mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a terminal in a wireless communication system, the method comprising: transmitting a random access preamble to a base station; receiving a random access response, RAR, medium access control, MAC, protocol data unit, PDU including a plurality of MAC subPDUs from the base station, wherein one or more MAC subPDUs among the plurality of MAC subPDUs include a MAC RAR and a MAC subheader corresponding to the MAC RAR; identifying that a first MAC subPDU among the plurality of MAC subPDUs includes a random access preamble identifier, RAPID, that corresponds to the transmitted random access preamble, in a first MAC subheader; identifying whether the RAPID in the first MAC subheader corresponds to one of RAPIDs for system information, SI, request or not; and identifying a presence of a MAC RAR in the first MAC subPDU based on whether the RAPID in the first MAC subheader corresponds to one of the RAPIDs for SI request or not, wherein the MAC RAR is not included in the first MAC subPDU and the first MAC subheader is included in the first MAC subPDU, in case that the RAPID in the first MAC subheader corresponds to one of the RAPIDs for SI request, and wherein the first MAC subheader and the MAC RAR is included in the first MAC subPDU, in case that the RAPID in the first MAC subheader does not correspond to one of the RAPIDs for SI request. transmitting a random access preamble to a base station; receiving a random access response, RAR, medium access control, MAC, protocol data unit, PDU including a plurality of MAC subPDUs from the base station, wherein one or more MAC subPDUs among the plurality of MAC subPDUs include a MAC RAR and a MAC subheader corresponding to the MAC RAR; identifying that a first MAC subPDU among the plurality of MAC subPDUs includes a random access preamble identifier, RAPID, that corresponds to the transmitted random access preamble, in a first MAC subheader; identifying whether the RAPID in the first MAC subheader corresponds to one of RAPIDs for system information, SI, request or not; and identifying a presence of a MAC RAR in the first MAC subPDU based on whether the RAPID in the first MAC subheader corresponds to one of the RAPIDs for SI request or not, wherein the MAC RAR is not included in the first MAC subPDU and the first MAC subheader is included in the first MAC subPDU, in case that the RAPID in the first MAC subheader corresponds to one of the RAPIDs for SI request, and wherein the first MAC subheader and the MAC RAR is included in the first MAC subPDU, in case that the RAPID in the first MAC subheader does not correspond to one of the RAPIDs for SI request.
Computer-implemented method for detecting the contour of a vehicle based on measurement data of a surroundings sensors system, wherein the measurement data include a set of spatial points of an object captured by the surroundings sensor system, wherein the method includes the following: • generating an envelope around the object in the form of a polygonal chain on the basis of the set of spatial points; • reducing the set of spatial points by deleting all spatial points that are located inside the envelope, removing spatial points from the polygonal chain that are irrelevant for detecting the contour of a vehicle, and determining spatial points of the polygonal chain that are relevant for detecting the contour of a vehicle; • classifying one or more edges of the polygonal chain as belonging to a front and side of a vehicle on the basis of the reduced set of spatial points; wherein • removing spatial points from the polygonal chain that are irrelevant for detecting the contour of a vehicle includes the following: deleting spatial points on the envelope whose straight connecting lines to adjacent spatial points of the polygonal chain enclose an angle that is smaller than or equal to a specified angle of in particular 2°, and connecting the spatial points in the polygonal chain that are connected to the deleted spatial point. • generating an envelope around the object in the form of a polygonal chain on the basis of the set of spatial points; • reducing the set of spatial points by deleting all spatial points that are located inside the envelope, removing spatial points from the polygonal chain that are irrelevant for detecting the contour of a vehicle, and determining spatial points of the polygonal chain that are relevant for detecting the contour of a vehicle; • classifying one or more edges of the polygonal chain as belonging to a front and side of a vehicle on the basis of the reduced set of spatial points; wherein • removing spatial points from the polygonal chain that are irrelevant for detecting the contour of a vehicle includes the following: deleting spatial points on the envelope whose straight connecting lines to adjacent spatial points of the polygonal chain enclose an angle that is smaller than or equal to a specified angle of in particular 2°, and connecting the spatial points in the polygonal chain that are connected to the deleted spatial point.
