mhurhangee/ep-ind-claims huggingface dataset:
Peritoneal dialysis apparatus for a continuous ambulatory peritoneal dialysis, the peritoneal dialysis apparatus comprising an organizer for use during a peritoneal dialysis treatment, and a bioelectrical impedance analyzer, a body composition monitor or both, the organizer comprising or being connected to the bioelectrical impedance analyzer, the body composition monitor or both, the organizer comprising electrodes of the bioelectrical impedance analyzer or the body composition monitor, the electrodes being integral with or attached to a surface of the organizer, the apparatus further comprising: a sensor, and a device configured for informing the patient by means of a hint indicating that a bioelectrical impedance analysis or a body composition monitoring should or should not be carried out at the present moment based on the operating state of the dialysis apparatus as detected by the sensor. the organizer comprising or being connected to the bioelectrical impedance analyzer, the body composition monitor or both, the organizer comprising electrodes of the bioelectrical impedance analyzer or the body composition monitor, the electrodes being integral with or attached to a surface of the organizer, the apparatus further comprising: a sensor, and a device configured for informing the patient by means of a hint indicating that a bioelectrical impedance analysis or a body composition monitoring should or should not be carried out at the present moment based on the operating state of the dialysis apparatus as detected by the sensor. a sensor, and a device configured for informing the patient by means of a hint indicating that a bioelectrical impedance analysis or a body composition monitoring should or should not be carried out at the present moment based on the operating state of the dialysis apparatus as detected by the sensor.
A natural gas engine in which natural gas fuel is injected into an intake system passage, diesel fuel (f) serving as an ignition source is injected into a cylinder, and when igniting the natural gas fuel, the natural gas fuel is combusted by compression ignition of the diesel fuel (f) that has been injected into the cylinder without the use of a spark ignition system, characterized in that the natural gas engine comprises: an exhaust gas introduction mechanism that introduces exhaust gas into the cylinder during an intake stroke by allowing the exhaust gas to flow back with opening of an exhaust valve or opening of an exhaust gas introduction valve; and a control device that performs control such that the amount of diesel fuel (f) to be injected into the cylinder is set to a diesel fuel amount for idling across the entire operating region except for the start-up of the natural gas engine, engine output is increased or decreased by increasing or decreasing the amount of the natural gas fuel, and fuel injection of the diesel fuel (f) into the cylinder is performed using multi-injection in a high load region in which an accelerator opening degree (α) is greater than a preset first opening degree (α1), wherein in a low load region in which the accelerator opening degree (α) is smaller than a preset second opening degree (α2), the control device performs control for actuating the exhaust gas introduction mechanism to introduce the exhaust gas into the cylinder during the intake stroke, and performs control for narrowing an exhaust shutter provided in an exhaust system passage. an exhaust gas introduction mechanism that introduces exhaust gas into the cylinder during an intake stroke by allowing the exhaust gas to flow back with opening of an exhaust valve or opening of an exhaust gas introduction valve; and a control device that performs control such that the amount of diesel fuel (f) to be injected into the cylinder is set to a diesel fuel amount for idling across the entire operating region except for the start-up of the natural gas engine, engine output is increased or decreased by increasing or decreasing the amount of the natural gas fuel, and fuel injection of the diesel fuel (f) into the cylinder is performed using multi-injection in a high load region in which an accelerator opening degree (α) is greater than a preset first opening degree (α1), wherein in a low load region in which the accelerator opening degree (α) is smaller than a preset second opening degree (α2), the control device performs control for actuating the exhaust gas introduction mechanism to introduce the exhaust gas into the cylinder during the intake stroke, and performs control for narrowing an exhaust shutter provided in an exhaust system passage.
A force transmitting assembly of an adapter assembly, comprising: a rotatable drive shaft including: a proximal portion configured to be operatively coupled to a driving member of a handle assembly; a distal portion including a threaded portion; and a flange supported on and extending from the drive shaft; a proximal strain sensor coupled to the drive shaft and disposed adjacent the flange such that longitudinal movement of the drive shaft imparts a force on the proximal strain sensor via the flange; and a distal drive member having a proximal end coupled to the threaded portion of the drive shaft and a distal end configured to be operatively coupled to a driven member of a surgical loading unit, wherein rotation of the drive shaft longitudinally moves the distal drive member relative to the drive shaft to actuate the surgical loading unit. a rotatable drive shaft including: a proximal portion configured to be operatively coupled to a driving member of a handle assembly; a distal portion including a threaded portion; and a flange supported on and extending from the drive shaft; a proximal portion configured to be operatively coupled to a driving member of a handle assembly; a distal portion including a threaded portion; and a flange supported on and extending from the drive shaft; a proximal strain sensor coupled to the drive shaft and disposed adjacent the flange such that longitudinal movement of the drive shaft imparts a force on the proximal strain sensor via the flange; and a distal drive member having a proximal end coupled to the threaded portion of the drive shaft and a distal end configured to be operatively coupled to a driven member of a surgical loading unit, wherein rotation of the drive shaft longitudinally moves the distal drive member relative to the drive shaft to actuate the surgical loading unit.
