mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for delivery of a biopsy marker to a biopsy site, the apparatus comprising: (a) a grip and a cannula extending distally from the grip , the cannula having a lumen extending at least partially therethrough and a marker exit opening in the cannula communicating with the lumen; (b) at least one biopsy marker disposed in the lumen for deployment through the marker exit opening; and (c) a sterile guide including a body defining a bore and being configured to slide along the cannula , wherein the sterile guide further includes a radially extending grasping feature of unitary construction with the body , characterized in that the grasping feature includes one or more arms projecting laterally from the body , wherein the bore is configured to receive the cannula and at least a portion of the grip , wherein the body is configured to selectively transition between a closed configuration and an open configuration, wherein the body is configured to fasten to the grip when in the closed configuration, wherein the body is configured to slide along the cannula when in the open configuration. (a) a grip and a cannula extending distally from the grip , the cannula having a lumen extending at least partially therethrough and a marker exit opening in the cannula communicating with the lumen; (b) at least one biopsy marker disposed in the lumen for deployment through the marker exit opening; and (c) a sterile guide including a body defining a bore and being configured to slide along the cannula , wherein the sterile guide further includes a radially extending grasping feature of unitary construction with the body , characterized in that the grasping feature includes one or more arms projecting laterally from the body , wherein the bore is configured to receive the cannula and at least a portion of the grip , wherein the body is configured to selectively transition between a closed configuration and an open configuration, wherein the body is configured to fasten to the grip when in the closed configuration, wherein the body is configured to slide along the cannula when in the open configuration.
Handling system for handling rolling bed units , in particular beds or stretchers, the system comprising: - a support device , movable by lifting to lift a bed unit , the support device comprising two sliding portions or ends (EC1, EC2), - two guiding portions separated from one another by a lifting zone (Z) and vertically guiding a displacement of the two sliding ends of the support device, and - first driving means for linearly moving at least one sliding portion or end (EC1) of the support device and allowing lifting of the support device , the support device comprising: - a lifting portion which extends transversely with respect to the two guiding portions in a loading configuration of a bed unit , the lifting portion extending away from the two guiding portions in the loading configuration, - retaining means integral with the lifting portion , and - at least one holding element adjustable in position to move towards or away from the lifting portion , characterized in that the retaining means and the lifting portion define a receiving assembly which is bent and formed as an integral unit, the retaining means forming an abutment surface intended to be placed in contact with a determined longitudinal side or edge of the bed unit , the lifting portion extending in a central sub-zone of the lifting zone (Z) so that the casters of a bed unit are placed on either side of the lifting portion , and in that the one piece receiving assembly is pivotally mounted between the two sliding ends (EC1, EC2) about a substantially horizontal axis of rotation (X), whereby the system has a bed unit maintenance configuration in which said bed unit is raised and held by the support device while having a modified orientation as compared to the loading configuration. - a support device , movable by lifting to lift a bed unit , the support device comprising two sliding portions or ends (EC1, EC2), - two guiding portions separated from one another by a lifting zone (Z) and vertically guiding a displacement of the two sliding ends of the support device, and - first driving means for linearly moving at least one sliding portion or end (EC1) of the support device and allowing lifting of the support device , the support device comprising: - a lifting portion which extends transversely with respect to the two guiding portions in a loading configuration of a bed unit , the lifting portion extending away from the two guiding portions in the loading configuration, - retaining means integral with the lifting portion , and - at least one holding element adjustable in position to move towards or away from the lifting portion , - a lifting portion which extends transversely with respect to the two guiding portions in a loading configuration of a bed unit , the lifting portion extending away from the two guiding portions in the loading configuration, - retaining means integral with the lifting portion , and - at least one holding element adjustable in position to move towards or away from the lifting portion ,
A master node comprising: a controller adapted to determine a number of frequency layers and a number of measurement events regarding a measurement capability of a terminal in a second radio access scheme, RAT, wherein the terminal communicates with a secondary node of the second RAT together with a master node of a first RAT; a transmitter adapted to transmit the number of frequency layers and the number of measurement events regarding the measurement capability of the terminal in the second RAT to the secondary node; and a receiver adapted to receive from the secondary node a response indicating that the secondary node accepts the number of frequency layers and the number of measurement events regarding the measurement capability of the terminal, wherein the controller is adapted to control, when receiving the response, a measurement operation of the terminal based on the number of frequency layers and the number of measurement events regarding the measurement capability of the terminal, and wherein the controller is adapted to determine the number of frequency layers and the number of measurement events regarding the measurement capability of the terminal in the second RAT based on an upper limit of a sum of measurement capabilities of the terminal. a controller adapted to determine a number of frequency layers and a number of measurement events regarding a measurement capability of a terminal in a second radio access scheme, RAT, wherein the terminal communicates with a secondary node of the second RAT together with a master node of a first RAT; a transmitter adapted to transmit the number of frequency layers and the number of measurement events regarding the measurement capability of the terminal in the second RAT to the secondary node; and a receiver adapted to receive from the secondary node a response indicating that the secondary node accepts the number of frequency layers and the number of measurement events regarding the measurement capability of the terminal, wherein the controller is adapted to control, when receiving the response, a measurement operation of the terminal based on the number of frequency layers and the number of measurement events regarding the measurement capability of the terminal, and wherein the controller is adapted to determine the number of frequency layers and the number of measurement events regarding the measurement capability of the terminal in the second RAT based on an upper limit of a sum of measurement capabilities of the terminal.
