mhurhangee/patent-ind-claim-en huggingface dataset:
Method for configuring a device to be assigned a name, in particular in an industrial network, preferably in an industrial automation system, in which a) the device to be assigned a name receives a neighbour name message from a neighbouring device , which message comprises at least a device name of the neighbouring device and a name of the port of the neighbouring device via which the neighbour name message is or was sent to the device to be assigned a name, b) on the basis of the neighbour name message a self-naming module of the device to be assigned a name creates a topological neighbouring domain name, which comprises at least the received neighbouring device name and the received neighbouring port name and/or the name of the port of the device to be assigned a name, via which port the device to be assigned a name received the neighbour name message , and a specified additional name part known to the self-naming module , c) the self-naming module transmits the topological neighbouring domain name to a domain name system server , DNS server, in the context of a DNS query , d) the self-naming module receives from the name service server , in the context of a further DNS query, a response message which comprises at least one device name of the device to be assigned a name belonging to the topological neighbouring domain name, and e) at least one device name from the response message is assigned to the device to be assigned a name, wherein this device name is stored by the self-naming module on the device to be assigned a name as the device name. a) the device to be assigned a name receives a neighbour name message from a neighbouring device , which message comprises at least a device name of the neighbouring device and a name of the port of the neighbouring device via which the neighbour name message is or was sent to the device to be assigned a name, b) on the basis of the neighbour name message a self-naming module of the device to be assigned a name creates a topological neighbouring domain name, which comprises at least the received neighbouring device name and the received neighbouring port name and/or the name of the port of the device to be assigned a name, via which port the device to be assigned a name received the neighbour name message , and a specified additional name part known to the self-naming module , c) the self-naming module transmits the topological neighbouring domain name to a domain name system server , DNS server, in the context of a DNS query , d) the self-naming module receives from the name service server , in the context of a further DNS query, a response message which comprises at least one device name of the device to be assigned a name belonging to the topological neighbouring domain name, and e) at least one device name from the response message is assigned to the device to be assigned a name, wherein this device name is stored by the self-naming module on the device to be assigned a name as the device name.
A method for implementing an invocation of a local service component by a browser, the method comprising: a client terminal receiving (S101) a connection request initiated by a browser terminal , requesting establishment of a communication connection based on a cross-domain communication protocol; the client terminal performing validity verification (S102) of the connection request; and the client terminal establishing (S103) a communication connection with the browser terminal based on the cross-domain communication protocol to allow the browser terminal to invoke a local service component, being a service component local to the client terminal , if the connection request passes the validity verification, the method being characterised in that J Z the client terminal selects a port of the client terminal , from a port list, for binding with the browser terminal , according to a set port binding priority order upon receiving the connection request initiated by the browser terminal requesting establishment of a communication connection based on the cross-domain communication protocol, the port binding priority order being consistent with a port selection priority order of the browser terminal . a client terminal receiving (S101) a connection request initiated by a browser terminal , requesting establishment of a communication connection based on a cross-domain communication protocol; the client terminal performing validity verification (S102) of the connection request; and the client terminal establishing (S103) a communication connection with the browser terminal based on the cross-domain communication protocol to allow the browser terminal to invoke a local service component, being a service component local to the client terminal , if the connection request passes the validity verification, the method being characterised in that J Z the client terminal selects a port of the client terminal , from a port list, for binding with the browser terminal , according to a set port binding priority order upon receiving the connection request initiated by the browser terminal requesting establishment of a communication connection based on the cross-domain communication protocol, the port binding priority order being consistent with a port selection priority order of the browser terminal .
A method for producing an optical film, characterized by comprising: subjecting a polymer film, on a surface of which an optical layer is formed, to a heat-treatment; and further comprising: treating the polymer film with steam, of which a temperature is from 50°C to 150°C, for from 10 seconds to 1 hour before the heat-treatment and forming the optical layer on the surface of the polymer film after the steam treat ment. treating the polymer film with steam, of which a temperature is from 50°C to 150°C, for from 10 seconds to 1 hour before the heat-treatment and forming the optical layer on the surface of the polymer film after the steam treat ment.
