mhurhangee/ep-ind-claims huggingface dataset:
Device for a vehicle for detecting an activation action in at least two different detection areas (51, 52), and in particular for mounting on a vehicle part in order to activate at least one function of the vehicle as a function of the detection, having: - a printed circuit board with several layers (21, 22, 23, 24), which are arranged one above the other in an axial direction (z), - a first electrically conductive sensor element for capacitive detection in a first of the detection areas (51, 52), - a second electrically conductive sensor element for capacitive detection in a second of the detection areas (51, 52), wherein the sensor elements (31, 32) are arranged on different ones of the layers (21, 22, 23, 24) of the printed circuit board, characterized in that the sensor elements (31, 32) are designed to be at least partially congruent, the congruent regions of the sensor elements (31, 32) being positioned offset with respect to one another in a lateral direction (x), the sensor elements (31, 32) each having a substructure which is repeated at least at a specific minimum distance in the lateral direction (x), the positioning of the sensor elements (31, 32) offset with respect to one another taking place in the same lateral direction (x). - a printed circuit board with several layers (21, 22, 23, 24), which are arranged one above the other in an axial direction (z), - a first electrically conductive sensor element for capacitive detection in a first of the detection areas (51, 52), - a second electrically conductive sensor element for capacitive detection in a second of the detection areas (51, 52), wherein the sensor elements (31, 32) are arranged on different ones of the layers (21, 22, 23, 24) of the printed circuit board, characterized in that the sensor elements (31, 32) are designed to be at least partially congruent, the congruent regions of the sensor elements (31, 32) being positioned offset with respect to one another in a lateral direction (x), the sensor elements (31, 32) each having a substructure which is repeated at least at a specific minimum distance in the lateral direction (x), the positioning of the sensor elements (31, 32) offset with respect to one another taking place in the same lateral direction (x).
A method, comprising: producing a stream of photons via an X-ray generator; passing a portion of the stream of photons through a direct channel that connects the X-ray generator to a reference detector; identifying a high energy peak in a spectrum measured by the reference detector; defining a subsequent output of the X-ray generator based upon an analysis of the high energy peak, wherein the analysis of the high energy peak comprises dividing the high energy peak into a plurality of windows; deriving a normalized difference between the plurality of windows of the high energy peak; deriving a form factor of the high energy peak, wherein the form factor is derived according to: FF = LW − RW LW + RW where LW is a count of a left window of the plurality of windows and RW is a count of a right window of the plurality of windows; and characterized by adjusting the form factor based upon a current measured at a target of the X-ray system. producing a stream of photons via an X-ray generator; passing a portion of the stream of photons through a direct channel that connects the X-ray generator to a reference detector; identifying a high energy peak in a spectrum measured by the reference detector; defining a subsequent output of the X-ray generator based upon an analysis of the high energy peak, wherein the analysis of the high energy peak comprises dividing the high energy peak into a plurality of windows; deriving a normalized difference between the plurality of windows of the high energy peak; deriving a form factor of the high energy peak, dividing the high energy peak into a plurality of windows; deriving a normalized difference between the plurality of windows of the high energy peak; deriving a form factor of the high energy peak, wherein the form factor is derived according to: FF = LW − RW LW + RW where LW is a count of a left window of the plurality of windows and RW is a count of a right window of the plurality of windows; and characterized by adjusting the form factor based upon a current measured at a target of the X-ray system.
A method, comprising: causing, at a client device, display of a graphical interface comprising a first plurality of selectable graphical items, each selectable graphical item corresponding to a respective content item associated with a different geolocation; receiving, at the client device, a selection of a first selectable graphical item from the first plurality of selectable graphical items, the first selectable graphical item corresponding to a particular geolocation; and causing display, at the client device, of a second plurality of selectable graphical items, each of the second plurality of selectable graphical items corresponding to a particular second geolocation of an activity or place of business within a geographical area associated with the particular geolocation; and receiving, at the client device, a selection of a second selectable graphical item from the second plurality of selectable graphical items. causing, at a client device, display of a graphical interface comprising a first plurality of selectable graphical items, each selectable graphical item corresponding to a respective content item associated with a different geolocation; receiving, at the client device, a selection of a first selectable graphical item from the first plurality of selectable graphical items, the first selectable graphical item corresponding to a particular geolocation; and causing display, at the client device, of a second plurality of selectable graphical items, each of the second plurality of selectable graphical items corresponding to a particular second geolocation of an activity or place of business within a geographical area associated with the particular geolocation; and receiving, at the client device, a selection of a second selectable graphical item from the second plurality of selectable graphical items.
