mhurhangee/patent-ind-claim-en huggingface dataset:
A heat exchange ventilator including an exterior casing including a supply air passage that lets a supply air flow through and an exhaust air passage that lets an exhaust air flow through, and a heat exchanger mounted between the supply air passage and the exhaust air passage to perform heat exchange between the supply air flow and the exhaust air flow, the heat exchanger including a heat exchange element of quadrangular-prism shape and heat exchanger frames each of which is mounted to each of four corners of the heat exchange element , the heat exchange ventilator comprising: a plurality of guide rails mounted inside the exterior casing and engaging the heat exchanger frame to guide the heat exchanger that is attached to and detached from the exterior casing , wherein each of the guide rails includes: an end-face-facing part facing an end face of corresponding one of the heat exchanger frames; a side-facing part providing a clearance between a side of the heat exchanger frame and the side-facing part ; a holding part projecting from the side-facing part toward the heat exchanger frame; and a seal member (21; 23) provided in the clearance and sealing a gap between the heat exchanger frame and the guide rail ; characterized in that a leading end of the holding part abuts the side of the corresponding one of the heat exchanger frames. a plurality of guide rails mounted inside the exterior casing and engaging the heat exchanger frame to guide the heat exchanger that is attached to and detached from the exterior casing , wherein each of the guide rails includes: an end-face-facing part facing an end face of corresponding one of the heat exchanger frames; a side-facing part providing a clearance between a side of the heat exchanger frame and the side-facing part ; a holding part projecting from the side-facing part toward the heat exchanger frame; and a seal member (21; 23) provided in the clearance and sealing a gap between the heat exchanger frame and the guide rail ; characterized in that a leading end of the holding part abuts the side of the corresponding one of the heat exchanger frames.
A layered structure, comprising a photoluminescent layer comprising a quantum dot polymer composite; a light absorption layer disposed on the photoluminescent layer, the light absorption layer comprising an absorptive color-filter material; and a silicon containing layer disposed between the photoluminescent layer and the light absorption layer, wherein the quantum dot polymer composite comprises a first polymer matrix and a plurality of quantum dots dispersed in the first polymer matrix, and the plurality of quantum dots are configured to absorb excitation light and to emit light in a longer wavelength than the wavelength of the excitation light; and the absorptive color-filter material is dispersed in a second polymer matrix, and the absorptive color-filter material is configured to absorb the excitation light that passes through the photoluminescent layer and transmits the light emitted from the plurality of quantum dots; wherein the silicon containing layer comprises SiO x wherein x is 1 to 2, an organosilicon compound comprising a moiety represented by *-Si-O-Si-* wherein * is a linking portion with an adjacent atom, or a combination thereof, and wherein the quantum dot polymer composite comprises at least one repeating section configured to emit light having a predetermined wavelength; preferably, wherein the repeating section comprises a first section configured to emit a first light and a second section configured to emit a second light that is different from the first light.
