mhurhangee/patent-ind-claim-en huggingface dataset:
A temperature detector attachable to an object for temperature detection starting from an initial state temperature T on, comprising: a first region printed with a first ink having a first decoloring initiating temperature T a1 at which decoloring initiates when temperature of the first ink increases, and a first color developing initiating temperature T d1 at which color developing initiates when temperature of the first ink decreases, and a second region printed with a second ink having a second decoloring initiating temperature T a2 at which decoloring initiates when temperature of the second ink increases, and a second color developing initiating temperature T d2 at which color developing initiates when temperature of the second ink decreases, said temperature detector being characterised in that the first decoloring initiating temperature T a1 , the first color developing initiating temperature T d1 , the second decoloring initiating temperature T a2 the second color developing initiating temperature T d2 and the initial state temperature T have the relationship of T d1 < T d2 < T < T a1 < T a2 , and in that in the initial state the first ink is colored and the second ink is decolored. a first region printed with a first ink having a first decoloring initiating temperature T a1 at which decoloring initiates when temperature of the first ink increases, and a first color developing initiating temperature T d1 at which color developing initiates when temperature of the first ink decreases, and a second region printed with a second ink having a second decoloring initiating temperature T a2 at which decoloring initiates when temperature of the second ink increases, and a second color developing initiating temperature T d2 at which color developing initiates when temperature of the second ink decreases, said temperature detector being characterised in that the first decoloring initiating temperature T a1 , the first color developing initiating temperature T d1 , the second decoloring initiating temperature T a2 the second color developing initiating temperature T d2 and the initial state temperature T have the relationship of T d1 < T d2 < T < T a1 < T a2 , and in that in the initial state the first ink is colored and the second ink is decolored.
A method of manufacturing a diesel fuel composition comprising a. a hydrotreatment step comprising catalytically hydrotreating renewable raw material comprising fatty acids, triglycerides, fatty acid esters, or combinations thereof into n-paraffins; b. an isomerising step comprising catalytically isomerising the n-paraffins into branched chain paraffins to obtain a hydrotreated renewable fuel component, wherein the amount of the paraffinic component in the range of carbon number C 15 -C 18 is at least 70 wt-%, and the i-paraffin/n-paraffin ratio of the hydrotreated renewable component is at least 2.2 w/w; c. adding a fossil fuel component to the hydrotreated renewable fuel component; and d. adding 2-EHN to a concentration in the range 100-1000mg/kg; wherein the step b. is carried out in the absence of the hydrotreating catalyst used in the step a. a. a hydrotreatment step comprising catalytically hydrotreating renewable raw material comprising fatty acids, triglycerides, fatty acid esters, or combinations thereof into n-paraffins; b. an isomerising step comprising catalytically isomerising the n-paraffins into branched chain paraffins to obtain a hydrotreated renewable fuel component, wherein the amount of the paraffinic component in the range of carbon number C 15 -C 18 is at least 70 wt-%, and the i-paraffin/n-paraffin ratio of the hydrotreated renewable component is at least 2.2 w/w; c. adding a fossil fuel component to the hydrotreated renewable fuel component; and d. adding 2-EHN to a concentration in the range 100-1000mg/kg;
A reverse osmosis membrane comprising: a porous support; a silver nanowire layer formed on the porous support; and a polyamide film formed on the silver nanowire layer wherein the silver nanowire layer has a thickness equal to 1% to 50% of the polyamide film. a porous support; a silver nanowire layer formed on the porous support; and a polyamide film formed on the silver nanowire layer wherein the silver nanowire layer has a thickness equal to 1% to 50% of the polyamide film.
A rotation detection device comprising: a housing that accommodates a rotating body ; a detected part that rotates integrally with the rotating body ; a detection part that faces the detected part in an axial direction (X) with an axial gap interposed therebetween; an installation member on which the detection part is installed; a female screw portion that is provided in one of the housing and the installation member ; and a male screw portion that is provided in the other of the housing and the installation member and screwed into the female screw portion , wherein the female screw portion and the male screw portion form a screw mechanism which is configured to change relative positions in the axial direction (X) of the housing and the installation member by changing an amount of screwing of the male screw portion with respect to the female screw portion , and accordingly, to adjust an interval of the axial gap between the detected part and the detection part . a housing that accommodates a rotating body ; a detected part that rotates integrally with the rotating body ; a detection part that faces the detected part in an axial direction (X) with an axial gap interposed therebetween; an installation member on which the detection part is installed; a female screw portion that is provided in one of the housing and the installation member ; and a male screw portion that is provided in the other of the housing and the installation member and screwed into the female screw portion , wherein the female screw portion and the male screw portion form a screw mechanism which is configured to change relative positions in the axial direction (X) of the housing and the installation member by changing an amount of screwing of the male screw portion with respect to the female screw portion , and accordingly, to adjust an interval of the axial gap between the detected part and the detection part .
