mhurhangee/ep-ind-claims huggingface dataset:
An electric grill for cooking food items, wherein the electric grill is comprised of a body containing at least one vertical grilling area disposed between at least two sources of radiant heat energy, wherein the body is adapted to direct fats and breakaway solids generated during the cooking of the food away from the cooking elements down through the body of the electric grill and out into an external receptacle; wherein the body is adapted to direct fats and breakaway solids generated during cooking to the external receptacle by means of one or more slides that define a path to the external receptacle via an external opening of the body; wherein the one or more slides that define a path to the external receptacle via the external opening formed in the body comprises a single angled slide which is disposed below the vertical grilling area and is pitched at an angle sufficient to direct fats and breakaway solids generated during the cooking of the food that drop down upon it to the external receptacle via the external opening; characterized in that the angled slide is planar and is adapted to be inserted and removed from the body of the vertical grill and is disposed between sides of the body; and wherein the angled slide is adapted to be inserted and removed from the body via the external opening.
A polymer precursor compound according to Formula I: wherein R 1 is selected from H and CO 2 R 5, R 2 is NHR 6, R 3 is a hydroxyl or glycidyl ether moiety, R 4 is a hydrogen, hydroxyl, or glycidyl ether moiety, R 5 is a carboxyl protecting moiety, R 6 is an amine protecting group, and X is O.
A fiber article, comprising: a plurality of first fibers and a plurality of second fibers each having an outer diameter smaller than that of each of the first fibers, the second fibers being supported in a dispersed state by the first fibers, wherein the plurality of second fibers include polytetrafluoroethylene in an amount greater than 50 wt.% of a total weight of the plurality of second fibers, a ratio D1/D2 of an outer diameter D1 of the first fiber to an outer diameter D2 of the second fiber is set to a value in a range of 15.0 or greater to 1666.7 or less, the outer diameter D1 is set to a value in a range of 5.0 μm or greater to 50.0 μm or less, and the outer diameter D2 is set to a value in a range of 30.0 nm or greater to 800 nm or less. a plurality of first fibers and a plurality of second fibers each having an outer diameter smaller than that of each of the first fibers, the second fibers being supported in a dispersed state by the first fibers, wherein the plurality of second fibers include polytetrafluoroethylene in an amount greater than 50 wt.% of a total weight of the plurality of second fibers, a ratio D1/D2 of an outer diameter D1 of the first fiber to an outer diameter D2 of the second fiber is set to a value in a range of 15.0 or greater to 1666.7 or less, the outer diameter D1 is set to a value in a range of 5.0 μm or greater to 50.0 μm or less, and the outer diameter D2 is set to a value in a range of 30.0 nm or greater to 800 nm or less.
A process for the manufacture of gamma,delta-unsaturated ketones of the general formula by reacting a tertiary vinyl carbinol of the general formula with an isopropenyl alkyl ether of the general formula in the presence of a catalyst of the general formula, wherein R 1 and R 6 are independently from each other methyl or ethyl, R 3 is methyl, and R 2 is a saturated or unsaturated linear, branched or cyclic hydrocarbyl group with 1 to 46 C atoms.
A system for navigating to a target through a patient's bronchial tree, the system comprising: a bronchoscope configured for insertion into the patient's bronchial tree, the bronchoscope defining a working channel; a probe insertable into the working channel of the bronchoscope and configured to navigate through the patient's bronchial tree, the probe including a location sensor; and a workstation in operative communication with the probe and the bronchoscope, the workstation including a memory and at least one processor, the memory storing a navigation plan and a program that, when executed by the processor, presents a user interface that guides a user through the navigation plan, the user interface configured to present a target alignment view for assisting the user in aligning a distal tip of the probe with the target, wherein the processor executes a maximum intensity projection algorithm which highlights structures within a limited range from a distal tip of the location sensor. a bronchoscope configured for insertion into the patient's bronchial tree, the bronchoscope defining a working channel; a probe insertable into the working channel of the bronchoscope and configured to navigate through the patient's bronchial tree, the probe including a location sensor; and a workstation in operative communication with the probe and the bronchoscope, the workstation including a memory and at least one processor, the memory storing a navigation plan and a program that, when executed by the processor, presents a user interface that guides a user through the navigation plan, the user interface configured to present a target alignment view for assisting the user in aligning a distal tip of the probe with the target, wherein the processor executes a maximum intensity projection algorithm which highlights structures within a limited range from a distal tip of the location sensor.
