mhurhangee/ep-ind-claims huggingface dataset:
A cellulose composite determination method for composite resin, comprising: irradiating composite resin containing cellulose with infrared light; receiving reflected light from the composite resin irradiated with the infrared light; and determining a resin type of the composite resin from a reflection or absorption spectrum obtained from the reflected light; characterized by using a spectrum obtained by normalization with an intensity at a peak position that becomes a maximum intensity at a peak in a range of a wave number of 2800 cm -1 or more and 3000 cm -1 or less which is a C-H stretching peak caused by the composite resin in the reflection or absorption spectrum obtained by the reflected light to acquire a normalized value being a ratio of a spectral intensity at a position that is 1000 cm -1 or less in the spectrum and is different from a wave number at which a peak derived from resin of the determined resin type is expressed; and acquiring a normalized value of a ratio of a spectral intensity in advance by a method similar to that for the composite resin using a spectrum of a sample of single resin which is contained in the composite resin and is acquired in advance and comparing the values to determine a composite of cellulose in the composite resin. irradiating composite resin containing cellulose with infrared light; receiving reflected light from the composite resin irradiated with the infrared light; and determining a resin type of the composite resin from a reflection or absorption spectrum obtained from the reflected light; characterized by using a spectrum obtained by normalization with an intensity at a peak position that becomes a maximum intensity at a peak in a range of a wave number of 2800 cm -1 or more and 3000 cm -1 or less which is a C-H stretching peak caused by the composite resin in the reflection or absorption spectrum obtained by the reflected light to acquire a normalized value being a ratio of a spectral intensity at a position that is 1000 cm -1 or less in the spectrum and is different from a wave number at which a peak derived from resin of the determined resin type is expressed; and acquiring a normalized value of a ratio of a spectral intensity in advance by a method similar to that for the composite resin using a spectrum of a sample of single resin which is contained in the composite resin and is acquired in advance and comparing the values to determine a composite of cellulose in the composite resin.
Method of regenerating a water softening system, wherein brine is mixed with dilution water and the diluted brine is introduced into a softening device, in particular comprising at least one container (5a, 5b) comprising ion exchange resin, wherein brine is added, while being transported to the softening device, to a flow of dilution water by means of a pump, characterized in that the concentration of the diluted brine is monitored by a sensor, that for monitoring the concentration of the diluted brine, the conductivity of the diluted brine is measured, and that the mixing ratio between brine and dilution water is readjusted in dependence on the experimentally determined concentration of the diluted brine.
An electrical connector comprising: wiring with multiple wires (14a, 14b), each wire having a conductor covered in insulation, the insulation includes webbing that interconnects the wires (14a, 14b) to one another, the insulation having an aperture providing a first locating feature, the wires (14a, 14b) having a stripped portion exposing the conductors; and a housing receiving the stripped portion, the housing including a supplemental locating feature, wherein the housing includes first and second housing portions (20, 22) secured to one another about the stripped portion, the first housing portion is configured to securely locate the wiring with respect to the housing, and the second housing portion includes an electrical contact engaging one of the stripped portions, characterized in that the supplemental locating feature comprises a first set of barbs spaced apart from a second set of barbs, the first and second sets of barbs (28, 30) retaining the stripped portions, and the insulation including edges adjacent to the first and second sets of barbs (28, 30) to longitudinally locate the wiring relative to the housing. wiring with multiple wires (14a, 14b), each wire having a conductor covered in insulation, the insulation includes webbing that interconnects the wires (14a, 14b) to one another, the insulation having an aperture providing a first locating feature, the wires (14a, 14b) having a stripped portion exposing the conductors; and a housing receiving the stripped portion, the housing including a supplemental locating feature, wherein the housing includes first and second housing portions (20, 22) secured to one another about the stripped portion, the first housing portion is configured to securely locate the wiring with respect to the housing, and the second housing portion includes an electrical contact engaging one of the stripped portions, characterized in that the supplemental locating feature comprises a first set of barbs spaced apart from a second set of barbs, the first and second sets of barbs (28, 30) retaining the stripped portions, and the insulation including edges adjacent to the first and second sets of barbs (28, 30) to longitudinally locate the wiring relative to the housing.
