mhurhangee/ep-ind-claims huggingface dataset:
Accessory socket layout structure of a saddle-ride type vehicle comprising: a housing box which is provided under a seat for an occupant, which is provided with a front wall, a rear wall, a pair of left and right side walls (82, 83) and a bottom wall and an upper part of which is closed by the seat; a body cover that covers the housing box from the outside in a direction of vehicle width; and an accessory socket which is provided with a power supply port and a main body and which is provided to the housing box, wherein: the housing box is provided with a helmet housing part that can house a helmet; the main body is provided between the housing box and the body cover; and characterised in that the power supply port is arranged in the housing box in the helmet housing part and the accessory socket is provided to the side wall of the housing box, and is arranged closer to the rear wall part than the front wall part in the longitudinal direction and is located in front of a curved wall part in the rear of the housing part. a housing box which is provided under a seat for an occupant, which is provided with a front wall, a rear wall, a pair of left and right side walls (82, 83) and a bottom wall and an upper part of which is closed by the seat; a body cover that covers the housing box from the outside in a direction of vehicle width; and an accessory socket which is provided with a power supply port and a main body and which is provided to the housing box, wherein: the housing box is provided with a helmet housing part that can house a helmet; the main body is provided between the housing box and the body cover; and characterised in that the power supply port is arranged in the housing box in the helmet housing part and the accessory socket is provided to the side wall of the housing box, and is arranged closer to the rear wall part than the front wall part in the longitudinal direction and is located in front of a curved wall part in the rear of the housing part.
Security element for securing valuable documents such as banknotes or identity cards, wherein the security element consists of a PDLC film with dispersed drops from a nematic liquid crystal that align in an electric field at least in part in the direction of the field lines, wherein the PDLC film is applied on an electrode structure designed as an interdigital structure made from two electrodes, wherein the two electrodes are embodied in a comb-type manner and engage in one another by their "comb teeth" like fingers without touching one another, characterized in that the electrode structure consists of two electrodes with in each case only one "comb tooth", wherein the two "comb teeth" are bent in the manner of a spiral, are situated in the same plane, have the same central point and are interleaved such that the two windings do not touch.
A polymer blend, comprising 5 to 95 weight percent of a poly(ester-carbonate-carbonate) comprising 40 to 95 mole percent of ester units comprising low heat bisphenol groups and high heat bisphenol groups, wherein the ester units comprise 20 to 80 mole percent of the low heat bisphenol groups and 20 to 80 mole percent of the high heat bisphenol groups, based on the total moles of ester units in the poly(estercarbonate-carbonate), and 5 to 60 mole percent of carbonate units comprising the low heat bisphenol groups and the high heat bisphenol groups, wherein the carbonate units comprise 20 to 80 mole percent of the low heat bisphenol groups and 20 to 80 mole percent of the high heat bisphenol groups, based on the total moles of carbonate units in the poly(ester-carbonate-carbonate); and 5 to 95 weight percent of a poly(etherimide), wherein the weight percent of each polymer is based on the total weight of the polymers in the blend, and a molded 0.3175 centimeter (0.125- inch) thick ASTM tensile bar comprising the polymer blend has a haze value of less than 25% as determined according to ASTM D1003 using the color space CIE1931 (Illuminant C and a 2° observer). 5 to 95 weight percent of a poly(ester-carbonate-carbonate) comprising 40 to 95 mole percent of ester units comprising low heat bisphenol groups and high heat bisphenol groups, wherein the ester units comprise 20 to 80 mole percent of the low heat bisphenol groups and 20 to 80 mole percent of the high heat bisphenol groups, based on the total moles of ester units in the poly(estercarbonate-carbonate), and 5 to 60 mole percent of carbonate units comprising the low heat bisphenol groups and the high heat bisphenol groups, wherein the carbonate units comprise 20 to 80 mole percent of the low heat bisphenol groups and 20 to 80 mole percent of the high heat bisphenol groups, based on the total moles of carbonate units in the poly(ester-carbonate-carbonate); and 5 to 95 weight percent of a poly(etherimide), the weight percent of each polymer is based on the total weight of the polymers in the blend, and a molded 0.3175 centimeter (0.125- inch) thick ASTM tensile bar comprising the polymer blend has a haze value of less than 25% as determined according to ASTM D1003 using the color space CIE1931 (Illuminant C and a 2° observer).
