mhurhangee/ep-ind-claims huggingface dataset:
A music piece analyzer comprising: a temporary beat position acquiring unit configured to detect temporary beat positions in music piece data or acquire the temporary beat positions detected by an external device; a snare drum detector configured to detect sounding positions of a snare drum in the music piece data or acquire the sounding positions of the snare drum detected by an external device; and a position determination unit configured to determine whether the detected sounding positions of the snare drum coincide with the temporary beat positions of the music piece data; and a beat position setting unit; where the beat position setting unit is configured to set beat positions of the music piece data with reference to the sounding positions of the snare drum when the sounding positions of the snare drum is determined not to coincide with the temporary beat positions of the music piece data by the position determination unit, and characterized in that: the beat position setting unit is further configured to set the temporary beat positions as beat positions of the music piece data for the temporary beat positions when the sounding position of the snare drum is determined not to be at a half-time beat with reference to the corresponding temporary beat position. a temporary beat position acquiring unit configured to detect temporary beat positions in music piece data or acquire the temporary beat positions detected by an external device; a snare drum detector configured to detect sounding positions of a snare drum in the music piece data or acquire the sounding positions of the snare drum detected by an external device; and a position determination unit configured to determine whether the detected sounding positions of the snare drum coincide with the temporary beat positions of the music piece data; and a beat position setting unit; where the beat position setting unit is configured to set beat positions of the music piece data with reference to the sounding positions of the snare drum when the sounding positions of the snare drum is determined not to coincide with the temporary beat positions of the music piece data by the position determination unit, and characterized in that: the beat position setting unit is further configured to set the temporary beat positions as beat positions of the music piece data for the temporary beat positions when the sounding position of the snare drum is determined not to be at a half-time beat with reference to the corresponding temporary beat position.
A method for treating plastic substrates structured by means of a laser for the generation of seed structures on the surface that are suitable for subsequent metallization, characterized in that to remove unintentional metal seed deposits that arise during the laser structuring after laser structuring the substrates are brought into contact with a process solution comprising a mixture of wetting agents and substances that support the cleaning, wherein acidic, neutral or alkaline substances are used as substances that support the cleaning characterized in that phosphoric acid, sulfuric acid, hydrochloric acid, methanesulfonic acid, citric acid, succinic acid, adipic acid, amidosulfuric acid, malonic acid, methanoic acid, ethanoic acid, propanoic acid, n-butanoic acid, n-pentanoic acid, n-hexanoic acid, oxalic acid, sodium hydrogen sulfate, potassium hydrogen sulfate, borofluoric acid or a mixture of these is used as acidic substance; as neutral substances potassium sulfate, sodium sulfate; and as alkaline substances sodium hydroxide, sodium carbonate, pentasodium triphosphate, tetrasodium diphosphate, sodium gluconate, sodium metasilicate, sodium hydrogen carbonate, trisodium citrate, tetrasodium pyrophosphate, sodium tripolyphosphate and the corresponding potassium salts or a mixture of these, and wherein the acidic, neutral or alkaline substanzes are present in a concentration of between 0.1 mol/L and 2 mol/L.
A compound of Formula I: or a pharmaceutically acceptable salt thereof, wherein: R 1 represents independently for each occurrence C 1-4 alkyl, C 1-4 haloalkyl, C 1-4 alkoxyl, cyclopropyl, cyano, chloro, or fluoro; R 2 represents hydrogen, C 1-4 alkyl, C 1-4 haloalkyl, C 1-4 alkoxyl, -(C 1-4 alkylene)-(2-6 membered heteroalkyl), cyclopropyl, cyano, chloro, fluoro, or -N (R 3); R 3 represents independently for each occurrence hydrogen or C 1-4 alkyl; X 1 is a carbonyl-containing linker selected from -C N -ψ and -C N (C 1-6 alkylene)-ψ; where ψ is a bond to A 1; A 1 is C 3-10 cycloalkyl that is substituted by 1 or 2 occurrences of Y 1 and 0, 1, 2, or 3 occurrences of Y 2; Y 1 represents, independently for each occurrence, -O-(C 1-7 alkyl); Y 2 represents, independently for each occurrence, C 1-6 alkyl, C 3-6 cycloalkyl, halogen, C 1-6 haloalkyl, C 1-6 hydroxyalkyl, hydroxyl, C 1-6 alkoxyl, C 2-4 alkynyl, cyano, azido, - N(R 3) 2, -(C 1-6 alkylene)-(5-6 membered heterocyclyl), -(C 1-6 alkylene)-CO 2 R 3, or C 1-6 haloalkyl-substituted C 3-6 cycloalkyl; and n is 1, 2, or 3. R 1 represents independently for each occurrence C 1-4 alkyl, C 1-4 haloalkyl, C 1-4 alkoxyl, cyclopropyl, cyano, chloro, or fluoro; R 2 represents hydrogen, C 1-4 alkyl, C 1-4 haloalkyl, C 1-4 alkoxyl, -(C 1-4 alkylene)-(2-6 membered heteroalkyl), cyclopropyl, cyano, chloro, fluoro, or -N (R 3); R 3 represents independently for each occurrence hydrogen or C 1-4 alkyl; X 1 is a carbonyl-containing linker selected from -C N -ψ and -C N (C 1-6 alkylene)-ψ; where ψ is a bond to A 1; A 1 is C 3-10 cycloalkyl that is substituted by 1 or 2 occurrences of Y 1 and 0, 1, 2, or 3 occurrences of Y 2; Y 1 represents, independently for each occurrence, -O-(C 1-7 alkyl); Y 2 represents, independently for each occurrence, C 1-6 alkyl, C 3-6 cycloalkyl, halogen, C 1-6 haloalkyl, C 1-6 hydroxyalkyl, hydroxyl, C 1-6 alkoxyl, C 2-4 alkynyl, cyano, azido, - N(R 3) 2, -(C 1-6 alkylene)-(5-6 membered heterocyclyl), -(C 1-6 alkylene)-CO 2 R 3, or C 1-6 haloalkyl-substituted C 3-6 cycloalkyl; and n is 1, 2, or 3.
