mhurhangee/ep-ind-claims huggingface dataset:
An antimicrobial Nisin A, U, U2, Z, F or Q protein having at least one amino acid substitution in the hinge region of the protein, the hinge region being identified as a region corresponding to positions 20, 21 and 22 of the peptide sequence SEQ ID NO. 1, wherein the substitutions result in a proline, serine, glycine, alanine, histidine, glutamine, phenylalanine, arginine or a threonine at a position corresponding to amino acid position 20 of SEQ ID NO. 1, an alanine, valine, threonine, leucine, isoleucine, methionine, asparagine, glycine, serine, tyrosine, or histidine at a position corresponding to amino acid position 21 of SEQ ID NO. 1, or a threonine, lysine, valine, serine, alanine, leucine, methionine, glutamine, arginine, glycine, cysteine, or histidine, at a position corresponding to amino acid position 22 of SEQ ID NO. 1, with the proviso that the Nisin protein does not have a sequence in the hinge region of: 1) asparagine, methionine, lysine; or 2) proline, leucine, lysine; or 3) asparagine, leucine, lysine; or 4) histidine, methionine, lysine; or 5) glutamine, methionine, lysine; or 6) phenylalanine, methionine, lysine; or 7) asparagine, glycine, lysine; or 8) asparagine, histidine, lysine; or 9) asparagine, methionine, glycine; or 10) asparagine, methionine, histidine; or 11) proline, methionine, lysine; and wherein the protein has increased anti-microbial activity against gram-positive bacteria compared to wild type Nisin. 1) asparagine, methionine, lysine; or 2) proline, leucine, lysine; or 3) asparagine, leucine, lysine; or 4) histidine, methionine, lysine; or 5) glutamine, methionine, lysine; or 6) phenylalanine, methionine, lysine; or 7) asparagine, glycine, lysine; or 8) asparagine, histidine, lysine; or 9) asparagine, methionine, glycine; or 10) asparagine, methionine, histidine; or 11) proline, methionine, lysine; and
A bonded refractory mold, comprising: a mold comprising a mold wall, the mold wall comprising a bonded refractory material and defining a sprue, a gate and a mold cavity, the gate having a gate inlet opening into the sprue and a gate outlet opening into the mold cavity; a gas vent extending through the mold wall; and a gas permeable cover covering the gas vent, characterized in that the gas vent is formed as a hole located in the gate or the sprue, and the gas permeable cover covering the gas vent is disposed on an outer surface of the mold wall and configured to exclude a support medium surrounding the mold from passage into the mold through the gas vent. a mold comprising a mold wall, the mold wall comprising a bonded refractory material and defining a sprue, a gate and a mold cavity, the gate having a gate inlet opening into the sprue and a gate outlet opening into the mold cavity; a gas vent extending through the mold wall; and a gas permeable cover covering the gas vent, characterized in that the gas vent is formed as a hole located in the gate or the sprue, and the gas permeable cover covering the gas vent is disposed on an outer surface of the mold wall and configured to exclude a support medium surrounding the mold from passage into the mold through the gas vent.
A method of determining the presence of a cancer stem cell in a sample comprising cancer cells, the method comprising: - contacting the sample with an agent that binds to a CCL20 nucleic acid sequence or a CCL20 amino acid sequence; - detecting the presence or absence of binding between the agent and the CCL20 nucleic acid sequence or the CCL20 amino acid sequence; and - identifying the presence of the CSC in the sample upon detection of binding between the agent and the CCL20 nucleic acid sequence or the CCL20 amino acid sequence. - contacting the sample with an agent that binds to a CCL20 nucleic acid sequence or a CCL20 amino acid sequence; - detecting the presence or absence of binding between the agent and the CCL20 nucleic acid sequence or the CCL20 amino acid sequence; and - identifying the presence of the CSC in the sample upon detection of binding between the agent and the CCL20 nucleic acid sequence or the CCL20 amino acid sequence.
