mhurhangee/ep-ind-claims huggingface dataset:
Building window, comprising - a frame, - a window sash adjustable with respect to the frame and bearing against the frame in a closed position, - a locking device arranged on the window sash and being adjustable between a first position, in which the window sash is locked with the frame in the closed position, a second position, in which the window sash is pivotable about a first pivot axis with respect to the frame, and a third position, in which the window sash is pivotable about a second pivot axis different from the first pivot axis, with respect to the frame, and - an electromotive adjusting device arranged on the frame and intended for adjusting the locking device, wherein the adjusting device has a lever mechanism with a lever element mounted pivotable on the frame, wherein the lever element - in the third position of the locking device, is coupled to the window sash in such a way that, by adjusting the lever element, the window sash is pivotable about the second pivot axis with respect to the frame, - in the second position of the locking device, by contrast, the lever element is not coupled to the window sash, with the result that the window sash is pivotable about the first pivot axis with respect to the frame independently of the lever element, characterized in that the lever element is mounted pivotable on the frame at a first end via a bearing point and, at a second end remote from the first end, bears a coupling pin for coupling with the window sash. - a frame, - a window sash adjustable with respect to the frame and bearing against the frame in a closed position, - a locking device arranged on the window sash and being adjustable between a first position, in which the window sash is locked with the frame in the closed position, a second position, in which the window sash is pivotable about a first pivot axis with respect to the frame, and a third position, in which the window sash is pivotable about a second pivot axis different from the first pivot axis, with respect to the frame, and - an electromotive adjusting device arranged on the frame and intended for adjusting the locking device, - in the third position of the locking device, is coupled to the window sash in such a way that, by adjusting the lever element, the window sash is pivotable about the second pivot axis with respect to the frame, - in the second position of the locking device, by contrast, the lever element is not coupled to the window sash, with the result that the window sash is pivotable about the first pivot axis with respect to the frame independently of the lever element,
Device for supplying a quantity of secondary air into the exhaust tract of an internal combustion engine, having a flow path which is arranged downstream of the gas outlet of the internal combustion engine in the direction of flow of the exhaust gas, having an injection device which is designed to supply a quantity of secondary air at a supply point into the flow path, whereby the supply of the secondary air takes place upstream of a first honeycomb body, the secondary air being introduced into the flow section through an injection tube (5, 11) of the injection device, the injection tube (5, 11) being arranged outside the flow section and opening into the flow section, whereby the injection tube has a cross-section which widens conically towards the feed point, characterized in that the injection tube comprises an element for generating a swirl in the secondary air flow.
A glucose consumption accelerator comprising: at least one selected from the group consisting of 2-amino-1-cyclohexylethanol, 1-amino-2-propanol, 1,3 -bis[tris(hydroxymethyl)methylamino]propane, N-cyclohexylethanolamine, dipropylamine, morpholine, propylamine, triethanolamine, triethylamine, and trishydroxymethylaminomethane; for use in the treatment or prevention of diabetes. at least one selected from the group consisting of 2-amino-1-cyclohexylethanol, 1-amino-2-propanol, 1,3 -bis[tris(hydroxymethyl)methylamino]propane, N-cyclohexylethanolamine, dipropylamine, morpholine, propylamine, triethanolamine, triethylamine, and trishydroxymethylaminomethane; for use in the treatment or prevention of diabetes.
An outdoor unit for an air-conditioning apparatus, the outdoor unit comprising an outer box having a machine chamber formed therein in which a compressor is placed, wherein the outer box includes a machine-chamber front panel placed on a front side of the machine chamber and removable from the outer box, and a top panel to cover a top surface, in a front surface of the top panel, a top-panel screw hole into which a screw is inserted is provided, on a front surface of the machine-chamber front panel, at an upper portion thereof, an insertion portion is formed and recessed backward, the insertion portion is provided with a front-panel screw hole into which the screw is inserted, characterized in that in the front surface of the top panel, a curled portion having a shape curled toward an inner side at a lower end of the top panel is provided, and in that the insertion portion is provided with a protruding portion with a shape projecting toward a front side relative to the front-panel screw hole, and further in that when the insertion portion is inserted inside a front surface of the top panel, and a position of the top-panel screw hole is aligned with a position of the front-panel screw hole, the protruding portion is engaged with the curled portion. the outer box includes a machine-chamber front panel placed on a front side of the machine chamber and removable from the outer box, and a top panel to cover a top surface, in a front surface of the top panel, a top-panel screw hole into which a screw is inserted is provided, on a front surface of the machine-chamber front panel, at an upper portion thereof, an insertion portion is formed and recessed backward, the insertion portion is provided with a front-panel screw hole into which the screw is inserted, in the front surface of the top panel, a curled portion having a shape curled toward an inner side at a lower end of the top panel is provided, and in that the insertion portion is provided with a protruding portion with a shape projecting toward a front side relative to the front-panel screw hole, and further in that when the insertion portion is inserted inside a front surface of the top panel, and a position of the top-panel screw hole is aligned with a position of the front-panel screw hole, the protruding portion is engaged with the curled portion.
