mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for providing distributed virtualized desktops, the method performed at a first computer including at least one processor, the method comprising: receiving user credential data from a user; determining based on the received user credential data if the first computer is a home system of the user and if the first computer is not the home system of the user; transmitting, to a management server, the user credential data and device identification data of the first computer; receiving, from the management server, an identification of the home system assigned to the user identified based on the user credential data, the home system comprising a second computer executing at least one virtual machine including a desktop; establishing communication between the first computer and the second computer using the received identification of the home system; and receiving display data from the second computer, the display data configured to generate a representation of at least a portion of the desktop on the first computer, such that the user is able to access the desktop while the at least one virtual machine on the second computer is executing; wherein the first computer and the second computer are client computers directly accessible to the user. receiving user credential data from a user; determining based on the received user credential data if the first computer is a home system of the user and if the first computer is not the home system of the user; transmitting, to a management server, the user credential data and device identification data of the first computer; receiving, from the management server, an identification of the home system assigned to the user identified based on the user credential data, the home system comprising a second computer executing at least one virtual machine including a desktop; establishing communication between the first computer and the second computer using the received identification of the home system; and receiving display data from the second computer, the display data configured to generate a representation of at least a portion of the desktop on the first computer, such that the user is able to access the desktop while the at least one virtual machine on the second computer is executing; wherein the first computer and the second computer are client computers directly accessible to the user.
A carcass band forming device for forming a cylindrical carcass band by combining a carcass ply, an inner liner, and side members, comprising: a first forming drum for forming a cylindrical carcass ply; and a second forming drum for forming a cylindrical member by forming a cylindrical inner liner and combining the cylindrical inner liner with the cylindrical carcass ply; characterized by comprising: a third forming drum for forming a carcass band by forming a cylindrical side member and combining the cylindrical side member with the cylindrical member; and a conveying device for conveying the cylindrical carcass ply from the first forming drum to the second forming drum and for conveying the cylindrical member from the second forming drum to the third forming drum, wherein the third forming drum is arranged below an arrangement space for the first forming drum and the second forming drum. a first forming drum for forming a cylindrical carcass ply; and a second forming drum for forming a cylindrical member by forming a cylindrical inner liner and combining the cylindrical inner liner with the cylindrical carcass ply; characterized by comprising: a third forming drum for forming a carcass band by forming a cylindrical side member and combining the cylindrical side member with the cylindrical member; and a conveying device for conveying the cylindrical carcass ply from the first forming drum to the second forming drum and for conveying the cylindrical member from the second forming drum to the third forming drum, wherein the third forming drum is arranged below an arrangement space for the first forming drum and the second forming drum. a third forming drum for forming a carcass band by forming a cylindrical side member and combining the cylindrical side member with the cylindrical member; and a conveying device for conveying the cylindrical carcass ply from the first forming drum to the second forming drum and for conveying the cylindrical member from the second forming drum to the third forming drum, wherein the third forming drum is arranged below an arrangement space for the first forming drum and the second forming drum.
An inspiratory flow limitation diagnosis / monitoring system comprising: a flow rate sensor configured to generate a signal representing a respiratory flow rate of a patient; and a computing device including one or more processors, the computing device configured to: extract an inspiratory portion of a breath of the patient from the respiratory flow rate signal, calculate a feature vector from the inspiratory portion, label the inspiratory portion as flow limited or not flow limited based on the feature vector, and compute a metric indicating a degree of inspiratory flow limitation of the patient from a plurality of so labelled inspiratory portions during an interval. a flow rate sensor configured to generate a signal representing a respiratory flow rate of a patient; and a computing device including one or more processors, the computing device configured to: extract an inspiratory portion of a breath of the patient from the respiratory flow rate signal, calculate a feature vector from the inspiratory portion, label the inspiratory portion as flow limited or not flow limited based on the feature vector, and extract an inspiratory portion of a breath of the patient from the respiratory flow rate signal, calculate a feature vector from the inspiratory portion, label the inspiratory portion as flow limited or not flow limited based on the feature vector, and compute a metric indicating a degree of inspiratory flow limitation of the patient from a plurality of so labelled inspiratory portions during an interval.
