mhurhangee/patent-ind-claim-en huggingface dataset:
Method for contactlessly attaching transponders to objects , in particular in hollow chambers on beverage crates or on other crates, wherein in a first station (I) an object , which is not provided with a transponder or is provided with a non-readable transponder , is detected, an object detected in this manner in a second station (II) is exposed to a cleaning and cooling process and is cleaned and cooled by means of a lance that can apply pressurised air, after which the object is supplied to another station (III) and the lance with suctioned transponder is moved to or into the object , wherein a vacuum is applied inside the lance and after reaching the object , an overpressure is applied to the lance such that the transponder is contactlessly attached on the object , wherein a boost is generated using escaping pressurised air through a wing profiling on the lance and a lower pressure is generated when the pressurised air escapes between the lance and the transponder such that when the lance moves after attaching the transponder on the object , the wing profile slides closely along the transponder such that the transponder is pressed over its entire surface on the object without mechanical contact.
A magnetoresistive element comprising: a storage layer having a first storage magnetostriction; a sense layer having a first sense magnetostriction; a barrier layer between and in contact with the storage and sense layer ; wherein the magnetoresistive element further comprises a compensating ferromagnetic layer having a second magnetostriction different from the first storage magnetostriction and/or sense magnetostriction, and wherein the thickness of the compensating ferromagnetic layer is such that the second magnetostriction of the compensating ferromagnetic layer compensates the first storage magnetostriction and/or the first sense magnetostriction, so that a net magnetostriction of the storage layer and/or sense layer is between -10 ppm and +10 ppm or more negative than -10 ppm , characterized in that the magnetoresistive element further comprises a storage antiferromagnetic layer exchange coupling the storage layer and a ferromagnetic coupling layer comprising a Fe or Co based alloy, the ferromagnetic coupling layer being between the antiferromagnetic layer and the compensating ferromagnetic layer and being adapted for providing an exchange coupling greater than 0.05 J/m 2 . a storage layer having a first storage magnetostriction; a sense layer having a first sense magnetostriction; a barrier layer between and in contact with the storage and sense layer ; wherein the magnetoresistive element further comprises a compensating ferromagnetic layer having a second magnetostriction different from the first storage magnetostriction and/or sense magnetostriction, and wherein the thickness of the compensating ferromagnetic layer is such that the second magnetostriction of the compensating ferromagnetic layer compensates the first storage magnetostriction and/or the first sense magnetostriction, so that a net magnetostriction of the storage layer and/or sense layer is between -10 ppm and +10 ppm or more negative than -10 ppm , characterized in that the magnetoresistive element further comprises a storage antiferromagnetic layer exchange coupling the storage layer and a ferromagnetic coupling layer comprising a Fe or Co based alloy, the ferromagnetic coupling layer being between the antiferromagnetic layer and the compensating ferromagnetic layer and being adapted for providing an exchange coupling greater than 0.05 J/m 2 .
A method of delivering a plurality of seismic data acquisition units to an ocean bottom, comprising: receiving, by an underwater vehicle located in an aqueous medium, environmental information; obtaining, by the underwater vehicle based on the environmental information and a policy, an indication to perform a fly-by deployment; setting, responsive to the determination to perform the fly-by deployment and based on the environmental information, an angle of a ramp with respect to a base of the underwater vehicle , the ramp having a first end and a second end, the first end positioned closer to the base of the underwater vehicle than the second end; the method being characterised in setting a yaw angle of the ramp based on a forward velocity of the underwater vehicle ; identifying, by the underwater vehicle , a launch event for a seismic data acquisition unit of the plurality of seismic data acquisition units stored in the underwater vehicle ; and deploying, by the underwater vehicle , the seismic data acquisition unit from the second end of the ramp towards the ocean bottom based on the identification of the launch event and the environmental information. receiving, by an underwater vehicle located in an aqueous medium, environmental information; obtaining, by the underwater vehicle based on the environmental information and a policy, an indication to perform a fly-by deployment; setting, responsive to the determination to perform the fly-by deployment and based on the environmental information, an angle of a ramp with respect to a base of the underwater vehicle , the ramp having a first end and a second end, the first end positioned closer to the base of the underwater vehicle than the second end; the method being characterised in setting a yaw angle of the ramp based on a forward velocity of the underwater vehicle ; identifying, by the underwater vehicle , a launch event for a seismic data acquisition unit of the plurality of seismic data acquisition units stored in the underwater vehicle ; and deploying, by the underwater vehicle , the seismic data acquisition unit from the second end of the ramp towards the ocean bottom based on the identification of the launch event and the environmental information.
