mhurhangee/ep-ind-claims huggingface dataset:
A fixing unit (1, 1a, 1b), comprising: a rotatable fixing member (3, 40) including a heat generating layer to generate heat due to the effect of a magnetic flux on the heat generating layer; and a rotatable pressure applying member (4, 43) configured to contact the rotatable fixing member (3, 40) and to apply pressure to the fixing member (3, 40), the rotatable fixing member (3, 40) and the rotatable pressure applying member (4, 43) forming a nip therebetween, through which a recording medium is passed in use to fix an image on the recording medium, characterized in that the fixing unit (1, 1a, 1b) includes a magnetism regulating layer at an inner side with respect to the heat generating layer, the magnetism regulating layer being made of a magnetic material having a given Curie temperature and in that the rotatable fixing member (3, 40) is deformable due to pressure applied by the rotatable pressure applying member (4, 43); and in that the fixing unit (1, 1a, 1b) includes a heat insulating layer at an inner side with respect to the magnetism regulating layer, and the heat insulating layer has a lower heat conductivity than the magnetism regulating layer. a rotatable fixing member (3, 40) including a heat generating layer to generate heat due to the effect of a magnetic flux on the heat generating layer; and a rotatable pressure applying member (4, 43) configured to contact the rotatable fixing member (3, 40) and to apply pressure to the fixing member (3, 40), the rotatable fixing member (3, 40) and the rotatable pressure applying member (4, 43) forming a nip therebetween, through which a recording medium is passed in use to fix an image on the recording medium, characterized in that the fixing unit (1, 1a, 1b) includes a magnetism regulating layer at an inner side with respect to the heat generating layer, the magnetism regulating layer being made of a magnetic material having a given Curie temperature and in that the rotatable fixing member (3, 40) is deformable due to pressure applied by the rotatable pressure applying member (4, 43); and in that the fixing unit (1, 1a, 1b) includes a heat insulating layer at an inner side with respect to the magnetism regulating layer, and the heat insulating layer has a lower heat conductivity than the magnetism regulating layer.
The oxide catalyst for the direct NO decomposition to N 2 and O 2 deposited on metallic substrate, characterized in that the austenitic acid proof chromium-nickel steel is the substrate and the catalyst is biphasic and contains the phase with αFe 2 O 3 structure and the phase with spinel structure, wherein the lattice parameters of the spinel phase are very close to the lattice parameters of NiFe 2 O 4 and the phases form micro crystallites containing additionally Cr, Mn and possibly Si with the concentrations: 3,6 - 8,8 at. % of Cr, and 1.4-3,4 at. % of Mn in the phase with NiFe 2 O 4 structure and 0.1 - 1.7 at. % of Cr, 0.1 - 0.3 at. % of Mn and 0 - 0,2 at.% of Si in the phase with α-Fe 2 O 3 structure and the content of the spinel phase in the catalyst is equal to 28%-36% wt. % and the content of the phase with αFe 2 O 3 structure is equal to 64-72 wt. %, wherein said concentrations have been determined by TEM-EDX, and wherein the steel substrate is the 1H18N9T/1.4541 steel.
A Weather radar for measuring radar signals in the GHz range with a receiver containing at least one signal path, the receiver comprising a receiving facility for an incoming radar signal, on which a test signal generated by a test signal generator can be superimposed in a coupler, and a processing device to amplify, filter and convert both signals to lower frequencies, wherein for filtering a matched filter is provided, and with an evaluation device in which calibration parameters of the signal path can be derived from the test signal for the frequency of the test signal in order to determine the signal strength of the received radar signal, wherein the test signal can be superimposed with at least one frequency differing from the frequency of the radar signal, so that the radar signal and the test signal can be processed separately from one another by the evaluation device, and the calibration parameters of the signal path for the frequency of the radar signal are determinable from the test signal through a modeling of the frequency dependence of the calibration parameters for frequencies around those of the radar signal.
Cylindrical locking anchor for opening or closing a current-less sealed magnetic valve by sliding of the locking anchor in a sleeve-shaped valve housing between a magnetic anchor at one end of the valve housing with an inlet for a fluid and a valve seat (1.2) as an outlet at the other end of the valve housing, by means of an electro-magnet sitting on the valve housing, wherein the locking anchor has on its outlet side a tapering jacket surface (4.3), into which at least one channel opens, which starts from the inlet-side face surface (4.7) of the locking anchor, and wherein the locking anchor has a receiving point (4.5) in the outlet-side face surface, in which an elastic element sits, which in the closed state of the magnetic valve is in contact at the valve seat (1.2), wherein the receiving point (4, 5), in which the elastic element sits, is a blind hole, characterised in that the element has a cut-out opening (6.2), and the cut-out opening (6.2) connects the face surfaces of the element
An electrically operated food processor, - with a voice recognition system designed to compare voice signals of a user with known control commands for operating the food processor, - with an activation device for activating the voice recognition system, wherein the activation device has an optical detection system and is set up to activate the voice recognition system as a function of information acquired by the optical detection system, characterized in that - a recipe database is stored in the food processor, wherein the food processor is further set up in such a way that - the voice recognition system can be used to select complete recipes from the internal recipe database, provided that a suitable recipe, i.e., one that can be allocated to a voice command, or a portion of a recipe is stored in the database, - parameters relating to the agitator speed, resistance heater temperature and duration are allocated to a recipe, and that, - upon activation of the recipe sequence, the parameters are automatically set by the food processor or presented to the user for confirmation. - with a voice recognition system designed to compare voice signals of a user with known control commands for operating the food processor, - with an activation device for activating the voice recognition system, wherein the activation device has an optical detection system and is set up to activate the voice recognition system as a function of information acquired by the optical detection system, characterized in that - a recipe database is stored in the food processor, wherein the food processor is further set up in such a way that - the voice recognition system can be used to select complete recipes from the internal recipe database, provided that a suitable recipe, i.e., one that can be allocated to a voice command, or a portion of a recipe is stored in the database, - parameters relating to the agitator speed, resistance heater temperature and duration are allocated to a recipe, and that, - upon activation of the recipe sequence, the parameters are automatically set by the food processor or presented to the user for confirmation.
