mhurhangee/patent-ind-claim-en huggingface dataset:
A locking arrangement for a switchgear cabinet, having a switchgear cabinet door which has on its inside a push-rod lock which projects through the switchgear cabinet door to the front side of the switchgear cabinet door via a coupling piece , wherein an actuating member is fixed to the front side via a handle adapter arranged between the actuating member and the switch cabinet door and forming a flat support for the actuating member , and is coupled to the coupling piece , for which purpose the switch cabinet door has at least one adapter plate , onto which the handle adapter is placed in a form-fitting manner via at least one aperture , the adapter plate having, on its side facing the actuating member , a fastening element , by means of which the actuating member is fixed to the adapter plate .
A secondary battery , comprising an electrode assembly which comprises a cell and tabs extending from the cell, the cell comprising a negative electrode plate, the negative electrode plate comprising a negative current collector and a negative electrode film arranged on at least one surfaces of the negative current collector and comprising a negative active material, wherein the negative active material comprises artificial graphite comprising secondary particles; and characterized in that the cell satisfies 9 cm ≤ 0.5 × a 2 + b 2 ≤ 13 cm , and a ≤ 15 cm, where a is the maximum size of the cell in the direction in which the tabs extend, in cm; and b is the maximum size of the cell in a direction perpendicularly intersecting with the direction in which the tabs extend, in cm, wherein the cell further satisfies 0.3 ≤ a/b ≤ 0.8; and wherein number percentage S of the secondary particles in the artificial graphite, as measured using the test method defined in JY/T010-1996, satisfies 20% ≤ S ≤ 100%. a cell and tabs extending from the cell, the cell comprising a negative electrode plate, the negative electrode plate comprising a negative current collector and a negative electrode film arranged on at least one surfaces of the negative current collector and comprising a negative active material, wherein the negative active material comprises artificial graphite comprising secondary particles; and characterized in that the cell satisfies 9 cm ≤ 0.5 × a 2 + b 2 ≤ 13 cm , and a ≤ 15 cm, where a is the maximum size of the cell in the direction in which the tabs extend, in cm; and b is the maximum size of the cell in a direction perpendicularly intersecting with the direction in which the tabs extend, in cm, wherein the cell further satisfies 0.3 ≤ a/b ≤ 0.8; and wherein number percentage S of the secondary particles in the artificial graphite, as measured using the test method defined in JY/T010-1996, satisfies 20% ≤ S ≤ 100%.
A method of composing a video frame for a rendering device from a video stream, characterized in that the method comprises: - obtaining a first information from the video stream, said first information being representative of a size and a position of a first area of a source video frame obtained from the video stream, - in case the rendering device is an immersive video rendering device: • obtaining a second information from the video stream, said second information being representative of a type of a layout, a field of view of said first area, a size of a second area and a reference direction; wherein said layout is based on an immersive mapping belonging to a set of immersive mapping comprising: equirectangular mapping, cube mapping and pyramidal mapping; • building a mapped surface according to said first and second information and using said source video frame, • composing the video frame with a portion of said mapped surface; - in other case, composing said video frame with said first area. - obtaining a first information from the video stream, said first information being representative of a size and a position of a first area of a source video frame obtained from the video stream, - in case the rendering device is an immersive video rendering device: • obtaining a second information from the video stream, said second information being representative of a type of a layout, a field of view of said first area, a size of a second area and a reference direction; wherein said layout is based on an immersive mapping belonging to a set of immersive mapping comprising: equirectangular mapping, cube mapping and pyramidal mapping; • building a mapped surface according to said first and second information and using said source video frame, • composing the video frame with a portion of said mapped surface; • obtaining a second information from the video stream, said second information being representative of a type of a layout, a field of view of said first area, a size of a second area and a reference direction; wherein said layout is based on an immersive mapping belonging to a set of immersive mapping comprising: equirectangular mapping, cube mapping and pyramidal mapping; • building a mapped surface according to said first and second information and using said source video frame, • composing the video frame with a portion of said mapped surface; - in other case, composing said video frame with said first area.
