mhurhangee/patent-ind-claim-en huggingface dataset:
Process for treating a workpiece, , preferably for shaping a workpiece by ablating material, by a liquid jet guided laser beam within a time frame, comprising the following steps: a) producing a liquid jet by a nozzle , b) impinging the liquid jet on a reference surface allocated to the workpiece , whereby an intersection of the liquid jet with the reference surface defines a liquid jet-footprint , c) effecting a displacement between the liquid jet and the reference surface , whereby the liquid jet- footprint evolves to a trace along a trajectory associated with the trace during the time frame, wherein the trace covers a trace-area , d) irradiating the workpiece at least during part of the time frame with a laser beam coupled into the liquid jet , preferably for ablating material, e) monitoring the remaining thickness of the workpiece at the point where the nozzle-exit plane-normal contacts the reference surface, f) wherein the trace has at least one overlap-area , wherein each of the at least one overlap-areas is defined by an associated common area of an associated second length-section (between 13a and 13b) of the trace and an associated first length-section (between 12a and 12b) of the trace and wherein the workpiece is irradiated by the laser beam along at least one of the length-sections characterized in that g) the trajectory is calculated by a computer program based on a workpiece shape desired by a user, said computer program generating data for a CNC program which causes a liquid jet machining device to perform the process. a) producing a liquid jet by a nozzle , b) impinging the liquid jet on a reference surface allocated to the workpiece , whereby an intersection of the liquid jet with the reference surface defines a liquid jet-footprint , c) effecting a displacement between the liquid jet and the reference surface , whereby the liquid jet- footprint evolves to a trace along a trajectory associated with the trace during the time frame, wherein the trace covers a trace-area , d) irradiating the workpiece at least during part of the time frame with a laser beam coupled into the liquid jet , preferably for ablating material, e) monitoring the remaining thickness of the workpiece at the point where the nozzle-exit plane-normal contacts the reference surface, f) wherein the trace has at least one overlap-area , wherein each of the at least one overlap-areas is defined by an associated common area of an associated second length-section (between 13a and 13b) of the trace and an associated first length-section (between 12a and 12b) of the trace and wherein the workpiece is irradiated by the laser beam along at least one of the length-sections characterized in that g) the trajectory is calculated by a computer program based on a workpiece shape desired by a user, said computer program generating data for a CNC program which causes a liquid jet machining device to perform the process.
A method of transmitting, by a vehicle-to-everything, V2X, user equipment, UE , a physical sidelink control channel, PSCCH, upon receipt of PSCCH scheduling information in a wireless communication system, the method comprising: receiving downlink control information related to sidelink semi-persistent scheduling, SL SPS; transmitting a first PSCCH based on an instruction for activating an SL SPS configuration, wherein the instruction is included in the downlink control information; and transmitting a second PSCCH on a reserved resource after transmitting the first PSCCH, wherein based on the downlink control information being related to SL SPS for two or more component carriers, CCs, time resource units for transmitting the first PSCCH on the two or more CCs do not overlap with each other, characterised in that based on the downlink control information being related to the SL SPS for the two or more CCs, the downlink control information includes information on whether messages transmitted on the two or more CCs are identical. receiving downlink control information related to sidelink semi-persistent scheduling, SL SPS; transmitting a first PSCCH based on an instruction for activating an SL SPS configuration, wherein the instruction is included in the downlink control information; and transmitting a second PSCCH on a reserved resource after transmitting the first PSCCH, wherein based on the downlink control information being related to SL SPS for two or more component carriers, CCs, time resource units for transmitting the first PSCCH on the two or more CCs do not overlap with each other, characterised in that based on the downlink control information being related to the SL SPS for the two or more CCs, the downlink control information includes information on whether messages transmitted on the two or more CCs are identical.
A communication system, comprising: a communication management unit, CMU, located on a vehicle, wherein the CMU is configured to send downlink messages and receive uplink messages, and wherein the CMU comprises a processor, a memory and an input/output port; wherein the processor is configured to run a distribution application operable to: when data is received in an uplink message from a ground station at the input/output port, transmit the data to a designated first device and transmit selected data of the data received at the input/output port to at least one designated second device; and when data is received in a downlink message from the first device or the second device, transmit the data to the other of the first and second device as well as an intended recipient of the data at the ground station. a communication management unit, CMU, located on a vehicle, wherein the CMU is configured to send downlink messages and receive uplink messages, and wherein the CMU comprises a processor, a memory and an input/output port; wherein the processor is configured to run a distribution application operable to: when data is received in an uplink message from a ground station at the input/output port, transmit the data to a designated first device and transmit selected data of the data received at the input/output port to at least one designated second device; and when data is received in a downlink message from the first device or the second device, transmit the data to the other of the first and second device as well as an intended recipient of the data at the ground station. when data is received in an uplink message from a ground station at the input/output port, transmit the data to a designated first device and transmit selected data of the data received at the input/output port to at least one designated second device; and when data is received in a downlink message from the first device or the second device, transmit the data to the other of the first and second device as well as an intended recipient of the data at the ground station.
