mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a magnetic target producing a rotating magnetic field, wherein the target comprises a body comprising a cylinder , wherein the cylinder is defined by four quadrants , wherein adjacent quadrants have opposite magnetic polarities, and wherein a first quadrant and a second quadrant are adjacent and share a diametric edge , and wherein the second quadrant and a third quadrant are adjacent and share an edge defined by a plane orthogonal to the longitudinal axis of the cylinder; a first set of magnetic field sensing elements placed in spaced relation to the magnetic target and comprising at least a first magnetic field sensing element and a second magnetic field sensing element , each magnetic field sensing element having an axis of maximum sensitivity ; a second set of magnetic field sensing elements placed in spaced relation to the magnetic target and comprising at least a third magnetic field sensing element and a fourth magnetic field sensing element , each magnetic field sensing element having an axis of maximum sensitivity ; wherein the first set of magnetic field sensing elements is positioned closer to the magnetic target than the second set of magnetic field sensing elements; and wherein the magnetic field sensing elements are placed so that their respective axes of maximum sensitivity are at a predetermined angle with respect to an expected direction of a stray magnetic field . a magnetic target producing a rotating magnetic field, wherein the target comprises a body comprising a cylinder , wherein the cylinder is defined by four quadrants , wherein adjacent quadrants have opposite magnetic polarities, and wherein a first quadrant and a second quadrant are adjacent and share a diametric edge , and wherein the second quadrant and a third quadrant are adjacent and share an edge defined by a plane orthogonal to the longitudinal axis of the cylinder; a first set of magnetic field sensing elements placed in spaced relation to the magnetic target and comprising at least a first magnetic field sensing element and a second magnetic field sensing element , each magnetic field sensing element having an axis of maximum sensitivity ; a second set of magnetic field sensing elements placed in spaced relation to the magnetic target and comprising at least a third magnetic field sensing element and a fourth magnetic field sensing element , each magnetic field sensing element having an axis of maximum sensitivity ; wherein the first set of magnetic field sensing elements is positioned closer to the magnetic target than the second set of magnetic field sensing elements; and wherein the magnetic field sensing elements are placed so that their respective axes of maximum sensitivity are at a predetermined angle with respect to an expected direction of a stray magnetic field .
A lighting device comprising: a light emitting module ; a middle body which is disposed on the light emitting module, the middle body comprising a heat sink disposed on one side of the light emitting module ; a heat sink fan which is disposed on the heat sink ; an upper case which is disposed on the heat sink fan and is coupled to the middle body; and a lower case which is disposed under the middle body and is coupled to the middle body, wherein the lower case has an air inlet and the middle body has an air outlet wherein the air inlet is connected to a first space between an upper portion of the heat sink fan and the upper case wherein the air outlet is connected to a second space between the middle body and the lower portion of the heat sink fan , wherein the heat sink fan injects air in the direction of the second space from the first space, and characterized in that the lower case is a circular plate, the air inlet comprises two slits in the circular plate, each slit being circular arc shaped, the slits being positioned on the circular plate to be diametrically opposed, the air inlet being disposed on the circumference of the lower case or at the center of the lower case , the air outlet being disposed on the middle body in a direction of a side where the air inlet is not disposed, the air outlet being disposed on a side toward the outer circumference of the middle body and allowing the introduced air to be emitted in the direction of the outer circumference of the lighting device. a light emitting module ; a middle body which is disposed on the light emitting module, the middle body comprising a heat sink disposed on one side of the light emitting module ; a heat sink fan which is disposed on the heat sink ; an upper case which is disposed on the heat sink fan and is coupled to the middle body; and a lower case which is disposed under the middle body and is coupled to the middle body, wherein the lower case has an air inlet and the middle body has an air outlet wherein the air inlet is connected to a first space between an upper portion of the heat sink fan and the upper case wherein the air outlet is connected to a second space between the middle body and the lower portion of the heat sink fan , wherein the heat sink fan injects air in the direction of the second space from the first space, and characterized in that the lower case is a circular plate, the air inlet comprises two slits in the circular plate, each slit being circular arc shaped, the slits being positioned on the circular plate to be diametrically opposed, the air inlet being disposed on the circumference of the lower case or at the center of the lower case , the air outlet being disposed on the middle body in a direction of a side where the air inlet is not disposed, the air outlet being disposed on a side toward the outer circumference of the middle body and allowing the introduced air to be emitted in the direction of the outer circumference of the lighting device.
