mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing an annularly closed endless tube from an open tube made of plastic, wherein in a step i) opposite end regions of the open tube are pulled over at least one connecting element and the open tube is closed to form a ring by means of the connecting element , wherein the tube being closed to a ring is coated in step ii) with a melt made of plastic at least in a region of the connecting element , wherein in a step iii) the connecting element is removed through an opening of the endless tube in the region of the connecting element not coated with melt or through an opening introduced into the endless tube , wherein a valve is inserted into the opening .
A reinforcement member comprising a heatcurable structural adhesive on a carrier member, wherein the carrier member comprises a fiber-reinforced polyester material comprising a blend comprising a first aromatic polyester and a second aromatic polyester; wherein the content of the fibers is within the range of 65±10 wt.-%, relative to the total weight of the fiber-reinforced polyester material; and wherein the heatcurable structural adhesive is applied to one or more outer surfaces of the carrier member. wherein the carrier member comprises a fiber-reinforced polyester material comprising a blend comprising a first aromatic polyester and a second aromatic polyester; wherein the content of the fibers is within the range of 65±10 wt.-%, relative to the total weight of the fiber-reinforced polyester material; and wherein the heatcurable structural adhesive is applied to one or more outer surfaces of the carrier member.
A system for treating the body insertion point of an external fixation device, comprising: a clip comprising a groove comprising a hole to permit pass-through of an external fixation rod; and a bioelectric device comprising one or more biocompatible electrodes configured to generate at least one of a low level electric field (LLEF) or low level micro current (LLMC). a clip comprising a groove comprising a hole to permit pass-through of an external fixation rod; and a bioelectric device comprising one or more biocompatible electrodes configured to generate at least one of a low level electric field (LLEF) or low level micro current (LLMC).
A data modulation method, wherein the method comprises: dividing , by a terminal device, to-be-sent data into N bit groups, wherein N≥2 and N is an integer; generating , by the terminal device, N complex symbol groups, wherein an i th complex symbol group is obtained by processing an i th bit group by using a mapping rule corresponding to the i th bit group, the mapping rule corresponding to the i th bit group is determined based on a group identity of the i th bit group and a first parameter, the first parameter comprises at least one of a pilot parameter, a hopping identity, a terminal device identity, a layer index of a non-orthogonal layer, and a hopping offset, the mapping rule corresponding to at least one bit group of the N bit groups being different from the mapping rule corresponding to at least one other bit group of the N bit groups, 0≤i≤N-1, and i is an integer; and sending , by the terminal device, the N complex symbol groups; wherein the mapping rule corresponding to the i th bit group is determined based on the group identity of the i th bit group, the first parameter, and a second parameter, and the second parameter comprises at least one of a cell identity, a time domain resource sequence number, and a periodicity P. dividing , by a terminal device, to-be-sent data into N bit groups, wherein N≥2 and N is an integer; generating , by the terminal device, N complex symbol groups, wherein an i th complex symbol group is obtained by processing an i th bit group by using a mapping rule corresponding to the i th bit group, the mapping rule corresponding to the i th bit group is determined based on a group identity of the i th bit group and a first parameter, the first parameter comprises at least one of a pilot parameter, a hopping identity, a terminal device identity, a layer index of a non-orthogonal layer, and a hopping offset, the mapping rule corresponding to at least one bit group of the N bit groups being different from the mapping rule corresponding to at least one other bit group of the N bit groups, 0≤i≤N-1, and i is an integer; and sending , by the terminal device, the N complex symbol groups; wherein the mapping rule corresponding to the i th bit group is determined based on the group identity of the i th bit group, the first parameter, and a second parameter, and the second parameter comprises at least one of a cell identity, a time domain resource sequence number, and a periodicity P.
