mhurhangee/ep-ind-claims huggingface dataset:
A method for capacity expansion of an energy storage system, applied to a controller in the energy storage system, the energy storage system further comprising one or more first energy storage devices, a charge/discharge power converter, and one or more second energy storage devices to be added into the energy storage system, wherein the one or more second energy storage devices have a same value of a characteristic parameter, the method is characterized in comprising: acquiring (S110, S210, S310) the value of the characteristic parameter of the one or more second energy storage devices as a target characteristic value; controlling the charge/discharge power converter to charge or discharge the one or more first energy storage devices until a proximity of a value of the characteristic parameter of at least one of the one or more first energy storage devices to the target characteristic value is less than a preset proximity; and generating and outputting (S130, S230, S330) a signal indicating that the one or more second energy storage devices are allowed to be connected into the energy storage system. acquiring (S110, S210, S310) the value of the characteristic parameter of the one or more second energy storage devices as a target characteristic value; controlling the charge/discharge power converter to charge or discharge the one or more first energy storage devices until a proximity of a value of the characteristic parameter of at least one of the one or more first energy storage devices to the target characteristic value is less than a preset proximity; and generating and outputting (S130, S230, S330) a signal indicating that the one or more second energy storage devices are allowed to be connected into the energy storage system.
An anti-angiogenic composition comprising a peptide of amino acid sequence SEQ ID NO: 1 for use in the prevention or treatment of tumor growth or metastasis, wherein the prevention or treatment comprises the inhibition of proliferation of vascular endothelial cells or tube formation.
A customized racquet stringing system for a racquet having a string bed of racquet string formed of a plurality of main string segments and a plurality of cross string segments, the stringing system comprising: a racquet stringing machine including, a base configured to support the stringing machine on a support surface; and a stringing platform coupled to the base, the stringing platform including a turntable for rotatably mounting the racquet and a string tensioning assembly, the string tensioning assembly configured to receive one or more string tension control signals; and a control unit operably coupled to the string tensioning assembly, the control unit including a processing unit and a memory, the control unit configured to execute a string tensioning program characterised in that the control unit is configured to provide a plurality of the string tension control signals based upon the string tensioning program to the string tensioning assembly, wherein the plurality of string tension control signals correspond to at least three separate string tension values applied to the plurality of main string segments and/or the plurality of cross string segments during the stringing of the racquet and wherein the string tensioning program can provide discrete and specific string tension signals through the control unit based upon a particular racquet profile, a particular player's characteristic or for a particular application or player level. a racquet stringing machine including, a base configured to support the stringing machine on a support surface; and a stringing platform coupled to the base, the stringing platform including a turntable for rotatably mounting the racquet and a string tensioning assembly, the string tensioning assembly configured to receive one or more string tension control signals; and a control unit operably coupled to the string tensioning assembly, the control unit including a processing unit and a memory, the control unit configured to execute a string tensioning program characterised in that the control unit is configured to provide a plurality of the string tension control signals based upon the string tensioning program to the string tensioning assembly, wherein the plurality of string tension control signals correspond to at least three separate string tension values applied to the plurality of main string segments and/or the plurality of cross string segments during the stringing of the racquet and wherein the string tensioning program can provide discrete and specific string tension signals through the control unit based upon a particular racquet profile, a particular player's characteristic or for a particular application or player level.
(Amended) Control device for a lift - with a console for the input of control information, whereby - the console has means for audio recording, - that are connected to a voice analysis unit, - and a control unit is provided in order to control the lift according to the inputted control information, whereby - the control unit has access to a database, - in which location descriptions are stored with control commands that are to be triggered thereby, characterised in that - the location descriptions encompass one or more of the following types of indirect location descriptions: names of persons, room numbers, functional descriptions of rooms, names of departments, names of events, - whereby the links between indirect location descriptions and control commands are updatable within the database and wherein the database is dynamically updated to include long term changes and short term changes, including day by day changes, so that the database contains permanent locations and current locations of persons. - with a console for the input of control information, whereby - the console has means for audio recording, - that are connected to a voice analysis unit, - and a control unit is provided in order to control the lift according to the inputted control information, whereby - the control unit has access to a database, - in which location descriptions are stored with control commands that are to be triggered thereby, - the location descriptions encompass one or more of the following types of indirect location descriptions: names of persons, room numbers, functional descriptions of rooms, names of departments, names of events, names of persons, room numbers, functional descriptions of rooms, names of departments, names of events, - whereby the links between indirect location descriptions and control commands are updatable within the database and wherein the database is dynamically updated to include long term changes and short term changes, including day by day changes, so that the database contains permanent locations and current locations of persons.
