mhurhangee/patent-ind-claim-en huggingface dataset:
A communication terminal apparatus comprising: a receiver configured to receive a transmission request for an aperiodic sounding reference signal, A-SRS, and a transmission power control command, TPC command, for transmission control of the A-SRS, the TPC command being received in a Physical Downlink Control Channel, PDCCH; and a controller configured to control a transmission power value of a first A-SRS using a first TPC command when the TPC command is received within a first time, and control a transmission power value of a second A-SRS using a second TPC command when the TPC command is received within a second time other than the first time, transmission power values of the first A-SRS and the second A-SRS being controlled independently of each other, and a transmitter configured to transmit the first A-SRS at the controlled transmission power value using said first TPC command, and to transmit the second A-SRS at the controlled transmission power value using said second TPC command. a receiver configured to receive a transmission request for an aperiodic sounding reference signal, A-SRS, and a transmission power control command, TPC command, for transmission control of the A-SRS, the TPC command being received in a Physical Downlink Control Channel, PDCCH; and a controller configured to control a transmission power value of a first A-SRS using a first TPC command when the TPC command is received within a first time, and control a transmission power value of a second A-SRS using a second TPC command when the TPC command is received within a second time other than the first time, transmission power values of the first A-SRS and the second A-SRS being controlled independently of each other, and a transmitter configured to transmit the first A-SRS at the controlled transmission power value using said first TPC command, and to transmit the second A-SRS at the controlled transmission power value using said second TPC command.
An inkjet printer for newly printing a new pattern (PN) to be printed on an outer surface (WS) of a print object (W) having a spherical shape on which an existing pattern (PE) is printed, the new pattern (PN) being different from the existing pattern (PE), the inkjet printer comprising: a retainer , configured to retain the spherical print object (W); a carriage , configured to print the new pattern (PN) to be printed on the outer surface (WS) of the spherical print object (W); and a projector , configured to project the new pattern (PN) to be printed on the outer surface (WS) of the spherical print object (W) retained by the retainer , characterized in that the projector is configured to project the new pattern (PN) to be printed and at least a part of the existing pattern (PE) together on the outer surface (WS) of the print object (W) retained by the retainer . a retainer , configured to retain the spherical print object (W); a carriage , configured to print the new pattern (PN) to be printed on the outer surface (WS) of the spherical print object (W); and a projector , configured to project the new pattern (PN) to be printed on the outer surface (WS) of the spherical print object (W) retained by the retainer , characterized in that the projector is configured to project the new pattern (PN) to be printed and at least a part of the existing pattern (PE) together on the outer surface (WS) of the print object (W) retained by the retainer .
A gas turbine engine comprising: a compressor section (24;101), a combustor (56;109), and a turbine section , said turbine section including a high pressure turbine first stage blade having an outer tip, a blade outer air seal positioned radially outwardly of said outer tip, and a tap for tapping air having been compressed by said compressor section (24;101); and a vane section having vanes downstream of said combustor (56;109), but upstream of said first stage blade , said tapped air passing radially inwardly of said combustor (56;109), along an axial length of said combustor (56;109), then radially outwardly through a hollow chamber in said vanes , and then across said blade outer air seal to cool said blade outer air seal , characterised in that : said tapped air having been compressed by said compressor section (24; 101) is passed through a heat exchanger for cooling said tapped air upstream of being passed radially inwardly of said combustor (56; 109); said vane section includes a plurality of vanes (120;126), with some of said vanes being static and other vanes being variable pitch ; and said air passing across said blade outer air seal passes through said static vanes , but does not pass through said variable pitch vanes . a compressor section (24;101), a combustor (56;109), and a turbine section , said turbine section including a high pressure turbine first stage blade having an outer tip, a blade outer air seal positioned radially outwardly of said outer tip, and a tap for tapping air having been compressed by said compressor section (24;101); and a vane section having vanes downstream of said combustor (56;109), but upstream of said first stage blade , said tapped air passing radially inwardly of said combustor (56;109), along an axial length of said combustor (56;109), then radially outwardly through a hollow chamber in said vanes , and then across said blade outer air seal to cool said blade outer air seal , said tapped air having been compressed by said compressor section (24; 101) is passed through a heat exchanger for cooling said tapped air upstream of being passed radially inwardly of said combustor (56; 109); said vane section includes a plurality of vanes (120;126), with some of said vanes being static and other vanes being variable pitch ; and said air passing across said blade outer air seal passes through said static vanes , but does not pass through said variable pitch vanes .
