mhurhangee/patent-ind-claim-en huggingface dataset:
A method of reading optical bar codes or 2D codes , wherein an image sensor having at least one pixel element detects image information in a reading zone and wherein the image information is evaluated in order to read a bar code or 2D code in the reading zone using a decoding method, characterized in that the image sensor is an event-based image sensor whose pixel element determines when the intensity detected by the pixel element changes, and then and only then provides image information in an event-based manner.
A method for treating a paddy seed(s), said method comprising treating a paddy seed(s) using a paddy seed treatment agent comprising fenquinotrione or a salt thereof as a herbicidal active component.
A ligation band , comprising: a substantially ring-shaped elastic body having a first tissue-contacting surface , a second tissue-contacting surface opposite the first tissue-contacting surface , and an aperture extending therethrough, wherein at least one of the tissue-contacting surfaces has a plurality of protrusions formed thereon that define an interlinking web-pattern with a plurality of recesses therebetween, characterized in that the aperture is substantially cylindrical with smooth inner-facing sidewalls. a substantially ring-shaped elastic body having a first tissue-contacting surface , a second tissue-contacting surface opposite the first tissue-contacting surface , and an aperture extending therethrough, wherein at least one of the tissue-contacting surfaces has a plurality of protrusions formed thereon that define an interlinking web-pattern with a plurality of recesses therebetween, characterized in that the aperture is substantially cylindrical with smooth inner-facing sidewalls.
A method for obtaining multidimensional positional data of at least one object of interest within a probe by using a microscope comprising: obtaining at least one image of the probe by said microscope; identifying at least three reference markings (R1, R2, R3) associated with said probe in the at least one image and determining their positions in the at least one image ; determining at least a three-dimensional reference coordinate system associated with said reference markings (R1, R2, R3) based on the determined positions of the reference markings in the at least one image and data concerning the position of a probe positioning device of the microscope; identifying one or more objects of interest (OI) within the at least one image ; determining positional information of the one or more objects of interest (OI) in the reference coordinate system, wherein in the step of obtaining at least one image, a plurality of images of the probe is obtained by moving the probe positioning device to expected positions of the at least three reference markings (R1, R2, R3) and acquiring an image at the expected position of each of the reference markings (R1, R2, R3), and wherein in each of the obtained images the positon of the corresponding reference marking (R1, R2, R3) is determined, and wherein said method is characterized in that the reference markings (R1, R2, R3) are fluorescent beads and/or wherein the reference markings (R1, R2, R3) are specific structures or objects inherent to the observed probe . obtaining at least one image of the probe by said microscope; identifying at least three reference markings (R1, R2, R3) associated with said probe in the at least one image and determining their positions in the at least one image ; determining at least a three-dimensional reference coordinate system associated with said reference markings (R1, R2, R3) based on the determined positions of the reference markings in the at least one image and data concerning the position of a probe positioning device of the microscope; identifying one or more objects of interest (OI) within the at least one image ; determining positional information of the one or more objects of interest (OI) in the reference coordinate system, wherein in the step of obtaining at least one image, a plurality of images of the probe is obtained by moving the probe positioning device to expected positions of the at least three reference markings (R1, R2, R3) and acquiring an image at the expected position of each of the reference markings (R1, R2, R3), and wherein in each of the obtained images the positon of the corresponding reference marking (R1, R2, R3) is determined, and wherein said method is characterized in that the reference markings (R1, R2, R3) are fluorescent beads and/or wherein the reference markings (R1, R2, R3) are specific structures or objects inherent to the observed probe .
