mhurhangee/patent-ind-claim-en huggingface dataset:
A smoke detector comprising: a first light emitting device , which is a LED configured to emit a light beam of a long wavelength; a second light emitting device , which is a LED configured to emit a light beam of a short wavelength; a long wavelength light emission driving circuit configured to drive the first light emitting device ; a short wavelength light emission driving circuit configured to drive the second light emitting device ; a long wavelength light receiving device and a short wavelength light receiving device configured to receive, at a different scattering angle for each light beam of the respective wavelengths, scattered light generated due to the light beams emitted simultaneously from the respective light emitting devices impinging on smoke, a first detection processing section configured to set a first driving condition configured to make the light emitting devices simultaneously emit light with a light emission current of the same current value, characterised by a second detection processing section configured to set a second driving condition configured to make the light emitting devices simultaneously emit light, wherein a light emission current of at least one of the light emitting devices is changed so that the light emission current is different from that of the other light emitting device, and a smoke type determination section configured to determine whether the smoke is smoke of a large particle diameter or smoke of a small particle diameter based on the reception signals from each light receiving device in each driving condition. a first light emitting device , which is a LED configured to emit a light beam of a long wavelength; a second light emitting device , which is a LED configured to emit a light beam of a short wavelength; a long wavelength light emission driving circuit configured to drive the first light emitting device ; a short wavelength light emission driving circuit configured to drive the second light emitting device ; a long wavelength light receiving device and a short wavelength light receiving device configured to receive, at a different scattering angle for each light beam of the respective wavelengths, scattered light generated due to the light beams emitted simultaneously from the respective light emitting devices impinging on smoke, a first detection processing section configured to set a first driving condition configured to make the light emitting devices simultaneously emit light with a light emission current of the same current value, characterised by a second detection processing section configured to set a second driving condition configured to make the light emitting devices simultaneously emit light, wherein a light emission current of at least one of the light emitting devices is changed so that the light emission current is different from that of the other light emitting device, and a smoke type determination section configured to determine whether the smoke is smoke of a large particle diameter or smoke of a small particle diameter based on the reception signals from each light receiving device in each driving condition.
A connector assembly comprising a mating connector and a connector which is configured to be mounted on an object, wherein: the mating connector is mateable from above with the connector which is positioned below the mating connector in an up-down direction; the mating connector comprises a mating housing and a mating terminal ; the mating housing holds the mating terminal; the connector comprises a housing and a terminal ; the housing holds the terminal; the terminal has a fixed portion , a held portion , a coupling portion , a supporting portion and a contact point ; the fixed portion is configured to be fixed to the object; the held portion is held by the housing; the supporting portion extends from the held portion and is resiliently deformable; the contact point is supported by the supporting portion and the contact point is brought into contact with the mating terminal under the mated state; the connector assembly being characterized by : the coupling portion couples the fixed portion and the held portion with each other; the coupling portion has a receiving portion; the supporting portion has an abutment portion ; the abutment portion is positioned above the receiving portion in the up-down direction; the abutment portion is in contact with the receiving portion under a mated state where the connector and the mating connector are mated with each other. the mating connector is mateable from above with the connector which is positioned below the mating connector in an up-down direction; the mating connector comprises a mating housing and a mating terminal ; the mating housing holds the mating terminal; the connector comprises a housing and a terminal ; the housing holds the terminal; the terminal has a fixed portion , a held portion , a coupling portion , a supporting portion and a contact point ; the fixed portion is configured to be fixed to the object; the held portion is held by the housing; the supporting portion extends from the held portion and is resiliently deformable; the contact point is supported by the supporting portion and the contact point is brought into contact with the mating terminal under the mated state; the connector assembly being characterized by : the coupling portion couples the fixed portion and the held portion with each other; the coupling portion has a receiving portion; the supporting portion has an abutment portion ; the abutment portion is positioned above the receiving portion in the up-down direction; the abutment portion is in contact with the receiving portion under a mated state where the connector and the mating connector are mated with each other. the coupling portion couples the fixed portion and the held portion with each other; the coupling portion has a receiving portion; the supporting portion has an abutment portion ; the abutment portion is positioned above the receiving portion in the up-down direction; the abutment portion is in contact with the receiving portion under a mated state where the connector and the mating connector are mated with each other.