An additive manufacturing system for producing a three-dimensional article comprising: a print engine configured to produce the article in a layer-by-layer manner by the fusion or binding of powder material; a build box including a powder bin and a build plate; a post-fabrication powder removal apparatus including: a rotary frame defining an internal receptacle cavity; a plurality of clamps (66, 72) coupled to a corresponding plurality of actuators (68, 74); and a clamping plate coupled to a lift apparatus; an agitation device mounted to the clamping plate; a transport mechanism; and a controller configured to perform the following steps: operate the transport mechanism to transport the build box to the internal receptacle cavity; cavity; operate the plurality of actuators to engage the build box with the plurality of clamps to secure the build box to the rotary frame; operate the rotary frame to rotate the build box until unfused powder begins to exit the build box; and operate the agitation device to facilitate pouring of the unfused powder from the build box. a print engine configured to produce the article in a layer-by-layer manner by the fusion or binding of powder material; a build box including a powder bin and a build plate; a post-fabrication powder removal apparatus including: a rotary frame defining an internal receptacle cavity; a plurality of clamps (66, 72) coupled to a corresponding plurality of actuators (68, 74); and a clamping plate coupled to a lift apparatus; an agitation device mounted to the clamping plate; a rotary frame defining an internal receptacle cavity; a plurality of clamps (66, 72) coupled to a corresponding plurality of actuators (68, 74); and a clamping plate coupled to a lift apparatus; an agitation device mounted to the clamping plate; a transport mechanism; and a controller configured to perform the following steps: operate the transport mechanism to transport the build box to the internal receptacle cavity; cavity; operate the plurality of actuators to engage the build box with the plurality of clamps to secure the build box to the rotary frame; operate the rotary frame to rotate the build box until unfused powder begins to exit the build box; and operate the agitation device to facilitate pouring of the unfused powder from the build box. operate the transport mechanism to transport the build box to the internal receptacle cavity; cavity; operate the plurality of actuators to engage the build box with the plurality of clamps to secure the build box to the rotary frame; operate the rotary frame to rotate the build box until unfused powder begins to exit the build box; and operate the agitation device to facilitate pouring of the unfused powder from the build box.
A field service device for facilitating a processing system replacement in a vibratory flowmeter having a field service device processor and a storage system with the field service device characterized by: the field service device processor being configured to interface with one or more vibratory flowmeter processing systems; and the storage system being coupled to the field service device processor and configured to store pre-replacement operationally-derived values, post-replacement operationally-derived values, and one or more scaling factors; with the field service device processor being configured to obtain pre-replacement operationally-derived values of the vibratory flowmeter, obtain post-replacement operationally-derived values from the vibratory flowmeter after an old processing system has been replaced with a replacement processing system, generate the one or more scaling factors as a ratio of one or more pre-replacement operationally-derived values to one or more post-replacement operationally-derived values, and download the one or more scaling factors into one or more of the replacement processing system or a monitoring computer, wherein the one or more scaling factors can be used to process operationally-derived values. the field service device processor being configured to interface with one or more vibratory flowmeter processing systems; and the storage system being coupled to the field service device processor and configured to store pre-replacement operationally-derived values, post-replacement operationally-derived values, and one or more scaling factors; with the field service device processor being configured to obtain pre-replacement operationally-derived values of the vibratory flowmeter, obtain post-replacement operationally-derived values from the vibratory flowmeter after an old processing system has been replaced with a replacement processing system, generate the one or more scaling factors as a ratio of one or more pre-replacement operationally-derived values to one or more post-replacement operationally-derived values, and download the one or more scaling factors into one or more of the replacement processing system or a monitoring computer, wherein the one or more scaling factors can be used to process operationally-derived values.