A data compression method for generating a compressed representation of at least a portion of an individual's genome, comprising: receiving an input file comprising a representation of the at least a portion of the individual's genome in the form of a sequence of variants defined relative to a reference genome; accessing a reference database comprising a plurality of reference lists of genetic variants from other individuals, each reference list comprising a sequence of genetic variants from a single, phased haplotype; identifying two mosaics of segments from the reference lists which match the at least a portion of the individual's genome to within a threshold accuracy, each mosaic representing a single one of the two haplotypes of the individual's genome in the at least a portion of the individual's genome for which the compressed representation is to be generated, each of the segments comprising a portion of the sequence of genetic variants from one of the reference lists; and generating the compressed representation, the generating comprising encoding the two mosaics and deviations from the two mosaics. receiving an input file comprising a representation of the at least a portion of the individual's genome in the form of a sequence of variants defined relative to a reference genome; accessing a reference database comprising a plurality of reference lists of genetic variants from other individuals, each reference list comprising a sequence of genetic variants from a single, phased haplotype; identifying two mosaics of segments from the reference lists which match the at least a portion of the individual's genome to within a threshold accuracy, each mosaic representing a single one of the two haplotypes of the individual's genome in the at least a portion of the individual's genome for which the compressed representation is to be generated, each of the segments comprising a portion of the sequence of genetic variants from one of the reference lists; and generating the compressed representation, the generating comprising encoding the two mosaics and deviations from the two mosaics.
A pneumatic valve comprising: an outer housing defining a fluid inlet port and a fluid outlet port ; a piston sleeve ; and a piston slidably mounted within the piston sleeve , wherein the piston sleeve and piston are geometrically configured to interact so as to limit the slidable movement of the piston within the piston sleeve between an open position and a closed position, wherein either the piston sleeve comprises a radial detent extending along the piston sleeve and the piston comprises a radial projection that is received in the detent , or the piston comprises a radial detent extending along the piston and the piston sleeve comprises a projection that is received in the detent, so as to limit the slidable movement of the piston within the piston sleeve in a first and second direction, characterized in that the outer housing is formed from a continuous single-piece of material, and in that the piston sleeve is a separate piston sleeve housed within the outer housing . an outer housing defining a fluid inlet port and a fluid outlet port ; a piston sleeve ; and a piston slidably mounted within the piston sleeve , wherein the piston sleeve and piston are geometrically configured to interact so as to limit the slidable movement of the piston within the piston sleeve between an open position and a closed position, wherein either the piston sleeve comprises a radial detent extending along the piston sleeve and the piston comprises a radial projection that is received in the detent , or the piston comprises a radial detent extending along the piston and the piston sleeve comprises a projection that is received in the detent, so as to limit the slidable movement of the piston within the piston sleeve in a first and second direction,
A container comprising an annular sidewall which comprises upper and lower annular peripheral edges and a lattice structure of elongate ribs interconnecting the upper and lower annular peripheral edges , wherein the lattice structure is an open framework defining a plurality of sidewall openings , and a base which comprises an annular peripheral edge which is integral with the lower annular peripheral edge of the sidewall , the annular peripheral edge of the base surrounding a base wall structure which is integral therewith, wherein the sidewall and the base are composed of a thermoplastic polymer and define a central concavity for packaging a product, and wherein the container further comprises a flexible sheet which is bonded to the lattice structure to cover the sidewall openings and form a sealed sidewall surface of the container , characterised in that the base wall structure comprises at least one injection moulding sprue at a central region of the base wall structure , wherein the at least one injection moulding sprue is connected to the upper annular peripheral edge of the annular sidewall by the base wall structure , the annular peripheral edge of the base , the lower annular peripheral edge of the sidewall and the lattice structure of the sidewall , and in the lattice structure in the sidewall at least some of the elongate ribs comprise elongate foam ribs , wherein each foam rib comprises opposed outer and inner unfoamed solid skins of the thermoplastic polymer on opposite sides of a central cellular foam core of the thermoplastic polymer.