A high power DC non transferred plasma torch system (S), comprising a plasma torch assembly , a cooling skid for cooling the plasma torch assembly , a steam skid for supplying and controlling a flow of superheated steam to the plasma torch assembly , an ignition control cabinet housing the torch ignition contactor, a DC plasma power supply for providing DC power to the ignition control cabinet , a gas flow control cabinet for controlling a flow of ignition and shroud gases, a control cabinet housing a programmable logic controller for the system having installed a torch ignition sequence, a torch control sequence and a human machine interface thereon; wherein the plasma torch assembly comprises a shroud/ignition gas vortex generator mounted between a conical cathode and a tubular ignition electrode , and an auxiliary gas vortex generator , mounted in front of the ignition electrode ; and a water-cooled vortex generator assembly with insulated superheated steam injections tubes are connected to a steam vortex generator mounted in the back of a tubular anode for injecting the superheated steam to a plasma plume.
Hemostatic fibers and/or aggregates composition obtainable by supplementing fine cellulose-based fibers with long cellulose-based fibers, wherein the long and the fine fibers are at a ratio in the range of 5%-25% w/w and 95%-75% w/w of the entire weight composition, respectively, wherein the size distribution of the long fibers is: D90 of more than 177 μm and D50 of more than 95 μm, and wherein the size distribution of the fine fibers is: D90 of less than 177 μm, and D50 of less than 95 μm.
A system , comprising: a first common polarizer configured to polarize a first optical signal; a first reflector configured to reflect the polarized first optical signal; a first beam splitter configured to split the reflected, polarized first optical signal into a first portion and a second portion; a second common polarizer configured to polarize a second optical signal; a second reflector configured to reflect the polarized second optical signal; a second beam splitter configured to split the reflected, polarized second optical signal into a first portion and a second portion; wherein the first beam splitter is configured to optically couple the second portion, of the reflected, polarized first optical signal, to a first photodetector ; wherein the first beam splitter is further configured to optically couple the first portion, of the reflected polarized first optical signal, to a first port of an optical resonator coil ; wherein the second beam splitter is configured to optically couple the first portion, of the reflected, polarized second optical signal to a second port of the optical resonator coil; characterized in that the first common polarizer is configured to polarize a third optical signal circulating in a first direction in the optical resonator coil; and wherein the second common polarizer is configured to polarize a fourth optical signal circulating in a second direction in the optical resonator coil. a first common polarizer configured to polarize a first optical signal; a first reflector configured to reflect the polarized first optical signal; a first beam splitter configured to split the reflected, polarized first optical signal into a first portion and a second portion; a second common polarizer configured to polarize a second optical signal; a second reflector configured to reflect the polarized second optical signal; a second beam splitter configured to split the reflected, polarized second optical signal into a first portion and a second portion; wherein the first beam splitter is configured to optically couple the second portion, of the reflected, polarized first optical signal, to a first photodetector ; wherein the first beam splitter is further configured to optically couple the first portion, of the reflected polarized first optical signal, to a first port of an optical resonator coil ; wherein the second beam splitter is configured to optically couple the first portion, of the reflected, polarized second optical signal to a second port of the optical resonator coil; characterized in that the first common polarizer is configured to polarize a third optical signal circulating in a first direction in the optical resonator coil; and wherein the second common polarizer is configured to polarize a fourth optical signal circulating in a second direction in the optical resonator coil.
A method for preserving connection(s) from handover, HO, from an Evolved Universal Terrestrial Radio Access Network, E-UTRAN to a cellular radio access technology, RAT, the method being performed by a user equipment, UE, for which a wireless local area network, WLAN, connection is available, the UE having a plurality of packet switched, PS, connections to the E-UTRAN, the method comprising: determining that circuit switched fallback, CSFB, is needed; determining which of the PS connections should not be handed over to the RAT based on a predefined table stored in the UE that contains handover preferences; and sending a message to a mobile management entity, MME, the message including a list indicating which of the PS connections should not be handed over to the RAT, wherein the RAT is one of: Global System for Mobile communications, GSM/Enhanced Data rates for GSM Evolution, EDGE, Radio Access Network, GERAN and UTRAN. determining that circuit switched fallback, CSFB, is needed; determining which of the PS connections should not be handed over to the RAT based on a predefined table stored in the UE that contains handover preferences; and sending a message to a mobile management entity, MME, the message including a list indicating which of the PS connections should not be handed over to the RAT, wherein the RAT is one of: Global System for Mobile communications, GSM/Enhanced Data rates for GSM Evolution, EDGE, Radio Access Network, GERAN and UTRAN.