A method for manufacturing a radio frequency applicator comprising covering a ceramic insert with a coating, wherein the ceramic insert has dimensions that substantially match an internal volume of an open-ended, hollow waveguide, and wherein the ceramic insert has a recess therein configured to accept a radio frequency emitter; characterised by heating the waveguide to a temperature that is above a melting point of the coating; placing the coated ceramic insert into the internal volume of the heated waveguide; wherein the internal volume is completely filled except for the recess; and cooling the waveguide, ceramic insert, and coating to a temperature below the melting point of the coating so that the coating solidifies and fills gaps between facing surfaces of the insert and the waveguide. covering a ceramic insert with a coating, wherein the ceramic insert has dimensions that substantially match an internal volume of an open-ended, hollow waveguide, and wherein the ceramic insert has a recess therein configured to accept a radio frequency emitter; characterised by heating the waveguide to a temperature that is above a melting point of the coating; placing the coated ceramic insert into the internal volume of the heated waveguide; wherein the internal volume is completely filled except for the recess; and cooling the waveguide, ceramic insert, and coating to a temperature below the melting point of the coating so that the coating solidifies and fills gaps between facing surfaces of the insert and the waveguide.
An image processing method, comprising: inputting a to-be-processed image into a trained convolutional neural network model, obtaining a group of feature maps outputted by any convolutional layer; extracting a feature map of the to-be-processed image; dividing the feature map into a plurality of target regions; determining weights of the target regions according to feature vectors of the target regions; generating a feature vector of the to-be-processed image according to the weights of the target regions and the feature vectors of the target regions; and, performing an image recognition or retrieval step based on the feature vector determined based on the weights, and wherein the determined weights used for generating the feature vector enable to weaken a background region of the to-be-processed image and strength a foregoing region of the to-be-processed image; wherein determining weights of the target regions according to feature vectors of the target regions comprises: performing dimension reduction on the feature vectors of the target regions, to obtain feature scalars corresponding to the target regions; and normalizing the feature scalars corresponding to the target regions, to obtain the weights of the target regions. inputting a to-be-processed image into a trained convolutional neural network model, obtaining a group of feature maps outputted by any convolutional layer; extracting a feature map of the to-be-processed image; dividing the feature map into a plurality of target regions; determining weights of the target regions according to feature vectors of the target regions; generating a feature vector of the to-be-processed image according to the weights of the target regions and the feature vectors of the target regions; and, performing an image recognition or retrieval step based on the feature vector determined based on the weights, and wherein the determined weights used for generating the feature vector enable to weaken a background region of the to-be-processed image and strength a foregoing region of the to-be-processed image; wherein determining weights of the target regions according to feature vectors of the target regions comprises: performing dimension reduction on the feature vectors of the target regions, to obtain feature scalars corresponding to the target regions; and normalizing the feature scalars corresponding to the target regions, to obtain the weights of the target regions. performing dimension reduction on the feature vectors of the target regions, to obtain feature scalars corresponding to the target regions; and normalizing the feature scalars corresponding to the target regions, to obtain the weights of the target regions.
A holder for a media roll, the holder including: a first support (38, 42) to support (38, 42) a first end (40, 44) of the roll; a second support (38, 42) to support (38, 42) a second end (40, 44) of the roll; and characterized by: a shifter including the second support, the shifter being to increase a first distance between the first support (38, 42) and the first end (40, 44) of the roll without changing a second distance between the second support (38, 42) and the second end (40, 44) of the roll and to decrease the first distance between the first support (38, 42) and the first end (40, 44) of the roll without changing the second distance between the second support (38, 42) and the second end (40, 44) of the roll, and wherein the second support (38, 42) is movable a third distance in response to changing the first distance. a first support (38, 42) to support (38, 42) a first end (40, 44) of the roll; a second support (38, 42) to support (38, 42) a second end (40, 44) of the roll; and characterized by: a shifter including the second support, the shifter being to increase a first distance between the first support (38, 42) and the first end (40, 44) of the roll without changing a second distance between the second support (38, 42) and the second end (40, 44) of the roll and to decrease the first distance between the first support (38, 42) and the first end (40, 44) of the roll without changing the second distance between the second support (38, 42) and the second end (40, 44) of the roll, and wherein the second support (38, 42) is movable a third distance in response to changing the first distance. a shifter including the second support, the shifter being to increase a first distance between the first support (38, 42) and the first end (40, 44) of the roll without changing a second distance between the second support (38, 42) and the second end (40, 44) of the roll and to decrease the first distance between the first support (38, 42) and the first end (40, 44) of the roll without changing the second distance between the second support (38, 42) and the second end (40, 44) of the roll, and wherein the second support (38, 42) is movable a third distance in response to changing the first distance.