A cartridge for an aerosol generating device, wherein the cartridge has a distal end and a proximal end, comprising: a reservoir configured to store aerosolisable liquid therein; a capillary transport element arranged to receive aerosolisable liquid from the reservoir; an air inlet configured to supply air to the capillary transport element, wherein the air inlet is disposed in the distal end of the cartridge; an air outlet disposed in the proximal end of the cartridge; an airflow passage that connects the air inlet to the air outlet via the capillary transport element; and one or more thermally conductive elements, wherein the one or more thermally conductive elements are arranged around an exterior of the cartridge between the distal end and the proximal end and are configured to conduct heat into the cartridge towards the capillary transport element when the cartridge is heated within a heating chamber of an aerosol generating device such that, in use, aerosolisable liquid transported by the capillary transport element is heated and an aerosol is generated, characterised in that the capillary transport element is formed as an annular cylinder that is in contact with the one or more thermally conductive elements, and wherein the airflow passage extends along the central axis of the capillary transport element. a reservoir configured to store aerosolisable liquid therein; a capillary transport element arranged to receive aerosolisable liquid from the reservoir; an air inlet configured to supply air to the capillary transport element, wherein the air inlet is disposed in the distal end of the cartridge; an air outlet disposed in the proximal end of the cartridge; an airflow passage that connects the air inlet to the air outlet via the capillary transport element; and one or more thermally conductive elements, wherein the one or more thermally conductive elements are arranged around an exterior of the cartridge between the distal end and the proximal end and are configured to conduct heat into the cartridge towards the capillary transport element when the cartridge is heated within a heating chamber of an aerosol generating device such that, in use, aerosolisable liquid transported by the capillary transport element is heated and an aerosol is generated, characterised in that the capillary transport element is formed as an annular cylinder that is in contact with the one or more thermally conductive elements, and wherein the airflow passage extends along the central axis of the capillary transport element.
An electrical connector system comprising: a plug connector including a housing and a deflectable primary latch, the housing extending along a plug axis between a mating end and a cable end, the primary latch extending from the housing substantially parallel to the plug axis and defining a gap between the primary latch and the housing; a connector position assurance device mounted to the plug connector, the CPA device including a deflectable retention latch having a head at a distal end thereof; and a header connector having a cavity at a mating end that receives the mating end of the housing of the plug connector therein, the header connector having a tab proximate to the header connector mating end, and the header connector having a latching surface that engages the primary latch to form a primary lock between the plug connector and the header connector; characterized in that the housing includes a lug protruding therefrom proximate to the gap; the CPA device is movable relative to the plug connector in a locking direction that is transverse to the plug axis; and wherein, after the plug connector is received in the cavity of the header connector, the tab of the header connector deflects the retention latch of the CPA device to allow the CPA device to be translated in the locking direction beyond the lug from an unlocked position to a locked position, wherein, in the locked position, the head of the retention latch is located in the gap and engages a first shoulder of the lug to block deflection of the primary latch. a plug connector including a housing and a deflectable primary latch, the housing extending along a plug axis between a mating end and a cable end, the primary latch extending from the housing substantially parallel to the plug axis and defining a gap between the primary latch and the housing; a connector position assurance device mounted to the plug connector, the CPA device including a deflectable retention latch having a head at a distal end thereof; and a header connector having a cavity at a mating end that receives the mating end of the housing of the plug connector therein, the header connector having a tab proximate to the header connector mating end, and the header connector having a latching surface that engages the primary latch to form a primary lock between the plug connector and the header connector; characterized in that the housing includes a lug protruding therefrom proximate to the gap; the CPA device is movable relative to the plug connector in a locking direction that is transverse to the plug axis; and wherein, after the plug connector is received in the cavity of the header connector, the tab of the header connector deflects the retention latch of the CPA device to allow the CPA device to be translated in the locking direction beyond the lug from an unlocked position to a locked position, wherein, in the locked position, the head of the retention latch is located in the gap and engages a first shoulder of the lug to block deflection of the primary latch.
