mhurhangee/ep-ind-claims huggingface dataset:
A pneumatic tire for a motorcycle comprising: at least a one-layered spiral belt prepared by winding a rubber-coated cord in spiral form in the circumferential direction of the tire in the perimeter side of a carcass in a toroidal shape between a pair of bead sections; and a groove (14, 141, 143) of which a groove end is located between a central position, between a tire equator and a tread end in the width direction of a tread, and the tread end, on a surface of a tread section in an external side in the radial direction of the tire from the spiral belt, characterized in that, in the groove, a groove wall which forms the groove end located between the central position, between the tire equator and the tread end in the width direction of the tread, and the tread end, has a chamfered shape in a cross section in the width direction.
Holding device (1") for fastening an insulation to a V-band clamp or to another connecting device for pipe ends (20, 21) to be connected, comprising fastener elements (2', 3'), it being possible for the outer and/or inner circumference of the holding device (1") to be decreased by way of interaction of the fastener elements (2', 3'), and comprising a flexible belt portion, it being possible for the belt portion to be laid as part of an outer shell or in the manner of an outer shell around an insulation, the belt portion being connected indirectly or directly to a cover for receiving a protrusion or fastener of a V-band clamp or another connecting device for pipe ends (20, 21), characterized in that the two fastener elements (2', 3') are connected to one another by way of a screw connection, a screw being received by way of a thread-bearing screw end in a screw counter-receptacle, and it being possible for the screw to be screwed into the screw counter-receptacle in order to decrease the outer and/or inner circumference of the holding device (1"), the screw being received or being received pivotably by way of its screw end in the rotatable screw counter-receptacle, and being hooked by way of a free end which has a screw head into a hook-in bearing, the rotatable screw counter-receptacle being assigned to the belt portion, and the hook-in bearing being assigned to the cover.
A method for selecting from a plurality of different siRNAs one or more siRNAs for silencing a target gene in an organism, each different siRNA in said plurality of different siRNAs targeting a different target sequence in a transcript of said target gene, said method comprising (a) calculating a score for a corresponding targeted sequence motif in said transcript, for each said different siRNA in said plurality of different siRNAs, wherein said score is calculated using a position-specific score matrix (PSSM); wherein each of said targeted sequence motifs comprises at least a portion of the target sequence of the corresponding siRNA and/or a second sequence in a sequence region flanking said target sequence; (b) ranking said plurality of different siRNAs according to said scores; and (c) selecting one or more siRNAs from said ranked siRNAs; wherein at least one of steps (a), (b) or (c) is performed by a suitably programmed computer. (a) calculating a score for a corresponding targeted sequence motif in said transcript, for each said different siRNA in said plurality of different siRNAs, wherein said score is calculated using a position-specific score matrix (PSSM); wherein each of said targeted sequence motifs comprises at least a portion of the target sequence of the corresponding siRNA and/or a second sequence in a sequence region flanking said target sequence; (b) ranking said plurality of different siRNAs according to said scores; and (c) selecting one or more siRNAs from said ranked siRNAs;
A synchronized roller with freewheels intended to be mounted in a device and comprising a central body which exposes a rolling outer cylindrical surface provided interposed between two rolling tracks of the device on which it is intended to roll simultaneously when said tracks move relative to each other, each said track being integrally lined with synchronization means of the device which form a gear system with a synchronizing pinion which exhibits each end of the central body when the synchronized roller is mounted in the device, the roller being characterized in that it comprises: • A smooth pin of smaller diameter than that of the rolling cylindrical surface, arranged at each end of the central body, and around which the synchronizing pinion is capable to rotate freely; • Pinion axial stop means integral with the smooth pin which bear, on the one hand, directly or indirectly on said pin and, on the other hand, directly or indirectly on the synchronizing pinion, to prevent said pinion from coming out of said pin; • Roller axial guide means which bear, on the one hand, directly or indirectly on the central body and, on the other hand, are capable to bear directly or indirectly on at least one of the rolling tracks of the device with which the rolling cylindrical surface cooperates, to keep the latter approximately centered on said tracks. • A smooth pin of smaller diameter than that of the rolling cylindrical surface, arranged at each end of the central body, and around which the synchronizing pinion is capable to rotate freely; • Pinion axial stop means integral with the smooth pin which bear, on the one hand, directly or indirectly on said pin and, on the other hand, directly or indirectly on the synchronizing pinion, to prevent said pinion from coming out of said pin; • Roller axial guide means which bear, on the one hand, directly or indirectly on the central body and, on the other hand, are capable to bear directly or indirectly on at least one of the rolling tracks of the device with which the rolling cylindrical surface cooperates, to keep the latter approximately centered on said tracks.
