mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication performed by a base station, BS for a factory automation system, comprising: receiving channel state information, CSI from a user equipment, UE, wherein the CSI indicates that an amount of resources of a semi-persistent scheduling, SPS grant does not satisfy a threshold reliability associated with a first communication of a traffic window scheduled for a UE using SPS; determining based at least in part on the received CSI from the UE that the SPS grant is not sufficient for the first communication of the traffic window scheduled for a UE using SPS; and transmitting in response to the determination, an indicator indicating that an on-demand grant is appended to the SPS grant for the first communication of the traffic window scheduled for the, UE using SPS, wherein the on-demand grant is in a same subframe as the SPS grant. receiving channel state information, CSI from a user equipment, UE, wherein the CSI indicates that an amount of resources of a semi-persistent scheduling, SPS grant does not satisfy a threshold reliability associated with a first communication of a traffic window scheduled for a UE using SPS; determining based at least in part on the received CSI from the UE that the SPS grant is not sufficient for the first communication of the traffic window scheduled for a UE using SPS; and transmitting in response to the determination, an indicator indicating that an on-demand grant is appended to the SPS grant for the first communication of the traffic window scheduled for the, UE using SPS, wherein the on-demand grant is in a same subframe as the SPS grant.
A current sensing apparatus comprising: a conductor configured to carry a current flow, the conductor having a current sensing region formed therein, the current sensing region comprising: a first edge current path region (132; 150; 184) disposed between a first edge of the conductor and a first slot (98; 144; 174) formed through a thickness of the conductor ; a second edge current path region (136; 152; 188) disposed between a second edge of the conductor and a second slot (100; 146; 176) formed through the thickness of the conductor , the second edge opposite the first edge ; and a central current path region (140; 148; 186) disposed between the first slot (98; 144; 174) and the second slot (100; 146; 176); and a first magnetic field sensor aligned with the first slot (98; 144; 174); and a second magnetic field sensor aligned with the second slot (100; 146; 176); characterised in that the first (98; 144; 174) and second slots (100; 146; 176) are positioned in the conductor to form a curvilinear current path (I DC3 ) through the central current path region (140; 148; 186) and linear current paths (I DC1 , I DC2 ) through the first (132; 150; 184) and second edge current path regions (136; 152; 188). a first edge current path region (132; 150; 184) disposed between a first edge of the conductor and a first slot (98; 144; 174) formed through a thickness of the conductor ; a second edge current path region (136; 152; 188) disposed between a second edge of the conductor and a second slot (100; 146; 176) formed through the thickness of the conductor , the second edge opposite the first edge ; and a central current path region (140; 148; 186) disposed between the first slot (98; 144; 174) and the second slot (100; 146; 176); and a first magnetic field sensor aligned with the first slot (98; 144; 174); and a second magnetic field sensor aligned with the second slot (100; 146; 176); characterised in that the first (98; 144; 174) and second slots (100; 146; 176) are positioned in the conductor to form a curvilinear current path (I DC3 ) through the central current path region (140; 148; 186) and linear current paths (I DC1 , I DC2 ) through the first (132; 150; 184) and second edge current path regions (136; 152; 188).
A method comprising: generating yield data and purity data for a number of proteins , the yield data and the purity data indicating yield and purity for each of a plurality of proteins over a range of pH values, over a range of salt concentrations, and for a stationary phase material of a column chromatography technique; obtaining sequence data indicating at least a portion of amino acid sequences of individual proteins of the plurality of proteins; obtaining structure data indicating one or more structures exhibited by individual proteins of the plurality of proteins; generating characterization data for the plurality of proteins , the characterization data including values obtained from analytical tests that indicate values of properties of the plurality of proteins ; generating a model to predict, at one or more pH values and one or more salt concentration values , yield and purity of an additional protein for the stationary phase material, wherein the model includes a sequence component that indicates a similarity between the amino acid sequences of the plurality of proteins and an additional amino acid sequence of the additional protein and a characterization component that indicates similarities between values of the properties for the plurality of proteins and additional values of the properties for the additional protein . generating yield data and purity data for a number of proteins , the yield data and the purity data indicating yield and purity for each of a plurality of proteins over a range of pH values, over a range of salt concentrations, and for a stationary phase material of a column chromatography technique; obtaining sequence data indicating at least a portion of amino acid sequences of individual proteins of the plurality of proteins; obtaining structure data indicating one or more structures exhibited by individual proteins of the plurality of proteins; generating characterization data for the plurality of proteins , the characterization data including values obtained from analytical tests that indicate values of properties of the plurality of proteins ; generating a model to predict, at one or more pH values and one or more salt concentration values , yield and purity of an additional protein for the stationary phase material, wherein the model includes a sequence component that indicates a similarity between the amino acid sequences of the plurality of proteins and an additional amino acid sequence of the additional protein and a characterization component that indicates similarities between values of the properties for the plurality of proteins and additional values of the properties for the additional protein .
