mhurhangee/patent-ind-claim-en huggingface dataset:
An antibody, comprising a heavy chain variable region comprising the amino acid sequence of SEQ ID NO: 1 and a light chain variable region comprising the amino acid sequence of SEQ ID NO: 2, and comprising an HCDR1 comprising the amino acid sequence of SEQ ID NO: 16, an HCDR2 comprising the amino acid sequence of SEQ ID NO: 17, an HCDR3 comprising the amino acid sequence of SEQ ID NO: 20, an LCDR1 comprising the amino acid sequence of SEQ ID NO: 25, an LCDR2 comprising the amino acid sequence of SEQ ID NO: 28, and an LCDR3 comprising the amino acid sequence of SEQ ID NO: 29, wherein the antibody specifically binds to human IL-15.
Intraosseous dental implant having a solid shaft and a solid thread with variable height and pitch, wherein in the central part , the shaft has a reduced diameter in relation to the diameter of the shaft in the upper and lower part, and a part of the implant in the area with a reduced diameter of shaft is made of a material with an open porosity from 0.1% to 90%, and a pore diameter in the range from 0.3 μm to 1000 μm, characterized in that additionally, the implant has at least two internal channels, of which at least one channel starts in the implant socket , and has an outlet at the lower part of the implant, and at least one channel connects to the channel starting in the implant socket, and has an outlet in the porous part of the implant.
Suspended light system for signalizing a power line to aircrafts, the lighting system comprising a secondary winding , and a lighting device with a base , the lighting device being connected to the secondary winding , so that during operation the lighting device is powered by the power line ; characterized by: a jumper connection to be connected between two points of the power line and wherein the secondary winding surrounds a part of the jumper connection .
A glass composition consisting essentially of in mole percent: 40 to 80 percent SnO; 12 to less than 25 percent P 2 O 5 ; 0 to 15 percent ZnO; and greater than 0 to 40 percent metal oxide, wherein the metal oxide is selected from titanium oxide, vanadium oxide, iron oxide, niobium oxide, and combinations thereof. 40 to 80 percent SnO; 12 to less than 25 percent P 2 O 5 ; 0 to 15 percent ZnO; and greater than 0 to 40 percent metal oxide, wherein the metal oxide is selected from titanium oxide, vanadium oxide, iron oxide, niobium oxide, and combinations thereof.
A lensless imaging system, comprising: at least one light detector configured to provide an image of an object based on a detected light input ; a plurality of input control elements configured to control the light input detected by the detector , wherein the plurality of input control elements comprises a plurality of shutter elements in a shutter array placed in front of the light detector , the shutter elements being configured to be selectively opened and closed in order to allow the light detector to detect light or the shutter elements being individual mirror elements configured to be selectively controllable to selectively reflect light within the field of view of the light detector ; and a processor configured to determine a collective point spread function from a plurality of point spread functions, each of the plurality of point spread functions being associated with one of the at least one of the shutter elements, wherein a point spread function associated with a shutter element is determined based on a physical parameter of the detector , a physical parameter of the shutter element and a distance to the object , and generate image data having a selected resolution or an enhanced resolution by using the image and the collective point spread function . at least one light detector configured to provide an image of an object based on a detected light input ; a plurality of input control elements configured to control the light input detected by the detector , wherein the plurality of input control elements comprises a plurality of shutter elements in a shutter array placed in front of the light detector , the shutter elements being configured to be selectively opened and closed in order to allow the light detector to detect light or the shutter elements being individual mirror elements configured to be selectively controllable to selectively reflect light within the field of view of the light detector ; and a processor configured to determine a collective point spread function from a plurality of point spread functions, each of the plurality of point spread functions being associated with one of the at least one of the shutter elements, wherein a point spread function associated with a shutter element is determined based on a physical parameter of the detector , a physical parameter of the shutter element and a distance to the object , and generate image data having a selected resolution or an enhanced resolution by using the image and the collective point spread function . determine a collective point spread function from a plurality of point spread functions, each of the plurality of point spread functions being associated with one of the at least one of the shutter elements, wherein a point spread function associated with a shutter element is determined based on a physical parameter of the detector , a physical parameter of the shutter element and a distance to the object , and generate image data having a selected resolution or an enhanced resolution by using the image and the collective point spread function .
