mhurhangee/patent-ind-claim-en huggingface dataset:
A method for handover, comprising: adding , by a first base station, a second base station as a Secondary Node, SN, in a Dual Connectivity, DC, network, wherein the first base station is a Master Node, MN, in the DC network; receiving, by the first base station, first indication information from the second base station, wherein the first indication information is to indicate whether the second base station is standalone or non-standalone, when the first indication information indicates that the second base station is standalone, sending , by the first base station, a handover request message to a first core network, wherein the handover request message is used to instruct a role switching between the SN and the MN in the DC network, and to complete UE context preparation at an entity of a second core network; and receiving , by the first base station, a handover request acknowledgement message from the second core network, and sending a handover command to a terminal, to enable the terminal to send a handover complete message to the second base station; when the first indication information indicates that the second base station is non-standalone, sending no handover request message to the first core network. adding , by a first base station, a second base station as a Secondary Node, SN, in a Dual Connectivity, DC, network, wherein the first base station is a Master Node, MN, in the DC network; receiving, by the first base station, first indication information from the second base station, wherein the first indication information is to indicate whether the second base station is standalone or non-standalone, when the first indication information indicates that the second base station is standalone, sending , by the first base station, a handover request message to a first core network, wherein the handover request message is used to instruct a role switching between the SN and the MN in the DC network, and to complete UE context preparation at an entity of a second core network; and receiving , by the first base station, a handover request acknowledgement message from the second core network, and sending a handover command to a terminal, to enable the terminal to send a handover complete message to the second base station; sending , by the first base station, a handover request message to a first core network, wherein the handover request message is used to instruct a role switching between the SN and the MN in the DC network, and to complete UE context preparation at an entity of a second core network; and receiving , by the first base station, a handover request acknowledgement message from the second core network, and sending a handover command to a terminal, to enable the terminal to send a handover complete message to the second base station; when the first indication information indicates that the second base station is non-standalone, sending no handover request message to the first core network.
Method for adapting a deceleration of a motor powered by a variable speed drive , the variable speed drive comprising a plurality of at least N low-voltage power cells linked in series, N being greater than or equal to 1, the method comprising the following operations during a period of deceleration of the motor: - determination of at least one average motor voltage over a given period as a function of motor voltage values measured at the terminals of the motor over the given period; - as a function of the determined average motor voltage, determination of an average rectified voltage value, wherein a rectified voltage corresponds to a voltage obtained at the output of a rectifier of each power cell; - adaptation of the deceleration of the motor as a function of the average rectified voltage value. - determination of at least one average motor voltage over a given period as a function of motor voltage values measured at the terminals of the motor over the given period; - as a function of the determined average motor voltage, determination of an average rectified voltage value, wherein a rectified voltage corresponds to a voltage obtained at the output of a rectifier of each power cell; - adaptation of the deceleration of the motor as a function of the average rectified voltage value.
A method for concentrating and recovering noble metals, comprising, crushing a copper-containing material and preparing a mixture by mixing the same with a gold concentrate (step 1); oxidizing and roasting the prepared mixture by heat-treating (step 2); melting the oxidized and roasted mixture to separate and recover slag and crude metal (step 3); and electrolytic leaching the crude metal to concentrate the noble metal into an electrolytic leach residue (step 4).
A terminal , comprising: a transmission unit configured to transmit a first message to a base station , the first message including a random access preamble for a two-step random access procedure or for a four-step random access procedure; a reception unit configured to receive a second message as a response to the first message, from the base station; and a control unit configured to, if radio quality in communication with the base station satisfies a condition, perform the two-step random access procedure, and, if the radio quality in communication with the base station does not satisfy the condition, perform the four-step random access procedure; characterized in that , when performing the two-step random access procedure, the control unit is configured to select a random access preamble group based on a size of the first message and a pathloss to which an offset to the target reception power configured for the two-step random access procedure is applied. a transmission unit configured to transmit a first message to a base station , the first message including a random access preamble for a two-step random access procedure or for a four-step random access procedure; a reception unit configured to receive a second message as a response to the first message, from the base station; and a control unit configured to, if radio quality in communication with the base station satisfies a condition, perform the two-step random access procedure, and, if the radio quality in communication with the base station does not satisfy the condition, perform the four-step random access procedure; characterized in that , when performing the two-step random access procedure, the control unit is configured to select a random access preamble group based on a size of the first message and a pathloss to which an offset to the target reception power configured for the two-step random access procedure is applied.