An air distribution valve provided for a heated airflow coming from an air layer disposed behind a ventilated facade of a building, this distribution valve including a first air inlet intended to receive the air of the air layer , a first air outlet intended to direct the air towards a distribution network in the building , a second air outlet intended to direct the air to the outside, and a movable flap distributing the airflow towards either one of the outlets , characterized in that it includes a second air inlet intended to collect the external air and direct it towards the first outlet .
A solar module having at least two substring groups (A,B,C), each substring group (A,B,C) comprising - an upper substring (A1,B1,C1) having a number of solar cells that are connected in series, wherein the solar cells of the upper substring (A1,B1,C1) are arranged in a matrix form comprising at least two adjacent columns and multiple rows, - a lower substring (A2,B2,C2) having a number of solar cells , that are connected in series, wherein the solar cells are arranged in a matrix form comprising at least two adjacent columns and multiple rows and wherein the lower substring (A2,B2,C2) and the upper substring (A1,B1,C1) have the same number of solar cells and - a transverse connector electrically connects the lower substring (A2,B2,C2) and the upper substring (A1,B1,C1) in parallel to form the substring group (A,B,C) and - a bypass diode that is electrically arranged in the transverse connector , wherein the transverse connector of each substring group (A,B,C) are in contact with one another in such a manner that the substring groups (A,B,C) are electrically connected to one another in series, wherein the solar cells are designed as full cells, characterized in that two columns of the lower substring (A2,B2,C2) have a different number of solar cells and that two columns of the associated upper substring (A1,B1,C1) in the substring group (A,B,C) have a different number of solar cells with the result that the number of solar cells of the upper substring (A1,B1,C1) and the number of solar cells in the lower substring (A2,B2,C2) is uneven. - an upper substring (A1,B1,C1) having a number of solar cells that are connected in series, wherein the solar cells of the upper substring (A1,B1,C1) are arranged in a matrix form comprising at least two adjacent columns and multiple rows, - a lower substring (A2,B2,C2) having a number of solar cells , that are connected in series, wherein the solar cells are arranged in a matrix form comprising at least two adjacent columns and multiple rows and wherein the lower substring (A2,B2,C2) and the upper substring (A1,B1,C1) have the same number of solar cells and - a transverse connector electrically connects the lower substring (A2,B2,C2) and the upper substring (A1,B1,C1) in parallel to form the substring group (A,B,C) and - a bypass diode that is electrically arranged in the transverse connector , wherein the transverse connector of each substring group (A,B,C) are in contact with one another in such a manner that the substring groups (A,B,C) are electrically connected to one another in series, wherein the solar cells are designed as full cells, characterized in that two columns of the lower substring (A2,B2,C2) have a different number of solar cells and that two columns of the associated upper substring (A1,B1,C1) in the substring group (A,B,C) have a different number of solar cells with the result that the number of solar cells of the upper substring (A1,B1,C1) and the number of solar cells in the lower substring (A2,B2,C2) is uneven.
A method for registering images, the method comprising: installing a location tracking system , which is configured to map anatomical structures in a first coordinate system , in a fixed position within a medical imaging system , which captures three-dimensional images of the anatomical structures in a second coordinate system , wherein the 3D images are converted to and stored in a third coordinate system in accordance with a first coordinate transformation (TX1) between the second coordinate system and the third coordinate system; registering, by a processor, a first 3D image captured by the imaging system with the first coordinate system so as to produce a second coordinate transformation (TX2) between the first coordinate system and the second coordinate system; combining, by the processor, the first and second coordinate transformations so as to derive a third coordinate transformation (TX3) between the first coordinate system and the third coordinate system; processing, by the processor, a second 3D image of a body of a subject captured by the imaging system in order to extract image features in the third coordinate system; and joining, by the processor, the extracted image features with location data captured by the location tracking system by applying the third coordinate transformation. installing a location tracking system , which is configured to map anatomical structures in a first coordinate system , in a fixed position within a medical imaging system , which captures three-dimensional images of the anatomical structures in a second coordinate system , wherein the 3D images are converted to and stored in a third coordinate system in accordance with a first coordinate transformation (TX1) between the second coordinate system and the third coordinate system; registering, by a processor, a first 3D image captured by the imaging system with the first coordinate system so as to produce a second coordinate transformation (TX2) between the first coordinate system and the second coordinate system; combining, by the processor, the first and second coordinate transformations so as to derive a third coordinate transformation (TX3) between the first coordinate system and the third coordinate system; processing, by the processor, a second 3D image of a body of a subject captured by the imaging system in order to extract image features in the third coordinate system; and joining, by the processor, the extracted image features with location data captured by the location tracking system by applying the third coordinate transformation.
