mhurhangee/patent-ind-claim-en huggingface dataset:
A running-linked sound producing device for producing a running-linked sound according to a running state of a vehicle, the running-linked sound producing device comprising: a first component sound data generating means for generating first component sound data according to a motor rotation speed of the vehicle; a second component sound data generating means for generating second component sound data according to the motor rotation speed and an accelerator command value of the vehicle, and a synthetic sound data generating means for generating synthetic sound data by combining the first component sound data generated by the first component sound data generating means and the second component sound data generated by the second component sound data generating means , characterized in that the first component sound data generating means is provided for generating the first component sound data by changing a tone of a first component basic sound data according to the motor rotation speed of the vehicle, and the second component sound data generating means is provided for generating the second component sound data by changing a volume of a second component basic sound data according to the motor rotation speed and the accelerator command value of the vehicle, without changing a tone of the second component basic sound data. a first component sound data generating means for generating first component sound data according to a motor rotation speed of the vehicle; a second component sound data generating means for generating second component sound data according to the motor rotation speed and an accelerator command value of the vehicle, and a synthetic sound data generating means for generating synthetic sound data by combining the first component sound data generated by the first component sound data generating means and the second component sound data generated by the second component sound data generating means , characterized in that the first component sound data generating means is provided for generating the first component sound data by changing a tone of a first component basic sound data according to the motor rotation speed of the vehicle, and the second component sound data generating means is provided for generating the second component sound data by changing a volume of a second component basic sound data according to the motor rotation speed and the accelerator command value of the vehicle, without changing a tone of the second component basic sound data.
Temporary cross-linked cellulose ether characterized by being a cellulose ether cross-linked with one or more cross-linking agents selected from the group of compounds with formula (C 1-4 alkyl)-OC(O)CHOHO-(C 1-4 alkyl).
A fishing swivel (1; 100) for connecting a main fishing line and a leader , comprising: a first connecting portion (2; 102) connectable with the main line ; a second connecting portion (3; 103) connectable with the leader ; and a main body (4; 104a; 104b) rotatably coupled to the first connecting portion (2; 102) and the second connecting portion (3; 103), wherein the first connecting portion (2; 102) has a first contact portion that contacts the main body (4; 104a, 104b), the second connecting portion (3; 103) has a second contact portion that contacts the main body (4; 104a, 104b), the main body (4; 104a, 104b) has a main body contact portion that contacts the first contact portion and the second contact portion , characterized in that a plating layer containing fluororesin is provided on surfaces of the first contact portion , the second contact portion , and the main body contact portion , wherein at least one convex portion is formed on an outer peripheral surface of the first connecting portion (2; 102) or the second connecting portion (3; 103), and the first contact portion or the second contact portion is a part of the convex portion having a corner, and the convex portion contacts the main body (4; 104a, 104b) at the corner, and wherein thicknesses of the plating layer on the surfaces of the first contact portion , the second contact portion , and the main body contact portion are greater than thicknesses of the plating layer in other portions. a first connecting portion (2; 102) connectable with the main line ; a second connecting portion (3; 103) connectable with the leader ; and a main body (4; 104a; 104b) rotatably coupled to the first connecting portion (2; 102) and the second connecting portion (3; 103), wherein the first connecting portion (2; 102) has a first contact portion that contacts the main body (4; 104a, 104b), the second connecting portion (3; 103) has a second contact portion that contacts the main body (4; 104a, 104b), the main body (4; 104a, 104b) has a main body contact portion that contacts the first contact portion and the second contact portion , characterized in that a plating layer containing fluororesin is provided on surfaces of the first contact portion , the second contact portion , and the main body contact portion , wherein at least one convex portion is formed on an outer peripheral surface of the first connecting portion (2; 102) or the second connecting portion (3; 103), and the first contact portion or the second contact portion is a part of the convex portion having a corner, and the convex portion contacts the main body (4; 104a, 104b) at the corner, and wherein thicknesses of the plating layer on the surfaces of the first contact portion , the second contact portion , and the main body contact portion are greater than thicknesses of the plating layer in other portions.
