mhurhangee/patent-ind-claim-en huggingface dataset:
A contact probe comprising a shell comprising a body having a shell cavity: at least one plunger slidably received in the shell cavity and including a tip portion extending outwardly from the shell through at least one opening in at least one end of the shell; a biasing device configured to exert a biasing force on the at least one plunger; and at least one insulation member resembling a ring and comprising an insulative material, the at least one insulation member being disposed on at least a portion of an outer surface of the tip portion of the at least one plunger , characterised in the outer surface having a narrowed section exhibiting a generally U-shaped cross section about at least a portion of its periphery bounded by at least one non-narrowed section, the narrowed section and the at least one non-narrowed section being configured such that the at least one insulation member is received about and entirely seated in the narrowed section. at least one plunger slidably received in the shell cavity and including a tip portion extending outwardly from the shell through at least one opening in at least one end of the shell; a biasing device configured to exert a biasing force on the at least one plunger; and at least one insulation member resembling a ring and comprising an insulative material, the at least one insulation member being disposed on at least a portion of an outer surface of the tip portion of the at least one plunger , characterised in the outer surface having a narrowed section exhibiting a generally U-shaped cross section about at least a portion of its periphery bounded by at least one non-narrowed section, the narrowed section and the at least one non-narrowed section being configured such that the at least one insulation member is received about and entirely seated in the narrowed section.
An Aluminium alloy composition for a sliding element, wherein the Aluminium alloy composition comprises at least the following elements:- Tin (Sn) - 4 wt% to 8 wt%; Silicon (Si) - 4 wt% to 8 wt%; Copper (Cu) - 0.4 wt% to 1.7 wt%; Manganese (Mn) - 0.1 wt% to 1 wt%; Nickel (Ni) - 0.4 wt% to 2.0 wt%; Vanadium (V) - 0.05 wt% to 0.3 wt%; and Strontium (Sr) - 0.003 wt% to 0.2 wt%; wherein the composition comprises: Titanium (Ti) - 0.01 wt% to 0.2 wt%; or Zirconium (Zr) - 0.05 wt% to 0.3 wt%; and Titanium (Ti) - 0.005 wt% to 0.2 wt%; wherein the composition may further comprise one or more of the following elements: Ytterbium (Yb) - 0.005 wt% to 0.1 wt%; Boron (B) - 0.001 wt% to 0.02 wt%; Zirconium (Zr) - 0.01 wt% to 0.3 wt%; Scandium (Sc) - 0.05 wt% to 0.5 wt%; Erbium (Eb) - 0.05 wt% to 1 wt%; Antimony (Sb) - 0.005 wt% to 0.5 wt%; Europium (Eu) - 0.005 wt% to 0.1 wt%; and Carbon (C) - 0.001 wt% to 0.02 wt%; and the balance being Aluminium (Al) - (apart from any incidental impurities). Tin (Sn) - 4 wt% to 8 wt%; Silicon (Si) - 4 wt% to 8 wt%; Copper (Cu) - 0.4 wt% to 1.7 wt%; Manganese (Mn) - 0.1 wt% to 1 wt%; Nickel (Ni) - 0.4 wt% to 2.0 wt%; Vanadium (V) - 0.05 wt% to 0.3 wt%; and Strontium (Sr) - 0.003 wt% to 0.2 wt%; Titanium (Ti) - 0.01 wt% to 0.2 wt%; or Zirconium (Zr) - 0.05 wt% to 0.3 wt%; and Titanium (Ti) - 0.005 wt% to 0.2 wt%; Ytterbium (Yb) - 0.005 wt% to 0.1 wt%; Boron (B) - 0.001 wt% to 0.02 wt%; Zirconium (Zr) - 0.01 wt% to 0.3 wt%; Scandium (Sc) - 0.05 wt% to 0.5 wt%; Erbium (Eb) - 0.05 wt% to 1 wt%; Antimony (Sb) - 0.005 wt% to 0.5 wt%; Europium (Eu) - 0.005 wt% to 0.1 wt%; and Carbon (C) - 0.001 wt% to 0.02 wt%; and the balance being Aluminium (Al) - (apart from any incidental impurities).