A method performed by a base station for supporting an inter-system handover from an evolved packet system, EPS, system to a 5th generation, 5G, system, the method comprising: receiving, from an access and mobility management function, AMF, a handover request message including E-UTRAN radio access bearer, E-RAB, information and quality of service, Qos, flow information; identifying whether a protocol data unit, PDU, session is accepted or not; determining whether a data forwarding for at least one Qos flow associated with the PDU session is accepted or not based on the E-RAB information and the Qos flow information, in case that the PDU session is accepted; and transmitting, to the AMF, a handover request acknowledgement message including information indicating whether the data forwarding for the at least one Qos flow associated with the PDU session is accepted or not, based on the determination. receiving, from an access and mobility management function, AMF, a handover request message including E-UTRAN radio access bearer, E-RAB, information and quality of service, Qos, flow information; identifying whether a protocol data unit, PDU, session is accepted or not; determining whether a data forwarding for at least one Qos flow associated with the PDU session is accepted or not based on the E-RAB information and the Qos flow information, in case that the PDU session is accepted; and transmitting, to the AMF, a handover request acknowledgement message including information indicating whether the data forwarding for the at least one Qos flow associated with the PDU session is accepted or not, based on the determination.
A thermally insulating laminate comprising: a first glass substrate having an inner surface; a second glass substrate having an inner surface; and a coating layer that forms a chemical bond with at least one inner surface, wherein the coating layer has a thermal conductivity of less than 5 W/(m-K) and a thickness of 254 microns or less (0.010 inches or less), a plurality of glass spacers that are submerged in the coating layer, and at least one sealed cavity of gas molecules is between the first and second substrates and around a portion of the glass spacers not submerged in the coating layer. a first glass substrate having an inner surface; a second glass substrate having an inner surface; and a coating layer that forms a chemical bond with at least one inner surface, wherein the coating layer has a thermal conductivity of less than 5 W/(m-K) and a thickness of 254 microns or less (0.010 inches or less), a plurality of glass spacers that are submerged in the coating layer, and at least one sealed cavity of gas molecules is between the first and second substrates and around a portion of the glass spacers not submerged in the coating layer.
An injection refractory material applicable to a kiln or furnace, which does not comprise a hydraulic binder and is capable of, when it is heated in an environment having an ambient temperature of 80 to 500°C, undergoing a volume expansion of 1.3 times or more its initial volume before the heating, wherein the injection refractory material contains a plurality of thermally expandable bodies each encapsulating a material capable of expanding at a temperature of 80 to 500°C, each of the thermally expandable bodies being a thermoplastic plastic body encapsulating liquefied gas, and either (i) or (ii) is fulfilled: (i) the thermoplastic plastic bodies each encapsulating liquefied gas are contained in an amount of 0.5 to 3 mass%, with respect to an total amount, 100 mass%, of the injection refractory material, wherein the injection refractory material further contains silicate as a binder in an amount of 3 to 10 mass%, with respect to the total amount, 100 mass%, of the injection refractory material; (ii) the thermoplastic plastic bodies each encapsulating liquefied gas are contained in an amount of 2 to 7 mass%, with respect to a total amount, 100 mass%, of the injection refractory material, wherein the injection refractory material further contains inorganic fibers in an amount of 60 mass% or more, and a thickener in an amount of 1 to 10 mass%, with respect to the total amount, 100 mass%, of the injection refractory material. (i) the thermoplastic plastic bodies each encapsulating liquefied gas are contained in an amount of 0.5 to 3 mass%, with respect to an total amount, 100 mass%, of the injection refractory material, wherein the injection refractory material further contains silicate as a binder in an amount of 3 to 10 mass%, with respect to the total amount, 100 mass%, of the injection refractory material; (ii) the thermoplastic plastic bodies each encapsulating liquefied gas are contained in an amount of 2 to 7 mass%, with respect to a total amount, 100 mass%, of the injection refractory material, wherein the injection refractory material further contains inorganic fibers in an amount of 60 mass% or more, and a thickener in an amount of 1 to 10 mass%, with respect to the total amount, 100 mass%, of the injection refractory material.