A composite structure for an aircraft , the composite structure comprising: a plurality of Carbon Fiber Reinforced Plastic, CFRP, panels that are adjacent with one another, each CFRP panel (220-1, 220-2) including: an upper surface having a mesh foil ; a fastener inserted through the CFRP panel in a first direction perpendicular to a flat plane of the CFRP panel, the fastener configured to secure the CFRP panel to a metallic frame of the aircraft located proximate to a lower surface of the CFRP panel; a plurality of electrically conductive pins extending in the first direction to electrically connect the mesh foil and the metallic frame of the aircraft ; and another plurality of electrically conductive pins extending in a direction perpendicular to the first direction to electrically connect adjacent CFRP panels (220-1, 220-2). an upper surface having a mesh foil ; a fastener inserted through the CFRP panel in a first direction perpendicular to a flat plane of the CFRP panel, the fastener configured to secure the CFRP panel to a metallic frame of the aircraft located proximate to a lower surface of the CFRP panel; a plurality of electrically conductive pins extending in the first direction to electrically connect the mesh foil and the metallic frame of the aircraft ; and another plurality of electrically conductive pins extending in a direction perpendicular to the first direction to electrically connect adjacent CFRP panels (220-1, 220-2).
A method of determining a presence and prevalence of microbial sequences in a sample comprising cell-free nucleic acids from a non-microbial host, the method comprising: (i) providing a sample comprising cell-free nucleic acids from said non-microbial host, wherein said cell-free nucleic acids from said non-microbial host comprise cell-free nucleic acids from bacteria, parasites, or fungi; (ii) amplifying nucleic acids from said sample comprising cell-free nucleic acids by a non-biased method, a non-biased method that comprises amplifying with universal primers, or a non-biased method that comprises ligating adaptors to said nucleic acids and amplifying with primers specific for said adaptors; (iii) performing high-throughput sequencing of said cell-free nucleic acids from said non-microbial host to generate sequence reads, wherein said high throughput sequencing is performed on amplified nucleic acids from said sample comprising cell-free nucleic acids; (iv) performing bioinformatics analysis of said sequence reads to subtract host sequences; and (v) determining a presence and prevalence of microbial cell-free sequences from said bioinformatics analysis of said sequence reads to assess a presence and prevalence of individual strains or species of bacteria, parasites or fungi within a microbiome of said non-microbial host. (i) providing a sample comprising cell-free nucleic acids from said non-microbial host, wherein said cell-free nucleic acids from said non-microbial host comprise cell-free nucleic acids from bacteria, parasites, or fungi; (ii) amplifying nucleic acids from said sample comprising cell-free nucleic acids by a non-biased method, a non-biased method that comprises amplifying with universal primers, or a non-biased method that comprises ligating adaptors to said nucleic acids and amplifying with primers specific for said adaptors; (iii) performing high-throughput sequencing of said cell-free nucleic acids from said non-microbial host to generate sequence reads, wherein said high throughput sequencing is performed on amplified nucleic acids from said sample comprising cell-free nucleic acids; (iv) performing bioinformatics analysis of said sequence reads to subtract host sequences; and (v) determining a presence and prevalence of microbial cell-free sequences from said bioinformatics analysis of said sequence reads to assess a presence and prevalence of individual strains or species of bacteria, parasites or fungi within a microbiome of said non-microbial host.