Refrigeration appliance comprising a fresh food compartment (A) in which an ozone generating device is placed, wherein the ozone generating device is mounted on a rear wall of the fresh food compartment (A) in correspondence with a notch provided in an upper rear wall of a crisper drawer (D), so that the ozone generated by said ozone generating device is confined in said crisper drawer (D), wherein the ozone generating device is configured to maintain in said crisper drawer (D) a concentration of ozone comprised between 0,04 and 0,12 ppm and comprises an ozone sensor for adjusting the ozone concentration at the desired value and an ethylene sensor , said ozone and ethylene sensors and the ozone generating device being placed in a housing , characterized in that the ozone generator is automatically switched ON when the ethylene sensor achieves a predetermined threshold and is automatically switched OFF when the crisper drawer (D) is open.
Process for preparing purified plasma protein concentrates for therapeutic use from blood plasma, comprising purification steps wherein blood plasma or a plasma fraction is successively subjected to three multicolumn chromatographies, so as to recover successively three purified plasma protein concentrates, said purified plasma protein concentrates for therapeutic use being an immunoglobulin concentrate, a fibrinogen concentrate and an albumin concentrate.
A metal can comprising: - a metal can body comprising a lateral wall , a first end of which is connected to a bottom and a second end of which delimits an access opening , - a metal lid suitable to close said access opening , said metal can including a peripheral skirt that includes an interlocking strip adapted to cooperate by interlocking with said second end of the lateral wall , and - a peel-off tab which is sealed, by a heat-seal material, to the circumference of the peripheral skirt of the metal lid and of the second end of the lateral wall of the metal can body , the peel-off tab including: - a first longitudinal section , an inner face of which is sealed with the metal lid / metal can body couple, - a second longitudinal section covering an upstream portion of said first longitudinal section , the inner face of said second longitudinal section being sealed with an outer face of said upstream portion of said first longitudinal section , said peel-off tab including an intermediate transverse portion , corresponding to the transition between said first longitudinal section and said second longitudinal section , in that said metal can includes sealing means that are arranged to close a transverse space (E1) formed between the inner face of said intermediate transverse portion and the metal lid / metal can body couple, characterized in that the sealing means are formed by at least one moulding arranged at least in the intermediate transverse portion , said at least one moulding consisting of a convex moulding on the side of the inner face of the peel-off tab . - a metal can body comprising a lateral wall , a first end of which is connected to a bottom and a second end of which delimits an access opening , - a metal lid suitable to close said access opening , said metal can including a peripheral skirt that includes an interlocking strip adapted to cooperate by interlocking with said second end of the lateral wall , and - a peel-off tab which is sealed, by a heat-seal material, to the circumference of the peripheral skirt of the metal lid and of the second end of the lateral wall of the metal can body , - a first longitudinal section , an inner face of which is sealed with the metal lid / metal can body couple, - a second longitudinal section covering an upstream portion of said first longitudinal section , the inner face of said second longitudinal section being sealed with an outer face of said upstream portion of said first longitudinal section , said peel-off tab including an intermediate transverse portion , corresponding to the transition between said first longitudinal section and said second longitudinal section , in that said metal can includes sealing means that are arranged to close a transverse space (E1) formed between the inner face of said intermediate transverse portion and the metal lid / metal can body couple, characterized in that the sealing means are formed by at least one moulding arranged at least in the intermediate transverse portion , said at least one moulding consisting of a convex moulding on the side of the inner face of the peel-off tab .