Method for introducing a plurality of cutouts into a substrate , in particular a planar substrate , by means of an optical system, wherein the thickness of the substrate in the region of the cutouts to be introduced does not exceed 2 mm, by means of pulsed laser radiation with a pulse duration (t), wherein the substrate material of the substrate is at least partially transparent to the laser wavelength and the laser radiation is focused by means of the optical system of the focal depth (f1) and the intensity of the laser radiation leads to a modification of the substrate along a beam axis (Z) of the laser radiation , but not to a removal of material right through, wherein the laser radiation is focused by non-linear self-focusing within the pulse duration (t) of a single pulse (P) by the same, itself unchanged, optical system with a focal depth (f2) different from the original focal depth (f1), characterized in that the laser radiation is first directed through a transmissive medium , wherein the transmissive medium has a greater intensity-dependent refraction index than air and 1. the intensity (I) of a single pulse (P) of the laser radiation over the time of the single pulse has an intensity that increases from a minimum (I a ) through a mean value to a maximum (I c ) and then falls, 2. and as a result, the focal depth of the optical system changes irrespective of the geometrical focal position determined by the focusing optic, and this effect is enhanced by the transmissive medium in such a way that the distance of the focal positions between a maximum and a minimum intensity (I) corresponds at least to the desired longitudinal extent of the cutout to be introduced, 3. whereby, irrespective of the geometrical focal position determined by the focusing optic of the laser processing head , the intensity-dependent focal positions of the laser radiation change, so that in the next step an anisotropic material removal takes place mainly in those regions that have previously undergone a modification by means of the laser radiation , and so a cutout is introduced into the substrate . 1. the intensity (I) of a single pulse (P) of the laser radiation over the time of the single pulse has an intensity that increases from a minimum (I a ) through a mean value to a maximum (I c ) and then falls, 2. and as a result, the focal depth of the optical system changes irrespective of the geometrical focal position determined by the focusing optic, and this effect is enhanced by the transmissive medium in such a way that the distance of the focal positions between a maximum and a minimum intensity (I) corresponds at least to the desired longitudinal extent of the cutout to be introduced, 3. whereby, irrespective of the geometrical focal position determined by the focusing optic of the laser processing head , the intensity-dependent focal positions of the laser radiation change, so that in the next step an anisotropic material removal takes place mainly in those regions that have previously undergone a modification by means of the laser radiation , and so a cutout is introduced into the substrate .
A method for transmitting aperiodic channel status information, CSI, by a user equipment, UE, to a base station in a wireless communication system, the method comprising: transmitting, to the base station, UE capability information including a threshold value of CSI computing capability of the UE; receiving, from the base station, an aperiodic CSI report-triggering message via downlink control information, DCI, wherein the aperiodic CSI report-triggering message include information about at least one CSI process among a plurality of CSI processes, and about an aperiodic reference signal resource among a plurality of aperiodic reference signal resources included in the at least one CSI process; and transmitting the aperiodic CSI report to the base station by updating the aperiodic CSI report for the at least one CSI process based on the aperiodic reference signal resource, wherein, when a number of aperiodic CSI reports to be updated in a predetermined time unit is greater than the threshold value, only a number of aperiodic CSI reports less than the threshold value can be updated, wherein the aperiodic CSI reports to be updated are selected starting from an aperiodic CSI report corresponding to the lowest CSI process index. transmitting, to the base station, UE capability information including a threshold value of CSI computing capability of the UE; receiving, from the base station, an aperiodic CSI report-triggering message via downlink control information, DCI, wherein the aperiodic CSI report-triggering message include information about at least one CSI process among a plurality of CSI processes, and about an aperiodic reference signal resource among a plurality of aperiodic reference signal resources included in the at least one CSI process; and transmitting the aperiodic CSI report to the base station by updating the aperiodic CSI report for the at least one CSI process based on the aperiodic reference signal resource, wherein, when a number of aperiodic CSI reports to be updated in a predetermined time unit is greater than the threshold value, only a number of aperiodic CSI reports less than the threshold value can be updated, wherein the aperiodic CSI reports to be updated are selected starting from an aperiodic CSI report corresponding to the lowest CSI process index.
