mhurhangee/patent-ind-claim-en huggingface dataset:
A system for deforming a plate member on bone , comprising: a plate member defining a plurality of openings to receive fasteners that attach the plate member to bone, wherein the plate member comprises a plurality of association sites each including a pair of undercut flanges formed by opposite edge regions of the plate member, wherein the plate member has a local long axis defined by the direction of elongation of the plate member, and a mating axis arranged parallel to the local long axis; and a pair of bending tools , wherein each of the bending tools has a mating portion and a shaft , wherein each of the bending tools is configured to be operatively associated with the plate member after the plate member is attached to bone by travel of the mating portion along the mating axis to mate the mating portion of the bending tool with each of the undercut flanges of an association site, such that rotation of the bending tool applies a moment to the plate member. a plate member defining a plurality of openings to receive fasteners that attach the plate member to bone, wherein the plate member comprises a plurality of association sites each including a pair of undercut flanges formed by opposite edge regions of the plate member, wherein the plate member has a local long axis defined by the direction of elongation of the plate member, and a mating axis arranged parallel to the local long axis; and a pair of bending tools , wherein each of the bending tools has a mating portion and a shaft , wherein each of the bending tools is configured to be operatively associated with the plate member after the plate member is attached to bone by travel of the mating portion along the mating axis to mate the mating portion of the bending tool with each of the undercut flanges of an association site, such that rotation of the bending tool applies a moment to the plate member.
A motor power conversion device configured to convert power to a motor , and further configured to obtain a motor average efficiency (ηav) and a motor loss power amount (PTloss) of a motor , to obtain an electrical power detection value (Pin) of the motor by multiplying voltage and current values, and to obtain a mechanical power detection value (Pout)of the motor by multiplying a rated torque and a rotation speed of the output shaft of the motor ; characterized by comprising: - a switching circuit configured, in a powering mode in which a direction of power flow is from a power source to a load, to set the electrical power detection value (Pin) of the motor as an upstream-side power (PXin), and to set the mechanical power detection value (Pout) of the motor as a downstream-side power (PXout), and in a regeneration mode in which a direction of power flow is from the load to the power source, to set the mechanical power detection value (Pout) as the upstream-side power (PXin), and to set the electrical power detection value (Pin) as the downstream-side power (PXout); - an absolute value circuit that performs absolute value processing on the upstream-side power (PXin) and the downstream-side power (PXout); - an integration circuit that integrates the upstream-side power and the downstream-side power subjected to the absolute value processing (PWin, PWout) and outputs the integrated values as the upstream-side power amount (Pdin) and the downstream-side power amount (Pdout); - a division circuit that divides the downstream-side power amount (Pdout) by the upstream-side power amount (Pdin) to obtain the motor average efficiency (ηav); and - a subtraction circuit that subtracts the downstream-side power amount (Pdout) from the upstream-side power amount (Pdin) to obtain the motor loss power amount (PTloss). - a switching circuit configured, in a powering mode in which a direction of power flow is from a power source to a load, to set the electrical power detection value (Pin) of the motor as an upstream-side power (PXin), and to set the mechanical power detection value (Pout) of the motor as a downstream-side power (PXout), and in a regeneration mode in which a direction of power flow is from the load to the power source, to set the mechanical power detection value (Pout) as the upstream-side power (PXin), and to set the electrical power detection value (Pin) as the downstream-side power (PXout); - an absolute value circuit that performs absolute value processing on the upstream-side power (PXin) and the downstream-side power (PXout); - an integration circuit that integrates the upstream-side power and the downstream-side power subjected to the absolute value processing (PWin, PWout) and outputs the integrated values as the upstream-side power amount (Pdin) and the downstream-side power amount (Pdout); - a division circuit that divides the downstream-side power amount (Pdout) by the upstream-side power amount (Pdin) to obtain the motor average efficiency (ηav); and - a subtraction circuit that subtracts the downstream-side power amount (Pdout) from the upstream-side power amount (Pdin) to obtain the motor loss power amount (PTloss).