Electromechanical relay comprising: a contact assembly comprising at least one stationary contact and at least one movable contact , an electromagnetic actuator assembly for actuating the at least one movable contact , wherein the electromagnetic actuator assembly comprises a coil assembly for generating a magnetic field and a movable actuator arm that engages with the movable contact for actuating the movable contact in response to said magnetic field, wherein said actuator arm is slidable in a direction across to a longitudinal axis of the movable contact , and a housing that encases the contact assembly and the electromagnetic actuator assembly , wherein the electromechanical relay further comprises a rotatable test button with operating means that can engage with the actuator arm for manually operating the at least one movable contact from outside the housing by rotating said test button , characterized in that the test button is rotatable around an axis that extends across to the actuator arm , wherein the test button comprises a cam protrusion that is operable to engage with guiding means formed at the actuator arm for translating the rotating movement of the test button into a linear movement of the actuator arm . a contact assembly comprising at least one stationary contact and at least one movable contact , an electromagnetic actuator assembly for actuating the at least one movable contact , wherein the electromagnetic actuator assembly comprises a coil assembly for generating a magnetic field and a movable actuator arm that engages with the movable contact for actuating the movable contact in response to said magnetic field, wherein said actuator arm is slidable in a direction across to a longitudinal axis of the movable contact , and a housing that encases the contact assembly and the electromagnetic actuator assembly , wherein the electromechanical relay further comprises a rotatable test button with operating means that can engage with the actuator arm for manually operating the at least one movable contact from outside the housing by rotating said test button , characterized in that the test button is rotatable around an axis that extends across to the actuator arm , wherein the test button comprises a cam protrusion that is operable to engage with guiding means formed at the actuator arm for translating the rotating movement of the test button into a linear movement of the actuator arm .
A dispenser-container assembly for containing a substance and delivering it in a spray form in a target area, the assembly comprising: a container and a pump associated to said container to suck an amount of substance from said container and deliver it towards an outlet nozzle ; a button to actuate said pump , said button comprising a button lateral surface ; a body associable to the container and enclosing at least a portion of said button lateral surface ; and a dispensing cannula configured to assume a rest configuration and a configuration of use; characterized in that the assembly further comprises a cannula housing within which substantially the full length of the cannula can be held in a secured way when the assembly is in its rest configuration, and in that said body is configured to retain and guide said button in an essentially translational movement, said body comprises a member which projects upwardly from said container , wherein an inner surface of said member directly faces a corresponding portion of the button lateral surface , and said button has a non-circular shape identified by a cross-section with a minor axis and a major axis of a length greater than the length of said minor axis. a container and a pump associated to said container to suck an amount of substance from said container and deliver it towards an outlet nozzle ; a button to actuate said pump , said button comprising a button lateral surface ; a body associable to the container and enclosing at least a portion of said button lateral surface ; and a dispensing cannula configured to assume a rest configuration and a configuration of use; characterized in that the assembly further comprises a cannula housing within which substantially the full length of the cannula can be held in a secured way when the assembly is in its rest configuration, and in that said body is configured to retain and guide said button in an essentially translational movement, said body comprises a member which projects upwardly from said container , wherein an inner surface of said member directly faces a corresponding portion of the button lateral surface , and said button has a non-circular shape identified by a cross-section with a minor axis and a major axis of a length greater than the length of said minor axis.