A method for controlling an aggregate interference of a secondary system in a cognitive radio network, comprising the steps of: - computing a power density (P d,i), a footprint (A foot, i) and a service area (A i) for each of a plurality of cells of the secondary system that satisfy an interference constraint at a given point in a primary system, in such a manner that: - the power density (P d,i) is computed as a secondary transmitter density (ρ i) of the cell multiplied with a secondary user power of the cell; and - the footprint (A foot,i) is computed as inverse of the secondary transmitter density (ρ i) of the cell; - summing the power densities (P d, i) for all said plurality of cells for the point weighted by an aggregated link gain - − ∫ A i g a m da − of secondary user coverage areas (A i) and shadow fading; and - using the sum of the power density at the point to obtain an aggregate interference in order to decide which power level a new secondary system user is allowed to use in a given cell. - computing a power density (P d,i), a footprint (A foot, i) and a service area (A i) for each of a plurality of cells of the secondary system that satisfy an interference constraint at a given point in a primary system, in such a manner that: - the power density (P d,i) is computed as a secondary transmitter density (ρ i) of the cell multiplied with a secondary user power of the cell; and - the footprint (A foot,i) is computed as inverse of the secondary transmitter density (ρ i) of the cell; - the power density (P d,i) is computed as a secondary transmitter density (ρ i) of the cell multiplied with a secondary user power of the cell; and - the footprint (A foot,i) is computed as inverse of the secondary transmitter density (ρ i) of the cell; - summing the power densities (P d, i) for all said plurality of cells for the point weighted by an aggregated link gain - − ∫ A i g a m da − of secondary user coverage areas (A i) and shadow fading; and - using the sum of the power density at the point to obtain an aggregate interference in order to decide which power level a new secondary system user is allowed to use in a given cell.
A power supply system comprising: a battery; and a notification portion characterized by a dischargeable time prediction portion that is adapted to predict a dischargeable time for each of a plurality of load patterns produced by combinations of predetermined loads in which the battery can perform discharge by supplying power to the loads; wherein the notification portion is adapted to simultaneously notify a user of the dischargeable times corresponding to the plurality of load patterns as predicted by the dischargeable time prediction portion. a battery; and a notification portion characterized by a dischargeable time prediction portion that is adapted to predict a dischargeable time for each of a plurality of load patterns produced by combinations of predetermined loads in which the battery can perform discharge by supplying power to the loads; wherein the notification portion is adapted to simultaneously notify a user of the dischargeable times corresponding to the plurality of load patterns as predicted by the dischargeable time prediction portion.
Aerosol can for spraying a coating composition in order to form a polymeric mould release layer in a mould, • where the aerosol can comprises a container, a valve, a riser tube and a spraying head with a discharge opening, • where the container is filled with the coating composition, • where the coating composition comprises at least one silicone precursor and is present in a mixture with a propellant, and • where the aerosol can comprises at least one plastics part which, when the aerosol can is used as intended, comes into direct contact with the coating composition, characterized in that • the at least one silicone precursor comprises at least one hydrolysable silane and in that the at least one plastics part consists of a water-free polymer material which has not been formed by a polycondensation reaction. • where the aerosol can comprises a container, a valve, a riser tube and a spraying head with a discharge opening, • where the container is filled with the coating composition, • where the coating composition comprises at least one silicone precursor and is present in a mixture with a propellant, and • where the aerosol can comprises at least one plastics part which, when the aerosol can is used as intended, comes into direct contact with the coating composition, • the at least one silicone precursor comprises at least one hydrolysable silane and in that the at least one plastics part consists of a water-free polymer material which has not been formed by a polycondensation reaction.
An apparatus for phase tracking an oscillatory signal, comprising: an input unit configured to receive an input signal; and a phase estimation unit, characterized in that the phase estimation unit is configured to: generate first and second reference oscillatory signals at the frequency of a target frequency component of the input signal, the first and second reference oscillatory signals being phase shifted relative to each other; iteratively vary weights of a weighted sum of the first and second reference oscillatory signals to match the weighted sum to the input signal; and use the weights of the matched weighted sum to provide real time estimates of the phase of the target frequency component of the input signal, wherein the input signal represents measurements of electrical activity in a biological system, optionally measurements of electrical activity in a nervous system of the biological system. an input unit configured to receive an input signal; and a phase estimation unit, generate first and second reference oscillatory signals at the frequency of a target frequency component of the input signal, the first and second reference oscillatory signals being phase shifted relative to each other; iteratively vary weights of a weighted sum of the first and second reference oscillatory signals to match the weighted sum to the input signal; and use the weights of the matched weighted sum to provide real time estimates of the phase of the target frequency component of the input signal, wherein the input signal represents measurements of electrical activity in a biological system, optionally measurements of electrical activity in a nervous system of the biological system.
Vent (15, 20) for mould for permanent aluminium casting, wherein the vent (15, 20) comprises a cylindrical body (15, 20) provided with a plurality of grooves or holes (16, 21) having an inclination "Ao", so that the larger opening (18, 22) of each groove or hole (16, 21) is located on the external surface of the vent (15, 20), closer to a cavity of the mould wherein the aluminium is cast, and the smaller opening (19, 23) of each groove or hole (16, 21) is located inside of the vent (15, 20), further from the cavity, so that when an aluminium moulded part is removed from the mould said part carries a burr, leaving the grooves or holes (16, 21) of the vent (15, 20) always clean and free.