A system configured to adjust criteria for detecting slow waves in a subject and deliver sensory stimuli with a timing that corresponds to detected slow waves, the system comprising: one or more sensory stimulators configured to provide sensory stimuli to the subject during the sleep session; one or more sensors configured to generate output signals conveying information related to brain activity of the subject; and one or more physical computer processors configured by computer readable instructions to: obtain criteria for detecting whether the slow waves are present in the subject; determine that the subject is in slow wave sleep by detecting a first slow wave based on the output signals and the obtained criteria; adjust the obtained criteria to enhance detection of subsequent slow waves in the subject; detect a second slow wave based on the output signals and the adjusted criteria; and control the one or more sensory stimulators to deliver the sensory stimuli with a timing that corresponds to detection of the first slow wave and detection of the second slow wave, characterized in that the one or more physical computer processors are configured such that the second slow wave immediately follows the first slow wave during an individual sleep cycle of the subject. one or more sensory stimulators configured to provide sensory stimuli to the subject during the sleep session; one or more sensors configured to generate output signals conveying information related to brain activity of the subject; and one or more physical computer processors configured by computer readable instructions to: obtain criteria for detecting whether the slow waves are present in the subject; determine that the subject is in slow wave sleep by detecting a first slow wave based on the output signals and the obtained criteria; adjust the obtained criteria to enhance detection of subsequent slow waves in the subject; detect a second slow wave based on the output signals and the adjusted criteria; and control the one or more sensory stimulators to deliver the sensory stimuli with a timing that corresponds to detection of the first slow wave and detection of the second slow wave, characterized in that the one or more physical computer processors are configured such that the second slow wave immediately follows the first slow wave during an individual sleep cycle of the subject. obtain criteria for detecting whether the slow waves are present in the subject; determine that the subject is in slow wave sleep by detecting a first slow wave based on the output signals and the obtained criteria; adjust the obtained criteria to enhance detection of subsequent slow waves in the subject; detect a second slow wave based on the output signals and the adjusted criteria; and control the one or more sensory stimulators to deliver the sensory stimuli with a timing that corresponds to detection of the first slow wave and detection of the second slow wave, characterized in that the one or more physical computer processors are configured such that the second slow wave immediately follows the first slow wave during an individual sleep cycle of the subject.
Method for decelerating a single-track motor vehicle , having the following steps: a) determining a total torque (GM) of a rear wheel of the motor vehicle required for controlled overbraking of the rear wheel during the initial braking for a curve by way of a control unit of the motor vehicle , b) ascertaining a braking partial torque (B) and an engine partial torque (M) by way of the control unit as a function of the required total torque (GM), and c) generating the braking partial torque (B) at the rear wheel by activating a braking system of the motor vehicle by way of the control unit and generating the engine partial torque (M) at the rear wheel by activating an engine of the motor vehicle by way of the control unit . a) determining a total torque (GM) of a rear wheel of the motor vehicle required for controlled overbraking of the rear wheel during the initial braking for a curve by way of a control unit of the motor vehicle , b) ascertaining a braking partial torque (B) and an engine partial torque (M) by way of the control unit as a function of the required total torque (GM), and c) generating the braking partial torque (B) at the rear wheel by activating a braking system of the motor vehicle by way of the control unit and generating the engine partial torque (M) at the rear wheel by activating an engine of the motor vehicle by way of the control unit .