A method for managing an event monitoring for a group of terminals in a wireless communication system performed by a unified data management, UDM, the method comprising: receiving, from a network exposure function, NEF, a monitoring request message for modifying a configured monitoring event, the monitoring request message including an operation of group management for the group of terminals, and a terminal identifier indicating a terminal impacted by the operation; updating the configured monitoring event for the impacted terminal identified by the terminal identifier based on the operation; identifying whether the configured monitoring event needs to be performed in an access and mobility management function, AMF; and in case that the configured monitoring event is needed to be performed in the AMF, transmitting, to the AMF associated with the impacted terminal, information for modifying the configured monitoring event, the information including the terminal identifier, wherein the operation includes at least one of an addition of the terminal to the group or a deletion of the terminal from the group. receiving, from a network exposure function, NEF, a monitoring request message for modifying a configured monitoring event, the monitoring request message including an operation of group management for the group of terminals, and a terminal identifier indicating a terminal impacted by the operation; updating the configured monitoring event for the impacted terminal identified by the terminal identifier based on the operation; identifying whether the configured monitoring event needs to be performed in an access and mobility management function, AMF; and in case that the configured monitoring event is needed to be performed in the AMF, transmitting, to the AMF associated with the impacted terminal, information for modifying the configured monitoring event, the information including the terminal identifier, wherein the operation includes at least one of an addition of the terminal to the group or a deletion of the terminal from the group.
A pressure sensing element comprising a sensing sub-element disposed on a diaphragm , the element comprising: a contact via , and an interconnect disposed between the sub-element and the contact via; a field shield disposed over the sub-element, the contact via and the interconnect, the field shield configured to reduce influence of charge accumulation on the sub-element during operation; a field shield circuit configured to substantially eliminate influence of external charge on the sub-element during operation by applying a potential to a substrate of the diaphragm and the field shield; a high-pressure port and a low-pressure port coupled to opposed sides of the diaphragm, the low-pressure port coupled via a reservoir of oil to a side of the diaphragm opposed from a pressure environment; and a passivation layer disposed between the field shield and the sub-element. a contact via , and an interconnect disposed between the sub-element and the contact via; a field shield disposed over the sub-element, the contact via and the interconnect, the field shield configured to reduce influence of charge accumulation on the sub-element during operation; a field shield circuit configured to substantially eliminate influence of external charge on the sub-element during operation by applying a potential to a substrate of the diaphragm and the field shield; a high-pressure port and a low-pressure port coupled to opposed sides of the diaphragm, the low-pressure port coupled via a reservoir of oil to a side of the diaphragm opposed from a pressure environment; and a passivation layer disposed between the field shield and the sub-element.
A method for operating an elevator system , the method comprising: - receiving a request to drive an elevator car to a destination, and - generating an elevator car motion profile to serve the received request, the elevator car motion profile comprising at least the following motion parameters of the elevator car : acceleration, maximum rated speed, and deceleration, wherein at least one of the maximum rated speed of the elevator car and the deceleration of the elevator car in the generated elevator car motion profile is defined on the basis of the destination, characterised in that if the destination is an extreme destination, the maximum rated speed and/or the maximum deceleration of the elevator car in the generated elevator car motion profile is lower than the maximum rated speed and/or the maximum deceleration of the elevator car in the generated elevator car motion profile , if the destination is any other destination than the extreme destination. - receiving a request to drive an elevator car to a destination, and - generating an elevator car motion profile to serve the received request, the elevator car motion profile comprising at least the following motion parameters of the elevator car : acceleration, maximum rated speed, and deceleration, wherein at least one of the maximum rated speed of the elevator car and the deceleration of the elevator car in the generated elevator car motion profile is defined on the basis of the destination, characterised in that if the destination is an extreme destination, the maximum rated speed and/or the maximum deceleration of the elevator car in the generated elevator car motion profile is lower than the maximum rated speed and/or the maximum deceleration of the elevator car in the generated elevator car motion profile , if the destination is any other destination than the extreme destination. wherein at least one of the maximum rated speed of the elevator car and the deceleration of the elevator car in the generated elevator car motion profile is defined on the basis of the destination, characterised in that if the destination is an extreme destination, the maximum rated speed and/or the maximum deceleration of the elevator car in the generated elevator car motion profile is lower than the maximum rated speed and/or the maximum deceleration of the elevator car in the generated elevator car motion profile , if the destination is any other destination than the extreme destination.