A composition comprising a therapeutically effective amount of cuminaldehyde for use to treat dysphagia.
Paper material wherein the fibrous component comprises leather fibers in a percentage comprised within the range 5 - 80% dry weight and cellulose fibers in a percentage comprised in the range 95 - 20% dry weight, wherein said dry weight percentages are based on the total dry weight of the fibrous component, and wherein said leather fibers and cellulose fibers form a homogenous mixture by means of a tanning agent.
A passenger seat assembly comprising: a seat back , a monitor assembly comprising a support pin characterized in that the passenger seat assembly further comprises an impact bracket according to any of the claims 6 to 11, the impact bracket being supported on the seat back . a seat back , a monitor assembly comprising a support pin
A method of transmitting orthogonal frequency division multiplexing-based signals to a receiver by a transmitter, the method comprising: - forming a first transmission symbol vector for user data; - forming a second transmission symbol vector for the pilot; - adding additional information only to one of the first and the second transmission symbol vector by multiplying a complex value indicating the additional information by the first or the second transmission symbol vector, respectively; - transforming the first transmission symbol vector and the second transmission symbol vector to time domain signals, wherein one of the first transmission symbol vector and the second transmission symbol vector contain the additional information; and - transmitting the time domain signals to the receiver. - forming a first transmission symbol vector for user data; - forming a second transmission symbol vector for the pilot; - adding additional information only to one of the first and the second transmission symbol vector by multiplying a complex value indicating the additional information by the first or the second transmission symbol vector, respectively; - transforming the first transmission symbol vector and the second transmission symbol vector to time domain signals, wherein one of the first transmission symbol vector and the second transmission symbol vector contain the additional information; and - transmitting the time domain signals to the receiver.
Method for searching for leaks in pipelines for transport of hydrocarbons or of substances containing hydrocarbons, comprising: • acquiring data related to a pipeline for the transport of hydrocarbons or of substances containing hydrocarbons; • performing a processing of the acquired data; and • detecting and locating one or more leaks in the pipeline for transport of hydrocarbons or of substances containing hydrocarbons based on the processing carried out; characterised in that : • acquiring data related to a pipeline for transport of hydrocarbons or of substances containing hydrocarbons includes acquiring pipeline georeferencing data and data indicative of georeferenced secondary cosmic radiation measurements performed in a region of the earth's surface in which said pipeline extends (block 21); • performing a processing of the acquired data includes generating, based on the processing performed, a georeferenced digital map representing the pipeline for transport of hydrocarbons or of substances containing hydrocarbons and estimated quantities of hydrogen present on/in the soil in the region in which said pipeline extends (block 22); and • detecting and locating one or more leaks in the pipeline for transport of hydrocarbons or of substances containing hydrocarbons includes detecting and locating the leak(s) based on the generated georeferenced digital map (block 23). • acquiring data related to a pipeline for the transport of hydrocarbons or of substances containing hydrocarbons; • performing a processing of the acquired data; and • detecting and locating one or more leaks in the pipeline for transport of hydrocarbons or of substances containing hydrocarbons based on the processing carried out; • acquiring data related to a pipeline for transport of hydrocarbons or of substances containing hydrocarbons includes acquiring pipeline georeferencing data and data indicative of georeferenced secondary cosmic radiation measurements performed in a region of the earth's surface in which said pipeline extends (block 21); • performing a processing of the acquired data includes generating, based on the processing performed, a georeferenced digital map representing the pipeline for transport of hydrocarbons or of substances containing hydrocarbons and estimated quantities of hydrogen present on/in the soil in the region in which said pipeline extends (block 22); and • detecting and locating one or more leaks in the pipeline for transport of hydrocarbons or of substances containing hydrocarbons includes detecting and locating the leak(s) based on the generated georeferenced digital map (block 23).
CLEC11a for use in a therapeutic method of increasing bone strength, volume, mineralization or density, for use in a method of treating a bone trauma, disease or disorder, for use in a therapeutic method of promoting bone formation or osteogenesis or for use in a method of reversing bone loss in a subject in need thereof, the method comprising providing to said subject CLEC11a.