A heat exchanger module comprising: - two plates that are arranged in parallel and spaced from each other by means of two spacing elements so as to define a channel for the passage of a fluid product, the channel being delimited by the plates and the spacing elements ; - two concave shells , each of said plates being integrally fixed to one of the concave shells , characterized in that it comprises at least one passage (P) for a heat transfer fluid, said passage (P) being defined in a pocket between one of said plates and the corresponding concave shell , said passage (P) being defined by one or more diverters arranged within the pocket . - two plates that are arranged in parallel and spaced from each other by means of two spacing elements so as to define a channel for the passage of a fluid product, the channel being delimited by the plates and the spacing elements ; - two concave shells , each of said plates being integrally fixed to one of the concave shells ,
Medical ventilator comprising a motorized micro-blower and electronic components , and additionally comprising: - a patient air circuit fluidically connecting a patient air inlet to a suction inlet of the micro-blower in order to supply the micro-blower with air, and - a cooling air circuit comprising a cooling air inlet in order to convey cooling air which, by thermal exchange, is intended to cool at least some of the electronic components , and in which the patient air inlet of the patient air circuit is equipped with a first filter , and the cooling air inlet of the cooling air circuit is equipped with a second filter , characterized in that : - the first and second filters are carried by a detachable common filtration cartridge , - the filtration cartridge is configured to fasten detachably to the ventilator at the region of the patient air inlet of the patient air circuit and the cooling air inlet of the cooling air circuit , and - the patient air inlet of the patient air circuit and the cooling air inlet of the cooling air circuit are situated in at least one inlet compartment open towards the outside, said inlet compartment being configured to accommodate the filtration cartridge having the first and second filters . - a patient air circuit fluidically connecting a patient air inlet to a suction inlet of the micro-blower in order to supply the micro-blower with air, and - a cooling air circuit comprising a cooling air inlet in order to convey cooling air which, by thermal exchange, is intended to cool at least some of the electronic components , and in which the patient air inlet of the patient air circuit is equipped with a first filter , and the cooling air inlet of the cooling air circuit is equipped with a second filter , characterized in that : - the first and second filters are carried by a detachable common filtration cartridge , - the filtration cartridge is configured to fasten detachably to the ventilator at the region of the patient air inlet of the patient air circuit and the cooling air inlet of the cooling air circuit , and - the patient air inlet of the patient air circuit and the cooling air inlet of the cooling air circuit are situated in at least one inlet compartment open towards the outside, said inlet compartment being configured to accommodate the filtration cartridge having the first and second filters . - the first and second filters are carried by a detachable common filtration cartridge , - the filtration cartridge is configured to fasten detachably to the ventilator at the region of the patient air inlet of the patient air circuit and the cooling air inlet of the cooling air circuit , and - the patient air inlet of the patient air circuit and the cooling air inlet of the cooling air circuit are situated in at least one inlet compartment open towards the outside, said inlet compartment being configured to accommodate the filtration cartridge having the first and second filters .