A computer system , comprising: a scheduled computation module configured to receive and process data values according to a predetermined access pattern determined by a plurality of scheduling tags indicating when to use the data values; a work memory storage device including one or more work memory banks; and a controller configured to, based on scheduling information including, for each data value held by the one or more work memory banks, a scheduling tag indicating when to use that data value: 1) provide data values held by the one or more work memory banks to the scheduled computation module; and 2) selectively control a power state of the one or more work memory banks. a scheduled computation module configured to receive and process data values according to a predetermined access pattern determined by a plurality of scheduling tags indicating when to use the data values; a work memory storage device including one or more work memory banks; and a controller configured to, based on scheduling information including, for each data value held by the one or more work memory banks, a scheduling tag indicating when to use that data value: 1) provide data values held by the one or more work memory banks to the scheduled computation module; and 2) selectively control a power state of the one or more work memory banks. 1) provide data values held by the one or more work memory banks to the scheduled computation module; and 2) selectively control a power state of the one or more work memory banks.
A packaging material for a cell including a laminate with at least a base material layer, an adhesive layer, a metal layer and a sealant layer laminated in this order, wherein the metal layer is an aluminum foil having a 0.2% yield strength of 64 to 85 N/mm 2 when a tensile test is conducted in a parallel direction with respect to a rolling direction, and wherein the aluminum foil satisfies a tensile rupture strength of 100 to 110 N/mm 2 when a tensile test is conducted in a parallel direction with respect to a rolling direction.
A refrigerator comprising: a first storage chamber ; a second storage chamber located below the first storage chamber ; an ice maker configured to make ice pieces; an ice bucket configured to store the ice pieces made in the ice maker ; and a middle wall partitioning inside space of the refrigerator into the first storage chamber and the second storage chamber , and including a base portion , and a stepped portion located higher than the base portion to form ice-making space in the second storage chamber , wherein at least one portion of the ice maker and at least one portion of the ice bucket are accommodated in the ice-making space, wherein the first storage chamber is a refrigerating chamber, and the second storage chamber is a freezing chamber, characterized in that the stepped portion includes a first stepped portion located higher than the base portion to form a first ice-making space , and a second stepped portion located higher than the first stepped portion to form second ice-making space , and wherein the at least one portion of the ice bucket is accommodated in the first ice-making space , and the at least one portion of the ice maker is accommodated in the second ice-making space . a first storage chamber ; a second storage chamber located below the first storage chamber ; an ice maker configured to make ice pieces; an ice bucket configured to store the ice pieces made in the ice maker ; and a middle wall partitioning inside space of the refrigerator into the first storage chamber and the second storage chamber , and including a base portion , and a stepped portion located higher than the base portion to form ice-making space in the second storage chamber , wherein at least one portion of the ice maker and at least one portion of the ice bucket are accommodated in the ice-making space, wherein the first storage chamber is a refrigerating chamber, and the second storage chamber is a freezing chamber, characterized in that the stepped portion includes a first stepped portion located higher than the base portion to form a first ice-making space , and a second stepped portion located higher than the first stepped portion to form second ice-making space , and wherein the at least one portion of the ice bucket is accommodated in the first ice-making space , and the at least one portion of the ice maker is accommodated in the second ice-making space .
A system composed of at least two unmanned aerial vehicles , each aerial vehicle comprising a drive unit, a flight control unit for controlling the trajectory of the aerial vehicle by means of the drive unit and a rechargeable power cell , each aerial vehicle comprising an electrical first interface , wherein the system comprises at least one transport device with at least one chamber defined by boundary elements for receiving the aerial vehicles stacked essentially vertically in the operating position and an electrical control and supply system for charging the power cells and/or for communicating with the flight control units via the first interfaces , characterized in that each aerial vehicle has a modular swarm control unit designed as a core module, wherein the aerial vehicles are designed by means of the core modules so as to be mechanically stackable along a stacking axis which is essentially vertical in the operating position, and wherein each core module comprises the flight control unit , the power cell , the first interface located at a lower side of the core module, and an electrical third interface which is located at an upper side of the core module opposite to the lower side along the stacking axis and is designed for electrical connection with the first interface of an aerial vehicle stacked on top of it, wherein, in a stacked and connected state of the aerial vehicles , the control and supply system is designed for charging the power cells and/or for communication with the core modules via the first interfaces and the third interfaces .
Method for providing a gaseous mixture containing nitrogen protoxide (N 2 O) and oxygen (O 2 ) comprising steps of: a) providing a N 2 O and O 2 premixture containing an initial content of N 2 O comprised between 40% and 60% mol., the remainder being oxygen, said N 2 O and O 2 premixture coming from a gas container, b) diluting the N 2 O and O 2 premixture with air delivered by a micro-blower, and c) recovering a final mixture containing a final content of N 2 O less than the initial content of N 2 O in the N 2 O and O 2 premixture. a) providing a N 2 O and O 2 premixture containing an initial content of N 2 O comprised between 40% and 60% mol., the remainder being oxygen, said N 2 O and O 2 premixture coming from a gas container, b) diluting the N 2 O and O 2 premixture with air delivered by a micro-blower, and c) recovering a final mixture containing a final content of N 2 O less than the initial content of N 2 O in the N 2 O and O 2 premixture.
