mhurhangee/patent-ind-claim-en huggingface dataset:
A method for dressing a threaded grinding wheel for grinding an internal work gear (W), the method comprising: virtually creating a virtual external gear as an external gear having a tooth profile whose solid parts have exactly the same shapes as shapes of tooth spaces of the internal work gear (W), and rotating a barrel-shaped threaded grinding wheel and an externally-toothed dressing gear in synchronization with each other and moving the dressing gear relative to the threaded grinding wheel in an arc within a plane in a state where the threaded grinding wheel and the dressing gear are in mesh with each other, so as to cause the dressing gear to dress the threaded grinding wheel over an entire area thereof in a direction of a rotation axis (B1) of the threaded grinding wheel , the threaded grinding wheel being disposed at a crossed axes angle (Σ) to the internal work gear (W) which is given to the threaded grinding wheel during grinding of the internal work gear (W), the dressing gear being capable of meshing with the virtual external gear which is virtually designed to mesh with the internal work gear (W) in place of the threaded grinding wheel disposed at the crossed axes angle (Σ), wherein the dressing gear is moved in mesh with the virtual external gear in the case of moving the dressing gear in the arc within the plane. virtually creating a virtual external gear as an external gear having a tooth profile whose solid parts have exactly the same shapes as shapes of tooth spaces of the internal work gear (W), and rotating a barrel-shaped threaded grinding wheel and an externally-toothed dressing gear in synchronization with each other and moving the dressing gear relative to the threaded grinding wheel in an arc within a plane in a state where the threaded grinding wheel and the dressing gear are in mesh with each other, so as to cause the dressing gear to dress the threaded grinding wheel over an entire area thereof in a direction of a rotation axis (B1) of the threaded grinding wheel , the threaded grinding wheel being disposed at a crossed axes angle (Σ) to the internal work gear (W) which is given to the threaded grinding wheel during grinding of the internal work gear (W), the dressing gear being capable of meshing with the virtual external gear which is virtually designed to mesh with the internal work gear (W) in place of the threaded grinding wheel disposed at the crossed axes angle (Σ), wherein the dressing gear is moved in mesh with the virtual external gear in the case of moving the dressing gear in the arc within the plane.
A method for protecting single cells of a fuel cell stack from damaging electrochemical processes, comprising the steps of: - providing a predetermined maximum voltage (U_OG) of a single cell which should not be exceeded when protecting the single cells from the damaging electrochemical processes; - determining at least one single cell voltage (U_E), wherein the at least one single cell voltage (U_E) is only determined by at least one selected, predetermined single cell of the fuel cell stack which is more critical that the remaining single cells in terms of the damaging electrochemical processes; and - limiting the at least one single cell voltage (U_E) to the maximum voltage (U_OG); characterized in that the at least one single cell voltage (U_E) is only determined by at least one single cell of the fuel cell stack which is adjacent to an end cell of the fuel cell stack , meaning the second and/or the penultimate single cell of the fuel cell stack . - providing a predetermined maximum voltage (U_OG) of a single cell which should not be exceeded when protecting the single cells from the damaging electrochemical processes; - determining at least one single cell voltage (U_E), wherein the at least one single cell voltage (U_E) is only determined by at least one selected, predetermined single cell of the fuel cell stack which is more critical that the remaining single cells in terms of the damaging electrochemical processes; and - limiting the at least one single cell voltage (U_E) to the maximum voltage (U_OG);
A method performed by a head-mounted computing device (10; 900), the method comprising: capturing an image of a three-dimensional environment external to the head-mounted computing device, the captured image including at least a portion of a field of view of a user through an at least partially see-through display of the head-mounted computing device; characterized by : identifying a first surface (406; 601) within the captured image that is eligible for color fill operation, based on similarities in color parameters of contiguous pixels in the captured image; receiving a color fill request via user input at the head-mounted computing device, the request being for a predetermined color; and performing a color fill operation on the first identified surface in response to receiving the color fill request by (a) generating a fill hologram (600; 700) having the predetermined color and a shape that conforms to the shape of the first identified surface, (b) displaying the fill hologram in a world-locked manner so as to occlude the first identified surface as viewed through the see-through holographic display of the head-mounted display device even when the perspective of the head-mounted computing device changes. identifying a first surface (406; 601) within the captured image that is eligible for color fill operation, based on similarities in color parameters of contiguous pixels in the captured image; receiving a color fill request via user input at the head-mounted computing device, the request being for a predetermined color; and performing a color fill operation on the first identified surface in response to receiving the color fill request by (a) generating a fill hologram (600; 700) having the predetermined color and a shape that conforms to the shape of the first identified surface, (b) displaying the fill hologram in a world-locked manner so as to occlude the first identified surface as viewed through the see-through holographic display of the head-mounted display device even when the perspective of the head-mounted computing device changes.