A flow-through card rail comprising: a base plate defining a first major face and a second major face opposite the first major face, the base plate having an end wall formed at a first end thereof; an elongated guide rail formed on the first major face and extending from the first end of the base plate toward a second end opposite the first end and terminating before the second end so as to define a marginal region thereon, wherein the elongated guide rail defines in part a card channel configured to receive a circuit card ; and a corrugated structure formed on the second major face including a plurality of elongated cells extending from the first end toward the second end of the base plate, wherein the flow-through card rail is configured to receive a cooling fluid at a fluid inlet formed through the end wall, direct the cooling fluid through cooling passages, and exhaust the cooling fluid at a fluid outlet, characterized in that the cooling passages each comprises a first cooling passage section that extends through the elongated guide rail from the fluid inlet and passes from the first major face through the second major face of the base plate at the marginal region of the base plate , and a second cooling passage section that extends through the elongated cell and terminates at the marginal region to define the fluid outlet in the flow-through card rail, wherein the cooling passages extend through the end wall to define the fluid inlet. a base plate defining a first major face and a second major face opposite the first major face, the base plate having an end wall formed at a first end thereof; an elongated guide rail formed on the first major face and extending from the first end of the base plate toward a second end opposite the first end and terminating before the second end so as to define a marginal region thereon, wherein the elongated guide rail defines in part a card channel configured to receive a circuit card ; and a corrugated structure formed on the second major face including a plurality of elongated cells extending from the first end toward the second end of the base plate, wherein the flow-through card rail is configured to receive a cooling fluid at a fluid inlet formed through the end wall, direct the cooling fluid through cooling passages, and exhaust the cooling fluid at a fluid outlet, characterized in that the cooling passages each comprises a first cooling passage section that extends through the elongated guide rail from the fluid inlet and passes from the first major face through the second major face of the base plate at the marginal region of the base plate , and a second cooling passage section that extends through the elongated cell and terminates at the marginal region to define the fluid outlet in the flow-through card rail, wherein the cooling passages extend through the end wall to define the fluid inlet.
An encoder for an audio signal at a signal sampling rate (fs_in), the encoder comprising - a core encoder adapted to encode a low frequency component of the audio signal at the signal sampling rate (fs_in), thereby generating a core encoded bitstream; - a spectral band replication, referred to as SBR, encoding unit adapted to determine a plurality of SBR parameters subject to one or more SBR encoder settings; wherein the plurality of SBR parameters is determined such that a high frequency component of the audio signal at the signal sampling rate (fs_in) can be approximated based on the low frequency component of the audio signal and the plurality of SBR parameters; and - a multiplexer adapted to generate an overall bitstream comprising the core encoded bitstream, the plurality of SBR parameters and an indication of the one or more SBR encoder settings applied by the SBR encoder ; characterized in that the generated overall bitstream indicates that the core encoded bitstream has been determined by encoding the low frequency component at a sampling rate lower than the signal sampling rate (fs_in). - a core encoder adapted to encode a low frequency component of the audio signal at the signal sampling rate (fs_in), thereby generating a core encoded bitstream; - a spectral band replication, referred to as SBR, encoding unit adapted to determine a plurality of SBR parameters subject to one or more SBR encoder settings; wherein the plurality of SBR parameters is determined such that a high frequency component of the audio signal at the signal sampling rate (fs_in) can be approximated based on the low frequency component of the audio signal and the plurality of SBR parameters; and - a multiplexer adapted to generate an overall bitstream comprising the core encoded bitstream, the plurality of SBR parameters and an indication of the one or more SBR encoder settings applied by the SBR encoder ;
A ground penetrating radar, GPR, and metal detector, MD, hybrid head comprising: an MD sensor including at least one receive coil in a quadrupole configuration including a crossbar , and at least one transmit coil , the crossbar having a first axis parallel to a direction in which current flows in the crossbar; and at least one GPR V-dipole antenna arranged in a plane perpendicular to the first axis of the crossbar so as to reduce coupling between the coils of the MD sensor and the antenna; wherein the transmit coil has an outer perimeter, the receive coil has an outer perimeter, and wherein at least a portion of the V-dipole antenna is within a cylinder formed by the projection of one of the outer perimeter of the receive coil or the transmit coil onto a plane perpendicular to a central axis of the V-dipole antenna.
