mhurhangee/patent-ind-claim-en huggingface dataset:
A powertrain for a hybrid motor vehicle, having a transmission input shaft that is operatively connected to a first electric machine and an internal combustion engine via a first sub-powertrain so as to transmit a torque and which is operatively connected to a second electric machine via a second sub-powertrain so as to transmit a torque, wherein the second electric machine is permanently connected to the transmission input shaft in a torque-transmitting manner, and the first electric machine and the internal combustion engine can be connected to the transmission input shaft in a coupleable manner so as to transmit a torque, wherein a switchable clutch is arranged between the second sub-powertrain having the second electric machine and the first sub-powertrain having the first electric machine and the internal combustion engine , wherein the first electric machine and the second electric machine rotate at the same speed when the clutch is closed, wherein only one clutch is arranged in the powertrain , the clutch is arranged between the two electric machines , the first electric machine is permanently connected to the internal combustion engine in a torque-transmitting manner, characterised in that a driven shaft of the first electric machine is arranged radially inside the driven shaft of the second electric machine , and a part of the clutch is connected to the driven shaft of the first electric machine , and another part of the clutch is connected to the driven shaft of the second electric machine .
A method for automatically testing a service via a programming interface of the service, the method comprising obtaining , at one or more hardware processors , a set of operation descriptions describing a set of operations supported by the service, wherein the set of operation descriptions includes respective descriptions of i) requests associated with respective operations in the set of operations and ii) responses expected in response to the requests; determining , with the one or more hardware processors based on the set of operation descriptions, dependencies among the requests associated with the respective operations; generating , with the one or more hardware processors, a set of test request sequences that satisfy the determined dependencies, wherein generating the set of test request sequences comprises performing multiple iterations of generating, based on the set of operation descriptions, test request sequences of increasing lengths, wherein performing the multiple iterations includes, in a particular iteration of the multiple iterations, generating test request sequences by adding individual requests to at least one test request sequence generated in a previous iteration of the multiple iterations; and executing , with the one or more hardware processors, test request sequences in the set of test request sequences to test the service via the programming interface of the service. obtaining , at one or more hardware processors , a set of operation descriptions describing a set of operations supported by the service, wherein the set of operation descriptions includes respective descriptions of i) requests associated with respective operations in the set of operations and ii) responses expected in response to the requests; determining , with the one or more hardware processors based on the set of operation descriptions, dependencies among the requests associated with the respective operations; generating , with the one or more hardware processors, a set of test request sequences that satisfy the determined dependencies, wherein generating the set of test request sequences comprises performing multiple iterations of generating, based on the set of operation descriptions, test request sequences of increasing lengths, wherein performing the multiple iterations includes, in a particular iteration of the multiple iterations, generating test request sequences by adding individual requests to at least one test request sequence generated in a previous iteration of the multiple iterations; and executing , with the one or more hardware processors, test request sequences in the set of test request sequences to test the service via the programming interface of the service.
A bifurcated stent graft including: a stent graft body having a main body opening and at least two exit openings ; the stent graft body including at least one stent attached to a graft fabric material , a bifurcation and a dividing wall that divides a combined flow path into a first flow path and a second flow path that each terminate at one of the respective exit openings; characterised in that the dividing wall including a thickness profile that terminates at a leading edge radius that extends across a width of the combined flow path. a stent graft body having a main body opening and at least two exit openings ; the stent graft body including at least one stent attached to a graft fabric material , a bifurcation and a dividing wall that divides a combined flow path into a first flow path and a second flow path that each terminate at one of the respective exit openings; characterised in that the dividing wall including a thickness profile that terminates at a leading edge radius that extends across a width of the combined flow path.
An information indication method, comprising: generating a first frame (S101), wherein the first frame comprises indication information, the indication information indicates padding duration required for a channel switch delay in an initial control frame, and the padding duration is determined (S103) based on duration of a control response frame; and transmitting (S102) the first frame. generating a first frame (S101), wherein the first frame comprises indication information, the indication information indicates padding duration required for a channel switch delay in an initial control frame, and the padding duration is determined (S103) based on duration of a control response frame; and transmitting (S102) the first frame.
