mhurhangee/patent-ind-claim-en huggingface dataset:
A method for providing weighing results, wherein weight of a load is measured with a weighing sensor and weighing result of the measurement is presented, and for presenting weighing results the measurement result data is processed to apply a increment between non-equal values of weighing result presentations, characterized by - measuring with an environmental sensor acceleration, temperature, electromagnetic radiation, air pressure, humidity, wind speed, wind direction, an angle of inclination, and/or speed or acceleration of load to assess environmental condition of the weighing system, - assessing actual reliability of a weighing result on the basis of the measured environmental condition, - determining said increment value of presentation on the basis of said assessment, and - processing the measurement result data to apply the determined increment value of presentation in presenting the measured weighing result. - measuring with an environmental sensor acceleration, temperature, electromagnetic radiation, air pressure, humidity, wind speed, wind direction, an angle of inclination, and/or speed or acceleration of load to assess environmental condition of the weighing system, - assessing actual reliability of a weighing result on the basis of the measured environmental condition, - determining said increment value of presentation on the basis of said assessment, and - processing the measurement result data to apply the determined increment value of presentation in presenting the measured weighing result.
An optical modulator comprising a submount , electrical conduction pathways designed to carry RF signals, and an optical chip comprising a substrate and two semiconductor optical waveguides with electrical conductive elements along at least a portion of the optical waveguide surface, wherein the optical chip is attached to the submount with the optical chip substrate oriented away from the submount and the two semiconductor optical waveguides oriented toward the submount, wherein the submount comprises a conducting plane offset in a distinct plane from the conductive RF electrodes of the optical chip, wherein the optical chip further comprises two conductive RF electrodes adjacent respectively to corresponding optical waveguides and additional conductive elements connecting one of the conductive RF electrodes to the corresponding conductive element along a surface of the corresponding semiconductor waveguide, wherein the electrical conduction pathways electrically connect to the conductive RF electrodes of the optical chip, and wherein no lateral ground plane associated with the RF electrodes is present in the optical chip.
Device for producing molded parts consisting of a particle foam, with a plurality of sub-molds , which have a sub-cavity each, wherein the sub-cavities form a molding cavity (K) by interacting, wherein at least one of the sub-molds has a feed channel , through which plastic particles can be introduced into the molding cavity (K), and a steam chamber , from which a superheated steam can be introduced into the molding cavity (K) through at least one steam channel , wherein at least one of the sub-molds comprises a first mold segment having the sub-cavity and a second mold segment having the steam chamber , wherein the first mold segment has a first temperature control system , by means of which the first mold segment can be heated and/or cooled to a predetermined temperature, characterized in that the second mold segment has a second temperature control system , by means of which the second mold segment can be heated and/or cooled to a predetermined temperature.
An x-ray imaging system for imaging a human patient comprising: an x-ray source for producing x-ray radiation, said x-ray source comprising a target having a plurality of focal points , and said x-ray source being configured to generate a plurality of electron beams to impinge on said plurality of focal points, wherein said x-ray radiation is created as x-ray beams when said electron beams impinge on said focal points; an x-ray detector for measuring an amount of said x-ray radiation passing through said human patient and striking said detector; a controller for selecting a region of interest in said human patient; and said x-ray source configured for electronic region of interest filtering, said electronic region of interest filtering comprising controlling electron beams such that: electron beams fully illuminate only focal points that when impinged create x-ray beams that expose said region of interest in said patient; and reduced electron beams illuminate focal points that when impinged create x-ray radiation that exposes an area outside said region of interest in said patient, or electron beams are redirected away from focal points . an x-ray source for producing x-ray radiation, said x-ray source comprising a target having a plurality of focal points , and said x-ray source being configured to generate a plurality of electron beams to impinge on said plurality of focal points, wherein said x-ray radiation is created as x-ray beams when said electron beams impinge on said focal points; an x-ray detector for measuring an amount of said x-ray radiation passing through said human patient and striking said detector; a controller for selecting a region of interest in said human patient; and said x-ray source configured for electronic region of interest filtering, said electronic region of interest filtering comprising controlling electron beams such that: electron beams fully illuminate only focal points that when impinged create x-ray beams that expose said region of interest in said patient; and reduced electron beams illuminate focal points that when impinged create x-ray radiation that exposes an area outside said region of interest in said patient, or electron beams are redirected away from focal points . electron beams fully illuminate only focal points that when impinged create x-ray beams that expose said region of interest in said patient; and reduced electron beams illuminate focal points that when impinged create x-ray radiation that exposes an area outside said region of interest in said patient, or electron beams are redirected away from focal points .