A blocker door assembly for use in a thrust reverser of a turbofan engine including an engine core, a duct, a translating sleeve, an inner fixed structure, and a protrusion, the blocker door assembly comprising: a blocker door with a leading end configured to engage with the translating sleeve and a trailing end configured to mate with the protrusion of the inner fixed structure of the engine core to deflect airflow in the duct defined by a space between the translating sleeve and the inner fixed structure; and characterized by a geometrically shaped drag link including a first end connected to the blocker door and a second end pivotally connected to a boss; wherein the geometrically shaped drag link is a smooth curved drag link. a blocker door with a leading end configured to engage with the translating sleeve and a trailing end configured to mate with the protrusion of the inner fixed structure of the engine core to deflect airflow in the duct defined by a space between the translating sleeve and the inner fixed structure; and characterized by a geometrically shaped drag link including a first end connected to the blocker door and a second end pivotally connected to a boss; wherein the geometrically shaped drag link is a smooth curved drag link.
Device for measuring the current flowing in at least two current lines (2, 3) of an electrical installation, characterized in that it comprises: - a first printed circuit assembly including: - a first aperture for passing a first current line, - a second aperture for passing a second current line, and - a first current sensor positioned around the first aperture so as to measure the current flowing in the first current line, said first current sensor including at least one first rectilinear winding portion positioned between the first aperture and the second aperture, - a second printed circuit assembly, positioned parallel to the first printed circuit assembly, said second assembly including: - a third aperture, facing the second aperture, for passing the second current line, - a second current sensor positioned around the third aperture so as to measure the current flowing in the second current line passing through the third aperture, said second sensor including at least one second rectilinear winding portion positioned facing the first rectilinear winding portion of the first current sensor. - a first printed circuit assembly including: - a first aperture for passing a first current line, - a second aperture for passing a second current line, and - a first current sensor positioned around the first aperture so as to measure the current flowing in the first current line, said first current sensor including at least one first rectilinear winding portion positioned between the first aperture and the second aperture, - a first aperture for passing a first current line, - a second aperture for passing a second current line, and - a first current sensor positioned around the first aperture so as to measure the current flowing in the first current line, said first current sensor including at least one first rectilinear winding portion positioned between the first aperture and the second aperture, - a second printed circuit assembly, positioned parallel to the first printed circuit assembly, said second assembly including: - a third aperture, facing the second aperture, for passing the second current line, - a second current sensor positioned around the third aperture so as to measure the current flowing in the second current line passing through the third aperture, said second sensor including at least one second rectilinear winding portion positioned facing the first rectilinear winding portion of the first current sensor. - a third aperture, facing the second aperture, for passing the second current line, - a second current sensor positioned around the third aperture so as to measure the current flowing in the second current line passing through the third aperture, said second sensor including at least one second rectilinear winding portion positioned facing the first rectilinear winding portion of the first current sensor.
A ready-to-use packaged vapor hydrated hydrophilic medical device assembly, comprising: a package (12, 12') defining a sealed cavity (15, 15'); a medical device comprising a hydrophilic material disposed within the cavity (15, 15'); and characterized in that: a plurality of individual sachets (28a-28c, 28a'-28c') disposed within the cavity (15, 15'), each of the sachets (28a-28c, 28a'-28c') including a top wall and a bottom wall that define a sealed compartment (30a-30c, 30a'-30c') wherein the compartment (30a-30c, 30a'-30c') of each sachet (28a-28c, 28a'-28c') is distinct from the compartments (30a-30c, 30a'-30c') of the other sachets (28a-28c, 28a'-28c'), at least one of the top and bottom walls (36, 38) being at least partially made of a vapor permeable, liquid impermeable material, and the sealed compartment (30a-30c, 30a'-30c') containing a vapor donating medium therein, wherein vapor donated from the vapor donating medium permeates through the vapor permeable material of the sachets (28a-28c, 28a'-28c') and into the sealed cavity (15, 15') defined by the package (12, 12') to activate the hydrophilic material of the medical device, wherein the plurality of sachets (28a-28c, 28a'-28c') extend along the length of the medical device within the cavity (15, 15') to provide substantially uniform activation of the hydrophilic material regardless of the orientation of the package (12, 12'). a package (12, 12') defining a sealed cavity (15, 15'); a medical device comprising a hydrophilic material disposed within the cavity (15, 15'); and characterized in that: a plurality of individual sachets (28a-28c, 28a'-28c') disposed within the cavity (15, 15'), each of the sachets (28a-28c, 28a'-28c') including a top wall and a bottom wall that define a sealed compartment (30a-30c, 30a'-30c') wherein the compartment (30a-30c, 30a'-30c') of each sachet (28a-28c, 28a'-28c') is distinct from the compartments (30a-30c, 30a'-30c') of the other sachets (28a-28c, 28a'-28c'), at least one of the top and bottom walls (36, 38) being at least partially made of a vapor permeable, liquid impermeable material, and the sealed compartment (30a-30c, 30a'-30c') containing a vapor donating medium therein, wherein vapor donated from the vapor donating medium permeates through the vapor permeable material of the sachets (28a-28c, 28a'-28c') and into the sealed cavity (15, 15') defined by the package (12, 12') to activate the hydrophilic material of the medical device, wherein the plurality of sachets (28a-28c, 28a'-28c') extend along the length of the medical device within the cavity (15, 15') to provide substantially uniform activation of the hydrophilic material regardless of the orientation of the package (12, 12').
