanced node B, eNB, an allocation of resources for D2D communication; modulate control information, for a D2D transmission within resource elements, REs, of a physical D2D control channel, in accordance with a single-carrier frequency division multiplexing, SC-FDM, technique; modulate data, for a D2D transmission within REs of a physical D2D shared channel, in accordance with the SC-FDM technique; provide synchronization information for the D2D transmissions, the synchronization information based on signaling; and generate a demodulation reference signal, DMRS, for transmission within the resources allocated by the eNB for D2D communication, the DMRS configured for demodulation of the physical D2D control channel and the physical D2D shared channel, wherein the REs of the physical D2D control channel and the REs of the physical D2D shared channel are within the resources allocated by the eNB for D2D communication.
A method implemented by one or more processors of a robot in performing a robotic task, the method comprising: identifying a current image that is based on at least part of a current instance of vision data captured by a vision component of the robot; identifying a particular action image that includes projections, for N points of an end effector of the robot for a particular pose of the end effector, onto a vision frame of the vision component, wherein N is an integer greater than one; processing, utilizing a trained critic network that represents a learned value function, the current image and the particular action image; generating, based on the processing, a value for the particular pose, wherein the value for the particular pose indicates a probability of success of the robotic task if the end effector is traversed to the particular pose; in response to determining that the value satisfies one or more conditions: controlling the robot to cause the end effector to traverse to the particular pose in performing the robotic action. identifying a current image that is based on at least part of a current instance of vision data captured by a vision component of the robot; identifying a particular action image that includes projections, for N points of an end effector of the robot for a particular pose of the end effector, onto a vision frame of the vision component, wherein N is an integer greater than one; processing, utilizing a trained critic network that represents a learned value function, the current image and the particular action image; generating, based on the processing, a value for the particular pose, wherein the value for the particular pose indicates a probability of success of the robotic task if the end effector is traversed to the particular pose; in response to determining that the value satisfies one or more conditions: controlling the robot to cause the end effector to traverse to the particular pose in performing the robotic action.
A light source unit (19, 76) for use in a fluorescence imaging apparatus for exciting a fluorescent substance contained in a sample and detecting excited fluorescence and taking a fluorescent image, the light source unit configured to apply different types of excitation light to the sample for the purpose of exciting the fluorescent substance, the different types of the excitation light having different wavelength ranges, the light source unit comprising: different types of emission units having a plurality of light emitting elements and different types of excitation light filters, each emission unit having at least one of the light emitting elements and one of the excitation light filters, each excitation light filter being disposed in front of the at least one light emitting element in a direction of applying light and limiting a wavelength range of the light from the at least one light emitting element and thereby the different types of the excitation light being applied; and a circuit board, the light emitting elements being mounted on the circuit board, the different types of the emission units being arranged in one or two dimensions over the circuit board and sharing the circuit board, characterized in that said circuit board has a light-transmitting substrate, and the light source unit (19, 76) comprises a light shielding section composed of through holes formed through the circuit board so as to prevent light caused by the circuit board due to light emitted by one of the light emitting units and harmful to the fluorescent image from being transmitted from the one of the emission units through the circuit board and entering the adjacent emission unit, the one of the emission units and the adjacent emission unit differing in type. different types of emission units having a plurality of light emitting elements and different types of excitation light filters, each emission unit having at least one of the light emitting elements and one of the excitation light filters, each excitation light filter being disposed in front of the at least one light emitting element in a direction of applying light and limiting a wavelength range of the light from the at least one light emitting element and thereby the different types of the excitation light being applied; and a circuit board, the light emitting elements being mounted on the circuit board, the different types of the emission units being arranged in one or two dimensions over the circuit board and sharing the circuit board, characterized in that said circuit board has a light-transmitting substrate, and the light source unit (19, 76) comprises a light shielding section composed of through holes formed through the circuit board so as to prevent light caused by the circuit board due to light emitted by one of the light emitting units and harmful to the fluorescent image from being transmitted from the one of the emission units through the circuit board and entering the adjacent emission unit, the one of the emission units and the adjacent emission unit differing in type.