An expandable medical balloon comprising: an inner layer formed of a polymer material having a Shore D hardness of 25 D to 75 D; and an outer layer formed of a polymer material having a Shore D hardness of greater than 75D; wherein the outer layer is harder than the inner layer; and wherein the expandable medical balloon has a burst strength of greater than 310.3 MPa (45,000 psi). an inner layer formed of a polymer material having a Shore D hardness of 25 D to 75 D; and an outer layer formed of a polymer material having a Shore D hardness of greater than 75D; wherein the outer layer is harder than the inner layer; and wherein the expandable medical balloon has a burst strength of greater than 310.3 MPa (45,000 psi).
A hybrid metallocene-supported catalyst, comprising: a carrier; at least one first metallocene compound supported in the carrier, among compounds represented by Chemical Formula 1; at least one second metallocene compound supported in the carrier, among compounds represented by Chemical Formula 2; and a co-catalyst compound supported in the carrier: in Chemical Formula 1, in *-MX 2 -*, M is any one of titanium (Ti), zirconium (Zr), and hafnium (Hf), X is one of halogen, an alkyl group of C1-10 , and an alkenyl group of C 2-10 , and R 1 -*, R 2 -*, R 3 -*, R 4 -*, R 5 -*, R 6 -*, R 7 -*, R 8 -*, R 9 -*, R 10 -* are each independently one of H-*, an alkyl group of C 2-10 , a cycloalkyl group of C 3-6 , and an aryl group of C 6-14 , in Chemical Formula 2, in *-MX 2 -*, M is any one of titanium (Ti), and zirconium (Z r ), X is any one of halogen, an alkyl group of C1-10 , and an alkenyl group of C 2-10 , Q is any one of carbon (C), silicon (Si), germanium (Ge), and tin (Sn), R 1 -*, R 2 -*, R 3 -*, R 4 -*, R 5 -*, R 6 -*, R 7 -*, R 8 -*, R 9 -*, R 10 -*, R 11 -*, and R 12 -*are each independently one of *-H-, an alkyl group of C 2-10 , a cycloalkyl group of C 3-6 , and an aryl group of C 6-14 , and R 13 -* and R 14 -* are each independently an alkyl group of C 1-10 . a carrier; at least one first metallocene compound supported in the carrier, among compounds represented by Chemical Formula 1; at least one second metallocene compound supported in the carrier, among compounds represented by Chemical Formula 2; and a co-catalyst compound supported in the carrier: in Chemical Formula 1, in *-MX 2 -*, M is any one of titanium (Ti), zirconium (Zr), and hafnium (Hf), X is one of halogen, an alkyl group of C1-10 , and an alkenyl group of C 2-10 , and R 1 -*, R 2 -*, R 3 -*, R 4 -*, R 5 -*, R 6 -*, R 7 -*, R 8 -*, R 9 -*, R 10 -* are each independently one of H-*, an alkyl group of C 2-10 , a cycloalkyl group of C 3-6 , and an aryl group of C 6-14 , in Chemical Formula 2, in *-MX 2 -*, M is any one of titanium (Ti), and zirconium (Z r ), X is any one of halogen, an alkyl group of C1-10 , and an alkenyl group of C 2-10 , Q is any one of carbon (C), silicon (Si), germanium (Ge), and tin (Sn), R 1 -*, R 2 -*, R 3 -*, R 4 -*, R 5 -*, R 6 -*, R 7 -*, R 8 -*, R 9 -*, R 10 -*, R 11 -*, and R 12 -*are each independently one of *-H-, an alkyl group of C 2-10 , a cycloalkyl group of C 3-6 , and an aryl group of C 6-14 , and R 13 -* and R 14 -* are each independently an alkyl group of C 1-10 .