An air distribution device for an air conditioning unit of a motor vehicle, comprising an air inlet chamber to be supplied with an air flow and provided with a lower central outlet and an upper central outlet arranged at a level higher than the lower central outlet, as well as two side outlets arranged on opposite sides of the central outlets (14, 15) and oriented substantially orthogonally to the central outlets (14, 15), and obstructing and deflecting means for distributing the air flow to said outlets; characterized in that said obstructing and deflecting means comprise a flap for controlling the distribution of the air flow to the central outlets (14, 15) and to the side outlets, said flap comprising two flat, coplanar side flap portions, and a central flap portion that interconnects the two side flap portions forming a single, continuous surface, wherein the flap is hinged about a rotation axis (x) parallel to a plane defined by the side flap portions, and staggered with respect thereto, wherein the central flap portion comprises a rostrum part with a V-shaped cross section, defining on opposite faces of the flap a recess and a relief, respectively, wherein the recess of the rostrum part has an edge at least partially extending in a plane that is inclined in the direction of rotation of the flap with respect to the plane defined by the side flap portions, and wherein the relief of the rostrum part has a ridge extending in a plane that is inclined in the direction of rotation of the flap with respect to the plane defined by the side flap portions; wherein the flap is movable between a first terminal position, in which both central apertures (14, 15) are closed by the flap and the rostrum part of the flap is capable of deflecting the air flow towards the side apertures, and a second terminal position, in which the central apertures (14, 15) are open.
An injection system comprising: an injection device; an operator interface, configured to receive inputs from an operator of said injection system; a target in-bloodstream contrast agent concentration determination module, configured to: receive a contrast agent type input; receive a first imaging parameter of a Magnetic Resonance Angiography, MRA, imager to be used in an MRA imaging procedure; and calculate a target in-bloodstream contrast agent concentration at least partially based on the received contrast agent type input and the received first imaging parameter; the injection system further comprising a contrast agent injection rate determination module, configured to: receive the calculated target in-bloodstream contrast agent concentration; receive an initial contrast agent concentration input; receive a cardiac output rate input of a patient to be imaged; and calculate a contrast agent injection rate at least partially based on the received target in-bloodstream contrast agent concentration, the received initial contrast agent concentration input, and the received cardiac output rate input. an injection device; an operator interface, configured to receive inputs from an operator of said injection system; a target in-bloodstream contrast agent concentration determination module, configured to: receive a contrast agent type input; receive a first imaging parameter of a Magnetic Resonance Angiography, MRA, imager to be used in an MRA imaging procedure; and calculate a target in-bloodstream contrast agent concentration at least partially based on the received contrast agent type input and the received first imaging parameter; receive a contrast agent type input; receive a first imaging parameter of a Magnetic Resonance Angiography, MRA, imager to be used in an MRA imaging procedure; and calculate a target in-bloodstream contrast agent concentration at least partially based on the received contrast agent type input and the received first imaging parameter; the injection system further comprising a contrast agent injection rate determination module, configured to: receive the calculated target in-bloodstream contrast agent concentration; receive an initial contrast agent concentration input; receive a cardiac output rate input of a patient to be imaged; and calculate a contrast agent injection rate at least partially based on the received target in-bloodstream contrast agent concentration, the received initial contrast agent concentration input, and the received cardiac output rate input. receive the calculated target in-bloodstream contrast agent concentration; receive an initial contrast agent concentration input; receive a cardiac output rate input of a patient to be imaged; and calculate a contrast agent injection rate at least partially based on the received target in-bloodstream contrast agent concentration, the received initial contrast agent concentration input, and the received cardiac output rate input.
