mhurhangee/ep-ind-claims huggingface dataset:
A device for protecting a person from an electrical signal, comprising: a sensor device wearable by the person to be protected, comprising at least one sensor configured for determining a magnitude representative of an electrical signal of an electrically activatable object acting on the person, a switching device configured for assuming at least a first operating state and a second operating state, the first operating state enabling transmission of the electrical signal of the electrically activatable object to the person to be protected, and the second operating state not enabling transmission of the electrical signal of the electrically activatable object to the person to be protected, and a control device controlling the switching device based on an output signal of the at least one sensor, so that the switching device selectively assumes the first operating state or the second operating state depending on the output signal of the at least one sensor, characterized in that the at least one sensor is a biometric sensor for determining a biometric magnitude of the person to be protected depending on the electrical signal acting on the person. a sensor device wearable by the person to be protected, comprising at least one sensor configured for determining a magnitude representative of an electrical signal of an electrically activatable object acting on the person, a switching device configured for assuming at least a first operating state and a second operating state, the first operating state enabling transmission of the electrical signal of the electrically activatable object to the person to be protected, and the second operating state not enabling transmission of the electrical signal of the electrically activatable object to the person to be protected, and a control device controlling the switching device based on an output signal of the at least one sensor, so that the switching device selectively assumes the first operating state or the second operating state depending on the output signal of the at least one sensor,
A locking device for a semi-fixed door or window leaf mounted pivoting on a frame and cooperating, in the closed position of said door or window, with a movable leaf covering it, including a control rod provided, over its length, with at least one locking member able to cooperate with a complementary locking member, in the form of a roller and a strike, this control rod being mounted sliding on a fastening support, between an unlocked position and at least one locking position, said control rod further including an end forming a maneuvering member to push it into the locked position in which the locking member(s) are each able to cooperate with a complementary locking member, characterized in that it includes first resilient return means tending to push the control rod back toward its unlocked position and second resilient return means pushing this control rod into a blocking position, between the unlocked position and the locked position.
A phase-to-phase voltage sensor module comprising; a spacer to hold two conductors (309A,309B) at a predetermined spacing; and at least one voltage sensor disposed on the spacer so as to be located between the conductors (309A,309B); wherein the at least one voltage sensor comprises a fibre Bragg grating in contact with a piezoelectric element which expands and contracts, whereby the fibre Bragg grating is made to expand and contract thus altering the pitch of the grating and hence the Bragg wavelength, responsive to the phase-to-phase voltage between the conductors (309A,309B). a spacer to hold two conductors (309A,309B) at a predetermined spacing; and at least one voltage sensor disposed on the spacer so as to be located between the conductors (309A,309B); wherein the at least one voltage sensor comprises a fibre Bragg grating in contact with a piezoelectric element which expands and contracts, whereby the fibre Bragg grating is made to expand and contract thus altering the pitch of the grating and hence the Bragg wavelength, responsive to the phase-to-phase voltage between the conductors (309A,309B).
A communication method performed by a terminal device configured to operate in a 3GPP system, the method comprising: • determining a first bandwidth part, BP, and a second BP, wherein the first BP and the second BP correspond to a same numerology, wherein the numerology refers to at least one of a subcarrier spacing and a cyclic prefix, CP (S 202); • receiving first information from a network device, wherein the first information is used to indicate a time-frequency location of first control information on only one of the first BP or the second BP; • monitoring the indicated time-frequency location on only one of the first BP or the second BP and receiving the first control information from the network device on the indicated time-frequency location, the first control information scheduling the first BP and the second BP for receiving a first transport block, TB; and • after receiving the first information and the first control information, receiving the first TB from the network device, the first TB is mapped onto the first BP and the second BP (S 204), wherein a physical resource block, PRB, index of the first BP and a PRB index of the second BP are consecutively numbered in a frequency domain resource occupied by the first BP and the second BP. • determining a first bandwidth part, BP, and a second BP, wherein the first BP and the second BP correspond to a same numerology, wherein the numerology refers to at least one of a subcarrier spacing and a cyclic prefix, CP (S 202); • receiving first information from a network device, wherein the first information is used to indicate a time-frequency location of first control information on only one of the first BP or the second BP; • monitoring the indicated time-frequency location on only one of the first BP or the second BP and receiving the first control information from the network device on the indicated time-frequency location, the first control information scheduling the first BP and the second BP for receiving a first transport block, TB; and • after receiving the first information and the first control information, receiving the first TB from the network device, the first TB is mapped onto the first BP and the second BP (S 204), wherein a physical resource block, PRB, index of the first BP and a PRB index of the second BP are consecutively numbered in a frequency domain resource occupied by the first BP and the second BP.