A foamed material, comprising, based on the total weight of the foamed material: 50 to 90 weight percent of a semicrystalline resin selected from the group consisting of polyamides, polyesters, and combinations thereof; and 10 to 50 weight percent of a poly(phenylene ether); wherein the foamed material has a density of 40 to 700 kilograms/meter 3 at 23 °C. 50 to 90 weight percent of a semicrystalline resin selected from the group consisting of polyamides, polyesters, and combinations thereof; and 10 to 50 weight percent of a poly(phenylene ether); wherein the foamed material has a density of 40 to 700 kilograms/meter 3 at 23 °C.
A weapon accessory mount comprising pivots and configured to attach a weapon accessory comprising a weapon accessory body to a weapon configured to fire a projectile in a projectile path direction, the accessory mount further comprising a weapon bracket comprising a flexure comprising a first end and a second end, the flexure configured to receive the weapon accessory body , the weapon bracket comprising weapon bracket first pivot portion and weapon bracket second pivot portion ; characterized in that the weapon accessory body comprising a weapon accessory body first pivot portion and a weapon accessory body second pivot portion ; wherein the first pivot comprises a first pivot pin inserted through a first aperture in the weapon bracket first pivot portion and inserted through a second aperture in the weapon accessory body first pivot portion , the weapon bracket first pivot portion is configured to convert at least a portion of energy of a shock recoil from translational energy to rotational energy.
A handheld band saw comprising: a housing ; a handle coupled to the housing and configured to be grasped by a user during a cutting operation; a motor supported by the housing; a drive wheel assembly rotationally driven by the motor, the drive wheel assembly at least partially disposed within the housing; a saw blade driven by the drive wheel assembly and configured to cut a workpiece during the cutting operation; and characterized by a pipe reamer attachment coupled to the drive wheel assembly, wherein the pipe reamer attachment is configured to deburr the workpiece after completion of the cutting operation. a housing ; a handle coupled to the housing and configured to be grasped by a user during a cutting operation; a motor supported by the housing; a drive wheel assembly rotationally driven by the motor, the drive wheel assembly at least partially disposed within the housing; a saw blade driven by the drive wheel assembly and configured to cut a workpiece during the cutting operation; and characterized by a pipe reamer attachment coupled to the drive wheel assembly, wherein the pipe reamer attachment is configured to deburr the workpiece after completion of the cutting operation.
Method for estimating and compensating for leakage currents of a battery charger for an electric or hybrid motor vehicle , including, during charging, measuring a differential residual current (I diff ) between the charger and a supply network (R) for the charger, comparing the residual current with a tripping threshold (Sel), and determining a charging setpoint (I C ) from a predetermined charging profile (P R ) according to the result of the comparison, characterized in that when the residual current is higher than the tripping threshold, the charging setpoint comprises a safe charging setpoint (I CS ) configured to limit the value of leakage currents to an allowable value of leakage currents (I diffmax ) so as not to interrupt the charging, the safe charging setpoint (I CS ) being determined from the difference between the measured differential residual current (I diff ) and the tripping threshold (Sel), said difference being amplified by an amplifier with a variable gain that depends on a current (I 1 ) determined from the charging profile, and then injected into an input of a filter implementing a dynamic model, the output of said dynamic model being added to the current determined from the charging profile in order to provide said safe charging setpoint.