A non-destructive method of estimating hematocrit of whole blood from a dried blood sample prepared from the whole blood, the method comprising: a) determining the total amount of hemoglobin derivatives comprising oxyhemoglobin, met-hemoglobin and hemichrome in a dried blood sample, wherein the total amount of said hemoglobin derivatives in a dried blood sample is determined by measuring the reflectance, absorbance, or transmittance of the dried blood sample at the quasi-isosbestic point of said hemoglobin derivatives at a wavelength of 589 nm +/- 5 nm, or wherein the total amount of said hemoglobin derivatives in a dried blood sample is determined by calculating the sum of the amounts of each of oxyhemoglobin, methemoglobin and hemichrome, wherein the amount of each of oxyhemoglobin, methemoglobin and hemichrome is determined by measuring the reflectance, absorbance, or transmittance of the dried blood sample at multiple wavelengths, and comparing the measured spectrum with reference spectra of the respective hemoglobin derivatives; and b) estimating the hematocrit from the total amount of said hemoglobin derivatives, wherein the hematocrit is estimated using a calibration curve providing a correlation between hematocrit and the total amount of said hemoglobin derivatives in a dried blood sample. a) determining the total amount of hemoglobin derivatives comprising oxyhemoglobin, met-hemoglobin and hemichrome in a dried blood sample, wherein the total amount of said hemoglobin derivatives in a dried blood sample is determined by measuring the reflectance, absorbance, or transmittance of the dried blood sample at the quasi-isosbestic point of said hemoglobin derivatives at a wavelength of 589 nm +/- 5 nm, or wherein the total amount of said hemoglobin derivatives in a dried blood sample is determined by calculating the sum of the amounts of each of oxyhemoglobin, methemoglobin and hemichrome, wherein the amount of each of oxyhemoglobin, methemoglobin and hemichrome is determined by measuring the reflectance, absorbance, or transmittance of the dried blood sample at multiple wavelengths, and comparing the measured spectrum with reference spectra of the respective hemoglobin derivatives; and b) estimating the hematocrit from the total amount of said hemoglobin derivatives, wherein the hematocrit is estimated using a calibration curve providing a correlation between hematocrit and the total amount of said hemoglobin derivatives in a dried blood sample.
An air intake system adapted to be installed in a first opening (O1) located on an aeronautical surface (S) of an aircraft structure, the air intake system comprising: - a linear actuator able to move between at least a first position, a second position and a third position, - a closing lid being configured to be rotatably connected to the aircraft structure around a first axis (X1), - a first rotating strut rotatably connected to the closing lid around a second axis (X2), - a filter carrier being configured to be rotatably connected to the aircraft structure around a third axis (X3), wherein - the first rotating strut is further connected to a first end (1.1) of the linear actuator and connected to the filter carrier , - the closing lid comprises a first position configured to at least partially uncover the first opening (O1) and a second position configured to cover the first opening (O1), and - the filter carrier comprises a first position configured to at least partially uncover the first opening (O1) and a second position configured to cover the first opening (O1); the air intake system being configured to control the passage of airflow through the first opening (O1) by the actuation of the linear actuator such that: - in the first position of the linear actuator , the closing lid and the filter carrier are each in their first position, - in the second position of the linear actuator , the closing lid is in its first position and the filter carrier is in its second position, and - in the third position of the linear actuator , the closing lid and the filter carrier are each in their second position. - a linear actuator able to move between at least a first position, a second position and a third position, - a closing lid being configured to be rotatably connected to the aircraft structure around a first axis (X1), - a first rotating strut rotatably connected to the closing lid around a second axis (X2), - a filter carrier being configured to be rotatably connected to the aircraft structure around a third axis (X3), - the first rotating strut is further connected to a first end (1.1) of the linear actuator and connected to the filter carrier , - the closing lid comprises a first position configured to at least partially uncover the first opening (O1) and a second position configured to cover the first opening (O1), and - the filter carrier comprises a first position configured to at least partially uncover the first opening (O1) and a second position configured to cover the first opening (O1); - in the first position of the linear actuator , the closing lid and the filter carrier are each in their first position, - in the second position of the linear actuator , the closing lid is in its first position and the filter carrier is in its second position, and - in the third position of the linear actuator , the closing lid and the filter carrier are each in their second position.
