mhurhangee/ep-ind-claims huggingface dataset:
A device adapted to be inserted in a watercraft (20;21), said device comprising a drive support member, a longitudinal shaft, wherein, in use, the said longitudinal shaft extends longitudinally in the direction of the central longitudinal dimension of said watercraft, propulsion means (46,48) carried by the said drive support member, said propulsion means comprising a pair of flexible flappers each adapted to oscillate through an arcuate path about the said longitudinal shaft carried by said support member, wherein the said pair of flexible flappers is arranged such that, when one flexible flapper rotates in one direction, the other flexible flapper rotates in the opposite direction about the said longitudinal shaft, and the device further comprises means for applying input force (10,12) operatively associated with said propulsion means for applying input force to said propulsion means whereby as input force is applied, wherein the said flexible flappers being arranged such that in use twist to form an angle of attack for providing forward thrust with respect to the said central longitudinal dimension of said watercraft while the said flexible flappers move in both directions along said arcuate path, wherein said means for applying input force comprises a pair of pedal cranks (14, 16) coupled to said flexible flappers, a pair of pedals (10, 12), wherein the device is arranged such that, in use, fore ends of the pedals being pivotally attached to or near the fore end of the said drive support member so as to pivot about an essentially horizontal axis essentially perpendicular to the said central longitudinal dimension of said watercraft, and arranged such that the aft ends of said pedals being free to pivot about said axis such that as one pedal moves down the other pedal moves up, whereby an operator can apply step-wise force on the pedals, said pedals being arranged to make rolling or sliding contact with said pedal cranks as an operator applies force to the pedal cranks by applying step-wise force on the pedals.
Sleeve for a non-detachable connection of two tubular ends (46, 44) - having a substantially cylindrical sleeve body, - having a first sleeve end containing a first sleeve opening and - having a second sleeve end containing a second sleeve opening, - wherein the sleeve body is formed from a shaped sheet of metal and two edges (14, 16) of the sheet are connected to one another, - wherein at least one sleeve end (6, 10) is bent, characterised in that - the first sleeve end is rolled outwardly. - having a substantially cylindrical sleeve body, - having a first sleeve end containing a first sleeve opening and - having a second sleeve end containing a second sleeve opening, - wherein the sleeve body is formed from a shaped sheet of metal and two edges (14, 16) of the sheet are connected to one another, - wherein at least one sleeve end (6, 10) is bent, - the first sleeve end is rolled outwardly.
An airfoil comprising: an exterior surface defining a leading edge, a trailing edge, a suction side and a pressure side; an interior surface defining an interior cavity; trenches (214, 216, 218) in the exterior surface oriented spanwise along the leading edge; and cooling holes (220, 222, 224) communicating between the interior cavity and the trenches (214, 216, 218) such that cooling air provided to the interior cavity flows from the interior cavity through the cooling holes into the trenches, the cooling holes (220, 222, 224) having exterior apertures located in the trenches (214, 216, 218) and interior apertures located at the interior surface; the trenches (214, 216, 218) having sidewalls (284, 286), characterized by the trenches (214, 216, 218) being defined by an angle (σ) between the sidewalls (284, 286) that is between 0 degrees and 20 degrees; and the cooling holes (220, 222, 224) being inclined with respect to a local normal of the exterior surface of the airfoil at an angle of inclination (θ) between 15 degrees and 45 degrees. an exterior surface defining a leading edge, a trailing edge, a suction side and a pressure side; an interior surface defining an interior cavity; trenches (214, 216, 218) in the exterior surface oriented spanwise along the leading edge; and cooling holes (220, 222, 224) communicating between the interior cavity and the trenches (214, 216, 218) such that cooling air provided to the interior cavity flows from the interior cavity through the cooling holes into the trenches, the cooling holes (220, 222, 224) having exterior apertures located in the trenches (214, 216, 218) and interior apertures located at the interior surface; the trenches (214, 216, 218) having sidewalls (284, 286), characterized by the trenches (214, 216, 218) being defined by an angle (σ) between the sidewalls (284, 286) that is between 0 degrees and 20 degrees; and the cooling holes (220, 222, 224) being inclined with respect to a local normal of the exterior surface of the airfoil at an angle of inclination (θ) between 15 degrees and 45 degrees.
