mhurhangee/ep-ind-claims huggingface dataset:
A data storage device comprising: a first non-volatile memory configured to store data; and a device controller configured to control the first non-volatile memory, wherein the device controller is configured to: receive, from a controller of a host device, a data read command including a first logical address (LBA_H) of the first non-volatile memory, and metadata (META_H); decrypt the metadata to generate a first physical address (PBA_H) corresponding to the first logical address, and first status information (PS_H) of the first non-volatile memory corresponding to the first physical address, determine a first read level using the first status information included in the data read command, and apply a voltage of the first read level to a first word line of the first non-volatile memory corresponding to the first physical address to read data. a first non-volatile memory configured to store data; and a device controller configured to control the first non-volatile memory, wherein the device controller is configured to: receive, from a controller of a host device, a data read command including a first logical address (LBA_H) of the first non-volatile memory, and metadata (META_H); decrypt the metadata to generate a first physical address (PBA_H) corresponding to the first logical address, and first status information (PS_H) of the first non-volatile memory corresponding to the first physical address, determine a first read level using the first status information included in the data read command, and apply a voltage of the first read level to a first word line of the first non-volatile memory corresponding to the first physical address to read data. receive, from a controller of a host device, a data read command including a first logical address (LBA_H) of the first non-volatile memory, and metadata (META_H); decrypt the metadata to generate a first physical address (PBA_H) corresponding to the first logical address, and first status information (PS_H) of the first non-volatile memory corresponding to the first physical address, determine a first read level using the first status information included in the data read command, and apply a voltage of the first read level to a first word line of the first non-volatile memory corresponding to the first physical address to read data.
Robotic weed treatment processing equipment for agriculture robotic system, comprising: an image recognition device for identification of weeds, a weed treatment processing device characterized in that the weed treatment processing equipment further comprises: a plant squeezer for squeezing cultivated plants, comprising a narrowing end portion and two longitudinal sides (14a, 14b), said two longitudinal sides extending backwards from the narrowing end portion when the robotic weed treatment processing equipment is mounted on the agriculture robotic system; a plant squeezer actuator operably connected to the plant squeezer for vertical displacement of the plant squeezer when the robotic weed treatment processing equipment is mounted on the agriculture robotic system; wherein the pant squeezer is configured to squeeze two parallel rows of cultivated plants to increase the weed treatment surface between said two parallel rows of cultivated plants. an image recognition device for identification of weeds, a weed treatment processing device characterized in that the weed treatment processing equipment further comprises: a plant squeezer for squeezing cultivated plants, comprising a narrowing end portion and two longitudinal sides (14a, 14b), said two longitudinal sides extending backwards from the narrowing end portion when the robotic weed treatment processing equipment is mounted on the agriculture robotic system; a plant squeezer actuator operably connected to the plant squeezer for vertical displacement of the plant squeezer when the robotic weed treatment processing equipment is mounted on the agriculture robotic system; wherein the pant squeezer is configured to squeeze two parallel rows of cultivated plants to increase the weed treatment surface between said two parallel rows of cultivated plants. a plant squeezer for squeezing cultivated plants, comprising a narrowing end portion and two longitudinal sides (14a, 14b), said two longitudinal sides extending backwards from the narrowing end portion when the robotic weed treatment processing equipment is mounted on the agriculture robotic system; a plant squeezer actuator operably connected to the plant squeezer for vertical displacement of the plant squeezer when the robotic weed treatment processing equipment is mounted on the agriculture robotic system; wherein the pant squeezer is configured to squeeze two parallel rows of cultivated plants to increase the weed treatment surface between said two parallel rows of cultivated plants.
A surgical staple (614 - figure 6) for inserting into one or more bone parts (10, 12), the surgical staple being selectively movable between a relaxed configuration and an opened configuration in which the surgical staple is biased to return and/or move toward the relaxed configuration, the surgical staple comprising: a plate made from a resilient material and including a first end, and an opposed second end, wherein the plate is curved along a length of the plate from the first end to the second end about an axis of curvature, said plate further comprising a first side section and a second side section that cantilever away from the plate, the first side section cantilevering away from the plate near the first end, and the second side section cantilevering away from the plate near the second end, said plate further including a first aperture that extends through the first side section, and a second aperture that extends through the second side section, wherein the staple further comprises: a first screw that extends through the first aperture; a second screw that extends through the second aperture, wherein the first screw and the second screw are angled toward one another when the surgical staple is in the relaxed configuration, and wherein the first screw and the second screw are designed to be inserted into a respective hole of the bone parts (10, 12) such that the threads of the screws are engaging and retaining the bone parts (10, 12) together, and wherein said axis of curvature is orthogonal to the first and second screws, and the first and second side sections extend from the side of the plate that faces towards this axis of curvature.