The compound 2-[4-(1,1-dimethylethyl)phenyl]-1H-benzimidazole, or a pharmaceutically acceptable salt thereof, for use in preventing and/or treating neuroinflammation in a subject, wherein said subject is 45-60 years old or over 60 years old.
Applicator head (10; 110; 210) for coupling to a reservoir for the purpose of discharging liquid or paste-like media from the reservoir , having - a housing with a coupling device for coupling to the reservoir , - an inlet opening facing the reservoir , and an applicator opening for dispensing the medium into a surrounding atmosphere, - a conveyor device for conveying the medium from the inlet opening to the applicator opening , and - an actuating handle , which can be moved manually relative to the housing , in order to actuate the conveyor device , wherein a one-piece component which is produced as an injection-moulded part from two plastics materials having different properties is provided, characterized in that this component - on the one hand forms the actuating handle and/or a piston of the conveyor device, - and forms a spring acting as a return spring between the actuating handle and/or the piston on the one hand, and the housing on the other hand, and wherein at least one guide surface of the actuating handle for guiding the actuating handle so as to slide relative to the housing and/or at least one slide seal surface of the piston for sealing the pump chamber are/is fabricated from a first of the two plastics materials, and the spring is fabricated from a second of the two plastics materials. - a housing with a coupling device for coupling to the reservoir , - an inlet opening facing the reservoir , and an applicator opening for dispensing the medium into a surrounding atmosphere, - a conveyor device for conveying the medium from the inlet opening to the applicator opening , and - an actuating handle , which can be moved manually relative to the housing , in order to actuate the conveyor device , - on the one hand forms the actuating handle and/or a piston of the conveyor device, - and forms a spring acting as a return spring between the actuating handle and/or the piston on the one hand, and the housing on the other hand,
An imaging system configured to generate video streams of a moving target in a predefined area , the imaging system comprising: first and second image capture devices configured to be movable and to capture first and second video streams of the moving target from a first direction; third and fourth image capture devices configured to be movable and to capture third and fourth video streams of the moving target from a second and third directions, the second and third directions being substantially opposite to one another and substantially perpendicular to the first direction; a fifth image capture device configured to be stationary and to capture a fifth video stream of the moving target from a fourth direction, the fourth direction being substantially perpendicular to the first to third directions; and a controller configured to move the first to fourth image capture devices along with the moving target in the predefined area. first and second image capture devices configured to be movable and to capture first and second video streams of the moving target from a first direction; third and fourth image capture devices configured to be movable and to capture third and fourth video streams of the moving target from a second and third directions, the second and third directions being substantially opposite to one another and substantially perpendicular to the first direction; a fifth image capture device configured to be stationary and to capture a fifth video stream of the moving target from a fourth direction, the fourth direction being substantially perpendicular to the first to third directions; and a controller configured to move the first to fourth image capture devices along with the moving target in the predefined area.
A system for carrying out a non-invasive treatment for reducing fats through cold comprising: - a central unit comprising a control device ; - a cooling fluid; - a cooling device , the cooling device being configured to cool the cooling fluid to a cooling temperature lower than 0°C, the control device controlling the cooling device ; - at least one applicator designed to carry out a localized non-invasive treatment of fats through cold, the applicator comprising a cavity defined by a wall , said cavity being designed to receive a localized wad or mass of fat of a patient; - a suction duct which opens into the cavity , and is arranged to suck the wad into said cavity ; - a transport device which is configured to convey the cooling fluid cooled by the cooling device from the central unit to the interior of the applicator , the wall being adapted to be indirectly cooled by the cooling device , and in that the cooling device is arranged at a distance from the applicator , characterized in that the cooling fluid has a solidification temperature equal to or higher than -13°C. - a central unit comprising a control device ; - a cooling fluid; - a cooling device , the cooling device being configured to cool the cooling fluid to a cooling temperature lower than 0°C, the control device controlling the cooling device ; - at least one applicator designed to carry out a localized non-invasive treatment of fats through cold, the applicator comprising a cavity defined by a wall , said cavity being designed to receive a localized wad or mass of fat of a patient; - a suction duct which opens into the cavity , and is arranged to suck the wad into said cavity ; - a transport device which is configured to convey the cooling fluid cooled by the cooling device from the central unit to the interior of the applicator , the wall being adapted to be indirectly cooled by the cooling device , and in that the cooling device is arranged at a distance from the applicator , characterized in that the cooling fluid has a solidification temperature equal to or higher than -13°C.
