mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a joined member, including applying a light-permeable resin to a surface of an image display panel using a die head, the image display panel having a frame along an outer periphery thereof and therefore having level difference portions at a boundary between the frame and a main surface portion thereof, the method comprising: providing a pair of die blocks (20a, 20b) at least one of which has a supply path for the light-permeable resin formed therein and which detachably interposes a first and second shims (30, 40) to define a dispensing port; selecting the first shim and the second shim based on an outer shape of the image display panel and a dimension of the level difference portions, the first shim constituted of a thin plate-like member having a slit-like first dispensing port that defines part of the dispensing port and corresponds to a length of the main surface portion in a direction in which the die head extends, the second shim constituted of a thin plate-like member having a slit-like second dispensing port that defines part of the dispensing port and has a length greater than the length of the main surface portion in the direction in which the die head extends; assembling the die head by interposing the first and second selected shims (30, 40) between the pair of die blocks (20a, 20b); supplying the light-permeable resin from the dispensing port while relatively moving the die head above a surface of the image display panel; and joining a light-permeable member to the surface of the image display panel with the light-permeable resin supplied thereon. providing a pair of die blocks (20a, 20b) at least one of which has a supply path for the light-permeable resin formed therein and which detachably interposes a first and second shims (30, 40) to define a dispensing port; selecting the first shim and the second shim based on an outer shape of the image display panel and a dimension of the level difference portions, the first shim constituted of a thin plate-like member having a slit-like first dispensing port that defines part of the dispensing port and corresponds to a length of the main surface portion in a direction in which the die head extends, the second shim constituted of a thin plate-like member having a slit-like second dispensing port that defines part of the dispensing port and has a length greater than the length of the main surface portion in the direction in which the die head extends; assembling the die head by interposing the first and second selected shims (30, 40) between the pair of die blocks (20a, 20b); supplying the light-permeable resin from the dispensing port while relatively moving the die head above a surface of the image display panel; and joining a light-permeable member to the surface of the image display panel with the light-permeable resin supplied thereon.
A computer implemented method for real time determination of stress levels of an individual, the method comprising: receiving at least one stream of physiological data from at least one primary sensor for a predefined duration of approximately one minute, wherein the at least one primary sensor is deployed in at least one of a workplace environment and a client device of the individual, and wherein the at least one stream of physiological data from at least one primary sensor comprises cardiac signals; preprocessing the at least one stream of physiological data to extract physiological parameters, wherein the preprocessing comprises performing a preliminary analysis on the at least one stream of physiological data; and determining a stress level of the individual based on the physiological parameters and supplementary physiological data received from one or more secondary sensors, wherein the supplementary physiological data includes information pertaining to a body posture and facial expression of the individual, wherein the determining comprises performing a statistical analysis on the physiological parameters and the supplementary physiological data, and wherein the supplementary physiological data is utilized only when a duration of receiving the at least one stream of physiological data from the at least one primary sensor is less than the predefined duration. receiving at least one stream of physiological data from at least one primary sensor for a predefined duration of approximately one minute, wherein the at least one primary sensor is deployed in at least one of a workplace environment and a client device of the individual, and wherein the at least one stream of physiological data from at least one primary sensor comprises cardiac signals; preprocessing the at least one stream of physiological data to extract physiological parameters, wherein the preprocessing comprises performing a preliminary analysis on the at least one stream of physiological data; and determining a stress level of the individual based on the physiological parameters and supplementary physiological data received from one or more secondary sensors, wherein the supplementary physiological data includes information pertaining to a body posture and facial expression of the individual, wherein the determining comprises performing a statistical analysis on the physiological parameters and the supplementary physiological data, and wherein the supplementary physiological data is utilized only when a duration of receiving the at least one stream of physiological data from the at least one primary sensor is less than the predefined duration.
Furniture with a device for the disconnectable coupling of an outer drawer with an inner drawer, wherein the outer drawer and the inner drawer are moveably fitted in the furniture, and wherein the device comprises a pivotably mounted follower lever with a hook element for hooking into a front panel of the inner drawer, characterised in that the follower lever is mounted to pivot around an axis of rotation with a pivot bearing that is arranged parallel to a main level of the front panel of the outer drawer in an assembled condition, and that an actuation lever is envisaged, with which the follower lever can be brought into a hooked-in position on the front panel of the inner drawer in a follower position with its hook element when the front panel of the inner drawer meets the actuation lever.