Method for closed-loop controlling a processing operation of a workpiece, comprising the steps of: (a) recording a pixel image at an initial time point of an interaction zone by means of a camera, wherein the workpiece is processed using an actuator having an initial actuator value; (b) converting the pixel image into a pixel vector; (c) representing the pixel vector by a sum of predetermined pixel mappings each multiplied by a corresponding feature value; (d) classifying the set of feature values on the basis of learned feature values into at least two classes of a group of classes comprising a first class of a too high actuator value, a second class of a sufficient actuator value and a third class of a too low actuator value at the initial time point; (e) performing a control step for adapting the actuator value by minimizing the error e t between a quality indicator y e and a desired value, and (f) repeating the steps (a) to (e) for further time points to perform a closed-loop controlled processing operation, the method being characterized in that the quality indicator y e is represented by the difference of the class probability of a current set of feature values being part of the third class and the class probability of a current set of feature values being part of the first class. (a) recording a pixel image at an initial time point of an interaction zone by means of a camera, wherein the workpiece is processed using an actuator having an initial actuator value; (b) converting the pixel image into a pixel vector; (c) representing the pixel vector by a sum of predetermined pixel mappings each multiplied by a corresponding feature value; (d) classifying the set of feature values on the basis of learned feature values into at least two classes of a group of classes comprising a first class of a too high actuator value, a second class of a sufficient actuator value and a third class of a too low actuator value at the initial time point; (e) performing a control step for adapting the actuator value by minimizing the error e t between a quality indicator y e and a desired value, and (f) repeating the steps (a) to (e) for further time points to perform a closed-loop controlled processing operation,
A method, comprising: introducing a bullnose assembly into a main bore of a wellbore, the bullnose assembly including a body and a bullnose tip arranged at a distal end of the body and being configured to move, by actuation, between a default configuration, where the bullnose tip exhibits a first diameter, and an actuated configuration, where the bullnose tip exhibits a second diameter different than the first diameter, actuating the bullnose assembly comprising moving a piston arranged within a piston chamber defined within the bullnose tip, and thereby moving a wedge member operatively coupled to the piston, and engaging a coil arranged about the bullnose tip with the wedge member and forcing the coil to radially expand, wherein, when the coil is radially expanded, the diameter of the bullnose tip exceeds the predetermined diameter; advancing the bullnose assembly to a deflector arranged within the main bore and defining a first channel that exhibits a predetermined diameter and communicates with a lower portion of the main bore, and a second channel that communicates with a lateral bore; and directing the bullnose assembly into either the lower portion of the main bore or the lateral bore based on a diameter of the bullnose tip as compared to the predetermined diameter. introducing a bullnose assembly into a main bore of a wellbore, the bullnose assembly including a body and a bullnose tip arranged at a distal end of the body and being configured to move, by actuation, between a default configuration, where the bullnose tip exhibits a first diameter, and an actuated configuration, where the bullnose tip exhibits a second diameter different than the first diameter, actuating the bullnose assembly comprising moving a piston arranged within a piston chamber defined within the bullnose tip, and thereby moving a wedge member operatively coupled to the piston, and engaging a coil arranged about the bullnose tip with the wedge member and forcing the coil to radially expand, wherein, when the coil is radially expanded, the diameter of the bullnose tip exceeds the predetermined diameter; advancing the bullnose assembly to a deflector arranged within the main bore and defining a first channel that exhibits a predetermined diameter and communicates with a lower portion of the main bore, and a second channel that communicates with a lateral bore; and directing the bullnose assembly into either the lower portion of the main bore or the lateral bore based on a diameter of the bullnose tip as compared to the predetermined diameter.
A recombinant human Lysosomal acid lipase for use in treating a human patient suffering from a LAL deficiency by administration to the human patient, wherein the administration is sufficient to normalize the serum levels of a liver transaminase of said human patient and to reduce liver damage in said human patient, and wherein the recombinant human LAL is for administration to the human patient between one time every 7 days and one time every 30 days.
