mhurhangee/patent-ind-claim-en huggingface dataset:
A method of refurbishing an existing sash window comprising an existing parting bead and sashes formed of timber for sliding relative to a window frame within an existing sash box, wherein each sash has a respective outer perimeter defined by the outside of the timber forming said sash and facing the window frame; the method comprising the steps of: providing first compressible foam seals within respective grooves in each side of said respective outer perimeter of each sash ; removing the existing parting bead and providing a replacement parting bead that fits the existing sash box, wherein a second compressible foam seal is provided within a channel of the replacement parting bead to compensate for any misshaping of the existing sash box , wherein the first compressible foam seals are flipper seals and wherein the second compressible foam seal is a bubble seal, wherein the choice of thickness of the replacement parting bead and the choice of bubble seal aids efficiency in the movement in relation to the front to back of the existing sash box. providing first compressible foam seals within respective grooves in each side of said respective outer perimeter of each sash ; removing the existing parting bead and providing a replacement parting bead that fits the existing sash box, wherein a second compressible foam seal is provided within a channel of the replacement parting bead to compensate for any misshaping of the existing sash box , wherein the first compressible foam seals are flipper seals and wherein the second compressible foam seal is a bubble seal, wherein the choice of thickness of the replacement parting bead and the choice of bubble seal aids efficiency in the movement in relation to the front to back of the existing sash box.
A method for operating an electrically drivable vehicle , comprising: - determining whether, during a journey, the vehicle is in a first mode in which it is connected to an external electrical power source or in a second mode in which it is not connected to the external electrical power source; - setting a respective first value for a threshold value and/or a setpoint value of at least one parameter (T, c, p) of at least one subsystem of the vehicle when the vehicle is in the first mode, and setting a respective second value for the threshold value and/or the setpoint value which differs from the first value for the threshold value and/or the setpoint value when the vehicle is in the second mode, wherein the at least one subsystem comprises an interior space and/or a pressure reservoir , and wherein the threshold value and/or the setpoint value are set such that in the first mode more electrical energy can be used to create in the pressure reservoir and/or in the interior space for the second mode a corresponding buffer which can be used for a respective reduction of an energy demand in the second mode ; and - controlling or regulating the at least one parameter (T, c, p) while driving using the threshold value of the at least one parameter (T, c, p) and/or the setpoint value of the at least one parameter (T, c, p). - determining whether, during a journey, the vehicle is in a first mode in which it is connected to an external electrical power source or in a second mode in which it is not connected to the external electrical power source; - setting a respective first value for a threshold value and/or a setpoint value of at least one parameter (T, c, p) of at least one subsystem of the vehicle when the vehicle is in the first mode, and setting a respective second value for the threshold value and/or the setpoint value which differs from the first value for the threshold value and/or the setpoint value when the vehicle is in the second mode, wherein the at least one subsystem comprises an interior space and/or a pressure reservoir , and wherein the threshold value and/or the setpoint value are set such that in the first mode more electrical energy can be used to create in the pressure reservoir and/or in the interior space for the second mode a corresponding buffer which can be used for a respective reduction of an energy demand in the second mode ; and - controlling or regulating the at least one parameter (T, c, p) while driving using the threshold value of the at least one parameter (T, c, p) and/or the setpoint value of the at least one parameter (T, c, p).