An assembly for a side view mirror for a vehicle, the assembly comprising: two arm members , the arm members being configured to receive a side view mirror thereat; a joining member for joining the arm members, characterised in that the joining member comprises two sleeves , each sleeve projecting from a respective arm member and comprising an interlocking profile at a distal end thereof; and a tightener configured for receipt through the sleeves when the sleeves are in an aligned configuration, wherein tightening the tightener draws the interlocking profiles of the aligned sleeves into engagement, whereby the arm members become rigidly joined, wherein hat each sleeve is integrally formed with the respective arm member. two arm members , the arm members being configured to receive a side view mirror thereat; a joining member for joining the arm members, characterised in that the joining member comprises two sleeves , each sleeve projecting from a respective arm member and comprising an interlocking profile at a distal end thereof; and a tightener configured for receipt through the sleeves when the sleeves are in an aligned configuration, wherein tightening the tightener draws the interlocking profiles of the aligned sleeves into engagement, whereby the arm members become rigidly joined, wherein hat each sleeve is integrally formed with the respective arm member.
An information processing apparatus that performs processing on an ultrasound image (U), which is generated by transmitting ultrasound beams (UB) from a transducer array toward the inside of a living body and receiving ultrasound echoes generated in the living body, the apparatus comprising: a blood vessel detection unit configured to detect a blood vessel region including a blood vessel (B, B1, B2) from the ultrasound image (U); a structure detection unit configured to detect a structure other than a blood vessel from the ultrasound image (U); characterized by an artery/vein determination unit configured to determine whether the blood vessel included in the blood vessel region (Ra) is an artery or a vein based on a relative positional relationship between the blood vessel region (Ra) and the structure. a blood vessel detection unit configured to detect a blood vessel region including a blood vessel (B, B1, B2) from the ultrasound image (U); a structure detection unit configured to detect a structure other than a blood vessel from the ultrasound image (U); characterized by an artery/vein determination unit configured to determine whether the blood vessel included in the blood vessel region (Ra) is an artery or a vein based on a relative positional relationship between the blood vessel region (Ra) and the structure.
A multi-core processor comprising: • a cache memory (L2 CACHE) shared by a group of several cores (CPUa, CPUb) configured to delegate atomic instructions to the cache memory; • in its instruction set, an atomic read-modify-write instruction (AFAU), taking as a parameter a memory address of a shared variable, wherein the atomic instruction has a global scope; • a cache memory controller (CTRL) configured for receiving and processing each global atomic instruction executed by a given core of the group by globally locking an address space containing the address of the shared variable, to prevent access to the shared variable by any other core during execution of the global atomic instruction; wherein the atomic instruction also has a local scope, the cache memory controller being configured for processing each local atomic instruction executed by a given core of the group by locally locking a cache line allocated to the address of the shared variable, while authorizing access to the shared variable to cores connected to another cache memory of same level shared by another group of several cores (CPUc, CPUd) during execution of the local atomic instruction; wherein the cache memory controller is configured for: using a cache coherence protocol for implementing the global atomic instructions, and for, during execution of a local atomic instruction, locally locking the cache line without invalidating nor locking an analogous cache line in the other cache memory of same-level, or locking a system memory area containing the shared variable during execution of a global atomic instruction, and for, during execution of a local atomic instruction, accessing the variable in the cache line without locking any area of the system memory. • a cache memory (L2 CACHE) shared by a group of several cores (CPUa, CPUb) configured to delegate atomic instructions to the cache memory; • in its instruction set, an atomic read-modify-write instruction (AFAU), taking as a parameter a memory address of a shared variable, wherein the atomic instruction has a global scope; • a cache memory controller (CTRL) configured for receiving and processing each global atomic instruction executed by a given core of the group by globally locking an address space containing the address of the shared variable, to prevent access to the shared variable by any other core during execution of the global atomic instruction; using a cache coherence protocol for implementing the global atomic instructions, and for, during execution of a local atomic instruction, locally locking the cache line without invalidating nor locking an analogous cache line in the other cache memory of same-level, or locking a system memory area containing the shared variable during execution of a global atomic instruction, and for, during execution of a local atomic instruction, accessing the variable in the cache line without locking any area of the system memory.