A method comprising: providing a jet of liquid; breaking the jet of liquid into a stream of discrete volumes of liquid; being characterized by: directing a pulsed laser beam towards the stream of discrete volumes of liquid to selectively engage some discrete volumes, such that volumes of liquid in the stream of discrete volumes of liquid that are engaged by the pulsed laser beam are displaced away from the stream and volumes of liquid in the stream of discrete volumes of liquid that are not engaged by the pulsed laser beam remain in the stream; and adjusting a parameter of the pulsed laser beam to change a distance and/or direction of the displacement of the volumes of liquid that are engaged by the pulsed laser beam away from the stream. providing a jet of liquid; breaking the jet of liquid into a stream of discrete volumes of liquid; being characterized by: directing a pulsed laser beam towards the stream of discrete volumes of liquid to selectively engage some discrete volumes, such that volumes of liquid in the stream of discrete volumes of liquid that are engaged by the pulsed laser beam are displaced away from the stream and volumes of liquid in the stream of discrete volumes of liquid that are not engaged by the pulsed laser beam remain in the stream; and adjusting a parameter of the pulsed laser beam to change a distance and/or direction of the displacement of the volumes of liquid that are engaged by the pulsed laser beam away from the stream. directing a pulsed laser beam towards the stream of discrete volumes of liquid to selectively engage some discrete volumes, such that volumes of liquid in the stream of discrete volumes of liquid that are engaged by the pulsed laser beam are displaced away from the stream and volumes of liquid in the stream of discrete volumes of liquid that are not engaged by the pulsed laser beam remain in the stream; and adjusting a parameter of the pulsed laser beam to change a distance and/or direction of the displacement of the volumes of liquid that are engaged by the pulsed laser beam away from the stream.
A motor vehicle comprising: a vehicle body; an engine compartment housing an engine; a bonnet movably coupled to the body and arranged to provide a closure member for the engine compartment, the bonnet being movable between open and closed conditions to allow access to the engine compartment; and an engine air intake duct having an orifice (152; 152') through which intake air may be drawn into the engine, wherein the vehicle is provided with first and second air flow paths (F1, F2) whereby air may be supplied to the air intake duct, the first flow path comprising an air inlet aperture (110IN; 110IN') disposed at a front portion of the vehicle for receiving ram air and an air outlet aperture (110OUT; 110OUT') aft of the air inlet aperture (110IN; 110IN'), the air outlet aperture (110OUT; 110OUT') being provided in fluid communication with the air intake duct orifice (152; 152'); the second flow path being provided by a gap between a side edge of the bonnet and the body of the vehicle, whereby realtively cool ambient air may be drawn through the gap to the air intake duct. a vehicle body; an engine compartment housing an engine; a bonnet movably coupled to the body and arranged to provide a closure member for the engine compartment, the bonnet being movable between open and closed conditions to allow access to the engine compartment; and an engine air intake duct having an orifice (152; 152') through which intake air may be drawn into the engine, wherein the vehicle is provided with first and second air flow paths (F1, F2) whereby air may be supplied to the air intake duct, the first flow path comprising an air inlet aperture (110IN; 110IN') disposed at a front portion of the vehicle for receiving ram air and an air outlet aperture (110OUT; 110OUT') aft of the air inlet aperture (110IN; 110IN'), the air outlet aperture (110OUT; 110OUT') being provided in fluid communication with the air intake duct orifice (152; 152'); the second flow path being provided by a gap between a side edge of the bonnet and the body of the vehicle, whereby realtively cool ambient air may be drawn through the gap to the air intake duct.
A nucleic acid molecule encoding a polypeptide comprising a DNA binding domain and a looping factor, wherein said looping factor is a fragment of LIM domain binding 1, wherein said fragment of Ldb1 comprises amino acids 1 to about 200 of SEQ ID NO: 1.
A loop antenna comprising: a main loop which is an open loop connected to a signal source; and an amplification loop which is a closed loop having a same shape as the main loop, wherein a first capacitance is connected to the main loop, and a second capacitance is connected to the amplification loop, and the first capacitance and a first resistance are connected to the main loop in series, the second capacitance and a second resistance are connected to the amplification loop in series, the main loop and the amplification loop are arranged on a same surface of a flat substrate formed of an insulator; an internal resistance of the signal source being configured in series with the first resistance and the first capacitance, characterized by that: when a self-inductance of the main loop is equal to a self-inductance of the amplification loop, the first capacitance C1 of the main loop and the second capacitance C2 of the amplification loop satisfy the following formulae: C 1 = 1 ω 2 L 1 + R 0 + R 1 R 2 − R 0 + R 1 ωL 2 − 1 C 2 = 1 ω 2 L 1 + R 2 R 0 + R 1 − R 2 ωL 2 − 1 where L is the self-inductance of the main loop and the amplification loop, ω is an angular frequency of a signal applied to the main loop, R0 is an internal resistance of the signal source, R1 is the first resistance, and R2 is the second resistance. a main loop which is an open loop connected to a signal source; and an amplification loop which is a closed loop having a same shape as the main loop, wherein a first capacitance is connected to the main loop, and a second capacitance is connected to the amplification loop, and the first capacitance and a first resistance are connected to the main loop in series, the second capacitance and a second resistance are connected to the amplification loop in series, the main loop and the amplification loop are arranged on a same surface of a flat substrate formed of an insulator; an internal resistance of the signal source being configured in series with the first resistance and the first capacitance, characterized by that: when a self-inductance of the main loop is equal to a self-inductance of the amplification loop, the first capacitance C1 of the main loop and the second capacitance C2 of the amplification loop satisfy the following formulae: C 1 = 1 ω 2 L 1 + R 0 + R 1 R 2 − R 0 + R 1 ωL 2 − 1 C 2 = 1 ω 2 L 1 + R 2 R 0 + R 1 − R 2 ωL 2 − 1 where L is the self-inductance of the main loop and the amplification loop, ω is an angular frequency of a signal applied to the main loop, R0 is an internal resistance of the signal source, R1 is the first resistance, and R2 is the second resistance. L is the self-inductance of the main loop and the amplification loop, ω is an angular frequency of a signal applied to the main loop, R0 is an internal resistance of the signal source, R1 is the first resistance, and R2 is the second resistance.