Solids separating system, having at least one bulky-material collecting tank for wastewater which is guided through same and is loaded with bulky materials, and having a liquid collecting tank (1, 2, 3; 10) for the wastewater which has been rid of solids and has been pretreated in the bulky-material collecting tank , characterized in that at least one metallic housing having housing walls (1, 2, 3; 10) defines the liquid collecting tank, wherein at least two housing walls (1, 2, 3; 10) are provided with wall reinforcing elements (4.1, 4.2; 5, 7) which are in the form of reinforcing ribs, wherein the at least two housing walls adjoin one another with a predominantly vertical edge, and the reinforcing ribs (4.1, 4.2; 5, 7) of said housing walls are offset laterally and do not merge into one another, and describe at least two spatial planes which differ from one another and extend predominantly parallel and at a distance from one another.
A method of forming a flexible polyurethane foam passing BS 5852:2006 source V (Crib 5) test, comprising: providing a modified polyisocyanate polyaddition (PIPA) polyol formed by contacting a PIPA polyol dispersion with at least one carboxylic acid having a melting point above zero degree Celsius and present in a carrier solvent, wherein the PIPA polyol dispersion has a polyol liquid phase content of 60 wt.% to 90 wt.% and a solid particle phase content of 10 wt.% to 40 wt.% based on a total weight of the PIPA polyol dispersion and wherein the at least one carboxylic acid contains an OH group; combining 10 weight percent (wt.%) to 80 wt.% of the modified PIPA polyol with 90 wt.% to 20 wt.% of at least another polyether polyol based on a total weight of a polyol blend of the PIPA polyol and the at least another polyether polyol, wherein the polyether polyol is formed with propylene oxide and ethylene oxide and has an equivalent weight of 1,000 to 2,000 and a functionality of 3 to 6; and reacting the combination of the modified PIPA polyol and the polyether polyol with a polyisocyanate and a blowing agent to form the flexible polyurethane foam. providing a modified polyisocyanate polyaddition (PIPA) polyol formed by contacting a PIPA polyol dispersion with at least one carboxylic acid having a melting point above zero degree Celsius and present in a carrier solvent, wherein the PIPA polyol dispersion has a polyol liquid phase content of 60 wt.% to 90 wt.% and a solid particle phase content of 10 wt.% to 40 wt.% based on a total weight of the PIPA polyol dispersion and wherein the at least one carboxylic acid contains an OH group; combining 10 weight percent (wt.%) to 80 wt.% of the modified PIPA polyol with 90 wt.% to 20 wt.% of at least another polyether polyol based on a total weight of a polyol blend of the PIPA polyol and the at least another polyether polyol, wherein the polyether polyol is formed with propylene oxide and ethylene oxide and has an equivalent weight of 1,000 to 2,000 and a functionality of 3 to 6; and reacting the combination of the modified PIPA polyol and the polyether polyol with a polyisocyanate and a blowing agent to form the flexible polyurethane foam.
An integrated circuit system comprising: a silicon bridge comprising chip-to-chip interconnects; a first integrated circuit die comprising programmable logic fabric, wherein the first integrated circuit die is connected to first interconnect points of the chip-to-chip interconnects on the silicon bridge; and a second integrated circuit die that supports the first integrated circuit die, wherein the second integrated circuit die is connected to second interconnect points of the chip-to-chip interconnects on the silicon bridge that connect to the first interconnect points; wherein the first integrated circuit die and the secondary integrated circuit die communicate with one another via the chip-to-chip interconnects using an interface bridge , wherein the first and second component integrated circuits comprise circuitry to implement the interface bridge, characterised in that the interface bridge is configured to provide source-synchronous communication using a data receive clock from the second integrated circuit die to the first integrated circuit die; and in that the first integrated circuit die operates based on a first clock and the second integrated circuit die operates based on a second clock, wherein the data receive clock is based on the second clock. a silicon bridge comprising chip-to-chip interconnects; a first integrated circuit die comprising programmable logic fabric, wherein the first integrated circuit die is connected to first interconnect points of the chip-to-chip interconnects on the silicon bridge; and a second integrated circuit die that supports the first integrated circuit die, wherein the second integrated circuit die is connected to second interconnect points of the chip-to-chip interconnects on the silicon bridge that connect to the first interconnect points; wherein the first integrated circuit die and the secondary integrated circuit die communicate with one another via the chip-to-chip interconnects using an interface bridge , wherein the first and second component integrated circuits comprise circuitry to implement the interface bridge, characterised in that the interface bridge is configured to provide source-synchronous communication using a data receive clock from the second integrated circuit die to the first integrated circuit die;
