mhurhangee/patent-ind-claim-en huggingface dataset:
Device, comprising: - a mould container with at least one mould cavity , wherein the mould cavity is bounded by a bottom and at least one wall ; - at least one ejector per mould cavity , comprising the bottom which is movable in the mould cavity for the purpose of ejecting a green brick formed in the mould cavity ; and - a separator configured to release the green brick from the bottom ., characterized in that - the separator comprises a division of the bottom into a first part and a second part ; and - the second part is surrounded by the first part . - a mould container with at least one mould cavity , wherein the mould cavity is bounded by a bottom and at least one wall ; - at least one ejector per mould cavity , comprising the bottom which is movable in the mould cavity for the purpose of ejecting a green brick formed in the mould cavity ; and - a separator configured to release the green brick from the bottom ., - the separator comprises a division of the bottom into a first part and a second part ; and - the second part is surrounded by the first part .
A lighting device comprising: a light source including a plurality of light emitting elements ; a conversion unit configured to convert light emitted by the light source ; a reflection unit configured to reflect light which passes through the conversion unit ; and a half mirror member disposed above the reflection unit and configured to transmit a portion of light and reflect the remaining portion of the light, wherein the conversion unit includes an optical pattern configured to selectively transmit the light emitted by the light source , wherein the light source is disposed at an edge of the reflection unit , and wherein a height of a central portion of the reflection unit is higher than that of the edge. a light source including a plurality of light emitting elements ; a conversion unit configured to convert light emitted by the light source ; a reflection unit configured to reflect light which passes through the conversion unit ; and a half mirror member disposed above the reflection unit and configured to transmit a portion of light and reflect the remaining portion of the light, wherein the conversion unit includes an optical pattern configured to selectively transmit the light emitted by the light source , wherein the light source is disposed at an edge of the reflection unit , and wherein a height of a central portion of the reflection unit is higher than that of the edge.
A coil guard for protecting a steel coil having a belly, a bore and a face located therebetween, the coil guard comprising: a first member having a coil bore guard adapted for engagement with a surface of the coil bore and a coil face guard adapted for engagement with a surface of the coil face; and a second member having a coil belly guard adapted for engagement with a surface of the coil belly and a coil face guard adapted for engagement with a surface of the coil face, wherein the first and second members , include first and second engagement means , respectively, the first engagement means being releasably engageable with the second engagement means , and wherein the coil guard has a closed configuration in which the first and second members , partially overlap with one another and the first engagement means is engaged with the second engagement means and the first and second engagement means , are located between the coil face guard of the first member and the coil face guard of the second member , and an open configuration in which the first and second members , are separated from one another such that the first engagement means is not engaged with the second engagement means , characterised in that one of the first and second engagement means , comprises a plurality of hooks and the other of the first and second engagement means , comprises a plurality of loops, and wherein the first and second engagement means , are adhered to the first and second members , .
Method for calibrating a device for analysing an object, the analysing device comprising: - a radiation source configured to emit ionizing radiation when it is supplied with a supply current; - a detector configured to detect ionizing radiation and to form therefrom an energy spectrum ( S ), the energy spectrum being defined in a plurality of energy bins ( E k ); the calibrating method comprising the following steps: i) supplying the radiation source with a nominal supply current of nominal magnitude ( I ) and forming, with the detector, a nominal full-flux spectrum ( S 0;1 ); ii) supplying the radiation source with a supply current of rank n (13 n ), the magnitude ( nI ) of which is n times the nominal magnitude, n being a strictly positive real number and strictly lower than 1, and forming, with the detector, a full-flux spectrum of rank n ( S 0;n ); iii) comparing the nominal full-flux spectrum with the full-flux spectrum of rank n , so as to obtain a spectral attenuation of rank n ( att n ), the comparison being performed by applying a comparison function − ln S 0 ; n S 0 ; 1 to the nominal full-flux spectrum and to the full-flux spectrum of rank n ; iv) in at least one energy bin ( E k ), comparing the value of the spectral attenuation of rank n ( att n ) with a theoretical attenuation value att n th , which is obtained on the basis of the real number n , and determining a correction factor ( f n ( E k )) associated with the value of the spectral attenuation and with the energy bin. - a radiation source configured to emit ionizing radiation when it is supplied with a supply current; - a detector configured to detect ionizing radiation and to form therefrom an energy spectrum ( S ), the energy spectrum being defined in a plurality of energy bins ( E k ); i) supplying the radiation source with a nominal supply current of nominal magnitude ( I ) and forming, with the detector, a nominal full-flux spectrum ( S 0;1 ); ii) supplying the radiation source with a supply current of rank n (13 n ), the magnitude ( nI ) of which is n times the nominal magnitude, n being a strictly positive real number and strictly lower than 1, and forming, with the detector, a full-flux spectrum of rank n ( S 0;n ); iii) comparing the nominal full-flux spectrum with the full-flux spectrum of rank n , so as to obtain a spectral attenuation of rank n ( att n ), the comparison being performed by applying a comparison function − ln S 0 ; n S 0 ; 1 to the nominal full-flux spectrum and to the full-flux spectrum of rank n ; iv) in at least one energy bin ( E k ), comparing the value of the spectral attenuation of rank n ( att n ) with a theoretical attenuation value att n th , which is obtained on the basis of the real number n , and determining a correction factor ( f n ( E k )) associated with the value of the spectral attenuation and with the energy bin.