A liquid pesticidal composition, comprising: (a) metyltetraprole; (b) a first solvent that is ε-caprolactone; (c) a second solvent having a water solubility at 25°C of 1 mass% or less; and (d) a surfactant, the content of the first solvent relative to the content of metyltetraprole being from 1.2 times by mass to 15 times by mass, the content of the second solvent relative to the content of metyltetraprole being from 6.5 times by mass to 25 times by mass. (a) metyltetraprole; (b) a first solvent that is ε-caprolactone; (c) a second solvent having a water solubility at 25°C of 1 mass% or less; and (d) a surfactant, the content of the first solvent relative to the content of metyltetraprole being from 1.2 times by mass to 15 times by mass, the content of the second solvent relative to the content of metyltetraprole being from 6.5 times by mass to 25 times by mass.
A method of obtaining resource configuration, comprising: receiving, by a terminal, a non-anchor carrier resource configuration broadcasted by a network device, wherein the non-anchor carrier resource configuration comprises an uplink non-anchor carrier frequency list, an uplink non-anchor carrier resource configuration parameter list, a downlink non-anchor carrier frequency list and a downlink non-anchor carrier resource configuration parameter list ; and determining, by the terminal, according to the non-anchor carrier resource configuration, resource information for performing random access , wherein the terminal monitors a physical downlink control channel, PDCCH, on an j-th non-anchor carrier when initiating the random access on an i-th non-anchor carrier, wherein i and j are integers greater than or equal to 1, and wherein j is a function of a maximum number of downlink non-anchor carriers, a maximum number of uplink non-anchor carriers, and a value of i. receiving, by a terminal, a non-anchor carrier resource configuration broadcasted by a network device, wherein the non-anchor carrier resource configuration comprises an uplink non-anchor carrier frequency list, an uplink non-anchor carrier resource configuration parameter list, a downlink non-anchor carrier frequency list and a downlink non-anchor carrier resource configuration parameter list ; and determining, by the terminal, according to the non-anchor carrier resource configuration, resource information for performing random access , wherein the terminal monitors a physical downlink control channel, PDCCH, on an j-th non-anchor carrier when initiating the random access on an i-th non-anchor carrier, wherein i and j are integers greater than or equal to 1, and wherein j is a function of a maximum number of downlink non-anchor carriers, a maximum number of uplink non-anchor carriers, and a value of i. wherein i and j are integers greater than or equal to 1, and wherein j is a function of a maximum number of downlink non-anchor carriers, a maximum number of uplink non-anchor carriers, and a value of i.
A hydraulic machine, whose shaft is arranged upright, i.e. with its axis being arranged in the direction of gravity, wherein the shaft is supported in a case by means of a shaft bearing , the hydraulic machine furthermore comprising a shaft seal arrangement comprising a seal ring which includes a sealing lip to be directly or indirectly brought into sealing contact with the shaft and which is supported by a seal retainer flange , the shaft seal arrangement furthermore comprising a drain channel for draining leak oil and a retention ring which is arranged within an oil flow path toward the drain channel upstream or in the area of the seal ring and via which oil is passed toward the seal ring wherein the retention ring includes a retention rib extending in the direction of the seal ring and accumulating the oil up to the area of the sealing lip .
A feeder device for feeding a powder material in a uniform flow, comprising a barrel inside which is provided a feeding channel with a downstream end , characterized in the feeding channel of the barrel housing a conveying element in the form of two rotatable screw elements for conveying the powder material to the downstream end of the barrel , the rotatable screw elements each having an axis of rotation , and two rotatable exit elements at the downstream end , said rotatable exit elements each comprising an annular portion defining exit openings defined by powder engaging edges , the rotatable exit elements being positioned transversally outside the feeding channel and being positioned in proximity to and directly outside the feeding channel of the barrel , wherein the barrel is provided by a generally tubular element, and wherein the feeding channel of the barrel comprises two merged portions each having a circular outline, wherein the two merged portions of the feeding channel has a first diameter (d) and each of the rotatable exit elements have a second diameter (D) which is equal to or larger than the first diameter (d), and wherein the two rotatable exit elements have overlapping portions, a play being present between the overlapping portions of the two rotatable exit elements .