A method for updating system information in a station, STA, of a wireless local area network communication system, comprising: transmitting, by the STA, a probe request frame, including a configuration change count field, to a preferred access point, AP; and receiving, by the STA, a probe response frame from the preferred AP, wherein if a value of the configuration change count field included in the probe request frame is different from a current count value of the preferred AP, the probe response frame includes one or more elements of system information needed to be updated to the STA, wherein a count value of the preferred AP is increased only when a non-dynamic element of the system information is updated, and wherein the value of the configuration change count field is a count value of the preferred AP received from the preferred AP before the non-dynamic element of the system information is updated. transmitting, by the STA, a probe request frame, including a configuration change count field, to a preferred access point, AP; and receiving, by the STA, a probe response frame from the preferred AP, wherein if a value of the configuration change count field included in the probe request frame is different from a current count value of the preferred AP, the probe response frame includes one or more elements of system information needed to be updated to the STA, wherein a count value of the preferred AP is increased only when a non-dynamic element of the system information is updated, and wherein the value of the configuration change count field is a count value of the preferred AP received from the preferred AP before the non-dynamic element of the system information is updated.
A fiber drop cable assembly (100, 200, 700), comprising: an optical fiber; an adhesive layer that surrounds the optical fiber, the adhesive layer suitable for adhering the optical fiber to a wall or other permanent or semi-permanent structure; a removable jacket positioned around the adhesive layer and optical fiber, characterized in a liner layer positioned over the adhesive layer and within the jacket, wherein the liner layer remains intact after the removal of the jacket and wherein the liner layer may be subsequently separated from the adhesive layer to prepare the adhesive layer for adherence to a surface. an optical fiber; an adhesive layer that surrounds the optical fiber, the adhesive layer suitable for adhering the optical fiber to a wall or other permanent or semi-permanent structure; a removable jacket positioned around the adhesive layer and optical fiber, characterized in a liner layer positioned over the adhesive layer and within the jacket, wherein the liner layer remains intact after the removal of the jacket and wherein the liner layer may be subsequently separated from the adhesive layer to prepare the adhesive layer for adherence to a surface.
A method of carrying out an authorisation of an internet transaction by an authorising device, said transaction being capable of being carried out on a first terminal, the authorisation process being capable of being initiated on a second terminal which is a mobile terminal, said first terminal and said second terminal being capable of coupling to the authorising device via a communications network, and said authorisation by the authorising device comprising the steps of: - receiving transaction data originating from the second terminal by the authorising device; - determining, by the authorising device, of an identifier which identifies said second terminal; wherein said method is characterised by the steps of: - determining a transaction authorisation capable of being attributed to the identifier of the second terminal, said transaction authorisation depending on the transaction data; - releasing the carrying out of the internet transaction depending on said transaction authorisation; and - providing data indicative of said release of the carrying out of the internet transaction for output on the first terminal or on the second terminal, said data enabling the carrying out of the internet transaction. - receiving transaction data originating from the second terminal by the authorising device; - determining, by the authorising device, of an identifier which identifies said second terminal; wherein said method is characterised by the steps of: - determining a transaction authorisation capable of being attributed to the identifier of the second terminal, said transaction authorisation depending on the transaction data; - releasing the carrying out of the internet transaction depending on said transaction authorisation; and - providing data indicative of said release of the carrying out of the internet transaction for output on the first terminal or on the second terminal, said data enabling the carrying out of the internet transaction.
