mhurhangee/patent-ind-claim-en huggingface dataset:
A theft tracking system for tracking at least one stolen fusion splicer of a plurality of fusion splicers each of which is wirelessly accessible through a wireless communication function installed therein that includes an access point, the theft tracking system comprising: a plurality of communication terminals , each including an update processing unit to transmit update information of operation software of the respective fusion splicers to each of the fusion splicers; a registration reception unit to receive registration of identification information of the stolen fusion splicer ; a communication unit to transmit an identifier of a wireless access point allocated to the stolen fusion splicer in advance to the plurality of information communication terminals as a stolen article identifier based on the identification information received by the registration reception unit ; acquisition units to each acquire identifiers of wireless access points around the respective information communication terminals in a predetermined cycle for each of the plurality of information communication terminals; a determining unit to determine whether or not there is any identifier matching the stolen article identifier in the identifiers of the wireless access points acquired by the acquisition units , and to transmit positional information of the information communication terminal together with the stolen article identifier when it is determined that there is an identifier matching the stolen article identifier; and a notification unit to issue a notification of the transmitted positional information as the positional information of the stolen fusion splicer . a plurality of communication terminals , each including an update processing unit to transmit update information of operation software of the respective fusion splicers to each of the fusion splicers; a registration reception unit to receive registration of identification information of the stolen fusion splicer ; a communication unit to transmit an identifier of a wireless access point allocated to the stolen fusion splicer in advance to the plurality of information communication terminals as a stolen article identifier based on the identification information received by the registration reception unit ; acquisition units to each acquire identifiers of wireless access points around the respective information communication terminals in a predetermined cycle for each of the plurality of information communication terminals; a determining unit to determine whether or not there is any identifier matching the stolen article identifier in the identifiers of the wireless access points acquired by the acquisition units , and to transmit positional information of the information communication terminal together with the stolen article identifier when it is determined that there is an identifier matching the stolen article identifier; and a notification unit to issue a notification of the transmitted positional information as the positional information of the stolen fusion splicer .
An oil separator, comprising: a casing , having a gas inlet and a gas outlet ; and a first separation structure , provided inside the casing and located between the gas inlet and the gas outlet ; wherein, the first separation structure comprises a first baffle plate and a refrigerant pipeline ; characterized in that the first baffle plate has a cooling chamber therein; and the refrigerant pipe is connected to the first baffle plate and in communication with the cooling chamber . a casing , having a gas inlet and a gas outlet ; and a first separation structure , provided inside the casing and located between the gas inlet and the gas outlet ; wherein, the first separation structure comprises a first baffle plate and a refrigerant pipeline ; characterized in that the first baffle plate has a cooling chamber therein; and the refrigerant pipe is connected to the first baffle plate and in communication with the cooling chamber .
A cardan joint spider comprising a body having four right-angled brackets , each bracket presenting two mutually perpendicular arms , the arm of one bracket being assembled to the arm of an adjacent bracket so as to form a cross-shaped spider having four branches , the body including at least four stiffeners , a stiffener being mounted between the two arms of each bracket .
An uplock for selectively retaining a capture pin of a movable element , the uplock comprising: a hook which is movable between a release position and a position for retaining a capture pin of the movable element; a locking member interacting with the hook and movable between a locked position in which it immobilizes the hook in the retaining position and an unlocked position in which the hook is free to be displaced under the force of the capture pin of the movable element; detection means adapted to detect a situation in which the hook is in the retaining position and whether the capture pin is present in the hook, wherein the detection means comprise a first sensor which cooperates with the hook or the locking member in order to detect whether the hook is in the retaining position, characterized in that the detection means further comprise a second sensor which is disposed to cooperate with a portion of the movable element (31; 42) which is distinct from the capture pin in order to detect the presence of the movable element in the immediate proximity of the uplock in the position occupied by the movable element when the capture pin is present in the hook. a hook which is movable between a release position and a position for retaining a capture pin of the movable element; a locking member interacting with the hook and movable between a locked position in which it immobilizes the hook in the retaining position and an unlocked position in which the hook is free to be displaced under the force of the capture pin of the movable element; detection means adapted to detect a situation in which the hook is in the retaining position and whether the capture pin is present in the hook,
A calibration device for calibrating a gas filling apparatus comprising: a filling vessel , accommodated in a measurement housing , to said filling vessel a high pressure fuel gas being fed from outside of the measurement housing by the gas filling apparatus ; and a scale for measuring a weight of a fuel gas fed to the filling vessel , wherein a dry gas pipe for feeding a dry gas in the measurement housing is detachably mounted to the measurement housing . a filling vessel , accommodated in a measurement housing , to said filling vessel a high pressure fuel gas being fed from outside of the measurement housing by the gas filling apparatus ; and a scale for measuring a weight of a fuel gas fed to the filling vessel , wherein a dry gas pipe for feeding a dry gas in the measurement housing is detachably mounted to the measurement housing .