Method for removing adhering material layers from the surface of a vehicle tyre, comprising the steps of: a) providing a vehicle tyre, the surface of the vehicle tyre being at least partially covered by an adhering material layer, b) irradiating the adhering material layer with electromagnetic radiation to heat the adhering material layer, and c) mechanically breaking the bond between the surface of the vehicle tyre and the heated adhering material layer to remove the adhering material layer. a) providing a vehicle tyre, the surface of the vehicle tyre being at least partially covered by an adhering material layer, b) irradiating the adhering material layer with electromagnetic radiation to heat the adhering material layer, and c) mechanically breaking the bond between the surface of the vehicle tyre and the heated adhering material layer to remove the adhering material layer.
A system to encourage brushing by children who are using an electric toothbrush, comprising: a display device for a power toothbrush which is in use, the display device including a display program in which a selected article progresses visually from an initial state to a final desired state as use of the toothbrush continues from the time it is turned on to the end of a desired time period for a brushing event, characterized in that the selected article deteriorates in its progression visually, depending upon the extent of failure of the user to brush for the desired time period.
A dental structure, particularly a telescope crown or a telescope prosthesis, including at least one primary portion, which is to be arranged on a tooth stump of a patient, at least one secondary portion, which is to be arranged on the primary portion, and a crown or a prosthesis, wherein the at least one secondary portion is fixed, particularly by adhesive, in the crown or the prosthesis, wherein the at least one secondary portion is constituted by a cylindrical hollow body with openings (51, 52) at its ends, characterised in that the cylindrical hollow body is formed from deformable material, wherein the cylindrical hollow body has an internal diameter, which is smaller than the external diameter of the primary portion, and is forced onto the primary portion by the application of pressure so that the secondary portion, which is constructed in the form of a cylindrical hollow body, has adopted the external shape of the primary portion by deformation during the forcing process.
A method for transferring enhanced uplink, EU, data implemented by a wireless transmit/receive unit, WTRU, comprising: storing EU data in a buffer of the WTRU, wherein the EU data is associated with a plurality of data flows, wherein the plurality of data flows are associated with a plurality of priority classes; transmitting an EU data transmission request message over an EU channel including an indication of an amount of EU data stored in the buffer and traffic volume measurement, TVM, information, wherein the TVM information includes an indication of an amount of EU data stored in the buffer associated with one of the plurality of data flows, wherein the EU data transmission request message is transmitted in an EU medium access control, MAC, protocol data unit, PDU, along with allowed EU data in a same EU MAC PDU; receiving an EU data scheduling message; determining whether the EU data scheduling message allows for the amount of EU data stored in the buffer to be transmitted; and transmitting a portion of the EU data stored in the buffer on a condition that the EU data scheduling message does not allow all of the EU data stored in the buffer to be transmitted, wherein the portion of the EU data is transmitted with TVM information in a same EU MAC PDU. storing EU data in a buffer of the WTRU, wherein the EU data is associated with a plurality of data flows, wherein the plurality of data flows are associated with a plurality of priority classes; transmitting an EU data transmission request message over an EU channel including an indication of an amount of EU data stored in the buffer and traffic volume measurement, TVM, information, wherein the TVM information includes an indication of an amount of EU data stored in the buffer associated with one of the plurality of data flows, wherein the EU data transmission request message is transmitted in an EU medium access control, MAC, protocol data unit, PDU, along with allowed EU data in a same EU MAC PDU; receiving an EU data scheduling message; determining whether the EU data scheduling message allows for the amount of EU data stored in the buffer to be transmitted; and transmitting a portion of the EU data stored in the buffer on a condition that the EU data scheduling message does not allow all of the EU data stored in the buffer to be transmitted, wherein the portion of the EU data is transmitted with TVM information in a same EU MAC PDU.