A cooling head for cooling a heat source with a working medium, the cooling head being connectable with a heat exchanger configured to cool down the working medium, the cooling head comprising: a casing ; a base configured to be in contact with the heat source in order to absorb the heat generated from the heat source and to transfer the heat to the working medium, wherein an active space is defined by the base and the casing collaboratively and the active space is configured to be filled with the working medium; and a pump installed in the casing and comprising an impeller , wherein the impeller is disposed within the active space and comprises a seat part and a hollow part , wherein the seat part divides the active space into a heat-absorbing space (51 in which the heat absorbed by the base is transferred to the working medium, and a drainage space , and wherein the hollow part is configured to fluidly couple the heat-absorbing space and the drainage space and this in a way that, when the impeller is driven, the working medium is transferred from the heat-absorbing space to the drainage space through the hollow part , characterized in that the seat part side which is directly in contact with the heat-absorbing space is directly facing the base . a casing ; a base configured to be in contact with the heat source in order to absorb the heat generated from the heat source and to transfer the heat to the working medium, wherein an active space is defined by the base and the casing collaboratively and the active space is configured to be filled with the working medium; and a pump installed in the casing and comprising an impeller , wherein the impeller is disposed within the active space and comprises a seat part and a hollow part , wherein the seat part divides the active space into a heat-absorbing space (51 in which the heat absorbed by the base is transferred to the working medium, and a drainage space , and wherein the hollow part is configured to fluidly couple the heat-absorbing space and the drainage space and this in a way that, when the impeller is driven, the working medium is transferred from the heat-absorbing space to the drainage space through the hollow part , characterized in that the seat part side which is directly in contact with the heat-absorbing space is directly facing the base .
A computing device comprising: one or more processing units; and one or more computer-readable media comprising computer-executable instructions which, when executed by the one or more processing units, cause the computing device to: obtain annotated source code , portions of which are identified as protected functionality; modify a call to a protected function, defined by the identified portions, to marshal parameters provided as part of the call to the protected function prior to the modification; modify one or more references to an instruction pointer or a program counter within the identified portions to be position-independent; compile the annotated source code such that the identified portions are compiled into one or more protected modules ; and identify the one or more protected modules as being executable only within an enclave. one or more processing units; and one or more computer-readable media comprising computer-executable instructions which, when executed by the one or more processing units, cause the computing device to: obtain annotated source code , portions of which are identified as protected functionality; modify a call to a protected function, defined by the identified portions, to marshal parameters provided as part of the call to the protected function prior to the modification; modify one or more references to an instruction pointer or a program counter within the identified portions to be position-independent; compile the annotated source code such that the identified portions are compiled into one or more protected modules ; and identify the one or more protected modules as being executable only within an enclave. obtain annotated source code , portions of which are identified as protected functionality; modify a call to a protected function, defined by the identified portions, to marshal parameters provided as part of the call to the protected function prior to the modification; modify one or more references to an instruction pointer or a program counter within the identified portions to be position-independent; compile the annotated source code such that the identified portions are compiled into one or more protected modules ; and identify the one or more protected modules as being executable only within an enclave.
An image transmitting device to be mounted on a vehicle , the image transmitting device comprising: a checking unit configured to check communicability with an external device outside of the vehicle ; a providing unit configured to provide notification information based on a result of the checking by the checking unit ; a capturing unit configured to capture an image; and a transmitting unit configured to transmit the image captured by the capturing unit to the external device ; characterized in that the checking unit is configured to perform the checking by measuring, at a parking place of the vehicle , reception electric field intensity of radio waves from the external device ; and the image transmitting device further comprises a positioning unit configured to measure a position of the vehicle , wherein the checking unit is further configured to examine communicability with the external device by measuring reception electric field intensity of radio waves from the external device , at a place other than the parking place of the vehicle , and the providing unit is further configured to provide information based on a result of the examining, when a result of the checking shows that the communicability is denied, the information indicating a position which is within a predetermined distance range from the parking place of the vehicle and where communication with the external device is possible. a checking unit configured to check communicability with an external device outside of the vehicle ; a providing unit configured to provide notification information based on a result of the checking by the checking unit ; a capturing unit configured to capture an image; and a transmitting unit configured to transmit the image captured by the capturing unit to the external device ; characterized in that the checking unit is configured to perform the checking by measuring, at a parking place of the vehicle , reception electric field intensity of radio waves from the external device ; and the image transmitting device further comprises a positioning unit configured to measure a position of the vehicle , wherein the checking unit is further configured to examine communicability with the external device by measuring reception electric field intensity of radio waves from the external device , at a place other than the parking place of the vehicle , and the providing unit is further configured to provide information based on a result of the examining, when a result of the checking shows that the communicability is denied, the information indicating a position which is within a predetermined distance range from the parking place of the vehicle and where communication with the external device is possible.
