mhurhangee/patent-ind-claim-en huggingface dataset:
A method for managing a storage device in a storage system, wherein the storage system comprises a client, a management server, and a storage node (1, 2, 3, or 6), the storage node comprises a Non-Volatile Memory Express, NVMe, storage device and a memory ; and the method comprises: receiving, by the client, a first accessing request, the first accessing request comprises a storage address; determining, by the client, a logical address of the NVMe storage device corresponding to the storage address; querying, by the client and from the management server, a mapping relationship between the NVMe storage device and a start address of a submission queue stored in the memory; receiving, by the client, the start address of the submission queue; sending, by the client, a second accessing request to a network interface card, NIC , of the storage node, wherein the second accessing request points to the start address of the submission queue, wherein the second accessing request comprises the logical address of the NVMe storage device; receiving, by the storage node through the NIC , the second accessing request; submitting, by the storage node through the NIC , the second accessing request to the start address of the submission queue; obtaining, by the NVMe storage device, the second accessing request from memory at the start address of the submission queue; accessing, by the NVMe storage device, data stored at physical address corresponding to the logical address according to the second accessing request. receiving, by the client, a first accessing request, the first accessing request comprises a storage address; determining, by the client, a logical address of the NVMe storage device corresponding to the storage address; querying, by the client and from the management server, a mapping relationship between the NVMe storage device and a start address of a submission queue stored in the memory; receiving, by the client, the start address of the submission queue; sending, by the client, a second accessing request to a network interface card, NIC , of the storage node, wherein the second accessing request points to the start address of the submission queue, wherein the second accessing request comprises the logical address of the NVMe storage device; receiving, by the storage node through the NIC , the second accessing request; submitting, by the storage node through the NIC , the second accessing request to the start address of the submission queue; obtaining, by the NVMe storage device, the second accessing request from memory at the start address of the submission queue; accessing, by the NVMe storage device, data stored at physical address corresponding to the logical address according to the second accessing request.
A power semiconductor module comprising a plurality of insulating substrates mounted on a base plate onto which are mounted, in one plane, Si semiconductor elements and wide-bandgap semiconductor elements , wherein said plurality of insulating substrates is arranged in a regular 2D array having two rows and two columns, two insulating substrates being in each row and two insulating substrates being in each column of said regular 2D array, wherein a plurality of the Si semiconductor elements and a plurality of the wide-bandgap semiconductor elements are mounted on each of the insulating substrates and are arranged such that, for each insulating substrate , the plurality of wide-bandgap semiconductor elements is disposed adjacent one edge of the insulating substrate , wherein the insulating substrates are disposed adjacent each other in such a manner that the wide-bandgap semiconductor elements are arranged so as to be sandwiched or surrounded by the Si semiconductor elements , wherein the Si semiconductor elements are electrically connected in anti-parallel with their respective wide-bandgap semiconductor elements , and wherein the Si semiconductor elements are Si switching elements and the wide-bandgap semiconductor elements are wide-bandgap diodes. wherein said plurality of insulating substrates is arranged in a regular 2D array having two rows and two columns, two insulating substrates being in each row and two insulating substrates being in each column of said regular 2D array, wherein a plurality of the Si semiconductor elements and a plurality of the wide-bandgap semiconductor elements are mounted on each of the insulating substrates and are arranged such that, for each insulating substrate , the plurality of wide-bandgap semiconductor elements is disposed adjacent one edge of the insulating substrate , wherein the insulating substrates are disposed adjacent each other in such a manner that the wide-bandgap semiconductor elements are arranged so as to be sandwiched or surrounded by the Si semiconductor elements , wherein the Si semiconductor elements are electrically connected in anti-parallel with their respective wide-bandgap semiconductor elements , and wherein the Si semiconductor elements are Si switching elements and the wide-bandgap semiconductor elements are wide-bandgap diodes.