A phantom for quality assurance of a hadron therapy apparatus usable in the intensity modulated particle therapy (IMPT) mode, said hadron therapy apparatus being configured for producing a hadron beam having an energy comprised between a low energy limit and a high energy limit, comprising: a) a frame structure comprising a base plate , the base plate having a first edge and a second edge parallel to said first edge; b) one or more energy wedges each having an energy wedge base face , an energy wedge first face inclined with respect to said energy wedge base face and an energy wedge second face perpendicular to said energy wedge base face , said one or more energy wedges being mounted on said base plate , said energy wedge second face being parallel to said second edge ; c) a 2D detector arranged at said second edge , and being mounted perpendicular to said base plate ; said one or more wedges , and 2D detector being in known fixed positions in relation to said frame structure , characterized in that said phantom comprises a Spread-Out Bragg Peak (SOBP) wedge , said SOBP wedge having a SOBP wedge base face , an SOBP wedge first face inclined with respect to said SOBP wedge base face, and a SOBP wedge second face , perpendicular to said SOBP wedge base face , said SOBP wedge being mounted on said base plate , said SOBP wedge second face being parallel to said second edge, said SOBP wedge being made of a material having a relative density higher than 1.3, preferably higher than 1.5, more preferably higher than 1.7, a distance between said first and said second SOBP wedge face, measured along a line parallel to said SOBP wedge base face varying between zero and the penetration depth in said material of a hadron beam having an energy equal to said high energy limit. a) a frame structure comprising a base plate , the base plate having a first edge and a second edge parallel to said first edge; b) one or more energy wedges each having an energy wedge base face , an energy wedge first face inclined with respect to said energy wedge base face and an energy wedge second face perpendicular to said energy wedge base face , said one or more energy wedges being mounted on said base plate , said energy wedge second face being parallel to said second edge ; c) a 2D detector arranged at said second edge , and being mounted perpendicular to said base plate ;
A luggage storage system for an aircraft , comprising: a latching means which is in the form of a bolt and can be actuated between an unlocked position and a locked position by means of an electromechanical trigger ; and a luggage rack with a housing and a holding frame , wherein the housing is at least partially pivotably mounted in the holding frame of the luggage rack ; wherein the holding frame comprises an inner guide frame and an outer guide frame , and end faces of the housing are respectively arranged between the inner guide frame and the outer guide frame ; wherein said housing and said support frame each have a counter-engagement means formed as a hole in said housing and said support frame , respectively, said inner guide frame and said outer guide frame having said counter-engagement means ; and wherein the counter latching means can be brought into operative connection with the latching means for a pivotal locking of the housing and out of operative connection with the latching means for a pivotal unlocking of the housing when the latching means is actuated accordingly. a latching means which is in the form of a bolt and can be actuated between an unlocked position and a locked position by means of an electromechanical trigger ; and a luggage rack with a housing and a holding frame , wherein the housing is at least partially pivotably mounted in the holding frame of the luggage rack ; wherein the holding frame comprises an inner guide frame and an outer guide frame , and end faces of the housing are respectively arranged between the inner guide frame and the outer guide frame ; wherein said housing and said support frame each have a counter-engagement means formed as a hole in said housing and said support frame , respectively, said inner guide frame and said outer guide frame having said counter-engagement means ; and wherein the counter latching means can be brought into operative connection with the latching means for a pivotal locking of the housing and out of operative connection with the latching means for a pivotal unlocking of the housing when the latching means is actuated accordingly.
Casting device for producing a component from a melt, having a plunger , having a casting channel , having a mold cavity , wherein it is possible for the melt to be fed to the mold cavity via the casting channel , wherein it is possible for the plunger to be moved axially in the casting channel , wherein the plunger is movable from a first position to a second position, wherein upon moving the plunger from the first position to the second position, the melt is introduced into the mold cavity , and wherein the volume that the plunger displaces within the casting channel upon moving it from the first position to the second position corresponds to the volume of the mold cavity , wherein the plunger is movable from the second position to a third position, wherein the volume displaced by the plunger in moving from the first position to the second position and from the second position to the third position within the casting channel is greater than the volume of the mold cavity , and wherein, in the region of the casting channel , an outlet is provided through which melt can escape from the mold cavity when the plunger is in the third position, characterized in that the outlet is formed by leakage gaps between the plunger and the casting channel .
