mhurhangee/patent-ind-claim-en huggingface dataset:
A navigation method of a navigation system for a vehicle, the navigation method comprising: when a navigation function is selected, inputting destination and receiver information; displaying a navigation screen to guide a user to the destination using the input information; and when a predetermined message sending condition is satisfied while operating the vehicle to the destination, displaying a user interface, UI, for receiving a user confirmation for requesting to sending a message, in response to the user confirmation for sending the message being input, sending the message to be forwarded to receiver terminal apparatus corresponding to the receiver information, wherein sending the message to be forwarded comprises sending the receiver information and the message to a user terminal apparatus which is connected to the navigation system through an interface, and the user terminal apparatus forwarding the message to the receiver terminal apparatus corresponding to the receiver information, and wherein inputting the destination and receiver information comprises: displaying a background screen comprising a navigation menu to execute the navigation function; when the navigation menu is selected, displaying a Ul screen to receive input of the destination information, message sending function setting, the receiver information, a message text, and a message sending condition; and storing information input through the UI screen. when a navigation function is selected, inputting destination and receiver information; displaying a navigation screen to guide a user to the destination using the input information; and when a predetermined message sending condition is satisfied while operating the vehicle to the destination, displaying a user interface, UI, for receiving a user confirmation for requesting to sending a message, in response to the user confirmation for sending the message being input, sending the message to be forwarded to receiver terminal apparatus corresponding to the receiver information, wherein sending the message to be forwarded comprises sending the receiver information and the message to a user terminal apparatus which is connected to the navigation system through an interface, and the user terminal apparatus forwarding the message to the receiver terminal apparatus corresponding to the receiver information, and wherein inputting the destination and receiver information comprises: displaying a background screen comprising a navigation menu to execute the navigation function; when the navigation menu is selected, displaying a Ul screen to receive input of the destination information, message sending function setting, the receiver information, a message text, and a message sending condition; and storing information input through the UI screen. displaying a background screen comprising a navigation menu to execute the navigation function; when the navigation menu is selected, displaying a Ul screen to receive input of the destination information, message sending function setting, the receiver information, a message text, and a message sending condition; and storing information input through the UI screen.
A weaving method, comprising: providing a threaded weaving loom on which a woven structure is obtained; placing a first section of a fill fiber between warp fibers ; forming a pick ; moving a base to reposition the warp fibers ; and placing a second section of the fill fiber between the warp fibers ; the method further comprising securing the warp fibers to the base ; the method characterized by : forming a first said pick ; repositioning warp fibers by moving at least one of a plurality of warp fiber arms relative to a fill fiber wand ; repositioning warp fibers by moving said base relative to the fill fiber wand ; and forming a second pick , wherein each of the warp fibers extends from one of the plurality of warp fiber arms to the base . providing a threaded weaving loom on which a woven structure is obtained; placing a first section of a fill fiber between warp fibers ; forming a pick ; moving a base to reposition the warp fibers ; and placing a second section of the fill fiber between the warp fibers ; the method further comprising forming a pick ; moving a base to reposition the warp fibers ; and placing a second section of the fill fiber between the warp fibers ; the method further comprising securing the warp fibers to the base ; the method characterized by : forming a first said pick ; repositioning warp fibers by moving at least one of a plurality of warp fiber arms relative to a fill fiber wand ; repositioning warp fibers by moving said base relative to the fill fiber wand ; and forming a second pick , wherein each of the warp fibers extends from one of the plurality of warp fiber arms to the base . forming a first said pick ; repositioning warp fibers by moving at least one of a plurality of warp fiber arms relative to a fill fiber wand ; repositioning warp fibers by moving said base relative to the fill fiber wand ; and forming a second pick , wherein each of the warp fibers extends from one of the plurality of warp fiber arms to the base .
