mhurhangee/patent-ind-claim-en huggingface dataset:
A method of analysing Magnetic Resonance images comprising: acquiring a first medical MR image and a second medical MR image having inversion times that are different in a range from 300ms to 5000ms of a subject at the same nominal magnetic field strength; analysing the first and second MR images to determine a water T1 map from the first and second MR images; applying a field strength correction by which measurements are standardized to 3T based on the nominal magnetic field strength used for the first and second MR image acquisitions, and an iron correction to correct for differences in the iron concentration from a normal level using a T2* map of the subject, to the water T1 map from the first and second images to generate a corrected water T1 map; characterized in that the method further comprises: using the corrected water T1 map, a PDFF value or PDFF map of the subject, and an exact pulse sequence of a reference 3T MRI scanner in a forward Bloch simulation of a MOLLI acquisition to determine simulated MRI signals dependent on inversion time and position for the subject as though with normal iron levels, wherein fat and water signals are simulated separately and combined in proportion to the PDFF value or PDFF map, and fitting the simulated MRI signals to a function at each pixel to yield a standard cT1 map for the subject. acquiring a first medical MR image and a second medical MR image having inversion times that are different in a range from 300ms to 5000ms of a subject at the same nominal magnetic field strength; analysing the first and second MR images to determine a water T1 map from the first and second MR images; applying a field strength correction by which measurements are standardized to 3T based on the nominal magnetic field strength used for the first and second MR image acquisitions, and an iron correction to correct for differences in the iron concentration from a normal level using a T2* map of the subject, to the water T1 map from the first and second images to generate a corrected water T1 map; characterized in that the method further comprises: using the corrected water T1 map, a PDFF value or PDFF map of the subject, and an exact pulse sequence of a reference 3T MRI scanner in a forward Bloch simulation of a MOLLI acquisition to determine simulated MRI signals dependent on inversion time and position for the subject as though with normal iron levels, wherein fat and water signals are simulated separately and combined in proportion to the PDFF value or PDFF map, and fitting the simulated MRI signals to a function at each pixel to yield a standard cT1 map for the subject. using the corrected water T1 map, a PDFF value or PDFF map of the subject, and an exact pulse sequence of a reference 3T MRI scanner in a forward Bloch simulation of a MOLLI acquisition to determine simulated MRI signals dependent on inversion time and position for the subject as though with normal iron levels, wherein fat and water signals are simulated separately and combined in proportion to the PDFF value or PDFF map, and fitting the simulated MRI signals to a function at each pixel to yield a standard cT1 map for the subject.
A device comprising a bioerodible porous silicon-based amorphous carrier material wherein the carrier material comprises at least one large molecule therapeutic agent disposed in pores of the carrier material, wherein either: a) the pores have an average pore size from 15 nm to 40 nm and the therapeutic agent has a molecular weight from 100,000 to 200,000 U (amu), or b) the pores have an average pore size from 25 nm to 40 nm and the therapeutic agent has a molecular radius from 6 to 8 nm; wherein said pore size is determined by BET analysis. a) the pores have an average pore size from 15 nm to 40 nm and the therapeutic agent has a molecular weight from 100,000 to 200,000 U (amu), or b) the pores have an average pore size from 25 nm to 40 nm and the therapeutic agent has a molecular radius from 6 to 8 nm;
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, configuration information including a list of control resource sets, CORESETs, and a list of search spaces via radio resource control, RRC, signaling; identifying a channel occupancy interval where a signal is transmitted between the terminal and the base station in an unlicensed band; in case that at least one symbol within the channel occupancy interval is determined to be used for downlink transmission, transmitting, to the base station, uplink control information, UCI, including information on a CORESET associated with the at least one symbol among the CORESETs and information on a search space associated with the at least one symbol among the search spaces; and monitoring a physical downlink control channel, PDCCH, where downlink control information, DCI, for scheduling the downlink transmission is transmitted based on the information on the CORESET and the information on the search space. receiving, from a base station, configuration information including a list of control resource sets, CORESETs, and a list of search spaces via radio resource control, RRC, signaling; identifying a channel occupancy interval where a signal is transmitted between the terminal and the base station in an unlicensed band; in case that at least one symbol within the channel occupancy interval is determined to be used for downlink transmission, transmitting, to the base station, uplink control information, UCI, including information on a CORESET associated with the at least one symbol among the CORESETs and information on a search space associated with the at least one symbol among the search spaces; and monitoring a physical downlink control channel, PDCCH, where downlink control information, DCI, for scheduling the downlink transmission is transmitted based on the information on the CORESET and the information on the search space.