A method, comprising: generating a first signal indicating which of a plurality of storages matches qualifiers received from a component, said qualifiers indicate security mode attributes associated with the component; generating a second signal indicating which of said plurality of storages matches a target address received from said component; and determining whether the storage associated with the first signal matches the storage associated with the second signal; wherein, if logic determines that the storage associated with the first signal does not match the storage associated with the second signal, said logic preventing the component from accessing the storages associated with the first and second signals. generating a first signal indicating which of a plurality of storages matches qualifiers received from a component, said qualifiers indicate security mode attributes associated with the component; generating a second signal indicating which of said plurality of storages matches a target address received from said component; and determining whether the storage associated with the first signal matches the storage associated with the second signal;
A method comprising: in a computer having multiple non-loopback network addresses, receiving a request to store data; directing the data to a memory location associated with a first non-loopback network address available to receive the data; continuously forwarding the data from the memory location associated with the first non-loopback network address to a memory location associated with another non-loopback network address in the computer without storing on any non-volatile, physical storage device in the computer, the continuously forwarding comprising: detecting a presence of the data in a memory location associated with a specific non-loopback network address; and forwarding the data to another memory location of another non-loopback network address in the computer without storing on any non-volatile, physical storage device, the forwarded data being available for retrieval in response to a request to retrieve the data. in a computer having multiple non-loopback network addresses, receiving a request to store data; directing the data to a memory location associated with a first non-loopback network address available to receive the data; continuously forwarding the data from the memory location associated with the first non-loopback network address to a memory location associated with another non-loopback network address in the computer without storing on any non-volatile, physical storage device in the computer, the continuously forwarding comprising: detecting a presence of the data in a memory location associated with a specific non-loopback network address; and forwarding the data to another memory location of another non-loopback network address in the computer without storing on any non-volatile, physical storage device, the forwarded data being available for retrieval in response to a request to retrieve the data. detecting a presence of the data in a memory location associated with a specific non-loopback network address; and forwarding the data to another memory location of another non-loopback network address in the computer without storing on any non-volatile, physical storage device, the forwarded data being available for retrieval in response to a request to retrieve the data.
A cartridge for use in an aerosol-generating system, comprising: a storage portion comprising a housing for holding an aerosol-forming substrate, the housing having an open end such that an opening of the housing is defined by the open end; and a heater assembly comprising at least one heater element fixed to the housing and extending across the opening of the housing , wherein the at least one heater element of the heater assembly defines a plurality of apertures for allowing fluid to pass through the at least one heater element , and wherein the plurality of apertures have different sizes. a storage portion comprising a housing for holding an aerosol-forming substrate, the housing having an open end such that an opening of the housing is defined by the open end; and a heater assembly comprising at least one heater element fixed to the housing and extending across the opening of the housing , wherein the at least one heater element of the heater assembly defines a plurality of apertures for allowing fluid to pass through the at least one heater element , and wherein the plurality of apertures have different sizes.
An energy absorber , comprising: a plurality of crush lobes that deform plastically upon impact to absorb energy, wherein the crush lobes include a base and sides extending from the base to an outer wall , wherein the base , sides and outer wall comprise a first thermoplastic material; and a composite insert in the energy absorber , wherein the composite insert comprises a second plastic material and reinforcement, wherein the second plastic material is different than the first thermoplastic material, wherein the composite insert is located on a surface of the side and/or the outer wall , into a surface of the side and/or the outer wall , or encapsulated inside the side and/or the outer wall of the crush lobes a plurality of crush lobes that deform plastically upon impact to absorb energy, wherein the crush lobes include a base and sides extending from the base to an outer wall , wherein the base , sides and outer wall comprise a first thermoplastic material; and a composite insert in the energy absorber , wherein the composite insert comprises a second plastic material and reinforcement, wherein the second plastic material is different than the first thermoplastic material, wherein the composite insert is located on a surface of the side and/or the outer wall , into a surface of the side and/or the outer wall , or encapsulated inside the side and/or the outer wall of the crush lobes