A method, comprising: providing a device comprising: an upstream channel portion containing a first fluid ; a downstream channel portion containing a second fluid different from the first fluid; a vent valve positioned between the upstream and downstream channel portions; while the first and second fluids are in fluid communication with one another, flowing the second fluid in the downstream channel portion without flowing the first fluid by applying a pressure gradient when the vent valve is in the open position; and flowing the first fluid from the upstream channel portion to the downstream channel portion after the flowing of the second fluid by applying a pressure gradient when the vent valve is in the closed position. providing a device comprising: an upstream channel portion containing a first fluid ; a downstream channel portion containing a second fluid different from the first fluid; a vent valve positioned between the upstream and downstream channel portions; an upstream channel portion containing a first fluid ; a downstream channel portion containing a second fluid different from the first fluid; a vent valve positioned between the upstream and downstream channel portions; while the first and second fluids are in fluid communication with one another, flowing the second fluid in the downstream channel portion without flowing the first fluid by applying a pressure gradient when the vent valve is in the open position; and flowing the first fluid from the upstream channel portion to the downstream channel portion after the flowing of the second fluid by applying a pressure gradient when the vent valve is in the closed position.
A LiDAR transceiver comprising an imaging component for receiving light, and a photonic integrated circuit, PIC, transmitter , the imaging component comprising: a photonic integrated circuit, PIC, receiver, a slab , a wedge , and a lens , wherein the wedge has a front surface and an opposing back surface and the imaging component is arranged to define a receiving optical path through the front surface of the wedge, the receiving optical path continuing through the wedge and through the slab to the PIC receiver, the lens being configured to focus light of the receiving optical path onto the PIC receiver; and the transceiver arranged to define a transmitting optical path from the transmitter , through the wedge and through the front surface of the wedge, wherein the wedge comprises a transmitting window through which the transmitting optical path passes, the transmitting window having optical characteristics configured to allow light to enter the wedge at the back surface , pass through the wedge and exit the wedge at the front surface . transmitter , the imaging component comprising: a photonic integrated circuit, PIC, receiver, a slab , a wedge , and a lens , wherein the wedge has a front surface and an opposing back surface and the imaging component is arranged to define a receiving optical path through the front surface of the wedge, the receiving optical path continuing through the wedge and through the slab to the PIC receiver, the lens being configured to focus light of the receiving optical path onto the PIC receiver; and the transceiver arranged to define a transmitting optical path from the transmitter , through the wedge and through the front surface of the wedge, wherein the wedge comprises a transmitting window through which the transmitting optical path passes, the transmitting window having optical characteristics configured to allow light to enter the wedge at the back surface , pass through the wedge and exit the wedge at the front surface . a photonic integrated circuit, PIC, receiver, a slab , a wedge , and a lens , wherein the wedge has a front surface and an opposing back surface and the imaging component is arranged to define a receiving optical path through the front surface of the wedge, the receiving optical path continuing through the wedge and through the slab to the PIC receiver, the lens being configured to focus light of the receiving optical path onto the PIC receiver; and the transceiver arranged to define a transmitting optical path from the transmitter , through the wedge and through the front surface of the wedge, wherein the wedge comprises a transmitting window through which the transmitting optical path passes, the transmitting window having optical characteristics configured to allow light to enter the wedge at the back surface , pass through the wedge and exit the wedge at the front surface .
