mhurhangee/ep-ind-claims huggingface dataset:
A laminated polyester film comprising a polyester film and a coating layer formed on a surface of the polyester film which is formed by applying a coating composition comprising a modified polyolefin having two melting points and at least one crosslinking agent, and then drying the coating composition applied, wherein the modified polyolefin has two melting points Tm of which a melting point Tm1 on a lower temperature side is in the range of 0 to 50°C and a melting point Tm2 on a higher temperature side is in the range of 50 to 180°C.
Method for controlling electric cookers, wherein said electric cookers comprise internal pot, heating element, spill detection unit, steamer housed within said internal pot, and said heating element heats up said internal pot, the bottom of said steamer having an open structure that extends towards the bottom wall and/or side wall of said internal pot, said steamer comprising water permeable area and bearing cavity positioned above said water permeable area, open top space formed by said open structure being interconnected with said bearing cavity through said water permeable area, the detection end of spill detection unit being interconnected with said bearing cavity, and the top of said steamer being interconnected with the mouth of said internal pot; said method of controlling electric cookers comprising the following steps: Said heating element of the electric cooker heats up the internal pot in said electric cooker, and said electric cooker enters the rice wash-and-cook step; During a single rice wash-and-cook cycle, said heating element heats up the internal pot within said electric cooker until said spill detection unit comes into contact with water, and at this point, said heating element will stop operating and the cooker continues with the single rice wash-and-cook cycle until the first preset time t1, and this cycle is repeated N1 times; Said electric cooker enters the rice steaming step, and said heating element heats up the internal pot in said electric cooker. Said heating element of the electric cooker heats up the internal pot in said electric cooker, and said electric cooker enters the rice wash-and-cook step; During a single rice wash-and-cook cycle, said heating element heats up the internal pot within said electric cooker until said spill detection unit comes into contact with water, and at this point, said heating element will stop operating and the cooker continues with the single rice wash-and-cook cycle until the first preset time t1, and this cycle is repeated N1 times; Said electric cooker enters the rice steaming step, and said heating element heats up the internal pot in said electric cooker.
A method for analysing the effect of temperature on at least one nuclear fuel rod, a rod comprising packed zones completely filled with fuel and intermediate zones partially filled with fuel, said analysing method being implemented by computer and comprising the following steps: - acquiring at least two metering profiles, a first metering profile being associated with a non-migrating isotope and a second metering profile being associated with a migrating isotype, said profiles being made up of spectrometry measurements carried out along the rod for these isotopes; - locating intermediate zones using said first metering profile; - determining an indicator Ki_1 representing the depth in said first profile of a measurement dip located in the vicinity of an intermediate zone i; - determining an indicator Ki_2 representing the depth in said second profile of a measurement dip located in the vicinity of an intermediate zone i; - determining, for said intermediate zone i, an indicator Δi by comparing said indicators Ki_1 and Ki_2, the value of said indicator Δi representing the intensity of the heating experienced by the rod during its combustion. - acquiring at least two metering profiles, a first metering profile being associated with a non-migrating isotope and a second metering profile being associated with a migrating isotype, said profiles being made up of spectrometry measurements carried out along the rod for these isotopes; - locating intermediate zones using said first metering profile; - determining an indicator Ki_1 representing the depth in said first profile of a measurement dip located in the vicinity of an intermediate zone i; - determining an indicator Ki_2 representing the depth in said second profile of a measurement dip located in the vicinity of an intermediate zone i; - determining, for said intermediate zone i, an indicator Δi by comparing said indicators Ki_1 and Ki_2, the value of said indicator Δi representing the intensity of the heating experienced by the rod during its combustion.