A method to be performed by a provisioning server (600, 1600), the method comprising: assigning to each of L group shared secrets {gss q} (602,1612) its own unique subset (616,618,620) of Mq of N group shared secret identifying keys (612,1614); storing information from which it is determinable which unique subset of Mq of the N group shared secret identifying keys was assigned to each group shared secret gss q; provisioning one or more client devices {j} (100,1640) by: assigning to each client device j its own subset of P j of the L group shared secrets {gss q}; providing (708,1622) to each client device j the P j group shared secrets that were assigned thereto; and for each of the P j group shared secrets assigned to each client device j, providing (708,1622) to the client device j the Mq group shared secret identifying keys that were assigned to that group shared secret, wherein L, P j, N, and Mq are positive integers, P j is less than L, and M q is less than N. assigning to each of L group shared secrets {gss q} (602,1612) its own unique subset (616,618,620) of Mq of N group shared secret identifying keys (612,1614); storing information from which it is determinable which unique subset of Mq of the N group shared secret identifying keys was assigned to each group shared secret gss q; provisioning one or more client devices {j} (100,1640) by: assigning to each client device j its own subset of P j of the L group shared secrets {gss q}; providing (708,1622) to each client device j the P j group shared secrets that were assigned thereto; and for each of the P j group shared secrets assigned to each client device j, providing (708,1622) to the client device j the Mq group shared secret identifying keys that were assigned to that group shared secret, assigning to each client device j its own subset of P j of the L group shared secrets {gss q}; providing (708,1622) to each client device j the P j group shared secrets that were assigned thereto; and for each of the P j group shared secrets assigned to each client device j, providing (708,1622) to the client device j the Mq group shared secret identifying keys that were assigned to that group shared secret, wherein L, P j, N, and Mq are positive integers, P j is less than L, and M q is less than N.
Fitting for a vehicle seat, in particular for a motor vehicle seat, having a) a first fitting part and a second fitting part which are in geared connection by means of a toothed wheel and a toothed ring, which mesh with each other, b) an eccentric (27, 27) rotating in a circumferential direction, driven by a driver, for driving a relative rolling movement of the toothed wheel and the toothed ring, wherein the first fitting part receives the eccentric (27, 27) which is supported on the second fitting part, wherein two wedge segments upon which a spring acts, define the eccentric (27, 27), c) a retaining element which retains the eccentric in the non-driven state of the fitting by cooperating of at least one retaining lug of the retaining element with a toothing arranged on the first fitting part, and which releases the eccentric (27, 27), when it is driven by the driver, wherein the retaining element hat at least one opening which is penetrated by the spring, characterized in that d) the spring penetrates the retaining element at exactly one opening. a) a first fitting part and a second fitting part which are in geared connection by means of a toothed wheel and a toothed ring, which mesh with each other, b) an eccentric (27, 27) rotating in a circumferential direction, driven by a driver, for driving a relative rolling movement of the toothed wheel and the toothed ring, wherein the first fitting part receives the eccentric (27, 27) which is supported on the second fitting part, wherein two wedge segments upon which a spring acts, define the eccentric (27, 27), c) a retaining element which retains the eccentric in the non-driven state of the fitting by cooperating of at least one retaining lug of the retaining element with a toothing arranged on the first fitting part, and which releases the eccentric (27, 27), when it is driven by the driver, wherein the retaining element hat at least one opening which is penetrated by the spring, characterized in that d) the spring penetrates the retaining element at exactly one opening.