A nucleic acid construct comprising the following structure: A-X-B in which A is nucleic acid sequence encoding a first polypeptide which comprises a first signal peptide having a tripartite structure containing a hydrophobic core region (h-region) flanked by an n-region and a c-region; B is nucleic acid sequence encoding a second polypeptide which comprises a second signal peptide having a tripartite structure containing a hydrophobic core region (h-region) flanked by an n-region and a c-region, and X is a nucleic acid sequence which encodes a cleavage site, wherein the first signal peptide and the second signal peptide are derivable from the same sequence, but one signal peptide comprises one or more amino acid deletions/substitutions in the h-region to remove/replace one or more hydrophobic amino acids compared to the other signal peptide, wherein the first signal peptide and the second signal peptide have the same n- and c-regions, and wherein the difference between the first and the second signal peptides is such that, when the nucleic acid construct is expressed in a cell, there is differential relative expression of the first and second polypeptides at the cell surface. A is nucleic acid sequence encoding a first polypeptide which comprises a first signal peptide having a tripartite structure containing a hydrophobic core region (h-region) flanked by an n-region and a c-region; B is nucleic acid sequence encoding a second polypeptide which comprises a second signal peptide having a tripartite structure containing a hydrophobic core region (h-region) flanked by an n-region and a c-region, and X is a nucleic acid sequence which encodes a cleavage site, wherein the first signal peptide and the second signal peptide are derivable from the same sequence, but one signal peptide comprises one or more amino acid deletions/substitutions in the h-region to remove/replace one or more hydrophobic amino acids compared to the other signal peptide, wherein the first signal peptide and the second signal peptide have the same n- and c-regions, and wherein the difference between the first and the second signal peptides is such that, when the nucleic acid construct is expressed in a cell, there is differential relative expression of the first and second polypeptides at the cell surface.
A pleated, self-supporting oil filter comprising a pleated fibrous media comprising a fibrous web formed from - synthetic fibers; - optionally at least one additive; and - a thermoset binder present at a concentration of at least 15 wt-% by weight of the fibrous web and/or at least one binder fiber; wherein the synthetic fibers comprise up to 30 wt.-%, preferably up to 20 wt.-%, glass fibers, based on the total weight of the fibers; wherein the synthetic fibers are bonded with the thermoset binder and/or the at least one binder fiber to form the fibrous web; and the fibrous media is capable of forming said self-supporting, pleated oil filter which is capable of retaining pleats upon contact with oil having a temperature in the range encountered in a combustion engine; and wherein the filter comprises the fibrous media without a support backing material. - synthetic fibers; - optionally at least one additive; and - a thermoset binder present at a concentration of at least 15 wt-% by weight of the fibrous web and/or at least one binder fiber; wherein the synthetic fibers comprise up to 30 wt.-%, preferably up to 20 wt.-%, glass fibers, based on the total weight of the fibers; wherein the synthetic fibers are bonded with the thermoset binder and/or the at least one binder fiber to form the fibrous web; and the fibrous media is capable of forming said self-supporting, pleated oil filter which is capable of retaining pleats upon contact with oil having a temperature in the range encountered in a combustion engine; and wherein the filter comprises the fibrous media without a support backing material. wherein the synthetic fibers comprise up to 30 wt.-%, preferably up to 20 wt.-%, glass fibers, based on the total weight of the fibers; wherein the synthetic fibers are bonded with the thermoset binder and/or the at least one binder fiber to form the fibrous web; and the fibrous media is capable of forming said self-supporting, pleated oil filter which is capable of retaining pleats upon contact with oil having a temperature in the range encountered in a combustion engine; and wherein the filter comprises the fibrous media without a support backing material.
A patient interface comprising a mask and headgear for securing the mask to a user's face, the headgear comprising an elastic portion configured to provide a retraction force, a non-elastic portion configured to be inelastic in comparison to the elastic portion, and a restriction mechanism connected to the non-elastic portion and to the elastic portion, the restriction mechanism configured to require a first resistance force to permit elongation of the headgear and having a second resistance force in response to retraction of the headgear, wherein the restriction mechanism comprises a directional lock arrangement comprising a lock member having a lock position and a release position, wherein the non-elastic portion comprises a core member , and the core member passes through the directional lock arrangement, wherein the elastic portion comprises an elastic strap of tubular construction including an interior passage that accommodates the core member such that the core member can move within the elastic portion, the elastic strap comprising a braid of multiple individual strands or yarns that are relatively inelastic, and a biasing arrangement that biases the strap to a compressed position, the biasing arrangement comprising one or more elastic fibers within the braid, and wherein the retraction force tends to move the core member through the directional lock arrangement such that in use the lock member transitions from the lock position to the release position and the restriction mechanism has the second resistance force, and wherein the core member is connected to the elastic strap. an elastic portion configured to provide a retraction force, a non-elastic portion configured to be inelastic in comparison to the elastic portion, and a restriction mechanism connected to the non-elastic portion and to the elastic portion, the restriction mechanism configured to require a first resistance force to permit elongation of the headgear and having a second resistance force in response to retraction of the headgear, wherein the restriction mechanism comprises a directional lock arrangement comprising a lock member having a lock position and a release position, wherein the non-elastic portion comprises a core member , and the core member passes through the directional lock arrangement, wherein the elastic portion comprises an elastic strap of tubular construction including an interior passage that accommodates the core member such that the core member can move within the elastic portion, the elastic strap comprising a braid of multiple individual strands or yarns that are relatively inelastic, and a biasing arrangement that biases the strap to a compressed position, the biasing arrangement comprising one or more elastic fibers within the braid, and wherein the retraction force tends to move the core member through the directional lock arrangement such that in use the lock member transitions from the lock position to the release position and the restriction mechanism has the second resistance force, and wherein the core member is connected to the elastic strap.
