mhurhangee/patent-ind-claim-en huggingface dataset:
A method for managing a secure element comprising a plurality of software containers and an operating system , said operating system being able to handle a set of communication protocols with external entities, characterized in that the operating system comprises a routing agent that accesses a pairing data comprising a description of an association between each communication protocol of said set and a software container belonging to the plurality of software containers, each of said communication protocols being associated with a single software container, and in that upon receipt of a message targeting one of said software containers from one of said external entities, the routing agent identifies a used communication protocol that has been used to convey the message and uses the used communication protocol as a discriminator to route the message to the software container which is targeted by said message and which is declared in the pairing data as being associated with the used communication protocol.
A child safety seat comprising: a base , a rear portion of which is formed with a top rod protruding upwardly; a seat connected to the base ; and a tether telescopically connected to the base , wherein the tether can be automatically retracted when it is extended relative to the base . a base , a rear portion of which is formed with a top rod protruding upwardly; a seat connected to the base ; and a tether telescopically connected to the base , wherein the tether can be automatically retracted when it is extended relative to the base .
A method for wireless communication, comprising: transmiting (S110), from a base station to a terminal, a radio resource control, RRC, message that includes X sets of parameter values comprising at least two types of transmission parameters, wherein the at least two types of transmission parameters comprise a quasi-co-location, QCL, parameter and a beam indication associated with the QCL parameter, the beam indication indicating a channel state information reference signal or a synchronization signal block, wherein the X sets of parameter values are further associated with Demodulation Reference Signal, DMRS, configuration information specifying at least a DMRS type, whether a number of symbols used by a DMRS transmission is 1 or 2, a DMRS scrambling for scrambling the DMRS transmission, and jointly configured Phase Tracking Reference Signal, PTRS, configuration information comprising a parameter indicating whether a PTRS transmitted from the base station to the terminal is present or not; selecting (S120), by the base station, a subset of parameter values of the X sets of parameter values, wherein the subset includes Y sets of parameter values, and wherein X ≥ Y ≥ 1 ; and transmitting (S130), from the base station to the terminal, a downlink control information message that includes a selection indication of one or more bits indicating a change to a set of parameter values in the Y sets of parameter values for a data transmission. transmiting (S110), from a base station to a terminal, a radio resource control, RRC, message that includes X sets of parameter values comprising at least two types of transmission parameters, wherein the at least two types of transmission parameters comprise a quasi-co-location, QCL, parameter and a beam indication associated with the QCL parameter, the beam indication indicating a channel state information reference signal or a synchronization signal block, wherein the X sets of parameter values are further associated with Demodulation Reference Signal, DMRS, configuration information specifying at least a DMRS type, whether a number of symbols used by a DMRS transmission is 1 or 2, a DMRS scrambling for scrambling the DMRS transmission, and jointly configured Phase Tracking Reference Signal, PTRS, configuration information comprising a parameter indicating whether a PTRS transmitted from the base station to the terminal is present or not; selecting (S120), by the base station, a subset of parameter values of the X sets of parameter values, wherein the subset includes Y sets of parameter values, and wherein X ≥ Y ≥ 1 ; and transmitting (S130), from the base station to the terminal, a downlink control information message that includes a selection indication of one or more bits indicating a change to a set of parameter values in the Y sets of parameter values for a data transmission.
A method of acquiring information of an accessory connected to a vehicle , the method comprising: in a control unit of the vehicle, acquiring (S1) an accessory identifier from the accessory; the method being characterized by transmitting (S2) the accessory identifier to a remote server comprising accessory information; in the remote server, matching (S3) the accessory identifier with corresponding accessory information and transmitting (S4) the accessory information to the vehicle; and receiving (S5) the accessory information in the control unit of the vehicle, wherein the accessory information comprises a control program for controlling a functionality of the accessory. in a control unit of the vehicle, acquiring (S1) an accessory identifier from the accessory; the method being characterized by transmitting (S2) the accessory identifier to a remote server comprising accessory information; in the remote server, matching (S3) the accessory identifier with corresponding accessory information and transmitting (S4) the accessory information to the vehicle; and receiving (S5) the accessory information in the control unit of the vehicle, wherein the accessory information comprises a control program for controlling a functionality of the accessory.