A server-based method providing a routeback mechanism for directing a quanta of data, the server-based method performed within a message processing facility and comprising: receiving the quanta of data from a sending entity, the quanta of data comprising a destination address and content; identifying from the content a type indicator indicating the type of the content; extracting the destination address from the received quanta of data; identifying, using at least routing data and aspects of the destination address, a receiving entity; based on at least (a) a set of rules comprising delivery routes available to the sending entity, (b) the receiving entity, and (c) the type indicator, determining whether to: deliver the received quanta of data to the receiving entity; or route the received quanta of data back to the sending entity from which it was received, for delivery by that entity to the receiving entity; and delivering or routing back the received quanta of data based on the determination; wherein routing the received quanta back to the sending entity from which it was received is performed after transforming data elements of the quanta of data that are returned to the sending entity or augmenting the quanta of data with new data elements. receiving the quanta of data from a sending entity, the quanta of data comprising a destination address and content; identifying from the content a type indicator indicating the type of the content; extracting the destination address from the received quanta of data; identifying, using at least routing data and aspects of the destination address, a receiving entity; based on at least (a) a set of rules comprising delivery routes available to the sending entity, (b) the receiving entity, and (c) the type indicator, determining whether to: deliver the received quanta of data to the receiving entity; or route the received quanta of data back to the sending entity from which it was received, for delivery by that entity to the receiving entity; and deliver the received quanta of data to the receiving entity; or route the received quanta of data back to the sending entity from which it was received, for delivery by that entity to the receiving entity; and delivering or routing back the received quanta of data based on the determination; wherein routing the received quanta back to the sending entity from which it was received is performed after transforming data elements of the quanta of data that are returned to the sending entity or augmenting the quanta of data with new data elements.
Process for the decontamination of residential or industrial waste water contaminated with non-biodegradable organic compounds, comprising the following steps: - mixing the contaminated liquid under stirring with at least one persulphate ion, with the exception of ammonium persulphate, and at least one iron atom or one iron ion in its ferrous or ferric form, at a concentration between 50 μM and 600 μM, preferably between 100 μM and 400 μM; - subjecting the mixture obtained, over a sufficient period of time, to at least one UV/visible irradiation having a narrow wavelength spectrum comprised between 153 nm and 560 nm. - mixing the contaminated liquid under stirring with at least one persulphate ion, with the exception of ammonium persulphate, and at least one iron atom or one iron ion in its ferrous or ferric form, at a concentration between 50 μM and 600 μM, preferably between 100 μM and 400 μM; - subjecting the mixture obtained, over a sufficient period of time, to at least one UV/visible irradiation having a narrow wavelength spectrum comprised between 153 nm and 560 nm.
A method of wireless communication of a user equipment, UE, (102, 110, 206) having multiple antennas (802, 804, 806, 808, 1020) supporting a number of radio access technologies, RAT, comprising: dynamically updating a UE antenna capability when an antenna of the multiple antennas becomes available or unavailable to the UE for a particular RAT during a communication connection; dynamically generating an indication of the updated UE antenna capability during the communication connection by using modified channel quality indicator, CQI, reports to bias a base station scheduling toward at least one of single carrier frequency mode or carrier aggregation mode; sending the modified CQI report as indication to a base station (104, 106, 108, 204, 208, 120, 1200) to schedule the UE for communication in accordance with the updated UE antenna capability; and communicating based at least in part on the scheduling. dynamically updating a UE antenna capability when an antenna of the multiple antennas becomes available or unavailable to the UE for a particular RAT during a communication connection; dynamically generating an indication of the updated UE antenna capability during the communication connection by using modified channel quality indicator, CQI, reports to bias a base station scheduling toward at least one of single carrier frequency mode or carrier aggregation mode; sending the modified CQI report as indication to a base station (104, 106, 108, 204, 208, 120, 1200) to schedule the UE for communication in accordance with the updated UE antenna capability; and communicating based at least in part on the scheduling.
An air compressor, comprising a substrate, a motor coupled onto the substrate, a transmission mechanism, a cylinder extended from the substrate and having an air reservoir, a plurality of ducts (64, 65) installed at the air reservoir, a piston installed in the cylinder and driven by the transmission mechanism and the motor to input compressed air into the air reservoir and output the compressed air from the ducts (64, 65) of the air reservoir, wherein a pressure gauge having an over-pressure protection unit is directly coupled to one of the ducts, and the pressure gauge measures and indicates a change of a current pressure value by a linear movement of an indicator member, and if the pressure value reaches a predetermined maximum safety pressure value, the pressure gauge will discharge air through an over-pressure protection unit to achieve a safety effect and air compressor requires no additional duct to install the pressure safety valve, wherein the pressure gauge includes a main body, wherein the main body is a pen having an internal chamber of a circular caliber, and an end of the main body is an open end, and the other end of the main body is a rear end for receiving compressed air generated by the air compressor, and a linear shifter is installed in the internal chamber of the main body, and the compressed air produced by the air compressor is pushed and delivered to the linear shifter to perform a linear displacement, characterized in that the main body is made of a transparent material and has a display screen with a numeric calibration installed at a position proximate to a rear end of the main body, and the linear shifter is a piston cylinder, and an end of the piston cylinder is an open end and the other end of the piston cylinder is a base, wherein the piston cylinder has an internal chamber formed therein and the piston cylinder is received in the internal chamber of the main body, wherein a cavity is formed on an outer surface of the base of the piston cylinder, and a circular groove is formed at the periphery for sheathing a colored O-ring, so that a user can see the colored O-ring through the main body and can determine the numeric calibration marked on the display screen where the colored O-ring is situated, so that a user can see clearly the current pressure value.