A method for determining, in a communication system, a Quality of Experience associated with a real-time communication session between user devices of the communication system, the method comprising: starting ( 205, 210) the real-time communication session; monitoring the real-time communication session and determining, during the real-time communication session, at least one quality indicator indicative of the Quality of Experience, and at least one first performance indicator indicative of a Quality of Service and at least one second performance indicator indicative of the Quality of Service; based on the at least one quality indicator and the at least one first performance indicator, determining ( 220, 225) a correlation function indicative of the correlation between the Quality of Experience and the Quality of Service in respect of the monitored real-time communication session; determining a parameter of the Quality of Service depending on both the at least one first performance indicator and the at least one second performance indicator, and applying said parameter to the correlation function to determine said Quality of Experience, wherein the at least one quality indicator comprises the Mean Opinion Score. starting ( 205, 210) the real-time communication session; monitoring the real-time communication session and determining, during the real-time communication session, at least one quality indicator indicative of the Quality of Experience, and at least one first performance indicator indicative of a Quality of Service and at least one second performance indicator indicative of the Quality of Service; based on the at least one quality indicator and the at least one first performance indicator, determining ( 220, 225) a correlation function indicative of the correlation between the Quality of Experience and the Quality of Service in respect of the monitored real-time communication session; determining a parameter of the Quality of Service depending on both the at least one first performance indicator and the at least one second performance indicator, and applying said parameter to the correlation function to determine said Quality of Experience,
Mobile floor-cleaning machine comprising a chassis, a rear-wheel apparatus arranged on the chassis, a steerable front-wheel apparatus and a steering-rod apparatus, which is operatively coupled to the front-wheel apparatus for torque communication therewith, the front-wheel apparatus being held on a support secured on the chassis, and a torque transmission apparatus for transmitting torque from the steering-rod apparatus to the front-wheel apparatus being arranged on the support, the steering-rod apparatus being operatively coupled to the torque transmission apparatus for torque communication therewith, characterised in that the support is an element that is separate from the chassis and connected to the chassis.
A clapper-type electromagnetic release for a miniature circuit breaker, comprising an armature, a magnet yoke, a coil, an iron core, a shaft and an armature torsion spring, wherein the iron core is mounted on the magnet yoke, the coil is sleeved on the iron core, the armature is mounted on the shaft and is rotatable around the shaft, the armature torsion spring is mounted on the shaft, the armature torsion spring presses against the armature, so as to make the armature reset, characterised in that, an inner side surface of the armature extends out of mounting plates (101, 101'), shaft installation holes (101a, 101a') are respectively provided in the mounting plates (101, 101'), two ends of the shaft are respectively mounted in the shaft installation holes (101a, 101a'), the armature torsion spring is mounted on the shaft and located between the mounting plates (101, 101'), and the armature torsion spring has one end lapped on a housing of the circuit breaker, and the other end lapped on a lower surface of the armature. the iron core is mounted on the magnet yoke, the coil is sleeved on the iron core, the armature is mounted on the shaft and is rotatable around the shaft, the armature torsion spring is mounted on the shaft, the armature torsion spring presses against the armature, so as to make the armature reset, characterised in that, an inner side surface of the armature extends out of mounting plates (101, 101'), shaft installation holes (101a, 101a') are respectively provided in the mounting plates (101, 101'), two ends of the shaft are respectively mounted in the shaft installation holes (101a, 101a'), the armature torsion spring is mounted on the shaft and located between the mounting plates (101, 101'), and the armature torsion spring has one end lapped on a housing of the circuit breaker, and the other end lapped on a lower surface of the armature.
A cushion support plate for a motor-vehicle seat depth adjuster with a cushion plate, wherein the cushion plate has a first face for receiving a seat cushion and a second face with functional elements, and the second face is located on the other side from the first face of the cushion plate, wherein a first closure line which faces a vehicle backrest is formed substantially straight and a second closure line which faces away from the vehicle backrest is formed arcuate, and the first closure line and the second closure line are connected together by two crosspieces (6, 7), wherein the cushion plate has a stabilising rib structure substantially consisting of hexagons or partial hexagons, wherein two hook-in arms (11, 12) protrude substantially at right-angles from the second face, wherein the two hook-in arms (11, 12) consist of a first portion and a second portion, wherein the first portion is connected at one end to the second face and at the other end forms the second portion, wherein the second portion of the hook-in arms (11, 12) have one receptacle in each case for pins of an actuating handle, wherein the second portion is arranged offset parallel to the first portion, wherein an offset piece is present between the first portion and the second portion characterised in that the receptacles have in each case one gatekeeper clamp and a rotation space, wherein the two hook-in arms (11, 12) are arranged protruding parallel from the second face, wherein the receptacles of the two hook-in arms (11, 12) and the inlets, gatekeeper clamp and rotation spaces provided in the receptacle are designed to be open relative to each other.
