mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising: a first interface that interfaces at least one electrocardiogram monitor monitoring a patient; a memory that stores instructions, and a processor that executes the instructions, wherein, when executed by the processor, the instructions cause the apparatus to: identify a plurality of heart beats from electrocardiogram waves received via the first interface from the at least one electrocardiogram monitor; separate the plurality of heart beats into first temporal windows; extract features of the heart beats in each of the first temporal windows as first extracted features for each first temporal window; generate, based on the first extracted features, generated features across a second temporal window that includes a plurality of the first temporal windows; apply trained artificial intelligence to the generated features; predict hemodynamic instability for the patient based on applying the trained artificial intelligence to the generated features, and output an alert warning of the hemodynamic instability based on predicting the hemodynamic instability. a first interface that interfaces at least one electrocardiogram monitor monitoring a patient; a memory that stores instructions, and a processor that executes the instructions, wherein, when executed by the processor, the instructions cause the apparatus to: identify a plurality of heart beats from electrocardiogram waves received via the first interface from the at least one electrocardiogram monitor; separate the plurality of heart beats into first temporal windows; extract features of the heart beats in each of the first temporal windows as first extracted features for each first temporal window; generate, based on the first extracted features, generated features across a second temporal window that includes a plurality of the first temporal windows; apply trained artificial intelligence to the generated features; predict hemodynamic instability for the patient based on applying the trained artificial intelligence to the generated features, and output an alert warning of the hemodynamic instability based on predicting the hemodynamic instability. identify a plurality of heart beats from electrocardiogram waves received via the first interface from the at least one electrocardiogram monitor; separate the plurality of heart beats into first temporal windows; extract features of the heart beats in each of the first temporal windows as first extracted features for each first temporal window; generate, based on the first extracted features, generated features across a second temporal window that includes a plurality of the first temporal windows; apply trained artificial intelligence to the generated features; predict hemodynamic instability for the patient based on applying the trained artificial intelligence to the generated features, and output an alert warning of the hemodynamic instability based on predicting the hemodynamic instability.
A lighting device for vehicle comprising: a socket having a heat radiating fin; a light emitting unit which is provided at one end portion of the socket, and includes a light emitting element; an insulating portion which includes a resin, and is provided inside a hole provided in the socket; a power feeding terminal which has conductivity, extends inside the insulating portion, and of which one end portion protrudes from the insulating portion, and is electrically connected to the light emitting unit; and characterized by: a melting portion which is connected to an inner wall face of the hole, and connected to at least one of an end face on the light emitting unit side, and an end face on the heat radiating fin side of the insulating portion. a socket having a heat radiating fin; a light emitting unit which is provided at one end portion of the socket, and includes a light emitting element; an insulating portion which includes a resin, and is provided inside a hole provided in the socket; a power feeding terminal which has conductivity, extends inside the insulating portion, and of which one end portion protrudes from the insulating portion, and is electrically connected to the light emitting unit; and characterized by: a melting portion which is connected to an inner wall face of the hole, and connected to at least one of an end face on the light emitting unit side, and an end face on the heat radiating fin side of the insulating portion.
A method, comprising: identifying a query in a message between a first user device and a second user device within a computer-implemented messaging session; receiving one or more context signals; retrieving a plurality of automated assistants from a handler index that comprises at least one respective piece of functionality providable by each of the plurality of automated assistants; selecting, based on the query, the pieces of functionality, and the one or more context signals, an automated assistant from the plurality of automated assistants to handle the query; providing for display of an intervention request to allow the selected automated assistant to intervene in the computer-implemented messaging session; receiving authorization to allow the selected automated assistant to intervene in the computer-implemented messaging session; and in response to receiving the authorization, providing the query and the one or more context signals to the selected automated assistant to allow the selected automated assistant to respond to the query within the computer-implemented messaging session. identifying a query in a message between a first user device and a second user device within a computer-implemented messaging session; receiving one or more context signals; retrieving a plurality of automated assistants from a handler index that comprises at least one respective piece of functionality providable by each of the plurality of automated assistants; selecting, based on the query, the pieces of functionality, and the one or more context signals, an automated assistant from the plurality of automated assistants to handle the query; providing for display of an intervention request to allow the selected automated assistant to intervene in the computer-implemented messaging session; receiving authorization to allow the selected automated assistant to intervene in the computer-implemented messaging session; and in response to receiving the authorization, providing the query and the one or more context signals to the selected automated assistant to allow the selected automated assistant to respond to the query within the computer-implemented messaging session.