A condenser comprising: a condensation zone for condensing vapor to be condensed in an operating liquid, the condensation zone being implemented as a volume zone comprising a top end, a bottom end and a lateral boundary between the top end and the bottom end; a vapor introduction zone which extends along the lateral end of the condensation zone and a condenser casing (200, 201, 202), characterized in that the vapor introduction zone is configured to feed vapor to be condensed into the condensation zone laterally via the lateral boundary; and in that a region in the condenser casing is limited by a cage-like boundary object spaced apart from the condenser casing (200, 201, 202) by a distance, wherein the vapor introduction zone is arranged in the distance, and wherein the condensation zone is arranged in the region limited by the cage-like boundary object. a condensation zone for condensing vapor to be condensed in an operating liquid, the condensation zone being implemented as a volume zone comprising a top end, a bottom end and a lateral boundary between the top end and the bottom end; a vapor introduction zone which extends along the lateral end of the condensation zone and a condenser casing (200, 201, 202), characterized in that the vapor introduction zone is configured to feed vapor to be condensed into the condensation zone laterally via the lateral boundary; and in that a region in the condenser casing is limited by a cage-like boundary object spaced apart from the condenser casing (200, 201, 202) by a distance, wherein the vapor introduction zone is arranged in the distance, and wherein the condensation zone is arranged in the region limited by the cage-like boundary object.
A mobile device, comprising: a display device configured to display a device lock screen and to transition to a driving mode lock screen without an authentication credential entered on the device lock screen; a processing system to implement a safe driving service that is configured to: activate a safe driving mode of the mobile device; and disable features of the mobile device while the safe driving mode is activated; and an audio sensor configured to detect an audio level in a vehicle; wherein the safe driving service is configured to generate an unsafe driving notification to indicate that the audio level in the vehicle is a driver distraction. a display device configured to display a device lock screen and to transition to a driving mode lock screen without an authentication credential entered on the device lock screen; a processing system to implement a safe driving service that is configured to: activate a safe driving mode of the mobile device; and disable features of the mobile device while the safe driving mode is activated; and activate a safe driving mode of the mobile device; and disable features of the mobile device while the safe driving mode is activated; and an audio sensor configured to detect an audio level in a vehicle; wherein the safe driving service is configured to generate an unsafe driving notification to indicate that the audio level in the vehicle is a driver distraction.
Method for checking the operation of a device comprising at least one transmitter (10, 11) adapted to transmit radiofrequency signals and at least one receiver (13, 14) characterized in that this comprises at least the following steps: • defining a frequency range [F min, F max] and a transmission-power-level value of a signal S p transmitted by the transmitter; • during the transmitting phase of the device, transmitting a signal S P in a frequency range [F Pmin, F Pmax] and with a power value P P, these values being predefined; • acquiring, in the receiver of the device, during a given time window T mes and over one or more cycles, a plurality of signals S PR; using a function that compares, within an acquisition cycle, the value of the received signal level to that acquired beforehand and that retains the signal S PRmax of maximum value; retaining the maximum values S PRmax of the signals in each acquisition cycle and for a given frequency range; • for each frequency value comprised in the frequency band [F min, F max], comparing the maximum values of the signals S PRmax to at least one threshold value V threshold and determining the number of channels in which the power is comprised in an interval [V min, V max]; and if the number of frequency channels is lower than a predefined threshold value P min, transmitting a datum indicating incorrect operation to a warning module. • defining a frequency range [F min, F max] and a transmission-power-level value of a signal S p transmitted by the transmitter; • during the transmitting phase of the device, transmitting a signal S P in a frequency range [F Pmin, F Pmax] and with a power value P P, these values being predefined; • acquiring, in the receiver of the device, during a given time window T mes and over one or more cycles, a plurality of signals S PR; using a function that compares, within an acquisition cycle, the value of the received signal level to that acquired beforehand and that retains the signal S PRmax of maximum value; retaining the maximum values S PRmax of the signals in each acquisition cycle and for a given frequency range; • for each frequency value comprised in the frequency band [F min, F max], comparing the maximum values of the signals S PRmax to at least one threshold value V threshold and determining the number of channels in which the power is comprised in an interval [V min, V max]; and if the number of frequency channels is lower than a predefined threshold value P min, transmitting a datum indicating incorrect operation to a warning module.