A microphone unit (U1, U2, U3) comprising: a microphone and a substrate , the substrate including: a first face , a second face opposite to the first face , and a through-hole extending from the first face to the second face through the substrate ; the microphone being mounted on or fixed onto the second face of the substrate , the microphone having a sound hole in communication with the through-hole of the substrate ; the microphone unit (U1, U2, U3) further comprising: a fixing member fixed onto the first face of the substrate such as to be located around the through-hole ; and a film providing at least one of dustproofness and waterproofness, the film being fixed onto the fixing member such as to cover the through-hole . a microphone and a substrate , the substrate including: a first face , a second face opposite to the first face , and a through-hole extending from the first face to the second face through the substrate ; a first face , a second face opposite to the first face , and a through-hole extending from the first face to the second face through the substrate ; the microphone being mounted on or fixed onto the second face of the substrate , the microphone having a sound hole in communication with the through-hole of the substrate ; the microphone unit (U1, U2, U3) further comprising: a fixing member fixed onto the first face of the substrate such as to be located around the through-hole ; and a film providing at least one of dustproofness and waterproofness, the film being fixed onto the fixing member such as to cover the through-hole . a fixing member fixed onto the first face of the substrate such as to be located around the through-hole ; and a film providing at least one of dustproofness and waterproofness, the film being fixed onto the fixing member such as to cover the through-hole .
Heat exchanger for thermally treating a vehicle cabin, the heat exchanger comprises a core portion made of at least a plurality of tubes and a plurality of fins , the heat exchanger comprises at least one header tank located at one end of the core portion , the header tank comprises at least a collecting plate which have a U-shape, a cover plate connected to the collecting plate and at least one cap plate which is located at one longitudinal end of the header tank , the collecting plate and the cover plate are linked together by an overlapping portion , the collecting plate , the cover plate and the cap plate are defining an internal volume of the header tank that is hydraulically communicating with the core portion , wherein the cap plate is at least partially mounted inside the internal volume and maintained in position by a tongue made in continuation of the overlapping portion and characterized in that the collecting plate comprises at least one lug that extends inside the internal volume defined by the header tank , the cover plate resting at least partially against the lug .
A lead for an implantable stimulation device for cardiac stimulation of a patient (P), the lead generally extending along a longitudinal axis (L) and comprising: a body section , a distal lead section extending from the body section along the longitudinal axis (L) and forming a distal end , a first electrode device arranged on the distal lead section for at least one of transmitting an electrical pacing signal and sensing an electrical sense signal, the first electrode device being configured for placement in or on intra-cardiac tissue (M), and a second electrode device arranged on the body section for emitting an electrical defibrillation signal, wherein the distal lead section in at least one portion comprises a reduced bending stiffness with respect to at least a portion of said body section , characterized in that the first electrode device is configured to pierce into intra-cardiac tissue (M) for fixing the lead at the distal end to intra-cardiac tissue (M), wherein the first electrode device is formed by a screw to engage with intra-cardiac tissue (M), and wherein the first electrode device extends from the distal end by a length (L1), as measured along the longitudinal axis (L), configured to reach into a left bundle branch (LBB) of the cardiac conduction system for injecting a pacing signal into the left bundle branch (LBB). a body section , a distal lead section extending from the body section along the longitudinal axis (L) and forming a distal end , a first electrode device arranged on the distal lead section for at least one of transmitting an electrical pacing signal and sensing an electrical sense signal, the first electrode device being configured for placement in or on intra-cardiac tissue (M), and a second electrode device arranged on the body section for emitting an electrical defibrillation signal, wherein the distal lead section in at least one portion comprises a reduced bending stiffness with respect to at least a portion of said body section , characterized in that the first electrode device is configured to pierce into intra-cardiac tissue (M) for fixing the lead at the distal end to intra-cardiac tissue (M), wherein the first electrode device is formed by a screw to engage with intra-cardiac tissue (M), and wherein the first electrode device extends from the distal end by a length (L1), as measured along the longitudinal axis (L), configured to reach into a left bundle branch (LBB) of the cardiac conduction system for injecting a pacing signal into the left bundle branch (LBB).