A system for producing a nutritional composition , the system comprising: (a) a measurement device for determining a level of one or more nutrients in a sample from a subject ; (b) a controller for calculating a required nutrient intake for the subject, wherein the controller is operatively linked to the measurement device and is configured to calculate the required nutrient intake based on the level of the nutrients in the sample from the subject ; (c) a nutritional dispenser for preparing a personalized nutritional composition comprising a combination of nutrients required by the subject ; wherein the nutritional dispenser is operatively linked to the controller and is configured to produce the personalized nutritional composition comprising the combination of nutrients based on the required nutrient intake for the subject calculated by the controller and the controller is configured to (i) calculate a difference between a target value and an actual value of the level of the nutrients in the sample; and (ii) calculate a required nutrient intake for the subject based on the difference between the target and actual values. (a) a measurement device for determining a level of one or more nutrients in a sample from a subject ; (b) a controller for calculating a required nutrient intake for the subject, wherein the controller is operatively linked to the measurement device and is configured to calculate the required nutrient intake based on the level of the nutrients in the sample from the subject ; (c) a nutritional dispenser for preparing a personalized nutritional composition comprising a combination of nutrients required by the subject ;
An impedance-based method for detecting microbial growth, the method comprising: providing a vessel with at least two electrodes disposed therein; introducing a sample to be monitored for microbial growth into the vessel , wherein the at least two electrodes are immersed in the sample; applying a sinusoidal electrical signal, a frequency of which is varied, to a first electrode of the at least two electrodes; repeatedly measuring an out-of-phase signal amplitude at a second electrode of the at least two electrodes repeatedly tuning the frequency of the sinusoidal electrical signal until a zero-crossing frequency of the out-of-phase signal amplitude is reached; and determining from an increase in the zero-crossing frequency over time that microbial growth has occurred, characterized in that the method comprises: switching between a high frequency mode of operation and a low frequency mode of operation, wherein the frequency of the sinusoidal electrical signal is in a range of about 40 kHz to about 80 kHz in the high frequency mode of operation, and wherein the frequency of the sinusoidal electrical signal is in a range of about 1 kHz to about 10 kHz in the low frequency mode of operation. providing a vessel with at least two electrodes disposed therein; introducing a sample to be monitored for microbial growth into the vessel , wherein the at least two electrodes are immersed in the sample; applying a sinusoidal electrical signal, a frequency of which is varied, to a first electrode of the at least two electrodes; repeatedly measuring an out-of-phase signal amplitude at a second electrode of the at least two electrodes repeatedly tuning the frequency of the sinusoidal electrical signal until a zero-crossing frequency of the out-of-phase signal amplitude is reached; and determining from an increase in the zero-crossing frequency over time that microbial growth has occurred, characterized in that the method comprises: switching between a high frequency mode of operation and a low frequency mode of operation, wherein the frequency of the sinusoidal electrical signal is in a range of about 40 kHz to about 80 kHz in the high frequency mode of operation, and wherein the frequency of the sinusoidal electrical signal is in a range of about 1 kHz to about 10 kHz in the low frequency mode of operation. repeatedly tuning the frequency of the sinusoidal electrical signal until a zero-crossing frequency of the out-of-phase signal amplitude is reached; and determining from an increase in the zero-crossing frequency over time that microbial growth has occurred, characterized in that the method comprises: switching between a high frequency mode of operation and a low frequency mode of operation, wherein the frequency of the sinusoidal electrical signal is in a range of about 40 kHz to about 80 kHz in the high frequency mode of operation, and wherein the frequency of the sinusoidal electrical signal is in a range of about 1 kHz to about 10 kHz in the low frequency mode of operation.
An elongated cloth medium to be recorded made with a satin weave that ranges from six-harness satin to ten-harness satin by using a warp made of heat-meltable fiber in a medium longitudinal direction and a weft made of heat-meltable fiber in a direction orthogonal to the medium longitudinal direction, the cloth medium comprising one surface and another surface, said warp having a weaving density that ranges from 11811 to 21260 yarns/m (300 to 540 yarns/inch), said weft having a weaving density that ranges from 3150 to 21260 yarns/m (80 to 540 yarns/inch), said one surface being a surface with said warp more exposed than said weft in accordance with said satin weave, and the cloth medium further comprising, on the one surface, a print-receiving surface to which calendering has been executed by heating and pressing and suitable for receiving printing by heat transfer of ink from an ink ribbon (IB) receiving heat from a thermal head , the cloth medium further comprising, one of two heat-cut parts that is cut by heating and is disposed on one of edge portions on both sides in a medium width direction and the other of the two heat-cut parts that is cut by heating and is disposed on the other of the edge portions on both sides in the medium width direction; and a part to be recorded with a print area to be recorded that is disposed between said two heat-cut parts on said edge portions on both sides and has a thickness smaller than said heat cut parts , the heat cut parts being respective ear parts having a relatively greater thickness than the print area part .