A method for manufacturing a tower structure of a wind turbine , the method comprising: printing, via an additive printing device , the tower structure of the wind turbine of a cementitious material ; printing, via the additive printing device , one or more additional airflow modifying features , namely a plurality of dimples or a plurality of scallops, on an outer surface of the tower structure of the wind turbine so as to reduce and/or prevent vortex shedding, excitation, and/or drag of the tower structure of the wind turbine during installation, idling, service, or operation of the wind turbine ; and curing the cementitious material so as to form the tower structure of the wind turbine . printing, via an additive printing device , the tower structure of the wind turbine of a cementitious material ; printing, via the additive printing device , one or more additional airflow modifying features , namely a plurality of dimples or a plurality of scallops, on an outer surface of the tower structure of the wind turbine so as to reduce and/or prevent vortex shedding, excitation, and/or drag of the tower structure of the wind turbine during installation, idling, service, or operation of the wind turbine ; and curing the cementitious material so as to form the tower structure of the wind turbine .
A method comprising: evicting a kernel from a field-programmable gate array - FPGA - in response to a request to program the kernel; receiving , at a fabric controller of a first computing node from a second computing node via a network fabric that couples the first computing node to the second computing node , a request to execute a kernel on the FPGA of the first computing node; instructing the FPGA to execute the kernel; and sending a result of the execution of the kernel to the second computing node via the network fabric , characterized in that the kernel that is evicted is selected based on a determination of the time elapsed since the kernel was last executed. evicting a kernel from a field-programmable gate array - FPGA - in response to a request to program the kernel; receiving , at a fabric controller of a first computing node from a second computing node via a network fabric that couples the first computing node to the second computing node , a request to execute a kernel on the FPGA of the first computing node; instructing the FPGA to execute the kernel; and sending a result of the execution of the kernel to the second computing node via the network fabric , characterized in that the kernel that is evicted is selected based on a determination of the time elapsed since the kernel was last executed.
Transport container for transporting temperature-sensitive goods to be transported, comprising an interior space for receiving the goods to be transported and a shell which encloses the interior space and comprises a thermal insulation, at least one latent heat storage and at least one active temperature control element being provided in order to control the temperature of the interior space, the shell being of multilayer design, wherein the thermal insulation, the latent heat storage and the active temperature control element are formed as layers of the shell which are separate from one another and superimposed, and the insulating layer is arranged between the active temperature control layer lying further outward and the latent heat storage layer lying further inward.
A screw compressor having a screw rotor , an electric motor for driving the screw rotor , bearings supporting the screw rotor and casings housing these members, comprising: an oil feeding passage formed in the casing for feeding oil on a high pressure side to the bearings by a differential pressure between the high pressure side and a low pressure side, characterized by : an oil feeding amount adjusting unit provided in a middle of the oil feeding passage , wherein the oil feeding amount adjusting unit includes a cylinder , a valve element provided so as to reciprocate freely inside the cylinder , and plural flow paths provided in the valve element having different flow path areas, and the plural flow paths are switched to adjust an oil feeding amount to be fed to the bearings by moving the valve element in accordance with the differential pressure between the high pressure side and the low pressure side. an oil feeding amount adjusting unit provided in a middle of the oil feeding passage , wherein the oil feeding amount adjusting unit includes a cylinder , a valve element provided so as to reciprocate freely inside the cylinder , and plural flow paths provided in the valve element having different flow path areas, and the plural flow paths are switched to adjust an oil feeding amount to be fed to the bearings by moving the valve element in accordance with the differential pressure between the high pressure side and the low pressure side.
A waveguide display element for guiding an image from a first lateral zone of the element to a second lateral zone of the element, the element comprising a plurality of waveguide layers on top of each other (10A-C, 40A-D), and at least one intermediate diffractive optical element (14AB, 14BC; 44AB, 44BC, 44AD, 44DE) arranged between two of said waveguide layers, the intermediate diffractive optical element being adapted to change the distribution of propagating light power between the waveguide layers, and wherein the waveguide has a staircase profile comprising at least one discrete step in the propagation path of light from said first zone to said second zone, the waveguide has plural waveguide layers of said plurality of waveguide layers in each of said first zone and said second zone upstream and downstream said discrete step respectively, at least one of which continues over said step as a continuous layer , and the intermediate diffractive optical element is adapted to control the distribution of light between said waveguide layers for assisting the propagating light power to pass the step. a plurality of waveguide layers on top of each other (10A-C, 40A-D), and at least one intermediate diffractive optical element (14AB, 14BC; 44AB, 44BC, 44AD, 44DE) arranged between two of said waveguide layers, the intermediate diffractive optical element being adapted to change the distribution of propagating light power between the waveguide layers, and wherein the waveguide has a staircase profile comprising at least one discrete step in the propagation path of light from said first zone to said second zone, the waveguide has plural waveguide layers of said plurality of waveguide layers in each of said first zone and said second zone upstream and downstream said discrete step respectively, at least one of which continues over said step as a continuous layer , and the intermediate diffractive optical element is adapted to control the distribution of light between said waveguide layers for assisting the propagating light power to pass the step.