A mobile information apparatus comprising: a main information display control unit, for a display of the mobile information apparatus, configured to display in a text display region information described on a specific page of electronic content presented to a user over a plurality of pages; a fore-edge display control unit configured to display an image of trimmed edges of a plurality of pages, as a fore-edge image, in a fore-edge display region different from the text display region of the information described on the specific page, when the mobile information apparatus is tilted at a predetermined angle or more from a standard bearing; and an operation detector configured to detect a trace operation from the user on the fore-edge image, wherein, when the trace operation is detected on the fore-edge image, the main information display control unit sequentially switches information described on a plurality of pages specified by the trace operation so as to be displayed, wherein the main information display control unit sequentially switches and displays in the text display region information described on each page, from a page corresponding to a start position of the trace operation on the fore-edge image to a page corresponding to an end position of the trace operation thereon. a main information display control unit, for a display of the mobile information apparatus, configured to display in a text display region information described on a specific page of electronic content presented to a user over a plurality of pages; a fore-edge display control unit configured to display an image of trimmed edges of a plurality of pages, as a fore-edge image, in a fore-edge display region different from the text display region of the information described on the specific page, when the mobile information apparatus is tilted at a predetermined angle or more from a standard bearing; and an operation detector configured to detect a trace operation from the user on the fore-edge image, wherein, when the trace operation is detected on the fore-edge image, the main information display control unit sequentially switches information described on a plurality of pages specified by the trace operation so as to be displayed, wherein the main information display control unit sequentially switches and displays in the text display region information described on each page, from a page corresponding to a start position of the trace operation on the fore-edge image to a page corresponding to an end position of the trace operation thereon.
An integrated expander and motor-compressor assembly comprising: - one housing; - at least two transmission shafts (8, 10), each supported in the housing by at least two radial bearings (13,14, 15, 16); - a flexible coupling device connecting the transmission shafts; - an electric motor mounted on a first transmission shaft; - an expander cantilevered at a free end of a second transmission shaft; and - at least one compression section mounted between the two radial bearings (15, 16) on the second transmission shaft and having a high pressure part and a low pressure part fluidly coupled to the high pressure part so that a gas coming out of the low pressure part is compressed in the high pressure part, characterized in that the integrated expander and motor-compressor assembly comprises: a gas diffuser positioned between the expander and a first radial bearing of the second transmission shaft, the first radial bearing being the closest bearing to the expander, and a first duct connected between the gas diffuser and the first radial bearing and connected to an inlet of the low pressure part, wherein the gas diffuser is configured to diffuse gas directed to the expander and to the first radial bearing, wherein the gas diffuser is configured to be fed with a part of the gas entering the high pressure part, wherein the first duct being configured to draw up a part of the diffused gas. - one housing; - at least two transmission shafts (8, 10), each supported in the housing by at least two radial bearings (13,14, 15, 16); - a flexible coupling device connecting the transmission shafts; - an electric motor mounted on a first transmission shaft; - an expander cantilevered at a free end of a second transmission shaft; and - at least one compression section mounted between the two radial bearings (15, 16) on the second transmission shaft and having a high pressure part and a low pressure part fluidly coupled to the high pressure part so that a gas coming out of the low pressure part is compressed in the high pressure part, a gas diffuser positioned between the expander and a first radial bearing of the second transmission shaft, the first radial bearing being the closest bearing to the expander, and a first duct connected between the gas diffuser and the first radial bearing and connected to an inlet of the low pressure part, wherein the gas diffuser is configured to diffuse gas directed to the expander and to the first radial bearing, wherein the gas diffuser is configured to be fed with a part of the gas entering the high pressure part, wherein the first duct being configured to draw up a part of the diffused gas.
Switching device arrangement comprising a first contact set, which can be moved relative to a second contact set in order to produce a clearance between contacts, wherein the first contact set has a first arcing contact piece and a first nominal current contact piece, which can be moved relative to one another, and comprising a kinematic chain connected to the first nominal current contact piece in order to impress a movement onto the first nominal current contact piece, wherein a relative movement is effected between the first nominal current contact piece and first arcing contact piece via a first gearing, and the first gearing constitutes an operative connection between a stationary counter bearing (31, 33, 33a) and the first arcing contact piece, characterized in that the stationary counter bearing (31, 33, 33a) is coupled to the first gearing via a slotted guide path (33, 33a).