A filter medium comprising - a first conductive fibrous substrate, - a second conductive fibrous substrate spaced apart from the first conductive substrate and - a third insulation substrate fitted between the first and the second substrates for electrically separating the first conductive substrate from the second conductive substrate, wherein the first conductive fibrous substrate comprises - a first layer with first fibers having a first average diameter; - a second layer with second fibers having a second average diameter; and - a third layer with third fibers having a third average diameter; wherein the second layer comprises activated carbon in an amount sufficient to render the first fibrous substrate conductive. - a first conductive fibrous substrate, - a second conductive fibrous substrate spaced apart from the first conductive substrate and - a third insulation substrate fitted between the first and the second substrates for electrically separating the first conductive substrate from the second conductive substrate, - a first layer with first fibers having a first average diameter; - a second layer with second fibers having a second average diameter; and - a third layer with third fibers having a third average diameter;
A compound of formula (I): or a pharmaceutically acceptable salt thereof, wherein R 1 is -O(CH 2 ) n R 3 , wherein n is 3, 4 or 5, R 3 is: 3) -NR e R f , wherein R e and R f are each independently selected from a group consisting of C 1-6 alkyl, or R e and R f are taken together to form -(CH 2 ) 4 -; and R 2 is R 1 is -O(CH 2 ) n R 3 , wherein n is 3, 4 or 5, R 3 is: 3) -NR e R f , wherein R e and R f are each independently selected from a group consisting of C 1-6 alkyl, or R e and R f are taken together to form -(CH 2 ) 4 -; and n is 3, 4 or 5, R 3 is: 3) -NR e R f , wherein R e and R f are each independently selected from a group consisting of C 1-6 alkyl, or R e and R f are taken together to form -(CH 2 ) 4 -; and R 2 is
A method for preparing a sample in real-time for glycan analysis, the method comprising the steps of: (a) moving a sample comprising polypeptides to a polypeptide-binding column via a holding coil ; (b) binding polypeptides in the sample to the polypeptide-binding column; (c) moving glycanases to the polypeptide-binding column via the holding coil to release glycans from the bound polypeptides; (d) moving a carrier solution to the polypeptide-binding column, via the holding coil, and through the polypeptide-binding column, thereby moving the released glycans out of the polypeptide-binding column; (e) mixing the released glycans with a glycan-labeling reagent downstream of the polypeptide-binding column; (f) moving the mixture of the released glycans and the glycan-labeling reagent to a reaction coil arranged downstream of the polypeptide-binding column; (g) incubating the mixture of the released glycans and the glycan-labeling reagent in the reaction coil, thereby labeling the glycans; (h) moving the mixture to a cooling coil arranged downstream of the reaction coil; (i) reducing a temperature of the mixture via the cooling coil; (j) moving the cooled mixture to a glycan-binding column arranged downstream of the cooling coil; (k) binding the labeled glycans to the glycan-binding column; and (l) moving an elution buffer to the glycan-binding column and through the glycan-binding column to elute the labeled glycans bound to the glycan-binding column. wherein one or more of (a), (c), (d), (e), (f), (h), (j), and (l) are performed automatically. (a) moving a sample comprising polypeptides to a polypeptide-binding column via a holding coil ; (b) binding polypeptides in the sample to the polypeptide-binding column; (c) moving glycanases to the polypeptide-binding column via the holding coil to release glycans from the bound polypeptides; (d) moving a carrier solution to the polypeptide-binding column, via the holding coil, and through the polypeptide-binding column, thereby moving the released glycans out of the polypeptide-binding column; (e) mixing the released glycans with a glycan-labeling reagent downstream of the polypeptide-binding column; (f) moving the mixture of the released glycans and the glycan-labeling reagent to a reaction coil arranged downstream of the polypeptide-binding column; (g) incubating the mixture of the released glycans and the glycan-labeling reagent in the reaction coil, thereby labeling the glycans; (h) moving the mixture to a cooling coil arranged downstream of the reaction coil; (i) reducing a temperature of the mixture via the cooling coil; (j) moving the cooled mixture to a glycan-binding column arranged downstream of the cooling coil; (k) binding the labeled glycans to the glycan-binding column; and (l) moving an elution buffer to the glycan-binding column and through the glycan-binding column to elute the labeled glycans bound to the glycan-binding column.
An isolated monoclonal antibody that binds to EGFRvIII, wherein the antibody is conjugated to a toxin, and wherein the antibody comprises: a heavy chain polypeptide comprising the following complementarity determining regions (CDRs): a heavy chain CDR1 that is a CDR1 in SEQ ID NO: 2; a heavy chain CDR2 that is a CDR2 in SEQ ID NO: 2; a heavy chain CDR3 that is a CDR3 in SEQ ID NO: 2; and a light chain polypeptide comprising the following CDRs: a light chain CDR1 that is a CDR1 in SEQ ID NO: 19; a light chain CDR2 that is a CDR2 in SEQ ID NO: 19; and a light chain CDR3 that is a CDR3 in SEQ ID NO: 19, wherein each CDR is defined in accordance with the definition of Kabat or Chothia. a heavy chain polypeptide comprising the following complementarity determining regions (CDRs): a heavy chain CDR1 that is a CDR1 in SEQ ID NO: 2; a heavy chain CDR2 that is a CDR2 in SEQ ID NO: 2; a heavy chain CDR3 that is a CDR3 in SEQ ID NO: 2; and a light chain polypeptide comprising the following CDRs: a light chain CDR1 that is a CDR1 in SEQ ID NO: 19; a light chain CDR2 that is a CDR2 in SEQ ID NO: 19; and a light chain CDR3 that is a CDR3 in SEQ ID NO: 19, wherein each CDR is defined in accordance with the definition of Kabat or Chothia.
