mhurhangee/patent-ind-claim-en huggingface dataset:
A method for managing the maximum operating voltage of an accumulator U max (t) over time capable of functioning for an application profile, defined by a series of charging and/or discharging operations of the accumulator, said accumulator being predetermined to function between an initial maximum operating voltage U max_user corresponding to a maximum charging voltage and an initial minimum operating voltage U min_user corresponding to a maximum final discharge voltage, depending on the application and said accumulator being coupled to an accumulator management system (BMS) in which the manufacturer has defined a maximum working voltage U max_BMS for said accumulator, the managing method comprising the following steps allowing for an evolution over time of said maximum operating voltage U max (t): - the determination of an application profile; - the monitoring of the voltage of the accumulator U(t) during charging and discharging according to said determined application profile, and characterised in that the method further comprises the following steps if, during said voltage monitoring, following a discharge operation, the voltage U(t) becomes lower than the maximum final discharge voltage U min_user , ∘ triggering of a slow charge operation, defined by a charge operation without impact of the internal resistance of the accumulator, on the voltage, so as to again reach the voltage U min_user , ∘ then, triggering of a full charge operation, defined by a rated current charge, leading to a new maximum operating voltage U max (t) greater than the initial voltage U max_user . - the determination of an application profile; - the monitoring of the voltage of the accumulator U(t) during charging and discharging according to said determined application profile, ∘ triggering of a slow charge operation, defined by a charge operation without impact of the internal resistance of the accumulator, on the voltage, so as to again reach the voltage U min_user , ∘ then, triggering of a full charge operation, defined by a rated current charge, leading to a new maximum operating voltage U max (t) greater than the initial voltage U max_user .
A computer-implemented method of reconstructing an interior room, the method comprising: receiving sensor data indicative of at least one image of at least a part of a room acquired with at least one image sensor of a user device; determining, based on the sensor data, at least a part of a point cloud representative of the at least part of the room and representative of one or more objects arranged in the room, wherein at least one of the one or more objects is associated with an item of furniture arranged in the room; detecting, based on the determined point cloud, one or more objects arranged in the room; associating the detected one or more objects with one or more reference objects indicative of one or more reference items of furniture; determining one or more parametric models for the detected one or more objects; and reconstructing at least a part of the room based on the determined one or more parametric models for the detected one or more objects; the method further comprises determining, based on processing the point cloud, sensor data and/or one or more images indicative of the one or more objects arranged in the room, materials of the one or more objects arranged in the room; retrieving, from a database storing a plurality of reference materials of reference objects, materials data resembling the determined one or more materials of one or more objects arranged in the room; reconstructing the room based on the retrieved material data. receiving sensor data indicative of at least one image of at least a part of a room acquired with at least one image sensor of a user device; determining, based on the sensor data, at least a part of a point cloud representative of the at least part of the room and representative of one or more objects arranged in the room, wherein at least one of the one or more objects is associated with an item of furniture arranged in the room; detecting, based on the determined point cloud, one or more objects arranged in the room; associating the detected one or more objects with one or more reference objects indicative of one or more reference items of furniture; determining one or more parametric models for the detected one or more objects; and reconstructing at least a part of the room based on the determined one or more parametric models for the detected one or more objects; the method further comprises determining, based on processing the point cloud, sensor data and/or one or more images indicative of the one or more objects arranged in the room, materials of the one or more objects arranged in the room; retrieving, from a database storing a plurality of reference materials of reference objects, materials data resembling the determined one or more materials of one or more objects arranged in the room; reconstructing the room based on the retrieved material data.