A vibrator assembly for a hopper assembly (H), comprising: a generally conical member adapted for mounting within a hopper ; and at least one connecting portion connecting a lower portion of the generally conical member to a vibration source and defining a flow passage; characterized in that the vibrator assembly comprises at least one upper sealing surface arranged at an upper portion of the generally conical member and being sized and configured for sealing engage with an inside surface of the hopper . a generally conical member adapted for mounting within a hopper ; and at least one connecting portion connecting a lower portion of the generally conical member to a vibration source and defining a flow passage; characterized in that the vibrator assembly comprises at least one upper sealing surface arranged at an upper portion of the generally conical member and being sized and configured for sealing engage with an inside surface of the hopper .
A method for wireless communication, comprising receiving first configuration information from a network device, wherein the first configuration information indicates a time-domain position of a first resource in each of at least one slot, and the first resource is used for transmitting a physical downlink control channel, PDCCH; receiving second configuration information from the network device, wherein the second configuration information indicates a time-domain position of each of the plurality of time-domain units, and each of the plurality of time-domain units comprises the at least one slot; receiving third configuration information from the network device, wherein the third configuration information indicates a time-domain length of the first resource; determining the time-domain position of the first resource based on the first configuration information, the second configuration information and the third configuration information; and monitoring the PDCCH transmitted by the network device on the first resource, wherein time-domain positions of first resources in different time-domain units in the plurality of time-domain units are the same. receiving first configuration information from a network device, wherein the first configuration information indicates a time-domain position of a first resource in each of at least one slot, and the first resource is used for transmitting a physical downlink control channel, PDCCH; receiving second configuration information from the network device, wherein the second configuration information indicates a time-domain position of each of the plurality of time-domain units, and each of the plurality of time-domain units comprises the at least one slot; receiving third configuration information from the network device, wherein the third configuration information indicates a time-domain length of the first resource; determining the time-domain position of the first resource based on the first configuration information, the second configuration information and the third configuration information; and monitoring the PDCCH transmitted by the network device on the first resource, wherein time-domain positions of first resources in different time-domain units in the plurality of time-domain units are the same.
A method for manufacturing a sole structure (60; 100; 200), characterized in that it comprises: (i) providing at least one textile sole element (10; 30; 90; 130; 132; 134; 150; 152; 173) having an external face, comprising one or several at least partly hot-meltable yarn(s); (ii) disposing the textile sole element (10; 30; 90; 130; 132; 134; 150; 152; 173) in a mold structure comprising a sole cavity ; (iii) disposing an inflatable bladder in the mold structure , and inflating the inflatable bladder to press, directly or indirectly, the external face of the textile sole element (10; 30; 90; 130; 132; 134; 150; 152; 173) against the sole cavity , and heating the textile sole element (10; 30; 90; 130; 132; 134; 150; 152; 173) in order to melt the at least partly hot-meltable yarn(s) and substantially mold the sole cavity on the external face of the textile sole element (10; 30; 90; 130; 132; 134; 150; 152; 173); (iv) obtaining a sole structure (60; 100; 200) comprising at least one thermo-compressed textile sole element (70; 105; 210). (i) providing at least one textile sole element (10; 30; 90; 130; 132; 134; 150; 152; 173) having an external face, comprising one or several at least partly hot-meltable yarn(s); (ii) disposing the textile sole element (10; 30; 90; 130; 132; 134; 150; 152; 173) in a mold structure comprising a sole cavity ; (iii) disposing an inflatable bladder in the mold structure , and inflating the inflatable bladder to press, directly or indirectly, the external face of the textile sole element (10; 30; 90; 130; 132; 134; 150; 152; 173) against the sole cavity , and heating the textile sole element (10; 30; 90; 130; 132; 134; 150; 152; 173) in order to melt the at least partly hot-meltable yarn(s) and substantially mold the sole cavity on the external face of the textile sole element (10; 30; 90; 130; 132; 134; 150; 152; 173); (iv) obtaining a sole structure (60; 100; 200) comprising at least one thermo-compressed textile sole element (70; 105; 210).