A peptide selected from the group of a) a peptide consisting of the sequence according to SEQ ID No. 86, b) the peptide according to a), wherein said peptide includes non-peptide bonds, and c) the peptide according to a), wherein said peptide is part of a fusion protein, in particular comprising N-terminal amino acids of the HLA-DR antigen-associated invariant chain (Ii), for use in medicine. a) a peptide consisting of the sequence according to SEQ ID No. 86, b) the peptide according to a), wherein said peptide includes non-peptide bonds, and c) the peptide according to a), wherein said peptide is part of a fusion protein, in particular comprising N-terminal amino acids of the HLA-DR antigen-associated invariant chain (Ii), for use in medicine.
A wireless communication method, comprising: S101: establishing a first communication link between a source device and a first device; and the method further comprises the following steps S102: obtaining link information of the first communication link by a second device, and switching the second device into a shadow device of the first device so as the second device is able to monitor communication data in the first communication link between the first device and the source device to obtain interaction data that the first device needs to transmit to the second device; and S103: interacting the second device with the first device through the first communication link by obtaining the interaction data that the first device needs to transmit to the second device through the first communication link, wherein the step of obtaining link information of the first communication link by a second device comprises: entering the second device into a specific discovery mode, and accessing the first communication link through a specific access code of the specific discovery mode, wherein the specific access code is an identification number or an identification code pre-agreed between the second device and the first device, and is used for realizing agreed interaction between the second device and the first device; the specific discovery mode is a search and scanning access method using the specific access code; the link information of the first communication link is the communication link information parameter set(s) of the first communication link established by the source device and the first device. S101: establishing a first communication link between a source device and a first device; and the method further comprises the following steps S102: obtaining link information of the first communication link by a second device, and switching the second device into a shadow device of the first device so as the second device is able to monitor communication data in the first communication link between the first device and the source device to obtain interaction data that the first device needs to transmit to the second device; and S103: interacting the second device with the first device through the first communication link by obtaining the interaction data that the first device needs to transmit to the second device through the first communication link, wherein the step of obtaining link information of the first communication link by a second device comprises: entering the second device into a specific discovery mode, and accessing the first communication link through a specific access code of the specific discovery mode, wherein the specific access code is an identification number or an identification code pre-agreed between the second device and the first device, and is used for realizing agreed interaction between the second device and the first device; the specific discovery mode is a search and scanning access method using the specific access code; the link information of the first communication link is the communication link information parameter set(s) of the first communication link established by the source device and the first device.