A refrigerant flow path switching unit arranged between an outdoor unit and each of multiple indoor units to control a refrigerant flow, comprising: a housing ; a refrigerant flow path switching circuit assembly arranged in the housing and having multiple refrigerant flow path switching circuits , each refrigerant flow path switching circuit including a high/low pressure gas pipe, a low pressure gas pipe, a high/low pressure electric valve provided at the high/low pressure gas pipe, and a low pressure electric valve provided at the low pressure gas pipe; and a liquid pipe assembly arranged in the housing and having multiple liquid pipes connected to the multiple indoor units ; a first divider plate provided between adjacent ones of the refrigerant flow path switching circuits in the housing and configured to divide an internal space of the housing , wherein a space divided by the first divider plate is in a substantially cubic shape, and the divided space is filled with a foaming agent ; and a second divider plate provided in the housing and configured to separate the refrigerant flow path switching circuit assembly and the liquid pipe assembly , wherein the internal space of the housing is divided in a substantially cubic shape by the first divider plate and the second divider plate , and a divided space is filled with the foaming agent . a housing ; a refrigerant flow path switching circuit assembly arranged in the housing and having multiple refrigerant flow path switching circuits , each refrigerant flow path switching circuit including a high/low pressure gas pipe, a low pressure gas pipe, a high/low pressure electric valve provided at the high/low pressure gas pipe, and a low pressure electric valve provided at the low pressure gas pipe; and a liquid pipe assembly arranged in the housing and having multiple liquid pipes connected to the multiple indoor units ; a first divider plate provided between adjacent ones of the refrigerant flow path switching circuits in the housing and configured to divide an internal space of the housing , wherein a space divided by the first divider plate is in a substantially cubic shape, and the divided space is filled with a foaming agent ; and a second divider plate provided in the housing and configured to separate the refrigerant flow path switching circuit assembly and the liquid pipe assembly , wherein the internal space of the housing is divided in a substantially cubic shape by the first divider plate and the second divider plate , and a divided space is filled with the foaming agent .
A positive airway interface system comprising: a positive air pressure adapter that can connect to a positive air pressure source; a mouth interface connected to the positive air pressure adapter , the mouth interface comprising: an internal support structure ; an outer shell disposed over and suspended by the internal support structure and being configured to adopt over and around the user's mouth; and one or more malleable sealing membranes disposed about a user interface aperture ; a nasal interface being fluidly connected to the positive air pressure source, the nasal interface comprising: a pair of extensions extending upwardly from the positive air pressure adapter ; and a pair of nasal pillows , wherein at least one nasal pillow is affixed to, and corresponds with, each of the extensions ; a plurality of attachment means on each of the nasal interface and the mouth interface wherein the attachment means comprises an attachment mechanism extending through the outer shell and connecting to the internal support structure , and wherein in use a force on the attachment means causes the nasal interface to engage with the nares of a user, and the force causes the mouth interface to sealingly engage around a mouth of the user. a positive air pressure adapter that can connect to a positive air pressure source; a mouth interface connected to the positive air pressure adapter , the mouth interface comprising: an internal support structure ; an outer shell disposed over and suspended by the internal support structure and being configured to adopt over and around the user's mouth; and one or more malleable sealing membranes disposed about a user interface aperture ; an internal support structure ; an outer shell disposed over and suspended by the internal support structure and being configured to adopt over and around the user's mouth; and one or more malleable sealing membranes disposed about a user interface aperture ; a nasal interface being fluidly connected to the positive air pressure source, the nasal interface comprising: a pair of extensions extending upwardly from the positive air pressure adapter ; and a pair of nasal pillows , wherein at least one nasal pillow is affixed to, and corresponds with, each of the extensions ; a pair of extensions extending upwardly from the positive air pressure adapter ; and a pair of nasal pillows , wherein at least one nasal pillow is affixed to, and corresponds with, each of the extensions ; a plurality of attachment means on each of the nasal interface and the mouth interface wherein the attachment means comprises an attachment mechanism extending through the outer shell and connecting to the internal support structure , and wherein in use a force on the attachment means causes the nasal interface to engage with the nares of a user, and the force causes the mouth interface to sealingly engage around a mouth of the user.