A method for wireless communications, comprising: identifying one of two CQI tables , wherein the two CQI tables are a first CQI table that supports 256 Quadrature Amplitude Modulation, 256QAM and a second CQI table that only supports QPSK, 16QAM and 64QAM schemes; and generating a CQI value for a wireless channel using the identified CQI table, wherein the same number of bits is used to represent the CQI value regardless of which CQI table is identified. identifying one of two CQI tables , wherein the two CQI tables are a first CQI table that supports 256 Quadrature Amplitude Modulation, 256QAM and a second CQI table that only supports QPSK, 16QAM and 64QAM schemes; and generating a CQI value for a wireless channel using the identified CQI table, wherein the same number of bits is used to represent the CQI value regardless of which CQI table is identified.
A polyester carbonate resin having a constituent unit (I) represented by the following general formula , a constituent unit (II) represented by the following general formula , and a constituent unit (III) represented by the following general formula : wherein, in the above formula , R 1 to R 3 each independently represent a hydrogen atom, a methyl group or an ethyl group, and in the above formula , Q represents a divalent linking group.
A photoconductive switch for generating or detecting linearly-polarized terahertz radiation (TR) comprising: - a photoconductive substrate (SUB); and - a plurality of electrodes on a surface (SS) of the photoconductive substrate; characterized in that said plurality of electrodes comprises - a first pair of structured electrodes (E 10 , E GR ) separated by a first gap comprising at least a plurality of first rectilinear sections (G V ) extending along a first direction (x); and - a second pair of structured electrodes (E 20 , E GR ) separated by a second gap comprising at least a plurality of second rectilinear sections (G H ) extending along a second direction (y), different from the first direction; and in that it further comprises a patterned opaque layer (PML), opaque to at least one of terahertz radiation and visible or infrared radiation suitable to induce an increase of the substrate conductivity, selectively masking portions of the first and second gaps between the electrodes, in such a way that only remain unmasked: - first rectilinear sections of the first gap such that, upon application of a first voltage between the electrodes of the first pair and illumination by said visible or infrared radiation, a first electric current flows with a same direction and orientation across all said first rectilinear sections; and - second rectilinear sections of the second gap such that, upon application of a second voltage between the electrodes of the second pair and illumination by said visible or infrared radiation, a second electric current flows with a same direction and orientation across all said second rectilinear sections. - a photoconductive substrate (SUB); and - a plurality of electrodes on a surface (SS) of the photoconductive substrate; - a first pair of structured electrodes (E 10 , E GR ) separated by a first gap comprising at least a plurality of first rectilinear sections (G V ) extending along a first direction (x); and - a second pair of structured electrodes (E 20 , E GR ) separated by a second gap comprising at least a plurality of second rectilinear sections (G H ) extending along a second direction (y), different from the first direction; and - first rectilinear sections of the first gap such that, upon application of a first voltage between the electrodes of the first pair and illumination by said visible or infrared radiation, a first electric current flows with a same direction and orientation across all said first rectilinear sections; and - second rectilinear sections of the second gap such that, upon application of a second voltage between the electrodes of the second pair and illumination by said visible or infrared radiation, a second electric current flows with a same direction and orientation across all said second rectilinear sections.
A method of genotyping a plurality of nucleic acid samples, comprising measuring the fluorescence of each nucleic acid sample as a function of temperature to produce a respective raw melting curve for each respective nucleic acid sample, each respective nucleic acid sample comprising a respective nucleic acid and a molecule that binds the respective nucleic acid to form a respective fluorescently detectable complex, and clustering genotypes of the plurality of nucleic acid samples to form a plurality of clusters of melting curves, characterized in that the clustering is hierarchically achieved upon assigning a minimum distance between each pair of melting curves in distinct clusters, wherein the number of clusters is determined automatically by selecting a largest ratio of distances between adjacent clusters.