An arc welding control method comprising a pulse welding period (Tp) for feeding a welding wire toward a base material at a constant feeding speed, and generating an arc between the base material and the welding wire by alternately supplying a peak current and a base current to the welding wire , the method being characterised by the pulse welding period (Tp) consisting of : a basic unit period (Tpb) being repeated once or a plurality of times, the basic unit period (Tpb) including: a first peak period (Tp1) for supplying a first peak current (Ip1) to the welding wire ; a first base period (Tb1) for supplying a base current smaller than the first peak current (Ip1) to the welding wire after the first peak period (Tp1); one second peak period (Tp2) for supplying a second peak current (Ip2) to the welding wire after alternately repeating the first peak period (Tp1) and the first base period (Tb1) (n - 1) times (n is an integer equal to or larger than 2); and one second base period (Tb2) for supplying the base current to the welding wire after the second peak period (Tp2), the second peak current (Ip2) being larger than the first peak current (Ip1), so that droplets are not transferred from the welding wire toward the base material during the first peak current period (Tp1) and the first base current period (Tbl), but are transferred from the welding wire toward the base material once only during the second peak period (Tp2) or the second base period (Tb2) for each cycle of the basic unit period (Tpb) as the pulse welding period. a first peak period (Tp1) for supplying a first peak current (Ip1) to the welding wire ; a first base period (Tb1) for supplying a base current smaller than the first peak current (Ip1) to the welding wire after the first peak period (Tp1); one second peak period (Tp2) for supplying a second peak current (Ip2) to the welding wire after alternately repeating the first peak period (Tp1) and the first base period (Tb1) (n - 1) times (n is an integer equal to or larger than 2); and one second base period (Tb2) for supplying the base current to the welding wire after the second peak period (Tp2), the second peak current (Ip2) being larger than the first peak current (Ip1), so that droplets are not transferred from the welding wire toward the base material during the first peak current period (Tp1) and the first base current period (Tbl), but are transferred from the welding wire toward the base material once only during the second peak period (Tp2) or the second base period (Tb2) for each cycle of the basic unit period (Tpb) as the pulse welding period.
A method for determining a parameter of an entropic code, for use in encoding or decoding a coding unit of an image according to a palette using a block of indexes, said palette comprising a set of indexes associated with pixel values, encoding or decoding of said block of indexes including predictively encoding or decoding indexes in groups of successive indexes in a scan order in the block using one of a plurality of prediction modes, each said group being encoded or decoded using a first syntax element giving the prediction mode and a second syntax element giving the repetition as a number of successive indexes in the group following a first index, and for each of said plurality of prediction modes said entropic code is used for the encoding or decoding of said second syntax element of each group; characterised in that for each group the parameter of said entropic code is determined in dependence on the prediction mode.
A signal transmission method of a transmitter in a wireless communication system, the method comprising: precoding data symbol pairs; determining resource elements, REs, to be used for transmitting the precoded data symbol pairs in available REs in an orthogonal frequency division multiplexing, OFDM, symbol of a resource block, the available REs being available for the data symbol pairs; mapping the precoded data symbol pairs to the REs based on the determination; and transmitting the precoded data symbol pairs being mapped to the REs, wherein at least one available RE in the OFDM symbol is not used for transmitting the precoded data symbol pairs, in a case that the number of the available REs in the OFDM symbol is odd or the difference between subcarrier indices of two available REs in the OFDM symbol is three or more. precoding data symbol pairs; determining resource elements, REs, to be used for transmitting the precoded data symbol pairs in available REs in an orthogonal frequency division multiplexing, OFDM, symbol of a resource block, the available REs being available for the data symbol pairs; mapping the precoded data symbol pairs to the REs based on the determination; and transmitting the precoded data symbol pairs being mapped to the REs, wherein at least one available RE in the OFDM symbol is not used for transmitting the precoded data symbol pairs, in a case that the number of the available REs in the OFDM symbol is odd or the difference between subcarrier indices of two available REs in the OFDM symbol is three or more.
A computer-implemented method for system level function based access control for smart contract execution on a blockchain, the method comprising, in a kernel execution framework for smart contract execution on a blockchain, where the kernel execution framework is configured to perform function boundary detection: detecting a function call by one or more methods of a smart contract on the blockchain, comprising detecting entrance or exit of the function call by function boundary detection instrumentation of the kernel; adding the function call to a function call stack for the smart contract; checking the function call stack against a set of function based access control rules that defines one or more permitted or prohibited sequences of function calls; and if the function call stack includes one or more function calls that are not permitted under the set of function based access control rules, then blocking execution or completion of the function call. detecting a function call by one or more methods of a smart contract on the blockchain, comprising detecting entrance or exit of the function call by function boundary detection instrumentation of the kernel; adding the function call to a function call stack for the smart contract; checking the function call stack against a set of function based access control rules that defines one or more permitted or prohibited sequences of function calls; and if the function call stack includes one or more function calls that are not permitted under the set of function based access control rules, then blocking execution or completion of the function call.