A TN liquid crystal panel comprising a front plate, wherein the front plate comprises a polycarbonate resin sheet, further comprising a hard resin layer with a thickness within a range of 30 to 100 μm and the pencil hardness at a laminated state measured according to JIS5600-5-4 of at least F or more, the hard resin layer being obtainable by coextrusion molding with the polycarbonate resin provided on the front surface or the back surface of the polycarbonate resin sheet, wherein the direction of the slow axis or the fast axis of the polycarbonate resin sheet is parallel or perpendicular to the transmission axis of the liquid crystal panel, and wherein the hard resin layer consists of an acryl resin, a nuclear hydrogenated resin obtainable by hydrogenating an aromatic ring of a copolymer obtainable by polymerizing at least one kind of (meth)acrylate ester monomer and at least one kind of aromatic vinyl monomer, or a modified polycarbonate resin having 2,2-bis(4-hydroxy-3-methylphenyl)propane or 2,2-bis(4-hydroxy-3-methylphenyl)cyclohexane as a main raw material monomer.
A gripping mechanism comprising: multiple gripping claws configured to grip a component (P, P1); an opening and closing device configured to move the multiple gripping claws in an opening direction in which the multiple gripping claws are spaced apart from each other and in a closing direction in which the multiple gripping claws come close to each other; and multiple strips including abutment portions configured to abut against an upper surface of the component (P, P1), wherein the strip is configured to move integrally with the gripping claw, and is configured such that the abutment portion protrudes in the closing direction with respect to a gripping surface of the gripping claw in an open state where the multiple gripping claws are spaced apart from each other, characterized in that the strip is configured such that the abutment portion is accommodated along the opening direction with respect to the gripping surface when a force in the opening direction is exerted on the abutment portion. multiple gripping claws configured to grip a component (P, P1); an opening and closing device configured to move the multiple gripping claws in an opening direction in which the multiple gripping claws are spaced apart from each other and in a closing direction in which the multiple gripping claws come close to each other; and multiple strips including abutment portions configured to abut against an upper surface of the component (P, P1), wherein the strip is configured to move integrally with the gripping claw, and is configured such that the abutment portion protrudes in the closing direction with respect to a gripping surface of the gripping claw in an open state where the multiple gripping claws are spaced apart from each other, characterized in that the strip is configured such that the abutment portion is accommodated along the opening direction with respect to the gripping surface when a force in the opening direction is exerted on the abutment portion.
Lock module for locking a lock for a motor vehicle, having a housing, a switching nut which can be connected to a locking cylinder for turning the switching nut with a key, and having a mechanism for converting a rotational movement of the switching nut into a linear movement of a driver for locking and unlocking the lock, wherein - the switching nut is mounted so as to be rotatable through the housing, wherein further - a transmission lever is provided for transmitting the rotational movement of the switching nut the driver and wherein - the transmission lever is mounted so as to be rotatable through the housing and is secured against displacement along its axis of rotation, characterised in that - an idle cycle exists between the transmission lever and the switching nut, and is able to transmit a movement of the switching nut to the driver with a delay, - the axis of rotation of the switching nut and the axis of rotation of the transmission lever comprise an angle smaller than 180°. - the switching nut is mounted so as to be rotatable through the housing, wherein further - a transmission lever is provided for transmitting the rotational movement of the switching nut the driver and wherein - the transmission lever is mounted so as to be rotatable through the housing and is secured against displacement along its axis of rotation, - an idle cycle exists between the transmission lever and the switching nut, and is able to transmit a movement of the switching nut to the driver with a delay, - the axis of rotation of the switching nut and the axis of rotation of the transmission lever comprise an angle smaller than 180°.
An endoscope comprising: an imager that comprises multiple pixels which output pixel signals, and that outputs an image signal comprising the pixel signals; an analog-digital converter that converts the image signal to digital image data in parallel data format; and a data converter that converts the digital image data to transmission data; characterized in that the data converter converts the pixel-generated digital image data based on a first rule, converts the converted digital image data to converted pixel data in serial data format, and adds a start bit and an end bit to the converted pixel data to convert the digital image data to the transmission data, wherein the multiple pixels correspond to multiple colors; one pixel corresponds to one color; the multiple pixels are aligned in a predetermined direction in the imager; the first rule alternately inverts the digital image data that are output by the multiple pixels of the same colors that are aligned in the predetermined direction. an imager that comprises multiple pixels which output pixel signals, and that outputs an image signal comprising the pixel signals; an analog-digital converter that converts the image signal to digital image data in parallel data format; and a data converter that converts the digital image data to transmission data; characterized in that the data converter converts the pixel-generated digital image data based on a first rule, converts the converted digital image data to converted pixel data in serial data format, and adds a start bit and an end bit to the converted pixel data to convert the digital image data to the transmission data, wherein the multiple pixels correspond to multiple colors; one pixel corresponds to one color; the multiple pixels are aligned in a predetermined direction in the imager; the first rule alternately inverts the digital image data that are output by the multiple pixels of the same colors that are aligned in the predetermined direction.