An apparatus, comprising: a processor ; an accelerometer sensor configured to output data in response to a motion of a first user ; and a non-transitory computer-readable medium comprising computer-executable instructions, that when executed by the processor , are configured to cause the apparatus at least to: receive sensor data from the accelerometer sensor; calculate an energy expenditure of the first user from the received data; identify an activity session of the first user , from a plurality of activity session types by identifying a second user, wherein the second user is identified based upon a detected force of contact between the accelerometer sensor and a device of the second user; calculate a total energy expenditure for the first user during the identified activity session; and communicate a haptic message to the first user indicating a closeness of the total energy expenditure to a goal energy expenditure. a processor ; an accelerometer sensor configured to output data in response to a motion of a first user ; and a non-transitory computer-readable medium comprising computer-executable instructions, that when executed by the processor , are configured to cause the apparatus at least to: receive sensor data from the accelerometer sensor; calculate an energy expenditure of the first user from the received data; identify an activity session of the first user , from a plurality of activity session types by identifying a second user, wherein the second user is identified based upon a detected force of contact between the accelerometer sensor and a device of the second user; calculate a total energy expenditure for the first user during the identified activity session; and communicate a haptic message to the first user indicating a closeness of the total energy expenditure to a goal energy expenditure. receive sensor data from the accelerometer sensor; calculate an energy expenditure of the first user from the received data; identify an activity session of the first user , from a plurality of activity session types by identifying a second user, wherein the second user is identified based upon a detected force of contact between the accelerometer sensor and a device of the second user; calculate a total energy expenditure for the first user during the identified activity session; and communicate a haptic message to the first user indicating a closeness of the total energy expenditure to a goal energy expenditure.
A sanitizing luer cap configured to attach to a medical connector with a male luer end surrounded by a shroud, the sanitizing luer cap comprising: a housing having a skirt and a protrusion ; and a liquid-dispensing material ; wherein the skirt is configured to extend across an outer surface of the shroud of the medical connector; wherein the protrusion has an opening configured to receive the male luer end of the medical connector, and characterized in that the liquid-dispensing material is coupled to an outer surface of the protrusion and is configured to wipe and sanitize the male luer end when the sanitizing luer cap is attached to the medical connector. a housing having a skirt and a protrusion ; and a liquid-dispensing material ; wherein the skirt is configured to extend across an outer surface of the shroud of the medical connector; wherein the protrusion has an opening configured to receive the male luer end of the medical connector, and characterized in that the liquid-dispensing material is coupled to an outer surface of the protrusion and is configured to wipe and sanitize the male luer end when the sanitizing luer cap is attached to the medical connector.
A 3D printing machine for fabricating a composite part, said machine comprising: a robot including a base portion , a robot arm and an end joint secured to the arm opposite to the base portion ; at least one source of an extrudable material; and an end-effector mounted to the end joint, said end-effector including at least one extruder module for extruding the extrudable material and a rotary assembly , said at least one extruder module including a nozzle assembly for extruding heated material out of the end-effector , said at least one extruder module being mounted to the rotary assembly and said rotary assembly being rotatable so as to rotate the nozzle assembly relative to the part without rotating the end-effector , wherein the end joint includes a rotatable connector , wherein the end-effector is rotatable relative to the part by the rotatable connector so that the nozzle assembly can be oriented normal to the part in different orientations without significantly changing a pose of the robot , and wherein the end-effector has an outer housing with an angled corner wall , said rotatable connector being secured to a corner of the angled corner wall . a robot including a base portion , a robot arm and an end joint secured to the arm opposite to the base portion ; at least one source of an extrudable material; and an end-effector mounted to the end joint, said end-effector including at least one extruder module for extruding the extrudable material and a rotary assembly , said at least one extruder module including a nozzle assembly for extruding heated material out of the end-effector , said at least one extruder module being mounted to the rotary assembly and said rotary assembly being rotatable so as to rotate the nozzle assembly relative to the part without rotating the end-effector , wherein the end joint includes a rotatable connector , wherein the end-effector is rotatable relative to the part by the rotatable connector so that the nozzle assembly can be oriented normal to the part in different orientations without significantly changing a pose of the robot , and wherein the end-effector has an outer housing with an angled corner wall , said rotatable connector being secured to a corner of the angled corner wall .
A surgical system comprising: a body extending along a longitudinal axis (L); a first member comprising a portion rotatably positioned within the body and further comprising a first threaded surface ; a second member positioned within the body and comprising a second threaded surface that engages the first threaded surface , the second member being non-rotatable relative to the body ; a third member comprising a distal end positioned within the first member ; a fourth member comprising a proximal end rotatably positioned within the body ; an adapter coupled to the fourth member such that a proximal end of the adapter is fixed relative to the fourth member ; and an inflatable bone tamp comprising: an outer shaft being fixed to a distal end of a connector that is coupled to the adapter , a balloon coupled to the outer shaft , and an inner shaft coupled to the third member and the balloon , wherein the first member is rotatable relative to the body to translate the second member along the longitudinal axis (L), thereby causing the third member to translate into the same direction to move the balloon from a first length to a second length. a body extending along a longitudinal axis (L); a first member comprising a portion rotatably positioned within the body and further comprising a first threaded surface ; a second member positioned within the body and comprising a second threaded surface that engages the first threaded surface , the second member being non-rotatable relative to the body ; a third member comprising a distal end positioned within the first member ; a fourth member comprising a proximal end rotatably positioned within the body ; an adapter coupled to the fourth member such that a proximal end of the adapter is fixed relative to the fourth member ; and an inflatable bone tamp comprising: an outer shaft being fixed to a distal end of a connector that is coupled to the adapter , a balloon coupled to the outer shaft , and an inner shaft coupled to the third member and the balloon , an outer shaft being fixed to a distal end of a connector that is coupled to the adapter , a balloon coupled to the outer shaft , and an inner shaft coupled to the third member and the balloon , wherein the first member is rotatable relative to the body to translate the second member along the longitudinal axis (L), thereby causing the third member to translate into the same direction to move the balloon from a first length to a second length.
