mhurhangee/patent-ind-claim-en huggingface dataset:
A method in a wireless device , comprising: obtaining information related to a signal transmission configuration for autonomous uplink transmission by the wireless device, the information comprising: a set of pre-allocated resources for use by the wireless device in performing autonomous uplink transmission on at least one secondary cell established between the wireless device and a network node ; and a periodicity associated with the set of pre-allocated resources; and performing autonomous uplink transmission according to the obtained information related to the signal transmission configuration, wherein the information related to the signal transmission configuration for autonomous uplink transmission by the wireless device further comprises information about one or more subframes that should be avoided by the wireless device when performing autonomous uplink transmission. obtaining information related to a signal transmission configuration for autonomous uplink transmission by the wireless device, the information comprising: a set of pre-allocated resources for use by the wireless device in performing autonomous uplink transmission on at least one secondary cell established between the wireless device and a network node ; and a periodicity associated with the set of pre-allocated resources; and a set of pre-allocated resources for use by the wireless device in performing autonomous uplink transmission on at least one secondary cell established between the wireless device and a network node ; and a periodicity associated with the set of pre-allocated resources; and performing autonomous uplink transmission according to the obtained information related to the signal transmission configuration, wherein the information related to the signal transmission configuration for autonomous uplink transmission by the wireless device further comprises information about one or more subframes that should be avoided by the wireless device when performing autonomous uplink transmission.
Surgical instrument, in particular a drilling device, milling device or screwing device, comprising a housing and a drive unit arranged therein, wherein a surgical tool for acting on a body tissue to be worked on, in particular bone, is fixable or fixed distally on the housing , which tool is drivable in rotation or oscillation by the drive unit , and wherein an advance of the instrument (10; 70) relative to the body tissue is achievable when the tool is driven, wherein the instrument (10; 70) comprises an advance-determining device with which the advance of the instrument (10; 70) relative to the body tissue is determinable during the operation of the instrument (10; 70), and which comprises a transmitting unit for transmitting at least one signal , a receiving unit for detecting the at least one signal , and an evaluation unit for determining the advance on the basis of the at least one signal , and wherein at least the transmitting unit or the receiving unit is arranged on the housing or in the housing , characterized in that the advance-determining device has at least one reflection element from which the at least one signal transmitted by the transmitting unit can be reflected at least partially in the direction of the receiving unit , and which can be arranged on the tool and/or on the body tissue .
A method of estimating a replenishment amount of a fluid to be dispensed onto a substrate holding a biological sample undergoing an assay, the method comprising: a. capturing an image of the fluid dispensed on the substrate holding the biological sample with an imaging system to produce a captured image, wherein the fluid is confined to a space between the substrate and a cover ; b. analyzing the captured image to identify fluid boundaries of the fluid dispensed on the substrate and confined to the space between the substrate and the cover ; c. calculating a fluid volume of the fluid dispensed on the substrate using a fluid width determined from the fluid boundaries; and, d. calculating the replenishment amount of the fluid based on the calculated fluid volume and a predetermined fluid volume. a. capturing an image of the fluid dispensed on the substrate holding the biological sample with an imaging system to produce a captured image, wherein the fluid is confined to a space between the substrate and a cover ; b. analyzing the captured image to identify fluid boundaries of the fluid dispensed on the substrate and confined to the space between the substrate and the cover ; c. calculating a fluid volume of the fluid dispensed on the substrate using a fluid width determined from the fluid boundaries; and, d. calculating the replenishment amount of the fluid based on the calculated fluid volume and a predetermined fluid volume.