A linear compressor comprising: a cylinder forming a compression space of refrigerant; and a discharge unit forming a discharge space of refrigerant into which refrigerant discharged from the compression space flows, wherein the discharge unit comprises: a discharge cover having an inner space formed therein and an inner side surface; and a discharge plenum placed in the inner space and being in close contact with the discharge cover, wherein the discharge plenum comprises: a plenum flange extending radially; and a plenum seating part, a plenum body, and a plenum extension part which extend from an inner side end of the plenum flange in a radial direction of the plenum flange; characterized by a plenum guide part being in close contact with the inner side surface of the discharge cover and extending from an outer side end of the plenum flange toward the inner space. a cylinder forming a compression space of refrigerant; and a discharge unit forming a discharge space of refrigerant into which refrigerant discharged from the compression space flows, wherein the discharge unit comprises: a discharge cover having an inner space formed therein and an inner side surface; and a discharge plenum placed in the inner space and being in close contact with the discharge cover, a discharge cover having an inner space formed therein and an inner side surface; and a discharge plenum placed in the inner space and being in close contact with the discharge cover, wherein the discharge plenum comprises: a plenum flange extending radially; and a plenum seating part, a plenum body, and a plenum extension part which extend from an inner side end of the plenum flange in a radial direction of the plenum flange; characterized by a plenum guide part being in close contact with the inner side surface of the discharge cover and extending from an outer side end of the plenum flange toward the inner space. a plenum flange extending radially; and a plenum seating part, a plenum body, and a plenum extension part which extend from an inner side end of the plenum flange in a radial direction of the plenum flange; characterized by a plenum guide part being in close contact with the inner side surface of the discharge cover and extending from an outer side end of the plenum flange toward the inner space.
An electric power steering apparatus that performs an assist control of a steering by driving a motor by means of a current command value calculated on a basis of at least a steering torque, comprises at least sensors A and B being different in periods, and has a function to detect a steering speed, said electric power steering apparatus comprising: a time stamp attaching section (301, 302) that attaches a time stamp ATi to a detection signal Ai of said sensor A and attaches a time stamp BTj to a detection signal Bj of said sensor B; a storing section that stores said detection signal Bj to which said time stamp BTj is attached; a synchronous signal searching section that searches said detection signal Bj most synchronized with said detection signal Ai from said storing section based on said time stamps ATi and BTj; a vernier calculating section that performs a calculation of an angle difference between synchronous signals searched by said synchronous signal searching section and a vernier calculation and outputs an absolute steering angle of a sensor reference; an initial steering angle calculating section that calculates an initial steering angle value from said absolute steering angle; and a steering angle output section that obtains a steering angle based on a relative steering angle from said sensor B and said initial steering angle value. a time stamp attaching section (301, 302) that attaches a time stamp ATi to a detection signal Ai of said sensor A and attaches a time stamp BTj to a detection signal Bj of said sensor B; a storing section that stores said detection signal Bj to which said time stamp BTj is attached; a synchronous signal searching section that searches said detection signal Bj most synchronized with said detection signal Ai from said storing section based on said time stamps ATi and BTj; a vernier calculating section that performs a calculation of an angle difference between synchronous signals searched by said synchronous signal searching section and a vernier calculation and outputs an absolute steering angle of a sensor reference; an initial steering angle calculating section that calculates an initial steering angle value from said absolute steering angle; and a steering angle output section that obtains a steering angle based on a relative steering angle from said sensor B and said initial steering angle value.
A method comprising: sensing a casing pressure within the wellbore; comparing the casing pressure with a target casing pressure; generating a signal representative of the difference between the casing pressure and the target casing pressure; processing the signal to generate a set point pressure signal for controlling the operation of an automatic choke; adjusting the set point pressure of the automatic choke using the generated set point pressure signal to control the casing pressure within the wellbore; and adjusting the target casing pressure using the generated set point pressure signal. sensing a casing pressure within the wellbore; comparing the casing pressure with a target casing pressure; generating a signal representative of the difference between the casing pressure and the target casing pressure; processing the signal to generate a set point pressure signal for controlling the operation of an automatic choke; adjusting the set point pressure of the automatic choke using the generated set point pressure signal to control the casing pressure within the wellbore; and adjusting the target casing pressure using the generated set point pressure signal.