An apparatus comprising: at least one gain transistor (454a, 454b, 454c) configured to receive an input radio frequency, RF, signal; and a plurality of cascode transistors (456a, 456b, 456c) for a plurality of band groups coupled to the at least one gain transistor (454a, 454b, 454c) and configured to provide an output RF signal for one of the plurality of band groups; the at least one gain transistor (454a, 454b, 454c) comprising a plurality of gain transistors for the plurality of band groups; the plurality of gain transistors (454a, 454b, 454c) having different transistor sizes, or different bias currents, or both; the at least one gain transistor (454a, 454b) comprising a first gain transistor for a first band group and a second gain transistor for a second band group, and the plurality of cascode transistors (456a, 456b) comprising a first cascode transistor for the first band group and a second cascode transistor for the second band group; and characterized in further comprising: an inductor coupled between a source of the first gain transistor and circuit ground and comprising a tap coupled to the second gain transistor. at least one gain transistor (454a, 454b, 454c) configured to receive an input radio frequency, RF, signal; and a plurality of cascode transistors (456a, 456b, 456c) for a plurality of band groups coupled to the at least one gain transistor (454a, 454b, 454c) and configured to provide an output RF signal for one of the plurality of band groups; the at least one gain transistor (454a, 454b, 454c) comprising a plurality of gain transistors for the plurality of band groups; the plurality of gain transistors (454a, 454b, 454c) having different transistor sizes, or different bias currents, or both; the at least one gain transistor (454a, 454b) comprising a first gain transistor for a first band group and a second gain transistor for a second band group, and the plurality of cascode transistors (456a, 456b) comprising a first cascode transistor for the first band group and a second cascode transistor for the second band group; and characterized in further comprising: an inductor coupled between a source of the first gain transistor and circuit ground and comprising a tap coupled to the second gain transistor.
An electronic protection component comprising: an outer case bounding an outer cavity therein; a varistor with two varistor leads (3a, 3b) connected thereto, wherein said varistor is arranged in said outer cavity, a raised section created by extending a front wall of the outer case; an inner case bounding an inner cavity therein, wherein said inner case has a flat side wall, and said inner case is arranged in said raised section of said outer cavity with said flat side wall in flat planar surficial contact with a surface of said varistor; an alloy-type thermal fuse made of an alloy fuse material with two fuse leads (5a, 5b) connected thereto, wherein said fuse is arranged in said outer cavity of said outer case; an alloy melting promoting agent filled into said inner cavity such that said alloy melting promoting agent surrounds and contacts said alloy fuse material of said fuse in said inner cavity; an epoxy resin seal that seals an opening of said outer case so as to enclose and seal said outer cavity with said varistor and said inner case therein, and with at least two of said leads (3a, 3b, 5a, 5b) extending out of said outer case through said epoxy resin seal; wherein said electronic protection component is capable of transferring heat from said varistor to said alloy-type thermal fuse by combination of contact between said varistor and said inner case and through a lead junction of one of said fuse leads (3a, 3b) and one of said varistor leads (5a, 5b). an outer case bounding an outer cavity therein; a varistor with two varistor leads (3a, 3b) connected thereto, wherein said varistor is arranged in said outer cavity, a raised section created by extending a front wall of the outer case; an inner case bounding an inner cavity therein, wherein said inner case has a flat side wall, and said inner case is arranged in said raised section of said outer cavity with said flat side wall in flat planar surficial contact with a surface of said varistor; an alloy-type thermal fuse made of an alloy fuse material with two fuse leads (5a, 5b) connected thereto, wherein said fuse is arranged in said outer cavity of said outer case; an alloy melting promoting agent filled into said inner cavity such that said alloy melting promoting agent surrounds and contacts said alloy fuse material of said fuse in said inner cavity; an epoxy resin seal that seals an opening of said outer case so as to enclose and seal said outer cavity with said varistor and said inner case therein, and with at least two of said leads (3a, 3b, 5a, 5b) extending out of said outer case through said epoxy resin seal; wherein said electronic protection component is capable of transferring heat from said varistor to said alloy-type thermal fuse by combination of contact between said varistor and said inner case and through a lead junction of one of said fuse leads (3a, 3b) and one of said varistor leads (5a, 5b).