Method for providing a sports flooring , in particular a clay court, a sand court or an ash court, the sports flooring comprising a top layer arranged above a dynamic layer , said method comprising i. providing a dynamic layer comprising a mixture of - lava particles and/or limestone particles and/or clinker particles , and microporous zeolite mineral particles , wherein the microporous zeolite mineral particles are present in the amount of 4% to 65% of the total mass of the dynamic layer and wherein the grain size of the microporous zeolite mineral particles is between 0.4 mm and 12 mm, and ii. applying a top layer on top of the dynamic layer . i. providing a dynamic layer comprising a mixture of - lava particles and/or limestone particles and/or clinker particles , and microporous zeolite mineral particles , wherein the microporous zeolite mineral particles are present in the amount of 4% to 65% of the total mass of the dynamic layer and wherein the grain size of the microporous zeolite mineral particles is between 0.4 mm and 12 mm, and - lava particles and/or limestone particles and/or clinker particles , and microporous zeolite mineral particles , wherein the microporous zeolite mineral particles are present in the amount of 4% to 65% of the total mass of the dynamic layer and wherein the grain size of the microporous zeolite mineral particles is between 0.4 mm and 12 mm, and ii. applying a top layer on top of the dynamic layer .
An isolated or purified T cell receptor (TCR) comprising the amino acid sequences of SEQ ID NOs: 3-8 and having antigenic specificity for Kita-Kyushu Lung Cancer Antigen 1 52-60 (KK-LC-1 52-60 ).
A rotating hydraulic machine (102; 202) comprising: - a casing , - a shaft rotatably mounted with respect to the casing, - a cam rigidly secured to one among the casing and the shaft, - a cylinder block secured in rotation to the other among the casing and the shaft, the cylinder block comprising pistons able to cooperate with the cam to generate a relative rotation between the shaft and the casing, and - first and second guide bearings each directly in abutment against the casing, characterized in that it comprises: - a sleeve rigidly secured to the shaft and extending around at least a portion of the casing, the first and second guide bearings each being directly in abutment against the sleeve, and - at least a third guide bearing (37; 43, 44) directly in abutment against the casing and the cylinder block. - a casing , - a shaft rotatably mounted with respect to the casing, - a cam rigidly secured to one among the casing and the shaft, - a cylinder block secured in rotation to the other among the casing and the shaft, the cylinder block comprising pistons able to cooperate with the cam to generate a relative rotation between the shaft and the casing, and - first and second guide bearings each directly in abutment against the casing, - a sleeve rigidly secured to the shaft and extending around at least a portion of the casing, the first and second guide bearings each being directly in abutment against the sleeve, and - at least a third guide bearing (37; 43, 44) directly in abutment against the casing and the cylinder block.
Retractable thruster system for moving a thruster on a vessel between an extended position, in which the thruster is extended below a hull's bottom, and at least one retracted position, in which the thruster is located above the hull's bottom, the system comprising a canister to which a thruster is mountable, wherein the canister is configured to be movable in a trunk in a vessel's hull structure between said extended position and said at least one retracted position, the system comprising a lifting system arranged to move the canister in the trunk between said extended position and said at least one retracted position, characterized in that the canister is arranged to provide frictional contact between at least one canister contact surface on said canister and at least one corresponding trunk contact surface on the trunk when the thruster is in said extended position in order to transfer thrust load from the thruster in operation onto the vessel's hull structure, wherein a shape of the at least one canister contact surface corresponds to a shape of the said corresponding trunk contact surface, such that the frictional forces which are built up between the canister contact surface and said corresponding trunk contact surface, when the thruster is in the extended position, provide fixation of the canister in the trunk, wherein the system further comprises a pressure unit arranged to increase the pressure of the canister onto said at least one trunk contact surface.
A battery pack comprising: a metallic accommodating frame for a lead storage battery that accommodates the lead storage battery including an electrode group in which a positive electrode plate and a negative electrode plate are stacked with a separator interposed therebetween, and a battery case for accommodating the electrode group, in which the positive electrode plate and the negative electrode plate are formed by filling an electrode material into a grid body having a protrusion that projects outwardly from a frame forming an outline in a plan view, the metallic accommodating frame comprising: a conductive housing having an opening that opens horizontally in a state where the opening faces a horizontal direction, and accommodating the lead storage battery therein; and a first protector that is disposed between a first surface facing the protrusion among surfaces forming the battery case of the lead storage battery accommodated in the housing and the housing , and is made of an insulating material, wherein the first protector includes a flat plate-shaped first main body (71a 171a) and a first standing portion that stands from an edge of the first main body , and wherein the battery pack further comprises a plurality of the lead storage batteries that are accommodated in a state of being arrayed in a direction perpendicular to an opening direction of the housing and the vertical direction. a conductive housing having an opening that opens horizontally in a state where the opening faces a horizontal direction, and accommodating the lead storage battery therein; and a first protector that is disposed between a first surface facing the protrusion among surfaces forming the battery case of the lead storage battery accommodated in the housing and the housing , and is made of an insulating material, wherein the first protector includes a flat plate-shaped first main body (71a 171a) and a first standing portion that stands from an edge of the first main body , and wherein the battery pack further comprises a plurality of the lead storage batteries that are accommodated in a state of being arrayed in a direction perpendicular to an opening direction of the housing and the vertical direction.