A guidance system in augmented reality for a surgical operation of a joint part of a bone, the system comprising: - a tracking element intended to be fixed on the joint part of the bone, the tracking element comprising, on one hand, at least one support face on the joint part custom-designed from a virtual model of the joint part of the bone and, on the other hand, a three-dimensional visual marker ; - a camera intended to visualize and track the marker ; - a processing system configured to process data from the virtual bone model and realtime image data from the camera to determine the position and orientation of the tracking element , so as to display on a display attached to the camera , and superimposed on the user's field of vision, a three-dimensional virtual representation of at least one geometric data related to the bone model, whose position and orientation are determined by the position and orientation of the tracking element ; - a probe also equipped with a three-dimensional visual marker and intended to probe at least three areas of a part of the bone outside the cartilage zone, the marker of the probe is also intended to be tracked by the camera , characterized in that the processing system is further configured to determine the position and orientation of the probe relative to the position and orientation of the tracking element , so as to correct on the display and after probing, the position and orientation of the three-dimensional virtual representation of the geometric data related to the bone model relative to the tracking element . - a tracking element intended to be fixed on the joint part of the bone, the tracking element comprising, on one hand, at least one support face on the joint part custom-designed from a virtual model of the joint part of the bone and, on the other hand, a three-dimensional visual marker ; - a camera intended to visualize and track the marker ; - a processing system configured to process data from the virtual bone model and realtime image data from the camera to determine the position and orientation of the tracking element , so as to display on a display attached to the camera , and superimposed on the user's field of vision, a three-dimensional virtual representation of at least one geometric data related to the bone model, whose position and orientation are determined by the position and orientation of the tracking element ; - a probe also equipped with a three-dimensional visual marker and intended to probe at least three areas of a part of the bone outside the cartilage zone, the marker of the probe is also intended to be tracked by the camera , characterized in that the processing system is further configured to determine the position and orientation of the probe relative to the position and orientation of the tracking element , so as to correct on the display and after probing, the position and orientation of the three-dimensional virtual representation of the geometric data related to the bone model relative to the tracking element .
A network optical device controller comprising: a network interface for communicating with a network comprising a plurality of optically switchable windows in one or more structures; a remote device interface configured to receive communications from a remote wireless device ; logic for providing instructions for controlling optical states of the plurality of optically switchable windows in the one or more structures; and logic for receiving user instructions for commissioning the plurality of optically switchable devices from the remote wireless device, and executing network operations to commission said devices, characterised in that the logic for receiving user instructions for commissioning the plurality of optically switchable devices comprises: logic for inventorying un-commissioned optically switchable windows in the one or more structures; and logic for validating one or more of the plurality of optically switchable windows based upon user input received on the remote device. a network interface for communicating with a network comprising a plurality of optically switchable windows in one or more structures; a remote device interface configured to receive communications from a remote wireless device ; logic for providing instructions for controlling optical states of the plurality of optically switchable windows in the one or more structures; and logic for receiving user instructions for commissioning the plurality of optically switchable devices from the remote wireless device, and executing network operations to commission said devices, characterised in that the logic for receiving user instructions for commissioning the plurality of optically switchable devices comprises: logic for inventorying un-commissioned optically switchable windows in the one or more structures; and logic for validating one or more of the plurality of optically switchable windows based upon user input received on the remote device. logic for inventorying un-commissioned optically switchable windows in the one or more structures; and logic for validating one or more of the plurality of optically switchable windows based upon user input received on the remote device.