A mobile dust extraction device for filtering air, the mobile dust extraction device including: a filter housing having at least one air filter; an inlet housing fluidly connected to the filter housing ; a fan assembly including a fan , a fan inlet and a fan outlet , the fan assembly fluidly connecting the filter housing to the fan outlet ; a support frame for supporting the filter housing , inlet housing and the fan assembly; an emission sensor in fluid communication with the fan outlet , and differential pressure sensors located before and after the at least one air filter, a CPU to control and monitor the mobile dust extraction device, and characterised in that the mobile dust extraction device further includes a drive mechanism for propelling the mobile dust extraction device , wherein the drive mechanism is controlled by a wireless controller, and wherein the drive mechanism includes two continuous tracks ; a hopper ; an auger conveyor ; and a discharge port , wherein in use the hopper funnels dust from the inlet housing and the filter housing to the auger conveyor and the auger conveyor conveys the dust to the discharge port ; and wherein the CPU receives sensor readings from the emission sensor and the differential pressure sensors and communicates the sensor readings to the wireless controller; and wherein the sensor readings are displayed on a screen of the wireless controller. a filter housing having at least one air filter; an inlet housing fluidly connected to the filter housing ; a fan assembly including a fan , a fan inlet and a fan outlet , the fan assembly fluidly connecting the filter housing to the fan outlet ; a support frame for supporting the filter housing , inlet housing and the fan assembly; an emission sensor in fluid communication with the fan outlet , and differential pressure sensors located before and after the at least one air filter, a CPU to control and monitor the mobile dust extraction device, and characterised in that the mobile dust extraction device further includes a drive mechanism for propelling the mobile dust extraction device , wherein the drive mechanism is controlled by a wireless controller, and wherein the drive mechanism includes two continuous tracks ; a hopper ; an auger conveyor ; and a discharge port , wherein in use the hopper funnels dust from the inlet housing and the filter housing to the auger conveyor and the auger conveyor conveys the dust to the discharge port ; and wherein the CPU receives sensor readings from the emission sensor and the differential pressure sensors and communicates the sensor readings to the wireless controller; and wherein the sensor readings are displayed on a screen of the wireless controller.
An apparatus comprising: a node connection comprising two select line connections (113-1, 113-2) for a select line of a serial network , the node connection including lines to provide Ethernet communication ; a bus direction module that listens at the two select line connections for a selection signal , wherein receiving the selection signal at one of the two select line connections is a selection event , and in response to detecting the selection event, the bus direction module configures a first select line connection (113-1) for an input line and a second select line connection (113-2) for an output line , and outputs the selection signal on the second select line connection to propagate the selection signal; wherein at least a portion of the bus direction module comprises one or more of hardware and executable code, the executable code stored on a memory, and wherein the node connection is one of a first directional connection node that connects one select line connection to the input line and the other select line connection to the output line or a second directional connection node that connects the other select line connection to the input line and the one select line connection to the output line. a node connection comprising two select line connections (113-1, 113-2) for a select line of a serial network , the node connection including lines to provide Ethernet communication ; a bus direction module that listens at the two select line connections for a selection signal , wherein receiving the selection signal at one of the two select line connections is a selection event , and in response to detecting the selection event, the bus direction module configures a first select line connection (113-1) for an input line and a second select line connection (113-2) for an output line , and outputs the selection signal on the second select line connection to propagate the selection signal; wherein at least a portion of the bus direction module comprises one or more of hardware and executable code, the executable code stored on a memory, and wherein the node connection is one of a first directional connection node that connects one select line connection to the input line and the other select line connection to the output line or a second directional connection node that connects the other select line connection to the input line and the one select line connection to the output line.
Running drum of a tyre, wheel and/or chassis test stand, having a cylindrical running surface and comprising: - a hub , - side discs which are arranged on the hub and which have in the region of their circumference fastening regions , and - a multiplicity of segments which form the running surface of the running drum , which are arranged on the circumference of the fastening regions and which are connected to the side discs , characterized in that the fastening regions are in the form of thickenings of the side discs , wherein the fastening regions each have a first cylindrical joining surface for the fastening of the segments , wherein radially oriented first fastening bores are arranged in the thickenings , wherein the segments have second cylindrical joining surfaces which correspond to the first joining surfaces , wherein second fastening bores aligned with the first fastening bores are arranged in the region of the second joining surfaces , and wherein the segments are connected to the side discs via fastening screws which are arranged in the first and second fastening bores . - a hub , - side discs which are arranged on the hub and which have in the region of their circumference fastening regions , and - a multiplicity of segments which form the running surface of the running drum , which are arranged on the circumference of the fastening regions and which are connected to the side discs , characterized in that the fastening regions are in the form of thickenings of the side discs , wherein the fastening regions each have a first cylindrical joining surface for the fastening of the segments , wherein radially oriented first fastening bores are arranged in the thickenings , wherein the segments have second cylindrical joining surfaces which correspond to the first joining surfaces , wherein second fastening bores aligned with the first fastening bores are arranged in the region of the second joining surfaces , and wherein the segments are connected to the side discs via fastening screws which are arranged in the first and second fastening bores .