A water storage device , wherein the device comprises: a housing forming a water storage cavity and having a water inlet end and a water outlet end disposed opposite to the water inlet end ; a water distribution plate disposed in the water storage cavity and configured to divide the water storage cavity into a water inlet cavity towards the water inlet end and a water outlet cavity towards the water outlet end , a surface of the water distribution plate towards the water inlet end is a concave arc surface, a gap allowing water to flow through being provided between the outer edge of the water distribution plate and the inner wall of the housing; when water enters from the water inlet end, the incoming water drives the water distribution plate to move towards the water outlet end; a driving member configured to drive the water distribution plate to return to the water inlet end after the water distribution plate moves toward the water outlet end , characterized in that a water outlet slot communicated with the water storage cavity is disposed protrusively and outwardly on a side of the housing adjacent to the water outlet end, and wherein after the water distribution plate moves to the water outlet end, the water outlet slot is communicated with both the water inlet cavity and the water outlet cavity. a housing forming a water storage cavity and having a water inlet end and a water outlet end disposed opposite to the water inlet end ; a water distribution plate disposed in the water storage cavity and configured to divide the water storage cavity into a water inlet cavity towards the water inlet end and a water outlet cavity towards the water outlet end , a surface of the water distribution plate towards the water inlet end is a concave arc surface, a gap allowing water to flow through being provided between the outer edge of the water distribution plate and the inner wall of the housing; when water enters from the water inlet end, the incoming water drives the water distribution plate to move towards the water outlet end; a driving member configured to drive the water distribution plate to return to the water inlet end after the water distribution plate moves toward the water outlet end , characterized in that a water outlet slot communicated with the water storage cavity is disposed protrusively and outwardly on a side of the housing adjacent to the water outlet end, and wherein after the water distribution plate moves to the water outlet end, the water outlet slot is communicated with both the water inlet cavity and the water outlet cavity.
A surgical tracking system for assisting an operator to perform a laparoscopic surgery of a human body, said surgical tracking system comprising: a. at least one endoscope adapted to acquire real-time images of a surgical environment within said human body; b. a maneuvering subsystem adapted to control the spatial position of said endoscope during said laparoscopic surgery; and, c. a tracking subsystem in communication with said maneuvering subsystem, adapted to control the maneuvering system so as to direct and modify the spatial position of said endoscope to a region of interest; wherein said tracking subsystem comprises a data processor; said data processor is adapted to perform real-time image processing of said surgical environment and to instruct said maneuvering subsystem to modify the spatial position of said endoscope according to input received from a maneuvering function f(t); said maneuvering function f(t) is adapted to (a) receive input from at least two instructing functions g i (t), where i is 1,..., n and n ≥ 2; where t is time; i and n are integers; and, to (b) output instructions to said maneuvering subsystem based on said input from said at least two instructing functions g i (t), so as to spatially position said endoscope to said region of interest; wherein each of said instructing functions g i (t) is provided with α i (t) where i is an integer greater than or equal to 1; where α i (t) are weighting functions of each g i (t), and a n is total number of instruction functions; further wherein said weighting functions α i (t) are time-varying functions, wherein the value of which is determined by said operators. a. at least one endoscope adapted to acquire real-time images of a surgical environment within said human body; b. a maneuvering subsystem adapted to control the spatial position of said endoscope during said laparoscopic surgery; and, c. a tracking subsystem in communication with said maneuvering subsystem, adapted to control the maneuvering system so as to direct and modify the spatial position of said endoscope to a region of interest;
A mobile terminal comprising: a touchscreen disposed on one side of a main body of the terminal; a push key mounted on the main body to receive a push input; and a controller adapted to display virtual keys associated with the settings or control of the terminal on the touchscreen when the push key is pushed, and execute functions associated with a speech recognition mode when a set period of time elapses without at least one touch input on the virtual keys being sensed. a touchscreen disposed on one side of a main body of the terminal; a push key mounted on the main body to receive a push input; and a controller adapted to display virtual keys associated with the settings or control of the terminal on the touchscreen when the push key is pushed, and execute functions associated with a speech recognition mode when a set period of time elapses without at least one touch input on the virtual keys being sensed.