A safety cabinet, in particular fire protection cabinet for accommodating hazardous substances, preferably battery cabinet for accommodating and storing high-power batteries such as lithium ion batteries, having a cabinet body as well as at least one swing door connected to the cabinet body , further having at least one locking element on the swing door and/or on the cabinet body , and having at least one fuse , in particular safety fuse , wherein the safety fuse holds the locking element , which is configured as a clipping element not accessible from the outside, in the unlocked position and releases it only in the event of fire to adopt its locked position, characterized in that two fuses are provided, which are arranged in series and are connected to one another by means of a connecting element , wherein at least one of the two fuses is placed in the interior of the cabinet.
A method for producing a diol having a cyclic acetal skeleton, comprising: an acetalization reaction step of subjecting a raw material hydroxypivalaldehyde and at least pentaerythritol and/or trimethylolpropane to an acetalization reaction under an acid catalyst to obtain the diol having the cyclic acetal skeleton, the raw material hydroxypivalaldehyde comprises at least one impurity selected from the group consisting of formaldehyde, neopentyl glycol, an ester compound having a neopentyl glycol skeleton represented by following formula (III), and isobutyraldehyde, wherein R represents a hydrocarbon group having 1 to 4 carbon atoms, a hydrocarbon group having a hydroxy group and having 1 to 4 carbon atoms, or a hydrogen atom, and when the impurity is comprised, a content of the formaldehyde is 0.80% by mass or less based on 100% by mass of the raw material hydroxypivalaldehyde; a total molar concentration of the neopentyl glycol and/or the ester compound having a neopentyl glycol skeleton is 0.100 mol/kg or less based on a total amount of the raw material hydroxypivalaldehyde; and a content of the isobutyraldehyde is 0.05% by mass or less based on 100% by mass of the raw material hydroxypivalaldehyde. an acetalization reaction step of subjecting a raw material hydroxypivalaldehyde and at least pentaerythritol and/or trimethylolpropane to an acetalization reaction under an acid catalyst to obtain the diol having the cyclic acetal skeleton, the raw material hydroxypivalaldehyde comprises at least one impurity selected from the group consisting of formaldehyde, neopentyl glycol, an ester compound having a neopentyl glycol skeleton represented by following formula (III), and isobutyraldehyde, wherein R represents a hydrocarbon group having 1 to 4 carbon atoms, a hydrocarbon group having a hydroxy group and having 1 to 4 carbon atoms, or a hydrogen atom, and when the impurity is comprised, a content of the formaldehyde is 0.80% by mass or less based on 100% by mass of the raw material hydroxypivalaldehyde; a total molar concentration of the neopentyl glycol and/or the ester compound having a neopentyl glycol skeleton is 0.100 mol/kg or less based on a total amount of the raw material hydroxypivalaldehyde; and a content of the isobutyraldehyde is 0.05% by mass or less based on 100% by mass of the raw material hydroxypivalaldehyde. wherein R represents a hydrocarbon group having 1 to 4 carbon atoms, a hydrocarbon group having a hydroxy group and having 1 to 4 carbon atoms, or a hydrogen atom, and when the impurity is comprised, a content of the formaldehyde is 0.80% by mass or less based on 100% by mass of the raw material hydroxypivalaldehyde; a total molar concentration of the neopentyl glycol and/or the ester compound having a neopentyl glycol skeleton is 0.100 mol/kg or less based on a total amount of the raw material hydroxypivalaldehyde; and a content of the isobutyraldehyde is 0.05% by mass or less based on 100% by mass of the raw material hydroxypivalaldehyde.
A surgical device comprising: a handle ; a rotatable assembly coupled to the handle , wherein the rotatable assembly is rotatable with respect to the handle ; a switch coupled to the handle , wherein the switch has a plurality of positions; a first inductor coupled to the handle and coupled to the switch ; and characterised by a second inductor coupled to the rotatable assembly such that the second inductor is rotatable relative to the first inductor , wherein at least one of the first inductor , the second inductor , or the switch is configured such that at least one of a current signal propagating through the first inductor or a current signal propagating through the second inductor changes based on a position of the switch . a handle ; a rotatable assembly coupled to the handle , wherein the rotatable assembly is rotatable with respect to the handle ; a switch coupled to the handle , wherein the switch has a plurality of positions; a first inductor coupled to the handle and coupled to the switch ; and characterised by a second inductor coupled to the rotatable assembly such that the second inductor is rotatable relative to the first inductor , wherein at least one of the first inductor , the second inductor , or the switch is configured such that at least one of a current signal propagating through the first inductor or a current signal propagating through the second inductor changes based on a position of the switch .