A method of producing ready-mix concrete, comprising: - positioning a facility on a body of water, the facility being configured to produce and deliver ready-mix concrete, wherein an emission that includes carbon dioxide is generated during operation of the facility; - producing the ready-mix concrete at the facility; characterised by: - generating a process water by using a feed water during production of the ready-mix concrete, the process water including at least calcium and silica ions; - separating the CO2 from the generated emission; - liquefying the separated CO2 by compressing the CO2; - adding at least a first portion of the separated CO2 to the process water; and - adding at least a second portion of the separated CO2 to the ready-mix concrete produced at the facility. - positioning a facility on a body of water, the facility being configured to produce and deliver ready-mix concrete, wherein an emission that includes carbon dioxide is generated during operation of the facility; - producing the ready-mix concrete at the facility; characterised by: - generating a process water by using a feed water during production of the ready-mix concrete, the process water including at least calcium and silica ions; - separating the CO2 from the generated emission; - liquefying the separated CO2 by compressing the CO2; - adding at least a first portion of the separated CO2 to the process water; and - adding at least a second portion of the separated CO2 to the ready-mix concrete produced at the facility.
System comprising a medical instrument and a device for guiding said medical instrument (2; 21) arranged to be inserted into a natural duct (101; 201) or an artificial duct of a patient in order to bring at least a distal end of the instrument in proximity to an internal organ (100; 200), the device comprising: - an articulated arm (3; 27) with a plurality of degrees of freedom for moving a proximal end of the instrument, - controlled locking means (7; 30) for restricting the degrees of freedom of the articulated arm, the locking means being designed so that, for at least one of the degrees of freedom, imposed restriction of said degree of freedom can be enforced when an external effort exerted on the instrument (2; 21) exceeds a predetermined threshold, and - a computing module (6; 29) for controlling the locking means, the guiding device being characterized in that it comprises image acquisition means (10; 25), carried by the instrument, for acquiring images of the organ, the computing module being based on at least said images in order to control the locking means. - an articulated arm (3; 27) with a plurality of degrees of freedom for moving a proximal end of the instrument, - controlled locking means (7; 30) for restricting the degrees of freedom of the articulated arm, the locking means being designed so that, for at least one of the degrees of freedom, imposed restriction of said degree of freedom can be enforced when an external effort exerted on the instrument (2; 21) exceeds a predetermined threshold, and - a computing module (6; 29) for controlling the locking means,
A ball bearing cage, with two side rings (3, 4) interconnected by webs, with rolling body pockets being formed in a circumferential direction between the webs, each having a square basic shape with rounded corners, characterised in that the side rings (3, 4), together with the webs, form a guide contour of each rolling body pocket which comprises between the corners thereof four convex side contours (8, 9) opposing the rounding in the corners.
A method for enhanced security in entering data to a data entry device comprising at least one computer processor and a touch-sensitive screen, comprising: the at least one computer processor generating a touch instruction to add fingerprint marks or touch marks to the touch-sensitive screen based on at least one previous touch sensed by the touch-sensitive screen; the touch-sensitive screen displaying the touch instruction, the touch instruction indicating a touch location where a user touch is to be made on the touch-sensitive screen to add the fingerprint marks or touch marks; the touch-sensitive screen sensing a first touch; and the at least one computer processor determining that the first touch is within a predetermined threshold of the touch location indicated by the touch instruction, the method being characterized in that the fingerprint marks or touch marks provide obfuscation or distortion of existing fingerprints or touch marks from at least one previous touch sensed by the touch-sensitive screen. the at least one computer processor generating a touch instruction to add fingerprint marks or touch marks to the touch-sensitive screen based on at least one previous touch sensed by the touch-sensitive screen; the touch-sensitive screen displaying the touch instruction, the touch instruction indicating a touch location where a user touch is to be made on the touch-sensitive screen to add the fingerprint marks or touch marks; the touch-sensitive screen sensing a first touch; and the at least one computer processor determining that the first touch is within a predetermined threshold of the touch location indicated by the touch instruction, the method being characterized in that the fingerprint marks or touch marks provide obfuscation or distortion of existing fingerprints or touch marks from at least one previous touch sensed by the touch-sensitive screen.