A method for performing condition monitoring on a plurality of wind turbines arranged in a wind farm, the method comprising the steps of: - for each wind turbine, obtaining at least one vibration signal, each vibration signal representing vibrations of one or more monitored components of the wind turbine, - generating a plurality of faulty frequency indexes, each faulty frequency index corresponding to a monitored component, each faulty frequency index being generated on the basis of one or more of the obtained vibration signals, and each faulty frequency index being generated in such a manner that variations in the vibration signals introduced by variations in rotational speed of one or more rotating shafts of the wind turbine are filtered out, wherein the step of generating the plurality of faulty frequency indexes comprises calculating a ratio between a frequency of an obtained vibration signal and a frequency of a rotational speed signal of a rotating shaft, - comparing faulty frequency indexes originating from different wind turbines of the wind farm, and - based on the comparing step, evaluating the condition of each of the monitored components of the plurality of wind turbines. - for each wind turbine, obtaining at least one vibration signal, each vibration signal representing vibrations of one or more monitored components of the wind turbine, - generating a plurality of faulty frequency indexes, each faulty frequency index corresponding to a monitored component, each faulty frequency index being generated on the basis of one or more of the obtained vibration signals, and each faulty frequency index being generated in such a manner that variations in the vibration signals introduced by variations in rotational speed of one or more rotating shafts of the wind turbine are filtered out, wherein the step of generating the plurality of faulty frequency indexes comprises calculating a ratio between a frequency of an obtained vibration signal and a frequency of a rotational speed signal of a rotating shaft, - comparing faulty frequency indexes originating from different wind turbines of the wind farm, and - based on the comparing step, evaluating the condition of each of the monitored components of the plurality of wind turbines.
One or more compositions comprising a UBE2N inhibitor for use in a method of treating a subtype of acute myeloid leukemia (AML) responsive to UBE2N inhibition, the method comprising: identifying a subject having one or more subtype of AML responsive to UBE2N inhibition, wherein the AML subtype comprises acute myelomonocytic leukemia (AML-M4) and/or acute monocytic leukemia (AML-M5); and providing to the subject one or more administrations of the one or more compositions comprising a UBE2N inhibitor; wherein administration of the UBE2N inhibitor results in treating the subtype of acute myeloid leukemia (AML) responsive to UBE2N inhibition in the subject, and wherein the UBE2N inhibitor comprises an RNAi sufficient to inhibit UBE2N expression or is at least one selected from the group consisting of NSC697923 (2-(4-methylphenyl)sulfonyl-5-nitrofuran), UC-764864 (I-(4-ethylphenyl)-3-[(6-methyl- IH-benzimidazol-2-yl) sulfanyl]prop-2-en-I-one), UC-764865 (I-(4-methoxyphenyl)-3-[(6-methyl-IH-benzimidazol-2-yl) sulfanyl]prop-2-en-I-one), and I-(4-methylphenyl)-3-[(6-methyl-IH-benzimidazol-2-yl) sulfanyl]prop-2-en-I-one, and pharmaceutically-acceptable salts, cocrystals, hydrates, solvates, optical isomers, geometric isomers, and salts of isomers thereof. identifying a subject having one or more subtype of AML responsive to UBE2N inhibition, wherein the AML subtype comprises acute myelomonocytic leukemia (AML-M4) and/or acute monocytic leukemia (AML-M5); and providing to the subject one or more administrations of the one or more compositions comprising a UBE2N inhibitor; wherein administration of the UBE2N inhibitor results in treating the subtype of acute myeloid leukemia (AML) responsive to UBE2N inhibition in the subject, and wherein the UBE2N inhibitor comprises an RNAi sufficient to inhibit UBE2N expression or is at least one selected from the group consisting of NSC697923 (2-(4-methylphenyl)sulfonyl-5-nitrofuran), UC-764864 (I-(4-ethylphenyl)-3-[(6-methyl- IH-benzimidazol-2-yl) sulfanyl]prop-2-en-I-one), UC-764865 (I-(4-methoxyphenyl)-3-[(6-methyl-IH-benzimidazol-2-yl) sulfanyl]prop-2-en-I-one), and I-(4-methylphenyl)-3-[(6-methyl-IH-benzimidazol-2-yl) sulfanyl]prop-2-en-I-one, and pharmaceutically-acceptable salts, cocrystals, hydrates, solvates, optical isomers, geometric isomers, and salts of isomers thereof.
