mhurhangee/patent-ind-claim-en huggingface dataset:
A pump body assembly, comprising: a crankshaft comprising a first eccentric portion , a support shaft and a second eccentric portion which are arranged at intervals in an axial direction; a first baffle plate and a second baffle plate which are arranged in sequence between the first eccentric portion and the second eccentric portion , wherein a first round hole is arranged on the first baffle plate , and the support shaft is arranged in the first round hole , so that the first baffle plate and the support shaft form a baffle plate bearing, characterised in that the baffle plate bearing has a stress relief structure for reducing a contact stress between the support shaft and the first baffle plate , and the stress relief structure comprises a second flexible groove arranged on an end face of the first baffle plate facing toward the second baffle plate , the second flexible groove is arranged on a side of the first baffle plate close to an inner edge of the first round hole . a crankshaft comprising a first eccentric portion , a support shaft and a second eccentric portion which are arranged at intervals in an axial direction; a first baffle plate and a second baffle plate which are arranged in sequence between the first eccentric portion and the second eccentric portion , wherein a first round hole is arranged on the first baffle plate , and the support shaft is arranged in the first round hole , so that the first baffle plate and the support shaft form a baffle plate bearing, characterised in that the baffle plate bearing has a stress relief structure for reducing a contact stress between the support shaft and the first baffle plate , and the stress relief structure comprises a second flexible groove arranged on an end face of the first baffle plate facing toward the second baffle plate , the second flexible groove is arranged on a side of the first baffle plate close to an inner edge of the first round hole .
A method of continuous manufacturing of solidified steelmaking slag comprising the steps of: a. solidifying molten steelmaking slag comprising at least 2% in weight of free lime so as to produce solidified slag particles having a diameter below 1 mm, the molten steelmaking slag being put in contact with at least a first carbonation gas during such solidification, said first carbonation gas comprising at least 20% in volume of CO2, between 5 and 30% in volume of CO, between 1 and 55% in volume of H2, between 1 and 55% in volume of N2 and between 1 and 5% in volume of O2, b. cooling the solidified slag particles down to a temperature below or equal to 300°C, in a closed chamber, the solidified slag particles being put in contact with at least one second carbonation gas during such cooling. a. solidifying molten steelmaking slag comprising at least 2% in weight of free lime so as to produce solidified slag particles having a diameter below 1 mm, the molten steelmaking slag being put in contact with at least a first carbonation gas during such solidification, said first carbonation gas comprising at least 20% in volume of CO2, between 5 and 30% in volume of CO, between 1 and 55% in volume of H2, between 1 and 55% in volume of N2 and between 1 and 5% in volume of O2, b. cooling the solidified slag particles down to a temperature below or equal to 300°C, in a closed chamber, the solidified slag particles being put in contact with at least one second carbonation gas during such cooling.
An article comprising: a body including a coating thereon, the coating having a first portion (66 a) disposed on a first section of the body and a second portion (66 b) disposed on a second, different section of the body, the first portion having a first microstructure and the second portion having a second, different microstructure; wherein the coating is a ceramic-based coating; wherein the first section is on a platform and the second section is on an airfoil attached to the platform; wherein the first microstructure is a random grain structure and the second microstructure is a columnar microstructure; and further comprising a bond coat on the body underlying the coating, wherein the bond coat is unpeened and has a relatively rough interface surface at the first section of the body, to which the first portion is mechanically bonded, and is peened and has a relatively smooth interface surface at the second section of the body, and to which the second portion is chemically bonded; wherein the body is a vane assembly including first and second airfoils attached at opposed ends to, respectively, first and second platforms (64 a, 64 b); and wherein the first portion is on a line-of-sight surface on platforms and the second portion is on a non-line-of-sight surface on the first and second airfoils and at least between the airfoils.
A connector for a safety switching profile comprising a first contact element for a first switching profile section of the safety switching profile and a second contact element for a second switching profile section of the safety switching profile , and an insertion lug , wherein the two contact elements are accommodated in the insertion lug , and wherein the first contact element is a first carrier with a first claw and the second contact element is a second carrier with a second claw , characterized in that the carriers are designed as a C-profile or U-profile in the form of a contact clip.
