mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a terminal (111-116) in a wireless communication system, the method comprising: receiving, from a base station (101-103), first information configuring a first code rate for uplink control information, UCI; receiving, from the base station, second information scheduling a physical downlink shared channel, PDSCH; identifying a number of physical resource blocks, PRBs, for transmitting hybrid automatic repeat request acknowledgement, HARQ-ACK, information for the PDSCH, wherein the number of PRBs is a minimum number of PRBs resulting to a second code rate that is below the first code rate configured by the first information; and transmitting, to the base station, the HARQ-ACK information on a physical uplink control channel, PUCCH, including the PRBs, wherein the second information comprises information associated with a number of symbols for the PUCCH, and the HARQ-ACK information is transmitted in the symbols. receiving, from a base station (101-103), first information configuring a first code rate for uplink control information, UCI; receiving, from the base station, second information scheduling a physical downlink shared channel, PDSCH; identifying a number of physical resource blocks, PRBs, for transmitting hybrid automatic repeat request acknowledgement, HARQ-ACK, information for the PDSCH, wherein the number of PRBs is a minimum number of PRBs resulting to a second code rate that is below the first code rate configured by the first information; and transmitting, to the base station, the HARQ-ACK information on a physical uplink control channel, PUCCH, including the PRBs, wherein the second information comprises information associated with a number of symbols for the PUCCH, and the HARQ-ACK information is transmitted in the symbols.
Method for determining a response time parameter of a brake chamber of a brake system for a vehicle , wherein the brake system comprises an electronic pressure modulator configured to modulate pressure in the brake chamber and a solenoid valve for the brake chamber , wherein the method comprises: detecting an end (t 3 ) of a fallback slope of a pressure signal as measured at the electronic pressure modulator after a pulse of the solenoid valve , wherein the end (t 3 ) of the fallback slope corresponds to a state in which pressure represented by the pressure signal as measured at the electronic pressure modulator and actual brake chamber pressure are equal, wherein an end of the pulse of the solenoid valve corresponds to a peak in the pressure signal as measured at the electronic pressure modulator ; and setting the response time parameter of the brake chamber depending on the detected end (t 3 ) of the fallback slope. detecting an end (t 3 ) of a fallback slope of a pressure signal as measured at the electronic pressure modulator after a pulse of the solenoid valve , wherein the end (t 3 ) of the fallback slope corresponds to a state in which pressure represented by the pressure signal as measured at the electronic pressure modulator and actual brake chamber pressure are equal, wherein an end of the pulse of the solenoid valve corresponds to a peak in the pressure signal as measured at the electronic pressure modulator ; and setting the response time parameter of the brake chamber depending on the detected end (t 3 ) of the fallback slope.
A medical probe , comprising: an elongate body for insertion into an organ of a patient; an electrode comprising an electrode body , which is attached to the elongate body of the probe ; multiple thermocouples , which are disposed at respective different locations of the electrode, and which are configured to sense respective temperatures at the locations; and a first conductor that is directly connected in series with the thermocouples to provide a conductor that is common to the thermocouples , and multiple second conductors that are each connected to a respective one of the thermocouples , wherein electrical potentials between the first conductor and the second conductors are indicative of the respective temperatures of the thermocouples; wherein the electrode comprises an ablation electrode, and characterized in that the thermocouples are electrically coupled to the electrode, and the first conductor or one of the second conductors is also configured to be used for delivering Radio Frequency (RF) current to the electrode body . an elongate body for insertion into an organ of a patient; an electrode comprising an electrode body , which is attached to the elongate body of the probe ; multiple thermocouples , which are disposed at respective different locations of the electrode, and which are configured to sense respective temperatures at the locations; and a first conductor that is directly connected in series with the thermocouples to provide a conductor that is common to the thermocouples , and multiple second conductors that are each connected to a respective one of the thermocouples , wherein electrical potentials between the first conductor and the second conductors are indicative of the respective temperatures of the thermocouples; wherein the electrode comprises an ablation electrode, and characterized in that the thermocouples are electrically coupled to the electrode, and the first conductor or one of the second conductors is also configured to be used for delivering Radio Frequency (RF) current to the electrode body .