A method for wireless communication, comprising: identifying, at a second user equipment, UE (115-b, 115-d, 310, 510), a first space time block code (STBC) to be used for a first uplink transmission of a first UE (115-a, 115-c, 305, 505); applying, at the second UE (115-b, 115-d, 310, 510), an orthogonal covering code, OCC, to the first STBC to generate a second STBC to be used for a second uplink transmission of the second UE (115-b, 115-d, 310, 510); applying the second STBC to at least a portion of an orthogonal frequency division multiplexing, OFDM, symbol to be transmitted in the second uplink transmission; and transmitting the second uplink transmission concurrently with the first uplink transmission. identifying, at a second user equipment, UE (115-b, 115-d, 310, 510), a first space time block code (STBC) to be used for a first uplink transmission of a first UE (115-a, 115-c, 305, 505); applying, at the second UE (115-b, 115-d, 310, 510), an orthogonal covering code, OCC, to the first STBC to generate a second STBC to be used for a second uplink transmission of the second UE (115-b, 115-d, 310, 510); applying the second STBC to at least a portion of an orthogonal frequency division multiplexing, OFDM, symbol to be transmitted in the second uplink transmission; and transmitting the second uplink transmission concurrently with the first uplink transmission.
A method implemented by a wireless network node for detecting an interfering signal in a wireless network communication system, the method comprising the steps of: a) determining an energy pattern of expected received input signals (S1A) based on a topology of said wireless network communication system and/or on data traffic patterns, b) receiving an input signal (S1B) from at least one antenna and determining (S2) an energy pattern of said input signal while delaying the input signal's arrival at a receiver configured to process the input signal, c) comparing (S3) said energy pattern of said input signal with said energy pattern of expected received input signals, and d) emitting (S5) an alarm signal to at least said receiver while still delaying the input signal's arrival at the receiver, in the event that said receiver of the wireless network node is active and said input signal has an energy pattern different from said energy pattern of expected received input signals and/or in the event that said receiver is inactive and said input signal has an energy pattern similar or equal to said energy pattern of expected received input signals. a) determining an energy pattern of expected received input signals (S1A) based on a topology of said wireless network communication system and/or on data traffic patterns, b) receiving an input signal (S1B) from at least one antenna and determining (S2) an energy pattern of said input signal while delaying the input signal's arrival at a receiver configured to process the input signal, c) comparing (S3) said energy pattern of said input signal with said energy pattern of expected received input signals, and d) emitting (S5) an alarm signal to at least said receiver while still delaying the input signal's arrival at the receiver, in the event that said receiver of the wireless network node is active and said input signal has an energy pattern different from said energy pattern of expected received input signals and/or in the event that said receiver is inactive and said input signal has an energy pattern similar or equal to said energy pattern of expected received input signals.
A rotor of a permanent magnet-type rotary electric machine, the rotor including a rotating shaft ; a rotor core configured by laminating a plurality of electromagnetic steel sheets , the rotor core including the rotating shaft penetrating through the rotor core and fixed to the rotor core ; a plurality of rotor slots formed so as to axially penetrate through the rotor core ; a plurality of permanent magnets inserted into the rotor slots ; a pair of end plates placed at both axial ends of the rotor core ; and a pressing portion provided in at least one end plate out of the pair of end plates and configured to abut with an outer peripheral side of the rotor core to apply a pressing force to the outer peripheral side of the rotor core ; characterized in that the rotor further includes bolt through holes penetrating through the plurality of electromagnetic steel sheets and the pair of end plates are formed at an outer position in a radial direction of the rotating shaft , and nuts are screwed onto clamping bolts penetrating through the bolt through holes so that the pair of end plates press the plurality of electromagnetic steel sheets toward an inner side in an axial direction, wherein, the at least one end plate has a circular plate portion with a circular flat shape through which the rotating shaft penetrates, wherein one surface of the circular plate portion that abuts with an end of the rotor core is formed as an inclined surface such that its plate thickness is thickest in its outermost periphery and the plate thickness gradually and continuously decreases toward a central part from the outermost periphery; and only the outermost periphery abuts with the rotor core as the pressing portion.