A composition for controlling populations of a microorganism in food product, comprising: a) an h-mutant virus: incapable of: infecting a multicellular organism; transferring genes for virulence factors, toxins, or antibiotic resistance to an infected host microorganism; and, converting from a lytic state to a temperate state; and capable of: infecting in a food product a variation of a target strain of the microorganism that is resistant to a wild-type of the h-mutant virus, the microorganism comprising an enteric microorganism pathogenic to a mammal; and, b) a carrier microorganism infected with the virus, wherein the carrier microorganism comprises an avirulent microorganism. a) an h-mutant virus: incapable of: infecting a multicellular organism; transferring genes for virulence factors, toxins, or antibiotic resistance to an infected host microorganism; and, converting from a lytic state to a temperate state; and capable of: infecting in a food product a variation of a target strain of the microorganism that is resistant to a wild-type of the h-mutant virus, the microorganism comprising an enteric microorganism pathogenic to a mammal; and, incapable of: infecting a multicellular organism; transferring genes for virulence factors, toxins, or antibiotic resistance to an infected host microorganism; and, converting from a lytic state to a temperate state; and infecting a multicellular organism; transferring genes for virulence factors, toxins, or antibiotic resistance to an infected host microorganism; and, converting from a lytic state to a temperate state; and capable of: infecting in a food product a variation of a target strain of the microorganism that is resistant to a wild-type of the h-mutant virus, the microorganism comprising an enteric microorganism pathogenic to a mammal; and, b) a carrier microorganism infected with the virus, wherein the carrier microorganism comprises an avirulent microorganism.
An aqueous bonding composition comprising: (A) a saccharide; (B) a water-soluble synthetic resin; and (C) an inorganic acid ammonium salt, wherein the inorganic acid ammonium salt (C) comprises at least one selected from ammonium dihydrogen phosphate and ammonium chloride; and the water-soluble synthetic resin (B) comprises a polyvinyl alcohol-based compound. (A) a saccharide; (B) a water-soluble synthetic resin; and (C) an inorganic acid ammonium salt, wherein the inorganic acid ammonium salt (C) comprises at least one selected from ammonium dihydrogen phosphate and ammonium chloride; and the water-soluble synthetic resin (B) comprises a polyvinyl alcohol-based compound.
A shaped abrasive particle having a body comprising an arrowhead shape, wherein the body comprises a tortuous contour, wherein the body comprises a first major surface , a second major surface, and a first side surface , wherein a fractured region is formed at a center of the first side surface defining an arcuate surface giving the body the arrowhead shape.
An ice maker comprising: a sump ; a freeze plate ; and an ice maker controller for controlling operation of the ice maker , wherein the ice maker controller is connected to a plurality of elements which at least one of provide input signals and respond to output signals from the ice maker controller , wherein the elements comprise a pressure sensor and: a water supply valve ; a refrigeration compressor ; and a water circulation pump ; and wherein a pneumatic tube is connected to the pressure sensor at one end and, in use, is submerged underneath water in the sump at the other end such that the pressure sensor can detect the water level in the sump , wherein during a sensible water cooling period the ice maker controller is adapted to detect a leak when the water level in the sump varies beyond an acceptable level variation due to water disturbance. a sump ; a freeze plate ; and an ice maker controller for controlling operation of the ice maker , wherein the ice maker controller is connected to a plurality of elements which at least one of provide input signals and respond to output signals from the ice maker controller , wherein the elements comprise a pressure sensor and: a water supply valve ; a refrigeration compressor ; and a water circulation pump ; and a water supply valve ; a refrigeration compressor ; and a water circulation pump ; and wherein a pneumatic tube is connected to the pressure sensor at one end and, in use, is submerged underneath water in the sump at the other end such that the pressure sensor can detect the water level in the sump , wherein during a sensible water cooling period the ice maker controller is adapted to detect a leak when the water level in the sump varies beyond an acceptable level variation due to water disturbance.
A mixing device and applicator for sealants having a main body and a handle having a trigger and a rotation change actuator , wherein the main body comprises a modular enclosing casing , resting on said handle and housing: - a rotor , - a removable sheath for carrying containers of sealant material, - a rotating cylinder whereon the sheath is coupled, said cylinder being rotated in the sense selected for mixing by means of the action of the rotor present in the rear portion of the device, - a gear module for varying rotation, said module being coupled to said rotor being powered by electric current or by a pneumatic system, - an extendable shaft projected from the gear module with a telescopic guiding system, whereby once the mixing is performed, the rotation of the cylinder is locked by means of a manual braking system present in the upper portion of a closing bushing and resting on an anchoring area of the sheath with the cylinder such that by means of changing the rotation of the cylinder performed through the actuator present in the handle and the subsequent actuation of the trigger a plunger element coupled to said shaft is ejected longitudinally forwards for ejecting the material to be applied by means of a contact made by said plunger on a piston present inside the container. - a rotor , - a removable sheath for carrying containers of sealant material, - a rotating cylinder whereon the sheath is coupled, said cylinder being rotated in the sense selected for mixing by means of the action of the - a gear module for varying rotation, said module being coupled to said rotor being powered by electric current or by a pneumatic system, - an extendable shaft projected from the gear module with a telescopic guiding system,
A nuclear assay counter comprising one or more neutron detector modules , each neutron detector module comprising a neutron moderating block having a plurality of neutron detector blades embedded therein, wherein each neutron detector blade comprises: a conversion layer comprising a mixture of a neutron absorbing material and a scintillation material; a wavelength-shifting light-guide arranged to receive photons emitted from the scintillation material; and a photodetector optically coupled to the light-guide and arranged to detect photons generated as a result of neutron absorption events in the conversion layer, wherein neighbouring neutron detector blades in the one or more neutron detector modules are separated by an amount within a range of 0.5 cm to 10 cm, wherein the one or more neutron detector modules are arranged so that the neutron detector blades at least partially surround a sample volume for receiving a sample from which neutrons are to be detected.