A binding member having a binding specificity to TNF alpha, the binding member comprising (i) the variable heavy chain as set forth in SEQ ID No: 2; and (ii) the variable light chain as set forth in SEQ ID No: 1; wherein the binding member is a single chain variable fragment scFv. (i) the variable heavy chain as set forth in SEQ ID No: 2; and (ii) the variable light chain as set forth in SEQ ID No: 1; wherein the binding member is a single chain variable fragment scFv.
Method of detecting a jamming transmitter affecting a communication user equipment (UE) adapted for communication with at least one component of a cellular code division multiple access based radio network (RN) having a number of communication user equipments, including said communication user equipment (UE), and a number of base node stations (BNS, sBNS) wherein the method comprises the following steps performed while the communication user equipment (UE) is in a connected mode of a communication radiolink with the at least one component of the radio network (RN) via a dedicated physical channel provided by the cellular radio network (RN) for the communication radiolink of the communication user equipment (UE) to a cell of the cellular radio network (RN): - generating a synchronization-indication wherein the synchronization-indication is generated from signal monitoring of the dedicated physical channel, - evaluating the synchronization-indication, wherein the synchronization-indication is further evaluated by means of at least one time measuring element and the time measuring element has one or more start-triggers and/or stop triggers and/or one or more timer and/or counter means - measuring a further Layer-1 parameter associated with the dedicated physical channel, - indicating a jamming situation in dependence of the evaluation and measuring. - generating a synchronization-indication wherein the synchronization-indication is generated from signal monitoring of the dedicated physical channel, - evaluating the synchronization-indication, wherein the synchronization-indication is further evaluated by means of at least one time measuring element and the time measuring element has one or more start-triggers and/or stop triggers and/or one or more timer and/or counter means - measuring a further Layer-1 parameter associated with the dedicated physical channel, - indicating a jamming situation in dependence of the evaluation and measuring.
An image processing method comprising the steps of: setting each parallax image of at least three parallax images as a reference image and obtaining for each reference image a plurality of relative difference images by calculating a difference between the reference image and each other of the at least three parallax images (S23, S33, S44); determining (S25, S35, S46), for each of the at least three parallax images set as the reference image, a first unnecessary component corresponding to a ghost or a flare included in the reference image by extracting the first unnecessary component from a plurality of pieces of relative difference information of the reference image, wherein each piece of relative difference information is one of the plurality of relative difference images obtained by calculating a difference between the reference image and each other of the at least three parallax images; generating a synthesis image by combining the at least three parallax images (S27, S37, S48); calculating a synthesized unnecessary component by combining first unnecessary components each of which is determined for each of the at least three parallax images (S26, S36, S47); and reducing a second unnecessary component from the synthesis image by calculating a difference between the synthesis image and the synthesized unnecessary component or a value obtained by multiplying the synthesized unnecessary component with a weight coefficient. setting each parallax image of at least three parallax images as a reference image and obtaining for each reference image a plurality of relative difference images by calculating a difference between the reference image and each other of the at least three parallax images (S23, S33, S44); determining (S25, S35, S46), for each of the at least three parallax images set as the reference image, a first unnecessary component corresponding to a ghost or a flare included in the reference image by extracting the first unnecessary component from a plurality of pieces of relative difference information of the reference image, wherein each piece of relative difference information is one of the plurality of relative difference images obtained by calculating a difference between the reference image and each other of the at least three parallax images; generating a synthesis image by combining the at least three parallax images (S27, S37, S48); calculating a synthesized unnecessary component by combining first unnecessary components each of which is determined for each of the at least three parallax images (S26, S36, S47); and reducing a second unnecessary component from the synthesis image by calculating a difference between the synthesis image and the synthesized unnecessary component or a value obtained by multiplying the synthesized unnecessary component with a weight coefficient.
A surface cleaning device comprising: a power source ; a pump in selective electrical communication with the power source; a storage container ; a valve assembly disposed in the storage container and in fluid communication with the pump, the valve assembly being configured to selectively flow cleaning fluid from a first portion and a second portion of the storage container, wherein the valve assembly includes a first fluid pathway in fluid communication with the first portion and a second fluid pathway in fluid communication with the second portion; a cleaning element having a spray nozzle in fluid communication with the pump; and a first valve fluidly coupled to the first fluid pathway between the first portion and the pump, the first valve being configured to selectively fluidly couple the first portion to the pump based at least in part on the orientation of the device. a power source ; a pump in selective electrical communication with the power source; a storage container ; a valve assembly disposed in the storage container and in fluid communication with the pump, the valve assembly being configured to selectively flow cleaning fluid from a first portion and a second portion of the storage container, wherein the valve assembly includes a first fluid pathway in fluid communication with the first portion and a second fluid pathway in fluid communication with the second portion; a cleaning element having a spray nozzle in fluid communication with the pump; and