A method, the method comprising: detecting (502; 602; 702) a read request for first data in a memory; initiating (512; 612; 712) a first access to a first address in the memory for a first data cache line containing the first data; and initiating(514; 614; 714) a second access to a second address in the memory for a metadata cache line mapped to the first data cache line; identifying a first metadata chunk in the metadata cache line, wherein the first metadata chunk in the metadata cache line contains two or more metadata items for two or more memory protection checks to be performed based on the first data cache line; wherein the metadata cache line is mapped to data cache lines in a one-to-many mapping. detecting (502; 602; 702) a read request for first data in a memory; initiating (512; 612; 712) a first access to a first address in the memory for a first data cache line containing the first data; and initiating(514; 614; 714) a second access to a second address in the memory for a metadata cache line mapped to the first data cache line; identifying a first metadata chunk in the metadata cache line, wherein the first metadata chunk in the metadata cache line contains two or more metadata items for two or more memory protection checks to be performed based on the first data cache line; wherein the metadata cache line is mapped to data cache lines in a one-to-many mapping.
A method for downlink signal transmission, applied to a terminal device , comprising: determining a number of bits of a target information indication field in downlink control information, DCI, according to configuration of Control Resource Sets, CORESETs configured at the terminal device , the configuration comprising each of zero or more first parameter(s) which is(are) CORESET pool index(es) among the parameter(s) of the CORESET(s) configured at the terminal device, wherein the determining the number of bits of the target information indication field in DCI according to the configuration comprises determining the number of bits of the target information indication field according to a quantity of the first parameter(s), wherein the target information indication field comprises a downlink assignment index, DAI; detecting the DCI based on the number of bits of the target information indication field in the DCI; and sending or receiving signals scheduled by the DCI according to the DCI; and wherein the number of bits of the target information indication field when the quantity is a first value is different from the number of bits of the target information indication field when the quantity is a second value. determining a number of bits of a target information indication field in downlink control information, DCI, according to configuration of Control Resource Sets, CORESETs configured at the terminal device , the configuration comprising each of zero or more first parameter(s) which is(are) CORESET pool index(es) among the parameter(s) of the CORESET(s) configured at the terminal device, wherein the determining the number of bits of the target information indication field in DCI according to the configuration comprises determining the number of bits of the target information indication field according to a quantity of the first parameter(s), wherein the target information indication field comprises a downlink assignment index, DAI; detecting the DCI based on the number of bits of the target information indication field in the DCI; and sending or receiving signals scheduled by the DCI according to the DCI; and wherein the number of bits of the target information indication field when the quantity is a first value is different from the number of bits of the target information indication field when the quantity is a second value.
A method of making a urinary catheter, comprising: applying a first coating to a catheter shaft, the first coating comprising (i) a hydrogel, (ii) glycerin and/or water, and (iii) polyethylene glycol (PEG) to form a coated catheter; placing the coated catheter into a package comprising a gas impermeable foil material. applying a first coating to a catheter shaft, the first coating comprising (i) a hydrogel, (ii) glycerin and/or water, and (iii) polyethylene glycol (PEG) to form a coated catheter; placing the coated catheter into a package comprising a gas impermeable foil material.