A compound of general formula, R1-Y-C -Z-R2 wherein Y and Z are O; and wherein R1 is a branched or unbranched alkyl group substituted by at least one fluorine atom; and wherein R2 is a branched or unbranched alkyl group substituted by at least one nitrile group or R2 is a branched or unbranched alkynyl group.. wherein Y and Z are O; and wherein R1 is a branched or unbranched alkyl group substituted by at least one fluorine atom; and wherein R2 is a branched or unbranched alkyl group substituted by at least one nitrile group or R2 is a branched or unbranched alkynyl group..
A method for forming a gas turbine engine airfoil assembly comprising: providing at least two gas turbine engine airfoil composite preform components comprising an airfoil and an endwall, interlocking the airfoil and the endwall with a first locking component, interlocking the first locking component and the endwall with a second locking component, wherein interlocking the second locking component comprises inserting the second locking component into a through hole in the first locking component and a through hole in the endwall. providing at least two gas turbine engine airfoil composite preform components comprising an airfoil and an endwall, interlocking the airfoil and the endwall with a first locking component, interlocking the first locking component and the endwall with a second locking component, wherein interlocking the second locking component comprises inserting the second locking component into a through hole in the first locking component and a through hole in the endwall.
An apparatus for estimating a state of charge, namely SOC, in a battery, the apparatus comprising: a detector unit including a current detector for detecting current from a battery cell, a voltage detector for detecting voltage from the battery cell and a temperature detector for detecting temperature from a battery cell; a soft computing unit for calculating and outputting a battery SOC estimation value of processing the current, the voltage and the temperature detected by the detector unit using a computing algorithm, which is a fuzzy algorithm implemented as a neural network; and a comparator comparing the battery SOC estimation value with a predetermined target value that varies with charging or discharging of the battery, the predetermined target value being a value of complementing an amp-hour (Ah) counting value and an open circuit voltage value both input from a charger-discharger, to rated capacity of the battery, the comparator further providing an algorithm update signal to the soft computing unit to update the computing algorithm based on a learning algorithm when a difference between the battery SOC estimation value and the predetermined target value is outside of a critical range. a detector unit including a current detector for detecting current from a battery cell, a voltage detector for detecting voltage from the battery cell and a temperature detector for detecting temperature from a battery cell; a soft computing unit for calculating and outputting a battery SOC estimation value of processing the current, the voltage and the temperature detected by the detector unit using a computing algorithm, which is a fuzzy algorithm implemented as a neural network; and a comparator comparing the battery SOC estimation value with a predetermined target value that varies with charging or discharging of the battery, the predetermined target value being a value of complementing an amp-hour (Ah) counting value and an open circuit voltage value both input from a charger-discharger, to rated capacity of the battery, the comparator further providing an algorithm update signal to the soft computing unit to update the computing algorithm based on a learning algorithm when a difference between the battery SOC estimation value and the predetermined target value is outside of a critical range.
A multilayered heat-recoverable article comprising a base material layer and an adhesive layer disposed on an inner side of the base material layer, wherein the adhesive layer includes a thermoplastic resin having a melt flow rate of 15 g/10 min to 1,000 g/10 min at 190°C and a load of 2.16 kg in accordance with JIS K7210 measured using an extrusion plastometer stipulated in JIS K6760 and a deterioration inhibitor, characterised in that: the adhesive layer further includes an organically treated layered silicate; the shear viscosity at 150°C of the adhesive layer is 300 Pa·s or more at a shear rate of 0.1 s -1 and 200 Pa·s or less at a shear rate of 100 s -1; and the deterioration inhibitor is at least one selected from the group consisting of activated clay and hydrotalcite. the adhesive layer further includes an organically treated layered silicate; the shear viscosity at 150°C of the adhesive layer is 300 Pa·s or more at a shear rate of 0.1 s -1 and 200 Pa·s or less at a shear rate of 100 s -1; and the deterioration inhibitor is at least one selected from the group consisting of activated clay and hydrotalcite.