Lens for distribution of light from a light emitter having an emitter axis , the lens comprising: an inner surface defining an inner cavity and including a cross-sectionally convex inner region configured for refracting emitter light rays toward the axis and a cross-sectionally linear inner region ; and an outer surface receiving the light from each of the inner regions ; a lens flange surrounding the lens and extending radially outwardly from the lens outer surface at positions axially spaced from the light emitter ; characterized in that the convex inner region is formed along an open end of the inner cavity , the cross-sectionally linear inner region joins the cross-sectionally convex inner region , extends therefrom toward the emitter axis and forms a cone-shaped inner surface portion at the closed end of the inner cavity . an inner surface defining an inner cavity and including a cross-sectionally convex inner region configured for refracting emitter light rays toward the axis and a cross-sectionally linear inner region ; and an outer surface receiving the light from each of the inner regions ; a lens flange surrounding the lens and extending radially outwardly from the lens outer surface at positions axially spaced from the light emitter ; characterized in that the convex inner region is formed along an open end of the inner cavity , the cross-sectionally linear inner region joins the cross-sectionally convex inner region , extends therefrom toward the emitter axis and forms a cone-shaped inner surface portion at the closed end of the inner cavity .
A method of supporting arbitrary replacement of multiple data units in a vector processor, which comprises configuring patterns for arbitrary position replacement of 32 data units, characterized in that the method comprises: during a process of data unit replacement, performing a replacement operation on the 32 data units according to the configured patterns; configuring (S201) patterns for arbitrary position replacement of 32 data units; and during a process of data unit replacement, performing (S202, S203, S204, S205) the following replacement operations successively on the 32 data units according to the configured patterns: a replacement operation of four data units, a replacement operation of eight data units, a replacement operation of 16 data units, and a replacement operation of 32 data units; wherein, performing exchanging operations of three orders when performing the replacement operation of four data units; performing exchanging operations of three orders when performing the replacement operation of eight data units; performing exchanging operations of four orders when performing the replacement operation of 16 data units; performing exchanging operations of five orders when performing the replacement operation of 32 data units; therefore performing exchanging operations of 3+3+4+5=15 orders during the process of data unit replacement. during a process of data unit replacement, performing a replacement operation on the 32 data units according to the configured patterns; configuring (S201) patterns for arbitrary position replacement of 32 data units; and during a process of data unit replacement, performing (S202, S203, S204, S205) the following replacement operations successively on the 32 data units according to the configured patterns: a replacement operation of four data units, a replacement operation of eight data units, a replacement operation of 16 data units, and a replacement operation of 32 data units; wherein, performing exchanging operations of three orders when performing the replacement operation of four data units; performing exchanging operations of three orders when performing the replacement operation of eight data units; performing exchanging operations of four orders when performing the replacement operation of 16 data units; performing exchanging operations of five orders when performing the replacement operation of 32 data units; therefore performing exchanging operations of 3+3+4+5=15 orders during the process of data unit replacement.
A method of re-laminarizing a turbulent flow of a fluid flowing through a duct in a main flow direction , a wall of the duct bounding the flow, the method comprising - injecting additional fluid into the duct in the main flow direction as a sheet of fluid covering the wall in a circumferential direction around the main flow direction by means of a pump , - wherein the additional fluid is injected through a slotted ring nozzle extending along the wall in the circumferential direction around the main flow direction , and - the additional fluid is withdrawn from the duct , characterized in - that the velocity of the injected additional fluid is at least 80 % and not more than 150 % of the average velocity of the fluid in the main flow direction , and - that a volume flow rate of the injected additional fluid is at least 5 % of a volume flow rate of the fluid not including the additional fluid and not more than 20 % of the volume flow rate of the fluid not including the additional fluid. - injecting additional fluid into the duct in the main flow direction as a sheet of fluid covering the wall in a circumferential direction around the main flow direction by means of a pump , - wherein the additional fluid is injected through a slotted ring nozzle extending along the wall in the circumferential direction around the main flow direction , and - the additional fluid is withdrawn from the duct , characterized in - that the velocity of the injected additional fluid is at least 80 % and not more than 150 % of the average velocity of the fluid in the main flow direction , and - that a volume flow rate of the injected additional fluid is at least 5 % of a volume flow rate of the fluid not including the additional fluid and not more than 20 % of the volume flow rate of the fluid not including the additional fluid.