Method for wireless communication by a first communication device with a second communication device, having the method steps of: - providing first authentication information by means of the first communication device, wherein the first authentication information is valid for authenticating a user, a role or an application, - conveying a request for setup of a Bluetooth connection from the first communication device to the second communication device, - authenticating and making a Bluetooth connection by means of the first authentication information and second authentication information provided by the second communication device if at least part of the first authentication information is concordant with part of the second authentication information, and - setting up the data transmission between the first communication device and the second communication device via the Bluetooth connection, wherein the authentication of the Bluetooth connection includes the authentication of a user, a role or an application on the second communication device. - providing first authentication information by means of the first communication device, wherein the first authentication information is valid for authenticating a user, a role or an application, - conveying a request for setup of a Bluetooth connection from the first communication device to the second communication device, - authenticating and making a Bluetooth connection by means of the first authentication information and second authentication information provided by the second communication device if at least part of the first authentication information is concordant with part of the second authentication information, and - setting up the data transmission between the first communication device and the second communication device via the Bluetooth connection, wherein the authentication of the Bluetooth connection includes the authentication of a user, a role or an application on the second communication device.
A method of preparing a compound of formula wherein n is 0 or 1; m is 0 or 1; Y is 0 or S; R 1 is selected from H, substituted or unsubstituted alkyl, substituted or unsubstituted alkenyl, substituted or unsubstituted alkynyl, substituted or unsubstituted aryl, substituted or unsubstituted primary or secondary amino, and substituted or unsubstituted azido; R 2 - R 5, which may be the same or different, are each independently selected from H, substituted or unsubstituted alkyl, substituted or unsubstituted alkenyl, substituted or unsubstituted alkynyl, and substituted or unsubstituted aryl; and X - is an anion, selected from an anion of a substituted or unsubstituted carboxylic acid, a halide, a substituted or unsubstituted sulfonate, a substituted or unsubstituted phosphate, a substituted or unsubstituted sulfate, a substituted or unsubstituted carbonate, and a substituted or unsubstituted carbamate; comprising reacting a compound of formula wherein n, m, Y and R 1 - R 5 are as defined above; with a compound of the formula Z + X -, wherein X - is as defined above, and wherein Z + is a N-containing cation; in the presence of an aqueous solution and a carbon-containing catalyst, wherein the carbon-containing catalyst is activated charcoal, optionally as a support for a metal, the metal optionally including transition metals; to form the compound of formula. n is 0 or 1; m is 0 or 1; Y is 0 or S; R 1 is selected from H, substituted or unsubstituted alkyl, substituted or unsubstituted alkenyl, substituted or unsubstituted alkynyl, substituted or unsubstituted aryl, substituted or unsubstituted primary or secondary amino, and substituted or unsubstituted azido; R 2 - R 5, which may be the same or different, are each independently selected from H, substituted or unsubstituted alkyl, substituted or unsubstituted alkenyl, substituted or unsubstituted alkynyl, and substituted or unsubstituted aryl; and X - is an anion, selected from an anion of a substituted or unsubstituted carboxylic acid, a halide, a substituted or unsubstituted sulfonate, a substituted or unsubstituted phosphate, a substituted or unsubstituted sulfate, a substituted or unsubstituted carbonate, and a substituted or unsubstituted carbamate; comprising reacting a compound of formula wherein n, m, Y and R 1 - R 5 are as defined above; with a compound of the formula Z + X -, wherein X - is as defined above, and wherein Z + is a N-containing cation; wherein X - is as defined above, and wherein Z + is a N-containing cation; in the presence of an aqueous solution and a carbon-containing catalyst, wherein the carbon-containing catalyst is activated charcoal, optionally as a support for a metal, the metal optionally including transition metals; to form the compound of formula.
Electronic power device comprising at least: - an active layer comprising at least one semiconductor and in which several lateral and/or semi-lateral electronic power components (104, 110) are made, all electrodes of the components (104, 110) being located on a front face of the active layer; - an electrical interconnection structure comprising several electrically conducting portions secured to the front face of the active layer, to which the electrodes of the components (104, 110) are electrically connected, and of which at least first parts placed in contact with the electrodes of the components (104, 110) extend in a plane approximately parallel to the active layer; - a support comprising a front face on which electrically conducting tracks are located, and in which the active layer and the electrical interconnection structure are secured to the front face of the support such that: - the electrical interconnection structure is located between the active layer and the support, the first parts of the electrically conducting portions being placed in contact with the electrically conducting tracks, or - the active layer is located between the electrical interconnection structure and the support, the electrically conducting portions also comprising second parts extending next to the active layer and electrically connecting the first parts of the electrically conducting portions to the electrically conducting tracks. - an active layer comprising at least one semiconductor and in which several lateral and/or semi-lateral electronic power components (104, 110) are made, all electrodes of the components (104, 110) being located on a front face of the active layer; - an electrical interconnection structure comprising several electrically conducting portions secured to the front face of the active layer, to which the electrodes of the components (104, 110) are electrically connected, and of which at least first parts placed in contact with the electrodes of the components (104, 110) extend in a plane approximately parallel to the active layer; - a support comprising a front face on which electrically conducting tracks are located, - the electrical interconnection structure is located between the active layer and the support, the first parts of the electrically conducting portions being placed in contact with the electrically conducting tracks, or - the active layer is located between the electrical interconnection structure and the support, the electrically conducting portions also comprising second parts extending next to the active layer and electrically connecting the first parts of the electrically conducting portions to the electrically conducting tracks.