An ionization gauge to measure pressure comprising: an electron source cathode that emits electrons ; an anode that defines an ionization space; a collector electrode to collect ions formed by an impact between the electrons and gas in the ionization space; and a controller that actively controls emission current from the electron source cathode to an optimum emission current level by heating the electron source cathode, characterised in that the optimum emission current level being determined from a stored profile of emission current relative to pressure, the controller responding to sensed temperature of the electron source cathode to reduce the cathode temperature and reduce the emission current level to less than the optimum emission current level with reduced sensitivity of the gauge. an electron source cathode that emits electrons ; an anode that defines an ionization space; a collector electrode to collect ions formed by an impact between the electrons and gas in the ionization space; and a controller that actively controls emission current from the electron source cathode to an optimum emission current level by heating the electron source cathode, characterised in that the optimum emission current level being determined from a stored profile of emission current relative to pressure, the controller responding to sensed temperature of the electron source cathode to reduce the cathode temperature and reduce the emission current level to less than the optimum emission current level with reduced sensitivity of the gauge.
An aerosol-generating device comprising: at least two reservoirs , each arranged to contain a separate aerosol producing composition; means for drawing the compositions from the reservoirs to generate an aerosol for inhalation for a user, and means for mixing the compositions after they have been drawn from the reservoirs, the mixing means being arranged to allow a user to select the relative proportions of the two compositions in the aerosol, wherein the aerosol-generating device further comprises: a power source lodged in an elongated body; at least one heater assembly ; a means for selectively supplying power from the power source to the heater assembly; control means for selectively controlling the heating of compositions from one or more of the reservoirs by the heater assembly, such that, when power is supplied to the heater assembly together with the selected liquid, an aerosol is generated for inhalation by a user, characterised by a mouthpiece through which a user can inhale the generated aerosol, the mouthpiece being located at an end of the elongated body wherein the at least one heater assembly and the at least two reservoirs are lodged in the mouthpiece of the aerosol-generating device. at least two reservoirs , each arranged to contain a separate aerosol producing composition; means for drawing the compositions from the reservoirs to generate an aerosol for inhalation for a user, and means for mixing the compositions after they have been drawn from the reservoirs, the mixing means being arranged to allow a user to select the relative proportions of the two compositions in the aerosol, wherein the aerosol-generating device further comprises: a power source lodged in an elongated body; at least one heater assembly ; a means for selectively supplying power from the power source to the heater assembly; control means for selectively controlling the heating of compositions from one or more of the reservoirs by the heater assembly, such that, when power is supplied to the heater assembly together with the selected liquid, an aerosol is generated for inhalation by a user, characterised by a mouthpiece through which a user can inhale the generated aerosol, the mouthpiece being located at an end of the elongated body wherein the at least one heater assembly and the at least two reservoirs are lodged in the mouthpiece of the aerosol-generating device.
Gear wheel for a gear element transmission , having gear wheel toothing , characterised in that the teeth of the gear wheel toothing are connected to support walls , which are disposed in the peripheral direction with respect to a gear wheel axis of rotation of the gear wheel in an alternating manner on different sides and define tooth intermediate spaces in the axial direction, so that the respective tooth intermediate space is open at the edge on a side opposite the respective support wall in the axial direction, thus forming an mouth opening which is disposed between two of the support walls respectively in the peripheral direction.
An oral pharmaceutical formulation comprising a milk thistle extract of silybin with a purity higher than 80%, phospholipids, sorbitol and carragenin, wherein the weight ratio between the amount of silybin and the amount of phospholipids is in the range of 1:1.50 and 1:2.