Method for freeze-drying injectable compositions, in particular pharmaceutical compositions, comprising: A) storing a quantity of a dispersion of an injectable composition in an aqueous dispersion medium in at least one ready-to-use vial (1;91), B) rotating the vial (1;91) at least for a period of time to form a dispersion layer at an inner surface of a circumferential wall of the vial (1;91), C) during rotating of the vial (1;91) according to step B) cooling the vial to form ice crystals at the inner surface of the circumferential wall of the vial, and D) drying the cooled composition to sublime at least a portion of the ice crystals formed in the dispersion by substantially homogeneously heating the circumferential wall of the vial (1;91), wherein during step D) use is made of at least one heat conducting means surrounding the circumferential wall of the vial (1;91) for substantially homogeneously heating the circumferential wall of the vial, characterized in that the heat conducting means are configured to engage with the vial under a bias. A) storing a quantity of a dispersion of an injectable composition in an aqueous dispersion medium in at least one ready-to-use vial (1;91), B) rotating the vial (1;91) at least for a period of time to form a dispersion layer at an inner surface of a circumferential wall of the vial (1;91), C) during rotating of the vial (1;91) according to step B) cooling the vial to form ice crystals at the inner surface of the circumferential wall of the vial, and D) drying the cooled composition to sublime at least a portion of the ice crystals formed in the dispersion by substantially homogeneously heating the circumferential wall of the vial (1;91),
Instrument cluster of a motor vehicle, comprising at least one analog indicator instrument for displaying operation-related information relating to the motor vehicle, the or each indicator instrument comprising at least one indicator and at least one scale with scaling lines and numbers associated with the or each indicator, at least one analog pointer instrument of the instrument cluster having at least one OLED display which is designed and arranged in the instrument cluster in such a way that at least one number of the at least one scale of the at least one analog indicator instrument can be displayed thereon, characterized in that the OLED display is of arcuate design and is arranged in the instrument cluster around an axis of rotation of the at least one pointer of the at least one indicator instrument, and the at least one OLED display is applied to a display area of the at least one indicator instrument arranged in the field of vision of a driver of the motor vehicle. at least one analog pointer instrument of the instrument cluster having at least one OLED display which is designed and arranged in the instrument cluster in such a way that at least one number of the at least one scale of the at least one analog indicator instrument can be displayed thereon, characterized in that the OLED display is of arcuate design and is arranged in the instrument cluster around an axis of rotation of the at least one pointer of the at least one indicator instrument, and the at least one OLED display is applied to a display area of the at least one indicator instrument arranged in the field of vision of a driver of the motor vehicle.
A method of associating Session Initiation Protocol messages with a specific application (210, 360, 370, 455) running on different user terminals, the method comprising: tagging (810, 910, 1010, 1110, 1210) a Session Initiation Protocol session (140, 240) to associate the Session Initiation Protocol session (140, 240) with the specific application (110, 210, 360, 370, 455) by modifying an existing element of Session Description Protocol parameters when negotiating the Session Description Protocol parameters of the Session Initiation Protocol session (140, 240); utilizing (830, 930, 1030) a conduit manager (310, 410) to match Session Initiation Protocol sessions (140, 240) to the specific application (110, 210, 360, 370, 455) when there are multiple applications (110, 210, 360, 370, 455) sharing a same Session Initiation Protocol session between the user terminals; and associating (860, 960, 1060, 1130, 1230) Session Initiation Protocol messages for the Session Initiation Protocol session (140, 240) with the specific application (110, 210, 360, 370, 455) according to the tag. tagging (810, 910, 1010, 1110, 1210) a Session Initiation Protocol session (140, 240) to associate the Session Initiation Protocol session (140, 240) with the specific application (110, 210, 360, 370, 455) by modifying an existing element of Session Description Protocol parameters when negotiating the Session Description Protocol parameters of the Session Initiation Protocol session (140, 240); utilizing (830, 930, 1030) a conduit manager (310, 410) to match Session Initiation Protocol sessions (140, 240) to the specific application (110, 210, 360, 370, 455) when there are multiple applications (110, 210, 360, 370, 455) sharing a same Session Initiation Protocol session between the user terminals; and associating (860, 960, 1060, 1130, 1230) Session Initiation Protocol messages for the Session Initiation Protocol session (140, 240) with the specific application (110, 210, 360, 370, 455) according to the tag.