A genetically modified cereal plant having a recombinant DNA construct integrated into the genome of the cereal plant; said construct comprising a gene operably linked to a heterologous promoter, wherein: i. said heterologous promoter directs grain-specific expression of said operably linked gene, and ii. said gene comprises a coding sequence encoding a signal peptide N-terminally fused to a polypeptide having aspartic endoprotease activity (EC 3.4.23.12), and wherein the amino acid sequence of said polypeptide has at least 88% sequence identity to a sequence selected from the group consisting of: SEQ ID No.: 4; amino acid residues 30-451 of SEQ ID No: 6; amino acid residues 30-451 of SEQ ID No: 8; amino acid residues 30-451 of SEQ ID No: 10; and amino acid residues 28-446 of SEQ ID No: 12; and wherein expression of said gene confers enhanced resistance to a fungal disease caused by a species of Fusarium and/or Aspergillus as compared to a parent cereal plant from which said genetically modified cereal plant was derived. i. said heterologous promoter directs grain-specific expression of said operably linked gene, and ii. said gene comprises a coding sequence encoding a signal peptide N-terminally fused to a polypeptide having aspartic endoprotease activity (EC 3.4.23.12), and wherein the amino acid sequence of said polypeptide has at least 88% sequence identity to a sequence selected from the group consisting of: SEQ ID No.: 4; amino acid residues 30-451 of SEQ ID No: 6; amino acid residues 30-451 of SEQ ID No: 8; amino acid residues 30-451 of SEQ ID No: 10; and amino acid residues 28-446 of SEQ ID No: 12; and
A refrigeration appliance , in particular for household use, comprising a structure with at least one compartment formed therein for food preservation, and a beverage dispensing device , said device comprising: - a valve for dispensing said beverage, said valve being located in such a position as to extend through a portion of the structure of the refrigeration appliance and to dispense said beverage outside said structure ; - an actuator element located outside the refrigeration appliance , said actuator element being connected to the structure of the refrigeration appliance and being associated with said valve to actuate it in order to dispense the beverage, wherein said refrigeration appliance comprises a coupling element for connecting the actuator element to the structure of the refrigeration appliance and a recess into which the valve comes out for dispensing the beverage, wherein said coupling element comprises: - a first end having first connection means to allow the coupling of said first end to first fitting means present on the structure of the refrigeration appliance - a second end having second connection means to allow the coupling of said second end to second fitting means present on at least onejunction portion of the actuator element , characterized in that said first fitting means are associated with an inner wall of the structure and that said coupling element has the shape of a ladder, said coupling element comprising a pair of longitudinal ribs joined together by at least one cross member . - a valve for dispensing said beverage, said valve being located in such a position as to extend through a portion of the structure of the refrigeration appliance and to dispense said beverage outside said structure ; - an actuator element located outside the refrigeration appliance , said actuator element being connected to the structure of the refrigeration appliance and being associated with said valve to actuate it in order to dispense the beverage, - a first end having first connection means to allow the coupling of said first end to first fitting means present on the structure of the refrigeration appliance - a second end having second connection means to allow the coupling of said second end to second fitting means present on at least onejunction portion of the actuator element ,
An immune cell checkpoint inhibitor for use together with an autologous immature dendritic cell in a method for the treatment of a tumour in a subject, said method comprising administering (i) the autologous immature dendritic cell and (ii) the immune cell checkpoint inhibitor to said subject subsequent to the at least partial ablation of said tumour in said subject by cryoablation, hydrothermal ablation, ionising radiation ablation, radioablation, ultrasound ablation, laser ablation, microwave ablation or electroablation, wherein the administration of said autologous immature dendritic cells and said immune cell checkpoint inhibitor is local to the site of the ablated tumour or part thereof, wherein said immune cell checkpoint inhibitor is an affinity macromolecule reagent which binds to at least one immune checkpoint ligand and/or receptor thereof and the binding of said reagent to its target binding site on said immune checkpoint ligand and/or receptor thereof interferes with the interaction between the receptor and the ligand and wherein said immune checkpoint ligand and/or receptor thereof is selected from (a) CTLA4 and CD80 or CD86, (b) PD1 and PDL1 or PDL2, (c) BTLA and HVEM, (d) KIR and MHC class I or II, (e) LAG3 and MHC class I or II, (f) TIM3 and galectin 9, (g) A2aR and adenosine, (h) B7-H3, (i) B7-H4, and (j) 2B4. (i) the autologous immature dendritic cell and (ii) the immune cell checkpoint inhibitor (a) CTLA4 and CD80 or CD86, (b) PD1 and PDL1 or PDL2, (c) BTLA and HVEM, (d) KIR and MHC class I or II, (e) LAG3 and MHC class I or II, (f) TIM3 and galectin 9, (g) A2aR and adenosine, (h) B7-H3, (i) B7-H4, and (j) 2B4.