A drug eluting angioplasty balloon suitable to adopt a deployed configuration and a collapsed configuration, having an outer wall disposed around a core defining an axis, the balloon comprising in the collapsed configuration a plurality of folds (12, 12') that are laid in a tangential direction about the core of the balloon and form a plurality of cavities (13a, 13b, 213a, 213b) loaded with a drug, wherein: • the said folds (12, 12') originates from distinct longitudinal lines (25, 25') along the outer wall and are arranged in pairs, and folds of a first length and folds of a second length are provided, wherein the said first length is greater than the said second length to define shorter folds and longer folds, a longer fold and a shorter fold forming the said pair of folds. • the said folds (12, 12') originates from distinct longitudinal lines (25, 25') along the outer wall and are arranged in pairs, and
A nucleic acid-peptide conjugate comprising: (i) a peptide, wherein said peptide is less than 25 amino acids in length and binds an intracellular target; (ii) a phosphorothioate nucleic acid; and (iii) a chemical linker attaching said phosphorothioate nucleic acid to the C-terminus of said peptide; wherein said phosphorothioate nucleic acid enhances intracellular delivery of said peptide. (i) a peptide, wherein said peptide is less than 25 amino acids in length and binds an intracellular target; (ii) a phosphorothioate nucleic acid; and (iii) a chemical linker attaching said phosphorothioate nucleic acid to the C-terminus of said peptide;
An oscillating heat pipe device (100,200,300), comprising: a monolithic body (101,201) formed to be at least partially flexible; one or more channels within the body and defined by the body; an evaporator portion (105,205,505) within the body and in fluid communication with the one or more channels; and a condenser portion (107,207,507) within the body spaced from the evaporator portion and in fluid communication with the one or more channels, wherein the body is configured to flex at least between the evaporator portion and the condenser portion; characterised in that the material of the body is thermally insulative, wherein the heat transfer coefficient of the device is higher than the thermally insulative material alone; and in that a dimension of the one or more channels and a thickness of the body are selected to act as thermal conductor. a monolithic body (101,201) formed to be at least partially flexible; one or more channels within the body and defined by the body; an evaporator portion (105,205,505) within the body and in fluid communication with the one or more channels; and a condenser portion (107,207,507) within the body spaced from the evaporator portion and in fluid communication with the one or more channels, wherein the body is configured to flex at least between the evaporator portion and the condenser portion; characterised in that the material of the body is thermally insulative, wherein the heat transfer coefficient of the device is higher than the thermally insulative material alone; and in that a dimension of the one or more channels and a thickness of the body are selected to act as thermal conductor.
A method for determining the end-of-charging condition of a lithium-ion accumulator (A, A2, A3) with a negative electrode formed with at least one alloy, the lithium-ion accumulators being separated by lateral mechanical supports for holding said accumulators in place within the stack, according to which surface pressures with determined forces between the external surfaces of the facing accumulators, said surface pressures being generated by the thickness increase of at least one accumulator, due to ion insertion at its negative electrode and thereby defining the end-of-charging condition.
A containment protection system for treating the atmosphere present in the containment of a nuclear facility, in particular a nuclear power plant, in case of critical incidents involving extensive release of hydrogen/H 2 and steam, having a conduction system (10, 72, 120, 128) for a fluid flow, provided for connection to the containment and forming a circulation out of the containment and back, comprising at least the following components fluidically connected in series: - a recombination device for recombining hydrogen/H 2 contained in the fluid flow with oxygen/O 2 to form steam/H 2 O, - a condensation device connected downstream of the recombination device for condensing steam fractions contained in the fluid flow, with means for diverting the condensate out of the fluid flow, - drive means (18, 180) for the fluid flow, a heat exchanger being provided for an at least partial recooling of the condensation device, characterized in that the heat exchanger is connected on the inlet side, via a feed line, with a storage container for an inert gas acting as a coolant, and that the heat exchanger has on the outlet side a feed line (148, 160), designed for being connected to the containment, so that the inert gas fed for recooling the condensation device, can afterwards be used for inerting the containment. - a recombination device for recombining hydrogen/H 2 contained in the fluid flow with oxygen/O 2 to form steam/H 2 O, - a condensation device connected downstream of the recombination device for condensing steam fractions contained in the fluid flow, with means for diverting the condensate out of the fluid flow, - drive means (18, 180) for the fluid flow,
A nonaqueous electrolyte for an energy storage device comprising: an alkali metal salt; a first aprotic organic solvent coordinating to an alkali metal ion in the alkali metal salt, and not including a fluorine atom; a second aprotic organic solvent including a fluorine atom; and an additive comprising a polar group and a group including a fluorine atom, wherein a content of the alkali metal salt is no less than 0.9 mol/kg and less than 2 mol/kg, a content of the first aprotic organic solvent with respect to the content of the alkali metal salt in terms of a molar ratio is no less than 0.7 and no greater than 4, and a content of the second aprotic organic solvent with respect to a total amount of the first aprotic organic solvent, the second aprotic organic solvent and the additive is no less than 40% by volume. an alkali metal salt; a first aprotic organic solvent coordinating to an alkali metal ion in the alkali metal salt, and not including a fluorine atom; a second aprotic organic solvent including a fluorine atom; and an additive comprising a polar group and a group including a fluorine atom, wherein a content of the alkali metal salt is no less than 0.9 mol/kg and less than 2 mol/kg, a content of the first aprotic organic solvent with respect to the content of the alkali metal salt in terms of a molar ratio is no less than 0.7 and no greater than 4, and a content of the second aprotic organic solvent with respect to a total amount of the first aprotic organic solvent, the second aprotic organic solvent and the additive is no less than 40% by volume.