A method of processing liquefied natural gas, comprising: passing LNG through a heat exchanger to provide heated LNG; fractionating the heated LNG into a methane-rich vapor stream and a natural gas liquids stream; passing the methane-rich vapor stream through the heat exchanger to transfer heat from the methane-rich vapor stream to the LNG passing through the heat exchanger and to provide a two-phase stream that includes a methane-rich liquid phase and a methane-rich vapor phase; separating the two-phase stream into at least a methane-rich liquid portion and a methane-rich gas portion; increasing the pressure of the methane-rich liquid portion to provide a sendout liquid stream; recovering the sendout liquid stream to provide a sales gas for delivery to a pipeline; characterised in that the LNG at a predetermined time is diverted to a diverted flow path that bypasses the fractionating to provide sales gas that includes methane and ethane plus for delivery to the pipeline, and wherein the method further comprises utilizing at least part of the methane-rich gas portion as a plant site fuel; and/or boosting the pressure of at least part of the methane-rich gas portion for delivery to the pipeline. passing LNG through a heat exchanger to provide heated LNG; fractionating the heated LNG into a methane-rich vapor stream and a natural gas liquids stream; passing the methane-rich vapor stream through the heat exchanger to transfer heat from the methane-rich vapor stream to the LNG passing through the heat exchanger and to provide a two-phase stream that includes a methane-rich liquid phase and a methane-rich vapor phase; separating the two-phase stream into at least a methane-rich liquid portion and a methane-rich gas portion; increasing the pressure of the methane-rich liquid portion to provide a sendout liquid stream; recovering the sendout liquid stream to provide a sales gas for delivery to a pipeline; characterised in that the LNG at a predetermined time is diverted to a diverted flow path that bypasses the fractionating to provide sales gas that includes methane and ethane plus for delivery to the pipeline, and wherein the method further comprises utilizing at least part of the methane-rich gas portion as a plant site fuel; and/or boosting the pressure of at least part of the methane-rich gas portion for delivery to the pipeline.
A method for implementing a network device function of a wireless communication terminal, comprising: receiving, by an apparatus for implementing the network device function of the wireless communication terminal, a socket request message which includes a control instruction and a sender of the control instruction; wherein the apparatus for implementing the network device function of the wireless communication terminal is located in a host, the host being a non-windows computing platform; parsing the received socket request message and determining the sender of the control instruction according to the sender included in the socket request message by the apparatus for implementing the network device function of the wireless communication terminal; when the sender of the control instruction is the host, then encapsulating the received control instruction into an instruction format in a Qualcomm Modem Interface, QMI, specification and forwarding the encapsulated control instruction to the wireless communication terminal by the apparatus for implementing the network device function of the wireless communication terminal; and when the sender of the control instruction is the wireless communication terminal, then encapsulating the received control instruction into the instruction format in the QMI specification and forwarding the encapsulated control instruction to the host by the apparatus for implementing the network device function of the wireless communication terminal. receiving, by an apparatus for implementing the network device function of the wireless communication terminal, a socket request message which includes a control instruction and a sender of the control instruction; wherein the apparatus for implementing the network device function of the wireless communication terminal is located in a host, the host being a non-windows computing platform; parsing the received socket request message and determining the sender of the control instruction according to the sender included in the socket request message by the apparatus for implementing the network device function of the wireless communication terminal; when the sender of the control instruction is the host, then encapsulating the received control instruction into an instruction format in a Qualcomm Modem Interface, QMI, specification and forwarding the encapsulated control instruction to the wireless communication terminal by the apparatus for implementing the network device function of the wireless communication terminal; and when the sender of the control instruction is the wireless communication terminal, then encapsulating the received control instruction into the instruction format in the QMI specification and forwarding the encapsulated control instruction to the host by the apparatus for implementing the network device function of the wireless communication terminal.