A connection end piece for a flexible line, the flexible line including a tubular sheath and at least one armor layer arranged around the tubular sheath , the end piece including: - an end part of the tubular sheath defining a longitudinal axis (A-A') of the end piece ; - an end arch ; - a cover , attached to the end arch , the cover having an inner surface arranged across from the end part of the tubular sheath , the inner surface of the cover , the end arch and the end part of the tubular sheath delimiting at least one receiving chamber ; - end segments of armor elements , placed in the receiving chamber ; - a solidified filler material , embedding the end segments of the armor elements in the receiving chamber ; - an insert arranged in the receiving chamber in contact with the inner surface of the cover , characterized in that the insert delimits an inner surface converging from front to back toward the longitudinal axis (A-A'), a rear edge of the converging inner surface being located near an end segment of an armor element , a front edge of the converging inner surface being in contact with the inner surface of the cover , in continuity with the inner surface of the cover , the converging inner surface being located separated from each armor element on at least part of the length of the armor element between the rear edge and the front edge of the converging inner surface , the solidified filler material being in contact with the converging inner surface between the rear edge and the front edge of the converging inner surface . - an end part of the tubular sheath defining a longitudinal axis (A-A') of the end piece ; - an end arch ; - a cover , attached to the end arch , the cover having an inner surface arranged across from the end part of the tubular sheath , the inner surface of the cover , the end arch and the end part of the tubular sheath delimiting at least one receiving chamber ; - end segments of armor elements , placed in the receiving chamber ; - a solidified filler material , embedding the end segments of the armor elements in the receiving chamber ; - an insert arranged in the receiving chamber in contact with the inner surface of the cover ,
A method for monitoring a wall , the method comprising: receiving from an image sensor first image data representing two-dimensional locations of multiple points of the wall associated with a first point in time; receiving from the image sensor second image data representing the two-dimensional locations of the multiple points of the wall associated with a second point in time, the second point in time being later than the first point in time; receiving depth data from a depth sensor indicative of a change in depth of the wall between the first point in time and the second point in time, and the depth data is further indicative of an acceleration of the wall towards the depth sensor ; and applying an adaptive filter to the first and second image data and the adaptive filter is parameterised based on the acceleration of the wall towards the depth sensor, to determine data indicative of a change of the two-dimensional locations of the multiple points of the wall between the first point in time and the second point in time perpendicular to a line of sight from the image sensor , wherein determining the data indicative of the change of the two-dimensional locations is based on: the acceleration of the wall; and a positive correlation between the acceleration of the wall towards the depth sensor and an acceleration of the two-dimensional locations of the multiple points of the wall. receiving from an image sensor first image data representing two-dimensional locations of multiple points of the wall associated with a first point in time; receiving from the image sensor second image data representing the two-dimensional locations of the multiple points of the wall associated with a second point in time, the second point in time being later than the first point in time; receiving depth data from a depth sensor indicative of a change in depth of the wall between the first point in time and the second point in time, and the depth data is further indicative of an acceleration of the wall towards the depth sensor ; and applying an adaptive filter to the first and second image data and the adaptive filter is parameterised based on the acceleration of the wall towards the depth sensor, to determine data indicative of a change of the two-dimensional locations of the multiple points of the wall between the first point in time and the second point in time perpendicular to a line of sight from the image sensor , wherein determining the data indicative of the change of the two-dimensional locations is based on: the acceleration of the wall; and a positive correlation between the acceleration of the wall towards the depth sensor and an acceleration of the two-dimensional locations of the multiple points of the wall. the acceleration of the wall; and a positive correlation between the acceleration of the wall towards the depth sensor and an acceleration of the two-dimensional locations of the multiple points of the wall.
A method for a user equipment, in the following also referred to as UE, the method comprising: determining whether to request a first set or a second set of system information from a network node; initiating a random access procedure for system information request; and transmitting, to the network node, a random access preamble, for the system information request, on a first radio resource or a second radio resource based on whether to request the first set or the second set, characterized by receiving an indication in a random access response, wherein the indication indicates which set of system information is to be provided; considering the random access procedure completed successfully in response to receiving the indication; and receiving the requested set of system information after receiving the indication. determining whether to request a first set or a second set of system information from a network node; initiating a random access procedure for system information request; and transmitting, to the network node, a random access preamble, for the system information request, on a first radio resource or a second radio resource based on whether to request the first set or the second set, characterized by receiving an indication in a random access response, wherein the indication indicates which set of system information is to be provided; considering the random access procedure completed successfully in response to receiving the indication; and receiving the requested set of system information after receiving the indication.
