mhurhangee/patent-ind-claim-en huggingface dataset:
A power receiving unit comprising: a power receiving section that receives power transferred from a power transfer unit in a contactless manner; a protection circuit section that varies a receiving power voltage of the power received by the power receiving section ; and a control section that controls an operational state of the protection circuit section to a plurality of statuses on the basis of a plurality of thresholds, wherein the control section controls operation of the protection circuit section to a first state when the receiving power voltage exceeds a first threshold that is a predetermined protection setup voltage, and controls to switch operation of the protection circuit section to a second state when the receiving power voltage reaches a second threshold while the protection circuit section is operating in the first state, wherein the protection circuit section is an overvoltage protection circuit that prevents the receiving power voltage from exceeding the predetermined protection setup voltage, control leading to the first state corresponds to control of setting operation of the overvoltage protection circuit in ON state, and control leading to the second state corresponds to control of setting operation of the overvoltage protection circuit in OFF state. a power receiving section that receives power transferred from a power transfer unit in a contactless manner; a protection circuit section that varies a receiving power voltage of the power received by the power receiving section ; and a control section that controls an operational state of the protection circuit section to a plurality of statuses on the basis of a plurality of thresholds, wherein the control section controls operation of the protection circuit section to a first state when the receiving power voltage exceeds a first threshold that is a predetermined protection setup voltage, and controls to switch operation of the protection circuit section to a second state when the receiving power voltage reaches a second threshold while the protection circuit section is operating in the first state, wherein the protection circuit section is an overvoltage protection circuit that prevents the receiving power voltage from exceeding the predetermined protection setup voltage, wherein the control section controls operation of the protection circuit section to a first state when the receiving power voltage exceeds a first threshold that is a predetermined protection setup voltage, and controls to switch operation of the protection circuit section to a second state when the receiving power voltage reaches a second threshold while the protection circuit section is operating in the first state, wherein the protection circuit section is an overvoltage protection circuit that prevents the receiving power voltage from exceeding the predetermined protection setup voltage, control leading to the first state corresponds to control of setting operation of the overvoltage protection circuit in ON state, and control leading to the second state corresponds to control of setting operation of the overvoltage protection circuit in OFF state.
An in vitro method for determining whether a test compound can counteract the perceived malodour from a sulphur odorant, the method comprising the steps of: a) contacting the OR4E2 polypeptide with a sulphur odorant, in the presence and in the absence of the test compound under conditions permitting the binding of said sulphur odorant to OR4E2 or permitting the activation of OR4E2 by said sulphur odorant; b) comparing the binding of OR4E2 to said sulphur odorant, or the activity of OR4E2, in the presence and in the absence of the test compound; wherein an inhibition of the binding or a decrease in activity in the presence of the test compound, relative to the binding or activity in the absence of the test compound, identifies the test compound as a compound that can counteract the perceived malodour from the sulphur odorant; wherein step a) is performed in or on cells expressing OR4E2. a) contacting the OR4E2 polypeptide with a sulphur odorant, in the presence and in the absence of the test compound under conditions permitting the binding of said sulphur odorant to OR4E2 or permitting the activation of OR4E2 by said sulphur odorant; b) comparing the binding of OR4E2 to said sulphur odorant, or the activity of OR4E2, in the presence and in the absence of the test compound;