A method for cooling a consumer using liquid nitrogen, which is conducted in a circuit, cooled by indirect heat exchange with cooled liquid nitrogen and subjected to heat exchange with the consumer, wherein - the cooled liquid nitrogen used for cooling the liquid nitrogen conducted into the circuit is cooled in a first portion in an open cooling system by pressure reduction and the removal of nitrogen vapor that forms and in a second portion in a closed cooling system using one or more cooling machines, - the open cooling system and the closed cooling system are used for cooling a current conduit having a first end and a second end, wherein the open cooling system is arranged at the first end of the current conduit and the closed cooling system is arranged at the second end of the current conduit , characterized in that - cooling power is provided to a first time period in a first, lower total cooling power quantity and in a second time period in a second, higher total cooling power quantity, wherein a first portion of the total cooling power quantity is provided by means of the open cooling system , and a second portion of the total cooling power quantity is provided by means of the closed cooling system , and the first portion is set to a lower value in the first time period than in the second time period. - the cooled liquid nitrogen used for cooling the liquid nitrogen conducted into the circuit is cooled in a first portion in an open cooling system by pressure reduction and the removal of nitrogen vapor that forms and in a second portion in a closed cooling system using one or more cooling machines, - the open cooling system and the closed cooling system are used for cooling a current conduit having a first end and a second end, wherein the open cooling system is arranged at the first end of the current conduit and the closed cooling system is arranged at the second end of the current conduit , characterized in that - cooling power is provided to a first time period in a first, lower total cooling power quantity and in a second time period in a second, higher total cooling power quantity, wherein
Z r An apparatus, comprising: a first joint member comprising a first connection portion ; a second joint member comprising a second connection portion ; a third joint member , the third joint member being between the first joint member and the second joint member and including a third connection portion, the first joint member and the third joint member each comprising a contact surface; a first flexure comprising a first end portion , a second end portion , and a central portion between the first end portion and the second end portion , the first end portion of the first flexure being coupled to the first connection portion of the first joint member , the second end portion of the first flexure being coupled to the third connection portion of the third joint member , the first flexure being configured to deform elastically when the second joint member moves relative to the first joint member about a first axis of rotation (P1) from a first configuration to a second configuration, the central portion of the first flexure being spaced apart from the contact surface of the first joint member and the contact surface of the third joint member when the second joint member is in the first configuration, and the central portion of the first flexure being in contact with one of the contact surface of the first joint member and the contact surface of the third joint member when the second joint member is in the second configuration; and, a second flexure comprising a first end portion and a second end portion , the first end portion of the second flexure being coupled to the second connection portion of the second joint member , the second end portion of the second flexure being coupled to the third joint member , the second flexure being configured to deform elastically when the second joint member moves relative to the first joint member about a second axis of rotation (P2) from the first configuration to a third configuration, and the second axis of rotation (P2) intersects and is nonparallel to the first axis of rotation (P1).
A ventilation device for aerating and deaerating a room, comprising: - a wall installation sleeve for connecting an inside of the room with an outside, - an axial fan arranged in the wall installation sleeve , said axial fan being operable in at least two operating states with opposite air conveying directions for conveying supply air from the outside to the inside of the room and for conveying exhaust air from the inside of the room to the outside, - a heat accumulator arranged between the axial fan and the outside in the wall installation sleeve , wherein - the heat accumulator is made of a ceramic material and has a plurality of straight channels separated from each other by walls and extending along a flow direction predetermined by the axial fan and the wall installation sleeve , characterized in that the ventilation device comprises a soundproofing element consisting of a sound-absorbing material, wherein - the soundproofing element is designed as a soundproofing sleeve which is fitted into the wall installation sleeve with respect to its outer dimensions including its length, - wherein the soundproofing sleeve has an inner sleeve surface defining over its entire longitudinal extent the outer boundary of an air channel for the passage of air between the inside of the room and the outside, and wherein the axial fan and the heat accumulator are fixed in the soundproofing sleeve by a connection thereto. - a wall installation sleeve for connecting an inside of the room with an outside, - an axial fan arranged in the wall installation sleeve , said axial fan being operable in at least two operating states with opposite air conveying directions for conveying supply air from the outside to the inside of the room and for conveying exhaust air from the inside of the room to the outside, - a heat accumulator arranged between the axial fan and the outside in the wall installation sleeve , wherein - the heat accumulator is made of a ceramic material and has a plurality of straight channels separated from each other by walls and extending along a flow direction predetermined by the axial fan and the wall installation sleeve , characterized in that the ventilation device comprises a soundproofing element consisting of a sound-absorbing material, wherein characterized in that the ventilation device comprises a soundproofing element consisting of a sound-absorbing material, wherein - the soundproofing element is designed as a soundproofing sleeve which is fitted into the wall installation sleeve with respect to its outer dimensions including its length, - wherein the soundproofing sleeve has an inner sleeve surface defining over its entire longitudinal extent the outer boundary of an air channel for the passage of air between the inside of the room and the outside, and wherein the axial fan and the heat accumulator are fixed in the soundproofing sleeve by a connection thereto.