A method of forming an environmental barrier coating , comprising disposing a powder-based coating on a substrate ; heat-treating the powder-based coating at a temperature greater than 800°C and less than 1200°C to form a porous coating comprising surface-connected pores; infiltrating at least some of the surface-connected pores of the porous coating with an infiltrant material to form an infiltrated coating; and sintering the infiltrated coating at a temperature greater than 1200°C and less than 1500°C to form the environmental barrier coating on the substrate , wherein the powder-based coating comprises a first material present in the form of a plurality of particles having a multimodal distribution, wherein the plurality of particles comprise a plurality of large particles with a particle size greater than 10 micrometres, a plurality of medium particles with a particle size in a range from 5 micrometres to 10 micrometres, and a plurality of small particles with a particle size less than 5 micrometers, and wherein an amount of large particles in the first material is in a range from 40 to 60 volume percent of the total volume of the first material; an amount of medium particles in the first material is in a range from 15 to 30 volume percent of the total volume of the first material; and an amount of small particles in the first material is in a range from 15 to 30 volume percent of the total volume of the first material.
Harvesting device for harvesting fruit hanging from a plant , comprising: - a frame which is displaceable in a transport direction (T) and carries a loop-like conveyor track which can be driven in circular manner; and - at least one harvesting bin connected to the conveyor track , wherein the conveyor track : - lies in a plane which is substantially parallel to the transport direction (T) and which lies at a first acute angle (α) to the horizon in a direction transversely of the transport direction (T) during normal use of the harvesting device ; and - has a substantially linear harvesting segment extending substantially in the transport direction (T) along a lower side thereof; and wherein at least one catcher is mounted on the at least one harvesting bin , the at least one catcher comprising a flexible catching element for catching fruit and guiding it to the harvesting bin , characterized in that the at least one catcher is displaceable relative to the harvesting segment of the conveyor track in a direction of extension (S) substantially transversely of the transport direction (T). - a frame which is displaceable in a transport direction (T) and carries a loop-like conveyor track which can be driven in circular manner; and - at least one harvesting bin connected to the conveyor track , wherein the conveyor track : - lies in a plane which is substantially parallel to the transport direction (T) and which lies at a first acute angle (α) to the horizon in a direction transversely of the transport direction (T) during normal use of the harvesting device ; and - has a substantially linear harvesting segment extending substantially in the transport direction (T) along a lower side thereof; and - lies in a plane which is substantially parallel to the transport direction (T) and which lies at a first acute angle (α) to the horizon in a direction transversely of the transport direction (T) during normal use of the harvesting device ; and - has a substantially linear harvesting segment extending substantially in the transport direction (T) along a lower side thereof; and wherein at least one catcher is mounted on the at least one harvesting bin , the at least one catcher comprising a flexible catching element for catching fruit and guiding it to the harvesting bin , characterized in that the at least one catcher is displaceable relative to the harvesting segment of the conveyor track in a direction of extension (S) substantially transversely of the transport direction (T).
Fusion protein comprising a single-chain variable fragment antibody domain (scFv), a hinge, a transmembrane domain, an intracellular hCD28 signalling domain and an intracellular hCD3ζ (hCD3 zeta) signalling domain forming a chimeric antigen receptor having specificity for HLA-A*02 (CAR-A*02) or having specificity for SLA-01*0401 (CAR-SLA-01*0401) for use in the treatment of HvG disease in a patient, characterized in that the fusion protein is expressed in a CD4+CD25+CD127low human regulatory T (Treg) cell, which Treg that express the CAR-A*02 is HLA-A*02 negative.
A method for wireless communication, comprising: receiving, by a terminal device, first downlink control information in a first time-domain scheduling unit ; and acquiring, by the terminal device, information about second downlink control information to be detected in the first time-domain scheduling unit according to the first downlink control information , characterized in that the first downlink control information and the second downlink control information are sent by different transmission and reception points. receiving, by a terminal device, first downlink control information in a first time-domain scheduling unit ; and acquiring, by the terminal device, information about second downlink control information to be detected in the first time-domain scheduling unit according to the first downlink control information , characterized in that the first downlink control information and the second downlink control information are sent by different transmission and reception points.