A method in a wireless communication network, the method comprising: measuring a downlink path loss to produce a measured downlink path loss; multiplying the measured downlink path loss by a predetermined factor to produce an increased downlink path loss having a value greater than the measured downlink path loss if the measured downlink path loss is greater than a threshold; calculating an uplink transmit power using the increased downlink path loss; and transmitting an uplink reference signal with the uplink transmit power to enable an uplink channel estimation. measuring a downlink path loss to produce a measured downlink path loss; multiplying the measured downlink path loss by a predetermined factor to produce an increased downlink path loss having a value greater than the measured downlink path loss if the measured downlink path loss is greater than a threshold; calculating an uplink transmit power using the increased downlink path loss; and transmitting an uplink reference signal with the uplink transmit power to enable an uplink channel estimation.
A method for producing a NdFeB system sintered magnet, wherein: i) an average grain size of main-phase grains in the NdFeB system sintered magnet is equal to or smaller than 4.5 μm; ii) a carbon content of the entire NdFeB system sintered magnet is equal to or lower than 1000 ppm; and iii) a percentage of a total volume of a carbon rich phase in a rare-earth rich phase at a grain-boundary triple point in the NdFeB system sintered magnet to a total volume of the rare-earth rich phase is equal to or lower than 50 %; the method comprising: a) a hydrogen pulverization process for coarsely pulverizing a NdFeB system alloy by making the NdFeB system alloy occlude hydrogen; b) a fine pulverization process for finely pulverizing the coarsely pulverized NdFeB system alloy so that a grain size of the alloy will be equal to or smaller than 3.2 μm in terms of a median D 50 of a grain size distribution measured by a laser diffraction method; and c) a press-less magnet-production process including a step of putting fine powder of the NdFeB alloy into a filling container and a subsequent step of orienting and sintering the fine powder as held in the filling container, wherein: the fine pulverization process and the press-less magnet-production process are performed without thermal dehydrogenation for desorbing the hydrogen occluded in the hydrogen pulverization process; and the processes from the hydrogen pulverization process through the press-less magnet-production process are performed in an oxygen-free atmosphere. i) an average grain size of main-phase grains in the NdFeB system sintered magnet is equal to or smaller than 4.5 μm; ii) a carbon content of the entire NdFeB system sintered magnet is equal to or lower than 1000 ppm; and iii) a percentage of a total volume of a carbon rich phase in a rare-earth rich phase at a grain-boundary triple point in the NdFeB system sintered magnet to a total volume of the rare-earth rich phase is equal to or lower than 50 %; a) a hydrogen pulverization process for coarsely pulverizing a NdFeB system alloy by making the NdFeB system alloy occlude hydrogen; b) a fine pulverization process for finely pulverizing the coarsely pulverized NdFeB system alloy so that a grain size of the alloy will be equal to or smaller than 3.2 μm in terms of a median D 50 of a grain size distribution measured by a laser diffraction method; and c) a press-less magnet-production process including a step of putting fine powder of the NdFeB alloy into a filling container and a subsequent step of orienting and sintering the fine powder as held in the filling container, the fine pulverization process and the press-less magnet-production process are performed without thermal dehydrogenation for desorbing the hydrogen occluded in the hydrogen pulverization process; and the processes from the hydrogen pulverization process through the press-less magnet-production process are performed in an oxygen-free atmosphere.
A method comprising: estimating a value of entropy for a multi-channel audio signal; determining a channel configuration of the multi-channel audio signal from the value of entropy; and encoding the multi-channel audio signal, wherein the mode of encoding is dependent on the channel configuration. estimating a value of entropy for a multi-channel audio signal; determining a channel configuration of the multi-channel audio signal from the value of entropy; and encoding the multi-channel audio signal, wherein the mode of encoding is dependent on the channel configuration.
A mobile station configured to be able to perform carrier aggregation using a component carrier under a first radio base station (eNB#1) and a component carrier under a second radio base station (enB#2), the mobile station comprising Media Access Control, MAC, layer functions each of which is provided for each of the component carriers or each of management units configured to manage communications with the respective radio base stations (eNB#1,eNB2), wherein each of the MAC layer functions comprises: a cost management unit configured to manage a cost of a logical channel involved in the carrier aggregation, wherein the cost of the logical channel is based on a Prioritized Bit Rate, PBR, value set for the logical channel; a priority management unit configured to manage a priority of the logical channel; and a bearer management unit configured to allocate transmission resources to data for the logical channel based on the priority and the cost of the logical channel, and the cost management unit is configured to update the cost of the logical channel managed by the cost management unit itself, based on a PBR value informed by a network. a cost management unit configured to manage a cost of a logical channel involved in the carrier aggregation, wherein the cost of the logical channel is based on a Prioritized Bit Rate, PBR, value set for the logical channel; a priority management unit configured to manage a priority of the logical channel; and a bearer management unit configured to allocate transmission resources to data for the logical channel based on the priority and the cost of the logical channel, and
A shut-off valve fault diagnosis device that performs fault diagnosis of a first shut-off valve that is disposed immediately after a gaseous fuel tank and a second shut-off valve that is disposed immediately before a regulator in a gaseous fuel supply system, the shut-off valve fault diagnosis device comprising a diagnosis processing unit that performs a valve-shutting control of the first shut-off valve, performs a valve-shutting control of the second shut-off valve after a predetermined time has passed since the valve-shutting control of the first shut-off valve, the shut-off valve fault diagnosis device being characterized in that the diagnosis processing unit performs fault diagnosis of the first shut-off valve and the second shut-off valve based on a variation tendency in a fuel pressure between the first shut-off valve and the second shut-off valve after performing the valve-shutting control of the second shut-off valve.