A targeted device being controlled by a control command received through a mobile terminal and a wearable device, the targeted device comprising: a first receiving unit receiving content for a Miracast service from the mobile terminal; a second receiving unit receiving text data corresponding to a voice signal through a voice recognition service from the wearable device, wherein the text data is transmitted from the wearable device to the targeted device via the mobile terminal; a decoder decoding the content; a processing unit processing the text data; a controlling unit identifying whether text data received from the processed text data includes a control command, controlling an output of a voice interface in response to a reception of the received text data, configuring a result screen respective to the processed text data and controlling an output of the result screen, and performing control operations so as to execute functions corresponding to the outputted result screen; and an outputting unit outputting the decoded content, the voice interface and the result screen or a function execution screen. a first receiving unit receiving content for a Miracast service from the mobile terminal; a second receiving unit receiving text data corresponding to a voice signal through a voice recognition service from the wearable device, wherein the text data is transmitted from the wearable device to the targeted device via the mobile terminal; a decoder decoding the content; a processing unit processing the text data; a controlling unit identifying whether text data received from the processed text data includes a control command, controlling an output of a voice interface in response to a reception of the received text data, configuring a result screen respective to the processed text data and controlling an output of the result screen, and performing control operations so as to execute functions corresponding to the outputted result screen; and an outputting unit outputting the decoded content, the voice interface and the result screen or a function execution screen. a decoder decoding the content; a processing unit processing the text data; a controlling unit identifying whether text data received from the processed text data includes a control command, controlling an output of a voice interface in response to a reception of the received text data, configuring a result screen respective to the processed text data and controlling an output of the result screen, and performing control operations so as to execute functions corresponding to the outputted result screen; and an outputting unit outputting the decoded content, the voice interface and the result screen or a function execution screen.
A method for receiving , in a digital video broadcasting receiver (EUT), a time sliced elementary stream of a digital broadcast transmission that carries information for one or more service sessions and that is transmitted as bursts, wherein the digital broadcast transmission comprises digital video broadcasting, DVB, transmission, the method comprising: receiving a time slice identifier descriptor arranged to identify said time sliced elementary stream of the digital broadcast transmission, and identifying said time sliced elementary stream based on said time slice identifier descriptor, characterized in that the time slice identifier descriptor comprises information indicating the maximum number of bits per service session within any burst of the time sliced elementary stream, and in that the method comprises obtaining information on an applicable memory size for receiving said service session based on said information indicating the maximum number of bits per service session within any burst of the time sliced elementary stream. receiving a time slice identifier descriptor arranged to identify said time sliced elementary stream of the digital broadcast transmission, and identifying said time sliced elementary stream based on said time slice identifier descriptor, characterized in that the time slice identifier descriptor comprises information indicating the maximum number of bits per service session within any burst of the time sliced elementary stream, and in that the method comprises obtaining information on an applicable memory size for receiving said service session based on said information indicating the maximum number of bits per service session within any burst of the time sliced elementary stream.
A method for decreasing viscosity, increasing solubility and decreasing particle size of milk proteins, the method comprising: a) admixing milk protein with at least one transglutaminase by adding at least one transglutaminase to a product selected from the group consisting of skim milk and reconstituted skim milk and combinations thereof; and b) concentrating the milk protein in the presence of the transglutaminase in its active state, wherein the step of concentrating the protein is performed using a method selected from the group consisting of reverse osmosis, filtration, ultrafiltration, microfiltration, evaporation, and combinations thereof. a) admixing milk protein with at least one transglutaminase by adding at least one transglutaminase to a product selected from the group consisting of skim milk and reconstituted skim milk and combinations thereof; and b) concentrating the milk protein in the presence of the transglutaminase in its active state, wherein the step of concentrating the protein is performed using a method selected from the group consisting of reverse osmosis, filtration, ultrafiltration, microfiltration, evaporation, and combinations thereof.