A medical dressing (200; 300; 400) comprising a backing layer , a pad , and a body contact layer , wherein the pad is arranged between the backing layer and the body contact layer , and wherein the backing layer and the body contact layer extend beyond the periphery of the pad to define a border portion around the contour of the pad , wherein the body contact layer comprises an adhesive skin contact layer and an anisotropic layer having a first (x) direction and a second (y) direction perpendicular to the first (x) direction, wherein the anisotropic layer is stiffer in the second (y) direction than in first (x) direction, wherein the anisotropic layer has a tensile force at 15% strain in the second (y) direction of at least 4 N, preferably at least 10 N, more preferably at least 15 N as measured by the tensile test described in the specification, and wherein the anisotropic layer has a tensile force at 15% strain in the second (y) direction that is at least 6 times higher, preferably at least 10 times higher than in the first (x) direction, as measured by the tensile test described in the specification.
Filter for the filtration of a liquid, comprising or composed of a support element made of a porous ceramic material, said element having a tubular or parallelepiped shape defined by an external surface and comprising, in its internal portion , a set of adjacent channels having axes parallel to one another and separated from one another by walls of said porous inorganic material, wherein: - at least some of said channels are covered on their internal surface with a porous separating membrane layer and/or - at least a portion of said outer surface is covered with a porous separating membrane layer ; said filter being characterized in that: - said layer is made of a material essentially composed of sintered grains of silicon carbide (SiC), the SiC representing more than 97% of the weight of the material constituting said layer, - the weight content of elemental oxygen of the separating membrane layer, determined by inert gas fusion, is less than 0.5%, - the porosity and the median pore diameter of the separating membrane layer, measured by analyzing negatives obtained by scanning electron microscope, are respectively between 30 and 70% and between 10 nanometers and 5 micrometers. - at least some of said channels are covered on their internal surface with a porous separating membrane layer and/or - at least a portion of said outer surface is covered with a porous separating membrane layer ; - said layer is made of a material essentially composed of sintered grains of silicon carbide (SiC), the SiC representing more than 97% of the weight of the material constituting said layer, - the weight content of elemental oxygen of the separating membrane layer, determined by inert gas fusion, is less than 0.5%, - the porosity and the median pore diameter of the separating membrane layer, measured by analyzing negatives obtained by scanning electron microscope, are respectively between 30 and 70% and between 10 nanometers and 5 micrometers.
A controlled mechanical ventilation unit , comprising a polygonal prismatic casing that houses a centrifugal fan to move air from a plurality of air inlets to an air outlet arranged transversely on the sides of the casing and aligned parallel to the bases thereof, the air inlets and the air outlet being able to be connected to respective air ducts, and the air inlets being able to be selectively closed by means of at least one air inlet cover , characterised in that it comprises a plurality of air inlets of larger diameter and a plurality of air inlets of smaller diameter such that, between two air inlets of larger diameter and laterally to said two air inlets on one same side, a plurality of air inlets of smaller diameter are arranged.
A system for providing an assistive driving force to a wheelchair comprising: (a) a power assist system comprising a motion sensing system configured to detect the motion of the power assist system, and a power assist drive system; characterized in that it further comprises (b) a sensor configured to detect a motion of a user's hand, the sensor being in communication with the power assist system. (a) a power assist system comprising a motion sensing system configured to detect the motion of the power assist system, and a power assist drive system; characterized in that it further comprises a motion sensing system configured to detect the motion of the power assist system, and a power assist drive system; characterized in that it further comprises (b) a sensor configured to detect a motion of a user's hand, the sensor being in communication with the power assist system.