A computer-implemented method for monitoring vulnerabilities in a distributed computing environment, comprising: - receiving, by a vulnerability identifier, vulnerability data, where the vulnerability data identifies one or more libraries affected by vulnerabilities, including name of the library and version of the library for each identified library, and identifies application programming interfaces (APIs) of the identified libraries which are affected by the vulnerabilities; - detecting, by a library load sensor, loading of a given library by a monitored process running under an operating system of a host computer and determining library data for the given library, where the library load sensor is injected into the monitored process and the library data includes name of the library, version of the library and vendor associated with the library; - determining, by the vulnerability identifier, whether the given library is vulnerable using the vulnerability data; - detecting, by an API sensor, a given API that was called by the monitored process, where the given API resides in the given library and the API sensor is injected into the monitored process; - determining, by the vulnerability identifier, whether the given API is affected by vulnerabilities using the vulnerability data and the library data for the given library as detected by the library load sensor; and - indicating, by the vulnerability identifier, a particular vulnerability of the monitored process in response to a determination that the given library is vulnerable and a determination that the given API is vulnerable. - receiving, by a vulnerability identifier, vulnerability data, where the vulnerability data identifies one or more libraries affected by vulnerabilities, including name of the library and version of the library for each identified library, and identifies application programming interfaces (APIs) of the identified libraries which are affected by the vulnerabilities; - detecting, by a library load sensor, loading of a given library by a monitored process running under an operating system of a host computer and determining library data for the given library, where the library load sensor is injected into the monitored process and the library data includes name of the library, version of the library and vendor associated with the library; - determining, by the vulnerability identifier, whether the given library is vulnerable using the vulnerability data; - detecting, by an API sensor, a given API that was called by the monitored process, where the given API resides in the given library and the API sensor is injected into the monitored process; - determining, by the vulnerability identifier, whether the given API is affected by vulnerabilities using the vulnerability data and the library data for the given library as detected by the library load sensor; and - indicating, by the vulnerability identifier, a particular vulnerability of the monitored process in response to a determination that the given library is vulnerable and a determination that the given API is vulnerable.
A method of measuring cavity loss of a resonant optical cavity over a range of frequencies by exciting one or a plurality of cavity modes of the cavity in a controlled manner, the cavity having at least two cavity mirrors, one of which is a cavity coupling mirror , using a laser that emits continuous wave laser light, wherein the laser is responsive to optical feedback light emerging from the cavity, and wherein a mean optical frequency of the laser is adjustable over a range of frequencies, the method comprising: coupling the laser light to the cavity via the cavity coupling mirror using mode matching optics, the cavity having a plurality of optical resonance cavity modes that have frequencies within said range of frequencies of the laser ; applying to the laser a drive current having a predetermined current profile so as to adjust the mean optical frequency of the laser and to excite desired cavity modes in an excitation order as determined based on the shape of the applied current profile; wherein the laser drive current comprises a series of current pulses, wherein an end portion of one current pulse sets the laser drive current below a laser threshold value, and wherein the current profile of the next current pulse applied to the laser includes a compensation pulse portion that drives the laser at a current level sufficient to compensate for some or all of the laser heat lost while the laser drive current was below the laser threshold value and to excite the next mode in said excitation order, such that the repetition rate of measuring events during an excitation cycle is increased; and detecting dynamics of the intra cavity optical power of light circulating in the cavity after a cavity mode has been excited. coupling the laser light to the cavity via the cavity coupling mirror using mode matching optics, the cavity having a plurality of optical resonance cavity modes that have frequencies within said range of frequencies of the laser ; applying to the laser a drive current having a predetermined current profile so as to adjust the mean optical frequency of the laser and to excite desired cavity modes in an excitation order as determined based on the shape of the applied current profile; wherein the laser drive current comprises a series of current pulses, wherein an end portion of one current pulse sets the laser drive current below a laser threshold value, and wherein the current profile of the next current pulse applied to the laser includes a compensation pulse portion that drives the laser at a current level sufficient to compensate for some or all of the laser heat lost while the laser drive current was below the laser threshold value and to excite the next mode in said excitation order, such that the repetition rate of measuring events during an excitation cycle is increased; and detecting dynamics of the intra cavity optical power of light circulating in the cavity after a cavity mode has been excited.