A method of heat and moisture exchange that comprises: contacting an airstream with a first liquid desiccant in a first stage ; adjusting a first desiccant temperature of a desiccant external to a first liquid desiccant exchanger using an external source of heat transfer supplied with a heat transferring fluid having a heat transfer fluid temperature at the first stage; causing the desiccant to flow in a first direction counter-current to the airstream to change a humidity of the airstream by contacting with the desiccant with the airstream; contacting the airstream with a second liquid desiccant in a second stage after the first stage; adjusting a second desiccant temperature of the desiccant external to a second liquid desiccant exchanger using the external source of heat transfer supplied with the heat transferring fluid having the heat transferring fluid temperature at the second stage; where the cooling fluids are supplied in parallel to each heat exchanger in each sector of the air conditioner such that the heat transferring fluid at the first stage and the heat transferring fluid at the second stage are at approximately the same heat transfer fluid temperature; and causing the desiccant to flow in the first direction counter-current to the airstream to change a humidity of the airstream by contacting with the desiccant with the airstream; and the concentration in each stage is distinctly different from the concentration of the desiccant in the previous stages. contacting an airstream with a first liquid desiccant in a first stage ; adjusting a first desiccant temperature of a desiccant external to a first liquid desiccant exchanger using an external source of heat transfer supplied with a heat transferring fluid having a heat transfer fluid temperature at the first stage; causing the desiccant to flow in a first direction counter-current to the airstream to change a humidity of the airstream by contacting with the desiccant with the airstream; contacting the airstream with a second liquid desiccant in a second stage after the first stage; adjusting a second desiccant temperature of the desiccant external to a second liquid desiccant exchanger using the external source of heat transfer supplied with the heat transferring fluid having the heat transferring fluid temperature at the second stage; where the cooling fluids are supplied in parallel to each heat exchanger in each sector of the air conditioner such that the heat transferring fluid at the first stage and the heat transferring fluid at the second stage are at approximately the same heat transfer fluid temperature; and causing the desiccant to flow in the first direction counter-current to the airstream to change a humidity of the airstream by contacting with the desiccant with the airstream; and the concentration in each stage is distinctly different from the concentration of the desiccant in the previous stages.
A nozzle plate defining at least one nozzle connected to the nozzle plate at a base , wherein the at least one nozzle has a height (H) and a top having an inner width (Wi) and an outer width (Wo), wherein a ratio of said height (H) to said inner width (Wi) is greater than 5, and characterized in that said nozzle plate comprises a borosilicate glass.
A method for manufacturing a laminated iron core , the method comprising: a step for forming a laminate by laminating a plurality of steel plates having a plurality of holes (7a to 71, 37a to 371); a step for injecting an adhesive into a hole part (12a to 121) constituted by the plurality of holes (7a to 71, 37a to 371) being continuous in a lamination direction of the laminate; and a step for permeating the injected adhesive between the steel plates adjacent to each other in the laminate, wherein the adhesive is permeated to spread between the steel plates adjacent to each other in the laminate using capillary action that occurs between the steel plates, characterized in that the hole part (12a to 12l) is formed in a protruding part (25a to 251) provided at a position distant from a main body of the laminate, and the protruding part (25a to 251) is removable. a step for forming a laminate by laminating a plurality of steel plates having a plurality of holes (7a to 71, 37a to 371); a step for injecting an adhesive into a hole part (12a to 121) constituted by the plurality of holes (7a to 71, 37a to 371) being continuous in a lamination direction of the laminate; and a step for permeating the injected adhesive between the steel plates adjacent to each other in the laminate, wherein the adhesive is permeated to spread between the steel plates adjacent to each other in the laminate using capillary action that occurs between the steel plates, characterized in that the hole part (12a to 12l) is formed in a protruding part (25a to 251) provided at a position distant from a main body of the laminate, and the protruding part (25a to 251) is removable.