A standby dual redundant system including two controllers, in which, when one of the controllers is adapted to operate as an active-side controller, and the other controller is adapted to operate as a standby-side controller, each controller comprising therein: - a plurality of CPUs; - a memory , the memory storing calculation routines which are performed by the CPUs and which are allocated to a CPU, respectively; - an I/O board ; - an I/O bus controller for performing transmission and reception of data among the plurality of CPUs, the memory , and the I/O board ; and - an equalization bus controller for transmitting equalization data used for equalizing device states of the active-side controller and the standby-side controller , from the active-side controller to the standby-side controller via an equalization data bus , the equalization bus controller being independent from the I/O bus controller , wherein the equalization data has an identification code and a version code of each calculation routine, and each CPU of the standby-side controller is adapted to confirm, by comparing the identification code and the version code in said equalization data with identification code and version code of each calculation routine that the standby-side controller has, the identification code and the version code in said equalization data, to execute calculations of the respective calculation routines allocated to the respective CPUs of the standby-side controller based on said equalization data. - a plurality of CPUs; - a memory , the memory storing calculation routines which are performed by the CPUs and which are allocated to a CPU, respectively; - an I/O board ; - an I/O bus controller for performing transmission and reception of data among the plurality of CPUs, the memory , and the I/O board ; and - an equalization bus controller for transmitting equalization data used for equalizing device states of the active-side controller and the standby-side controller , from the active-side controller to the standby-side controller via an equalization data bus , the equalization bus controller being independent from the I/O bus controller ,
A system for monitoring a patient's vital sign, the system comprising: a pressure-delivery system for applying a variable pressure to the patient's arm ; a pressure sensor for measuring a time-dependent pressure waveform representing the pressure applied to the patient's arm ; an optical sensor configured to attach to the patient and generate a time-dependent optical waveform representing a flow of blood within the patient ; an electrode system configured to attach to the patient and generate a time-dependent electrical waveform representing activity of the patient's heart ; and a processing component programmed to: i) determine a pulse transit time which is a measure of a separation in time of a first feature of the time-dependent electrical waveform and a second feature of the time-dependent optical waveform; ii) determine a variation in the pulse transit time as a function of the pressure applied to the patient's arm by the pressure-delivery system; iii) determine from the time- dependent pressure waveform a first value of a mean arterial pressure; and iv) determine from the pres sure-dependent variation of pulse transit time and the first value of the mean arterial pressure a relationship specifying how the mean arterial pressure varies as a function of pulse transit time, wherein the processing component is further programmed to use the relationship to determine the value of the mean arterial pressure based on a measured pulse transit time for the patient , wherein the measured pulse transit time is obtained during a pressure free phase of operation in which the pressure-delivery system applies no pressure to the patient's arm . i) determine a pulse transit time which is a measure of a separation in time of a first feature of the time-dependent electrical waveform and a second feature of the time-dependent optical waveform; ii) determine a variation in the pulse transit time as a function of the pressure applied to the patient's arm by the pressure-delivery system; iii) determine from the time- dependent pressure waveform a first value of a mean arterial pressure; and iv) determine from the pres sure-dependent variation of pulse transit time and the first value of the mean arterial pressure a relationship specifying how the mean arterial pressure varies as a function of pulse transit time,
Burner adapted to be used in a streaming engine, preferably a gas turbine, wherein the burner provides a combustion channel and a burner tip (1, 1', 1"), wherein the burner tip provides at least one longitudinal cooling fin (4', 4"), and wherein the at least one longitudinal cooling fin provides a longitudinal direction helically circling the combustion channel, wherein the burner is adapted to provide a flow direction through the combustion channel, wherein the at least one cooling fin provides an angle between the at least one cooling fin and a plane perpendicular to the flow direction being at most 50°, and wherein the at least one cooling fin provides an angle between the at least one cooling fin and a plane perpendicular to the flow direction being at least 6°, wherein the burner tip (1, 1', 1") comprises a heat shield providing the at least one cooling fin , wherein the heat shield (3', 3") is detachably connected or inseparably connected to the rest of the burner . wherein the burner provides a combustion channel and a burner tip (1, 1', 1"), wherein the burner tip provides at least one longitudinal cooling fin (4', 4"), and wherein the at least one longitudinal cooling fin provides a longitudinal direction helically circling the combustion channel, wherein the burner is adapted to provide a flow direction through the combustion channel, wherein the at least one cooling fin provides an angle between the at least one cooling fin and a plane perpendicular to the flow direction being at most 50°, and wherein the at least one cooling fin provides an angle between the at least one cooling fin and a plane perpendicular to the flow direction being at least 6°, wherein the burner tip (1, 1', 1") comprises a heat shield providing the at least one cooling fin , wherein the heat shield (3', 3") is detachably connected or inseparably connected to the rest of the burner .
