mhurhangee/ep-ind-claims huggingface dataset:
A system for the hot-dip galvanization of components for large-scale hot-dip galvanization comprising a plurality of identical or similar components with a conveyor device having at least one goods carrier for conveying the components, a flux application device for the application of a flux on the surface of the components and a hot-dip galvanization device for the hot-dip galvanization of the components with a galvanization bath comprising a molten zinc-aluminium alloy, wherein the goods carrier is designed for the receiving and for the transport of at least one separated component, wherein the flux application device comprises a spraying device for the automated spray application of the flux onto the surface of the separated component, wherein a control device which is coupled to the spraying device for the automatic spraying of the flux is provided for the automated control of the spray application depending on the shape and/or type and/or material and/or surface quality of the component, wherein the control device is designed so that the spray application is homogeneous and/or is individually adapted to the component and wherein the control device is provided for the automated control of the thickness of the spray application on the component and/or the concentration of the flux and/or the spraying duration of the spray application per component and/or the spraying duration of the spray application for different areas of a component and/or the simultaneous spray application of different flux and/or different flux components, wherein the spraying device comprises a plurality of spray heads, wherein at least one spray head is movable in the X direction and/or in the Y direction and/or in the Z direction relative to the component.
A modular system for an air outlet arrangement for vehicles, having at least one first module and one second module, wherein the modules (10, 12, 16, 20, 22, 24, 26) for air guidance, for air deflection, for air volume regulation, for air supply and/or exhaust, for air treatment, and/or for presentation, and wherein the modules each have first fastening elements which enable the at least two modules to be fastened, wherein the at least two modules can be connected one behind the other in any order and number in the direction of air flow by means of the first fastening elements, characterized in that, the modules have a housing on which the first fastening elements are arranged, wherein the housings of the modules can be connected to one another by means of the first fastening elements, wherein at least one housing consists of at least two housing parts which can be connected to one another by means of second fastening elements, and wherein at least one housing has two pairs of opposing side walls (32; 34), and the side walls (32; 34) can be connected to one another by means of second fastening elements.
A method performed at an electronic device (200, 210) with a touch-sensitive surface (203, 212), a processor, and memory storing one or more applications for execution by the processor, the method comprising: detecting (400, 404, 500, 504) one or more touches that start within a view on the touch-sensitive surface; and processing the one or more touches on the touch-sensitive surface with a software element associated with the view; wherein the method is characterised in that it further comprises: receiving, at the software element associated with the view, a touch event, the touch event comprising a data structure having a phase field containing a phase value indicating that a respective touch on the touch-sensitive surface has been canceled by the device; and responding to receiving the touch event by ignoring the respective touch on the touch-sensitive surface. detecting (400, 404, 500, 504) one or more touches that start within a view on the touch-sensitive surface; and processing the one or more touches on the touch-sensitive surface with a software element associated with the view; wherein the method is characterised in that it further comprises: receiving, at the software element associated with the view, a touch event, the touch event comprising a data structure having a phase field containing a phase value indicating that a respective touch on the touch-sensitive surface has been canceled by the device; and responding to receiving the touch event by ignoring the respective touch on the touch-sensitive surface. receiving, at the software element associated with the view, a touch event, the touch event comprising a data structure having a phase field containing a phase value indicating that a respective touch on the touch-sensitive surface has been canceled by the device; and responding to receiving the touch event by ignoring the respective touch on the touch-sensitive surface.
A cable branch structure (1, 2, 3) with a shielded cable and a braided wire, for branching, from a main line into a plurality of branch lines (30B, 30C), said shielded cable with a plurality of electric wires covered with said braided wire, said braided wire comprising: a main line side braided wire covering the main line; a plurality of branch line side braided wires (20B, 20C) each covering the respective branch lines (30B, 30C); and the cable branch structure (1, 2, 3) further comprises a first mounting portion provided at an end portion of the main line side braided wire and second mounting portions (120, 130) provided at each of the end portions of the branch line side braided wires (20B, 20C) characterized in that the second mounting portions (120, 130) are mounted on the first mounting portion by welding, soldering, or with bolts and nuts, the first mounting portion being a metal ring and the second mounting portions (120, 130) being metal rings. a main line side braided wire covering the main line; a plurality of branch line side braided wires (20B, 20C) each covering the respective branch lines (30B, 30C); and the cable branch structure (1, 2, 3) further comprises a first mounting portion provided at an end portion of the main line side braided wire and second mounting portions (120, 130) provided at each of the end portions of the branch line side braided wires (20B, 20C) characterized in that the second mounting portions (120, 130) are mounted on the first mounting portion by welding, soldering, or with bolts and nuts, the first mounting portion being a metal ring and the second mounting portions (120, 130) being metal rings.