A method for enabling health care provider (HCP) set up of a bolus calculator, comprising: a) providing a server accessible by both an HCP and a patient; b) upon login by the HCP into the server , displaying, or transmitting for display, a fillable form, the fillable form including one or more fields for entry of one or more bolus calculator parameters; b1) filling out the fillable form by the HCP for the patient; c) receiving data from the fillable form at the server , the data corresponding to the one or more bolus calculator parameters ; d) upon login by the patient into the server , transmitting data to a device associated with the patient, the transmitted data being based on the received data, where the transmitted data corresponds to the one or more bolus calculator parameters in a format suitable for entry to the bolus calculator; d1) setting up the bolus calculator based on the transmitted data; characterized by : e) calculating an insulin bolus with the bolus calculator, which is informed about continuous glucose monitoring (CGM) trend parameters; wherein the bolus calculator takes a trend adjustment into account in the insulin bolus calculation; wherein the trend adjustment is equal to a rate of glucose change times a time period to achieve a target glucose value divided by a correction factor; wherein the correction factor represents a drop in patient glucose generated by taking one unit of insulin. a) providing a server accessible by both an HCP and a patient; b) upon login by the HCP into the server , displaying, or transmitting for display, a fillable form, the fillable form including one or more fields for entry of one or more bolus calculator parameters; b1) filling out the fillable form by the HCP for the patient; c) receiving data from the fillable form at the server , the data corresponding to the one or more bolus calculator parameters ; d) upon login by the patient into the server , transmitting data to a device associated with the patient, the transmitted data being based on the received data, where the transmitted data corresponds to the one or more bolus calculator parameters in a format suitable for entry to the bolus calculator; d1) setting up the bolus calculator based on the transmitted data; e) calculating an insulin bolus with the bolus calculator, which is informed about continuous glucose monitoring (CGM) trend parameters; wherein the bolus calculator takes a trend adjustment into account in the insulin bolus calculation;
A mixing apparatus comprising: a first port for receiving milk; a second port for receiving steam; a mixing chamber for mixing milk, steam and air; an outlet spout which receives the mixed liquid from the mixing chamber, and a channel arrangement between the first and second ports and the mixing chamber, wherein the channel arrangement comprises: a first channel portion connected between the first port and a frothing section ; a second channel portion connected between the second port and the frothing section , wherein the frothing section couples to the mixing chamber ; and an air intake channel to the frothing section, characterized in that the mixing apparatus comprises a barrier element at an outlet of the mixing chamber to the outlet spout which is adapted such that, in use, the frothing section is filled sufficiently with steamed milk that a direct path from the second port to the mixing chamber is interrupted by the steamed milk. a first port for receiving milk; a second port for receiving steam; a mixing chamber for mixing milk, steam and air; an outlet spout which receives the mixed liquid from the mixing chamber, and a channel arrangement between the first and second ports and the mixing chamber, wherein the channel arrangement comprises: a first channel portion connected between the first port and a frothing section ; a second channel portion connected between the second port and the frothing section , wherein the frothing section couples to the mixing chamber ; and an air intake channel to the frothing section, a first channel portion connected between the first port and a frothing section ; a second channel portion connected between the second port and the frothing section , wherein the frothing section couples to the mixing chamber ; and an air intake channel to the frothing section, characterized in that the mixing apparatus comprises a barrier element at an outlet of the mixing chamber to the outlet spout which is adapted such that, in use, the frothing section is filled sufficiently with steamed milk that a direct path from the second port to the mixing chamber is interrupted by the steamed milk.
An information transmission method to be performed by a user equipment, comprising: receiving (S110) indication information sent by a base station, wherein the indication information is used to indicate a first downlink subframe in which a cell-specific reference signal, CRS, is transmitted; determining (S120) the first downlink subframe according to the indication information; and communicating (S130) with the base station according to the first downlink subframe, the method being characterized in that : the receiving (S110) indication information sent by the base station comprises: receiving a downlink control channel that is sent by the base station and that is carried in a downlink subframe 0 and/or a downlink subframe 5, wherein the downlink control channel is used to indicate the first downlink subframe; and the determining (S120) the first downlink subframe according to the indication information comprises: determining the first downlink subframe according to the downlink control channel. receiving (S110) indication information sent by a base station, wherein the indication information is used to indicate a first downlink subframe in which a cell-specific reference signal, CRS, is transmitted; determining (S120) the first downlink subframe according to the indication information; and communicating (S130) with the base station according to the first downlink subframe, the method being characterized in that : the receiving (S110) indication information sent by the base station comprises: receiving a downlink control channel that is sent by the base station and that is carried in a downlink subframe 0 and/or a downlink subframe 5, wherein the downlink control channel is used to indicate the first downlink subframe; and the determining (S120) the first downlink subframe according to the indication information comprises: determining the first downlink subframe according to the downlink control channel. receiving a downlink control channel that is sent by the base station and that is carried in a downlink subframe 0 and/or a downlink subframe 5, wherein the downlink control channel is used to indicate the first downlink subframe; and the determining (S120) the first downlink subframe according to the indication information comprises: determining the first downlink subframe according to the downlink control channel.