Method of producing a paper having a grammage according to ISO 536 of 50-250 g/m 2 , a Gurley value according to ISO 5636-5 of above 15 s and a stretchability according to ISO 1924-3 in the cross direction of at least 8 %, said method comprising the steps of: a) providing a pulp, preferably sulphate pulp; b) subjecting the pulp to refining comprising low consistency (LC) refining; c) diluting the pulp from step b) and discharging the diluted pulp at a discharge rate to a forming wire to form a paper web, wherein the speed of the forming wire is 7-30 m/min higher or 7-30 m/min lower than the discharge rate; d) pressing the paper web from step c); e) drying the paper web from step d), which drying comprises a step of compacting the paper web in a Clupak unit and drying of the paper web both before and after the compacting in the Clupak unit, wherein the paper web is allowed to dry freely after the Clupak unit, during which free drying the paper web is not in contact with a dryer screen. a) providing a pulp, preferably sulphate pulp; b) subjecting the pulp to refining comprising low consistency (LC) refining; c) diluting the pulp from step b) and discharging the diluted pulp at a discharge rate to a forming wire to form a paper web, wherein the speed of the forming wire is 7-30 m/min higher or 7-30 m/min lower than the discharge rate; d) pressing the paper web from step c); e) drying the paper web from step d), which drying comprises a step of compacting the paper web in a Clupak unit and drying of the paper web both before and after the compacting in the Clupak unit, wherein the paper web is allowed to dry freely after the Clupak unit, during which free drying the paper web is not in contact with a dryer screen.
A trampoline system comprising: four or more trampoline jumping surfaces with each trampoline jumping surface extending between a central axis of said trampoline system and an outer edge of said trampoline system , said outer edge completely surrounding said central axis , and comprising opposite side surface edges extending along opposite lines , each of said opposite lines extending through said central axis and forming an angle (A) therebetween, wherein each of said angle (A) is equal to or less than about 90°, wherein the trampoline system further comprises: a rotating member rotatable along said central axis , said rotating member comprising: a vertically-extending member , and at least one horizontally-extending arm extending outward from said vertically-extending member towards said outer edge , characterized in that each of said at least one horizontally-extending arm comprises an arm construction that allows said at least one horizontally-extending arm to bend upward, downward, sideways, or any combination of upward, downward, and sideways, when a force is applied onto said at least one horizontally-extending arm . four or more trampoline jumping surfaces with each trampoline jumping surface extending between a central axis of said trampoline system and an outer edge of said trampoline system , said outer edge completely surrounding said central axis , and comprising opposite side surface edges extending along opposite lines , each of said opposite lines extending through said central axis and forming an angle (A) therebetween, wherein each of said angle (A) is equal to or less than about 90°, wherein the trampoline system further comprises: a rotating member rotatable along said central axis , said rotating member comprising: a vertically-extending member , and at least one horizontally-extending arm extending outward from said vertically-extending member towards said outer edge , a vertically-extending member , and at least one horizontally-extending arm extending outward from said vertically-extending member towards said outer edge , characterized in that each of said at least one horizontally-extending arm comprises an arm construction that allows said at least one horizontally-extending arm to bend upward, downward, sideways, or any combination of upward, downward, and sideways, when a force is applied onto said at least one horizontally-extending arm .
Method, implemented by an item of processing equipment , for determining an item of time information that makes it possible to determine an instant of transmission, by a data-providing device , of a request for an end-of-processing notification to be sent, sending the determined item of time information to the data-providing device, and sending an end-of-processing notification to the data-providing device, the item of processing equipment communicating with the data-providing device according to a synchronous mode of communication, which means that each communication from the item of processing equipment to the data-providing device can take place only in response to the item of processing equipment receiving a corresponding request from the data-providing device, and, after the receipt of data transmitted by the data-providing device in a request for data to be sent, the method comprising the following steps: - obtaining items of information representative of the data received and items of information representative of a type of processing operation to be applied to the data received, - obtaining statistics representative of the operating performance of the item of processing equipment, - determining said item of time information on the basis of the items of information representative of the data received, on the basis of the items of information representative of said type of processing operation to be applied to the data received, and on the basis of said statistics, - sending said determined item of time information to the data-providing device in a response to the request for data to be sent, in order to allow the data-providing device to determine the instant of transmission of said request for an end-of-processing notification to be sent, and - sending an end-of-processing notification to the data-providing device in response to the receipt of said request for an end-of-processing notification to be sent. - obtaining items of information representative of the data received and items of information representative of a type of processing operation to be applied to the data received, - obtaining statistics representative of the operating performance of the item of processing equipment, - determining said item of time information on the basis of the items of information representative of the data received, on the basis of the items of information representative of said type of processing operation to be applied to the data received, and on the basis of said statistics, - sending said determined item of time information to the data-providing device in a response to the request for data to be sent, in order to allow the data-providing device to determine the instant of transmission of said request for an end-of-processing notification to be sent, and - sending an end-of-processing notification to the data-providing device in response to the receipt of said request for an end-of-processing notification to be sent.