A developer cartridge for an image forming apparatus, comprising a cartridge box comprising a toner compartment and a toner outlet; a stirring member being rotationally supported inside the toner compartment; a developing roller being rotationally supported on the toner outlet and having an axial direction; a gear set being installed on the exterior wall of the cartridge box which receives driving force and drives the stirring member and the developing roller; a rotation member being rotationally installed on the exterior wall of the cartridge box and being provided with a clutch gear and a coaxial cam; wherein the clutch gear comprises a small-diameter portion which is clearance-fitted with one gear tooth top of the gear set and a large-diameter portion which is interference-fitted with the gear tooth top via an elastic friction layer provided around a circumference of the large-diameter portion; a contact member being rotationally installed on the exterior wall of the cartridge box and being provided with a contact end for contacting the cam and a triggering end; and an elastic member being installed between the cartridge box and the contact member for forcing the contact end to be in contact with the cam; wherein the cam is a cam groove formed on an end surface of the clutch gear, and the contact end is a slider installed inside the cam groove, and the cam is in a staggered phase with the clutch gear such that the cam and the large-diameter portion of the clutch gear are not in the same phase in a direction perpendicular to the axial direction.
A method comprising: establishing, at a co-location facility, the co-location facility being a complex that can house multiple server computers, cluster boundaries between a plurality of clusters of computers located at the co-location facility, the cluster boundaries preventing computers in one cluster of the plurality of clusters from communicating with computers in another cluster of the plurality of clusters; monitoring, at the co-location facility, hardware operations of the plurality of clusters of computers located at the co-location facility; detecting a hardware failure in one of the computers in one of the plurality of clusters; and performing an act, in response to detecting the hardware failure, to correct the hardware failure; the method being further characterised by monitoring software operations of each cluster of the plurality of clusters of computers located at the co-location facility from a location remote from the co-location facility, detecting a software failure in one of the computers in one of the plurality of clusters; and performing an act, in response to detecting the software failure, to correct the software failure. establishing, at a co-location facility, the co-location facility being a complex that can house multiple server computers, cluster boundaries between a plurality of clusters of computers located at the co-location facility, the cluster boundaries preventing computers in one cluster of the plurality of clusters from communicating with computers in another cluster of the plurality of clusters; monitoring, at the co-location facility, hardware operations of the plurality of clusters of computers located at the co-location facility; detecting a hardware failure in one of the computers in one of the plurality of clusters; and performing an act, in response to detecting the hardware failure, to correct the hardware failure; the method being further characterised by monitoring software operations of each cluster of the plurality of clusters of computers located at the co-location facility from a location remote from the co-location facility, detecting a software failure in one of the computers in one of the plurality of clusters; and performing an act, in response to detecting the software failure, to correct the software failure.
A radiofrequency assembly comprising: - a module comprising an antenna assembly (101, 102, 103) formed in a semiconductor integrated circuit and arranged to carry out at least one of the following functions: transmitting an electromagnetic signal, and receiving an electromagnetic signal; - a printed circuit board on which the module is mounted; and - a horn-like structure comprising: - a base portion adapted to fit on the module and extending to the printed circuit board with means (1003, 1004) for mounting the horn-like structure on the printed circuit board; - an extending horn-shaped portion having an input opening that encloses the antenna assembly when the horn-like structure is fitted on the module and mounted on the printed circuit board. - a module comprising an antenna assembly (101, 102, 103) formed in a semiconductor integrated circuit and arranged to carry out at least one of the following functions: transmitting an electromagnetic signal, and receiving an electromagnetic signal; - a printed circuit board on which the module is mounted; and - a horn-like structure comprising: - a base portion adapted to fit on the module and extending to the printed circuit board with means (1003, 1004) for mounting the horn-like structure on the printed circuit board; - an extending horn-shaped portion having an input opening that encloses the antenna assembly when the horn-like structure is fitted on the module and mounted on the printed circuit board. - a base portion adapted to fit on the module and extending to the printed circuit board with means (1003, 1004) for mounting the horn-like structure on the printed circuit board; - an extending horn-shaped portion having an input opening that encloses the antenna assembly when the horn-like structure is fitted on the module and mounted on the printed circuit board.