A user equipment, UE , comprising: a receiver configured to receive, from a base station , information to configure a first serving cell and second serving cell for cross-carrier scheduling, and the information indicating first carrier indicator field, CIF, value for the first serving cell and second CIF value for the second serving cell and an operations module configured to monitor a first set of physical downlink control channel ,PDCCH, candidates with a Control Channel Element, CCE, aggregation level, AL, in a first set of CCEs in a control resource set, CORESET, for a first Downlink Control Information, DCI, format associated with the first serving cell wherein the first set of CCEs is given at least based on the first CIF value of the first serving cell and the first DCI format has a first size and is used for the scheduling of PUSCH, receive a PDCCH in the first set of PDCCH candidates, and configured to monitor a second set of PDCCH candidates with the CCE AL in a second set of CCEs in the CORESET for a second DCI format associated with the second serving cell wherein the second set of CCEs is given at least based on the second CIF value of the second serving cell and the second DCI format has a second size and is used for an uplink grant Type 2 physical uplink shared channel, PUSCH, release and receive a PDCCH in the second set of PDCCH candidates, wherein in a case that the first size and the second size are same, the operations module is further configured to monitor and receive through a PDCCH candidate a PDCCH for the second DCI format in the first set of CCEs. a receiver configured to receive, from a base station , information to configure a first serving cell and second serving cell for cross-carrier scheduling, and the information indicating first carrier indicator field, CIF, value for the first serving cell and second CIF value for the second serving cell and an operations module configured to monitor a first set of physical downlink control channel ,PDCCH, candidates with a Control Channel Element, CCE, aggregation level, AL, in a first set of CCEs in a control resource set, CORESET, for a first Downlink Control Information, DCI, format associated with the first serving cell wherein the first set of CCEs is given at least based on the first CIF value of the first serving cell and the first DCI format has a first size and is used for the scheduling of PUSCH, receive a PDCCH in the first set of PDCCH candidates, and configured to monitor a second set of PDCCH candidates with the CCE AL in a second set of CCEs in the CORESET for a second DCI format associated with the second serving cell wherein the second set of CCEs is given at least based on the second CIF value of the second serving cell and the second DCI format has a second size and is used for an uplink grant Type 2 physical uplink shared channel, PUSCH, release and receive a PDCCH in the second set of PDCCH candidates, wherein in a case that the first size and the second size are same, the operations module is further configured to monitor and receive through a PDCCH candidate a PDCCH for the second DCI format in the first set of CCEs.
A gas turbine engine component comprising a main body having a leading edge and a leading edge wall including an elongated transition portion extending between the leading edge and an inner diameter flowpath surface of the main body , wherein the elongated transition portion has an axial length (L) and a radial height and the axial length (L) is greater than the radial height, wherein the elongated transition portion is configured as an ellipse, characterised in that : the axial length (L) is defined from a first tangency point defined between the leading edge (76 and the leading edge wall to a second tangency point defined between the leading edge wall and the inner diameter flowpath surface .
A working machine comprising: a first generator having: a rotor to be rotated by power from a PTO shaft ; a rotor coil provided to the rotor ; and a stator coil to generate electricity when magnetizing current is applied to the rotor coil ; and a working device to be operated by the electricity generated by the first generator , the working machine characterized by ; a converter device to convert surplus electricity not consumed by the working device into the magnetizing current to be applied to the rotor coil a traveling vehicle with a prime mover to tow the working device , the traveling vehicle having: a second generator to generate electricity using power of the prime mover ; and a first battery device to store electricity generated by the second generator , wherein the converter device has: a DC/DC converter to convert the inputted electricity into the magnetizing current; and a first switch to switch between: a first position to allow electricity of any one of the second generator and the first battery device to be outputted to the DC/DC converter ; and a second position to allow the surplus electricity to be outputted to the DC/DC converter . a first generator having: a rotor to be rotated by power from a PTO shaft ; a rotor coil provided to the rotor ; and a stator coil to generate electricity when magnetizing current is applied to the rotor coil ; and a working device to be operated by the electricity generated by the first generator , the working machine characterized by ; a converter device to convert surplus electricity not consumed by the working device into the magnetizing current to be applied to the rotor coil a traveling vehicle with a prime mover to tow the working device , the traveling vehicle having: a second generator to generate electricity using power of the prime mover ; and a first battery device to store electricity generated by the second generator , wherein the converter device has: a DC/DC converter to convert the inputted electricity into the magnetizing current; and a first switch to switch between: a first position to allow electricity of any one of the second generator and the first battery device to be outputted to the DC/DC converter ; and a second position to allow the surplus electricity to be outputted to the DC/DC converter . a DC/DC converter to convert the inputted electricity into the magnetizing current; and a first switch to switch between: a first position to allow electricity of any one of the second generator and the first battery device to be outputted to the DC/DC converter ; and a second position to allow the surplus electricity to be outputted to the DC/DC converter . a first position to allow electricity of any one of the second generator and the first battery device to be outputted to the DC/DC converter ; and a second position to allow the surplus electricity to be outputted to the DC/DC converter .