A method for controlling the load of a data concentration gateway for a wireless communication network, the method being run by the gateway and comprising: - receiving a plurality of data signals from a plurality of remote client devices, - providing a communication start date for each data signal received, - selecting a received data signal, - determining a communication end date for each data signal received, - determining a number of data signals received by the gateway that have a communication end date that is between a communication start date of the selected data signal and a communication end date of the selected data signal, - comparing said number of data signals with a threshold number, and - transmitting an alarm signal in response to the detection that said number of data signals is greater than the threshold number. - receiving a plurality of data signals from a plurality of remote client devices, - providing a communication start date for each data signal received, - selecting a received data signal, - determining a communication end date for each data signal received, - determining a number of data signals received by the gateway that have a communication end date that is between a communication start date of the selected data signal and a communication end date of the selected data signal, - comparing said number of data signals with a threshold number, and - transmitting an alarm signal in response to the detection that said number of data signals is greater than the threshold number.
A method for optimizing a download of requested data to an electronic data processing unit, EDPU, that is currently receiving multicast data through a router included in a network, the received multicast data corresponding to at least one multicast data group, a multicast group number identifying each multicast data group, the method comprising the steps of: determining that a download is to be received for use by the EDPU; sensing a receipt of any multicast data so as to identify multicast group numbers of the multicast data; recording in a list the multicast group number for each multicast data that is received; and for each of these multicast group numbers in the list, transmitting an Internet Group Management Protocol, IGMP, V2 Leave Group Message on the network line; and ignoring IGMP Membership Queries issued by the router so as to cause the router to terminate a transmission of the multicast data to free up available bandwidth for the download of the requested data. determining that a download is to be received for use by the EDPU; sensing a receipt of any multicast data so as to identify multicast group numbers of the multicast data; recording in a list the multicast group number for each multicast data that is received; and for each of these multicast group numbers in the list, transmitting an Internet Group Management Protocol, IGMP, V2 Leave Group Message on the network line; and ignoring IGMP Membership Queries issued by the router so as to cause the router to terminate a transmission of the multicast data to free up available bandwidth for the download of the requested data.
A method of preparing a conjugate, the method comprising the steps of: (a) incorporating bifunctional reagents on biomolecules or surfaces to obtain a hydrazine or oxyamino modified biomolecule or surface; (b) reacting (i) the hydrazine or oxyamino modified biomolecule or surface with (ii) a molecule, biomolecule or surface possessing a carbonyl moiety or a molecule, biomolecule or surface prepared to have a carbonyl moiety; wherein bifunctional reagent is selected from the group consisting of a reagent having formula IV, formula V or formula VI: wherein: A is NH(C=O), NH(C=S), NH(C=NH), NHNH(C=O), NHNH(C=S), NHNH(C=NH) or a direct bond; R is an amino reactive moiety selected from N-hydroxysuccinimidyl ester, p-nitrophenyl ester, hydroxybenzotriazolyl ester and pentafluorophenyl ester, or a thiol reactive group selected from maleimido, α-bromoacetamido and pyridyldisulfides; D is a carbon or nitrogen atom; E is a carbon or nitrogen atom; X is a negative counter ion, oxygen, sulfur or -NH; R 1 is hydrogen or a saturated straight chain of 1 to 12 carbon atoms; and R 2 is hydrogen or a saturated straight chain of 1 to 12 carbon atoms. (a) incorporating bifunctional reagents on biomolecules or surfaces to obtain a hydrazine or oxyamino modified biomolecule or surface; (b) reacting (i) the hydrazine or oxyamino modified biomolecule or surface with (ii) a molecule, biomolecule or surface possessing a carbonyl moiety or a molecule, biomolecule or surface prepared to have a carbonyl moiety; wherein bifunctional reagent is selected from the group consisting of a reagent having formula IV, formula V or formula VI: wherein: A is NH(C=O), NH(C=S), NH(C=NH), NHNH(C=O), NHNH(C=S), NHNH(C=NH) or a direct bond; R is an amino reactive moiety selected from N-hydroxysuccinimidyl ester, p-nitrophenyl ester, hydroxybenzotriazolyl ester and pentafluorophenyl ester, or a thiol reactive group selected from maleimido, α-bromoacetamido and pyridyldisulfides; D is a carbon or nitrogen atom; E is a carbon or nitrogen atom; X is a negative counter ion, oxygen, sulfur or -NH; R 1 is hydrogen or a saturated straight chain of 1 to 12 carbon atoms; and R 2 is hydrogen or a saturated straight chain of 1 to 12 carbon atoms. A is NH(C=O), NH(C=S), NH(C=NH), NHNH(C=O), NHNH(C=S), NHNH(C=NH) or a direct bond; R is an amino reactive moiety selected from N-hydroxysuccinimidyl ester, p-nitrophenyl ester, hydroxybenzotriazolyl ester and pentafluorophenyl ester, or a thiol reactive group selected from maleimido, α-bromoacetamido and pyridyldisulfides; D is a carbon or nitrogen atom; E is a carbon or nitrogen atom; X is a negative counter ion, oxygen, sulfur or -NH; R 1 is hydrogen or a saturated straight chain of 1 to 12 carbon atoms; and R 2 is hydrogen or a saturated straight chain of 1 to 12 carbon atoms.