A hyperspectral imaging system comprising: an optic; first stacked waveguide plates (120 i), the first stacked waveguide plates (120 i) comprising a first plurality of waveguide plates (120 i), stacked on top of one another, the stacked waveguide plates (120 i) having an entrance end and an exit end opposite the entrance end; a first slit located on the entrance end of the first stacked waveguide plates (120 i), wherein the slit is configured to receive at least a portion of light (127 i) which is output from the optic and the stacked waveguide plates (120 i) are configured to output multiple dispersed lights (176 i) at the exit end of the first stacked waveguide plates (120 i); a spectral filter array configured to receive the dispersed lights (176 i) from the first stacked waveguide plates (120 i) and output multiple arrays of different wavelength filtered lights (178 i); a detector array configured to receive the multiple arrays of different wavelength filtered lights (178 i) from the spectral filter array and output multiple arrays of electrical signals (180 i); and a controller coupled to the detector array, wherein the controller is configured to receive the multiple arrays of electrical signals (180 i) from the detector array and combine the multiple arrays of electrical signals (180 i) to generate a hyperspectral image, wherein the first stacked waveguide plates (120 i) are positioned between the optic and the spectral filter array, and wherein the spectral filter array is positioned between the first stacked waveguide plates (120 i) and the detector array. an optic; first stacked waveguide plates (120 i), the first stacked waveguide plates (120 i) comprising a first plurality of waveguide plates (120 i), stacked on top of one another, the stacked waveguide plates (120 i) having an entrance end and an exit end opposite the entrance end; a first slit located on the entrance end of the first stacked waveguide plates (120 i), wherein the slit is configured to receive at least a portion of light (127 i) which is output from the optic and the stacked waveguide plates (120 i) are configured to output multiple dispersed lights (176 i) at the exit end of the first stacked waveguide plates (120 i); a spectral filter array configured to receive the dispersed lights (176 i) from the first stacked waveguide plates (120 i) and output multiple arrays of different wavelength filtered lights (178 i); a detector array configured to receive the multiple arrays of different wavelength filtered lights (178 i) from the spectral filter array and output multiple arrays of electrical signals (180 i); and a controller coupled to the detector array, wherein the controller is configured to receive the multiple arrays of electrical signals (180 i) from the detector array and combine the multiple arrays of electrical signals (180 i) to generate a hyperspectral image, wherein the first stacked waveguide plates (120 i) are positioned between the optic and the spectral filter array, and wherein the spectral filter array is positioned between the first stacked waveguide plates (120 i) and the detector array.
A method for welding a first powder metallurgical part to a second powder metallurgical part, the method comprising: working a first face of the first PM part; working a first face of the second PM part; heat treating at least along the first faces of the first PM part and the second PM part; and friction welding the first face of the first part to the first face of the second part, wherein the first PM part and the second PM part are nickel-based superalloy, characterised in that: the working of the first faces of the first PM part and the second PM part is sufficient to achieve enough local compressive residual stress to introduce sufficient strain energy into the part faces prior to welding to refine grain; after the heat treating, along the first surfaces of the first part and the second part there is gamma grain size of ASTM 9 or finer; and before the working, along the first surfaces of the first part and the second part there is gamma grain size of ASTM 8 or coarser. working a first face of the first PM part; working a first face of the second PM part; heat treating at least along the first faces of the first PM part and the second PM part; and friction welding the first face of the first part to the first face of the second part, wherein the first PM part and the second PM part are nickel-based superalloy, the working of the first faces of the first PM part and the second PM part is sufficient to achieve enough local compressive residual stress to introduce sufficient strain energy into the part faces prior to welding to refine grain; after the heat treating, along the first surfaces of the first part and the second part there is gamma grain size of ASTM 9 or finer; and before the working, along the first surfaces of the first part and the second part there is gamma grain size of ASTM 8 or coarser.
A computer-implemented method, comprising: applying a first feature detector based on keypoint localization to a portion of an image captured by a camera to detect a first set of features; locating a region of interest based on the first set of features, wherein the region of interest is a region closest to a center of the image having a density of features exceeding an object indication threshold; determining a boundary corresponding to the region of interest; displaying the boundary at a display; and in response to receiving user input to accept the displayed boundary, applying a second feature detector based on keypoint localization to an area of the image encapsulated by the boundary, the second feature detector providing more accurate localization of features than the first feature detector. applying a first feature detector based on keypoint localization to a portion of an image captured by a camera to detect a first set of features; locating a region of interest based on the first set of features, wherein the region of interest is a region closest to a center of the image having a density of features exceeding an object indication threshold; determining a boundary corresponding to the region of interest; displaying the boundary at a display; and in response to receiving user input to accept the displayed boundary, applying a second feature detector based on keypoint localization to an area of the image encapsulated by the boundary, the second feature detector providing more accurate localization of features than the first feature detector.