A method by a user equipment , UE, the method comprising: receiving , from a cell, a radio access network, RAN, notification area, RNA, configuration when the UE is in a radio resource control inactive, RRC_INACTIVE, state; transitioning from the RRC_INACTIVE state to an RRC_IOLE state when the UE fails to find a suitable cell and camps on an acceptable cell; and discarding RRC_INACTIVE related information in response to the transitioning from the RRC_INACTIVE state to the RRC_IOLE state, wherein: the RRC_INACTIVE related information comprises full inactive radio network temporary identifier, I-RNTI, short I-RNTI, UE Inactive context, and the RNA configuration, and the RNA configuration comprises at least one of a list of tracking area identities, IDs, and a list of RAN area IDs. receiving , from a cell, a radio access network, RAN, notification area, RNA, configuration when the UE is in a radio resource control inactive, RRC_INACTIVE, state; transitioning from the RRC_INACTIVE state to an RRC_IOLE state when the UE fails to find a suitable cell and camps on an acceptable cell; and discarding RRC_INACTIVE related information in response to the transitioning from the RRC_INACTIVE state to the RRC_IOLE state, wherein: the RRC_INACTIVE related information comprises full inactive radio network temporary identifier, I-RNTI, short I-RNTI, UE Inactive context, and the RNA configuration, and the RNA configuration comprises at least one of a list of tracking area identities, IDs, and a list of RAN area IDs. the RRC_INACTIVE related information comprises full inactive radio network temporary identifier, I-RNTI, short I-RNTI, UE Inactive context, and the RNA configuration, and the RNA configuration comprises at least one of a list of tracking area identities, IDs, and a list of RAN area IDs.
Method in which a track-side obstacle identification arrangement and a vehicle-side obstacle identification arrangement are used in order to identify obstacles in a danger zone in front of a rail vehicle , - in which, on approaching a relevant item of the obstacles, at least one reaction of the rail vehicle is derived dependent upon an evaluation signal (sAS:[sI.O, sI.T]) of the track-side obstacle identification arrangement and an actual value (Sw.Ist, Aufl.Ist) of at least one variable characterising the effectiveness of the vehicle-side obstacle identification arrangement , - wherein, on the basis of the track-side evaluation signal (sAS:[sI.O, sI.T]), a track-side information item (sI.O) concerning the location of the obstacle is provided and - wherein, as a reaction, a control signal (StS) for adapting a driving behaviour of the rail vehicle dependent upon the track-side information item (sI.O) concerning the location of the obstacle . - in which, on approaching a relevant item of the obstacles, at least one reaction of the rail vehicle is derived dependent upon an evaluation signal (sAS:[sI.O, sI.T]) of the track-side obstacle identification arrangement and an actual value (Sw.Ist, Aufl.Ist) of at least one variable characterising the effectiveness of the vehicle-side obstacle identification arrangement , - wherein, on the basis of the track-side evaluation signal (sAS:[sI.O, sI.T]), a track-side information item (sI.O) concerning the location of the obstacle is provided and - wherein, as a reaction, a control signal (StS) for adapting a driving behaviour of the rail vehicle dependent upon the track-side information item (sI.O) concerning the location of the obstacle .
A dry powder composition for topical use in wound treatment, the composition comprising: - honey, wherein the honey is in a dry granular form; - at least one pharmaceutically acceptable bicarbonate (HCO 3 -1 ) salt, such as sodium bicarbonate (NaHCO 3 ), potassium bicarbonate (KHCO 3 ), ammonium bicarbonate ((NH 4 )HCO 3 ) or any combination thereof, in a dry granular form; and - at least one organic acid, such as gluconic acid, lactic acid, acetic acid, butyric acid, citric acid, malic acid, pyroglutamic acid, succinic acid, ascorbic acid, glycolic acid, mandelic acid, or any combination thereof, in dry granular form, wherein the at least one organic acid is additional to organic acids naturally occurring in honey. - honey, wherein the honey is in a dry granular form; - at least one pharmaceutically acceptable bicarbonate (HCO 3 -1 ) salt, such as sodium bicarbonate (NaHCO 3 ), potassium bicarbonate (KHCO 3 ), ammonium bicarbonate ((NH 4 )HCO 3 ) or any combination thereof, in a dry granular form; and - at least one organic acid, such as gluconic acid, lactic acid, acetic acid, butyric acid, citric acid, malic acid, pyroglutamic acid, succinic acid, ascorbic acid, glycolic acid, mandelic acid, or any combination thereof, in dry granular form, wherein the at least one organic acid is additional to organic acids naturally occurring in honey.