A method for use in an ongoing vehicle-to-everything, V2X, session, the method comprising: communicating between a source wireless transmit/receive unit, WTRU, and a peer WTRU using an existing source WTRU layer 2, L2, identifier, ID, an existing peer WTRU L2 ID, and an existing session ID for an existing session having an existing security context; on a condition that a trigger event occurs: generating , by the source WTRU, a new source WTRU L2 ID and a new most significant byte of a new session ID; transmitting , by the source WTRU to the peer WTRU, the new source WTRU L2 ID and the new most significant byte of the new session ID; receiving , from the peer WTRU, a new peer L2 ID and a new least significant byte of the new session ID; transmitting , by the source WTRU to the peer WTRU, an acknowledgement of the new peer WTRU L2 ID and the new least significant byte of the new session ID; and communicating with the peer WTRU using the new source WTRU L2 ID, the new peer WTRU L2 ID, and the new session ID that comprises the new most significant byte and the new least significant byte, wherein the communication with the peer WTRU occurs in the existing session using the existing security context. communicating between a source wireless transmit/receive unit, WTRU, and a peer WTRU using an existing source WTRU layer 2, L2, identifier, ID, an existing peer WTRU L2 ID, and an existing session ID for an existing session having an existing security context; on a condition that a trigger event occurs: generating , by the source WTRU, a new source WTRU L2 ID and a new most significant byte of a new session ID; transmitting , by the source WTRU to the peer WTRU, the new source WTRU L2 ID and the new most significant byte of the new session ID; receiving , from the peer WTRU, a new peer L2 ID and a new least significant byte of the new session ID; transmitting , by the source WTRU to the peer WTRU, an acknowledgement of the new peer WTRU L2 ID and the new least significant byte of the new session ID; and communicating with the peer WTRU using the new source WTRU L2 ID, the new peer WTRU L2 ID, and the new session ID that comprises the new most significant byte and the new least significant byte, wherein the communication with the peer WTRU occurs in the existing session using the existing security context. generating , by the source WTRU, a new source WTRU L2 ID and a new most significant byte of a new session ID; transmitting , by the source WTRU to the peer WTRU, the new source WTRU L2 ID and the new most significant byte of the new session ID; receiving , from the peer WTRU, a new peer L2 ID and a new least significant byte of the new session ID; transmitting , by the source WTRU to the peer WTRU, an acknowledgement of the new peer WTRU L2 ID and the new least significant byte of the new session ID; and communicating with the peer WTRU using the new source WTRU L2 ID, the new peer WTRU L2 ID, and the new session ID that comprises the new most significant byte and the new least significant byte, wherein the communication with the peer WTRU occurs in the existing session using the existing security context.
A system capable of sensing ice accretion on an airfoil of an aircraft , the system comprising: a sensor having a sensing surface region , the sensor configured to be mounted at a mounting location aft of a leading edge of the airfoil such that the sensing surface region is flush with a surrounding adjacent surface of the airfoil , wherein, in certain flight conditions, water droplets of sizes less than or equal to a predetermined threshold do not impinge the sensor surface region; a sensor driver coupled to the sensor and configured to provide an excitation signal to the sensor ; and a signal detector configured to detect a sensor signal responsive to the provided excitation signal, the detected sensor signal indicative of water particles of sizes exceeding the predetermined threshold impinging the sensing surface region of the sensor , wherein the sensor comprises: a resonant cavity , characterised in that the sensing surface region of the sensor is an exterior surface of the resonant cavity , and in that the signal detected by the signal detector is a resonant frequency of the resonant cavity , the resonant frequency changing in response to water on the sensing surface region . a sensor having a sensing surface region , the sensor configured to be mounted at a mounting location aft of a leading edge of the airfoil such that the sensing surface region is flush with a surrounding adjacent surface of the airfoil , wherein, in certain flight conditions, water droplets of sizes less than or equal to a predetermined threshold do not impinge the sensor surface region; a sensor driver coupled to the sensor and configured to provide an excitation signal to the sensor ; and a signal detector configured to detect a sensor signal responsive to the provided excitation signal, the detected sensor signal indicative of water particles of sizes exceeding the predetermined threshold impinging the sensing surface region of the sensor , wherein the sensor comprises: a resonant cavity , characterised in that the sensing surface region of the sensor is an exterior surface of the resonant cavity , and in that the signal detected by the signal detector is a resonant frequency of the resonant cavity , the resonant frequency changing in response to water on the sensing surface region . a resonant cavity , characterised in that the sensing surface region of the sensor is an exterior surface of the resonant cavity , and in that the signal detected by the signal detector is a resonant frequency of the resonant cavity , the resonant frequency changing in response to water on the sensing surface region .