An apparatus, comprising: a fan including a control pin and a fault signal pin, the fan to: receive a pulse width modulated signal at the control pin; control a speed of the fan based on a duty cycle of the PWM signal when the duty cycle of the PWM signal is in a first range; and responsive to the duty cycle of the PWM signal being in a second range: transmit a pre-amble signal to an external controller, the pre-amble signal to signal that the fan is ready to begin transmission of information corresponding to the fan; and transmit information corresponding to the fan via the fault signal pin to the external controller; further wherein, responsive to the duty cycle of the PWM signal being in a second range, the fan is locked at a same speed cycle as prior to the PWM signal being in the second range, and is prevented from changing speed cycle until a new PWM signal having a duty cycle in the first range is received. a fan including a control pin and a fault signal pin, the fan to: receive a pulse width modulated signal at the control pin; control a speed of the fan based on a duty cycle of the PWM signal when the duty cycle of the PWM signal is in a first range; and responsive to the duty cycle of the PWM signal being in a second range: transmit a pre-amble signal to an external controller, the pre-amble signal to signal that the fan is ready to begin transmission of information corresponding to the fan; and transmit information corresponding to the fan via the fault signal pin to the external controller; receive a pulse width modulated signal at the control pin; control a speed of the fan based on a duty cycle of the PWM signal when the duty cycle of the PWM signal is in a first range; and responsive to the duty cycle of the PWM signal being in a second range: transmit a pre-amble signal to an external controller, the pre-amble signal to signal that the fan is ready to begin transmission of information corresponding to the fan; and transmit information corresponding to the fan via the fault signal pin to the external controller; transmit a pre-amble signal to an external controller, the pre-amble signal to signal that the fan is ready to begin transmission of information corresponding to the fan; and transmit information corresponding to the fan via the fault signal pin to the external controller; further wherein, responsive to the duty cycle of the PWM signal being in a second range, the fan is locked at a same speed cycle as prior to the PWM signal being in the second range, and is prevented from changing speed cycle until a new PWM signal having a duty cycle in the first range is received.
A method for reprogramming an animal differentiated somatic cell to an undifferentiated pluripotent stem cell, comprising the steps of: (a) isolating the nucleus, DNA, or chromatin from said differentiated somatic cell and encapsulating said nucleus, DNA, or chromatin in a new nuclear envelope in vitro using a cell-free extract from undifferentiated cells to form a remodelled nucleus, wherein the cell-free extract is capable of forming nuclear envelopes around naked DNA or chromatin, wherein the cell-free extract is an extract from embryonic stem cells, an extract from embryonic germ cells, an extract from embryonal carcinoma cells or an extract from oocytes; and (b) transferring or fusing the resulting remodelled nucleus from step (a) into the enucleated cytoplasm of an undifferentiated embryonic cell selected from an embryonic stem cell, an embryonic germ cell or an embryonal carcinoma cell to form an undifferentiated pluripotent stem cell and allowing the resulting undifferentiated pluripotent stem cell to grow. (a) isolating the nucleus, DNA, or chromatin from said differentiated somatic cell and encapsulating said nucleus, DNA, or chromatin in a new nuclear envelope in vitro using a cell-free extract from undifferentiated cells to form a remodelled nucleus, wherein the cell-free extract is capable of forming nuclear envelopes around naked DNA or chromatin, wherein the cell-free extract is an extract from embryonic stem cells, an extract from embryonic germ cells, an extract from embryonal carcinoma cells or an extract from oocytes; and (b) transferring or fusing the resulting remodelled nucleus from step (a) into the enucleated cytoplasm of an undifferentiated embryonic cell selected from an embryonic stem cell, an embryonic germ cell or an embryonal carcinoma cell to form an undifferentiated pluripotent stem cell and allowing the resulting undifferentiated pluripotent stem cell to grow.