A method for encoding a wireless control signal, comprising: receiving (805, 1105) a set of information bits; encoding (830, 1135) the set of information bits with a first error control code so as to create a first set of encoded bits; and encoding (840, 1145) the first set of encoded bits with a second error control code so as to create a second set of encoded bits, characterized by: modulating (845, 1150) the second set of encoded bits as a plurality of beacon tones; and transmitting (850, 1155) the plurality of beacon tones, each of the plurality of beacon tones transmitted with a corresponding beacon signal strength, each of the corresponding beacon signal strengths being higher than each of a plurality signal strengths corresponding to each of a plurality of non-beacon tones. receiving (805, 1105) a set of information bits; encoding (830, 1135) the set of information bits with a first error control code so as to create a first set of encoded bits; and encoding (840, 1145) the first set of encoded bits with a second error control code so as to create a second set of encoded bits, characterized by: modulating (845, 1150) the second set of encoded bits as a plurality of beacon tones; and transmitting (850, 1155) the plurality of beacon tones, each of the plurality of beacon tones transmitted with a corresponding beacon signal strength, each of the corresponding beacon signal strengths being higher than each of a plurality signal strengths corresponding to each of a plurality of non-beacon tones. modulating (845, 1150) the second set of encoded bits as a plurality of beacon tones; and transmitting (850, 1155) the plurality of beacon tones, each of the plurality of beacon tones transmitted with a corresponding beacon signal strength, each of the corresponding beacon signal strengths being higher than each of a plurality signal strengths corresponding to each of a plurality of non-beacon tones.
An inspection device (100, 200) for inspecting a structure, comprising: a housing (102, 202) having a first end, a second end, and a longitudinal axis (L 102, L 202) extending between the first end and the second end, the housing comprising a flexible nozzle portion having at least one opening at the first end for positioning proximate the structure, the nozzle portion being adapted to elastically deform in a situation where the housing contacts said structure; a transducer disposed in a rear chamber of the housing (102, 202) proximate the second end and oriented to at least one of emit and receive ultrasonic signals through the nozzle portion; and at least one fluid channel (144, 244) defined in the housing (102, 202) and extending along at least a portion of the rear chamber, the at least one fluid channel (144, 244) configured to supply a fluid into a forward chamber (132, 232) of the housing (102, 202) proximate at least one of a signal emitting portion or a signal receiving portion of the transducer to flow from the at least one opening of the nozzle portion in order to pass one or more ultrasonic signals between the inspection device (100, 200) and the structure; characterized in that the housing comprises at least one sensor configured to detect one or more forces applied to the nozzle portion of the housing (102, 202) due to the deformation of the nozzle portion. a housing (102, 202) having a first end, a second end, and a longitudinal axis (L 102, L 202) extending between the first end and the second end, the housing comprising a flexible nozzle portion having at least one opening at the first end for positioning proximate the structure, the nozzle portion being adapted to elastically deform in a situation where the housing contacts said structure; a transducer disposed in a rear chamber of the housing (102, 202) proximate the second end and oriented to at least one of emit and receive ultrasonic signals through the nozzle portion; and at least one fluid channel (144, 244) defined in the housing (102, 202) and extending along at least a portion of the rear chamber, the at least one fluid channel (144, 244) configured to supply a fluid into a forward chamber (132, 232) of the housing (102, 202) proximate at least one of a signal emitting portion or a signal receiving portion of the transducer to flow from the at least one opening of the nozzle portion in order to pass one or more ultrasonic signals between the inspection device (100, 200) and the structure; characterized in that the housing comprises at least one sensor configured to detect one or more forces applied to the nozzle portion of the housing (102, 202) due to the deformation of the nozzle portion.
A catalyst composition comprising: a catalyst represented by the following Formula 1; and a nitrile-based additive: in Formula 1, R is a linear C3 alkyl group, R 1 to R 4 are each independently hydrogen, a halogen group or a halogen-substituted alkyl group of 1 to 20 carbon atoms, and o, p, q and r are each independently an integer of 1 to 5, wherein the catalyst represented by Formula 1 and the nitrile-based additive are included in an equivalent ratio of 1:1 to 1:200. R is a linear C3 alkyl group, R 1 to R 4 are each independently hydrogen, a halogen group or a halogen-substituted alkyl group of 1 to 20 carbon atoms, and o, p, q and r are each independently an integer of 1 to 5, wherein the catalyst represented by Formula 1 and the nitrile-based additive are included in an equivalent ratio of 1:1 to 1:200.