A method for manufacturing a cable comprising at least one elongate electrically conductive element and at least one composite layer surrounding said elongate electrically conductive element, characterized in that it comprises at least the following steps: i) impregnating a nonwoven fibrous material with a geopolymer composition, to form a tape impregnated with said geopolymer composition, ii) drying the impregnated tape obtained at step i) to form a dried impregnated tape, and iii) applying the dried impregnated tape obtained at step ii) around a cable comprising at least one elongate electrically conductive element, to form said composite layer surrounding said elongate electrically conductive element. i) impregnating a nonwoven fibrous material with a geopolymer composition, to form a tape impregnated with said geopolymer composition, ii) drying the impregnated tape obtained at step i) to form a dried impregnated tape, and iii) applying the dried impregnated tape obtained at step ii) around a cable comprising at least one elongate electrically conductive element, to form said composite layer surrounding said elongate electrically conductive element.
A method for determining, via a processor coupled to a memory, a deformation of loaded teeth , preferably to determine a static transmission error (STE), between a first and a second gear wheel (A, B) having respective geometries identifying a theoretical line of contacts (L) referred to undeformed teeth, comprising the step of calculating, for each predefined angular meshing positon between the first and the second gear wheel, a loaded position of the point of contact (E) where the load is concentrated or is the largest, such position being spaced from the line of contacts because of the deformation of meshing teeth, the calculation including an iterative cycle applied to an analytical mathematical model based on analytical formulae expressing the elastic deformation of respective meshing tooth profiles based on the position and the inclination of the concentrated load in said contact point between meshing tooth profiles, geometrical parameters of the meshing teeth and on the elastic modulus of each material of the first and the second gear wheel, wherein after the load is applied on the undeformed profile a subsequent point of contact is detected, then the load is applied to the subsequent point of contact on the undeformed profile until convergence of an appropriate condition that conducts to the final point of the load application form the first iteration, such that the position of said point of contact moving along the meshing tooth profiles between a base and a fillet of a meshing tooth because of the deformation of the meshing teeth during the iterative cycle.
A device for learning to read , comprising: a set of objects to be identified (200-N), each object to be identified (200-N) comprising an identification means ; a support element comprising N positions (110-N), for enabling predetermined positioning of an object to be identified (200-N) at a position (110-N) on the support element , analysis means , and acoustic means , for uttering an audible signal; wherein each object to be identified (200-N) is distinct from the support element , the support element further comprises N recognition means (118-N) configured to detect the presence and/or absence of an object to be identified (200-N) positioned at a position and to identify it, and the analysis means is configured to analyze the recognition signal of the support element , the recognition signal detecting the presence and/or absence of an object to be identified (200-N) on the support element , and to associate an audible signal with the sequence of n objects to be identified (200-N), where 1≤n≤N, that are positioned directly next to each other on the support element as a function of the identity and of the presence and/or absence of the n objects to be identified (200-N), such that the acoustic means utters the audible signal obtained by the analysis means for the sequence of n objects to be identified (200-N); wherein the N recognition means (118-N) each comprise electrical connection means (120-N) for establishing electrical contact with the means for identifying an object to be identified (200-N) when the object to be identified (200-N) is placed on one of the N positions (110-N). a support element comprising N positions (110-N), for enabling predetermined positioning of an object to be identified (200-N) at a position (110-N) on the support element , analysis means , and acoustic means , for uttering an audible signal; wherein each object to be identified (200-N) is distinct from the support element , the support element further comprises N recognition means (118-N) configured to detect the presence and/or absence of an object to be identified (200-N) positioned at a position and to identify it, and the analysis means is configured to analyze the recognition signal of the support element , the recognition signal detecting the presence and/or absence of an object to be identified (200-N) on the support element , and to associate an audible signal with the sequence of n objects to be identified (200-N), where 1≤n≤N, that are positioned directly next to each other on the support element as a function of the identity and of the presence and/or absence of the n objects to be identified (200-N), such that the acoustic means utters the audible signal obtained by the analysis means for the sequence of n objects to be identified (200-N); wherein the N recognition means (118-N) each comprise electrical connection means (120-N) for establishing electrical contact with the means for identifying an object to be identified (200-N) when the object to be identified (200-N) is placed on one of the N positions (110-N).
Use of a pipe for transporting chlorinated water, wherein the pipe is a biaxially oriented pipe made by a process comprising the steps of: a) forming a polymer composition comprising a polyolefin into a tube and b) stretching the tube of step a) in the axial direction and in the peripheral direction to obtain the biaxially oriented pipe. a) forming a polymer composition comprising a polyolefin into a tube and b) stretching the tube of step a) in the axial direction and in the peripheral direction to obtain the biaxially oriented pipe.