A user terminal device comprising: a touch screen configured to display a keyboard user interface, UI; a bezel configured to house the touch screen; a detector disposed at the bezel and configured to detect a user interaction with the bezel; and a controller configured to, in response to detecting a first user interaction with a first area of the bezel, perform a first function for changing properties of the keyboard UI, the first function corresponding to the first area, and, in response to detecting a second user interaction with a second area of the bezel different from the first area, perform a second function for changing properties of the keyboard UI, the second function corresponding to the second area, wherein the second function is different from the first function. a touch screen configured to display a keyboard user interface, UI; a bezel configured to house the touch screen; a detector disposed at the bezel and configured to detect a user interaction with the bezel; and a controller configured to, in response to detecting a first user interaction with a first area of the bezel, perform a first function for changing properties of the keyboard UI, the first function corresponding to the first area, and, in response to detecting a second user interaction with a second area of the bezel different from the first area, perform a second function for changing properties of the keyboard UI, the second function corresponding to the second area, wherein the second function is different from the first function.
A heart treatment system , comprising: an implantable blood pump configured to couple with a circulatory system of a patient and to pump blood therethrough, the implantable blood pump including a pump processor configured to: receive a series of electrical pulses (200a-200d) from an implanted cardiac rhythm management device electrically pacing a heart of the patient at a first frequency with electrical pulses with a first duration of time and at a first voltage, wherein the series of electrical pulses (200a-200d) received by the pump processor comprises one or more pulses associated with an electrical pace signal and one or more pulses associated with a type of abnormal heart rhythm detected by the implanted cardiac rhythm management device and are at a second frequency different than the first frequency or include electrical pulses with a second duration of time different than the first duration of time or electrical pulses at a second voltage different than the first voltage; determine the type of abnormal heart rhythm detected by the implanted cardiac rhythm management device by analyzing a frequency of the series of electrical pulses , a duration of each of the electrical pulses of the series of electrical pulses , or a voltage of each of the electrical pulses of the series of electrical pulses ; and adjust a pumping protocol of the implantable blood pump based on the type of abnormal heart rhythm determined by the analysis. receive a series of electrical pulses (200a-200d) from an implanted cardiac rhythm management device electrically pacing a heart of the patient at a first frequency with electrical pulses with a first duration of time and at a first voltage, wherein the series of electrical pulses (200a-200d) received by the pump processor comprises one or more pulses associated with an electrical pace signal and one or more pulses associated with a type of abnormal heart rhythm detected by the implanted cardiac rhythm management device and are at a second frequency different than the first frequency or include electrical pulses with a second duration of time different than the first duration of time or electrical pulses at a second voltage different than the first voltage; determine the type of abnormal heart rhythm detected by the implanted cardiac rhythm management device by analyzing a frequency of the series of electrical pulses , a duration of each of the electrical pulses of the series of electrical pulses , or a voltage of each of the electrical pulses of the series of electrical pulses ; and adjust a pumping protocol of the implantable blood pump based on the type of abnormal heart rhythm determined by the analysis.
Insulating container with an interior space delimited by container walls , wherein one of the container walls comprises an access to the interior space equipped with a sliding wall , whereby the sliding wall can slide between a position that closes the access and a position that opens the access , characterised in that the sliding wall comprises a plurality of portions that can move, in particular pivot, relative to one another, wherein the sliding wall is made in unitary manner from foamed plastic material.