A front feed reflector antenna, comprising: a dish reflector with a reflector focal length to reflector diameter ratio of less than 0.25; a wave guide coupled to a proximal end of the dish reflector , projecting into the dish reflector along a longitudinal axis; a dielectric block coupled to a distal end of the waveguide ; a sub-reflector coupled to a distal end of the dielectric block ; wherein the dielectric block is a unitary dielectric block provided with a waveguide transition portion , a dielectric radiator portion and a subreflector support portion ; the dielectric block coupled to the waveguide at the waveguide transition portion ; the dielectric radiator portion situated between the waveguide transition portion and the sub-reflector support portion ; an outer diameter of the dielectric radiator portion provided with a plurality of radial inward grooves ; a minimum diameter of the dielectric radiator portion greater than 3/5 of the sub-reflector's diameter; characterized by a generally cylindrical shield coupled to the periphery of the dish reflector ; a diameter of the sub-reflector dimensioned to be 2.5 wavelengths or more of a desired operating frequency. a dish reflector with a reflector focal length to reflector diameter ratio of less than 0.25; a wave guide coupled to a proximal end of the dish reflector , projecting into the dish reflector along a longitudinal axis; a dielectric block coupled to a distal end of the waveguide ; a sub-reflector coupled to a distal end of the dielectric block ; wherein the dielectric block is a unitary dielectric block provided with a waveguide transition portion , a dielectric radiator portion and a subreflector support portion ; the dielectric block coupled to the waveguide at the waveguide transition portion ; the dielectric radiator portion situated between the waveguide transition portion and the sub-reflector support portion ; an outer diameter of the dielectric radiator portion provided with a plurality of radial inward grooves ; a minimum diameter of the dielectric radiator portion greater than 3/5 of the sub-reflector's diameter; characterized by a generally cylindrical shield coupled to the periphery of the dish reflector ; a diameter of the sub-reflector dimensioned to be 2.5 wavelengths or more of a desired operating frequency.
A breastshield unit of a breast pump for expressing human breastmilk, wherein the breastshield unit comprises a breastshield for placing onto a human breast, a milk collection container for receiving expressed breastmilk, a breastshield adapter for connecting the breastshield to the milk collection container, and at least one sensor for detecting the breastmilk, wherein a milk channel extends from the breastshield through the breastshield adapter into the milk collection container, wherein the milk channel defines a direction of flow of the breastmilk, wherein a siphon is arranged in the milk channel, wherein the at least one sensor for detecting the breastmilk is arranged downstream from the siphon in the direction of flow of the breastmilk.
A method of correcting erroneous intensity measurements caused by defective pixels of the detector of a single-crystal X-ray diffraction system during the collection of diffraction images from a plurality of different scan angles for a crystal mounted in the system, the method comprising the steps of: a) predicting reflection positions on the detector from the diffraction images using an orientation matrix established for the crystal; b) constructing a three-dimensional observed profile for each reflection, said observed profile being indicative of pixel intensity relative to scan angle for detector pixels falling within a predicted reflection position as determined in step (a); c) constructing a model profile as an average of the normalized profile data from a plurality of observed profiles; d) providing a defective pixel list for the system indicative of the location of defective pixels in the detector; and e) for each reflection under examination, comparing the defective pixel list with the observed profile for that reflection to determine components of that observed profile that are affected by a defective pixel, and replacing said components with corresponding components from the model profile. a) predicting reflection positions on the detector from the diffraction images using an orientation matrix established for the crystal; b) constructing a three-dimensional observed profile for each reflection, said observed profile being indicative of pixel intensity relative to scan angle for detector pixels falling within a predicted reflection position as determined in step (a); c) constructing a model profile as an average of the normalized profile data from a plurality of observed profiles; d) providing a defective pixel list for the system indicative of the location of defective pixels in the detector; and e) for each reflection under examination, comparing the defective pixel list with the observed profile for that reflection to determine components of that observed profile that are affected by a defective pixel, and replacing said components with corresponding components from the model profile.