Method for controlling a wound-rotor three-phase electric machine of a motor vehicle, which machine is powered by chopped voltages, and comprising a step of determining current setpoints for each phase of the electric machine, including the rotor current, as a function of a torque request from the driver, comprising the following steps, during which: voltages of each phase of the electric machine are determined, via a first controller, as a function of the reference currents for each phase and as a function of measurements of the currents of each phase as well as of the measurement of the speed of rotation of the magnetic field of the electric machine, attenuation voltages for the current oscillations of each phase of the electric machine, including an attenuation voltage for the rotor, are determined, via a second controller which is distinct from the first controller, as a function of the reference currents, of measurements of the currents of each phase as well as of the measurement of the speed of rotation of the magnetic field of the electric machine, the attenuation voltage for each phase in the Park reference frame being determined as the product of a control parameter and the difference between the reference current and the current measurement, final power-supply voltage setpoints for the electric machine are determined by summing the power-supply voltages relating to each phase and the attenuation voltages relating to the corresponding phases. voltages of each phase of the electric machine are determined, via a first controller, as a function of the reference currents for each phase and as a function of measurements of the currents of each phase as well as of the measurement of the speed of rotation of the magnetic field of the electric machine, attenuation voltages for the current oscillations of each phase of the electric machine, including an attenuation voltage for the rotor, are determined, via a second controller which is distinct from the first controller, as a function of the reference currents, of measurements of the currents of each phase as well as of the measurement of the speed of rotation of the magnetic field of the electric machine, the attenuation voltage for each phase in the Park reference frame being determined as the product of a control parameter and the difference between the reference current and the current measurement, final power-supply voltage setpoints for the electric machine are determined by summing the power-supply voltages relating to each phase and the attenuation voltages relating to the corresponding phases.
A method for wireless communications at a user equipment, comprising: identifying (405, 1305), at the UE, pending data, wherein pending data includes data of at least one of a first data type or a second data type; transmitting (410, 1310) a scheduling request for a grant of resources associated with the pending data, wherein resources associated with the first data type and resources associated with the second data type have transmission time intervals, TTIs, of different durations; receiving (415, 1315), in response to the scheduling request, an uplink grant indicating a set of resources associated with the pending data; and transmitting (420, 1320), using the set of resources indicated by the uplink grant at least one of the identified data of the first data type, or a buffer status report, BSR; the method further comprising, after the receiving of the uplink grant, identifying additional data of the first type or the second type; and transmitting, using the set of resources indicated by the uplink grant, the additional data of the first data type or the second data type, wherein transmitting comprises prioritizing the identified data of the first data type and a buffer status report corresponding to additional data of the first data type or the second data type, wherein the identified data of the first data type and the additional data of the first data type or the second data type are transmitted using the set of resources indicated by the uplink grant based at least in part on the prioritizing. identifying (405, 1305), at the UE, pending data, wherein pending data includes data of at least one of a first data type or a second data type; transmitting (410, 1310) a scheduling request for a grant of resources associated with the pending data, wherein resources associated with the first data type and resources associated with the second data type have transmission time intervals, TTIs, of different durations; receiving (415, 1315), in response to the scheduling request, an uplink grant indicating a set of resources associated with the pending data; and transmitting (420, 1320), using the set of resources indicated by the uplink grant at least one of the identified data of the first data type, or a buffer status report, BSR; the method further comprising, after the receiving of the uplink grant, identifying additional data of the first type or the second type; and transmitting, using the set of resources indicated by the uplink grant, the additional data of the first data type or the second data type, wherein transmitting comprises prioritizing the identified data of the first data type and a buffer status report corresponding to additional data of the first data type or the second data type, wherein the identified data of the first data type and the additional data of the first data type or the second data type are transmitted using the set of resources indicated by the uplink grant based at least in part on the prioritizing.