Support assembly for a rear end of a vehicle , wherein the support assembly forms a component of a load carrier , releasably attachable to the vehicle , in particular projecting from the rear end of the vehicle in use, or forms a component of a coupling device mounted on or attachable to a rear end of a body of the vehicle , wherein the support assembly , in the case of the load carrier , is provided for the placing of a load, and in the case of the coupling device has a mounting for a trailer coupling for attaching a trailer to the vehicle or for a load carrier coupling part for releasable coupling of a load carrier to the vehicle , wherein the support assembly has at least one support profile which has a support profile peripheral wall with support profile peripheral wall sections (45-48) at an angle to one another and/or running in a curve around the longitudinal axis of the support profile or profiles and bounding on the periphery an interior of the support profile or profiles with respect to the longitudinal axis , whereby the support profile or profiles is or are reinforced in a reinforcing section , at least along a part of its or their longitudinal axis , by at least one reinforcing profile , which has reinforcing profile wall sections running at an angle to one another and/or curved around a reinforcing profile longitudinal axis of the reinforcing profile , and resting on the support profile peripheral wall of the support profile or profiles to reinforce the support profile or profiles , wherein the reinforcing profile or profiles engages or engage in the interior of the support profile or profiles or the support profile or profiles engages or engage in a reinforcing profile interior of the reinforcing profile or profiles which is bounded by the reinforcing profile wall sections in a peripheral angle range of more than 180° extending around the longitudinal axis of the support profile or profiles , characterised in that , in the case of a component of the support profile or the reinforcing profile there is a recess in which the other component of the support profile or reinforcing profile engages.
A method comprising: forming a plurality of perforations in a ceramic mastercard by means of a first laser process, wherein forming the plurality of perforations comprises reducing a first thickness (d1) of the ceramic mastercard to a second thickness (d2) along first predefined lines; the method being characterised by : cutting through the entire thickness (d1) of the ceramic mastercard along a plurality of second predefined lines by means of a second laser process, wherein the first predefined lines and the second predefined lines overlap only partly.
An inductive sensor, wherein an annular shielding coil (2.12, 2.13) is additionally arranged outside an annular detection coil (2.2, 2.3), the shielding coil surrounds the detection coil, and the radial thickness of the shielding coil is smaller than that of the detection coil; the magnetic field generated by the shielding coil and the magnetic field generated by the detection coil are opposite in direction and partially offset, and the magnetic fields are attenuated or increased at the same time, such that the overlapped magnetic field strength can be kept constant, characterized in that a housing (1.1) of the sensor is cylindrical, the detection coil is wound on a plastic pipe (1.10), and an insulating material is filled between the detection coil and the shielding coil, at least two annular detection coils which are successively arranged along an axial direction of the housing are provided inside the housing, an annular shielding coil at least surrounds each detection coil; the radial thickness of the shielding coil is smaller that of the detection coil, and the sensor further comprises a testing circuit; the testing circuit comprises resonant circuits, voltage dividing circuits, a shielding circuit and a differential amplifying circuit; the two detection coils are respectively connected in series with a resonant capacitor (2.6, 2.7) to form the resonant circuits and are then connected in parallel to the output end of a voltage source; the two groups of resonant circuits are identical in resonant frequency; the two groups of resonant voltages generated by the resonant circuits are respectively divided by the voltage dividing circuits having the same voltage division ratio, and are then connected to positive and negative input ends of the differential amplifying circuit; the two shielding coils are connected to the positive and negative input ends of the differential amplifying circuit respectively via a Voltage follower (2.14) to form the shielding circuit; a ratio of the number of turns of the detection coil to the number of turns of the shielding coil surrounding the detection coil is proportional to the voltage division ratio of the voltage dividing circuit.