A process for heating a biomass moving along an industrial treatment line comprising an inlet for the incoming biomass, a heating means and a treatment station , a fraction of the biomass heated by the heating means being returned along a return branch (R) to a mixing station upstream of the heating means so as to form there, with the incoming biomass, a mixture having a temperature above the temperature of the incoming biomass, the heated biomass fraction being removed at an outlet of the treatment station , heat being recovered from the biomass downstream of the treatment station and this recovered heat being transferred to the biomass upstream of the treatment station by means of a means of heat exchange between the biomass leaving the treatment station and the biomass circulating in the line upstream of the treatment station , characterized in that the heating means is controlled using a control means (C) so that the temperature of the biomass reaches a parameterized temperature before it reaches the treatment station , the parameterized temperature being between 165°C and 205°C, preferably 185°C.
Method for fine machining a workpiece provided with a gearing , in which teeth of a gearwheel-shaped gear cutting tool , which rotates about a rotation axis (Dz), are brought into rolling engagement with teeth of the gearing of the workpiece rotating about a rotation axis (Dw) while the gear cutting tool and the workpiece are being moved relative to each other in a direction (AX+,AX-) parallel to the rotation axis (Dw) of the workpiece , wherein the thickness (dZ) of the teeth of the gear cutting tool increases, in each case, starting from their front side located in front with respect to the respective movement in axial direction (AX+,AX-), up to a thickness maximum (dZmax), characterized - in that the following applies to the ratio Bw/Bz formed by the width Bw of the teeth of the gearing of the workpiece and the width Bz of the teeth of the gear cutting tool : 2 ≤ Bw / Bz ≤ 20 , - in that the gear cutting tool , before each pass of its teeth through the tooth gaps of the gearing of the workpiece in the respective axial direction (AX+,AX-), is positioned at a position (P1,P2) in which the thickness maximum (dZmax) of the teeth of the gear cutting tool is located outside the gearing of the workpiece , and - in that the teeth of the gear cutting tool , as a consequence of the relative movement of workpiece and the gear cutting tool in axial direction (AX+,AX-), are each moved through the tooth gap of the gearing of the workpiece assigned to them until the thickness maximum (dZmax) of each tooth has exited from the tooth gap assigned to it. - in that the following applies to the ratio Bw/Bz formed by the width Bw of the teeth of the gearing of the workpiece and the width Bz of the teeth of the gear cutting tool : 2 ≤ Bw / Bz ≤ 20 , - in that the gear cutting tool , before each pass of its teeth through the tooth gaps of the gearing of the workpiece in the respective axial direction (AX+,AX-), is positioned at a position (P1,P2) in which the thickness maximum (dZmax) of the teeth of the gear cutting tool is located outside the gearing of the workpiece , and - in that the teeth of the gear cutting tool , as a consequence of the relative movement of workpiece and the gear cutting tool in axial direction (AX+,AX-), are each moved through the tooth gap of the gearing of the workpiece assigned to them until the thickness maximum (dZmax) of each tooth has exited from the tooth gap assigned to it.
A model parameter fusion method, applied to a machine learning system, wherein the machine learning system comprises M nodes and the method comprises: receiving, by an i th node, fusion indication information from a fusion controller; dividing , by the i th node, a model parameter of the i th node into N blocks according to the fusion indication information, wherein the i th node is any node of N nodes that participate in a fusion and that are of the M nodes, 1<i≤N≤M, and an i th block of the N blocks resulting from the division of the model parameter is an i th model parameter block; receiving , by the i th node, i th model parameter blocks respectively sent by other nodes of the N nodes than the i th node; fusing , by the i th node, the i th model parameter block of the i th node and the i th model parameter blocks respectively sent by the other nodes, so as to obtain the i th general model parameter block; and distributing , by the i th node, the i th general model parameter block to the other nodes of the N nodes than the i th node. receiving, by an i th node, fusion indication information from a fusion controller; dividing , by the i th node, a model parameter of the i th node into N blocks according to the fusion indication information, wherein the i th node is any node of N nodes that participate in a fusion and that are of the M nodes, 1<i≤N≤M, and an i th block of the N blocks resulting from the division of the model parameter is an i th model parameter block; receiving , by the i th node, i th model parameter blocks respectively sent by other nodes of the N nodes than the i th node; fusing , by the i th node, the i th model parameter block of the i th node and the i th model parameter blocks respectively sent by the other nodes, so as to obtain the i th general model parameter block; and distributing , by the i th node, the i th general model parameter block to the other nodes of the N nodes than the i th node.