A steerable device comprising: a tubular sheath comprising: a proximal end (110 P , 210 P , 310 P ); a distal end (110 D , 210 D , 310 D ) opposite the proximal end ; and at least one reconfigurable section disposed intermediate the proximal (110 P , 210 P , 310p) and distal (110 D , 210 D , 310 D ) ends and possessive of an increased flexibility, the at least one reconfigurable section comprising at least one helical slot formed through the wall of the sheath , the at least one helical slot defining a pitch (P) along the axial dimension of the tubular sheath ; and an elongate control element defining a proximal end and a distal end, the elongate control element centrally disposed along the axial dimension of the tubular sheath and attached to at least one part of the tubular sheath in order to enable an operator to impose an axial force to the elongate control element that causes a relative tangential rotation between adjacent wall sections that define the helical slot , resulting in a known, limited, controllable torsional rotation of the distal end (110 D , 210 D , 310 D ) of the tubular sheath without torsional rotation of the proximal end (110 P , 210 P , 310 P ) of the tubular sheath . a tubular sheath comprising: a proximal end (110 P , 210 P , 310 P ); a distal end (110 D , 210 D , 310 D ) opposite the proximal end ; and at least one reconfigurable section disposed intermediate the proximal (110 P , 210 P , 310p) and distal (110 D , 210 D , 310 D ) ends and possessive of an increased flexibility, the at least one reconfigurable section comprising at least one helical slot formed through the wall of the sheath , the at least one helical slot defining a pitch (P) along the axial dimension of the tubular sheath ; and a proximal end (110 P , 210 P , 310 P ); a distal end (110 D , 210 D , 310 D ) opposite the proximal end ; and at least one reconfigurable section disposed intermediate the proximal (110 P , 210 P , 310p) and distal (110 D , 210 D , 310 D ) ends and possessive of an increased flexibility, the at least one reconfigurable section comprising at least one helical slot formed through the wall of the sheath , the at least one helical slot defining a pitch (P) along the axial dimension of the tubular sheath ; and an elongate control element defining a proximal end and a distal end, the elongate control element centrally disposed along the axial dimension of the tubular sheath and attached to at least one part of the tubular sheath in order to enable an operator to impose an axial force to the elongate control element that causes a relative tangential rotation between adjacent wall sections that define the helical slot , resulting in a known, limited, controllable torsional rotation of the distal end (110 D , 210 D , 310 D ) of the tubular sheath without torsional rotation of the proximal end (110 P , 210 P , 310 P ) of the tubular sheath .
A vaporizer comprising: a battery housing ; a battery housed within the battery housing ; a cartomizer connectable to the battery housing , the cartomizer including a cartomizer body dimensioned to hold a vaporizable substance, and a heating element operable to heat the vaporizable substance; and a cutoff device connectable to the heating element operable to disrupt the heating element, the cutoff device including: a switch operable to interrupt a current flow to the heating element, and a fluid level sensor connectable to the switch and associated circuitry that is configured to determine if a fluid level or a humidity level is above a predetermined level, wherein the fluid level sensor is arranged in proximity to the heating element inside a reservoir in the cartomizer body . a battery housing ; a battery housed within the battery housing ; a cartomizer connectable to the battery housing , the cartomizer including a cartomizer body dimensioned to hold a vaporizable substance, and a heating element operable to heat the vaporizable substance; and a cutoff device connectable to the heating element operable to disrupt the heating element, the cutoff device including: a switch operable to interrupt a current flow to the heating element, and a fluid level sensor connectable to the switch and associated circuitry that is configured to determine if a fluid level or a humidity level is above a predetermined level, wherein the fluid level sensor is arranged in proximity to the heating element inside a reservoir in the cartomizer body . a switch operable to interrupt a current flow to the heating element, and a fluid level sensor connectable to the switch and associated circuitry that is configured to determine if a fluid level or a humidity level is above a predetermined level, wherein the fluid level sensor is arranged in proximity to the heating element inside a reservoir in the cartomizer body .
A vacuum wiper comprising: a housing , containing a cavity ; and a connection port , the connection port being disposed on the housing and being in communication with the cavity ; characterized in that the vacuum wiper further comprises: multiple holes , the multiple holes being disposed on the housing in the length direction of the housing, and the multiple holes being able to establish fluid communication between the cavity and the outside; the vacuum wiper having a maximum vacuumizing length when all of the multiple holes are in communication with the outside; and a hole adjusting means, configured to be capable of blocking one or more of the multiple holes in sequence from two ends in the length direction of arrangement of the multiple holes of the vacuum wiper , such that the vacuum wiper is able to adjust the vacuumizing length, wherein the hole adjusting means is two sliders, the two sliders being disposed at two sides in the length direction of the housing respectively, such that the two sliders are able to slidably block one or more of the multiple holes . a housing , containing a cavity ; and a connection port , the connection port being disposed on the housing and being in communication with the cavity ; characterized in that the vacuum wiper further comprises: multiple holes , the multiple holes being disposed on the housing in the length direction of the housing, and the multiple holes being able to establish fluid communication between the cavity and the outside; the vacuum wiper having a maximum vacuumizing length when all of the multiple holes are in communication with the outside; and a hole adjusting means, configured to be capable of blocking one or more of the multiple holes in sequence from two ends in the length direction of arrangement of the multiple holes of the vacuum wiper , such that the vacuum wiper is able to adjust the vacuumizing length, wherein the hole adjusting means is two sliders, the two sliders being disposed at two sides in the length direction of the housing respectively, such that the two sliders are able to slidably block one or more of the multiple holes . multiple holes , the multiple holes being disposed on the housing in the length direction of the housing, and the multiple holes being able to establish fluid communication between the cavity and the outside; the vacuum wiper having a maximum vacuumizing length when all of the multiple holes are in communication with the outside; and a hole adjusting means, configured to be capable of blocking one or more of the multiple holes in sequence from two ends in the length direction of arrangement of the multiple holes of the vacuum wiper , such that the vacuum wiper is able to adjust the vacuumizing length, wherein the hole adjusting means is two sliders, the two sliders being disposed at two sides in the length direction of the housing respectively, such that the two sliders are able to slidably block one or more of the multiple holes .