A process for producing a decellularized small particle tissue which comprises the following steps: (a) Selecting an appropriate tissue starting material from which a decellularized small particle tissue is desired to be prepared, wherein the tissue is blood-laden tissue; (b) treating the blood-laden tissue with a decellularizing agent at an acid pH to remove at least a portion of the cellular material therefrom and to yield a product comprising a liquid component and a solid component, (c) subjecting the liquid component and the solid component which is the product of step (b) to a particle separation system comprised of a plurality of filters, F 1 through F n , wherein n may be 2, or an integer higher than 2, wherein the pore size of the filter F 1 is 0.2 to 200 microns, and the pore size of the filters F n range from 100 microns to 50 microns or range from 100 Kilo Daltons to 10 Kilo Daltons, yielding filtrates and retentates, (d) recycling either of said filtrates or said retentates or both, either separately or together, to any of steps b) or c) or both, at least one time, (e) isolating a decellularized small particle tissue from any of steps b), c) or d); wherein the pore size of the sequentially last stage filter is between 10 Kilo Daltons-50 Kilo Daltons and wherein the particle separation system is designed to capture sequentially smaller particle sizes. (a) Selecting an appropriate tissue starting material from which a decellularized small particle tissue is desired to be prepared, wherein the tissue is blood-laden tissue; (b) treating the blood-laden tissue with a decellularizing agent at an acid pH to remove at least a portion of the cellular material therefrom and to yield a product comprising a liquid component and a solid component, (c) subjecting the liquid component and the solid component which is the product of step (b) to a particle separation system comprised of a plurality of filters, F 1 through F n , wherein n may be 2, or an integer higher than 2, wherein the pore size of the filter F 1 is 0.2 to 200 microns, and the pore size of the filters F n range from 100 microns to 50 microns or range from 100 Kilo Daltons to 10 Kilo Daltons, yielding filtrates and retentates, (d) recycling either of said filtrates or said retentates or both, either separately or together, to any of steps b) or c) or both, at least one time, (e) isolating a decellularized small particle tissue from any of steps b), c) or d);
Apparatus for drying a thread group , having an inlet , an outlet and at least two drying cylinders (3-6) between the inlet and the outlet , wherein a thread group path between the inlet and the outlet wraps around a part of the circumference of the drying cylinders (3-6), wherein each drying cylinder has a separate rotary drive (7-10) and provision is made of a control device which controls the rotary drives (7-10) individually, characterized in that the control device is connected to means (12; 13-16) for sensing at least one parameter selected from a group including humidity, thread tension and elongation of a thread group traversing the thread group path and the means comprise a drive-parameter evaluation device , wherein the drive-parameter evaluation device determines a slip between the thread group and a drying cylinder (3-6).
A trie for use in an electronic database application or information retrieval system, the trie comprising a plurality of nodes (921; 922), wherein each parent node of the plurality of nodes having more than one child node, comprises a bitmap and two or more pointers (925; 926), wherein each pointer (925; 926) is associated with a bit set in the bitmap and points to a child node of said parent node ; characterized in that each parent node comprised by the trie having only one child node , does not comprise a pointer to the child node , wherein the child node is stored in a predefined position in memory relative to the parent node .
A process for producing a (poly) sulfide compound represented by General Formula , wherein thiol compounds represented by General Formula are reacted with each other in the presence of a basic compound represented by General Formula or General Formula and sulfur, wherein, in General Formula , X 1 and X 2 indicate a hydroxyl group or a halogen atom, one is a hydroxyl group, and the other is a halogen atom, R 1 to R 7 may be identical to or different from each other and indicate a hydrogen atom, a C1 to C10 linear or branched alkyl group, or a substituted or unsubstituted aryl group, R 1 to R 7 may be identical to or different from each other respectively, and m indicates an integer of 0 to 2, M(SH)n wherein, in General Formula , M represents an alkali metal or an alkali earth metal, and n represents a valence of the alkali metal or the alkali earth metal represented by M, wherein, in General Formula , Q 1 , Q 2 , and Q 3 may be identical to or different from one another, are a hydrogen atom, a linear or branched aliphatic group having 1 to 20 carbon atoms, an alicyclic group having 3 to 20 carbon atoms, or a substituted or unsubstituted aromatic group, and these groups may include a hetero atom, wherein, in General Formula , X 1 and X 2 , R 1 to R 7 , and m are identical to those in General Formula , a plurality of X 1 and X 2 , R 1 to R 7 , and m may be identical to or different from each other, and p indicates an integer of 0 to 4.