A vehicle headlamp comprising a semiconductor-type light source and a lens , wherein: an emission center (O) of the semiconductor-type light source is arranged at a reference focal point (F) of the lens , or in the proximity of the reference focal point (F), at least a part of the lens is configured of an upper part and a lower part , which are in a vertically symmetrical relationship and form a pair with respect to the horizontal line passing through the reference optical axis (Z), characterized in that light distribution patterns (SPA, SPB) formed by the upper part and the lower part respectively have in corresponding peripheral parts thereof different color bands (R, B) due to spectral phenomena of the lens , and the lens is configured to control light distribution in such a manner that the light distribution patterns (SPA, SPB) formed by the upper part and the lower part are shifted relative to each other in the vertical direction, such that the different color bands (R, B) in the corresponding peripheral parts substantially overlap. an emission center (O) of the semiconductor-type light source is arranged at a reference focal point (F) of the lens , or in the proximity of the reference focal point (F), at least a part of the lens is configured of an upper part and a lower part , which are in a vertically symmetrical relationship and form a pair with respect to the horizontal line passing through the reference optical axis (Z), characterized in that light distribution patterns (SPA, SPB) formed by the upper part and the lower part respectively have in corresponding peripheral parts thereof different color bands (R, B) due to spectral phenomena of the lens , and the lens is configured to control light distribution in such a manner that the light distribution patterns (SPA, SPB) formed by the upper part and the lower part are shifted relative to each other in the vertical direction, such that the different color bands (R, B) in the corresponding peripheral parts substantially overlap.
A method for monitoring a production line, comprising: acquiring operating data on individual mechanical devices in a target production line; primarily classifying the operating data according to characteristics attributed to the operating data to obtain various types of status data; and processing, for each type of status data included in the various types of status data, the status data according to a processing rule matching the status data to obtain a monitoring result; wherein the method is characterized in that: - characteristics attributed to the operating data include upper-level storage addresses of the operating data, wherein the upper-level storage addresses are addresses where the operating data are stored in a controller of the individual mechanical devices ; and - the step of primarily classifying the operating data according to characteristics attributed to the operating data to obtain various types of status data comprises: - assigning the operating data to corresponding data storage variables depending on the upper-level storage addresses of the operating data, to obtain intermediate data; - classifying the intermediate data according to definitions attributed to the corresponding data storage variables to obtain various types of status data: wherein the step of acquiring operating data on individual mechanical devices in a target production line, and the step of processing for each type of status data included in the various types of status data, the status data according to a processing rule matching the status data to obtain a monitoring result, are carried out separately by using asynchronous threads. acquiring operating data on individual mechanical devices in a target production line; primarily classifying the operating data according to characteristics attributed to the operating data to obtain various types of status data; and processing, for each type of status data included in the various types of status data, the status data according to a processing rule matching the status data to obtain a monitoring result; - characteristics attributed to the operating data include upper-level storage addresses of the operating data, wherein the upper-level storage addresses are addresses where the operating data are stored in a controller of the individual mechanical devices ; and - the step of primarily classifying the operating data according to characteristics attributed to the operating data to obtain various types of status data comprises: - assigning the operating data to corresponding data storage variables depending on the upper-level storage addresses of the operating data, to obtain intermediate data; - classifying the intermediate data according to definitions attributed to the corresponding data storage variables to obtain various types of status data: - assigning the operating data to corresponding data storage variables depending on the upper-level storage addresses of the operating data, to obtain intermediate data; - classifying the intermediate data according to definitions attributed to the corresponding data storage variables to obtain various types of status data:
An armor plate for protection against projectiles, the armor plate being made of at least one metal layer, the metal layer being made of cast steel, the cast steel containing (8 to 25) % by mass, preferably (10 to 20) % by mass, manganese (Mn) as an alloy component, characterized in that the armor plate has a support layer and a cover layer, the cover layer being realized by means of cold forming the cast steel and being cold-hardened, the cover layer having a mostly martensitic structure, the plate being treated using a side milling cutter to form grooves, which extend parallel and equidistantly, before cold forming.