A method of time delivery in a computer system comprising a system call interface, SCI, located in a kernel space and operatively connected to a time client located in a user space, the method comprising the operations of: a. using a time agent component located in the user space to measure data indicative of delay in a system time delivery and to derive therefrom a system time delivery error TE S2C ; b. using the system time delivery error TE S2C to enable correction of system time thereby giving rise to a corrected system time ; and c. sending by the SCI the corrected system time in response to a Read Clock RT call received from the time client , wherein a Read Clock RT call is a command triggering the SCI to derive system time from a real-time clock , Clock RT, and to further deliver the obtained value to the time client, and wherein the measuring of data, indicative of delay in the system time delivery and the deriving therefrom of the system time delivery error TE S2C , comprises the operations of: d. issuing by the time agent component N≥ 2 successive Read Clock RT calls configured with the highest priority, wherein each next call is issued substantially immediately following response received on the previous call ; e. registering by the time agent component system time t 1RT received in response to the first call and time t NRT received in response to the last call ; f. calculating TE S2C as TE S2C =(t NRT -t 1RT )/[(N-1)*2]. a. using a time agent component located in the user space to measure data indicative of delay in a system time delivery and to derive therefrom a system time delivery error TE S2C ; b. using the system time delivery error TE S2C to enable correction of system time thereby giving rise to a corrected system time ; and c. sending by the SCI the corrected system time in response to a Read Clock RT call received from the time client , wherein a Read Clock RT call is a command triggering the SCI to derive system time from a real-time clock , Clock RT, and to further deliver the obtained value to the time client, and wherein the measuring of data, indicative of delay in the system time delivery and the deriving therefrom of the system time delivery error TE S2C , comprises the operations of: call received from the time client , wherein a Read Clock RT call is a command triggering the SCI to derive system time from a real-time clock , Clock RT, and to further deliver the obtained value to the time client, and wherein the measuring of data, indicative of delay in the system time delivery and the deriving therefrom of the system time delivery error TE S2C , comprises the operations of: d. issuing by the time agent component N≥ 2 successive Read Clock RT calls configured with the highest priority, wherein each next call is issued substantially immediately following response received on the previous call ; e. registering by the time agent component system time t 1RT received in response to the first call and time t NRT received in response to the last call ; f. calculating TE S2C as TE S2C =(t NRT -t 1RT )/[(N-1)*2].
Torque converter assembly comprising a hub for connection with an input shaft of a gearbox (G), a lock-up clutch module for selective connection with a crankshaft of an internal combustion engine (E), a turbine module of a torque converter rigidly connected to said lock-up clutch module and rotatable with respect to said hub , and a spiral spring isolator to resiliently connect said hub with said lock-up clutch module and turbine module ,said torque converter assembly comprising a radial supporting member for said turbine module on said hub , wherein said radial supporting member is radially housed in annular recess (R) of said hub , characterized by comprising a shaped wall rigidly connecting said radial supporting member to an outer radial end portion of said spiral spring isolator .
A free-standing accessory stand , comprising: a ground support portion comprising a plurality of spaced apart feet ; an enclosure extending upward relative to the ground support portion , the enclosure disposed about a central axis of the enclosure ; an upper surface extending transversely to the central axis of the enclosure , the upper surface facing away from the ground support portion ; an accessory support having an outer surface projecting away from the upper surface along the central axis of the enclosure , the accessory support having a retractable end ; a cap disposed at the retractable end of the accessory support , the cap having a lower surface extending transversely away from the central axis of the enclosure ; and a mounting space is provided between the upper surface of the enclosure , the lower surface of the cap , and the outer surface of the accessory support characterized in that the accessory support is moveable relative to the enclosure such that the retractable end of the accessory support can be extended away from the enclosure in a first configuration of the free standing accessory stand and retracted towards the enclosure in a second configuration of the free standing accessory stand ; and in that when the free standing accessory stand is in the second configuration the lower surface of the cap is disposed adjacent to upper surface of the free standing accessory stand . a ground support portion comprising a plurality of spaced apart feet ; an enclosure extending upward relative to the ground support portion , the enclosure disposed about a central axis of the enclosure ; an upper surface extending transversely to the central axis of the enclosure , the upper surface facing away from the ground support portion ; an accessory support having an outer surface projecting away from the upper surface along the central axis of the enclosure , the accessory support having a retractable end ; a cap disposed at the retractable end of the accessory support , the cap having a lower surface extending transversely away from the central axis of the enclosure ; and a mounting space is provided between the upper surface of the enclosure , the lower surface of the cap , and the outer surface of the accessory support characterized in that the accessory support is moveable relative to the enclosure such that the retractable end of the accessory support can be extended away from the enclosure in a first configuration of the free standing accessory stand and retracted towards the enclosure in a second configuration of the free standing accessory stand ; and in that when the free standing accessory stand is in the second configuration the lower surface of the cap is disposed adjacent to upper surface of the free standing accessory stand .