A method performed in a wireless communication device for handling operating mode in a wireless communication system , wherein the wireless communication device comprises multiple receiving paths and at least two Subscriber Identity Modules, SIMs, wherein a first SIM connection, which is a wireless connection associated to a first SIM, is in active mode towards a first network node , a second SIM connection, which is a wireless connection associated to a second SIM, is in idle mode and camping on a second network node , the method comprising: determining a first time instant, a first time duration and a type of idle mode task to be performed by the second SIM connection at the first time instant during the first time duration; determining a number of receiving paths needed for the idle mode task to be performed by the second SIM connection; reporting at a second time instant prior to the first time instant, to the first network node a first changed receiving capability of the first SIM connection due to a reduced number of receiving paths available for the first SIM connection; allocating a first set of receiving paths to the first SIM connection and a second set of receiving paths to the second SIM connection to perform the idle mode task during the first time duration; reporting at the second time instant prior to the first time instant, to the first network node the first time duration during which the receiving capability of the first SIM connection will be changed; and reporting at a third time instant prior to an end of the first time duration, to the first network node a second changed receiving capability of the first SIM. determining a first time instant, a first time duration and a type of idle mode task to be performed by the second SIM connection at the first time instant during the first time duration; determining a number of receiving paths needed for the idle mode task to be performed by the second SIM connection; reporting at a second time instant prior to the first time instant, to the first network node a first changed receiving capability of the first SIM connection due to a reduced number of receiving paths available for the first SIM connection; allocating a first set of receiving paths to the first SIM connection and a second set of receiving paths to the second SIM connection to perform the idle mode task during the first time duration; reporting at the second time instant prior to the first time instant, to the first network node the first time duration during which the receiving capability of the first SIM connection will be changed; and reporting at a third time instant prior to an end of the first time duration, to the first network node a second changed receiving capability of the first SIM.
Cabinet, comprising a cabinet housing with at least one side wall in which a wall opening for the leadthrough of busbars or lines can be incorporated or is incorporated, wherein the wall opening can be created or is created by removing a wall portion from the side wall and wherein an electrically insulating interior lining is assigned to the side wall , wherein the interior lining has a region in which a removable lining portion is arranged or formed, characterized in that the lining portion can be removed reversibly and in that a free space corresponding to the wall portion or to the wall opening is formed in the interior lining and can be covered by the lining portion or can be cleared or created by removing the lining portion .
Method for fabricating a substrate comprising the following successive steps: - providing a substrate of semiconductor on insulator type where the semiconductor is a layer made from first semiconductor material (Sc 1 ) and the insulator is a layer made from electrically insulating material ; - depositing a layer made from second semiconductor material (Sc 2 ) by full wafer epitaxy on the layer made from first semiconductor material (Sc 1 ), the second semiconductor material (Sc 2 ) being different from the first semiconductor material (Sc 1 ); - etching the layer made from first semiconductor material (Sc 1 ) and the layer made from second semi-conductor material (Sc 2 ) to delineate at least two active areas each comprising layers of first semiconductor material (Sc 1 ) and of second semi-conductor material (Sc 2 ), the at least two active areas being at least two salient bumps; - leaving a first active area (za 1 ) uncovered and covering a second active area (za2) with a protective material ; and - removing the layer made from second semiconductor material (Sc 2 ) of the first active area (za 1 ) so as to obtain a main surface (A 1 ) made from first semi-conductor material (Sc 1 ), the second active area (za 2 ) comprising a main surface (A 2 ) made from second semiconductor material (Sc 2 ) and the layer made from first semiconductor material (Sc 1 ). - providing a substrate of semiconductor on insulator type where the semiconductor is a layer made from first semiconductor material (Sc 1 ) and the insulator is a layer made from electrically insulating material ; - depositing a layer made from second semiconductor material (Sc 2 ) by full wafer epitaxy on the layer made from first semiconductor material (Sc 1 ), the second semiconductor material (Sc 2 ) being different from the first semiconductor material (Sc 1 ); - etching the layer made from first semiconductor material (Sc 1 ) and the layer made from second semi-conductor material (Sc 2 ) to delineate at least two active areas each comprising layers of first semiconductor material (Sc 1 ) and of second semi-conductor material (Sc 2 ), the at least two active areas being at least two salient bumps; - leaving a first active area (za 1 ) uncovered and covering a second active area (za2) with a protective material ; and - removing the layer made from second semiconductor material (Sc 2 ) of the first active area (za 1 ) so as to obtain a main surface (A 1 ) made from first semi-conductor material (Sc 1 ), the second active area (za 2 ) comprising a main surface (A 2 ) made from second semiconductor material (Sc 2 ) and the layer made from first semiconductor material (Sc 1 ).