An adjustable suture snare assembly comprising: a suture anchor capable of being fixated in bone and having a passage running through the anchor from a proximal end to a distal end of the anchor ; a first filament forming a closed fixed-length loop having a noose tied at one end; a second filament , connected to the fixed-length loop, the second filament having a terminal end , followed by a sliding knot that forms an adjustable loop having first and second loop limbs , followed by the remainder of the filament forming a post limb ; characterised in that the first and second loop limbs pass through the passage of the anchor , wherein the closed fixed-length-loop passes through the adjustable loop of the second filament to connect the noose to the anchor , wherein the sliding knot is prevented from being withdrawn from the passage by a restricted opening near the distal end of the passage , and wherein the post limb extends from the sliding knot through the passage towards the proximal end of the anchor . a suture anchor capable of being fixated in bone and having a passage running through the anchor from a proximal end to a distal end of the anchor ; a first filament forming a closed fixed-length loop having a noose tied at one end; a second filament , connected to the fixed-length loop, the second filament having a terminal end , followed by a sliding knot that forms an adjustable loop having first and second loop limbs , followed by the remainder of the filament forming a post limb ; characterised in that the first and second loop limbs pass through the passage of the anchor , wherein the closed fixed-length-loop passes through the adjustable loop of the second filament to connect the noose to the anchor , wherein the sliding knot is prevented from being withdrawn from the passage by a restricted opening near the distal end of the passage , and wherein the post limb extends from the sliding knot through the passage towards the proximal end of the anchor .
A method for producing an anti-fouling coating film, comprising: a step of applying a fine uneven layer forming agent containing at least one type of a polysilazane as at least one type of a silica raw material on at least one surface of a base substrate, the aforementioned at least one surface comprising at least one type of a resin, to form a fine uneven layer containing a silica and a polysilazane; a step of applying a modification layer forming agent containing a reactive organic compound and a polysiloxane or a modification layer forming agent containing a reactive organic compound and a perfluoropolyether on a surface of the fine uneven layer obtained in the step , to form a modification layer containing the polysiloxane or the perfluoropolyether; and a step of applying a lubricating oil containing a silicone oil or a fluorinated oil on a surface of the modification layer obtained in the step , to form a lubricating oil layer. a step of applying a fine uneven layer forming agent containing at least one type of a polysilazane as at least one type of a silica raw material on at least one surface of a base substrate, the aforementioned at least one surface comprising at least one type of a resin, to form a fine uneven layer containing a silica and a polysilazane; a step of applying a modification layer forming agent containing a reactive organic compound and a polysiloxane or a modification layer forming agent containing a reactive organic compound and a perfluoropolyether on a surface of the fine uneven layer obtained in the step , to form a modification layer containing the polysiloxane or the perfluoropolyether; and a step of applying a lubricating oil containing a silicone oil or a fluorinated oil on a surface of the modification layer obtained in the step , to form a lubricating oil layer.
An optical sensor for detecting codes, having a transmitter emitting light beams and a receiver receiving light beams , which are designed to scan codes, and having an evaluation unit which is designed to determine code information of the codes as a function of received signals of the receiver , characterised in that the received signals of the receiver are fed to an evaluation circuit in which sampled received signals are generated from the received signals, and in that a neural system is provided, the evaluation circuit comprising a differentiator , in which the received signals are differentiated, and an analogue-to-digital converter arranged downstream thereof, wherein the sampled received signals generated in the analogue-to-digital converter are fed to the evaluation unit, wherein the neural system is a component of the evaluation unit and wherein the evaluation unit has a unit for edge detection , wherein code information lost due to the limitation of the levels of the received signals caused by the evaluation circuit is at least partially recovered by the neural system and thereby limitations of the levels of the sampled received signals are compensated.
A memory system comprising: a module having a memory device, a decoder , and a function engine , wherein the function engine is configured to perform a management function with respect to that module based on a combination of a controller parameter and a module parameter , wherein the controller parameter includes a configuration of the module for a mode of operation, and wherein the module parameter includes use statistics that can be error correction statistics generated by the decoder; and a controller, wherein the controller parameter is provided to the function engine by the controller and the module parameter is provided to the function engine by the module; and wherein the management function is configurable based on the module parameter and the controller parameter. a module having a memory device, a decoder , and a function engine , wherein the function engine is configured to perform a management function with respect to that module based on a combination of a controller parameter and a module parameter , wherein the controller parameter includes a configuration of the module for a mode of operation, and wherein the module parameter includes use statistics that can be error correction statistics generated by the decoder; and a controller, wherein the controller parameter is provided to the function engine by the controller and the module parameter is provided to the function engine by the module; and wherein the management function is configurable based on the module parameter and the controller parameter.