A steel sheet for hot stamping, comprising a chemical composition consisting of, in mass%: C: 0.08% or more and 0.16% or less; Si: 0.003% to 0.2%; Mn: 1.6% to 3.5%; sol. Al: 0.0002% to 2.0%; B: 0.0003% to 0.01%; P: 0.1% or less; S: 0.004% or less; N: 0.01% or less; Ti: 0% to 0.04 + 48/14 × [N] % when an N content is expressed by [N]; Cr: 0% to 1.00%; Bi: 0% to 0.5%; and optionally one kind or two or more kinds selected from Ca: 0.0005% to 0.05%; Mg: 0.0005% to 0.05%; REM: 0.0005% to 0.05%; Mo: 0.03% to 1%; Cu: 0.01% to 1%; Ni: 0.01% to 1%; W: 0.01% to 1%; and V: 0.005% to 1%; and balance: Fe and impurities, wherein: an expression is satisfied when an Mn content is represented by [Mn] and a C content is represented by [C], where Mn + 6.67 × C − 2.73 ≥ 0 and the steel sheet comprises a steel structure expressed by, in an area ratio: bainite: 20% to 95%; ferrite: 5% to 80%; and balance: one or more selected from the group consisting of pearlite, martensite and retained austenite. C: 0.08% or more and 0.16% or less; Si: 0.003% to 0.2%; Mn: 1.6% to 3.5%; sol. Al: 0.0002% to 2.0%; B: 0.0003% to 0.01%; P: 0.1% or less; S: 0.004% or less; N: 0.01% or less; Ti: 0% to 0.04 + 48/14 × [N] % when an N content is expressed by [N]; Cr: 0% to 1.00%; Bi: 0% to 0.5%; and optionally one kind or two or more kinds selected from Ca: 0.0005% to 0.05%; Mg: 0.0005% to 0.05%; REM: 0.0005% to 0.05%; Mo: 0.03% to 1%; Cu: 0.01% to 1%; Ni: 0.01% to 1%; W: 0.01% to 1%; and V: 0.005% to 1%; and balance: Fe and impurities, an expression is satisfied when an Mn content is represented by [Mn] and a C content is represented by [C], where Mn + 6.67 × C − 2.73 ≥ 0 and the steel sheet comprises a steel structure expressed by, in an area ratio: bainite: 20% to 95%; ferrite: 5% to 80%; and balance: one or more selected from the group consisting of pearlite, martensite and retained austenite. bainite: 20% to 95%; ferrite: 5% to 80%; and balance: one or more selected from the group consisting of pearlite, martensite and retained austenite.
A method of forming a silicon dioxide film, wherein the method is an atomic layer deposition method or cyclic chemical vapor deposition method, and comprises: a. delivering a first precursor that provides a source for silicon to an atomic layer deposition or a cyclic chemical vapor deposition reactor, wherein the first precursor is selected from the group consisting of: R 1 n R 2 m Si(NR 3 R 4 ) 4-n-m , and a cyclic silazane of the formula (R 1 R 2 SiNR 3 ) p ; where R 1 is a C 2 -C 10 alkenyl or aromatic group; R 2 is H, a C 1 -C 10 , linear, branched, or cyclic alky, a C 2 -C 10 linear, branched, or cyclic alkenyl, or an aromatic group; R 3 and R 4 are each selected from H, a C 1 -C 10 , linear, branched, or cyclic alkyl, a C 2 -C 10 linear, branched, or cyclic alkenyl, and an aromatic group, or are joined such that NR 3 R 4 is a cyclic amine; and n=1 to 3, m=0 to 2, and p=3 or 4; and b. delivering a second precursor that provides a source for oxygen to the reactor. a. delivering a first precursor that provides a source for silicon to an atomic layer deposition or a cyclic chemical vapor deposition reactor, wherein the first precursor is selected from the group consisting of: R 1 n R 2 m Si(NR 3 R 4 ) 4-n-m , and a cyclic silazane of the formula (R 1 R 2 SiNR 3 ) p ; where R 1 is a C 2 -C 10 alkenyl or aromatic group; R 2 is H, a C 1 -C 10 , linear, branched, or cyclic alky, a C 2 -C 10 linear, branched, or cyclic alkenyl, or an aromatic group; R 3 and R 4 are each selected from H, a C 1 -C 10 , linear, branched, or cyclic alkyl, a C 2 -C 10 linear, branched, or cyclic alkenyl, and an aromatic group, or are joined such that NR 3 R 4 is a cyclic amine; and n=1 to 3, m=0 to 2, and p=3 or 4; and b. delivering a second precursor that provides a source for oxygen to the reactor.