A method for controlling the existence of an Radio Resource Control, RRC, connection in a Long Term Evolution system, the method comprising: causing transmission of at least one command towards a user equipment, UE, to modify a timer value in the UE that defines a currently set remaining lifetime of the Radio Resource Control, RRC, connection resulting in a modified remaining lifetime for the RRC connection, the modification being based on anticipated data usage of the UE, wherein the updated value is set responsive to a Policy and Charging Rules Function, PCRF, which is aware of the anticipated data usage by the UE. causing transmission of at least one command towards a user equipment, UE, to modify a timer value in the UE that defines a currently set remaining lifetime of the Radio Resource Control, RRC, connection resulting in a modified remaining lifetime for the RRC connection, the modification being based on anticipated data usage of the UE, wherein the updated value is set responsive to a Policy and Charging Rules Function, PCRF, which is aware of the anticipated data usage by the UE.
Device for steam treating a printed fibrous sheet material, particularly for fixing printing ink, said device comprising: - a casing defining at least one steam-treatment chamber and having at least one inlet port, configured for enabling introduction of the fibrous sheet material in the steam-treatment chamber, and at least one outlet port configured for enabling the treated fibrous sheet material to exit from the steam-treatment chamber, - at least one conveying element configured for abuttingly receiving the fibrous sheet material and conveying the fibrous sheet material inside the steam-treatment chamber through inlet port, the conveying element being placed with respect to inlet port in order to constantly present at least one first portion placed outside the steam-treatment chamber and one second portion extending inside the steam-treatment chamber, wherein the conveying element comprises at least one absorbing surface portion placed for contacting the fibrous sheet material to be treated abuttingly placed on the conveying element, said absorbing surface portion being configured for capturing condensate water. - a casing defining at least one steam-treatment chamber and having at least one inlet port, configured for enabling introduction of the fibrous sheet material in the steam-treatment chamber, and at least one outlet port configured for enabling the treated fibrous sheet material to exit from the steam-treatment chamber, - at least one conveying element configured for abuttingly receiving the fibrous sheet material and conveying the fibrous sheet material inside the steam-treatment chamber through inlet port, the conveying element being placed with respect to inlet port in order to constantly present at least one first portion placed outside the steam-treatment chamber and one second portion extending inside the steam-treatment chamber,
A deformable frame for a fiber optic accelerometer, the frame comprising - one or more attachment sections (13,14,15) for attachment of the frame to an external structure whose acceleration is to be measured; - at least one inertial section configured to allow a relative inertial motion of its inertial mass with respect to the one or more accelerated attachment sections (13,14,15); and - transmission arms (11,12) pivotably attached to respective bridge sections (17,18) between the at least one inertial section and at least one attachment section such that the relative inertial motion of the inertial mass in a sensing direction causes a transverse motion in each of the transmission arms (11,12) in respective transmission directions (X1,X2) transverse to the sensing direction, wherein the transmission arms (11, 12) are arranged such that the transverse motions of the transmission arms (11,12) are in opposite directions (X1,X2) for stretching and/or compressing an optical fiber with an optical strain sensor attachable between respective fiber attachment points (11a,12a) on said transmission arms (11,12); wherein - the frame is formed by an interconnected stack of modular plates (10m,10t). - one or more attachment sections (13,14,15) for attachment of the frame to an external structure whose acceleration is to be measured; - at least one inertial section configured to allow a relative inertial motion of its inertial mass with respect to the one or more accelerated attachment sections (13,14,15); and - transmission arms (11,12) pivotably attached to respective bridge sections (17,18) between the at least one inertial section and at least one attachment section such that the relative inertial motion of the inertial mass in a sensing direction causes a transverse motion in each of the transmission arms (11,12) in respective transmission directions (X1,X2) transverse to the sensing direction, wherein the transmission arms (11, 12) are arranged such that the transverse motions of the transmission arms (11,12) are in opposite directions (X1,X2) for stretching and/or compressing an optical fiber with an optical strain sensor attachable between respective fiber attachment points (11a,12a) on said transmission arms (11,12); wherein - the frame is formed by an interconnected stack of modular plates (10m,10t).