Finger weeder tool for a soil cultivation device, more particularly a soil cultivation device for row crops - with at least one finger and - with a ground driving element , characterised in that at least one finger comprises at least one means for picking up and/or removing loose materials and in that the at least one means for picking up and/or removing loose materials is a protrusion and/or the at least one means for picking up and/or removing loose materials is a recess . - with at least one finger and - with a ground driving element ,
Arrangement for extracting soil resources from a bed of a body of water , having - a watercraft for travelling on the body of water and - at least one extraction unit configured for extracting soil resources on the bed of a body of water , which unit is connected to the watercraft via at least one conveying line , wherein extracted soil resources can be conveyed as an extraction fluid to the watercraft via a first conveying line , characterized in that at least one power generation unit is arranged on the watercraft , which power generation unit is configured to convert the heat of the extraction fluid into electric current. - a watercraft for travelling on the body of water and - at least one extraction unit configured for extracting soil resources on the bed of a body of water , which unit is connected to the watercraft via at least one conveying line , wherein extracted soil resources can be conveyed as an extraction fluid to the watercraft via a first conveying line ,
Balance with inertia adjustment, for a timepiece, comprising a hub defining the pivot axis (A) of said balance , a felloe , a web extending between a lower plane (Pi) and an upper plane (Ps) on either side of a median plane (Pm), said web comprising at least one arm connecting said felloe to said hub , said at least one arm comprising a housing configured to receive and maintain in place at least one inertia-block , said at least one inertia-block having a front face and a rear face and characterised in that said at least one inertia-block is integrated into said arm of said balance , and in that said at least one inertia-block comprises upper leaves and lower leaves intended to bear on either side of said arm respectively at the lower plane (Pi) and at the upper plane (Ps) in order to maintain said at least one inertia-block axially in place.
A folding box comprising a cardboard tray which comprises a rectangular bottom wall , outer side wall parts (3.1, 4.1, 5.1, 6.1) connected via fold lines to the edges of the bottom wall , corner tabs (15.1 to 18.2) connected via lateral fold lines to the lateral edges of outer side wall parts (3.1, 4.1, 5.1, 6.1) and inner side wall parts (3.2, 4.2, 5.2, 6.2) connected via fold lines to the upper edges of the outer side wall parts (3.1, 4.1, 5.1, 6.1), wherein the corner tabs (15.1 to 18.2) are folded in each case against an adjacent outer side wall part (3.1, 4.1, 5.1, 6.1) and the inner side wall parts (3.2, 4.2, 5.2, 6.2) are folded against the inner faces of the outer side wall parts (3.1, 4.1, 5.1, 6.1) and the corner tabs (15.1 to 18.2) bearing thereagainst, and a cardboard insert which is arranged on the inner face of the bottom wall , wherein the grain direction of the cardboard of the insert is oriented at an angle to the grain direction in the bottom wall of the cardboard of the tray, preferably at an angle of 90°, characterized in that the inner side wall parts (3.2, 4.2, 5.2, 6.2) of the tray are connected at their lower edge via fold lines to bottom wall tabs (7 to 10) which bear against the inner face of the bottom wall or the insert and the bottom wall tabs (7 to 10) have bevels (11.1, 11.2, 12.1, 12.2, 13.1, 13.2, 14.1, 14.2) on the lateral edges, wherein adjacent bottom wall tabs with bevels are supported against one another. is arranged on the inner face of the bottom wall , wherein the grain direction of the cardboard of the insert is oriented at an angle to the grain direction in the bottom wall of the cardboard of the tray, preferably at an angle of 90°, characterized in that the inner side wall parts (3.2, 4.2, 5.2, 6.2) of the tray are connected at their lower edge via fold lines to bottom wall tabs (7 to 10) which bear against the inner face of the bottom wall or the insert and the bottom wall tabs (7 to 10) have bevels (11.1, 11.2, 12.1, 12.2, 13.1, 13.2, 14.1, 14.2) on the lateral edges, wherein adjacent bottom wall tabs with bevels are supported against one another.
A method for adjusting uplink power performed by a terminal device, the method comprising: receiving downlink control information, DCI, from a network device; determining , according to the DCI, a target open-loop power parameter from open-loop power parameters configured by power parameter configuration information, and determining a closed-loop power parameter adjustment value according to the DCI; and determining transmit power according to the target open-loop power parameter and the closed-loop power parameter adjustment value, characterized in that : the DCI comprises closed-loop power parameter indication information, and the closed-loop power parameter adjustment value is a sum of a historical value of a closed-loop power parameter corresponding to the target open-loop power parameter and a current closed-loop power parameter, wherein the current closed-loop power parameter is obtained according to the closed-loop power parameter indication information. receiving downlink control information, DCI, from a network device; determining , according to the DCI, a target open-loop power parameter from open-loop power parameters configured by power parameter configuration information, and determining a closed-loop power parameter adjustment value according to the DCI; and determining transmit power according to the target open-loop power parameter and the closed-loop power parameter adjustment value, characterized in that : the DCI comprises closed-loop power parameter indication information, and the closed-loop power parameter adjustment value is a sum of a historical value of a closed-loop power parameter corresponding to the target open-loop power parameter and a current closed-loop power parameter, wherein the current closed-loop power parameter is obtained according to the closed-loop power parameter indication information.