An electronic device, comprising a magnetic medium , a coil that encircles a side of the magnetic medium , and a processor connected to both ends of the coil , wherein the magnetic medium is configured to: when the electronic device detects connection of an electronic component, be magnetized by a first magnetic field generated by the electronic component, and be connected to the electronic component under an effect of a magnetic force of the first magnetic field, wherein the electronic component accommodates or is connected to a target connection component; the coil is configured to: under an effect of the first magnetic field, generate a first electric signal according to a change of a magnetic flux in the coil , wherein the first electric signal is used to drive the processor to determine whether identification information of the target connection component accommodated in or connected to the electronic component is the same as a preset identifier; and the processor is configured to detect the change of the magnetic flux; and is further configured to: if a change of the first electric signal induced by the magnetic flux meets a first preset model, wherein the first preset model is a coordinates diagram of the change of the first electric signal, or a line graph of a change rate of the first electric signal, determine whether the identification information of the target connection component is the same as the preset identifier; and is further configured to: if the identification information of the target connection component is different from the preset identifier, drive the electronic component to be disconnected from the electronic device; wherein the processor is specifically configured to: if the identification information is different from the preset identifier, generate a second control signal; and the coil is specifically configured to generate a third electric signal according to the second control signal, and generate the second magnetic field by using the third electric signal, wherein the magnetic force of the second magnetic field is used to drive the electronic component to be disconnected from the electronic device; and wherein the processor is further configured to detect whether a change of the third electric signal meets a second preset model, wherein the second preset model is a coordinates diagram of the change of the first electric signal, or a line graph of a change rate of the first electric signal, and if the change of the third electric signal meets the second preset model, drive the coil to stop generating the third electric signal.
A thermosetting resin composition obtainable by a method which comprises the following steps 1 and 2: step 1: dispersing a flame retardant in a dispersion medium to prepare (E) a flame retardant dispersion; and step 2: mixing (A) a maleimide compound, (B) an epoxy resin having at least two epoxy groups in one molecule, (C) a copolymer resin having a structural unit derived from an aromatic vinyl compound and a structural unit derived from a maleic anhydride, (D) a silica treated with an aminosilane coupling agent, and (E) the flame retardant dispersion prepared in step 1, wherein the component (E) comprises a metal salt of a di-substituted phosphinic acid as a flame retardant. step 1: dispersing a flame retardant in a dispersion medium to prepare (E) a flame retardant dispersion; and step 2: mixing (A) a maleimide compound, (B) an epoxy resin having at least two epoxy groups in one molecule, (C) a copolymer resin having a structural unit derived from an aromatic vinyl compound and a structural unit derived from a maleic anhydride, (D) a silica treated with an aminosilane coupling agent, and (E) the flame retardant dispersion prepared in step 1, wherein the component (E) comprises a metal salt of a di-substituted phosphinic acid as a flame retardant.
A multi-dose dispenser comprising: - a product reservoir , having an X-axis, draining from a distal end via a discharge port , and comprising a tank ; - a piston comprising - a piston rod bearing a rack and, - at a distal end of the piston rod, a piston head mounted sliding into the tank along the X axis; - a mobile ratchet mounted along the X-axis relative to the reservoir and configured to cooperate with said rack in such a way as to move the piston only forward along the X-axis into the tank; - a spring arranged so as to push the ratchet backward along the X axis in the opposite direction to that of the forward movement, the spring and the ratchet forming a monobloc assembly, - a shell containing the ratchet and at least a portion of the piston; - a push button protruding from the shell and mounted so as to move along the X-axis relative to the shell, the push button being mechanically coupled to the ratchet such that pressing on said push button in the direction of the forward movement causes the ratchet to move forward. - a product reservoir , having an X-axis, draining from a distal end via a discharge port , and comprising a tank ; - a piston comprising - a piston rod bearing a rack and, - at a distal end of the piston rod, a piston head mounted sliding into the tank along the X axis; - a piston rod bearing a rack and, - at a distal end of the piston rod, a piston head mounted sliding into the tank along the X axis; - a mobile ratchet mounted along the X-axis relative to the reservoir and configured to cooperate with said rack in such a way as to move the piston only forward along the X-axis into the tank; - a spring arranged so as to push the ratchet backward along the X axis in the opposite direction to that of the forward movement, the spring and the ratchet forming a monobloc assembly, - a shell containing the ratchet and at least a portion of the piston; - a push button protruding from the shell and mounted so as to move along the X-axis relative to the shell, the push button being mechanically coupled to the ratchet such that pressing on said push button in the direction of the forward movement causes the ratchet to move forward.