A method of controlling operation of a pneumatic conveying system having a source for generating, in an active state thereof, material transport pressure in the system, transport piping and multiple material inlet points being provided in each of a number of branches (B1, B2, B3, B4) of the transport piping and communicating with the system through associated discharge valves controlling an emptying operation of associated material inlet points, wherein transport air flow is enabled in said branches by opening associated air inlet valves/air inlets (AV1-AV3) and wherein material transport conditions of the system are sensed for each of a number of material inlet points emptying operations, characterized by: - sensing the material transport conditions in each of said number of branches (B1, B2, B3, B4) of the system during inlet point emptying operations by means of pressure and air speed sensors (11, 12) of the system at one or more remote locations with regard to the material inlet points; and - determining, for each of said number of material inlet point emptying operations, a valve open time for the discharge valve of said material inlet points of said branches based on a processing (S5, S6) of sensed pressure and air speed values from said pressure and air speed sensors (11, 12) of the system. - sensing the material transport conditions in each of said number of branches (B1, B2, B3, B4) of the system during inlet point emptying operations by means of pressure and air speed sensors (11, 12) of the system at one or more remote locations with regard to the material inlet points; and - determining, for each of said number of material inlet point emptying operations, a valve open time for the discharge valve of said material inlet points of said branches based on a processing (S5, S6) of sensed pressure and air speed values from said pressure and air speed sensors (11, 12) of the system.
A fastener CHARACTERIZED IN THAT it comprises: a body (20, 220) having a deformable first end (32, 226), a second end (36, 228), and a passage (22, 222) extending through the body (20, 220) between the first end (32, 226) and second end (36, 228); a corebolt (50, 250) having a first end (54, 252) and a second end (60, 260) and a region of reduced diameter (64, 263) disposed between the first end (54, 252) and second end (60, 260); and a sleeve (70, 270) having a first end (72, 272) and a second end (74, 274), the second end (74, 274) having a bulbing portion (80, 280); wherein the corebolt (50, 250) is disposed within the sleeve (70, 270) and the body (20,220) with the first end (54, 252) of the corebolt (50, 250) in engagement with the first end (72, 272) of the sleeve (70, 270) and the first end (32, 226) of the body (20, 220) disposed adjacent the second end (74, 274) of the sleeve (70, 270); and wherein the bulbing portion (80, 280) is adapted to form an enlarged blind head (110, 300) when the corebolt (50,250) is rotated in relation to the sleeve (70, 270); wherein the first end (32, 226) of the body (20, 220) is adapted to deform radially inwardly into the region of reduced diameter (64, 263) to allow movement of the blind head (110, 300) along the body (20, 220). a body (20, 220) having a deformable first end (32, 226), a second end (36, 228), and a passage (22, 222) extending through the body (20, 220) between the first end (32, 226) and second end (36, 228); a corebolt (50, 250) having a first end (54, 252) and a second end (60, 260) and a region of reduced diameter (64, 263) disposed between the first end (54, 252) and second end (60, 260); and a sleeve (70, 270) having a first end (72, 272) and a second end (74, 274), the second end (74, 274) having a bulbing portion (80, 280); wherein the corebolt (50, 250) is disposed within the sleeve (70, 270) and the body (20,220) with the first end (54, 252) of the corebolt (50, 250) in engagement with the first end (72, 272) of the sleeve (70, 270) and the first end (32, 226) of the body (20, 220) disposed adjacent the second end (74, 274) of the sleeve (70, 270); and wherein the bulbing portion (80, 280) is adapted to form an enlarged blind head (110, 300) when the corebolt (50,250) is rotated in relation to the sleeve (70, 270); wherein the first end (32, 226) of the body (20, 220) is adapted to deform radially inwardly into the region of reduced diameter (64, 263) to allow movement of the blind head (110, 300) along the body (20, 220).
A wind turbine power generating system, comprising: a tower; a hub, and a plurality of blades connected to the hub; a rotor connected to the hub; a superconducting generator coupled to the rotor and comprising a plurality of superconductive coils; a nacelle mounted atop the tower, the superconducting generator housed within the nacelle; characterized in that it further comprises an automatic ramp-down system configured with the superconducting coils and comprising an automatically activated energy dump circuit for current withdrawn from the superconductive coils in a ramp-down process prior to a quench; and the energy dump circuit comprising one or more heat dissipating loads, wherein each of the heat dissipating loads is mounted in thermal communication with one of the tower or the nacelle that acts as a thermal heat sink (116, 118) for dispersing heat from the loads. a tower; a hub, and a plurality of blades connected to the hub; a rotor connected to the hub; a superconducting generator coupled to the rotor and comprising a plurality of superconductive coils; a nacelle mounted atop the tower, the superconducting generator housed within the nacelle; characterized in that it further comprises an automatic ramp-down system configured with the superconducting coils and comprising an automatically activated energy dump circuit for current withdrawn from the superconductive coils in a ramp-down process prior to a quench; and the energy dump circuit comprising one or more heat dissipating loads, wherein each of the heat dissipating loads is mounted in thermal communication with one of the tower or the nacelle that acts as a thermal heat sink (116, 118) for dispersing heat from the loads.