A state determination device (100, 200), comprising: a myopotential measurement unit (110, 202) configured to measure a myopotential of a surface of a body; and a myopotential integrated value calculation unit (120, 201) configured to calculate a myopotential integrated value by integrating, with time, the myopotential measured by the myopotential measurement unit (110, 202) for a measurement period at predetermined measurement intervals; and comprising a fatigue determination unit (130, 201) configured to determine presence/absence of fatigue of the body based on a size of the myopotential integrated value calculated by the myopotential integrated value calculation unit (120, 201), and a change amount with time of the myopotential integrated value. a myopotential measurement unit (110, 202) configured to measure a myopotential of a surface of a body; and a myopotential integrated value calculation unit (120, 201) configured to calculate a myopotential integrated value by integrating, with time, the myopotential measured by the myopotential measurement unit (110, 202) for a measurement period at predetermined measurement intervals; and comprising a fatigue determination unit (130, 201) configured to determine presence/absence of fatigue of the body based on a size of the myopotential integrated value calculated by the myopotential integrated value calculation unit (120, 201), and a change amount with time of the myopotential integrated value.
A lancet device, comprising: a housing comprising opposing lateral sides extending between a forward end and a rearward end; a shield coaxially and movably associated with the housing such that axial pressure applied by the user against the finger grip moves the housing and the shield with respect to each other from a first position in which the shield extends outwardly from the forward end of the housing to a second position in which the shield is at least partially moved within the housing, characterized in that the housing further comprises a plurality of longitudinal ribs extending along a portion of at least one of the opposing lateral sides in a direction extending along a longitudinal axis of the lancet, the plurality of longitudinal ribs forming a finger grip on the at least one of the opposing lateral sides; and in that the shield includes a plurality of peripheral indentations. a housing comprising opposing lateral sides extending between a forward end and a rearward end; a shield coaxially and movably associated with the housing such that axial pressure applied by the user against the finger grip moves the housing and the shield with respect to each other from a first position in which the shield extends outwardly from the forward end of the housing to a second position in which the shield is at least partially moved within the housing, characterized in that the housing further comprises a plurality of longitudinal ribs extending along a portion of at least one of the opposing lateral sides in a direction extending along a longitudinal axis of the lancet, the plurality of longitudinal ribs forming a finger grip on the at least one of the opposing lateral sides; and in that the shield includes a plurality of peripheral indentations.
Switchboard terminal block comprising a body with a side face, a top surface and a front side for insertion of a wire and reading of a label, provided with a seat for labels, the seat extending in a longitudinal direction (X-X), of depth of the seat, a transverse direction (Y-Y), of width of the seat, and a vertical direction (Z-Z), orthogonal to the plane of the two other directions (X-X; Y-Y), wherein said seat has a top edge and bottom edge formed in the manner of a respective tooth (21,22), each tooth forming a corresponding undercut towards the inside of the seat, wherein the terminal block comprises a relief extending in the vertical direction (Z-Z) on the front surface of the seat, and wherein the seat is open in the transverse direction (Y-Y) for insertion of the label from one side or the other, characterized in that the body has, on an end edge of its top surface, an opening for communication between the exterior and the top inner part of the seat, allowing insertion of a tool.
Audio data processor for processing packetized audio data, the audio data processor comprising: a receiver interface for receiving encoded audio data comprising audio elements (11, 12) and metadata related to the audio elements (11, 12); a metadata parser for parsing the metadata to determine an audio data manipulation possibility of the audio elements (11, 12); an interaction interface for receiving an interaction input and for generating, from the interaction input, interaction control data related to the audio data manipulation possibility for manipulating the audio elements (11, 12) externally from a decoder; wherein from the interaction interface a user can select and manipulate the audio elements (11, 12) to adapt the audio presentation to his personal preferences; and a data stream generator for obtaining the interaction control data and the encoded audio data and the metadata and for generating an output data stream, the output data stream being again a valid encoded audio stream comprising the still encoded audio data, the metadata, and the added interaction control data. a receiver interface for receiving encoded audio data comprising audio elements (11, 12) and metadata related to the audio elements (11, 12); a metadata parser for parsing the metadata to determine an audio data manipulation possibility of the audio elements (11, 12); an interaction interface for receiving an interaction input and for generating, from the interaction input, interaction control data related to the audio data manipulation possibility for manipulating the audio elements (11, 12) externally from a decoder; wherein from the interaction interface a user can select and manipulate the audio elements (11, 12) to adapt the audio presentation to his personal preferences; and a data stream generator for obtaining the interaction control data and the encoded audio data and the metadata and for generating an output data stream, the output data stream being again a valid encoded audio stream comprising the still encoded audio data, the metadata, and the added interaction control data.