An inkjet apparatus comprising: an inkjet assembly having inkjet nozzles through each of which ink flows at a nominal flow rate as it is ejected from the nozzle onto a substrate, and in which ink is held under a nominal negative pressure associated with a characteristic of a meniscus of the ink in the nozzle when ejection of ink from the nozzle is not occurring; recirculation flow paths, each flow path having a nozzle end at which it opens into one of the nozzles and another location spaced from the nozzle end that is to be subjected to a recirculation pressure lower than the nominal negative pressure so that ink is recirculated from the nozzle through the flow path at a recirculation flow rate, each recirculation flow path having a fluidic resistance between the nozzle end and the other location such that a recirculation pressure at the nozzle end of the flow path that results from the recirculation pressure applied at the other location of the flow path is small enough so that any reduction in flow rate below the nominal flow rate when ink is being ejected is less than a threshold, or a change in the nominal negative pressure when ink is not being ejected is less than a threshold, or both; a refill chamber; and a second recirculation flow path that extends from the refill chamber, the second recirculation flow path from the refill chamber having a second fluidic resistance; wherein the fluidic resistance between the nozzle end and the other location is within ± 50% of the second fluidic resistance. an inkjet assembly having inkjet nozzles through each of which ink flows at a nominal flow rate as it is ejected from the nozzle onto a substrate, and in which ink is held under a nominal negative pressure associated with a characteristic of a meniscus of the ink in the nozzle when ejection of ink from the nozzle is not occurring; recirculation flow paths, each flow path having a nozzle end at which it opens into one of the nozzles and another location spaced from the nozzle end that is to be subjected to a recirculation pressure lower than the nominal negative pressure so that ink is recirculated from the nozzle through the flow path at a recirculation flow rate, each recirculation flow path having a fluidic resistance between the nozzle end and the other location such that a recirculation pressure at the nozzle end of the flow path that results from the recirculation pressure applied at the other location of the flow path is small enough so that any reduction in flow rate below the nominal flow rate when ink is being ejected is less than a threshold, or a change in the nominal negative pressure when ink is not being ejected is less than a threshold, or both; a refill chamber; and a second recirculation flow path that extends from the refill chamber, the second recirculation flow path from the refill chamber having a second fluidic resistance; wherein the fluidic resistance between the nozzle end and the other location is within ± 50% of the second fluidic resistance.
An air-conditioning apparatus comprising: a refrigeration cycle including a compressor, a heat source-side heat exchanger, a pressure reducing device, and a load-side heat exchanger (6a, 6b) connected via refrigerant pipes (10, 12, 14, 16, 18, 300, 400) to allow refrigerant to circulate through the refrigeration cycle to perform at least a cooling operation with the heat source-side heat exchanger serving as a radiator and the load-side heat exchanger (6a, 6b) serving as an evaporator; a heat source-side unit housing the compressor, the heat source-side heat exchanger, and the pressure reducing device; at least one load-side unit (200a, 200b) housing the load-side heat exchanger (6a, 6b), and connected to the heat source-side unit via existing refrigerant pipes (300, 400); and a controller configured to control the refrigeration cycle, wherein, during the cooling operation, the controller adjusts an opening degree of the pressure reducing device in accordance with a reduction amount of a current total load capacity of the at least one load-side unit (200a, 200b), characterized in that the controller comprises a storage unit configured to store an immediately preceding total load capacity, wherein the controller is configured to adjust the opening degree of the pressure reducing device when an outside air temperature of outdoor air supplied to the heat source-side heat exchanger exceeds a reference outside air temperature, and when the current total load capacity of the at least one load-side unit (200a, 200b) is less than the stored total load capacity. a refrigeration cycle including a compressor, a heat source-side heat exchanger, a pressure reducing device, and a load-side heat exchanger (6a, 6b) connected via refrigerant pipes (10, 12, 14, 16, 18, 300, 400) to allow refrigerant to circulate through the refrigeration cycle to perform at least a cooling operation with the heat source-side heat exchanger serving as a radiator and the load-side heat exchanger (6a, 6b) serving as an evaporator; a heat source-side unit housing the compressor, the heat source-side heat exchanger, and the pressure reducing device; at least one load-side unit (200a, 200b) housing the load-side heat exchanger (6a, 6b), and connected to the heat source-side unit via existing refrigerant pipes (300, 400); and a controller configured to control the refrigeration cycle, wherein, during the cooling operation, the controller adjusts an opening degree of the pressure reducing device in accordance with a reduction amount of a current total load capacity of the at least one load-side unit (200a, 200b), characterized in that the controller comprises a storage unit configured to store an immediately preceding total load capacity, wherein the controller is configured to adjust the opening degree of the pressure reducing device when an outside air temperature of outdoor air supplied to the heat source-side heat exchanger exceeds a reference outside air temperature, and when the current total load capacity of the at least one load-side unit (200a, 200b) is less than the stored total load capacity.