A method of forming a wallboard material, comprising: forming a mixture including: from about 25 wt% to about 60 wt% of microparticles based on wet formulation, from about 20 wt% to about 36 wt% dry sodium silicate, disposing the mixture between a first facing membrane and a second facing membrane; and heat curing the mixture in a single step sufficient to form a wallboard material having the first facing membrane and the second facing membrane attached to a core matrix, said heat curing being completed in a time less than about 1.5 hours without causing damage to the wallboard material; and characterised in that the mixture further includes from about 2 wt% to about 6 wt% of a dry vinyl acetate; and wherein the first facing membrane is a metallic facing membrane. forming a mixture including: from about 25 wt% to about 60 wt% of microparticles based on wet formulation, from about 20 wt% to about 36 wt% dry sodium silicate, from about 25 wt% to about 60 wt% of microparticles based on wet formulation, from about 20 wt% to about 36 wt% dry sodium silicate, disposing the mixture between a first facing membrane and a second facing membrane; and heat curing the mixture in a single step sufficient to form a wallboard material having the first facing membrane and the second facing membrane attached to a core matrix, said heat curing being completed in a time less than about 1.5 hours without causing damage to the wallboard material; and characterised in that the mixture further includes from about 2 wt% to about 6 wt% of a dry vinyl acetate; and wherein the first facing membrane is a metallic facing membrane. characterised in that the mixture further includes from about 2 wt% to about 6 wt% of a dry vinyl acetate; and wherein the first facing membrane is a metallic facing membrane.
Vibration absorber comprising a basis to be coupled to a structure whose vibrations are to be absorbed in a direction of a spatially fixed absorber activity axis, a plurality of absorber masses oscillatingly mounted in the direction of the absorber activity axis, and a motor for adjusting an absorber eigenfrequency in the direction of the absorber activity axis, wherein the absorber masses are oscillatingly mounted to a hub, which is mounted to the basis rotatingly about the absorber activity axis but spatially fixed in the direction of the absorber activity axis, wherein the motor rotates the hub with regard to the basis about the absorber activity axis at different numbers of revolutions to adjust different absorber eigenfrequencies in the direction of the absorber activity axis, and wherein a sensor monitors an amplitude of the oscillating motion of the absorber masses in the direction of the absorber activity axis, characterised in that a controller for the motor continuously adjusts the number of revolutions of the hub depending on the amplitude of the oscillating motion of the absorber masses.
A method for printing a three-dimensional crystalline structure, comprising: placing the second material onto a substrate having an internal heat source; and heating the substrate with the internal heat source to heat the second material; and optionally using this heating to temper the second material to achieve the desired second crystal structure; then printing a liquid first layer of material with a printer onto the second layer of material having a crystal structure; and processing the printed liquid first layer to solidify the first layer wherein, during the processing of the printed liquid first layer, the second layer functions as a crystal seed layer through physical contact with the printed liquid first layer and the first layer crystallizes with the crystal structure; and cooling the printed molten first layer during the processing of the printed liquid layer; wherein the first material is chocolate; and the first material is edible; and the first material liquid is molten; and the first material has a crystal structure different to the second material. placing the second material onto a substrate having an internal heat source; and heating the substrate with the internal heat source to heat the second material; and optionally using this heating to temper the second material to achieve the desired second crystal structure; then printing a liquid first layer of material with a printer onto the second layer of material having a crystal structure; and processing the printed liquid first layer to solidify the first layer wherein, during the processing of the printed liquid first layer, the second layer functions as a crystal seed layer through physical contact with the printed liquid first layer and the first layer crystallizes with the crystal structure; and cooling the printed molten first layer during the processing of the printed liquid layer; wherein the first material is chocolate; and the first material is edible; and the first material liquid is molten; and the first material has a crystal structure different to the second material.