A vane stage for a gas turbine engine comprising: a ringcase extending circumferentially about a center axis of the vane stage, wherein the ringcase extends completely about the center axis to form a first ring; an inner shroud extending circumferentially about the center axis of the vane stage, wherein the inner shroud extends completely about the center axis to form a second ring positioned radially within the ringcase relative the center axis; and a plurality of stationary half vanes extending radially between the ringcase and the inner shroud, each the plurality of stationary half vanes comprising a body extending axially aft from a leading edge, wherein the plurality of stationary half vanes are circumferentially spaced about the center axis, and wherein the plurality of stationary half vanes are integral with the ringcase and the inner shroud wherein the ringcase further comprises a circumferential rib extending radially outward from the ringcase aft of the plurality of stationary half vanes and forward of an aft end of the ringcase, wherein the circumferential rib extends circumferentially around the ringcase; characterised by the ringcase comprising a plurality of ribs formed on an outer surface of the ringcase aft of the circumferential rib, wherein each of the plurality of ribs increases in radial thickness in an aft direction. a ringcase extending circumferentially about a center axis of the vane stage, wherein the ringcase extends completely about the center axis to form a first ring; an inner shroud extending circumferentially about the center axis of the vane stage, wherein the inner shroud extends completely about the center axis to form a second ring positioned radially within the ringcase relative the center axis; and a plurality of stationary half vanes extending radially between the ringcase and the inner shroud, each the plurality of stationary half vanes comprising a body extending axially aft from a leading edge, wherein the plurality of stationary half vanes are circumferentially spaced about the center axis, and wherein the plurality of stationary half vanes are integral with the ringcase and the inner shroud wherein the ringcase further comprises a circumferential rib extending radially outward from the ringcase aft of the plurality of stationary half vanes and forward of an aft end of the ringcase, wherein the circumferential rib extends circumferentially around the ringcase; characterised by the ringcase comprising a plurality of ribs formed on an outer surface of the ringcase aft of the circumferential rib, wherein each of the plurality of ribs increases in radial thickness in an aft direction.
A deodorant composition comprising a perfume containing violet nitrile, and pharaone and/or zinarine wherein violet nitrile is present in an amount of 0.001 % to 0.01 % by weight of the perfume.
An oil-in-water emulsion composition having at least one agriculturally active compound, the oil-in-water emulsion composition comprising: A) an oil phase, wherein the oil phase includes at least one agriculturally active ingredient and is comprised essentially of oily globules, the oily globules having a mean particle diameter of less than 800 nanometers; and B) an aqueous phase, wherein the oily globules are dispersed in the aqueous phase and wherein at least some of the oily globules dispersed in the aqueous phase are coated with a polymeric adsorption layer, wherein said polymeric adsorption layer comprises: at least one polymeric surface-active agent having an HLB value in the range of 16 to 18; and at least one ionic surface-active agent; and wherein the aqueous phase includes a second polymeric surface active agent having an HLB in the range of 12 to 14. A) an oil phase, wherein the oil phase includes at least one agriculturally active ingredient and is comprised essentially of oily globules, the oily globules having a mean particle diameter of less than 800 nanometers; and B) an aqueous phase, wherein the oily globules are dispersed in the aqueous phase and wherein at least some of the oily globules dispersed in the aqueous phase are coated with a polymeric adsorption layer, wherein said polymeric adsorption layer comprises: at least one polymeric surface-active agent having an HLB value in the range of 16 to 18; and at least one ionic surface-active agent; and wherein the aqueous phase includes a second polymeric surface active agent having an HLB in the range of 12 to 14. at least one polymeric surface-active agent having an HLB value in the range of 16 to 18; and at least one ionic surface-active agent;