A power harvesting circuit, comprising: a first antenna having a first terminal coupled to a summing node through an input capacitor, and a second terminal, the second terminal coupled to the summing node through a first diode; characterized in that the power harvesting circuit further comprises: a second antenna having a first terminal coupled to the second terminal of the first antenna and a second terminal coupled to an interconnection between the input capacitor and the summing node through a second diode, wherein the summing node is coupled to an output node through an output diode, wherein an output capacitor is provided at the output node; wherein said second terminal of the second antenna is adapted to provide a signal in opposite phase with a signal provided at the first terminal of the first antenna. a second antenna having a first terminal coupled to the second terminal of the first antenna and a second terminal coupled to an interconnection between the input capacitor and the summing node through a second diode, wherein the summing node is coupled to an output node through an output diode, wherein an output capacitor is provided at the output node; wherein said second terminal of the second antenna is adapted to provide a signal in opposite phase with a signal provided at the first terminal of the first antenna.
Crystalline form of 6-per-deoxy-6-per-chloro-γ-cyclodextrin of formula I, wherein said form is form I with XRPD peaks at an angle of refraction 2 theta (θ) of 4.1, 5.8, 8.2, 16.8, 23.5 ± 0.2 degrees, or wherein said form is form II with XRPD peaks at an angle of refraction 2 theta (θ) of 6.4, 11.1, 11.5, 16.1, 16.9 ± 0.2 degrees, or wherein said form is form III with XRPD peaks at an angle of refraction 2 theta (θ) of 7.5, 15.6, 15.9, 16.6, 17.2 ± 0.2 degrees. wherein said form is form I with XRPD peaks at an angle of refraction 2 theta (θ) of 4.1, 5.8, 8.2, 16.8, 23.5 ± 0.2 degrees, or wherein said form is form II with XRPD peaks at an angle of refraction 2 theta (θ) of 6.4, 11.1, 11.5, 16.1, 16.9 ± 0.2 degrees, or wherein said form is form III with XRPD peaks at an angle of refraction 2 theta (θ) of 7.5, 15.6, 15.9, 16.6, 17.2 ± 0.2 degrees.
A power management method, applied in an electronic device charged by a power adapter via a charging cable, and comprising: determining a temperature of a charging interface, wherein the charging interface comprises at least one of an interface of the power adapter for electric connection with the charging cable, an interface of the charging cable for electric connection with the power adapter, an interface of the charging cable for electric connection with the electronic device, and an interface of the electronic device for electric connection with the charging cable; and managing power of the electronic device according to the temperature of the charging interface, wherein, determining the temperature of the charging interface comprises: determining a temperature of a contact plate in the charging interface by at least two temperature measurement elements disposed in the charging interface; and characterized in that, each temperature measurement element and the corresponding contact plate are disposed on a same thermal conductive substrate, different temperature measurement elements are disposed on different thermal conductive substrates, there is a one-to-one correspondence between the contact plate and the temperature measurement element, the temperature measurement element has a preset spacing with the contact plate, and an insulating thermal conductive layer is disposed between the contact plate corresponding to the temperature measurement element and the thermal conductive substrate. determining a temperature of a charging interface, wherein the charging interface comprises at least one of an interface of the power adapter for electric connection with the charging cable, an interface of the charging cable for electric connection with the power adapter, an interface of the charging cable for electric connection with the electronic device, and an interface of the electronic device for electric connection with the charging cable; and managing power of the electronic device according to the temperature of the charging interface, wherein, determining the temperature of the charging interface comprises: determining a temperature of a contact plate in the charging interface by at least two temperature measurement elements disposed in the charging interface; and characterized in that, each temperature measurement element and the corresponding contact plate are disposed on a same thermal conductive substrate, different temperature measurement elements are disposed on different thermal conductive substrates, there is a one-to-one correspondence between the contact plate and the temperature measurement element, the temperature measurement element has a preset spacing with the contact plate, and an insulating thermal conductive layer is disposed between the contact plate corresponding to the temperature measurement element and the thermal conductive substrate.