Arrangement comprising a door handle and a door panel , wherein the door handle comprises: a case including a placement space therein; and a light guide disposed in the placement space and configured to guide light emitted from a light source , the light guide including a light exiting surface from which the light is irradiated toward the outside of the case , an irradiation passage hole through which the light irradiated from the light exiting surface passes is formed in the case , and when a tangent line which passes through an outer surface of the door panel on a travelling direction side of the light passing through the irradiation passage hole and a wall surface for forming the irradiation passage hole is defined as a connecting line (S) and an assembly of the connecting lines at the entire circumference of the irradiation passage hole is defined as a connecting line assembly (Sa), the light exiting surface is located on the outside of the connecting line assembly (Sa), or when an opening end on an outer side of the irradiation passage hole is defined as an outer opening end , an opening end on the placement space side thereof is defined as an inner opening end , a straight line passing through an arbitrary point in the outer opening end and an arbitrary point in the inner opening end is defined as a connecting line (T), and an assembly of the connecting lines (T) at the entire circumference of the irradiation passage hole is defined as a connecting line assembly , the light exiting surface is located on the outside of the connecting line assembly (Ta), characterized in that a diameter of the irradiation passage hole increases as going from the placement space side toward the outside.
A scroll expander , comprising: a housing ; and an expansion mechanism (EM) provided inside the housing and configured to expand a high-pressure fluid with an intake pressure to a low-pressure fluid with an exhaust pressure, the expansion mechanism comprising a fixed scroll and an orbiting scroll and defining therein an exhaust chamber , an intake chamber and a series of closed expansion chambers, wherein a back pressure chamber (C) is provided on the expansion mechanism, and the back pressure chamber is in fluid communication with an intermediate pressure chamber of the series of expansion chambers which has an intermediate pressure lower than the intake pressure and higher than the exhaust pressure, characterized in that at least one passage (L) in fluid communication from the back pressure chamber to a low-pressure zone with the exhaust pressure is provided, and the passage (L) is configured such that the passage is opened when a pressure in the back pressure chamber is less than a pressure in the low-pressure zone and the passage is closed when a pressure in the back pressure chamber is greater than or equal to a pressure in the low-pressure zone. a housing ; and an expansion mechanism (EM) provided inside the housing and configured to expand a high-pressure fluid with an intake pressure to a low-pressure fluid with an exhaust pressure, the expansion mechanism comprising a fixed scroll and an orbiting scroll and defining therein an exhaust chamber , an intake chamber and a series of closed expansion chambers, wherein a back pressure chamber (C) is provided on the expansion mechanism, and the back pressure chamber is in fluid communication with an intermediate pressure chamber of the series of expansion chambers which has an intermediate pressure lower than the intake pressure and higher than the exhaust pressure, characterized in that at least one passage (L) in fluid communication from the back pressure chamber to a low-pressure zone with the exhaust pressure is provided, and the passage (L) is configured such that the passage is opened when a pressure in the back pressure chamber is less than a pressure in the low-pressure zone and the passage is closed when a pressure in the back pressure chamber is greater than or equal to a pressure in the low-pressure zone.
An apparatus comprising: one or more performance monitoring counters ; and a secure group manager to receive a request to create a secure counter group from a software, SW, process being executed by a processor , the request including identification of the one or more performance monitoring counters ; determine availability of the one or more performance monitoring counters , creating the secure counter group, assign the one or more performance monitoring counters to the secure counter group, and save a public key of the SW process, when the one or more performance monitoring counters are available; receive and save a private key for the secure counter group; receive a request to configure the secure counter group from the SW process; verify the configuration using the public key of the SW process; and start sampling of the one or more performance monitoring counters when the configuration is verified. one or more performance monitoring counters ; and a secure group manager to receive a request to create a secure counter group from a software, SW, process being executed by a processor , the request including identification of the one or more performance monitoring counters ; determine availability of the one or more performance monitoring counters , creating the secure counter group, assign the one or more performance monitoring counters to the secure counter group, and save a public key of the SW process, when the one or more performance monitoring counters are available; receive and save a private key for the secure counter group; receive a request to configure the secure counter group from the SW process; verify the configuration using the public key of the SW process; and start sampling of the one or more performance monitoring counters when the configuration is verified.