Workpiece alignment device for aligning a workpiece when re-chucking the workpiece during its machining, preferably for aligning the workpiece in relation to precisely one rotation axis , comprising an absolute direction indicating device configured to enable a check on whether the workpiece is located in a defined position relative to an externally specified absolute direction after re-chucking, and a fastening device for temporary fastening of the workpiece alignment device to the workpiece , the fastening device being designed size-adaptable for adaptation to differently sized and/or differently shaped workpieces, characterized in that the fastening device is designed as a replaceable transition element and is connected by means of a screw thread to the absolute direction indicating device , the transition element being designed such that it can receive the workpiece on one side for fastening it and the absolute direction indicating device is bolted to the transition element on the other side of the transition element.
A method of wireless communication by a user equipment, UE (104; 350; 464; 466; 468; 470; 506), comprising: receiving one or more device-to-device, D2D, signals respectively from one or more proximate UEs (508; 510); measuring signal strength of the one or more D2D signals based, at least in part, on signal strength of a data portion included in a traffic part of the one or more D2D signals; and wherein the signal strength of the data portion is based on reference signal received quality, RSRQ, of one or more resource elements used for receiving the data portion of the one or more D2D signals. receiving one or more device-to-device, D2D, signals respectively from one or more proximate UEs (508; 510); measuring signal strength of the one or more D2D signals based, at least in part, on signal strength of a data portion included in a traffic part of the one or more D2D signals; and wherein the signal strength of the data portion is based on reference signal received quality, RSRQ, of one or more resource elements used for receiving the data portion of the one or more D2D signals.
A process for the production of colour-optimised activated clays for cement production, the process comprising the following steps: a) Thermal activation of the starting material at an elevated temperature to produce an activated clay, b) Cooling of the activated clay by mixing with a solid remaining in the product from a first temperature to a second temperature, c) Cooling the mixture from step b) from the second temperature to a third temperature by heat transfer to a gas stream, wherein the solid used in step b) is the product according to step c), a cement pre-material from the group comprising cement clinker , gypsum, lime, slag, fly ash, clays or a mixture thereof, or a combination of product according to step c) and a cement pre-material, characterised in that in that the activated clay from step a) is introduced into step b) at a first temperature of 550°C to 1100°C, the solid material supplied in step b) having a temperature of 0°C to 400°C, the mass flow of the solid material and the mass flow of the activated clay in step b) being selected in a ratio of at most 3:1, wherein in step b) the mass flow of the solid and the mass flow of the activated clay are selected in a ratio of at least 1:10. a) Thermal activation of the starting material at an elevated temperature to produce an activated clay, b) Cooling of the activated clay by mixing with a solid remaining in the product from a first temperature to a second temperature, c) Cooling the mixture from step b) from the second temperature to a third temperature by heat transfer to a gas stream,
A wind turbine, comprising: a rotor base coupled to a generally horizontal supporting surface and rotatable about a rotor-base axis generally perpendicular to the supporting surface; a plurality of blade elements extending from the rotor base and having distal blade tip portions, and blade base portions opposite the distal blade tip portions and coupled to the rotor base, each blade element having a respective angle of attack, each blade base portion having a base-portion axis generally perpendicular to the rotor base, each blade element being rotatable about its respective base-portion axis thereby altering the respective angle of attack of each respective blade element; and a controller coupled to the blade elements and configured to rotate each blade element; characterized in that each distal blade tip portion has a distal blade tip vortex control device. a rotor base coupled to a generally horizontal supporting surface and rotatable about a rotor-base axis generally perpendicular to the supporting surface; a plurality of blade elements extending from the rotor base and having distal blade tip portions, and blade base portions opposite the distal blade tip portions and coupled to the rotor base, each blade element having a respective angle of attack, each blade base portion having a base-portion axis generally perpendicular to the rotor base, each blade element being rotatable about its respective base-portion axis thereby altering the respective angle of attack of each respective blade element; and a controller coupled to the blade elements and configured to rotate each blade element; characterized in that each distal blade tip portion has a distal blade tip vortex control device.