An apparatus for obtaining a frequency difference and amplitude spectrum graph, applied to a distributed antenna system, DAS, wherein the DAS comprises one main circuit and multiple branch circuits, the main circuit comprises M coupling nodes, each branch circuit comprises N antenna nodes and K coupling nodes, and M, N, and K are all positive integers; and the apparatus for obtaining a frequency difference and amplitude spectrum graph comprises a signal generation module, a signal transmission module connected to the signal generation module, a signal processing module connected to the signal transmission module, and a signal analysis module connected to the signal processing module, wherein the signal generation module is configured to generate a detection signal and send the detection signal to the signal transmission module; the signal transmission module is configured to receive the detection signal sent by the signal generation module, and send the detection signal to the signal processing module; and for each of at least one branch circuit of the multiple branch circuits, send the detection signal to the branch circuit through a signal input end of the DAS, receive an echo signal returned by the branch circuit, and send the echo signal to the signal processing module, wherein the echo signal is a signal obtained after the detection signal is reflected by the M coupling nodes on the main circuit and the N antenna nodes and the K coupling nodes on the branch circuit through which the detection signal passes in sequence; the signal processing module is configured to receive the detection signal and the echo signal sent by the signal transmission module, superpose the detection signal and the echo signal, and send a superposed signal to the signal analysis module; and the signal analysis module is configured to receive the superposed signal sent by the signal processing module, and perform spectrum conversion on the superposed signal to obtain a frequency difference and amplitude spectrum graph, wherein the frequency difference and amplitude spectrum graph is used to indicate a correspondence between a location of each node of the M coupling nodes on the main circuit and the N antenna nodes and the K coupling nodes on the branch circuit and an amplitude of the echo signal corresponding to the node.
A lift assembly comprising: a base ; a drive mechanism ; a flexible drive element driven by the drive mechanism and extending from the drive mechanism along a fleet axis ; and a sheave directing the drive element from the fleet axis to an output axis different than the fleet axis , wherein the sheave is coupled to the base at a first sheave mount aligned with the fleet axis , characterised in that the base further includes a second sheave mount aligned with the fleet axis , the second sheave mount being configured to be coupled to the sheave to thereby allow the sheave to be de-coupled from the first sheave mount and coupled to the second sheave mount , the second sheave mount being positioned such that coupling of the sheave to the second sheave mount results in substantially no change in a fleet angle (α) of the fleet axis ; and the sheave is positioned on a first side of the fleet axis when coupled to the first sheave mount , and wherein the sheave is positioned on a second side of the fleet axis when coupled to the second sheave mount , the second side being substantially opposed to the first side. a base ; a drive mechanism ; a flexible drive element driven by the drive mechanism and extending from the drive mechanism along a fleet axis ; and a sheave directing the drive element from the fleet axis to an output axis different than the fleet axis , wherein the sheave is coupled to the base at a first sheave mount aligned with the fleet axis , characterised in that the base further includes a second sheave mount aligned with the fleet axis , the second sheave mount being configured to be coupled to the sheave to thereby allow the sheave to be de-coupled from the first sheave mount and coupled to the second sheave mount , the second sheave mount being positioned such that coupling of the sheave to the second sheave mount results in substantially no change in a fleet angle (α) of the fleet axis ; and the sheave is positioned on a first side of the fleet axis when coupled to the first sheave mount , and wherein the sheave is positioned on a second side of the fleet axis when coupled to the second sheave mount , the second side being substantially opposed to the first side.