A computer-implemented tear fluid layer evaluation method comprising: a step of detecting a time when color information in a predetermined region in a tear fluid layer interference fringe image changes by a first threshold value or more as an eyelid opening time; a step of extracting an image at the time when a predetermined time has passed from the eyelid opening time as an extracted image from the tear fluid interference fringe images; a determination value calculation step of calculating a determination value from the color information in each pixel in a local region by scanning a predetermined target region in the extracted image; a step of detecting a corresponding pixel by comparing the calculated determination value and a second threshold value; and an evaluation step of evaluating tear fluid layer breakdown by comparing the detected pixel and a third threshold value, wherein the determination value is a value indicating color variation calculated from the color information in the local region, characterized in that the value indicating the color variation is a value calculated as a variance or a deviation in the local region. a step of detecting a time when color information in a predetermined region in a tear fluid layer interference fringe image changes by a first threshold value or more as an eyelid opening time; a step of extracting an image at the time when a predetermined time has passed from the eyelid opening time as an extracted image from the tear fluid interference fringe images; a determination value calculation step of calculating a determination value from the color information in each pixel in a local region by scanning a predetermined target region in the extracted image; a step of detecting a corresponding pixel by comparing the calculated determination value and a second threshold value; and an evaluation step of evaluating tear fluid layer breakdown by comparing the detected pixel and a third threshold value, wherein the determination value is a value indicating color variation calculated from the color information in the local region, characterized in that the value indicating the color variation is a value calculated as a variance or a deviation in the local region.
A method for preparing carbocisteine, wherein the method comprises the following steps: in a continuous-flow reactor, carrying out a condensation reaction as shown below between L -cysteine as shown in formula I and a compound as shown in formula II in the presence of a base and in a solvent to obtain the carbocisteine as shown in formula III; wherein, the size of a reaction channel of the continuous-flow reactor is 0.01-200 mm; a molar ratio of the compound as shown in formula II to the L -cysteine as shown in formula I is 0.95:1-1.10:1; the temperature of the condensation reaction is 35±1 to 75±1 °C; a residence time of the condensation reaction is 2.08-16.67 min; R is methyl substituted by halogen. wherein, the size of a reaction channel of the continuous-flow reactor is 0.01-200 mm; a molar ratio of the compound as shown in formula II to the L -cysteine as shown in formula I is 0.95:1-1.10:1; the temperature of the condensation reaction is 35±1 to 75±1 °C; a residence time of the condensation reaction is 2.08-16.67 min; R is methyl substituted by halogen.
A method of collecting an aerosolised respirable fraction of an inhalable medicinal formulation including respirable and non-respirable particle size fractions, comprising: generating an aerosolised dose of the medicinal formulation containing respirable and non-respirable particles; removing particles of a non-respirable size from said aerosolised dose by inertial separation; delivering a pneumatic flow carrying respirable particles along an unimpeded pathway to a filter unit comprising a filter and a filter support , wherein the unimpeded pathway comprises an orifice opposed to the filter through which the pneumatic flow is delivered to the filter ; effecting filtration of the pneumatic flow at said filter such that the particles are retained on the filter ; - wherein the filter comprises a front surface onto which the pneumatic flow is delivered and a rear surface, and the filter support comprises one or more elongate support members extending across the pathway on the surface of the filter opposed to the orifice for supporting a central region of the filter , the filter support defining two to six apertures and obstructing no more than 80% of the surface area of said opposed surface, wherein the pneumatic flow is generated by a suction source that applies suction via the back surface of the filter ; and wherein the pneumatic flow is delivered though the orifice towards the filter in a laminar flow. generating an aerosolised dose of the medicinal formulation containing respirable and non-respirable particles; removing particles of a non-respirable size from said aerosolised dose by inertial separation; delivering a pneumatic flow carrying respirable particles along an unimpeded pathway to a filter unit comprising a filter and a filter support , wherein the unimpeded pathway comprises an orifice opposed to the filter through which the pneumatic flow is delivered to the filter ; effecting filtration of the pneumatic flow at said filter such that the particles are retained on the filter ; - wherein the filter comprises a front surface onto which the pneumatic flow is delivered and a rear surface, and the filter support comprises one or more elongate support members extending across the pathway on the surface of the filter opposed to the orifice for supporting a central region of the filter , the filter support defining two to six apertures and obstructing no more than 80% of the surface area of said opposed surface, - wherein the filter comprises a front surface onto which the pneumatic flow is delivered and a rear surface, and the filter support comprises one or more elongate support members extending across the pathway on the surface of the filter opposed to the orifice for supporting a central region of the filter , the filter support defining two to six apertures and obstructing no more than 80% of the surface area of said opposed surface, wherein the pneumatic flow is generated by a suction source that applies suction via the back surface of the filter ; and wherein the pneumatic flow is delivered though the orifice towards the filter in a laminar flow.