An angling system for recording runs on a fishing line comprising: at least one fish bite detector, wherein the or each fish bite detector comprises a fish bite sensor connected to a transmitter or transceiver, and wherein the or each fish bite detector is configured to transmit a fish bite signal upon the fish bite sensor detecting a fish bite; and at least one camera or at least one shutter actuator for attachment to a camera comprising a shutter, wherein the or each camera or shutter actuator comprises a receiver or transceiver, and wherein the or each camera or shutter actuator comprises an integral means for attachment to a bank stick or rod pod, wherein the receiver or transceiver of the or each camera or shutter actuator is pairable with the transmitter or transceiver of the or each fish bite detector, wherein the receiver or transceiver of the or each camera or shutter actuator is configured to receive fish bite signals transmitted by each paired fish bite detector, and wherein the or each camera is configured to record upon receiving each fish bite signal, or the or each shutter actuator is configured to actuate a shutter of a camera to which the shutter actuator is attached upon receiving each fish bite signal. at least one fish bite detector, wherein the or each fish bite detector comprises a fish bite sensor connected to a transmitter or transceiver, and wherein the or each fish bite detector is configured to transmit a fish bite signal upon the fish bite sensor detecting a fish bite; and at least one camera or at least one shutter actuator for attachment to a camera comprising a shutter, wherein the or each camera or shutter actuator comprises a receiver or transceiver, and wherein the or each camera or shutter actuator comprises an integral means for attachment to a bank stick or rod pod,
An internal-combustion-engine piston, comprising: a base material formed from aluminum or an aluminum alloy and having a surface including a first region and a second region different from each other; a composite material portion formed in the first region of the surface from a composite material reinforced by an inorganic fiber or a whisker; and characterized by an anodized aluminum coating formed on a surface of the composite material portion in the first region and on the surface of the base material in the second region, wherein the surface of the base material is disposed at a height lower than the surface of the composite material portion. a base material formed from aluminum or an aluminum alloy and having a surface including a first region and a second region different from each other; a composite material portion formed in the first region of the surface from a composite material reinforced by an inorganic fiber or a whisker; and characterized by an anodized aluminum coating formed on a surface of the composite material portion in the first region and on the surface of the base material in the second region, wherein the surface of the base material is disposed at a height lower than the surface of the composite material portion.
A door for a microwave appliance, wherein: - the door includes an outer glass panel ranging over a complete outer side of the door, - the door includes an inner glass panel ranging over at least a central portion of an inner side of the door, - the door includes a door frame covering at least the circumferential sides of the oven door, - the door includes a wave choke system, - the outer glass panel, the inner glass panel and the door frame form a casing of the door, - the wave choke system is arranged inside said casing of the door, - the wave choke system is arranged in an outer portion of the interior of the door and circumferentially enclosed by the door frame, - the wave choke system is arranged adjacent to an outer side of the inner glass panel, - the circumferential sides of the inner glass panel are enclosed by the door frame, and - a gap between the circumferential sides of the inner glass panel and the door frame is filled by a gasket, characterized in that a bending up of the wave choke system penetrates at least partially into the gap between the circumferential sides of the inner glass panel and the door frame, wherein the gasket encloses partially the bending up of the wave choke system. - the door includes an outer glass panel ranging over a complete outer side of the door, - the door includes an inner glass panel ranging over at least a central portion of an inner side of the door, - the door includes a door frame covering at least the circumferential sides of the oven door, - the door includes a wave choke system, - the outer glass panel, the inner glass panel and the door frame form a casing of the door, - the wave choke system is arranged inside said casing of the door, - the wave choke system is arranged in an outer portion of the interior of the door and circumferentially enclosed by the door frame, - the wave choke system is arranged adjacent to an outer side of the inner glass panel, - the circumferential sides of the inner glass panel are enclosed by the door frame, and - a gap between the circumferential sides of the inner glass panel and the door frame is filled by a gasket,
A semiconductor chip comprising at least one memory cell (300, 400) comprising: a control gate (306, 406), and a non-volatile memory transistor (102, 202, 302, 402) comprising a floating gate (308, 408); said control gate (306, 406) being coupled to said floating gate (308, 408) by a metal capacitor (304, 404) formed as a single-level or a multi-level metal capacitor (304, 404) comprising a plurality of metal plates (310, 312), wherein at least one of said plurality of metal plates (310, 312) is formed in one metal level of said semiconductor chip over an interlayer dielectric; characterized in that an interconnect (216, 316) between said metal capacitor (304, 404) and said floating gate (308, 408) is formed in said one metal level; and said non-volatile memory transistor (302, 402) is a NMOS non-volatile memory transistor (302, 402) situated to one side of said metal capacitor (304, 404). a control gate (306, 406), and a non-volatile memory transistor (102, 202, 302, 402) comprising a floating gate (308, 408); said control gate (306, 406) being coupled to said floating gate (308, 408) by a metal capacitor (304, 404) formed as a single-level or a multi-level metal capacitor (304, 404) comprising a plurality of metal plates (310, 312), wherein at least one of said plurality of metal plates (310, 312) is formed in one metal level of said semiconductor chip over an interlayer dielectric; characterized in that an interconnect (216, 316) between said metal capacitor (304, 404) and said floating gate (308, 408) is formed in said one metal level; and said non-volatile memory transistor (302, 402) is a NMOS non-volatile memory transistor (302, 402) situated to one side of said metal capacitor (304, 404).