A surgical system, comprising: a robotic device; a surgical tool mounted on the robotic device; and a processing circuit configured to: receive image data of an anatomy; generate a virtual bone model based on the image data; identify a soft tissue attachment point on the virtual bone model; plan placement of an implant based on the soft tissue attachment point; generate a control object based on the placement of the implant; control the robotic device to confine the surgical tool within the control obj ect; predict a line of action of a ligament based on the soft tissue attachment point; augment the virtual bone model with a virtual implant model of the implant; determine whether the line of action of the ligament intersects the virtual implant model; and in response to a determination that the line of action of the ligament intersects the virtual implant model, provide an alert to a user. a robotic device; a surgical tool mounted on the robotic device; and a processing circuit configured to: receive image data of an anatomy; generate a virtual bone model based on the image data; identify a soft tissue attachment point on the virtual bone model; plan placement of an implant based on the soft tissue attachment point; generate a control object based on the placement of the implant; control the robotic device to confine the surgical tool within the control obj ect; predict a line of action of a ligament based on the soft tissue attachment point; augment the virtual bone model with a virtual implant model of the implant; determine whether the line of action of the ligament intersects the virtual implant model; and in response to a determination that the line of action of the ligament intersects the virtual implant model, provide an alert to a user. receive image data of an anatomy; generate a virtual bone model based on the image data; identify a soft tissue attachment point on the virtual bone model; plan placement of an implant based on the soft tissue attachment point; generate a control object based on the placement of the implant; control the robotic device to confine the surgical tool within the control obj ect; predict a line of action of a ligament based on the soft tissue attachment point; augment the virtual bone model with a virtual implant model of the implant; determine whether the line of action of the ligament intersects the virtual implant model; and in response to a determination that the line of action of the ligament intersects the virtual implant model, provide an alert to a user.
A storage system comprising: a first set of parallel rails or tracks and a second set of parallel rails or tracks extending transverse to the first set in a substantially horizontal plane to form a grid comprising a plurality of grid spaces; a set of uprights, the uprights and rails or tracks together defining a framework; a plurality of storage containers arranged in stacks, located beneath the rails or tracks and within the framework; at least one load handling device disposed above and operable on the rails or tracks, arranged to move laterally above the stacks on the rails ortracks, the load handling device comprising a lifting device arranged to lift one or more containers, or parts thereof, from a stack; characterised in that the system comprises deployable partition means, the deployable partition means being positioned beneath, substantially just below, the level of the grid and acting to divide the storage system into separately sealable portions, wherein the deployable partition means being activated in response to a predetermined event. a first set of parallel rails or tracks and a second set of parallel rails or tracks extending transverse to the first set in a substantially horizontal plane to form a grid comprising a plurality of grid spaces; a set of uprights, the uprights and rails or tracks together defining a framework; a plurality of storage containers arranged in stacks, located beneath the rails or tracks and within the framework; at least one load handling device disposed above and operable on the rails or tracks, arranged to move laterally above the stacks on the rails ortracks, the load handling device comprising a lifting device arranged to lift one or more containers, or parts thereof, from a stack; characterised in that the system comprises deployable partition means, the deployable partition means being positioned beneath, substantially just below, the level of the grid and acting to divide the storage system into separately sealable portions, wherein the deployable partition means being activated in response to a predetermined event.
A radiation-curable ink-jet ink comprising at least two monofunctional (meth)acrylate monomers; a monofunctional monomer selected from an N-vinyl amide, an N-acryloyl amine, or a mixture thereof; a polymerisable (meth)acrylate oligomer; a radical photoinitiator; and a colouring agent; wherein the ink has a viscosity of less than 100 mPas at 25°C; wherein the ink is substantially free of multifunctional monomers; and wherein the at least two monofunctional (meth)acrylate monomers include a combination of a cyclic monofunctional (meth)acrylate monomer and a linear acyclic-hydrocarbon monofunctional (meth)acrylate monomer.