A low alloy oil-well steel pipe characterized by comprising a chemical composition consisting of: in mass%, C: 0.25 to 0.35%; Si: 0.05 to 0.50%; Mn: 0.10 to 1.50%; Cr: 0.40 to 1.50%; Mo: 0.40 to 2.00%; V: 0.05 to 0.25%; Nb: 0.010 to 0.040%; Ti: 0.002 to 0.050%; sol.Al: 0.005 to 0.10%; N: 0.007% or less; B: 0.0001 to 0.0035%; Ca: 0 to 0.005%; and a balance being Fe and impurities, the impurities including: P: 0.020% or less; S: 0.010% or less; O: 0.006% or less; Ni: 0.10% or less; and Cu: 0.10% or less, wherein in a microstructure of the low alloy oil-well steel pipe, a number of cementite particles each of which has an equivalent circle diameter of 200 nm or more is 100 to 250 particles/100 μm 2 , and a yield strength is 793 MPa or more. in mass%, C: 0.25 to 0.35%; Si: 0.05 to 0.50%; Mn: 0.10 to 1.50%; Cr: 0.40 to 1.50%; Mo: 0.40 to 2.00%; V: 0.05 to 0.25%; Nb: 0.010 to 0.040%; Ti: 0.002 to 0.050%; sol.Al: 0.005 to 0.10%; N: 0.007% or less; B: 0.0001 to 0.0035%; Ca: 0 to 0.005%; and a balance being Fe and impurities, the impurities including: P: 0.020% or less; S: 0.010% or less; O: 0.006% or less; Ni: 0.10% or less; and Cu: 0.10% or less, P: 0.020% or less; S: 0.010% or less; O: 0.006% or less; Ni: 0.10% or less; and Cu: 0.10% or less, wherein in a microstructure of the low alloy oil-well steel pipe, a number of cementite particles each of which has an equivalent circle diameter of 200 nm or more is 100 to 250 particles/100 μm 2 , and a yield strength is 793 MPa or more.
Filter module for binding particles of a substance mixture in at least one medium with a cylindrical housing , in which are inserted: a cylindrical, preferably hollow cylindrical, open-pored medium which is designed to hold a substance mixture, in particular a sponge medium, an open-pored foam and/or a filter medium for a substance mixture, at least one deformation unit , the open-pored medium being geometrically deformable by the deformation unit , preferably at least along the cylinder axis of the housing and/or in the radial direction, and at least one inlet and one outlet for a substance mixture, characterized in that exactly one outlet for the substance mixture is introduced into the cylindrical housing . a cylindrical, preferably hollow cylindrical, open-pored medium which is designed to hold a substance mixture, in particular a sponge medium, an open-pored foam and/or a filter medium for a substance mixture, at least one deformation unit , the open-pored medium being geometrically deformable by the deformation unit , preferably at least along the cylinder axis of the housing and/or in the radial direction, and at least one inlet and one outlet for a substance mixture, characterized in that exactly one outlet for the substance mixture is introduced into the cylindrical housing .
Method for the recovery and regeneration of metal powders in EBM (Electron Beam Melting) applications, comprising a step for recovery of weakly sintered powders inside a cleaning chamber including at least one compressed-air nozzle for supplying powder for sandblasting three-dimensional objects obtained by means of EBM sintering of said metal powders, wherein a path for recovery and regeneration of said powders is included, said path comprising at least a first buffer tank inside which the regenerated powders are deposited, and wherein metal powders (ELI, ELI*) with a predetermined oxygen content of less than 0.12% by weight are supplied at an access point along said recovery and regeneration path , and wherein a second buffer tank is connected downstream of and supplied by the first buffer tank for topping up one or more hoppers or tanks of a corresponding EBM sintering apparatus, and wherein the regenerated powders of said second buffer tank undergo certification of the percentage oxygen content.