A method of locating a position of an object with an omnidirectional camera affixed to a vehicle , the method comprising: receiving movement data of the vehicle from vehicle sensors indicative of a change of position of the vehicle ; determining a vehicle pose; receiving a plurality of omnidirectional image frames of one or more stationary objects with an omnidirectional camera ; synchronizing the vehicle pose with each received omnidirectional image frame; identifying an object of interest from the one or more stationary objects in the omnidirectional image frames; transforming at least a portion of said omnidirectional image frames containing the object of interest to a series of rectilinear image frames; tracking the object of interest in the omnidirectional image frames across the series of rectilinear image frames, with an electronic control unit, while the vehicle is moving; determining a change in position of the object of interest in the omnidirectional image frames across the series of rectilinear image frames as the vehicle is moving; and determining a distance to the object of interest relative to the vehicle based on the change of position of the vehicle and the change in position of the object of interest in the omnidirectional image frames across the series of rectilinear image frames, wherein said omnidirectional camera is a fisheye lens camera , and wherein determining the distance includes triangulating the object of interest using a change in pixel location across the series of rectilinear image frames and the synchronized vehicle pose. receiving movement data of the vehicle from vehicle sensors indicative of a change of position of the vehicle ; determining a vehicle pose; receiving a plurality of omnidirectional image frames of one or more stationary objects with an omnidirectional camera ; synchronizing the vehicle pose with each received omnidirectional image frame; identifying an object of interest from the one or more stationary objects in the omnidirectional image frames; transforming at least a portion of said omnidirectional image frames containing the object of interest to a series of rectilinear image frames; tracking the object of interest in the omnidirectional image frames across the series of rectilinear image frames, with an electronic control unit, while the vehicle is moving; determining a change in position of the object of interest in the omnidirectional image frames across the series of rectilinear image frames as the vehicle is moving; and determining a distance to the object of interest relative to the vehicle based on the change of position of the vehicle and the change in position of the object of interest in the omnidirectional image frames across the series of rectilinear image frames, wherein said omnidirectional camera is a fisheye lens camera , and wherein determining the distance includes triangulating the object of interest using a change in pixel location across the series of rectilinear image frames and the synchronized vehicle pose.
Device for a vehicle, which is configured to be reversibly coupled to a data bus of a vehicle in order to transmit and receive data via the data bus , wherein the device is configured to apply a current to the data bus ; wherein the device is configured to measure a voltage drop at the data bus as a result of the applied current; wherein the device is configured to determine whether or not it is connected to the data bus based on the measured voltage drop; characterized by the device comprising a switching unit , two switches , a voltage measurement unit , and a current source ; wherein the switching unit is connected to the two switches and configured to carry out the switching operation of the two switches ; wherein the switching unit is configured to selectively connect the current source to the data bus ; wherein the measurement unit is connected to the switches; wherein the current source is configured to apply the current to the data bus via a first connection element ; wherein the voltage measurement unit is configured to determine a voltage drop at the data bus as a result of the applied current.
A disposable, non-resettable drug delivery device for selecting and dispensing a number of user variable doses of a medicament, comprising a housing , a cartridge holder for retaining a cartridge containing the medicament, a piston rod displaceable relative to the cartridge holder , a driver coupled to the piston rod , a display member for indicating a set dose and being coupled to the housing and to the driver , and a button coupled to the display member and to the driver , characterized in that the driver is in threaded engagement with the piston rod , permanently rotationally locked to the button and axially displaceable relative to the button in a proximal direction against the force of a resilient member which is a one piece component with either the driver or the button .
A thermosetting type curable composition comprising 100 parts by weight of a polyoxyalkylene-based polymer (A) and 0.5 to 6 parts by weight of tetravalent monoalkyl tin (B), wherein the polyoxyalkylene-based polymer (A) has a hydrolyzable silyl group that is represented by the general formula : -Si(OR 1 ) 3 wherein R 1 s each independently represent a hydrocarbon group having 2 to 6 carbon atoms.