An antibody or antigen binding fragment thereof comprising a heavy chain immunoglobulin variable domain (V H) and a light chain immunoglobulin variable domain (V L), wherein: (a) the V H comprises an amino acid sequence selected from the group consisting of: SEQ ID NOs: 5, 6, 8, 9, 10, 11, 13, 14, 15, and 16 and the V L comprises an amino acid sequence of SEQ ID NO: 21; or (b) the V H comprises an amino acid sequence selected from the group consisting of: SEQ ID NOs: 5, 6, and 11 and the V L comprises an amino acid sequence of SEQ ID NO: 22, wherein the antibody or antigen binding fragment binds to a CD22 polypeptide comprising an Ig-like C2-type 1 domain and/or an Ig-like C2-type 2 domain; and the antigen binding fragment is selected from the group consisting of Fab, F(ab') 2, Fab', scF v, and F v. (a) the V H comprises an amino acid sequence selected from the group consisting of: SEQ ID NOs: 5, 6, 8, 9, 10, 11, 13, 14, 15, and 16 and the V L comprises an amino acid sequence of SEQ ID NO: 21; or (b) the V H comprises an amino acid sequence selected from the group consisting of: SEQ ID NOs: 5, 6, and 11 and the V L comprises an amino acid sequence of SEQ ID NO: 22, wherein the antibody or antigen binding fragment binds to a CD22 polypeptide comprising an Ig-like C2-type 1 domain and/or an Ig-like C2-type 2 domain; and the antigen binding fragment is selected from the group consisting of Fab, F(ab') 2, Fab', scF v, and F v. the antibody or antigen binding fragment binds to a CD22 polypeptide comprising an Ig-like C2-type 1 domain and/or an Ig-like C2-type 2 domain; and the antigen binding fragment is selected from the group consisting of Fab, F(ab') 2, Fab', scF v, and F v.
Device for exhaust gas cleaning systems of diesel vehicles for retrofitting existing diesel vehicles with a diesel particle filter or as a supplement for new developments as a supporting system for vehicles with existing exhaust gas treatment systems, in particular for intra-urban driving, characterized in that at least one high-pressure injection valve (HDEV) and at least one NO x storage catalyst are arranged functionally one behind the other in the device in the direction of the flow of the exhaust gas downstream of an exhaust gas purification system of the diesel vehicle which is already present on the vehicle, the high-pressure injection valve (HDEV) installed upstream of the NO x storage catalyst at least in driving states, in which the NO x storage catalyst is not sufficiently heated, meters fuel into the device in such a way that, as a result of the catalytic conversion of the metered fuel, a temperature increase takes place in the NO x storage catalyst by means of an exothermic reaction of the fuel which brings the temperature in the NO x storage catalyst into a range of optimum NO x conversion.
A system comprising: a robotic arm operable to extend between the legs of a dairy livestock located in a milking stall of a rotary milking platform; and a controller communicatively coupled to the robotic arm, the controller operable to: determine whether a milking claw is attached to the teats of the dairy livestock; and control the robotic arm to extend between the legs of the dairy livestock based at least in part on whether the milking claw is attached. a robotic arm operable to extend between the legs of a dairy livestock located in a milking stall of a rotary milking platform; and a controller communicatively coupled to the robotic arm, the controller operable to: determine whether a milking claw is attached to the teats of the dairy livestock; and control the robotic arm to extend between the legs of the dairy livestock based at least in part on whether the milking claw is attached. determine whether a milking claw is attached to the teats of the dairy livestock; and control the robotic arm to extend between the legs of the dairy livestock based at least in part on whether the milking claw is attached.
Vehicle, comprising a chassis, on which are disposed at least one primary drive, working devices and control units, and at least two running gears fastened opposite each other laterally on the chassis and aligned parallel to one another, which each have a carrier, on which are attached running elements for driving the vehicle, at least one drivable drive unit being provided per running gear, with which at least one running element is drivable, characterized in that, on the chassis, for each running gear, the one end region of a pivot lever (4, 5) is attached in a way pivotable about a first shaft, whose other end region is linked on the carrier in a way pivotable about a second shaft, in that attached between chassis and pivot lever (4, 5) is a first actuator and between pivot lever (4, 5) and carrier is a second actuator.