A server system , comprising: a fabric interconnect to route messages during execution of software services; a plurality of compute nodes coupled to the fabric interconnect to execute software services for the server system, each of the plurality of compute nodes configured as a cell in a cellular automaton, and wherein a state of at least one configuration field for each of the plurality of compute nodes is set based on a state of a corresponding configuration field at a connected node in the plurality of compute nodes; and wherein each of the plurality of compute nodes is to: effect transitions in a set of state fields among predefined sets of states in response to transitions in states of corresponding state fields at connected compute nodes; receive routing information based on the transitions of the set of state fields; and route received messages to others of the plurality of compute nodes via the fabric interconnect based on the routing information. a fabric interconnect to route messages during execution of software services; a plurality of compute nodes coupled to the fabric interconnect to execute software services for the server system, each of the plurality of compute nodes configured as a cell in a cellular automaton, and wherein a state of at least one configuration field for each of the plurality of compute nodes is set based on a state of a corresponding configuration field at a connected node in the plurality of compute nodes; and wherein each of the plurality of compute nodes is to: effect transitions in a set of state fields among predefined sets of states in response to transitions in states of corresponding state fields at connected compute nodes; receive routing information based on the transitions of the set of state fields; and route received messages to others of the plurality of compute nodes via the fabric interconnect based on the routing information. effect transitions in a set of state fields among predefined sets of states in response to transitions in states of corresponding state fields at connected compute nodes; receive routing information based on the transitions of the set of state fields; and route received messages to others of the plurality of compute nodes via the fabric interconnect based on the routing information.
An autonomous driving mobile service robot warehousing and delivery system comprising: a plurality of line parts ; robot bodies disposed on each line part and manually driven by a user's control or autonomously driven by control modules ; the control modules disposed on the corresponding robot bodies to provide position information of the robot bodies , receive warehousing and delivery information of the robot bodies from a server , and control driving of the robot bodies in response to the received information to store the robot bodies in the line parts or deliver the robot bodies from the line parts ; the server configured to calculate information of the number of robot bodies required according to the user's registration and usage information, transmit delivery information to the control modules , transmit warehousing information to the control modules according to the user's return request of the delivered robot bodies , and receive information of the number of delivery times from counting parts , characterized in that the server is further configured to compare the number of delivery times by line part counted by the counting parts , and transmit the compared results to the control modules to allow the robot bodies to be delivered sequentially from the line part having the smallest number of delivery times; and the counting parts are configured to count the number of delivery times of the robot bodies from the respective line parts to transmit the information of the number of delivery times to the server . a plurality of line parts ; robot bodies disposed on each line part and manually driven by a user's control or autonomously driven by control modules ; the control modules disposed on the corresponding robot bodies to provide position information of the robot bodies , receive warehousing and delivery information of the robot bodies from a server , and control driving of the robot bodies in response to the received information to store the robot bodies in the line parts or deliver the robot bodies from the line parts ; the server configured to calculate information of the number of robot bodies required according to the user's registration and usage information, transmit delivery information to the control modules , transmit warehousing information to the control modules according to the user's return request of the delivered robot bodies , and receive information of the number of delivery times from counting parts , characterized in that the server is further configured to compare the number of delivery times by line part counted by the counting parts , and transmit the compared results to the control modules to allow the robot bodies to be delivered sequentially from the line part having the smallest number of delivery times; and the counting parts are configured to count the number of delivery times of the robot bodies from the respective line parts to transmit the information of the number of delivery times to the server .
A method for wireless communication at a user equipment, UE, comprising: transmitting a random access preamble; receiving a random access response message that includes a plurality of uplink grants associated with the random access preamble, wherein each uplink grant in the plurality of uplink grants is associated with a different transmission resource; selecting an uplink grant from the plurality of uplink grants; and transmitting using the selected uplink grant. transmitting a random access preamble; receiving a random access response message that includes a plurality of uplink grants associated with the random access preamble, wherein each uplink grant in the plurality of uplink grants is associated with a different transmission resource; selecting an uplink grant from the plurality of uplink grants; and transmitting using the selected uplink grant.
A pharmaceutical composition comprising a therapeutically effective amount of 5-azacytidine, for use in a method of treating a subject having AML, wherein said method comprises orally administering said pharmaceutical composition daily for 14 or more days, wherein the composition is an immediate release composition and releases the 5-azacytidine substantially in the stomach following oral administration to a subject.