An operation panel device, mounted on an image forming apparatus, with a display surface, the operation panel device comprising first and second panels (100, 200) that are configured to be relatively movable along a plane parallel to said display surface, wherein said first panel is fixed to said image forming apparatus, said second panel is disposed opposite to said image forming apparatus with respect to said first panel, a projection area of said second panel to the plane parallel to said display surface is smaller than a projection area of said first panel, each of said first and second panels (100, 200) includes a first group of keys (10, 20) disposed in a region that is exposed independent from relative positions of said first and second panels (100, 200), and said first panel includes a second group of keys disposed in a region that is exposed only when said first and second panels (100, 200) do not overlap each other, wherein a mechanism that can relatively move said first and second panels is configured to vary in a plurality of steps an exposure amount of the region where said second group of keys of said first panel is disposed, wherein a direction in which said second panel is moved to provide the exposed region is identical to a sheet discharge direction of said image forming apparatus, and wherein the operation panel device further comprises a fixing mechanism (410; 422; 440) for fixing a state in which said first and second panels (100, 200) do not overlap each other.
A multi-directional cube corner retroreflective article comprising a number of retroreflective element assemblies connected together, each retroreflective element assembly comprising a plurality of triangular pyramidal cube corner retroreflective elements each having an isosceles-triangular base and an element apex (H and base lines of equal length (AC and BC) of the base, the triangular pyramidal cube corner retroreflective elements being connected along the base lines of equal length, and wherein their respective bases share an apex, and wherein a shape of an outer circumference of each of the retroreflective element assemblies is a regular polygon formed from base lines of the isosceles-triangular bases of the elements, and characterized in that the bases of the triangular pyramidal cube corner retroreflective elements are not parallel to a common plane, the common plane including the outer circumference of the retroreflective element assembly, and wherein a ratio between a distance from the apex pinched between the base lines of equal lengths (AC, BC) of the base of each of the triangular pyramidal cube corner retroreflective elements to the common plane and a length of the base lines pinched between the base lines of equal length (AC, BC) of the base of each of the triangular pyramidal cube corner retroreflective elements is 1/100 to 20/100.
A lens for eyewear comprising: a first lens component, comprising: an anti-fog layer configured to resist accumulation of condensate, wherein the anti-fog layer comprises a hydrophilic material, wherein the anti-fog layer is proximal to the wearer when the eyewear is worn; an interface layer comprising an inorganic material with ceramic bulk properties; and a second lens component, comprising: a functional layer comprising an electrically conductive layer configured to conduct electric current when a power supply is electrically connected to the electrically conductive layer via one or more electrodes, and a polymer layer configured to stiffen the lens, wherein the interface layer is configured to facilitate attachment of the anti-fog layer to the second lens component. an anti-fog layer configured to resist accumulation of condensate, wherein the anti-fog layer comprises a hydrophilic material, wherein the anti-fog layer is proximal to the wearer when the eyewear is worn; an interface layer comprising an inorganic material with ceramic bulk properties; and a second lens component, comprising: a functional layer comprising an electrically conductive layer configured to conduct electric current when a power supply is electrically connected to the electrically conductive layer via one or more electrodes, and a polymer layer configured to stiffen the lens, a functional layer comprising an electrically conductive layer configured to conduct electric current when a power supply is electrically connected to the electrically conductive layer via one or more electrodes, and a polymer layer configured to stiffen the lens,
A process for the regeneration of filtration material for arsenic, said filtration material consisting of iron oxyhydroxide, characterised by: - passing through the filtration material a flow of sulphuric acid of pH not less than 5.5 until complete desorption of the cations present in the filtration material, - subsequently passing through the filtration material a basic flow at pH >10 and recirculating it through said material for a time sufficient to saturate it with arsenic, - sending the arsenic saturated basic flow to a precipitator, - passing through the filtration material at least a second quantity of a basic flow to achieve further removal of absorbed arsenic not removed by the first passage, - rinsing the filtration material with a volume of water equal to its own volume with the addition of an acid such as to maintain the pH of the solution at a value not less than 5.5, - continuing rinsing by recirculating water until this latter on leaving the filtration material reaches a pH value of about 7.5, - treating the arsenic saturated basic flow in said precipitator, initially with ferric chloride and then with calcium hydroxide until arsenic precipitation is complete, - adding a flocculating agent to remove the calcium hydroxide remaining in suspension, - feeding the sludge obtained to a decanter. - passing through the filtration material a flow of sulphuric acid of pH not less than 5.5 until complete desorption of the cations present in the filtration material, - subsequently passing through the filtration material a basic flow at pH >10 and recirculating it through said material for a time sufficient to saturate it with arsenic, - sending the arsenic saturated basic flow to a precipitator, - passing through the filtration material at least a second quantity of a basic flow to achieve further removal of absorbed arsenic not removed by the first passage, - rinsing the filtration material with a volume of water equal to its own volume with the addition of an acid such as to maintain the pH of the solution at a value not less than 5.5, - continuing rinsing by recirculating water until this latter on leaving the filtration material reaches a pH value of about 7.5, - treating the arsenic saturated basic flow in said precipitator, initially with ferric chloride and then with calcium hydroxide until arsenic precipitation is complete, - adding a flocculating agent to remove the calcium hydroxide remaining in suspension, - feeding the sludge obtained to a decanter.