A ceramide dispersion comprising: ceramide-containing particles which contain a ceramide, which are dispersed in an aqueous phase as an oil-phase component, and which have a volume average particle diameter from 1 nm to 100 nm; a fatty acid component which is at least one of a fatty acid or a fatty acid salt; a polyhydric alcohol in an amount from 5 to 20 times larger than an amount of the ceramide; and a polysaccharide fatty acid ester, wherein the pH of the dispersion is from 6 to 8. ceramide-containing particles which contain a ceramide, which are dispersed in an aqueous phase as an oil-phase component, and which have a volume average particle diameter from 1 nm to 100 nm; a fatty acid component which is at least one of a fatty acid or a fatty acid salt; a polyhydric alcohol in an amount from 5 to 20 times larger than an amount of the ceramide; and a polysaccharide fatty acid ester, wherein the pH of the dispersion is from 6 to 8.
Burner comprising a channel with a premixing zone and with an air supply and at least one fuel supply for injection of fuel, wherein a separating means is provided in the channel which divides the channel over a wide area of the channel into at least two separate channels, namely a first channel and a second channel, characterised in that, at least one inlet opening is arranged for a fuel, especially syngas, so that the fuel can be injected into the second channel and that downstream from the air supply and the at least one inlet opening, fuel nozzles for a further fuel are arranged so that the further fuel can be injected into both channels (3a, 3b) in order to be premixed in the premixing zone.
A method for controlling massage units (2-1 to 2-n) of a massage apparatus arranged in a seat in a vehicle for massaging an occupant, comprising the steps of: controlling massage units (2-1 to 2-n) integrated in the seat based on an audio entertainment signal; and altering an intensity of the massage provided by the massage units (2-1 to 2-n) based on the entertainment signal, adapted to current operating information of the vehicle, which indicates the occurrence of a potentially mentally demanding or fatigue-promoting situation for a vehicle driver. controlling massage units (2-1 to 2-n) integrated in the seat based on an audio entertainment signal; and altering an intensity of the massage provided by the massage units (2-1 to 2-n) based on the entertainment signal, adapted to current operating information of the vehicle, which indicates the occurrence of a potentially mentally demanding or fatigue-promoting situation for a vehicle driver.
A method in a user equipment for resuming a paused media information stream received in a live broadcast of a TV program, the method comprising: - obtaining (3:3, 404) an indicator of a pause time in the media information stream indicating the time when a user of the user equipment has paused the broadcasted media information stream, - sending (3:4, 406) a request message comprising said indicator of the pause time to a control server, - receiving (3:6, 408) from the control server an answer message comprising a file location address of a recorded version of the TV program and an offset value calculated by the control server based on the indicator of the pause time, the offset value indicating a pause point in the media information stream where the pause occurred, wherein the offset value is a time displacement from a start of the media information stream to said pause point, and - resuming (3:7, 410) the media information stream from said pause point based on the received file location address and offset value. - obtaining (3:3, 404) an indicator of a pause time in the media information stream indicating the time when a user of the user equipment has paused the broadcasted media information stream, - sending (3:4, 406) a request message comprising said indicator of the pause time to a control server, - receiving (3:6, 408) from the control server an answer message comprising a file location address of a recorded version of the TV program and an offset value calculated by the control server based on the indicator of the pause time, the offset value indicating a pause point in the media information stream where the pause occurred, wherein the offset value is a time displacement from a start of the media information stream to said pause point, and - resuming (3:7, 410) the media information stream from said pause point based on the received file location address and offset value.
An interlayer filling material for a touch panel used for filling an interlayer space between a touch panel and another component or an interlayer space between transparent conductive films included in the touch panel, the interlayer filling material comprising: a polyvinyl acetal; a plasticizer; and an organic acid, characterized in that the plasticizer is at least one selected from the group consisting of triethylene glycol-di-2-ethylhexanoate, tetraethylene glycol-di-2-ethylhexanoate, triethylene glycol-di-pivalate, and di-(2-butoxyethyl)adipate, the organic acid is at least one selected from the group consisting of 2-ethylhexanoic acid, adipic acid, and phthalic acid. a polyvinyl acetal; a plasticizer; and an organic acid, characterized in that the plasticizer is at least one selected from the group consisting of triethylene glycol-di-2-ethylhexanoate, tetraethylene glycol-di-2-ethylhexanoate, triethylene glycol-di-pivalate, and di-(2-butoxyethyl)adipate, the organic acid is at least one selected from the group consisting of 2-ethylhexanoic acid, adipic acid, and phthalic acid.