A method for decoding encoded audio information, wherein the method comprises: receiving, at a decoder, an input signal conveying encoded audio information representing one or more audio channels; providing a master channel selection map which defines all possible channels that the decoder can process and decode; wherein the decoder is not capable of decoding all channels in the master channel selection map at the same time; determining a channel configuration map for the one or more audio channels that are represented by the encoded information; wherein the channel configuration map defines a relationship between each audio channel in the input signal and a channel in the master channel selection map; wherein an entry in the master channel selection map specifies the speaker position that is associated with the corresponding channel in the input signal; providing a plurality of channel selection maps which define combinations of channels in the master channel selection map that the decoder is capable of processing and decoding at the same time; choosing the channel selection map from the plurality of channel selection maps that provides a best match to the channel configuration map; constructing a channel selection mask such that it specifies each channel in the channel configuration map that has a corresponding loudspeaker position in the chosen channel selection map; extracting encoded audio information from the input signal; and decoding the extracted encoded audio information for those audio channels specified in the channel selection mask. receiving, at a decoder, an input signal conveying encoded audio information representing one or more audio channels; providing a master channel selection map which defines all possible channels that the decoder can process and decode; wherein the decoder is not capable of decoding all channels in the master channel selection map at the same time; determining a channel configuration map for the one or more audio channels that are represented by the encoded information; wherein the channel configuration map defines a relationship between each audio channel in the input signal and a channel in the master channel selection map; wherein an entry in the master channel selection map specifies the speaker position that is associated with the corresponding channel in the input signal; providing a plurality of channel selection maps which define combinations of channels in the master channel selection map that the decoder is capable of processing and decoding at the same time; choosing the channel selection map from the plurality of channel selection maps that provides a best match to the channel configuration map; constructing a channel selection mask such that it specifies each channel in the channel configuration map that has a corresponding loudspeaker position in the chosen channel selection map; extracting encoded audio information from the input signal; and decoding the extracted encoded audio information for those audio channels specified in the channel selection mask.
A vessel including a deck (P) which is equipped with at least one mast that is capable of being un-stepped, provided, at its rear, with a boom as well as with a sail, characterized by the fact that said boom is permanently attached to the lower end of the said mast , which mast is secured to a base installed in said deck (P), in that this mast and this base are provided with mutual articulation means (A) and in that said boom extends below said mutual articulation means (A), so that said mast is designed to be moved from a substantially vertical position perpendicular to said deck (P) wherein its lower end is completely engaged in said base , to a position, after positioning of said sail in the lower position, furled and secured to the boom , which is at least partly tilted, wherein said lower portion of said mast is at least partially out of said base , the tilting direction of the portion of the mast which extends above said articulation means (A) being oriented opposite to said boom .
A cold firework excitation device for a cold firework ejection apparatus, wherein the cold firework excitation device comprises: a heating mechanism for gradually heating metal powder during conveyance of the metal powder, an ignition mechanism for exciting and igniting the heated metal powder by means of airflow, and an ejection mechanism for ejecting the ignited metal powder by the airflow from the ignition mechanism ; wherein an output end of the heating mechanism is communicated with the ignition mechanism , wherein an output end of the ignition mechanism is communicated with the ejection mechanism ; wherein the airflow from the ignition mechanism is output toward the ejection mechanism ; wherein the ejection mechanism is provided with an ejection port ; wherein the heating mechanism comprises: a conveying passage for conveying the metal powder ; a material-urging screw provided in the conveying passage so as to continuously urge the metal powder entering from a feeding inlet along an inner wall surface of the conveying passage toward the ignition mechanism ; and a heating ring that is closely fitted over an outer wall surface of the conveying passage and configured to gradually heat the metal powder ; wherein by controlling a gap between the material-urging screw and the conveying passage and controlling the rotational speed of the material-urging screw , the uniformity and continuity of the metal powder urged by the material-urging screw can be controlled, thereby controlling the stability and continuity of the flame and thus solving the problem of unstability and discontinuity of the flame when being ejected by the cold firework ejection apparatus.