Method for controlling an electromagnetic drive of a switching device by means of a program, wherein a processor configured by the program carries out the following steps: Measuring a control voltage applied to the switching device on the input side; Activating the electromagnetic drive in response to the measured control voltage (S14-S16, S14, S34); and the characterising step: Setting a rated voltage range depending on the measured control voltage (S18-S24). Measuring a control voltage applied to the switching device on the input side; Activating the electromagnetic drive in response to the measured control voltage (S14-S16, S14, S34); and the characterising step: Setting a rated voltage range depending on the measured control voltage (S18-S24).
A method performed by a network controller for communicating with a user equipment, UE, and controlling a small cell network component, the method comprising: transmitting, by the network controller, a measurement reporting signaling to the UE, the measurement reporting signaling indicating a radio resource management, RRM, measurement reporting configuration comprising a discovery reference signal, DRS, configuration of the UE; controlling, by the network controller, the small cell network component to only transmit to the UE a DRS in response to the small cell network component being deactivated if the UE is configured for monitoring the DRS; and characterized by transmitting, by the network controller, a deactivation signaling to the UE, the deactivation signaling indicating that the small cell network component is deactivated and indicating to the UE to monitor only the DRS signal. transmitting, by the network controller, a measurement reporting signaling to the UE, the measurement reporting signaling indicating a radio resource management, RRM, measurement reporting configuration comprising a discovery reference signal, DRS, configuration of the UE; controlling, by the network controller, the small cell network component to only transmit to the UE a DRS in response to the small cell network component being deactivated if the UE is configured for monitoring the DRS; and characterized by transmitting, by the network controller, a deactivation signaling to the UE, the deactivation signaling indicating that the small cell network component is deactivated and indicating to the UE to monitor only the DRS signal.
A nanoparticle comprising: a) a core comprising greater than 70% by weight Al; and b) a coating surrounding the core, wherein the coating comprises an epoxide-based oligomer that forms a non-pyrophoric polyether cap, and wherein the epoxide-based oligomer comprises a repeat unit having the following structure prior to any cross-polymerization: wherein: n is 2 to 20; and R 1 and R 2 are each independently alkenyl (C≤18) or a substituted version thereof. a) a core comprising greater than 70% by weight Al; and b) a coating surrounding the core, wherein the coating comprises an epoxide-based oligomer that forms a non-pyrophoric polyether cap, and wherein the epoxide-based oligomer comprises a repeat unit having the following structure prior to any cross-polymerization: wherein: n is 2 to 20; and R 1 and R 2 are each independently alkenyl (C≤18) or a substituted version thereof. n is 2 to 20; and R 1 and R 2 are each independently alkenyl (C≤18) or a substituted version thereof.
An anti-CD47 antibody for use in a method of treating a platinum resistant human epithelial ovarian cancer, comprising a. administering a priming dose of the anti-CD47 antibody to the subject, wherein the priming dose is 1 mg/kg of the anti-CD47 antibody; and b. administering a therapeutically effective dose of the anti-CD47 antibody to the subject, wherein the therapeutically effective dose of the anti-CD47 antibody is 20 to 60 mg/kg, and wherein step (b) is performed after at least about 7 days after beginning step (a) and every 7 days thereafter; and c. administering Avelumab to the subject, wherein the dose of Avelumab is 10 mg/kg, and wherein step (c) is performed at least about 7 days after step (a) and every 14 days thereafter, wherein the anti-CD47 antibody has the heavy chain and light chain sequences of SEQ ID NOs: 1 and 2, respectively. a. administering a priming dose of the anti-CD47 antibody to the subject, wherein the priming dose is 1 mg/kg of the anti-CD47 antibody; and b. administering a therapeutically effective dose of the anti-CD47 antibody to the subject, wherein the therapeutically effective dose of the anti-CD47 antibody is 20 to 60 mg/kg, and wherein step (b) is performed after at least about 7 days after beginning step (a) and every 7 days thereafter; and c. administering Avelumab to the subject, wherein the dose of Avelumab is 10 mg/kg, and wherein step (c) is performed at least about 7 days after step (a) and every 14 days thereafter, wherein the anti-CD47 antibody has the heavy chain and light chain sequences of SEQ ID NOs: 1 and 2, respectively.