A quick connector , comprising a coupling body and a multifunctional part , wherein the multifunctional part has a retainer and an indicator , wherein the coupling body comprises a head section at one end, and a plug section at the other end, wherein the plug section is designed for plugging on or in a first pipe , wherein the head section has an axial opening for introducing a counter-piece with a circumferential collar , wherein the head section comprises at least one radial opening for insertion into the multifunctional part , wherein the multifunctional part has a back for manual actuation for purposes of insertion into the coupling body , wherein the retainer comprises two retainer legs , wherein the indicator has two indicator legs , wherein the indicator legs can be moved independently of the retainer legs during the insertion of the circumferential collar , wherein the indicator legs and the coupling body are designed in such a way that the movement of the indicator leg caused by the circumferential collar can transfer the indicator from a partially inserted preassembly position into a completely inserted assembly position, wherein the retainer and the indicator are at least two separate parts, wherein the indicator is attached directly to the retainer , so that the indicator and the retainer are also attached to each other outside of the coupling body , characterized in that the quick connector is designed in such a way that the indicator is automatically also moved during insertion of the retainer . wherein the multifunctional part has a back for manual actuation for purposes of insertion into the coupling body , wherein the retainer comprises two retainer legs , wherein the indicator has two indicator legs , wherein the indicator legs can be moved independently of the retainer legs during the insertion of the circumferential collar , wherein the indicator legs and the coupling body are designed in such a way that the movement of the indicator leg caused by the circumferential collar can transfer the indicator from a partially inserted preassembly position into a completely inserted assembly position, wherein the retainer and the indicator are at least two separate parts, wherein the indicator is attached directly to the retainer , so that the indicator and the retainer are also attached to each other outside of the coupling body , characterized in that the quick connector is designed in such a way that the indicator is automatically also moved during insertion of the retainer .
A power generation control device for a hybrid vehicle comprising a first electric motor (MG1) that is mechanically coupled to drive wheels and that is mainly used for travel driving, a second electric motor (MG2) that is mechanically coupled to an internal combustion engine (ICE) and that has a smaller electric power generation capability than the first electric motor (MG1), and a battery that is electrically coupled to the first electric motor (MG1) and the second electric motor (MG2), wherein when starting the vehicle, an EV start is carried out using, as a drive source, the first electric motor (MG1) to which electric power generated in the second electric motor (MG2) and battery power are supplied, in a starting region where the vehicle speed is less than or equal to a predetermined vehicle speed, by not having a starting element that absorbs differential rotation, a power generation controller is provided, which causes power to be generated in at least one of the first electric motor (MG1) and the second electric motor (MG2) using the torque from the internal combustion engine (ICE), characterized in that when (S1) the vehicle is stopped, and (S5) the charge capacity of the battery is less than a first capacity threshold value corresponding to the electric power that is necessary for the EV start, the power generation controller carries out (S16) MG2 idle power generation, in which power is generated in the second electric motor (MG2), while not carrying out the MG1 idle power generation and keeping the first motor/generator MG1 mechanically coupled to the drive wheels , if (S11) the electric power generation capability of the second electric motor (MG2) is greater that a predetermined value, and the power generation controller disconnects the first electric motor (MG1) from the drive wheels and connects the same motor to the internal combustion engine (ICE), and carries out (S17) MG1 idle power generation, in which power is generated by the first electric motor (MG1) by receiving the torque from the internal combustion engine (ICE), if the electric power generation capability of the second electric motor (MG2) is less than or equal to the predetermined value.
A balance spring for a mechanical movement of a watch, wherein the balance spring is formed as a coil spring and has a winding cross section , characterised in that the winding cross section of the coil spring has the shape of a rhombus, wherein the rhombus has at least four sides , two first corners having a first internal angle α, two second corners having a second internal angle β, a first diagonal which connects the two first corners to each other, and a second diagonal which connects the two second corners to each other, wherein the first diagonal is shorter than the second diagonal, and wherein the first internal angle is larger than the second internal angle.