Spinal implant comprising: a first member extending along an axis (X1) and configured to penetrate tissue; and a second member extending along said axis (X1) and including an abutment engageable with a surgical instrument and at least one peripheral capture element engageable with a moveable arm of the surgical instrument , wherein the second member includes a head engageable with the surgical instrument , the head including the at least one peripheral capture element and extending between a proximal end and a distal end , characterised in that the at least one capture element includes a plurality of divots being equidistantly spaced apart about the head of the second member , wherein the divots each include a first surface that defines a first ramp , wherein the first ramp is oriented to decline from the proximal end to the distal end , and wherein the divots each include a second surface that defines a second ramp , wherein the second ramp is oriented to incline from the proximal end to the distal end . a first member extending along an axis (X1) and configured to penetrate tissue; and a second member extending along said axis (X1) and including an abutment engageable with a surgical instrument and at least one peripheral capture element engageable with a moveable arm of the surgical instrument , wherein the second member includes a head engageable with the surgical instrument , the head including the at least one peripheral capture element and extending between a proximal end and a distal end , characterised in that the at least one capture element includes a plurality of divots being equidistantly spaced apart about the head of the second member , wherein the divots each include a first surface that defines a first ramp , wherein the first ramp is oriented to decline from the proximal end to the distal end , and wherein the divots each include a second surface that defines a second ramp , wherein the second ramp is oriented to incline from the proximal end to the distal end .
Luminaire , having a housing extending in a longitudinal direction (L), said housing comprising a first side wall , a second side wall opposite the first side wall and a cover wall connecting the two side walls (21; 22); a lamp device comprising a support plate and at least one luminous element , said luminous element being arranged on a first surface of the support plate ; a holder coupling the support plate of the lamp device to the side walls (21; 22) in such a manner that the support plate together with the side walls (21; 22) and the cover wall define an enclosed receiving space ; an electrical connection device electrically connected to the lamp device and arranged in the enclosed receiving space ; and a transparent cover , a main portion of which extends between the side walls (21; 22), said main portion being fastened to the side walls (21; 22); wherein the cover comprises a first side portion and a second side portion , wherein the side portions (52; 53) each extend transversely to the main portion , and wherein the first side portion extends along the first side wall and the second side portion extends along the second side wall ; and wherein the holder is formed on the side portions (52; 53) of the cover .
An automated analyzer comprising: a liquid reservoir installed in the automated analyzer to store liquid used for analysis, with an opening for accepting the liquid provided at an upper end of the liquid reservoir , and provided on an upper end of a side surface with an overflow portion to let the liquid overflow outwardly; a liquid reservoir holding member for holding the liquid reservoir; and a liquid flow path which has a double pipe structure with an inner pipe in the liquid flow path, wherein a discharge flow path for discharging the liquid allowed to overflow from the overflow portion of the liquid reservoir is formed on an outer circumferential side of the inner pipe in the liquid flow path ; wherein the overflow portion comprises a flow path inlet on an upper end of the side surface of the reservoir, a flow path outlet , a flow path bottom surface, and a flow path side wall disposed on a lateral side of the flow path bottom surface, characterised in that the flow path bottom surface is inclined downward from the flow path inlet , and the flow path outlet projects into the discharge flow path so as to be located closer to an inner circumferential side of the discharge flow path than to an inner circumferential side of an outer wall of the discharge flow path and to make contact with the outer wall of the inner pipe without making contact with the inner circumferential surface of the discharge flow path and so as to be located below an upper end of the outer wall of the discharge flow path . a liquid reservoir installed in the automated analyzer to store liquid used for analysis, with an opening for accepting the liquid provided at an upper end of the liquid reservoir , and provided on an upper end of a side surface with an overflow portion to let the liquid overflow outwardly; a liquid reservoir holding member for holding the liquid reservoir; and a liquid flow path which has a double pipe structure with an inner pipe in the liquid flow path, wherein a discharge flow path for discharging the liquid allowed to overflow from the overflow portion of the liquid reservoir is formed on an outer circumferential side of the inner pipe in the liquid flow path ; wherein the overflow portion comprises a flow path inlet on an upper end of the side surface of the reservoir, a flow path outlet , a flow path bottom surface, and a flow path side wall disposed on a lateral side of the flow path bottom surface, characterised in that the flow path bottom surface is inclined downward from the flow path inlet , and the flow path outlet projects into the discharge flow path so as to be located closer to an inner circumferential side of the discharge flow path than to an inner circumferential side of an outer wall of the discharge flow path and to make contact with the outer wall of the inner pipe without making contact with the inner circumferential surface of the discharge flow path and so as to be located below an upper end of the outer wall of the discharge flow path .