A device for cheese production, particularly a cassette press, having round or polygonal cheese moulds for liquid-reducing pressing of raw cheese mixture, the moulds being mounted in cassettes, at least having - a vat , which is rectangular in plan view and open at the top, having cassettes , which are round or rectangular in plan view and open at the top and are arranged next to one another in rows transversely to the longitudinal direction of the vat , - a press head having a multiplicity of press stamps, aligned to the moulds , for pressing the raw cheese mixture, - means for washing the raw cheese mixture, - at least one handling device , which can be moved along the longitudinal sides of the vat , - a tray or conveying system , outside the vat and assigned to the same, for depositing and transporting cheese loaves, - a handling device , which can be moved along the longitudinal sides of the vat and corresponds to a turning unit , characterized in that the cassette press is provided with a horizontally arranged shaking unit, to which a tray or conveying system , located substantially horizontally and parallel to the shaking unit, can be assigned, wherein the shaking unit is constructed in the form of a clamping frame for mounting a cassette or at least one mould and wherein the clamping frame is arranged in a freely vibrating manner above the tray or conveying system . - a vat , which is rectangular in plan view and open at the top, having cassettes , which are round or rectangular in plan view and open at the top and are arranged next to one another in rows transversely to the longitudinal direction of the vat , - a press head having a multiplicity of press stamps, aligned to the moulds , for pressing the raw cheese mixture, - means for washing the raw cheese mixture, - at least one handling device , which can be moved along the longitudinal sides of the vat , - a tray or conveying system , outside the vat and assigned to the same, for depositing and transporting cheese loaves, - a handling device , which can be moved along the longitudinal sides of the vat and corresponds to a turning unit ,
A shipping container comprising: a container configured to be secured onto a vessel or a vehicle; and at least one wingsail stored in the container and configured to be unfolded to deploy from the container and folded to be stowed in the container ; wherein the wingsail comprises an aerodynamic wing structure that is made of a rigid material, and extends from the container and is configured and supported to create lift force in a propelling direction of the vessel or vehicle, when the wingsail is unfolded and deployed; wherein the container is a standard-sized shipping container. a container configured to be secured onto a vessel or a vehicle; and at least one wingsail stored in the container and configured to be unfolded to deploy from the container and folded to be stowed in the container ; wherein the wingsail comprises an aerodynamic wing structure that is made of a rigid material, and extends from the container and is configured and supported to create lift force in a propelling direction of the vessel or vehicle, when the wingsail is unfolded and deployed; wherein the container is a standard-sized shipping container.
Galvanized steel sheet, made of a steel base metal having a composition comprising, by weight percent: 0.08 ≤ C ≤ 0.3 % 3.0 ≤ Mn ≤ 6.0 % 0.5 ≤ Si ≤ 2.5 % 0.003 ≤ Al ≤ 2.0 % 0.01 ≤ Mo ≤ 0.5 % 0.01 ≤ Ti ≤ 0.1 % 0.01 ≤ Nb ≤ 0.08 % 0.0002 ≤ B ≤ 0.005 Cr ≤ 1.0 % S ≤ 0.010 % P ≤ 0.025 % N ≤ 0.008 % and inevitable impurities from the manufacturing process, the remainder being iron, said steel sheet including, as measured from the interface between the base metal and the galvanized plated layer : a) a decarburized layer starting at the interface with the plated layer wherein the carbon content is below 0.1 weight percent at a depth of 20 μm, measured according to the description, b) said decarburized layer including a ferrite sublayer starting at the interface with the plated layer and having a depth of 3 μm or more, wherein the ferrite content is above 70 % in terms of cross-sectional area fraction, measured according to the description, c) said ferrite sublayer including an internal oxidation selective zone starting from the interface with the plated layer and having a depth of at least 2.5 μm and containing manganese oxides, silicon oxides and optionally aluminum oxides, measured according to the description. a) a decarburized layer starting at the interface with the plated layer wherein the carbon content is below 0.1 weight percent at a depth of 20 μm, measured according to the description, b) said decarburized layer including a ferrite sublayer starting at the interface with the plated layer and having a depth of 3 μm or more, wherein the ferrite content is above 70 % in terms of cross-sectional area fraction, measured according to the description, c) said ferrite sublayer including an internal oxidation selective zone starting from the interface with the plated layer and having a depth of at least 2.5 μm and containing manganese oxides, silicon oxides and optionally aluminum oxides, measured according to the description.