An optical transmitter, comprising: means for performing a process to select a pulse amplitude modulation value from a set of candidate PAM values based on currently transmitted training data bits, transmitted PAM values corresponding to previously transmitted training data bits, and training data bits transmitted subsequently, the selected PAM value corresponding to the currently transmitted training data bits; means for transmitting the selected PAM value to an optical receiver; means for receiving, from the optical receiver, an indication as to whether the optical receiver correctly detects the currently transmitted training data bits; and means for updating the process at least in part based on the indication. means for performing a process to select a pulse amplitude modulation value from a set of candidate PAM values based on currently transmitted training data bits, transmitted PAM values corresponding to previously transmitted training data bits, and training data bits transmitted subsequently, the selected PAM value corresponding to the currently transmitted training data bits; means for transmitting the selected PAM value to an optical receiver; means for receiving, from the optical receiver, an indication as to whether the optical receiver correctly detects the currently transmitted training data bits; and means for updating the process at least in part based on the indication.
A system, comprising: a circuit to, based on an orientation of a receptacle side of a universal serial bus, USB, type-C connector when connected to an electronic device, identify spare pins used for a data signal instead of a USB differential pair signal on the receptacle side of the USB type-C connector; a controller to create the data signal from a number of signals received by the controller, the data signal to be routed from the receptacle side of the USB type-C connector to a plug side of the USB type-C connector; and a multiplexor, MUX, to, when the plug side of the USB type-C connector is connected to a peripheral device, route the data signal to the spare pins of the receptacle side of the USB type-C connector to allow the data signal to be exchanged between the electronic device and the peripheral device via the spare pins of the receptacle side of the USB type-C connector and bottom pins on the plug side of the USB type-C connector, wherein the spare pins on the receptacle side of the USB type-C connector are pin A6 and pin A7, or pin B6 and pin B7, depending on the orientation of the receptacle side of the USB type-C connector when connected to the electronic device. a circuit to, based on an orientation of a receptacle side of a universal serial bus, USB, type-C connector when connected to an electronic device, identify spare pins used for a data signal instead of a USB differential pair signal on the receptacle side of the USB type-C connector; a controller to create the data signal from a number of signals received by the controller, the data signal to be routed from the receptacle side of the USB type-C connector to a plug side of the USB type-C connector; and a multiplexor, MUX, to, when the plug side of the USB type-C connector is connected to a peripheral device, route the data signal to the spare pins of the receptacle side of the USB type-C connector to allow the data signal to be exchanged between the electronic device and the peripheral device via the spare pins of the receptacle side of the USB type-C connector and bottom pins on the plug side of the USB type-C connector, wherein the spare pins on the receptacle side of the USB type-C connector are pin A6 and pin A7, or pin B6 and pin B7, depending on the orientation of the receptacle side of the USB type-C connector when connected to the electronic device.
An electrochemical storage cell, comprising a core, a protective shell, an anode sheet, a cathode sheet, and a separator sheet, wherein: a) the protective shell is prismatic-shaped, has two large faces, two small faces and two ends, and comprises a first electrical terminal on a first one of the two ends and a second electrical terminal on the second one of the two ends; b) the core fits snugly within the shell and comprises an anode current collector at a first end of the flattened coil structure and a cathode current collector at a second, opposite end of the flattened coil structure; c) the anode sheet is electrically connected to the first electrical terminal; d) the cathode sheet is electrically connected to the second electrical terminal; e) the separator sheet is disposed between the anode sheet and cathode sheet; and f) the anode sheet, the cathode sheet, and separator sheet are wound to form a flattened coil structure having opposed flattened sides and opposed arcuate sides, and wherein the anode sheet and the cathode sheet terminate at different arcuate sides. a) the protective shell is prismatic-shaped, has two large faces, two small faces and two ends, and comprises a first electrical terminal on a first one of the two ends and a second electrical terminal on the second one of the two ends; b) the core fits snugly within the shell and comprises an anode current collector at a first end of the flattened coil structure and a cathode current collector at a second, opposite end of the flattened coil structure; c) the anode sheet is electrically connected to the first electrical terminal; d) the cathode sheet is electrically connected to the second electrical terminal; e) the separator sheet is disposed between the anode sheet and cathode sheet; and f) the anode sheet, the cathode sheet, and separator sheet are wound to form a flattened coil structure having opposed flattened sides and opposed arcuate sides, and wherein the anode sheet and the cathode sheet terminate at different arcuate sides.