A method for measuring bromate ion, comprising: a first step of introducing a test water sample to an anion exchanger that selectively absorbs bromate ions; a second step of introducing, to the anion exchanger , a hydrochloric acid solution having a concentration of 1.5 mol / L [N] or more and 3 mol / L [N] or less and containing a fluorescent substance, a fluorescence intensity of which is changed by the coexistence of bromate ions, to elute the bromate ions absorbed onto the anion exchanger into the hydrochloric acid solution; a third step of measuring the fluorescence intensity of the fluorescent substance contained in the hydrochloric acid solution discharged from the anion exchanger ; and a fourth step of using a calibration curve, which shows a relationship between the fluorescence intensity of the fluorescent substance and the concentration of the bromate ions, to calculate the concentration of the bromate ions that corresponds to the measured fluorescence intensity, wherein the third step comprises the step of measuring the fluorescence intensity at any one of a case where the excitation wavelength and the emission wavelength are 264 nm and 400 nm, respectively, a case where the excitation wavelength and the emission wavelength are 264 nm and 480 nm, respectively, and a case where the excitation wavelength and the emission wavelength are 300 nm and 400 nm, respectively. a first step of introducing a test water sample to an anion exchanger that selectively absorbs bromate ions; a second step of introducing, to the anion exchanger , a hydrochloric acid solution having a concentration of 1.5 mol / L [N] or more and 3 mol / L [N] or less and containing a fluorescent substance, a fluorescence intensity of which is changed by the coexistence of bromate ions, to elute the bromate ions absorbed onto the anion exchanger into the hydrochloric acid solution; a third step of measuring the fluorescence intensity of the fluorescent substance contained in the hydrochloric acid solution discharged from the anion exchanger ; and a fourth step of using a calibration curve, which shows a relationship between the fluorescence intensity of the fluorescent substance and the concentration of the bromate ions, to calculate the concentration of the bromate ions that corresponds to the measured fluorescence intensity, wherein the third step comprises the step of measuring the fluorescence intensity at any one of a case where the excitation wavelength and the emission wavelength are 264 nm and 400 nm, respectively, a case where the excitation wavelength and the emission wavelength are 264 nm and 480 nm, respectively, and a case where the excitation wavelength and the emission wavelength are 300 nm and 400 nm, respectively.
Coupling between parts that joins a first part having a first end formed by two angled surfaces and a second end formed by a curved surface, with a second substantially planar part having an edge parallel to the salient angle between the two angled surfaces of the first end of the first part , forming a coupling area comprising a first connecting portion , a second connecting portion and a third connecting portion characterised in that - the edge of the second part in the first portion is at a constant distance from the salient angle of the first part , - the second part in the third portion is supported on the curved surface of the second end of the first part - the second portion comprises a transition between the first portion and the third portion . - the edge of the second part in the first portion is at a constant distance from the salient angle of the first part , - the second part in the third portion is supported on the curved surface of the second end of the first part - the second portion comprises a transition between the first portion and the third portion .
A system for extracting and verifying a data object from an image level backup, the system comprising: a virtual storage connected to a hypervisor , wherein the hypervisor is configured to access the image level backup and receive a selection of the data object from the image level backup, wherein the data object is associated with an application; a virtual machine, VM, hosting the application, wherein the hypervisor is configured to run the VM using a data file from the image level backup; a changes storage configured to store VM virtual disk data changes resulting from running the VM; a data conversion engine configured to extract the data object so as to provide contents of the data object to the hypervisor without fully extracting contents of the image level backup; and a verification module configured to execute a test using the selected data object and the application hosted in the VM. a virtual storage connected to a hypervisor , wherein the hypervisor is configured to access the image level backup and receive a selection of the data object from the image level backup, wherein the data object is associated with an application; a virtual machine, VM, hosting the application, wherein the hypervisor is configured to run the VM using a data file from the image level backup; a changes storage configured to store VM virtual disk data changes resulting from running the VM; a data conversion engine configured to extract the data object so as to provide contents of the data object to the hypervisor without fully extracting contents of the image level backup; and a verification module configured to execute a test using the selected data object and the application hosted in the VM.