A lock assembly comprising: a blocking member , a first linkage assembly that includes a first triangle member assembly and a first bar member , wherein the first triangle member assembly includes first, second and third corners , wherein the first corner is pivotably attached to a first end of the first bar member , wherein a second end of the first bar member is pivotably attached to the blocking member , wherein the first triangle member assembly includes first, second and third legs , wherein the first leg extends between the first and second corners , wherein the second leg extends between the second and third corners , and wherein the third leg extends between the first and third corners , and a first handle associated with the third corner of the first triangle member assembly , wherein movement of the handle along a curved path from a start position to a finish position moves the blocking member between a first position and a second position, wherein a first distance is defined between the handle and the blocking member when the blocking member is in the first position and a second distance is defined between the handle and the blocking member when the blocking member is in the second position, wherein the second distance is greater than the first distance. a blocking member , a first linkage assembly that includes a first triangle member assembly and a first bar member , wherein the first triangle member assembly includes first, second and third corners , wherein the first corner is pivotably attached to a first end of the first bar member , wherein a second end of the first bar member is pivotably attached to the blocking member , a first handle associated with the third corner of the first triangle member assembly , wherein movement of the handle along a curved path from a start position to a finish position moves the blocking member between a first position and a second position, wherein a first distance is defined between the handle and the blocking member when the blocking member is in the first position and a second distance is defined between the handle and the blocking member when the blocking member is in the second position, wherein the second distance is greater than the first distance.
A controller for modifying a clock signal from a first clock comprising a sequence of regular pulses, the controller comprising: a time comparison unit configured to estimate a time difference between the clock signal associated with the first clock and a reference signal received at the controller, wherein the time comparison unit is configured to determine if the time difference is greater than or equal to, or less than one clock period of the first clock; a first signal modifier configured to delay the clock signal by an integer number of clock periods and/or remove a pulse or a plurality of consecutive pulses from the clock signal; and a second signal modifier configured to modify the clock signal by a fraction of the clock period, wherein the controller is configured to select, for modifying the clock signal, the first signal modifier if the time difference is greater than or equal to one clock period of the first clock or the second signal modifier if the time difference is less than one clock period of the first clock. a time comparison unit configured to estimate a time difference between the clock signal associated with the first clock and a reference signal received at the controller, wherein the time comparison unit is configured to determine if the time difference is greater than or equal to, or less than one clock period of the first clock; a first signal modifier configured to delay the clock signal by an integer number of clock periods and/or remove a pulse or a plurality of consecutive pulses from the clock signal; and a second signal modifier configured to modify the clock signal by a fraction of the clock period, wherein the controller is configured to select, for modifying the clock signal, the first signal modifier if the time difference is greater than or equal to one clock period of the first clock or the second signal modifier if the time difference is less than one clock period of the first clock.
A vehicle interior component in the form of an instrument panel comprising: a base member ; a cover member placed on the base member ; an adhesive layer entirely sprayed to an upper surface of the base member by using a spray nozzle , the base member and the cover member attached each other via the adhesive layer ; and a non-adhesive portion provided on the corner and in vicinity of the corner of the base member to which the adhesive layer is sprayed, wherein the non-adhesive portion is an area to which an adhesive is not partially sprayed in the base member , wherein the non-adhesive portion is formed only by taping a masking tape or placing a masking member to the upper surface of the base member . a base member ; a cover member placed on the base member ; an adhesive layer entirely sprayed to an upper surface of the base member by using a spray nozzle , the base member and the cover member attached each other via the adhesive layer ; and a non-adhesive portion provided on the corner and in vicinity of the corner of the base member to which the adhesive layer is sprayed, wherein the non-adhesive portion is an area to which an adhesive is not partially sprayed in the base member , wherein the non-adhesive portion is formed only by taping a masking tape or placing a masking member to the upper surface of the base member .