Helmet comprising: - an outer shell having a crown and defining an internal envelope bounded by a lower edge, - an internal structure arranged inside the internal envelope, the internal structure comprising a plurality of ribs, each rib extending from the crown to the lower edge in which the internal structure is secured to the outer shell by a connecting layer, and characterized in that the connecting layer permanently secures at least one rib to the outer shell. - an outer shell having a crown and defining an internal envelope bounded by a lower edge, - an internal structure arranged inside the internal envelope, the internal structure comprising a plurality of ribs, each rib extending from the crown to the lower edge
A method of manufacturing a contact lens comprising: a) selecting an initial lens design with an initial set of stabilization zone parameters; b) creating a modified contact lens design by modifying at least one stabilization zone parameter from its value in the selected design; c) simulating the application of forces to the contact lens over at least one blink cycle to determine the degree to which the lens rotates and decenters, and to derive performance variables that represent at least: (i) lens rotation and centration performance; or (ii) lens stability around a resting position; or (iii) lens rotation and centration performance and stability around a resting position; d) applying to the modified lens design a merit function of the form: MF = ∑ W V V m V s 2, where V is a performance variable as aforesaid and the subscripts "m " and " s " designate its value for the modified and selected designs respectively, W v is a weighting factor for the performance variable V, and the sum is over the performance quantities derived in step (c); and e) if the modified contact lens design possesses improved stabilization based on the application of said merit functions, selecting the modified contact lens design; and f) fabricating a contact lens to the selected design. a) selecting an initial lens design with an initial set of stabilization zone parameters; b) creating a modified contact lens design by modifying at least one stabilization zone parameter from its value in the selected design; c) simulating the application of forces to the contact lens over at least one blink cycle to determine the degree to which the lens rotates and decenters, and to derive performance variables that represent at least: (i) lens rotation and centration performance; or (ii) lens stability around a resting position; or (iii) lens rotation and centration performance and stability around a resting position; (i) lens rotation and centration performance; or (ii) lens stability around a resting position; or (iii) lens rotation and centration performance and stability around a resting position; d) applying to the modified lens design a merit function of the form: MF = ∑ W V V m V s 2, where V is a performance variable as aforesaid and the subscripts "m " and " s " designate its value for the modified and selected designs respectively, W v is a weighting factor for the performance variable V, and the sum is over the performance quantities derived in step (c); and e) if the modified contact lens design possesses improved stabilization based on the application of said merit functions, selecting the modified contact lens design; and f) fabricating a contact lens to the selected design.
Method for curing concrete products in a curing chamber, which comprises several curing cells arranged in at least one column, in which the curing cells are located on a vertical stack, in which method the moisture level of curing cells is controlled such that in the curing cells the temperature is desired and surface temperature of the element to be cured is measured by a sensor, which curing cells are formed to curing cell groups, in which one curing cell group comprises at least one curing cell, advantageously 2 - 4 curing cells, and that the curing cell group is insulated in respect of other curing cell groups of the curing chamber, characterized in that moisture level of each curing cell group is measured and that the surface temperature of the element to be cured is measured in order to define the required condensation point temperature and that the moisture level of each of the curing cells of the curing chamber is controlled by moisture control means such that the condensation point temperature is kept little higher or lower than the surface temperature of the concrete products located in the curing cells or at the condensation point depending on the desired effect on product quality.
A method of manufacturing an electrode of a rechargeable solid-state battery, the method comprising: mixing together: an electrochemically active powder material; an electrolyte powder material having a high ion conductivity, comprising lanthanum lithium titanium oxide, lanthanum lithium zirconium oxide, Li 10 GeP 2 S 12, or LiSICON; an electrically conductive material; and a low-melt-temperature inorganic solid electrolyte; and hot pressing or hot rolling the mixture at a temperature of less than 500°C, thus causing the low-melt-temperature inorganic solid electrolyte to soften or melt, thereby bonding the electrochemically active powder material, the electrolyte powder material and the electrically conductive material together; and characterized in that the low-melt-temperature inorganic solid electrolyte is selected from the group consisting of Li 2 O-MoO 3, Li 2 O-WO 3, LiBr-Li 2 O-WO 3, LiBr-Li 2 O-B 2 O 3 -P 2 O 5, a mixture of LiNO 3 and Al 2 O 3, and a mixture of LiNO 2 or LiN03 and LiH 2 PO 4 or P 2 O 5. mixing together: an electrochemically active powder material; an electrolyte powder material having a high ion conductivity, comprising lanthanum lithium titanium oxide, lanthanum lithium zirconium oxide, Li 10 GeP 2 S 12, or LiSICON; an electrically conductive material; and a low-melt-temperature inorganic solid electrolyte; and an electrochemically active powder material; an electrolyte powder material having a high ion conductivity, comprising lanthanum lithium titanium oxide, lanthanum lithium zirconium oxide, Li 10 GeP 2 S 12, or LiSICON; an electrically conductive material; and a low-melt-temperature inorganic solid electrolyte; and hot pressing or hot rolling the mixture at a temperature of less than 500°C, thus causing the low-melt-temperature inorganic solid electrolyte to soften or melt, thereby bonding the electrochemically active powder material, the electrolyte powder material and the electrically conductive material together; and characterized in that the low-melt-temperature inorganic solid electrolyte is selected from the group consisting of Li 2 O-MoO 3, Li 2 O-WO 3, LiBr-Li 2 O-WO 3, LiBr-Li 2 O-B 2 O 3 -P 2 O 5, a mixture of LiNO 3 and Al 2 O 3, and a mixture of LiNO 2 or LiN03 and LiH 2 PO 4 or P 2 O 5.