A microporous membrane comprising a polyolefin resin and inorganic particles, wherein the inorganic particles have a primary particle diameter, determined as described in the description, of 100 nm or less, the content of the inorganic particles is 10 % by weight or more and less than 40 % by weight based on the weight of the microporous membrane, the retention time at 145 °C is more than 1 second and less than 200 seconds in the following thermal behavior evaluation of the microporous membrane: thermal behavior evaluation whereby under a condition of an initial load of 0.0098 N (1.0 gf), thermomechanical analysis (TMA) of the microporous membrane is carried out by increasing a temperature of the microporous membrane from 30 °C to 145 °C at a rate of 10 °C/minute in a constant length mode, and subsequently holding at 145 °C for 10 minutes, provided that in the thermomechanical analysis (TMA), the time after reaching 145 °C until the shrinkage stress of the microporous membrane falls less than 0.0098 N (1.0 gf) is regarded as the retention time at 145 °C, the moment of the shrinkage stress being less than 0.0098 N (1.0 gf) is regarded as breakage of the microporous membrane, and the retention time at 145 °C is used as an index for the thermal behavior evaluation , and the air permeability, determined as described in the description, is 2 s/100cm 3 /μm or more and less than 6 s/100cm 3 /μm. thermal behavior evaluation whereby under a condition of an initial load of 0.0098 N (1.0 gf), thermomechanical analysis (TMA) of the microporous membrane is carried out by increasing a temperature of the microporous membrane from 30 °C to 145 °C at a rate of 10 °C/minute in a constant length mode, and subsequently holding at 145 °C for 10 minutes, provided that in the thermomechanical analysis (TMA), the time after reaching 145 °C until the shrinkage stress of the microporous membrane falls less than 0.0098 N (1.0 gf) is regarded as the retention time at 145 °C, the moment of the shrinkage stress being less than 0.0098 N (1.0 gf) is regarded as breakage of the microporous membrane, and the retention time at 145 °C is used as an index for the thermal behavior evaluation , and the air permeability, determined as described in the description, is 2 s/100cm 3 /μm or more and less than 6 s/100cm 3 /μm.
Kit comprising a guide element and a surgical tool for use in guided surgery, said surgical tool having a longitudinal axis comprising a distal end portion having a functional element , a shank on the opposite end of the tool , and a cylindrical guide portion having an outer radius r which defines a guide surface for cooperation with a guide element, the guide portion being located on the longitudinal axis between the functional element and the shank and having at least one marker , wherein the at least one marker comprises at least one recess , said at least one recess being finite in the circumferential direction such that, at the axial location of the recess , a section of the guide surface is maintained, characterised in that the outer radius r of the guide portion of the surgical tool is complementary to a guide channel formed by the guide element in such a way that when the guide portion is inserted within the guide channel and rotated about its longitudinal axis, contact between the guide surface and channel is maintained and any change in orientation of the longitudinal axis is prevented.
Hearing instrument system , with a hearing instrument comprising - a control unit , which is at least adapted for processing audio input signals (S A ) into audio output signals (S L ), - a rechargeable battery for supplying power to the control unit , - a housing , in which the rechargeable battery and the control unit are arranged, - a push button for input of control signals to the control unit , and - at least one connector for electrically connecting the rechargeable battery to a charging energy source, wherein the push button is integrated into the connector and wherein the connector is magnetized for magnetically holding a connector counterpart of a charging cable . - a control unit , which is at least adapted for processing audio input signals (S A ) into audio output signals (S L ), - a rechargeable battery for supplying power to the control unit , - a housing , in which the rechargeable battery and the control unit are arranged, - a push button for input of control signals to the control unit , and - at least one connector for electrically connecting the rechargeable battery to a charging energy source,