A labeling arrangement for a multi-part container , comprising - a sleeve-shaped cap element which comprises an interlocking structure on an inner surface and is designed to be applied to a first part of the container and to be coupled to an outer surface of the first part by means of the interlocking structure , and - a sealing label having a first label portion and a second label portion adjacent to the first label portion , the second label portion being designed to be fastened to a second part of the container and the first label portion being designed to surround the applied cap element related to a longitudinal axis (L) in a state when the sealing label is applied to the container , the labeling arrangement further comprising at least one severing zone , so that upon opening the container provided with the applied labeling arrangement , the labeling arrangement can be severed in the severing zone and at least one part of the cap element together with the first part of the container can be removed from the second part of the container . - a sleeve-shaped cap element which comprises an interlocking structure on an inner surface and is designed to be applied to a first part of the container and to be coupled to an outer surface of the first part by means of the interlocking structure , and - a sealing label having a first label portion and a second label portion adjacent to the first label portion , the second label portion being designed to be fastened to a second part of the container and the first label portion being designed to surround the applied cap element related to a longitudinal axis (L) in a state when the sealing label is applied to the container , the labeling arrangement further comprising at least one severing zone , so that upon opening the container provided with the applied labeling arrangement , the labeling arrangement can be severed in the severing zone and at least one part of the cap element together with the first part of the container can be removed from the second part of the container .
A non-modulated infrared sensor for a handheld halogen leak detector, comprising an infrared transmitter, an optical filter, an infrared absorption cell, an infrared receiver, a solenoid valve, an amplification filter module, an analog-digital conversion module, and a single-chip microcomputer control system; wherein the infrared transmitter and the optical filter are sequentially installed at one end of the infrared absorption cell, and the infrared receiver is installed at the other end of the infrared absorption cell; the infrared absorption cell is composed of a light source chamber, a gas chamber channel and an infrared-receiver chamber that are sealingly connected in sequence, the light source chamber and the infrared-receiver chamber are respectively provided with a gas inlet and a gas outlet, and the solenoid valve is configured to switch a gas path so that the gas inlet is communicated either with a target gas or a background gas through the solenoid valve; the infrared receiver is a single-channel detector; an infrared light source of the infrared transmitter is powered by a constant voltage power supply circuit; and the infrared receiver is connected to the single-chip microcomputer control system through the amplification filter module and the analog-digital conversion module, and the single-chip microcomputer control system is in control connection with the solenoid valve, and the single-chip microcomputer control system is configured to determine halogen leakage concentration based on signals acquired by the infrared receiver when the gas inlet is communicated with the target gas and signals acquired by the infrared receiver when the gas inlet is communicated with the background gas. the infrared absorption cell is composed of a light source chamber, a gas chamber channel and an infrared-receiver chamber that are sealingly connected in sequence, the light source chamber and the infrared-receiver chamber are respectively provided with a gas inlet and a gas outlet, and the solenoid valve is configured to switch a gas path so that the gas inlet is communicated either with a target gas or a background gas through the solenoid valve; the infrared receiver is a single-channel detector; an infrared light source of the infrared transmitter is powered by a constant voltage power supply circuit; and the infrared receiver is connected to the single-chip microcomputer control system through the amplification filter module and the analog-digital conversion module, and the single-chip microcomputer control system is in control connection with the solenoid valve, and the single-chip microcomputer control system is configured to determine halogen leakage concentration based on signals acquired by the infrared receiver when the gas inlet is communicated with the target gas and signals acquired by the infrared receiver when the gas inlet is communicated with the background gas.
Apparatus for the one-piece production of a room module having three side elements and also a floor element and/or a ceiling element , wherein the apparatus is designed as a parallelepipedal, hollow core formwork around which there can be arranged an outer formwork for the room module to be produced, which apparatus has the following features: a) a rectangular head element consisting of first planar elements and second planar elements ; b) side elements arranged perpendicularly to the head element in the edge regions thereof and consisting of third planar elements and fourth planar elements , wherein at least the third planar elements or the fourth planar elements have corner regions of the side elements ; c) the first planar elements can be lowered under the second planar elements of the head element and are displaceable with respect to one another, and subsequently the second planar elements can be pushed together to reduce the rectangular area of the head element , and d) the third planar elements and fourth planar elements , which are arranged perpendicularly to the head element , of the side elements can be moved in succession in the direction of a centre longitudinal axis of the head element or of the core formwork . a) a rectangular head element consisting of first planar elements and second planar elements ; b) side elements arranged perpendicularly to the head element in the edge regions thereof and consisting of third planar elements and fourth planar elements , wherein at least the third planar elements or the fourth planar elements have corner regions of the side elements ; c) the first planar elements can be lowered under the second planar elements of the head element and are displaceable with respect to one another, and subsequently the second planar elements can be pushed together to reduce the rectangular area of the head element , and d) the third planar elements and fourth planar elements , which are arranged perpendicularly to the head element , of the side elements can be moved in succession in the direction of a centre longitudinal axis of the head element or of the core formwork .