A method of producing an aluminum alloy conductor, comprising: subjecting an aluminum alloy material which has a composition consisting of: 0.01 to 0.4 mass% of Fe, 0.1 to 0.3 mass% of Mg, 0.04 to 0.3 mass% of Si, 0.1 to 0.5 mass% of Cu, and 0.001 to 0.01 mass% of Ti and V in total, with the balance being Al and inevitable impurities, to the steps comprising: melting; casting with a cooling speed of 1 to 20°C/sec; hot- or cold-working; wire drawing with a working degree from 1 to 6; intermediate annealing at 300 to 450°C, for 10 min or more; wire drawing with a working degree from 1 to 6; and finish annealing, wherein the finish annealing is conducted by a continuous running heat treatment that is a continuous heat treatment comprising the steps of: rapid heating, and quenching, in which an annealing furnace temperature z (°C) and an annealing time period x (sec) satisfy relationships of: 1.5 ≤ x ≤ 5 , and − 50 ⁢ x + 550 ≤ z ≤ − 36 ⁢ x + 650 , and wherein the thus-produced aluminum alloy conductor has a recrystallized texture of 40% or more of an area ratio of grains each having a plane and being positioned in parallel to a cross-section vertical to a wire-drawing direction of a wire, and has a grain size of 1 to 30 μm on the cross-section vertical to the wire-drawing direction of the wire. subjecting an aluminum alloy material which has a composition consisting of: 0.01 to 0.4 mass% of Fe, 0.1 to 0.3 mass% of Mg, 0.04 to 0.3 mass% of Si, 0.1 to 0.5 mass% of Cu, and 0.001 to 0.01 mass% of Ti and V in total, with the balance being Al and inevitable impurities, to the steps comprising: melting; casting with a cooling speed of 1 to 20°C/sec; hot- or cold-working; wire drawing with a working degree from 1 to 6; intermediate annealing at 300 to 450°C, for 10 min or more; wire drawing with a working degree from 1 to 6; and finish annealing, melting; casting with a cooling speed of 1 to 20°C/sec; hot- or cold-working; wire drawing with a working degree from 1 to 6; intermediate annealing at 300 to 450°C, for 10 min or more; wire drawing with a working degree from 1 to 6; and finish annealing, wherein the finish annealing is conducted by a continuous running heat treatment that is a continuous heat treatment comprising the steps of: rapid heating, and quenching, in which an annealing furnace temperature z (°C) and an annealing time period x (sec) satisfy relationships of: 1.5 ≤ x ≤ 5 , and − 50 ⁢ x + 550 ≤ z ≤ − 36 ⁢ x + 650 , and wherein the thus-produced aluminum alloy conductor has a recrystallized texture of 40% or more of an area ratio of grains each having a plane and being positioned in parallel to a cross-section vertical to a wire-drawing direction of a wire, and has a grain size of 1 to 30 μm on the cross-section vertical to the wire-drawing direction of the wire.
A method for allocation wireless resources in a wireless local area network, LAN, the method comprising: allocating, by an access point, AP, , a plurality of resource units for a plurality of stations, STAs, wherein the resource units have different sizes, within an entire bandwidth which is 20 MHz, 40 MHz, or 80 MHz, wherein the plurality of resource units are allocated based on Orthogonal Frequency Division Multiple Access, OFDMA; and transmitting, by the AP, a physical protocol data unit, PPDU, through the plurality of resource units to the plurality of STAs, wherein, among the plurality of resource units, a basic tone unit, BTU, is set to 242 tones within a frequency axis and a small tone unit, STU, is set to a number of tones smaller than 242 tones within the frequency axis, wherein allocation location of the plurality of resource units is defined based on a signal field that is included in a PPDU header of the PPDU. allocating, by an access point, AP, , a plurality of resource units for a plurality of stations, STAs, wherein the resource units have different sizes, within an entire bandwidth which is 20 MHz, 40 MHz, or 80 MHz, wherein the plurality of resource units are allocated based on Orthogonal Frequency Division Multiple Access, OFDMA; and transmitting, by the AP, a physical protocol data unit, PPDU, through the plurality of resource units to the plurality of STAs, wherein, among the plurality of resource units, a basic tone unit, BTU, is set to 242 tones within a frequency axis and a small tone unit, STU, is set to a number of tones smaller than 242 tones within the frequency axis, wherein allocation location of the plurality of resource units is defined based on a signal field that is included in a PPDU header of the PPDU.