A flexibly partitioned drawer, comprising a drawer body with an accommodating cavity , further comprising at least one partitioning member moving in the accommodating cavity along a left-and-right direction for dividing the accommodating cavity , wherein leading and trailing ends of the partitioning member protrude towards front and rear walls of the drawer body respectively to form protruding portions , and sliding grooves fitted with the protruding portions on corresponding sides for the partitioning member to move left and right are formed on the front and rear walls of the drawer body respectively, and penetrate through the front and rear walls of the drawer body to communicate the accommodating cavity to an exterior of the drawer body ; two sliding bars are fixed outside the front and rear walls of the drawer body respectively and are guiding the partitioning member to move, a slider connected with the protruding portion fixedly is slidably arranged on each sliding bar , wherein the slider comprises a sliding portion for the sliding bar to pass through and a fixing portion provided on a lower side of the sliding portion and connected with the protruding portion fixedly, wherein a strip-shaped rod in a direction consistent with a length direction of the sliding bar is provided on the protruding portion outside the drawer body , and a slot where the strip-shaped rod is inserted fixedly is formed on the fixing portion , wherein the protruding portion further has a connecting rod passing through the sliding groove on the drawer body to connect the partitioning member with the strip-shaped rod , characterized in that a buckle for buckling the connecting rod after the strip-shaped rod is inserted into the slot is provided at an end of the slider where the strip-shaped rod is inserted. , wherein the protruding portion further has a connecting rod passing through the sliding groove on the drawer body to connect the partitioning member with the strip-shaped rod , characterized in that a buckle for buckling the connecting rod after the strip-shaped rod is inserted into the slot is provided at an end of the slider where the strip-shaped rod is inserted.
An intelligent cleaning system, comprising: a charging station; an intelligent cleaning apparatus, provided with a water tank , a wet cleaning pad and configured to be chargeable by the charging station; and a moisture-proof mat ; characterized in that the moisture-proof mat is detachably connected to the charging station and comprises: an installation unit, configured to install the moisture-proof mat to the charging station, wherein at least a part of the moisture-proof mat is configured to be located under the wet cleaning pad , when the intelligent cleaning apparatus is charged by the charging station, wherein the moisture-proof mat is used for preventing liquid in the water tank from being leaked to damage a_surface for placing the intelligent cleaning apparatus. a charging station; an intelligent cleaning apparatus, provided with a water tank , a wet cleaning pad and configured to be chargeable by the charging station; and a moisture-proof mat ; characterized in that the moisture-proof mat is detachably connected to the charging station and comprises: an installation unit, configured to install the moisture-proof mat to the charging station, wherein at least a part of the moisture-proof mat is configured to be located under the wet cleaning pad , when the intelligent cleaning apparatus is charged by the charging station, wherein the moisture-proof mat is used for preventing liquid in the water tank from being leaked to damage a_surface for placing the intelligent cleaning apparatus.
A method of fabricating a thin film transistor (TFT), comprising: forming a gate electrode on the substrate ; forming a gate insulating layer on the gate electrode ; forming an amorphous silicon (a-Si) layer on the gate insulating layer ; crystallizing the a-Si layer into a polycrystalline silicon (poly-Si) layer using a metal catalyst; patterning the poly-Si layer to form a semiconductor layer ; forming a source/drain electrode material layer on the semiconductor layer ; and annealing the substrate to getter the metal catalyst in a channel region of the semiconductor layer , into a surface region of the semiconductor layer , which faces the source/drain electrode material layer , characterized in that the annealing of the substrate comprises diffusing a second metal, which is different from the metal catalyst, of the source/drain electrode material layer into the surface region of the semiconductor layer . forming a gate electrode on the substrate ; forming a gate insulating layer on the gate electrode ; forming an amorphous silicon (a-Si) layer on the gate insulating layer ; crystallizing the a-Si layer into a polycrystalline silicon (poly-Si) layer using a metal catalyst; patterning the poly-Si layer to form a semiconductor layer ; forming a source/drain electrode material layer on the semiconductor layer ; and annealing the substrate to getter the metal catalyst in a channel region of the semiconductor layer , into a surface region of the semiconductor layer , which faces the source/drain electrode material layer , characterized in that the annealing of the substrate comprises diffusing a second metal, which is different from the metal catalyst, of the source/drain electrode material layer into the surface region of the semiconductor layer .
Plug device for mounting on a battery housing of a battery of an electrically driven motor vehicle , - with a connection main body with at least two integrally formed plug contours , which are each configured for receiving a plug counter-contour of a respectively assigned plug element , - with a number of conductor rails , which are received in the connection main body and each have at least two connection contacts , of which in each case one connection contact is configured for the housing-internal electrical connection to a battery connection and the respective other terminal contact is seated in one of the plug contours for plug contacting on the outside of the housing with the assigned plug element of a high-voltage consumer , of a high-voltage secondary consumer or of a charging device for the battery , and - with a sealing element for liquid- and gas-tight sealing of the connection main body to the battery housing . - with a connection main body with at least two integrally formed plug contours , which are each configured for receiving a plug counter-contour of a respectively assigned plug element , - with a number of conductor rails , which are received in the connection main body and each have at least two connection contacts , of which in each case one connection contact is configured for the housing-internal electrical connection to a battery connection and the respective other terminal contact is seated in one of the plug contours for plug contacting on the outside of the housing with the assigned plug element of a high-voltage consumer , of a high-voltage secondary consumer or of a charging device for the battery , and - with a sealing element for liquid- and gas-tight sealing of the connection main body to the battery housing .