A system for inspection of a load, comprising: a detection device configured to detect, after transmission through the load, successive radiation pulses emitted at a predetermined frequency by a source, the load being in movement in an inspection direction, at an inspection speed with respect to the system, the detection device comprising a matrix of a plurality of arrays of detectors wherein the matrix has a width (w) associated with the inspection direction, the width of the matrix being based on the inspection speed of the load and the predetermined frequency of the successive radiation pulses, wherein the successive radiation pulses are emitted at a predetermined dose by the source, the number of arrays of detectors in the width of the matrix being further based on the predetermined dose of the successive radiation pulses, and wherein the width of the matrix of detectors is such that the detection device is configured to detect a current radiation pulse irradiating at least a current part of the load, the given part overlapping, at least partly, a part of the load irradiated by one or more preceding radiation pulses of the successive radiation pulses and/or following radiation pulses of the successive radiation pulses. a detection device configured to detect, after transmission through the load, successive radiation pulses emitted at a predetermined frequency by a source, the load being in movement in an inspection direction, at an inspection speed with respect to the system, the detection device comprising a matrix of a plurality of arrays of detectors wherein the matrix has a width (w) associated with the inspection direction, the width of the matrix being based on the inspection speed of the load and the predetermined frequency of the successive radiation pulses, wherein the successive radiation pulses are emitted at a predetermined dose by the source, the number of arrays of detectors in the width of the matrix being further based on the predetermined dose of the successive radiation pulses, and wherein the width of the matrix of detectors is such that the detection device is configured to detect a current radiation pulse irradiating at least a current part of the load, the given part overlapping, at least partly, a part of the load irradiated by one or more preceding radiation pulses of the successive radiation pulses and/or following radiation pulses of the successive radiation pulses.
An apparatus comprising: a receiver that receives first system information for a first configuration; wherein the receiver receives second system information for a second configuration based on the first configuration, wherein the first and second configurations include information in common, and the second system information comprises changes to the first configuration without repeating the information common to the first and second configurations. a receiver that receives first system information for a first configuration; wherein the receiver receives second system information for a second configuration based on the first configuration, wherein the first and second configurations include information in common, and the second system information comprises changes to the first configuration without repeating the information common to the first and second configurations.
A method for molding a one-piece polyurethane foam product, the product comprising at least two molded portions (2, 3, 4) wherein a first molded portion (2, 3) has a predetermined hardness and density and a second molded portion having a density different from that of the first molded portion and having the same hardness as that of the first molded portion, the method comprising: injecting at least two urethane stock solutions capable of forming polyurethane foam segments having different densities into a mold, each of the urethane stock solutions comprising a polyol-containing solution and an isocyanate component; characterized by foaming the urethane stock solutions at a predetermined molding pressure P, wherein the amounts of urethane stock solutions injected are determined based on the densities of the polyurethane foam segments formed with the urethane stock solutions at the predetermined molding pressure P and the volumes of molded portions formed with the respective urethane stock solutions so that any molded portion (2, 3, 4) has the predetermined molding pressure P during foaming. injecting at least two urethane stock solutions capable of forming polyurethane foam segments having different densities into a mold, each of the urethane stock solutions comprising a polyol-containing solution and an isocyanate component; characterized by foaming the urethane stock solutions at a predetermined molding pressure P, wherein the amounts of urethane stock solutions injected are determined based on the densities of the polyurethane foam segments formed with the urethane stock solutions at the predetermined molding pressure P and the volumes of molded portions formed with the respective urethane stock solutions so that any molded portion (2, 3, 4) has the predetermined molding pressure P during foaming.