A method for removing contaminants from an aqueous industrial fluid waste containing metallic species and/or organic compounds, the method comprising the steps of: ozofractionating the industrial fluid waste, wherein the industrial fluid waste is ozofractionated by causing a foam comprising ozone to pass through the industrial fluid waste, whereby the size of bubbles comprising ozone delivered into the industrial fluid waste is less than or equal to about 200 μm in diameter, and whereby contaminants are oxidised and either precipitate or become associated with a foam fractionate that is formed; and separating at least a portion of the foam fractionate and any precipitate from the ozofractionated fluid. ozofractionating the industrial fluid waste, wherein the industrial fluid waste is ozofractionated by causing a foam comprising ozone to pass through the industrial fluid waste, whereby the size of bubbles comprising ozone delivered into the industrial fluid waste is less than or equal to about 200 μm in diameter, and whereby contaminants are oxidised and either precipitate or become associated with a foam fractionate that is formed; and separating at least a portion of the foam fractionate and any precipitate from the ozofractionated fluid.
A tube connecting device comprising a tube having a flared end defining a conical front surface and a rear surface; a threaded sleeve having a through opening for receiving the tube; a connector having a conical seating surface for receiving the front surface of the flared end and a threaded portion meshable with the threaded sleeve; a ring arranged between the rear surface of the flared end and the threaded sleeve when the threaded sleeve is screwed, characterized in that the ring is immovably connected to the adjacent of the rear surface of the flared end before the tube connection is made, the ring maintains its fixation along the connection is made, the ring is at least partially coated with anti-friction material and the anti-friction material is selected from a material consisting of molybdenum disulfide (MoS 2), polytetrafluoroethylene (PTFE), graphite or polyethylene.
Container for foodstuffs, comprising a transparent body with a circular section, equipped with a corresponding closure lid, with said lid being configured in a raised position above the edge or mouth it is coupled on by means of tabs with lugs fitted into depressions defined on complementary tabs of the mouth of the container, characterised in that the closure lid comprises a folding sector by means of a curved folding line, with the ends thereof coinciding with respective straight cuts made on the walls raising the closure lid; and wherein a lower relief in the shape of an arc is defined in correspondence with the hinge of the lid, which, when the lid is folded, fits into a depression with the same configuration as the mouth of the container
A method for forming an optical glass preform from a soot preform, the method comprising: forming a soot preform; placing the soot preform in a furnace; and applying a vacuum through a centerline hole of the soot preform, characterised in that the method further comprises sintering the outside surface of the soot preform to form a glazed soot preform; and wherein sintering the outside surface of the soot preform comprises passing the soot preform through a hot zone having temperatures between 1,000 °C and 1,600 °C at a ramp rate of greater than 12.5 °C per minute. forming a soot preform; placing the soot preform in a furnace; and applying a vacuum through a centerline hole of the soot preform, characterised in that the method further comprises sintering the outside surface of the soot preform to form a glazed soot preform; and wherein sintering the outside surface of the soot preform comprises passing the soot preform through a hot zone having temperatures between 1,000 °C and 1,600 °C at a ramp rate of greater than 12.5 °C per minute.