A bacterium of the species Corynebacterium glutamicum having the ability to excrete L-lysine containing in its chromosome a polynucleotide encoding a polypeptide having the activity of a malate:quinone oxidoreductase and comprising the amino acid sequence of SEQ ID NO:2, wherein the amino acid valine at position 228 is substituted by a different proteinogenic amino acid.
Device for determining a rotation angle and/or a torque of a rotating part, comprising at least one angle detection means designed as an inductive sensor for detecting an angle position of the rotating part relative to a reference position and at least one means of indexing for indexing at a predetermined rotation, preferentially a 360° rotation of the rotating part relative to the reference position , where the angle detection means features a rotor connected in a torque-proof manner to the rotating part, with a base body (2.1) for fastening to the rotating part and several blades (2.2) extending radially outwards from the base body (2.1), and where at least one of the blades (2.2) of the rotor features a marking that can be detected by the means of indexing, characterized in that the means of indexing is designed as a capacitive sensor and a single blade (2.2) of the rotor features a marking that can be detected by the means of indexing, where a single blade (2.2) features an aperture delimited by a surrounding border as being the marking that can be detected by the means of indexing or all blades (2.2) apart from one single blade (2.2) feature an aperture delimited by a surrounding border as being the marking that can be detected by the means of indexing.
A method for wireless indoor data transmission, wherein a first wireless data transmission channel and a second wireless data transmission channel is used between a transmitter and a receiver of a data transmission device, wherein the first wireless data transmission channel is a high-speed data transmission channel with a transmission frequency in the terahertz frequency range of 0,1 to 10 terahertz, which has a substantially higher data transmission rate than the second wireless data transmission channel , wherein the second wireless data transmission channel has a transmission frequency below the terahertz frequency range, comprising the following steps a) data packets to be transmitted by the transmitter are divided into generations of data packets , one generation comprising K data packets , b) the K data packets of a generation are provided with redundancy via coding by recoding them into N data packets , where N > K and N and K are each natural numbers, c) the N recoded data packets of the generation are transmitted from the transmitter to the receiver by transmitting them in packets distributed over the first and second wireless data transmission channels , d) from the data packets correctly received in the receiver via the first and second wireless data transmission channels , the original K data packets of the generation are decoded if at least K recoded data packets of the total of N recoded data packets have been received error-free in the receiver , wherein the second wireless data transmission channel is additionally used for internal control and monitoring functions between the transmitter and the receiver , wherein for this purpose control and/or monitoring data are transmitted via the second wireless data transmission channel . a) data packets to be transmitted by the transmitter are divided into generations of data packets , one generation comprising K data packets , b) the K data packets of a generation are provided with redundancy via coding by recoding them into N data packets , where N > K and N and K are each natural numbers, c) the N recoded data packets of the generation are transmitted from the transmitter to the receiver by transmitting them in packets distributed over the first and second wireless data transmission channels , d) from the data packets correctly received in the receiver via the first and second wireless data transmission channels , the original K data packets of the generation are decoded if at least K recoded data packets of the total of N recoded data packets have been received error-free in the receiver ,
Solid material having a composition according to general formula (I) Li 6+2*n-x-m*y M y PS 5+n-x X 1+x (I) wherein M is one or more selected from the group consisting of divalent metals Mg, Ca, Sr, Ba and Zn, and trivalent metals Sc, La, Al and Ga; X is one or more selected from the group consisting of F, Cl, Br and I; 0 ≤ x ≤ 0.8 ; 0.01 ≤ y ≤ 0.25 ; 0 ≤ n ≤ 0.05 ; m is 2 when M is a divalent metal and m is 3 when M is a trivalent metal wherein the solid material comprises a crystalline phase having the argyrodite structure. M is one or more selected from the group consisting of divalent metals Mg, Ca, Sr, Ba and Zn, and trivalent metals Sc, La, Al and Ga; X is one or more selected from the group consisting of F, Cl, Br and I; 0 ≤ x ≤ 0.8 ; 0.01 ≤ y ≤ 0.25 ; 0 ≤ n ≤ 0.05 ; m is 2 when M is a divalent metal and m is 3 when M is a trivalent metal wherein the solid material comprises a crystalline phase having the argyrodite structure.