A system for bonding a windshield to a windshield frame , the system having at least one layer of bonding material that bonds the windshield to the windshield frame ; at least one heating element embedded in the bonding material ; at least one electrical power source coupled to the at least one heating element ; characterised in that the system comprises: at least one shape memory element formed from a shape memory material embedded in the at least one layer of bonding material in close proximity to the at least one heating element ; and a controller operable to control the at least one electrical power source to generate current in the at least one heating element to generate heat that softens and weakens the bonding material and causes the at least one shape memory element to transition to a remembered shape that operates to disrupt the bonding layer and free the windshield from the windshield frame . at least one shape memory element formed from a shape memory material embedded in the at least one layer of bonding material in close proximity to the at least one heating element ; and a controller operable to control the at least one electrical power source to generate current in the at least one heating element to generate heat that softens and weakens the bonding material and causes the at least one shape memory element to transition to a remembered shape that operates to disrupt the bonding layer and free the windshield from the windshield frame .
A mutant acetolactate synthase III small subunit of any one of the following to : a mutant acetolactate synthase III small subunit formed of a mutant amino acid sequence having a substitution of Gly at amino acid No. 14 with Asp in SEQ ID NO: 1; a mutant acetolactate synthase III small subunit that is formed of an amino acid sequence having 90% or more identity to the mutant amino acid sequence described in , and that has acetolactate synthase III small subunit activity and that has, under coexistence with acetolactate synthase III large subunit, reduced feedback inhibition by valine as compared to acetolactate synthase III small subunit which has an amino acid sequence consisting of SEQ ID NO:1, provided that the amino acid at amino acid No. 14 is Asp; and a mutant acetolactate synthase III small subunit that is formed of an amino acid sequence having 1-5 amino acids deleted, substituted, or added in the mutant amino acid sequence described in , and that has acetolactate synthase III small subunit activity and that has, under coexistence with acetolactate synthase III large subunit, reduced feedback inhibition by valine as compared to acetolactate synthase III small subunit which has an amino acid sequence consisting of SEQ ID NO: 1, provided that the amino acid at amino acid No. 14 is Asp. a mutant acetolactate synthase III small subunit formed of a mutant amino acid sequence having a substitution of Gly at amino acid No. 14 with Asp in SEQ ID NO: 1; a mutant acetolactate synthase III small subunit that is formed of an amino acid sequence having 90% or more identity to the mutant amino acid sequence described in , and that has acetolactate synthase III small subunit activity and that has, under coexistence with acetolactate synthase III large subunit, reduced feedback inhibition by valine as compared to acetolactate synthase III small subunit which has an amino acid sequence consisting of SEQ ID NO:1, provided that the amino acid at amino acid No. 14 is Asp; and a mutant acetolactate synthase III small subunit that is formed of an amino acid sequence having 1-5 amino acids deleted, substituted, or added in the mutant amino acid sequence described in , and that has acetolactate synthase III small subunit activity and that has, under coexistence with acetolactate synthase III large subunit, reduced feedback inhibition by valine as compared to acetolactate synthase III small subunit which has an amino acid sequence consisting of SEQ ID NO: 1, provided that the amino acid at amino acid No. 14 is Asp.
A system comprising: an electrically conductive heating element , a sensor assembly, wherein the sensor assembly comprises a coupler having a sight opening configured to receive a wavelength directly from the electrically conductive heating element , and an optical sensor configured to receive the wavelength from the electrically conductive heating element directly through the sight opening of the coupler , the optical sensor being configured to provide an over-temperature feedback signal in response to the wavelength from the electrically conductive heating element , the over-temperature feedback signal being representative of a temperature of the electrically conductive heating element ; and a heater controller configured to drive the electrically conductive heating element to a desired temperature of the electrically conductive heating element , the heater controller being further configured to limit power delivered to the electrically conductive heating element in response to the over-temperature feedback signal. an electrically conductive heating element , a sensor assembly, wherein the sensor assembly comprises a coupler having a sight opening configured to receive a wavelength directly from the electrically conductive heating element , and an optical sensor configured to receive the wavelength from the electrically conductive heating element directly through the sight opening of the coupler , the optical sensor being configured to provide an over-temperature feedback signal in response to the wavelength from the electrically conductive heating element , the over-temperature feedback signal being representative of a temperature of the electrically conductive heating element ; and a heater controller configured to drive the electrically conductive heating element to a desired temperature of the electrically conductive heating element , the heater controller being further configured to limit power delivered to the electrically conductive heating element in response to the over-temperature feedback signal.