A brake control system for a trailer which brake control system is adapted to provide roll stability control (RSP), the brake control system comprising a brake control unit, which comprises a load , exhaust and backup valve and which control unit is adapted to control pneumatically and electrically first and second ABS relay valves , each of the ABS relay valves being assigned to a single brake channel adapted to control the braking pressure on the trailer wherein the trailer is provided with at least two wheel speed sensors adapted to provide an indication of wheel speed on respective sides of the trailer and a lateral acceleration sensor so that the brake control unit can determine whether a roll stability event is about to occur, wherein each channel acts on one side of the trailer, and wherein the brake control unit determines whether there is a loss of stability based at least in part on the wheel speed sensor signals and a signal from the lateral acceleration sensor and in the event that the brake control unit determines that there is a loss of stability controls the brake pressure in one channel to provide stability control, characterised in that the brake control system comprises a further relay valve , an outlet of which relay valve supplies a pilot pressure to each of the ABS relay valves , each of which ABS relay valves is controllable by a respective further solenoid, which further solenoid is independently actuatable by the brake control unit to provide control of the braking pressure.
Turning device for a self-inking stamp, comprising a housing and an actuating bracket , wherein the housing has, on each of two opposite side walls , a control cam which is curved at least in sections for a turning shaft , wherein the actuating bracket is connected to the housing and can be displaced relative to the housing , wherein on each of two limbs which are arranged parallel to the side walls of the housing , the actuating bracket has a guide for a turning shaft , wherein the guide is arranged transversely with respect to a displacement direction of the actuating bracket with respect to the housing , wherein the guide and the control cam overlap partially and form an opening which is continuous from an outer side at least on a first side and in at least one position of the actuating bracket relative to the housing , so that a turning shaft can be introduced in the longitudinal direction from outside into the turning device , wherein the guides each have a displaceably mounted sliding bush with a bearing for a turning shaft , characterized in that the guides of the displaceably mounted sliding bushes are linear guides which each block a movement of the sliding bush in the direction of a longitudinal axis of a turning shaft to be received therein, wherein an edge strip of the respective linear guide engages in a parallel groove in the respective sliding bush.
Household robot , wherein the household robot comprises the following: - a drive facility ; - an energy storage unit ; - a sensor for scanning an environment of the household robot ; - a control device which is designed to actuate the drive facility on the basis of a signal of the sensor with energy from the energy storage unit in order to effect a predetermined travel movement of the household robot ; and - a mechanical interface , which is designed to couple a functional module by means of a form fit to the household robot securely with respect to the relative movement, - wherein the mechanical interface comprises a release device which is designed to cancel the form fit with respect to a spatial direction, - wherein the release device comprises a rotatable control element and an engaging element arranged radially on the control element , - wherein the engaging element is designed to engage or not engage into a corresponding cut-out as a function of a rotational position of the control element , characterised in that - the control element comprises a cam plate and the engaging element comprises a bolt . - a drive facility ; - an energy storage unit ; - a sensor for scanning an environment of the household robot ; - a control device which is designed to actuate the drive facility on the basis of a signal of the sensor with energy from the energy storage unit in order to effect a predetermined travel movement of the household robot ; and - a mechanical interface , which is designed to couple a functional module by means of a form fit to the household robot securely with respect to the relative movement, - wherein the mechanical interface comprises a release device which is designed to cancel the form fit with respect to a spatial direction, - wherein the release device comprises a rotatable control element and an engaging element arranged radially on the control element , - wherein the engaging element is designed to engage or not engage into a corresponding cut-out as a function of a rotational position of the control element , characterised in that - the control element comprises a cam plate and the engaging element comprises a bolt .
An oral care composition, comprising: zinc phosphate, wherein the zinc phosphate is added to the oral care composition as a preformed salt and wherein the amount of zinc phosphate is 0.05 to 5% by weight, relative to the weight of the oral care composition; and calcium silicate, in an amount of 1 to 5% by weight, relative to the weight of the oral care composition.