A method for rendering at a local client device a composite view including a cursor and a remote view associated with a remote application running on a remote server , comprising: generating (2910-A) the remote view of the remote application based on display output of the remote application received at the local client device from the remote server , wherein a remote graphical user interface, GUI, of the remote application is deactivated in the display output data of the remote application and only the display content of the remote application is sent to the local client device ; generating (2920-A), by a local view module of the local client device , the cursor , the cursor including a finger pad and a pointer , the local view module generating the cursor based on a configuration file , wherein the configuration file is generated by an application module of the server and is sent to the remote client device ; providing (2930-A), to a local display at the local client device , a composite view comprising the cursor and the remote view ; monitoring (2940-A) movements of a user's finger on the local display ; moving (2950-A) the finger pad and the pointer together on the local display to track movements of the user's finger on the local display ; receiving (2960-A) user inputs to the cursor from the local display ; and sending (2970-A) coordinates of the pointer and the received user inputs to the remote server . generating (2910-A) the remote view of the remote application based on display output of the remote application received at the local client device from the remote server , wherein a remote graphical user interface, GUI, of the remote application is deactivated in the display output data of the remote application and only the display content of the remote application is sent to the local client device ; generating (2920-A), by a local view module of the local client device , the cursor , the cursor including a finger pad and a pointer , the local view module generating the cursor based on a configuration file , wherein the configuration file is generated by an application module of the server and is sent to the remote client device ; providing (2930-A), to a local display at the local client device , a composite view comprising the cursor and the remote view ; monitoring (2940-A) movements of a user's finger on the local display ; moving (2950-A) the finger pad and the pointer together on the local display to track movements of the user's finger on the local display ; receiving (2960-A) user inputs to the cursor from the local display ; and sending (2970-A) coordinates of the pointer and the received user inputs to the remote server .
A method for controlling an induction heating apparatus comprising: receiving a heating start command; determining whether or not to perform a temperature correction operation based on a time interval between a current driving start time point of a working coil and a previous driving end time point of the working coil ; determining an equivalent resistance value of the working coil and a container placed on the working coil by driving the working coil at a preset reference frequency, when it is determined to perform the temperature correction operation; determining a temperature correction value based on the equivalent resistance value; obtaining a temperature value sensed by a temperature sensor ; and correcting the sensed temperature value based on the temperature correction value. receiving a heating start command; determining whether or not to perform a temperature correction operation based on a time interval between a current driving start time point of a working coil and a previous driving end time point of the working coil ; determining an equivalent resistance value of the working coil and a container placed on the working coil by driving the working coil at a preset reference frequency, when it is determined to perform the temperature correction operation; determining a temperature correction value based on the equivalent resistance value; obtaining a temperature value sensed by a temperature sensor ; and correcting the sensed temperature value based on the temperature correction value.
An antibody-antibiotic conjugate compound comprising an anti-wall teichoic acid (WTA) monoclonal antibody, wherein the anti-WTA antibody binds to Staphylococcus aureus, and covalently attached by a S. aureus endopeptidase or cysteine protease cleavable, peptide linker (L) to an antibiotic moiety selected from sitafloxacin and teicoplanin; wherein the antibody-antibiotic conjugate compound has: Ab-(L-abx) p wherein: Ab is the anti-wall teichoic acid antibody; L is the peptide linker having the formula: -Str-Pep-Y- where Str is a stretcher unit; Pep is a peptide of two to twelve amino acid residues, and Y is a spacer unit; abx is the antibiotic moiety; and p is an integer from 1 to 8; wherein (a) the VL of the anti-WTA monoclonal antibody comprises CDR L1 comprising the sequence of KSSQSIFRTSRNKNLLN (SEQ ID NO:99), CDR L2 comprising the sequence of WASTRKS (SEQ ID NO: 100), and CDR L3 comprising the sequence of QQYFSPPYT (SEQ ID NO:101); and the VH of the anti-WTA antibody comprises CDR H1 comprising the sequence of SFWMH (SEQ ID NO:102), CDR H2 comprising the sequence of FTNNEGTTTAYADSVRG (SEQ ID NO:103), and CDR H3 comprising the sequence of GEGGLDD (SEQ ID NO:118) or GDGGLDD (SEQ ID NO:104); or (b) the VL of the anti-WTA monoclonal antibody comprises CDR L1 comprising the sequence of RASQTISGWLA (SEQ ID NO:33), CDR L2 comprising the sequence of KASTLES (SEQ ID NO:34), and CDR L3 comprising the sequence of QQYKSYSFN (SEQ ID NO:35); and the VH of the anti-WTA antibody comprises CDR H1 comprising the sequence of SYDIN (SEQ ID NO:36), CDR H2 comprising the sequence of WMNANSGNTGYAQKFQG (SEQ ID NO:37), and CDR H3 comprising the sequence of SSILVRGALGRYFDL (SEQ ID NO:38). Ab is the anti-wall teichoic acid antibody; L is the peptide linker having the formula: -Str-Pep-Y- where Str is a stretcher unit; Pep is a peptide of two to twelve amino acid residues, and Y is a spacer unit; abx is the antibiotic moiety; and p is an integer from 1 to 8;
An anti-human DNAM-1 monoclonal antibody or a fragment thereof, having a heavy-chain variable region comprising CDR1 to CDR3 having amino acid sequences of SEQ ID NOs: 1 to 3 respectively, and a light-chain variable region comprising CDR1 to CDR3 having amino acid sequences of SEQ ID NOs: 4 to 6 respectively.