A fire evacuation support system for managing an operation of an elevator based on information from a plurality of fire detectors provided on each of a plurality of floors when a fire occurs in a building, the building including, on each of the plurality of floors, an elevator installation zone in which the elevator is installed, a neighboring zone neighboring the elevator installation zone, the neighboring zone being in communication with the elevator installation zone through a first communication port, and an external zone (6,7) in communication with the neighboring zone through a second communication port different from the first communication port, the first communication port being opened and closed by a first fire door, and the second communication port being opened and closed by a second fire door, the fire evacuation support system characterized by further comprising an evacuation operation command section in which implementation of an evacuation operation for transporting a person left in the building to an evacuation floor is allowed for the elevator when contamination due to the fire is avoided in both the elevator installation zone and the neighboring zone, and in which the implementation of the evacuation operation is stopped when at least any one of the elevator installation zone and the neighboring zone is contaminated due to the fire.
A Bluetooth scanning method, applied to an electronic device, wherein the electronic device comprises a Bluetooth chip and a Bluetooth agent module, and the method comprises: scanning, by the Bluetooth chip of the electronic device, a Bluetooth broadcast signal broadcast by a first device, wherein the Bluetooth broadcast signal comprises the first device identifier, wherein the first device is an external Bluetooth device, and wherein the first device identifier is an identifier of the external Bluetooth device; in response to the first device identifier received by the electronic device, determining, by the Bluetooth chip, whether the first device identifier is included in a device identifier list stored in the Bluetooth chip of the electronic device; waking up, by the Bluetooth chip based on the determining that the first device identifier is included in the device identifier list stored in the Bluetooth chip of the electronic device, the Bluetooth agent module; sending, by the Bluetooth chip based on the determining that the first device identifier is included in the device identifier list stored in the Bluetooth chip of the electronic device, the first device identifier to the Bluetooth agent module; and notifying, by the Bluetooth agent module based on the first device identifier, an application corresponding to the first device identifier. scanning, by the Bluetooth chip of the electronic device, a Bluetooth broadcast signal broadcast by a first device, wherein the Bluetooth broadcast signal comprises the first device identifier, wherein the first device is an external Bluetooth device, and wherein the first device identifier is an identifier of the external Bluetooth device; in response to the first device identifier received by the electronic device, determining, by the Bluetooth chip, whether the first device identifier is included in a device identifier list stored in the Bluetooth chip of the electronic device; waking up, by the Bluetooth chip based on the determining that the first device identifier is included in the device identifier list stored in the Bluetooth chip of the electronic device, the Bluetooth agent module; sending, by the Bluetooth chip based on the determining that the first device identifier is included in the device identifier list stored in the Bluetooth chip of the electronic device, the first device identifier to the Bluetooth agent module; and notifying, by the Bluetooth agent module based on the first device identifier, an application corresponding to the first device identifier.
An elevator system, comprising: a sensor assembly disposable in or proximate to an elevator lobby and configured to deduce an intent of at least one of multiple individuals in the elevator lobby to board a particular one of multiple elevators and to issue a call signal accordingly; and a controller configured to receive the call signal issued by the sensor assembly and to assign the particular one or more of the multiple elevators to serve the call signal at the elevator lobby, wherein the sensor assembly is configured to sense one or more of multiple cues and contextual incidences relating to each of the multiple individuals and a grouping thereof and to compare the one or more of multiple cues and contextual incidences with historical data to deduce the intent, characterised in that the sensor assembly is further configured to sense a group behavior of the multiple individuals and to compare the group behavior with historical data to deduce the intent. a sensor assembly disposable in or proximate to an elevator lobby and configured to deduce an intent of at least one of multiple individuals in the elevator lobby to board a particular one of multiple elevators and to issue a call signal accordingly; and a controller configured to receive the call signal issued by the sensor assembly and to assign the particular one or more of the multiple elevators to serve the call signal at the elevator lobby, wherein the sensor assembly is configured to sense one or more of multiple cues and contextual incidences relating to each of the multiple individuals and a grouping thereof and to compare the one or more of multiple cues and contextual incidences with historical data to deduce the intent, characterised in that the sensor assembly is further configured to sense a group behavior of the multiple individuals and to compare the group behavior with historical data to deduce the intent.