A rotor for a fiberising apparatus comprising: a rotor housing; a first and second bearing assembly, wherein each bearing assembly comprises at least two ball bearings, each seated in a respective bearing seat; a horizontal shaft rotatably mounted between the first bearing assembly and the second bearing assembly; characterised by a plurality of resilient dampers arranged in an annular ring, wherein each resilient damper is connected at a first end to the bearing seat and connected at a second end to the inner wall of the rotor housing. a rotor housing; a first and second bearing assembly, wherein each bearing assembly comprises at least two ball bearings, each seated in a respective bearing seat; a horizontal shaft rotatably mounted between the first bearing assembly and the second bearing assembly; characterised by a plurality of resilient dampers arranged in an annular ring, wherein each resilient damper is connected at a first end to the bearing seat and connected at a second end to the inner wall of the rotor housing.
A method of manufacturing a spline telescopic shaft comprising: a masking step in which, in a prescribed axial-direction region (LI; L2) of an intermediate manufacturing product formed by either one of a metal core including a metal outer tooth portion that is annularly disposed and a metal tube including a metal inner tooth portion that is annularly disposed, partial tooth grooves disposed to be equally spaced circumferentially are respectively covered by a plurality of masking members (70; 70P; 70Q; 70R; 70S) disposed to be equally spaced circumferentially; and a resin coating step in which a resin layer (43A; 53PA) is formed by supplying a synthetic resin to a surface of the metal outer tooth portion or the metal inner tooth portion, and inner surfaces of the partial tooth grooves covered by the plurality of masking members (70; 70P; 70Q; 70R; 70S) are left as a plurality of metal exposed portions (44; 54P) disposed to be equally spaced circumferentially; characterized in that the method further comprises a coating film forming step in which, in a state where the intermediate manufacturing product provided with the resin layer (43A; 53PA) is centered with respect to a broach (80; 80P) via the plurality of metal exposed portions (44; 54P), the intermediate manufacturing product and the broach (80; 80P) are caused to slide relative to each other in an axial direction by press-fitting such that the resin layer (43A; 53PA) is shaved to form a resin coating film (43; 53P). a masking step in which, in a prescribed axial-direction region (LI; L2) of an intermediate manufacturing product formed by either one of a metal core including a metal outer tooth portion that is annularly disposed and a metal tube including a metal inner tooth portion that is annularly disposed, partial tooth grooves disposed to be equally spaced circumferentially are respectively covered by a plurality of masking members (70; 70P; 70Q; 70R; 70S) disposed to be equally spaced circumferentially; and a resin coating step in which a resin layer (43A; 53PA) is formed by supplying a synthetic resin to a surface of the metal outer tooth portion or the metal inner tooth portion, and inner surfaces of the partial tooth grooves covered by the plurality of masking members (70; 70P; 70Q; 70R; 70S) are left as a plurality of metal exposed portions (44; 54P) disposed to be equally spaced circumferentially; characterized in that the method further comprises a coating film forming step in which, in a state where the intermediate manufacturing product provided with the resin layer (43A; 53PA) is centered with respect to a broach (80; 80P) via the plurality of metal exposed portions (44; 54P), the intermediate manufacturing product and the broach (80; 80P) are caused to slide relative to each other in an axial direction by press-fitting such that the resin layer (43A; 53PA) is shaved to form a resin coating film (43; 53P).