A device for clustering light spots, wherein the light spots are spots of headlights and tail lights of vehicles, the device is configured to receive more than one image captured by a camera , detect light spots in the images , calculate a distance measure for each of a plurality of pairs of light spots detected in the images , wherein the distance measure for each pair of light spots is calculated on the basis of two or more features of the two light spots of the respective pair, and group the detected light spots to clusters based on the calculated distance measures, characterized by the distance measure for a respective pair of light spots and for a feature i being a function of f i − μ i σ i 2 , wherein f i is the value of the feature i for the two light spots of the respective pair, μ i is a mean value of f i for a plurality of pairs of light spots and σ i is a standard deviation value of f i for the plurality of pairs of light spots, two light spots forming a new cluster in an initial frame when clusters have not been formed yet if their distance measure is below a predetermined threshold T 2 , and a third light spot being assigned to the cluster if its distance measure to at least one of the two light spots of the cluster is below the predetermined threshold T 2 . wherein the light spots are spots of headlights and tail lights of vehicles, the device is configured to receive more than one image captured by a camera , detect light spots in the images , calculate a distance measure for each of a plurality of pairs of light spots detected in the images , wherein the distance measure for each pair of light spots is calculated on the basis of two or more features of the two light spots of the respective pair, and group the detected light spots to clusters based on the calculated distance measures, characterized by the distance measure for a respective pair of light spots and for a feature i being a function of f i − μ i σ i 2 , wherein f i is the value of the feature i for the two light spots of the respective pair, μ i is a mean value of f i for a plurality of pairs of light spots and σ i is a standard deviation value of f i for the plurality of pairs of light spots, two light spots forming a new cluster in an initial frame when clusters have not been formed yet if their distance measure is below a predetermined threshold T 2 , and a third light spot being assigned to the cluster if its distance measure to at least one of the two light spots of the cluster is below the predetermined threshold T 2 .
An inhaler for delivery of a medicament by inhalation, the inhaler comprising: an inhaler body for receiving a canister having a dispensing valve ; a drive mechanism comprising a biasing means and a moving component, the drive mechanism for driving the canister , when received in the inhaler body , from a rest position in which the valve is closed to at least an actuating position in which the valve is open, the drive mechanism driving the canister when the biasing means is released from a loaded configuration to move the moving component from a first position to a second position; a resetting mechanism for resetting the drive mechanism by moving the moving component from the second position to the first position and reloading the biasing means to the loaded configuration; and a return mechanism for returning the canister from the actuating position to the rest position comprising a damping system , the damping system configured to enable the canister to automatically return from the actuating position to the rest position within a predetermined time period measured from the release of the biasing means from the loaded configuration; characterized in that the damping system is configured such that the predetermined time period comprises a first time segment and a second time segment, wherein movement of the canister from the actuating position to the rest position is slower during the first time segment than during the second time segment. an inhaler body for receiving a canister having a dispensing valve ; a drive mechanism comprising a biasing means and a moving component, the drive mechanism for driving the canister , when received in the inhaler body , from a rest position in which the valve is closed to at least an actuating position in which the valve is open, the drive mechanism driving the canister when the biasing means is released from a loaded configuration to move the moving component from a first position to a second position; a resetting mechanism for resetting the drive mechanism by moving the moving component from the second position to the first position and reloading the biasing means to the loaded configuration; and a return mechanism for returning the canister from the actuating position to the rest position comprising a damping system , the damping system configured to enable the canister to automatically return from the actuating position to the rest position within a predetermined time period measured from the release of the biasing means from the loaded configuration;