Method for making a finned tube, in which a tube base body is finned on its outside, in particular helically, with a band, whereby the band is fixed to the tube base body using a laser beam, characterised by the steps: • providing a tube base body made of a first material and a band made of a second, different material, • comparison of at least one spectral property, for example the absorption coefficient (α), of the two different materials, • selecting a type of laser of a suitable wavelength (λ) taking into account the comparison made, • radiating a laser beam produced by a laser of the type selected into the contact area of the tube base body and the band, such that for welding, both the tube base body material assigned to the contact area and also the band material assigned to the contact area are irradiated and melted by the laser beam. • providing a tube base body made of a first material and a band made of a second, different material, • comparison of at least one spectral property, for example the absorption coefficient (α), of the two different materials, • selecting a type of laser of a suitable wavelength (λ) taking into account the comparison made, • radiating a laser beam produced by a laser of the type selected into the contact area of the tube base body and the band, such that for welding, both the tube base body material assigned to the contact area and also the band material assigned to the contact area are irradiated and melted by the laser beam.
A protection device for protecting an individual held on a seat with the help of a harness that has a left shoulder strap and a right shoulder strap, said protection device having a set of inflatable protection members including a neck airbag and left inflatable lateral means and right inflatable lateral means, the left inflatable lateral means having a left lower airbag and a left upper airbag, the right inflatable lateral means having a right lower airbag and a right upper airbag, each upper airbag (32, 33) overlying a lower airbag (22, 23) in an elevation direction, the protection device further comprising: - a C-shaped inflatable lower pocket provided with a lower base forming said neck airbag and two lower lateral branches (42, 43) respectively forming said left lower airbag and said right lower airbag for positioning on the chest of an individual, said lower base including an orifice for admitting an inflation fluid; and - a C-shaped inflatable upper pocket provided with an upper base forming a head airbag and two upper lateral branches (52, 53) extending longitudinally and forming respectively said left upper airbag and said right upper airbag, said upper pocket being in fluid flow communication with said lower pocket, said upper pocket being secured at least in part to said lower pocket, so that each upper airbag of an inflatable lateral means is secured at least in part to the lower airbag of said inflatable lateral means, characterized by each upper lateral branch (52, 53) having at least one longitudinal internal wall so as to provide at least two "tubes" in each upper airbag (32, 33). - a C-shaped inflatable lower pocket provided with a lower base forming said neck airbag and two lower lateral branches (42, 43) respectively forming said left lower airbag and said right lower airbag for positioning on the chest of an individual, said lower base including an orifice for admitting an inflation fluid; and - a C-shaped inflatable upper pocket provided with an upper base forming a head airbag and two upper lateral branches (52, 53) extending longitudinally and forming respectively said left upper airbag and said right upper airbag, said upper pocket being in fluid flow communication with said lower pocket, said upper pocket being secured at least in part to said lower pocket, so that each upper airbag of an inflatable lateral means is secured at least in part to the lower airbag of said inflatable lateral means,
A method for manufacturing a light emitting device, the method comprising the following consecutive steps: preparing a substrate where a crystal growth surface has an a-plane or an m-plane, wherein the substrate comprises a pattern; forming a first buffer layer on the substrate and a second buffer layer on the first buffer layer; forming a semiconductor layer on the second buffer layer; and forming a unit device separation region being overlapped with the pattern vertically by an etching process; forming a first electrode layer on the semiconductor layer; forming a supporting substrate on the first electrode layer; removing the substrate by etching the first buffer layer; removing the second buffer layer by etching process; forming an n-type electrode on the semiconductor layer, fully separating the semiconductor layer into a plurality of unit light emitting devices according to the unit device separation region, and wherein the semiconductor layer includes a n-type semiconductor layer and a p-type semiconductor layer and an active layer between the n-type semiconductor layer and the p-type semiconductor layer. preparing a substrate where a crystal growth surface has an a-plane or an m-plane, wherein the substrate comprises a pattern; forming a first buffer layer on the substrate and a second buffer layer on the first buffer layer; forming a semiconductor layer on the second buffer layer; and forming a unit device separation region being overlapped with the pattern vertically by an etching process; forming a first electrode layer on the semiconductor layer; forming a supporting substrate on the first electrode layer; removing the substrate by etching the first buffer layer; removing the second buffer layer by etching process; forming an n-type electrode on the semiconductor layer, fully separating the semiconductor layer into a plurality of unit light emitting devices according to the unit device separation region, and wherein the semiconductor layer includes a n-type semiconductor layer and a p-type semiconductor layer and an active layer between the n-type semiconductor layer and the p-type semiconductor layer.