A compound of formula I in which R 1 represents ethyl, isopropyl, isobutyl, cyclobutyl; R 2 represents R 3 represents hydrogen, fluoro, C 1 -C 3 -alkyl optionally substituted with one or more fluorine atoms; R 4 represents hydrogen or fluoro; R 5 represents which groups are optionally substituted with one or more fluorine atoms and/or one or more C 1 -C 3 -alkyl fluorinated with one or more fluorine atoms. R 1 represents ethyl, isopropyl, isobutyl, cyclobutyl; R 2 represents R 3 represents hydrogen, fluoro, C 1 -C 3 -alkyl optionally substituted with one or more fluorine atoms; R 4 represents hydrogen or fluoro; R 5 represents
Modular transport structure for transporting and storing articles and groups of articles, comprising: - a support plate and - rollers arranged on the underside of the support plate , - a plurality of passages and/or threaded bores being arranged in distribution over the support plate and - the passages and/or threaded bores being able to be arranged in a predetermined grid, characterised in that - a respective opening is provided at each of the front and rear ends of the support plate, the openings being centrally arranged at the narrow sides of the support plate and being formed as approximately square or as square passage openings, - a drawbar and a handle are provided and - the drawbar and the handle are selectably engaged in the openings . - a support plate and - rollers arranged on the underside of the support plate , - a plurality of passages and/or threaded bores being arranged in distribution over the support plate and - the passages and/or threaded bores being able to be arranged in a predetermined grid, characterised in that - a respective opening is provided at each of the front and rear ends of the support plate, the openings being centrally arranged at the narrow sides of the support plate and being formed as approximately square or as square passage openings, - a drawbar and a handle are provided and - the drawbar and the handle are selectably engaged in the openings .
A method for shading and texturing computer graphic images in a tile based rendering system using dynamically rendered textures comprising the steps of: deriving screen space geometry for a texture to be dynamically rendered; passing the screen space geometry for the texture to a tiling unit, to generate texture parameters for each of a plurality of texture tiles; deriving screen space geometry for a scene that references the texture to be dynamically rendered; passing the screen space geometry for the scene to the tiling unit, to generate an object list for each of a plurality of scene tiles; and rendering a scene tile from the tiling unit using the object list, the rendering comprising: issuing a texture request for the texture to be dynamically rendered to a texture sampling unit; calculating, for the texture request, an X and Y address for texture fetch; determining which texture tile of the plurality of texture tiles the texture fetch is within; reading a corresponding valid flag for the texture tile from a table in memory to determine whether the texture tile has been rendered; and switching to dynamically rendering texture data for the texture tile if the valid flag indicates that the texture tile has not been rendered. deriving screen space geometry for a texture to be dynamically rendered; passing the screen space geometry for the texture to a tiling unit, to generate texture parameters for each of a plurality of texture tiles; deriving screen space geometry for a scene that references the texture to be dynamically rendered; passing the screen space geometry for the scene to the tiling unit, to generate an object list for each of a plurality of scene tiles; and rendering a scene tile from the tiling unit using the object list, the rendering comprising: issuing a texture request for the texture to be dynamically rendered to a texture sampling unit; calculating, for the texture request, an X and Y address for texture fetch; determining which texture tile of the plurality of texture tiles the texture fetch is within; reading a corresponding valid flag for the texture tile from a table in memory to determine whether the texture tile has been rendered; and switching to dynamically rendering texture data for the texture tile if the valid flag indicates that the texture tile has not been rendered. issuing a texture request for the texture to be dynamically rendered to a texture sampling unit; calculating, for the texture request, an X and Y address for texture fetch; determining which texture tile of the plurality of texture tiles the texture fetch is within; reading a corresponding valid flag for the texture tile from a table in memory to determine whether the texture tile has been rendered; and switching to dynamically rendering texture data for the texture tile if the valid flag indicates that the texture tile has not been rendered.
A method of controlling transmission in a communication network, the method comprising: a communication device (10, 100-1, 100-2) detecting that one or more carriers are free; after expiry of a backoff time period starting when detecting that the one or more carriers are free, the communication device (10, 100-1, 100-2) performing a transmission on the one or more carriers, the transmission being synchronized to start in a same subframe with a further transmission on the one or more carriers by at least one other communication device (10, 100-1, 100-2); and the communication device (10, 100-1, 100-2) receiving control information for synchronizing the transmission with the further transmission. a communication device (10, 100-1, 100-2) detecting that one or more carriers are free; after expiry of a backoff time period starting when detecting that the one or more carriers are free, the communication device (10, 100-1, 100-2) performing a transmission on the one or more carriers, the transmission being synchronized to start in a same subframe with a further transmission on the one or more carriers by at least one other communication device (10, 100-1, 100-2); and the communication device (10, 100-1, 100-2) receiving control information for synchronizing the transmission with the further transmission.