Computer system, including - at least two power supply units (1A, 1B, 1c) formed as power supplies each having a converter circuit (4A, 4B) for generating an output-side operating voltage from at least one input side mains AC voltage, - at least one power-consuming component which can be operated in at least one normal operating mode with a first power consumption and can be operated in a restricted operating mode with at least one second power consumption, which is lower than the first power consumption, wherein the power-consuming component is electrically coupled to the at least two power supply units (1A, 1B, 1C), - control means, which are coupled to the at least two power supply units and to the power-consuming component and are set up to monitor the function of the at least two power supply units (1A, 1B, 1C) and to switch the power-consuming component from the normal operating mode into the restricted operating mode immediately upon failure of at least one power supply unit to effect an almost immediate power reduction; and - at least one management component, which is coupled to the control means and is set up to signal a fault state when at least one power supply component (1B, 1C) fails, wherein the management component is set up to subsequently change a configuration of the computer system upon signaling the fault state in order to reduce a power consumption of the computer system. - at least two power supply units (1A, 1B, 1c) formed as power supplies each having a converter circuit (4A, 4B) for generating an output-side operating voltage from at least one input side mains AC voltage, - at least one power-consuming component which can be operated in at least one normal operating mode with a first power consumption and can be operated in a restricted operating mode with at least one second power consumption, which is lower than the first power consumption, wherein the power-consuming component is electrically coupled to the at least two power supply units (1A, 1B, 1C), - control means, which are coupled to the at least two power supply units and to the power-consuming component and are set up to monitor the function of the at least two power supply units (1A, 1B, 1C) and to switch the power-consuming component from the normal operating mode into the restricted operating mode immediately upon failure of at least one power supply unit to effect an almost immediate power reduction; and - at least one management component, which is coupled to the control means and is set up to signal a fault state when at least one power supply component (1B, 1C) fails, wherein the management component is set up to subsequently change a configuration of the computer system upon signaling the fault state in order to reduce a power consumption of the computer system.
An apparatus for generating a three-dimensional object, the apparatus comprising: an energy source to apply energy to a layer of build material to cause a first portion of the layer to coalesce and solidify; and an agent distributor (202, 206) to selectively deliver a cooling agent onto a second portion of a layer of build material; and a controller to: control the energy source to apply energy to the layer to cause the first portion to coalesce and solidify in a first pattern; and determine a temperature distribution of the build material; and, control the agent distributor (202, 206) to selectively deliver the cooling agent onto the second portion of the layer in a second pattern based on the temperature distribution, the first and second patterns being independent of each other. an energy source to apply energy to a layer of build material to cause a first portion of the layer to coalesce and solidify; and an agent distributor (202, 206) to selectively deliver a cooling agent onto a second portion of a layer of build material; and a controller to: control the energy source to apply energy to the layer to cause the first portion to coalesce and solidify in a first pattern; and determine a temperature distribution of the build material; and, control the energy source to apply energy to the layer to cause the first portion to coalesce and solidify in a first pattern; and determine a temperature distribution of the build material; and, control the agent distributor (202, 206) to selectively deliver the cooling agent onto the second portion of the layer in a second pattern based on the temperature distribution, the first and second patterns being independent of each other.
A device (100, 200, 400, 500, 500) for preparing food, the device comprising: a container (102, 202, 402, 512, 602) including a cavity configured to store at least one food ingredient, wherein the cavity defines an internal volume of the container; a first plate (104, 204, 404) coupled to a first end of the container, wherein the first plate includes at least one hole (105, 205, 405) configured to receive the at least one food ingredient; a second plate coupled to a second end of the container; a mixing device (300, 301, 608) coupled to the first plate, wherein the mixing device is configured to mix the at least one food ingredient in the internal volume of the container, the mixing device comprising a mixing blade (304, 312); and a heat transfer device (110, 210) coupled to the container, wherein the heat transfer device is configured to exchange thermal energy with the internal volume of the container; characterized in that: the mixing blade is configured to move between the first plate and the second plate while mixing the at least one food ingredient. a container (102, 202, 402, 512, 602) including a cavity configured to store at least one food ingredient, wherein the cavity defines an internal volume of the container; a first plate (104, 204, 404) coupled to a first end of the container, wherein the first plate includes at least one hole (105, 205, 405) configured to receive the at least one food ingredient; a second plate coupled to a second end of the container; a mixing device (300, 301, 608) coupled to the first plate, wherein the mixing device is configured to mix the at least one food ingredient in the internal volume of the container, the mixing device comprising a mixing blade (304, 312); and a heat transfer device (110, 210) coupled to the container, wherein the heat transfer device is configured to exchange thermal energy with the internal volume of the container; characterized in that: the mixing blade is configured to move between the first plate and the second plate while mixing the at least one food ingredient. the mixing blade is configured to move between the first plate and the second plate while mixing the at least one food ingredient.