A system for improved positioning of an implantable lead in a patient, the system comprising: a clinician programmer having a graphical user interface; an implantable lead coupleable to the clinician programmer, wherein the implantable lead comprises at least four electrodes; at least one EMG sensing electrode minimally invasively positionable on a skin surface or within the patient; wherein the clinician programmer is configured to facilitate positioning of the implantable lead at a target stimulation region by: delivering a test stimulation at a stimulation amplitude level to a nerve tissue of the patient with a principal electrode of the implantable lead, wherein the principal electrode is selected from the at least four electrodes of the implantable lead; delivering test stimulations at a same stimulation amplitude level for a same period of time sequentially to each of the other electrodes of the implantable lead; and obtaining a stimulation-induced EMG motor response recording for the test stimulations as sensed via the at least one EMG sensing electrode. a clinician programmer having a graphical user interface; an implantable lead coupleable to the clinician programmer, wherein the implantable lead comprises at least four electrodes; at least one EMG sensing electrode minimally invasively positionable on a skin surface or within the patient; wherein the clinician programmer is configured to facilitate positioning of the implantable lead at a target stimulation region by: delivering a test stimulation at a stimulation amplitude level to a nerve tissue of the patient with a principal electrode of the implantable lead, wherein the principal electrode is selected from the at least four electrodes of the implantable lead; delivering test stimulations at a same stimulation amplitude level for a same period of time sequentially to each of the other electrodes of the implantable lead; and delivering a test stimulation at a stimulation amplitude level to a nerve tissue of the patient with a principal electrode of the implantable lead, wherein the principal electrode is selected from the at least four electrodes of the implantable lead; delivering test stimulations at a same stimulation amplitude level for a same period of time sequentially to each of the other electrodes of the implantable lead; and obtaining a stimulation-induced EMG motor response recording for the test stimulations as sensed via the at least one EMG sensing electrode.
A method to provide annotations to a target system for use in executing a code block, the method comprising: examining the code block to be annotated; identifying a hardware customization to support a specified quality of service level to execute the code block with a reduced energy expenditure; and characterized by determining one or more annotations associated with the identified hardware customization; and providing the determined one or more annotations to the target system to cause the target system to execute the code block using the identified hardware customization; wherein the target system comprises multiple processor cores, and wherein the hardware customization comprises specifying for each respective portion of the code block a particular processor core of the multiple processor cores for execution of the respective portion of the code block. examining the code block to be annotated; identifying a hardware customization to support a specified quality of service level to execute the code block with a reduced energy expenditure; and characterized by determining one or more annotations associated with the identified hardware customization; and providing the determined one or more annotations to the target system to cause the target system to execute the code block using the identified hardware customization; wherein the target system comprises multiple processor cores, and wherein the hardware customization comprises specifying for each respective portion of the code block a particular processor core of the multiple processor cores for execution of the respective portion of the code block.
A refrigeration device in which a refrigerant is distributed and supplied from a compressor to respective evaporators arranged in a plurality of showcases (2, 2A, 2B), wherein each showcase (2, 2A, 2B) comprises: an expansion valve disposed on a refrigerant upstream side of the evaporator, a solenoid valve disposed on a refrigerant downstream side of the evaporator, and a controller which controls the expansion valve and the solenoid valve, at least one of the showcases has a heater and the showcase is a switchable showcase which is usable in switching a cooling mode to cool an interior of a display chamber, a non-cooling mode in which the interior of the display chamber is not cooled and/or a heating mode to heat the interior of the display chamber by the heater, and the controller of the switchable showcase controls a valve position of the expansion valve and opens and closes the solenoid valve in the cooling mode, and shuts off the expansion valve and opens the solenoid valve in the non-cooling mode and/or the heating mode. an expansion valve disposed on a refrigerant upstream side of the evaporator, a solenoid valve disposed on a refrigerant downstream side of the evaporator, and a controller which controls the expansion valve and the solenoid valve, at least one of the showcases has a heater and the showcase is a switchable showcase which is usable in switching a cooling mode to cool an interior of a display chamber, a non-cooling mode in which the interior of the display chamber is not cooled and/or a heating mode to heat the interior of the display chamber by the heater, and the controller of the switchable showcase controls a valve position of the expansion valve and opens and closes the solenoid valve in the cooling mode, and shuts off the expansion valve and opens the solenoid valve in the non-cooling mode and/or the heating mode.
A smoking article comprising: a tobacco rod; a filter comprising at least one plug of filtration material wrapped with one or more filter wrappers; and a tipping material attaching the tobacco rod and the filter; wherein the one or more filter wrappers have a basis weight of more than 32 grams per square metre and less than 50 grams per square metre, characterized in that the at least one plug of filtration material forming the filter has a plasticizer content of between about 5% and about 10%, and the one or more filter wrappers have a thickness of between 50 to 60 microns. a tobacco rod; a filter comprising at least one plug of filtration material wrapped with one or more filter wrappers; and a tipping material attaching the tobacco rod and the filter; wherein the one or more filter wrappers have a basis weight of more than 32 grams per square metre and less than 50 grams per square metre, characterized in that the at least one plug of filtration material forming the filter has a plasticizer content of between about 5% and about 10%, and the one or more filter wrappers have a thickness of between 50 to 60 microns.