Method of receiving, by a terminal , a message (M') from a server , via a telecommunications network, this message comprising metadata (META) defining, in association with at least one multimedia content, a challenge for presenting to a user (B) of the terminal , an expected response to this challenge, and access data (@CONT) to said at least one multimedia content on said server, said metadata combining the information required for executing said challenge on said terminal , the reception method comprising: - a step (E220, E230) of downloading said at least one multimedia content on the basis of said access data; - a step (E240, E250) of presenting the challenge defined by the metadata by a challenge presentation module installed on the terminal , this presentation step comprising: o a step (E240) of presenting, to the user (B) of the terminal , at least one user interface page with the challenge; o a step of obtaining a response from the user (B) to this challenge; o a step of verifying whether the response obtained from the user (B) matches the expected response to the challenge as defined in the metadata; and o a step of rendering or not rendering said multimedia content in full depending on whether the response obtained from the user (B) matches or does not match the expected response to the challenge. - a step (E220, E230) of downloading said at least one multimedia content on the basis of said access data; - a step (E240, E250) of presenting the challenge defined by the metadata by a challenge presentation module installed on the terminal , this presentation step comprising: o a step (E240) of presenting, to the user (B) of the terminal , at least one user interface page with the challenge; o a step of obtaining a response from the user (B) to this challenge; o a step of verifying whether the response obtained from the user (B) matches the expected response to the challenge as defined in the metadata; and o a step of rendering or not rendering said multimedia content in full depending on whether the response obtained from the user (B) matches or does not match the expected response to the challenge. o a step (E240) of presenting, to the user (B) of the terminal , at least one user interface page with the challenge; o a step of obtaining a response from the user (B) to this challenge; o a step of verifying whether the response obtained from the user (B) matches the expected response to the challenge as defined in the metadata; and o a step of rendering or not rendering said multimedia content in full depending on whether the response obtained from the user (B) matches or does not match the expected response to the challenge.
A compound having the formula or a pharmaceutically acceptable salt thereof, for use in treating cancer by targeting a protein or tyrosine kinase selected from the group consisting of ALK, ROS1, AXL, TRKs, and JAKs. or a pharmaceutically acceptable salt thereof, for use in treating cancer by targeting a protein or tyrosine kinase selected from the group consisting of ALK, ROS1, AXL, TRKs, and JAKs.
A pole member holder for holding pole members ; wherein a pole member comprises at least a flange portion joined to a main portion for receiving turns of coils (C) during winding; - the pole member holder comprising: - a main body with a plurality of seats ; wherein each seat is configured to receive the flange portion of the pole members ; - a plurality of base members assembled on the main body , each base member being configured to be assembled adjacent to a lower end (13b") of the flange portion of the respective pole member for engaging the lower end (13b") of the flange portion ; - pushing means associated with each seat for pushing the base members to push the pole members ; - locking means associated with each seat for engaging and referencing an upper end of the pole members , said pole member holder characterized in that the locking means is provided with a common reference surface of a border arranged to reference the upper ends of the flange portions of the pole members , each base member arranged to push the lower end (13b") of the respective flange portion upwards for causing the upper end to engage against the common reference surface of the border . - the pole member holder comprising: - a main body with a plurality of seats ; wherein each seat is configured to receive the flange portion of the pole members ; - a plurality of base members assembled on the main body , each base member being configured to be assembled adjacent to a lower end (13b") of the flange portion of the respective pole member for engaging the lower end (13b") of the flange portion ; - pushing means associated with each seat for pushing the base members to push the pole members ; - locking means associated with each seat for engaging and referencing an upper end of the pole members , said pole member holder characterized in that the locking means is provided with a common reference surface of a border arranged to reference the upper ends of the flange portions of the pole members , each base member arranged to push the lower end (13b") of the respective flange portion upwards for causing the upper end to engage against the common reference surface of the border .
A genetically engineered yeast having a functional exogenous invertase gene having a a nucleic acid sequence selected from the group consisting of SEQ ID NO: 6; SEQ ID NO: 15; SEQ ID NO: 16; and SEQ ID NO: 17.; a deletion or disruption of the pyruvate decarboxylase (PDC) gene; and an exogenous or artificial RPL16B promoter having the nucleic acid sequence of SEQ ID NO: 11 for the functional exogenous invertase gene, wherein the yeast produces an organic acid fermentation product at a production rate of at least 1.0 g L -1 h -1 .
A method for an imaging system , comprising: computing scan parameters for one or more scout scans based on a selected patient absorbed dose range and a total amount of energy to be imparted to an x-ray tube of a radiation source during the one or more scout scans preceding a diagnostic scan, the total amount of energy estimated based on a final temperature of the x-ray tube at an onset of the diagnostic scan; and performing the one or more scout scans according to the computed scan parameters. computing scan parameters for one or more scout scans based on a selected patient absorbed dose range and a total amount of energy to be imparted to an x-ray tube of a radiation source during the one or more scout scans preceding a diagnostic scan, the total amount of energy estimated based on a final temperature of the x-ray tube at an onset of the diagnostic scan; and performing the one or more scout scans according to the computed scan parameters.