A charging management method, comprising: receiving , by a user plane function entity, UP, a first usage reporting rule, URR, a second URR and a correlation indication from a control plane function entity, CP, wherein the correlation indication is used to indicate that the first URR is correlated with the second URR; when usage information on the UP reaches a threshold of the first URR, obtaining , by the UP, usage information corresponding to the first URR and usage information corresponding to a second URR correlated with the first URR; and sending , by the UP to the CP, the usage information corresponding to the first URR and the usage information corresponding to the second URR, wherein the usage information corresponding to the first URR and the usage information corresponding to the second URR are used to generate a charging data record. receiving , by a user plane function entity, UP, a first usage reporting rule, URR, a second URR and a correlation indication from a control plane function entity, CP, wherein the correlation indication is used to indicate that the first URR is correlated with the second URR; when usage information on the UP reaches a threshold of the first URR, obtaining , by the UP, usage information corresponding to the first URR and usage information corresponding to a second URR correlated with the first URR; and sending , by the UP to the CP, the usage information corresponding to the first URR and the usage information corresponding to the second URR, wherein the usage information corresponding to the first URR and the usage information corresponding to the second URR are used to generate a charging data record.
A data center cooling system , comprising: a server rack frame assembly that comprises a plurality of bays defined along a lengthwise dimension of the frame assembly, each bay comprising a volume defined at least in part by a specified height (H) that is orthogonal to the lengthwise dimension and a specified width (W) that is parallel to the lengthwise dimension and sized to at least partially enclose at least one server rack configured to support a plurality of data center computing devices; and at least one cooling unit sized for a bay of the plurality of bays of the server rack frame assembly and configured to circulate a heated airflow from an open back side of the at least one server rack, cool the heated air, and circulate a cooling airflow through an open front side of the at least one server rack. a server rack frame assembly that comprises a plurality of bays defined along a lengthwise dimension of the frame assembly, each bay comprising a volume defined at least in part by a specified height (H) that is orthogonal to the lengthwise dimension and a specified width (W) that is parallel to the lengthwise dimension and sized to at least partially enclose at least one server rack configured to support a plurality of data center computing devices; and at least one cooling unit sized for a bay of the plurality of bays of the server rack frame assembly and configured to circulate a heated airflow from an open back side of the at least one server rack, cool the heated air, and circulate a cooling airflow through an open front side of the at least one server rack.
A cable tie for attaching a bundle of cables to a support structure, the cable tie comprising: a flexible strap with teeth along at least part of its length; a mounting body connected to the flexible strap at one of its ends, hereinafter referred to as the non-free end, and comprising a through-opening for receiving the other end of the flexible strap , hereinafter referred to as the free end ; a latch depending from the mounting body and designed to engage in the teeth of the flexible strap when the strap is inserted into the through-opening ; and a fastening device depending from the mounting body to engage in a vehicle panel in order to attach the cable tie to the panel, in which: the latch is connected to the mounting body via a weakened area (74, 74', 74") acting as a hinge around which the latch can pivot; and the mounting body comprises a strap guide delineating at least part of the through-opening; characterized in that the mounting body comprises a channel perpendicular to the strap guide for receiving the flexible strap. a flexible strap with teeth along at least part of its length; a mounting body connected to the flexible strap at one of its ends, hereinafter referred to as the non-free end, and comprising a through-opening for receiving the other end of the flexible strap , hereinafter referred to as the free end ; a latch depending from the mounting body and designed to engage in the teeth of the flexible strap when the strap is inserted into the through-opening ; and a fastening device depending from the mounting body to engage in a vehicle panel in order to attach the cable tie to the panel, in which: the latch is connected to the mounting body via a weakened area (74, 74', 74") acting as a hinge around which the latch can pivot; and the mounting body comprises a strap guide delineating at least part of the through-opening; characterized in that the mounting body comprises a channel perpendicular to the strap guide for receiving the flexible strap. the latch is connected to the mounting body via a weakened area (74, 74', 74") acting as a hinge around which the latch can pivot; and the mounting body comprises a strap guide delineating at least part of the through-opening; characterized in that the mounting body comprises a channel perpendicular to the strap guide for receiving the flexible strap.
A controlling method for an internal combustion engine hand tool, for driving in a supporting material fastening elements under the action, upon a shot, of the firing, in a combustion chamber of the engine, of a driving fuel transferred in the chamber from a fuel cartridge by a fuel intake electric device , the device comprising a valve which, upon each shot, opens in an intake position, under the action of a current (I A ) in a component created by a voltage injection control signal (U v ), said method being characterized in that , upon the first one of a series of shots and after the beginning of the control signal, the time t o is detected of a drop of current during the transient rise of current and, the opening period T o of the valve being predetermined, the end of the injection control signal is triggered at the time t d , after a period T o , following the time t o , reduced with a period T OFF , of a first rise of the voltage injection control signal following the beginning of the drop of the current signal in said component or the rise, following the beginning of the drop thereof, of the current signal in said component .