A modified melanocortin receptor modulator, the modulator comprising Ac-Nle-c[Asp-His-nal-Arg-Trp-Lys]-NH 2 , wherein at least one amino acid within the c[Asp-His-nal-Arg-Trp-Lys] portion of Ac-Nle-c[Asp-His-nal-Arg-Trp-Lys]-NH 2 is N-methylated, characterized in that the modulator is: Ac-Nle-c[Asp-His-nal-( NMe )Arg-Trp-( NMe )Lys]-NH 2 (SEQ. No. 8), Ac-Nle-c[Asp-( NMe )His-nal-Arg-Trp-( NMe )Lys]-NH 2 (SEQ. No. 10), Ac-Nle-c[Asp-( NMe )His-nal-( NMe )Arg-Trp-Lys]-NH 2 (SEQ. NO. 15), or Ac-Nle-c[Asp-( NMe )His-nal-( NMe )Arg-( NMe )Trp-( NMe )Lys]-NH 2 (SEQ. No. 28, for medical use in modulating a melanocortin 1 (hMC1) receptor for regulating skin pigmentation by bringing about a desired skin coloration. Ac-Nle-c[Asp-His-nal-( NMe )Arg-Trp-( NMe )Lys]-NH 2 (SEQ. No. 8), Ac-Nle-c[Asp-( NMe )His-nal-Arg-Trp-( NMe )Lys]-NH 2 (SEQ. No. 10), Ac-Nle-c[Asp-( NMe )His-nal-( NMe )Arg-Trp-Lys]-NH 2 (SEQ. NO. 15), or Ac-Nle-c[Asp-( NMe )His-nal-( NMe )Arg-( NMe )Trp-( NMe )Lys]-NH 2 (SEQ. No. 28, for medical use in modulating a melanocortin 1 (hMC1) receptor for regulating skin pigmentation by bringing about a desired skin coloration.
A method for forming a laminate with elastic materials extruded thereon, the method comprising: receiving a first nonwoven web ; extruding an elastic material onto the first nonwoven web such that the elastic material is directly applied to the first nonwoven web continuously in a machine direction and discontinuously in a cross direction to form an elastic laminate with one or more elastic strips on the first nonwoven web ; and activating via stretching the elastic laminate only at the location of the one or more elastic strips , along the entire length of each of the elastic strips . receiving a first nonwoven web ; extruding an elastic material onto the first nonwoven web such that the elastic material is directly applied to the first nonwoven web continuously in a machine direction and discontinuously in a cross direction to form an elastic laminate with one or more elastic strips on the first nonwoven web ; and activating via stretching the elastic laminate only at the location of the one or more elastic strips , along the entire length of each of the elastic strips .
An electric compressor in which a control device (2; 21) for controlling a motor provided inside a housing (42; 44; 66; 76) of the electric compressor is integrated with the housing (42; 44; 66; 76), wherein the control device (2; 21) comprises a substrate (43; 50; 63); a central processing unit mounted on a first surface of the substrate (43; 50; 63), wherein the control device further comprises a magnetism-resistant section (45; 55; 68) formed in a sheet shape by sandwiching a conductive layer (46; 70) having an electric conductivity and a thermal conductivity, with insulating layers (47, 48; 69), and configured to cover an entire second surface of the substrate (43; 50; 63) opposite to the first surface to protect the central processing unit from an electromagnetic wave noise, the substrate (43; 50; 63) is fixed to a bottom of the housing (42; 44; 66; 76) with the second surface facing the housing (42; 44; 66; 76), switching devices to which a large current flows and the central processing unit are mounted on the substrate (43; 50; 63) or the switching devices are fixed to the bottom below the substrate , and the magnetism-resistant section (45; 55; 68) includes a portion at which the conductive layer (46;70) is exposed, and is arranged such that the portion is in contact with any one of the housing (42; 44; 66; 76) of the electric compressor and a part (67; 73; 75) conducting heat to the housing (42; 44; 66; 76). the control device (2; 21) comprises a substrate (43; 50; 63); a central processing unit mounted on a first surface of the substrate (43; 50; 63), a substrate (43; 50; 63); a central processing unit mounted on a first surface of the substrate (43; 50; 63), wherein the control device further comprises a magnetism-resistant section (45; 55; 68) formed in a sheet shape by sandwiching a conductive layer (46; 70) having an electric conductivity and a thermal conductivity, with insulating layers (47, 48; 69), and configured to cover an entire second surface of the substrate (43; 50; 63) opposite to the first surface to protect the central processing unit from an electromagnetic wave noise, the substrate (43; 50; 63) is fixed to a bottom of the housing (42; 44; 66; 76) with the second surface facing the housing (42; 44; 66; 76), switching devices to which a large current flows and the central processing unit are mounted on the substrate (43; 50; 63) or the switching devices are fixed to the bottom below the substrate , and the magnetism-resistant section (45; 55; 68) includes a portion at which the conductive layer (46;70) is exposed, and is arranged such that the portion is in contact with any one of the housing (42; 44; 66; 76) of the electric compressor and a part (67; 73; 75) conducting heat to the housing (42; 44; 66; 76).