A vitrification device comprising: an input portion with an input port; a sample chamber; a waste reservoir in fluid communication with the sample chamber; and a filtering mechanism that selectively allows a fluid introduced through the input port to pass through the sample chamber and into the waste reservoir, while retaining a sample within the sample chamber; wherein the sample chamber, waste reservoir, and filtering mechanism are configured to draw fluid from the sample chamber through the filtering mechanism and into the waste reservoir via capillary action; the vitrification device being characterized by further comprising: a cap capable of reversibly coupling to the input portion to close the input port. an input portion with an input port; a sample chamber; a waste reservoir in fluid communication with the sample chamber; and a filtering mechanism that selectively allows a fluid introduced through the input port to pass through the sample chamber and into the waste reservoir, while retaining a sample within the sample chamber; wherein the sample chamber, waste reservoir, and filtering mechanism are configured to draw fluid from the sample chamber through the filtering mechanism and into the waste reservoir via capillary action; the vitrification device being characterized by further comprising: a cap capable of reversibly coupling to the input portion to close the input port.
An automatic analyzing apparatus comprising: a detection unit configured to measure at predetermined time intervals a coagulation index that indicates an amount of coagulated blood in a blood sample in which a reagent has been dispensed; the apparatus being configured to perform a first curve fitting function configured to calculate, periodically at the predetermined time interval, a parameter for an approximate curve of a coagulation curve by curve fitting, the approximate curve substantially fitting the measured coagulation index; data; an early reaction checking function configured to determine whether there is an early coagulation index change, based on the parameter for the approximate curve calculated periodically at the predetermined time interval by the first curve fitting function, the early coagulation index change indicating a region in which the coagulation index increases immediately after the reagent is dispensed in the sample; the apparatus being further configured to perform a plateau phase deciding function if the the early reaction checking function has detemined that there is an early coagulation index change, the plateau phase deciding function being configured to determine whether a first coagulation reaction has completed; the apparatus being further configured to perform: a second curve fitting function if the plateau phase deciding function has determined that a first coagulation reaction has completed, the second curve fitting function being configured to calculate periodically at the predetermined time interval a parameter for an approximate curve of the coagulation curve by curve fitting the approximate curve substantially fitting the detected coagulation index data that was not used for curve fitting by the first curve fitting function; and a clotting time calculation function configured to calculate a clotting time, when it is determined that there is the early coagulation index change and that the first coagulation reaction has been completed, based on an approximate function representing the approximate curve determined by the parameter calculated by the second curve fitting function. a second curve fitting function if the plateau phase deciding function has determined that a first coagulation reaction has completed, the second curve fitting function being configured to calculate periodically at the predetermined time interval a parameter for an approximate curve of the coagulation curve by curve fitting the approximate curve substantially fitting the detected coagulation index data that was not used for curve fitting by the first curve fitting function; and a clotting time calculation function configured to calculate a clotting time, when it is determined that there is the early coagulation index change and that the first coagulation reaction has been completed, based on an approximate function representing the approximate curve determined by the parameter calculated by the second curve fitting function.
A suture anchor reload system (10, 200, 300, 400) for loading a suture anchor (86, 510) on an inserter, the suture anchor reload system comprising: a housing including a first portion (12, 402) and a second portion (14, 404) configured to be releasably coupled together, and defining an inserter receptacle (18, 266, 268, 270) entirely therebetween configured to accommodate the inserter; and a suture anchor holder (40A, 40B, 312A, 312B, 452A, 452B) arranged to hold a suture anchor (86, 510) across the inserter receptacle (18, 266, 268, 270) to be loaded onto the inserter as the inserter is driven through the inserter receptacle (18, 266, 268, 270); wherein the inserter receptacle (18, 266, 268, 270) is substantially unobstructed along the entire length of the system (10, 200, 300, 400), and wherein the inserter receptacle (18, 266, 268, 270) is configured to allow the suture anchor (86, 510) to be pushed into and through the inserter receptacle (18, 266, 268, 270) by the inserter and wherein the first portion is configured to separate from the second portion upon driving the inserter through the inserter receptacle. a housing including a first portion (12, 402) and a second portion (14, 404) configured to be releasably coupled together, and defining an inserter receptacle (18, 266, 268, 270) entirely therebetween configured to accommodate the inserter; and a suture anchor holder (40A, 40B, 312A, 312B, 452A, 452B) arranged to hold a suture anchor (86, 510) across the inserter receptacle (18, 266, 268, 270) to be loaded onto the inserter as the inserter is driven through the inserter receptacle (18, 266, 268, 270); wherein the inserter receptacle (18, 266, 268, 270) is substantially unobstructed along the entire length of the system (10, 200, 300, 400), and wherein the inserter receptacle (18, 266, 268, 270) is configured to allow the suture anchor (86, 510) to be pushed into and through the inserter receptacle (18, 266, 268, 270) by the inserter and wherein the first portion is configured to separate from the second portion upon driving the inserter through the inserter receptacle.