A method comprising: receiving, by a virtual route reflector "VRR" executed on an intermediate router positioned between a hub router and a plurality of spoke routers in a hub-and-spoke network, from a controller , and in response to a previous path along a previously selected link of a plurality of links coupled to the hub router and the plurality of spoke routers violating one or more service level agreements "SLAs", one or more instructions for the VRR to add a path community to a route advertisement, wherein the path community uniquely identifies a new path along an alternate link of the plurality of links that satisfies the one or more SLAs; receiving, by the VRR and from a first router of the hub router and the plurality of spoke routers, the route advertisement including information identifying a virtual routing and forwarding "VRF" instance, wherein the VRF instance is mapped to the one or more SLAs; adding, by the VRR and to the route advertisement, the path community that uniquely identifies the new path along the alternate link that satisfies the one or more SLAs, wherein the plurality of links are coupled to the hub router and the plurality of spoke routers; and sending, by the VRR and to a second router of the hub router and the plurality of spoke routers, the route advertisement including the path community such that the second router may install the new path as a next-hop for the VRF instance. receiving, by a virtual route reflector "VRR" executed on an intermediate router positioned between a hub router and a plurality of spoke routers in a hub-and-spoke network, from a controller , and in response to a previous path along a previously selected link of a plurality of links coupled to the hub router and the plurality of spoke routers violating one or more service level agreements "SLAs", one or more instructions for the VRR to add a path community to a route advertisement, wherein the path community uniquely identifies a new path along an alternate link of the plurality of links that satisfies the one or more SLAs; receiving, by the VRR and from a first router of the hub router and the plurality of spoke routers, the route advertisement including information identifying a virtual routing and forwarding "VRF" instance, wherein the VRF instance is mapped to the one or more SLAs; adding, by the VRR and to the route advertisement, the path community that uniquely identifies the new path along the alternate link that satisfies the one or more SLAs, wherein the plurality of links are coupled to the hub router and the plurality of spoke routers; and sending, by the VRR and to a second router of the hub router and the plurality of spoke routers, the route advertisement including the path community such that the second router may install the new path as a next-hop for the VRF instance.
A MEMS pressure sensor , comprising: - a sensor portion comprising a deformable membrane and a first volume , - a valve portion comprising a first output to a first side of the pressure sensor and a second output to a second side of the pressure sensor, wherein the valve portion is operable to ∘ close the second output and open the first output to equalize pressure in the first volume with pressure at the first side of the pressure sensor for calibrating the pressure sensor; and ∘ close the first output and open the second output to equalize pressure in the first volume with pressure at the second side of the pressure sensor for pressure measurement, wherein the pressure sensor comprises means for providing a first signal indicative of capacitance or resistance change associated with the deformable membrane of the pressure sensor after opening the first output and closing the second output and a second signal indicative of capacitance or resistance change associated with the deformable membrane after closing the first output and opening the second output . - a sensor portion comprising a deformable membrane and a first volume , - a valve portion comprising a first output to a first side of the pressure sensor and a second output to a second side of the pressure sensor, wherein the valve portion is operable to ∘ close the second output and open the first output to equalize pressure in the first volume with pressure at the first side of the pressure sensor for calibrating the pressure sensor; and ∘ close the first output and open the second output to equalize pressure in the first volume with pressure at the second side of the pressure sensor for pressure measurement, wherein the pressure sensor comprises means for providing a first signal indicative of capacitance or resistance change associated with the deformable membrane of the pressure sensor after opening the first output and closing the second output and a second signal indicative of capacitance or resistance change associated with the deformable membrane after closing the first output and opening the second output . ∘ close the second output and open the first output to equalize pressure in the first volume with pressure at the first side of the pressure sensor for calibrating the pressure sensor; and ∘ close the first output and open the second output to equalize pressure in the first volume with pressure at the second side of the pressure sensor for pressure measurement,
A resource negotiation method, performed by a first network device, comprising: receiving transmission time domain information from a second network device; and characterized in that : the transmission time domain information comprises time domain resources to be occupied by transmission between the second network device and a user terminal; and performing transmission with the user terminal according to the transmission time domain information; wherein the transmission time domain information comprises location information of the time domain resources; the location information comprises bitmap information of the time domain resources and an identification of the user terminal; the bitmap information comprises one or more of the following: start time, end time and duration. the transmission time domain information comprises time domain resources to be occupied by transmission between the second network device and a user terminal; and performing transmission with the user terminal according to the transmission time domain information; wherein the transmission time domain information comprises location information of the time domain resources; the location information comprises bitmap information of the time domain resources and an identification of the user terminal; the bitmap information comprises one or more of the following: start time, end time and duration.