A computer-implemented method of processing image data, the method comprising: receiving the image data, wherein the image data is scanning transmission charged-particle microscope, STCPM, image data representing a STCPM scan obtained at a first focus depth; and processing a system of equations expressing the image data as a sum of contributions from a plurality of slices of the sample at a plurality of focus depths, wherein each equation of the system of equations relates at least a portion of the image data to: at least one of a plurality of contrast transfer functions of the STCPM , each contrast transfer function of the STCPM being determined at a different respective focus depth; and at least one set of unknown objects of the STCPM , each unknown object in a set being at a different respective focus depth; wherein the step of processing comprises solving the system of equations to obtain at least one of the plurality of unknown objects of the STCPM . receiving the image data, wherein the image data is scanning transmission charged-particle microscope, STCPM, image data representing a STCPM scan obtained at a first focus depth; and processing a system of equations expressing the image data as a sum of contributions from a plurality of slices of the sample at a plurality of focus depths, wherein each equation of the system of equations relates at least a portion of the image data to: at least one of a plurality of contrast transfer functions of the STCPM , each contrast transfer function of the STCPM being determined at a different respective focus depth; and at least one set of unknown objects of the STCPM , each unknown object in a set being at a different respective focus depth; wherein the step of processing comprises solving the system of equations to obtain at least one of the plurality of unknown objects of the STCPM .
An aqueous formaldehyde-free binder composition for mineral fibers comprising a component (i) in the form of one or more carbohydrates in an amount of 50 weight-% or more, preferably 70 to 97 weight-% based on the total binder component solids; a component (ii) in the form of one or more compounds selected from the group of ammonia, amines or any salts thereof; a component (iii) in the form of one or more polyalkylene glycols and/or co-polymers thereof, wherein component (iii) is present in an amount of 0.5 to 25 weight-%, based on the mass of component (i). a component (i) in the form of one or more carbohydrates in an amount of 50 weight-% or more, preferably 70 to 97 weight-% based on the total binder component solids; a component (ii) in the form of one or more compounds selected from the group of ammonia, amines or any salts thereof; a component (iii) in the form of one or more polyalkylene glycols and/or co-polymers thereof, wherein component (iii) is present in an amount of 0.5 to 25 weight-%, based on the mass of component (i).
A method of inflating an inflatable door seal positioned in a door opening of a wall and for sealing a vehicle , wherein the door seal comprises inflatable side members at its right and left sides, wherein each of the inflatable side members comprises a vertical inflatable main portion comprising an isolating part arranged at its uppermost end; and a bottom seal portion , wherein the inflatable side members are inflated so that each bottom seal portion is expanding towards the side of the vehicle , wherein each vertical inflatable main portion is expanding towards the side of the vehicle such that the isolating parts of the inflatable side members meet at the vehicle roof, wherein each of the inflatable side members comprises a curtain portion , wherein said inflatable side members are inflated to such an extent that each curtain portion is expanding downwards towards the roof of the vehicle , wherein each bottom seal portion is triangular or sun-fan shaped, comprising at least five parallel elongated tube-shaped air communicating sections extending from the inner side of each main vertical portion , preferably obliquely, downwards to the bottom of the inflatable door seal , characterised in that said five sections are air communicating with each other via internal ducts and shaped such that said bottom seal portion is inflated gradually inwardly, and wherein each tube-shaped inflatable section has a width in the range of 0-30 cm and a length in the range of 50 -100 cm.
A medical probe having a contact force sensor , the contact force sensor comprising: an elastic element having first and second ends; a transmitter , coupled to the first end and configured to transmit signals in a given range of frequencies; one or more receiving antennas coupled to the second end and configured to receive the signals; and one or more narrow-band amplifiers , which have a pass-band that matches the given range of frequencies and which are configured to amplify the signals received by the one or more receiving antennas, respectively. an elastic element having first and second ends; a transmitter , coupled to the first end and configured to transmit signals in a given range of frequencies; one or more receiving antennas coupled to the second end and configured to receive the signals; and one or more narrow-band amplifiers , which have a pass-band that matches the given range of frequencies and which are configured to amplify the signals received by the one or more receiving antennas, respectively.