A heat resistance element type flow rate measurement apparatus comprising: a sub-passage constituting member defining a sub-passage having inlets port and an outlet port, and a curved part therebetween; a resistance element provided in said sub-passage and heating by applying current; and a first passage provided in said curved part of said sub-passage or upstream thereof for communicating between said sub-passage and a main passage, in which said resistance element is provided downstream of said curved part in said sub-passage, and said inlet port of said sub-passage is provided at a position inside of said main passage, wherein a second passage for communicating between said sub-passage and said main passage is provided between said outlet port of said sub-passage and said resistance element, characterized in that said second passage is opened to an inside of a recess part provided on a surface of said sub-passage constituting member on said main passage side along a flow direction in said main passage, and wherein said second passage connects between an inside portion of said sub-passage on a side closer to said outlet port than said resistance element and said main passage, and has one end opened in the vicinity of said resistance element in said sub-passage. a sub-passage constituting member defining a sub-passage having inlets port and an outlet port, and a curved part therebetween; a resistance element provided in said sub-passage and heating by applying current; and a first passage provided in said curved part of said sub-passage or upstream thereof for communicating between said sub-passage and a main passage, in which said resistance element is provided downstream of said curved part in said sub-passage, and said inlet port of said sub-passage is provided at a position inside of said main passage, wherein a second passage for communicating between said sub-passage and said main passage is provided between said outlet port of said sub-passage and said resistance element, characterized in that said second passage is opened to an inside of a recess part provided on a surface of said sub-passage constituting member on said main passage side along a flow direction in said main passage, and wherein said second passage connects between an inside portion of said sub-passage on a side closer to said outlet port than said resistance element and said main passage, and has one end opened in the vicinity of said resistance element in said sub-passage.
A fibrous polyolefin oil absorbent: material and a modular device, the fibrous polyolefin oil absorbent material comprising strips or chips cut from a melt-blown master web of polyolefin fibers, for manufacturing the floatable modular device (3; 10) for absorbing oil from a surface, characterized in that the modular device has a cage, and in that the strips or chips have a longitudinal extension of between 1 and 12 cm, a width extension of between 2 and 25 mm or between 10 and 50 mm, respectively, and a thickness extension of between 0.5 mm, or 1 mm, and 5 mm, and are placed in the cage of the modular device (3; 10) as a loose packing avoiding dense clots. material and a modular device, the fibrous polyolefin oil absorbent material comprising strips or chips cut from a melt-blown master web of polyolefin fibers, for manufacturing the floatable modular device (3; 10) for absorbing oil from a surface, characterized in that the modular device has a cage, and in that the strips or chips have a longitudinal extension of between 1 and 12 cm, a width extension of between 2 and 25 mm or between 10 and 50 mm, respectively, and a thickness extension of between 0.5 mm, or 1 mm, and 5 mm, and are placed in the cage of the modular device (3; 10) as a loose packing avoiding dense clots.
Chassis dip treatment station comprising: • a process liquid tank; • a line for conveying in sequence a plurality of skids inside and outside of the station, the skids being intended to each support a chassis to be treated, the conveying line comprising roller units for displacing a skid, which are movable between an operating position for supporting and displacing the skid above the tank, and a retracted non-operating position for immersing the skid with the chassis inside the tank; • a system for vertically moving a skid conveyed above the tank by means of the conveying line, for moving the skid with the chassis inside and outside of the tank; characterized in that the vertical movement system comprises a platform for supporting and engaging with the skid, which is mounted on a motor-driven, transverse, rotational shaft, the shaft projecting close to the bottom end of a vertical support arm, the vertical arm being motor-driven for the vertical movement of the platform inside and outside of the tank. • a process liquid tank; • a line for conveying in sequence a plurality of skids inside and outside of the station, the skids being intended to each support a chassis to be treated, the conveying line comprising roller units for displacing a skid, which are movable between an operating position for supporting and displacing the skid above the tank, and a retracted non-operating position for immersing the skid with the chassis inside the tank; • a system for vertically moving a skid conveyed above the tank by means of the conveying line, for moving the skid with the chassis inside and outside of the tank; characterized in that the vertical movement system comprises a platform for supporting and engaging with the skid, which is mounted on a motor-driven, transverse, rotational shaft, the shaft projecting close to the bottom end of a vertical support arm, the vertical arm being motor-driven for the vertical movement of the platform inside and outside of the tank.