A method of controlling a melting process of copper in a copper melting furnace, comprising: measuring at least one furnace parameter, wherein the at least one furnace parameter includes one or both of a furnace temperature and a furnace exhaust oxygen concentration; calculating a first rate of change of the furnace parameter over a first time period; calculating a second rate of change of the furnace parameter over a second time period at least a portion of which occurs after the first time period; comparing the first rate of change with the second rate of change; and indicating substantial completion of a process phase in the furnace when the second rate of change deviates by a predetermined threshold percentage from the first rate of change. measuring at least one furnace parameter, wherein the at least one furnace parameter includes one or both of a furnace temperature and a furnace exhaust oxygen concentration; calculating a first rate of change of the furnace parameter over a first time period; calculating a second rate of change of the furnace parameter over a second time period at least a portion of which occurs after the first time period; comparing the first rate of change with the second rate of change; and indicating substantial completion of a process phase in the furnace when the second rate of change deviates by a predetermined threshold percentage from the first rate of change.
An X-ray imaging apparatus comprising: an X-ray source ; an input unit configured to receive distance information between the X-ray source and an X-ray detector ; a reference light emitter configured to irradiate a light from the X-ray source to a direction in which the X-ray detector is placed; at least two auxiliary light emitters provided apart from the reference light emitter by first predetermined distances respectively and configured to irradiate a light to be overlapped with a light from the reference light emitter in second predetermined distances respectively; and a controller configured to: determine an auxiliary light emitter corresponding to the distance information among the at least two auxiliary light emitters based on the distance information; and control the reference light emitter and the determined auxiliary light emitter so that the reference light emitter and the determined auxiliary light emitter irradiate a light. an X-ray source ; an input unit configured to receive distance information between the X-ray source and an X-ray detector ; a reference light emitter configured to irradiate a light from the X-ray source to a direction in which the X-ray detector is placed; at least two auxiliary light emitters provided apart from the reference light emitter by first predetermined distances respectively and configured to irradiate a light to be overlapped with a light from the reference light emitter in second predetermined distances respectively; and a controller configured to: determine an auxiliary light emitter corresponding to the distance information among the at least two auxiliary light emitters based on the distance information; and control the reference light emitter and the determined auxiliary light emitter so that the reference light emitter and the determined auxiliary light emitter irradiate a light. determine an auxiliary light emitter corresponding to the distance information among the at least two auxiliary light emitters based on the distance information; and control the reference light emitter and the determined auxiliary light emitter so that the reference light emitter and the determined auxiliary light emitter irradiate a light.
A method of delivering a target material into an extracellular vesicle, the method comprising: exposing the target material and the extracellular vesicle to an extracorporeal shockwave wherein the extracorporeal shockwave has an energy range from 0.05 mJ/mm 2 to 0.9 mJ/mm 2 . exposing the target material and the extracellular vesicle to an extracorporeal shockwave wherein the extracorporeal shockwave has an energy range from 0.05 mJ/mm 2 to 0.9 mJ/mm 2 .
Apparatus to feed bars comprising a support plane suitable to support said bars; a removal unit configured to remove at least one bar (B, B') from said support plane ; a drawing unit configured to draw said bar (B,B') in a direction of feed (A) located distanced from said support plane ; a work unit to work said bar (B, B') located downstream of said drawing unit and a feed unit , wherein said removal unit comprises at least one gripper selectively movable at least in a first direction (D1) incident to the support plane in order to lift said bar (B, B') from said support plane and put it aligned to said direction of feed (A), and wherein said feed unit is configured to move said bar (B) in said direction of feed (A) and toward said drawing unit , characterized in that said feed unit is interposed between said removal unit and said drawing unit , configured to receive said bar (B, B') from said removal unit and comprising at least an introduction element aligned with said direction of feed (A) and configured to receive the bar (B, B') removed by said removal unit , and to put it in line with said direction of feed (A), wherein said at least one gripper is also selectively movable in a second direction (D2) parallel to said direction of feed (A) to introduce said bar (B) into said introduction element , and in that said removal unit comprises a second gripper adjacent to the gripper and configure to straighten and align said bar (B, B') removed by said gripper .
A method for activating or deactivating an extended carrier, the method being performed by a base station and comprising: configuring an extended carrier of an independent carrier for a user equipment, wherein the extended carrier comprises an adjacent extended carrier of the independent carrier or a non-adjacent extended carrier of the independent carrier; activating or deactivating the independent carrier and the extended carrier concurrently, according to a bit in an original media access control control element, MAC CE, wherein the bit corresponds to the independent carrier index and the extended carrier uses the same index as the independent carrier. configuring an extended carrier of an independent carrier for a user equipment, wherein the extended carrier comprises an adjacent extended carrier of the independent carrier or a non-adjacent extended carrier of the independent carrier; activating or deactivating the independent carrier and the extended carrier concurrently, according to a bit in an original media access control control element, MAC CE, wherein the bit corresponds to the independent carrier index and the extended carrier uses the same index as the independent carrier.