A fiber optic connector , comprising an outer housing , a shroud disposed at the front end of the fiber optic connector, a fiber optic connector shutter rotatably mounted to the shroud about a first axis (A), the fiber optic connector shutter having an outer surface and an inner surface , the outer surface having an outer surface plane and the inner surface having an inner surface plane ; and a notch in the fiber optic connector shutter, the notch having an outer portion extending forward from the outer surface beyond the outer surface plane and a corresponding inner indentation extending into the fiber optic connector shutter forward of the inner surface plane, and a fiber optic ferrule holding optical fibers , wherein the fiber optic connector further comprises an inner housing that contains the fiber optic ferrule , and the shroud is disposed between the outer housing and the inner housing . a fiber optic connector shutter rotatably mounted to the shroud about a first axis (A), the fiber optic connector shutter having an outer surface and an inner surface , the outer surface having an outer surface plane and the inner surface having an inner surface plane ; and a notch in the fiber optic connector shutter, the notch having an outer portion extending forward from the outer surface beyond the outer surface plane and a corresponding inner indentation extending into the fiber optic connector shutter forward of the inner surface plane, and a fiber optic ferrule holding optical fibers , wherein the fiber optic connector further comprises an inner housing that contains the fiber optic ferrule , and the shroud is disposed between the outer housing and the inner housing . an inner housing that contains the fiber optic ferrule , and the shroud is disposed between the outer housing and the inner housing .
A method for processing data in a message, implemented by a mobile terminal, comprising: receiving an instant message sent from a wireless network, wherein the instant message carries data of multiple data formats; identifying the multiple data formats of the data; extracting a data attribute of the data from the instant message, wherein the data attribute is a sender of the instant message; automatically storing the data and the sender of the instant message into multiple function modules corresponding to the multiple data formats according to a corresponding relationship list, wherein the corresponding relationship list is a list of correspondence between data formats and function modules; and displaying the stored data according to a preset form and displaying the sender of the instant message in a specific display form. receiving an instant message sent from a wireless network, wherein the instant message carries data of multiple data formats; identifying the multiple data formats of the data; extracting a data attribute of the data from the instant message, wherein the data attribute is a sender of the instant message; automatically storing the data and the sender of the instant message into multiple function modules corresponding to the multiple data formats according to a corresponding relationship list, wherein the corresponding relationship list is a list of correspondence between data formats and function modules; and displaying the stored data according to a preset form and displaying the sender of the instant message in a specific display form.
An electronic cigarette atomizing core, comprising an inner sleeve and an outer sleeve sleeved on the inner sleeve , the outer sleeve being provided with a liquid passing port , an ultrasonic atomization piece being disposed at a middle part of an inner cavity of the outer sleeve, an atomization cavity being formed between the bottom of the inner sleeve and the ultrasonic atomization piece, liquid guide cotton communicated with the liquid passing port being sandwiched between the outer sleeve and the inner sleeve, wherein: the inner sleeve is longitudinally provided with a main air groove and an auxiliary air groove at intervals, the cross sectional area of the auxiliary air groove is 1/4 to 1/8 of the cross sectional area of the main air groove, and the main air groove longitudinally penetrates the inner sleeve, such that the main air groove is communicated with the atomization cavity to form a first air inlet channel of the atomization cavity; an upper part of the inner sleeve is provided with an auxiliary air inlet , a lower end of the auxiliary air groove is communicated with the atomization cavity, an auxiliary air channel is formed between the auxiliary air inlet and the auxiliary air groove, the liquid guide cotton covers the auxiliary air groove, and the auxiliary air inlet, the auxiliary air channel, and the auxiliary air groove are communicated with each other to form a second air inlet channel of the atomization cavity.