Device for measuring the concentricity of the core of an optical fiber relative to a reference axis, comprising a means for determining the position of the intersection of the reference axis with an optical face on the end of the optical fiber, a means for injecting light into the core of the optical fiber, an objective and a means for observing, in a plane conjugate with the optical face, the light emitted by the core of the optical fiber, characterized in that the objective has a numerical aperture (sinβ) smaller than the numerical aperture (sinα) of the optical fiber to be measured.
A guidance information providing device comprising: a location information acquisition unit configured to acquire location information on a plurality of mobile shop vehicles, the plurality of mobile shop vehicles being collected in a space to function as a shopping mall, wherein the location information includes information obtained from at least one of a camera and a sensor provided on at least one of the mobile shop vehicles, said information indicating a location relative to objects surrounding the at least one of the mobile shop vehicles; a generation unit configured to generate map information of the shopping mall, the map information indicating a layout of each mobile shop vehicle of said plurality in the shopping mall based on the acquired location information; and an output unit configured to output the map information. a location information acquisition unit configured to acquire location information on a plurality of mobile shop vehicles, the plurality of mobile shop vehicles being collected in a space to function as a shopping mall, wherein the location information includes information obtained from at least one of a camera and a sensor provided on at least one of the mobile shop vehicles, said information indicating a location relative to objects surrounding the at least one of the mobile shop vehicles; a generation unit configured to generate map information of the shopping mall, the map information indicating a layout of each mobile shop vehicle of said plurality in the shopping mall based on the acquired location information; and an output unit configured to output the map information.
A cleansing composition comprising: (i) from 1 to 15 wt% of at least one C 8 -C 22 fatty acid; (ii) from 2 to 25 wt% of at least one isethionate ester surfactant of the formula: (iii) from 0.5 to 7.5 wt% of at least one alkyl isethionate ester surfactant of the formula: wherein R 1 and R 2 each independently represents a substituted or unsubstituted C 4 -C 36 hydrocarbyl group; R 3, R 4, R 5 and R 6 each independently represents hydrogen or a substituted or unsubstituted C 1 -C 4 alkyl group, provided that at least one of R 3, R 4, R 5 and R 6 is not hydrogen; and M + and M 1 + each independently represents a cation; and (iv) from 52.5 to 95 wt% of soap, preferably wherein the cleansing composition is a solid composition. (i) from 1 to 15 wt% of at least one C 8 -C 22 fatty acid; (ii) from 2 to 25 wt% of at least one isethionate ester surfactant of the formula: (iii) from 0.5 to 7.5 wt% of at least one alkyl isethionate ester surfactant of the formula: wherein R 1 and R 2 each independently represents a substituted or unsubstituted C 4 -C 36 hydrocarbyl group; R 3, R 4, R 5 and R 6 each independently represents hydrogen or a substituted or unsubstituted C 1 -C 4 alkyl group, provided that at least one of R 3, R 4, R 5 and R 6 is not hydrogen; and M + and M 1 + each independently represents a cation; and wherein R 1 and R 2 each independently represents a substituted or unsubstituted C 4 -C 36 hydrocarbyl group; R 3, R 4, R 5 and R 6 each independently represents hydrogen or a substituted or unsubstituted C 1 -C 4 alkyl group, provided that at least one of R 3, R 4, R 5 and R 6 is not hydrogen; and M + and M 1 + each independently represents a cation; and (iv) from 52.5 to 95 wt% of soap, preferably wherein the cleansing composition is a solid composition.
A system comprising: - an electrical power generator for generating electrical power, the power generator comprising: - a first element and a second element at least one of which is configured for comprising an electrical charge, the first and second element being further configured to be rotatable with respect to each other in order to thereby generate the electrical power when at least one of the first element and second element comprises the electrical charge, characterized in that the system further comprises: - a mechanism configured for controlling a distance between the first element and the second element such that the distance is controlled in dependence on a relative speed of rotation between the first element and the second element. - an electrical power generator for generating electrical power, the power generator comprising: - a first element and a second element at least one of which is configured for comprising an electrical charge, the first and second element being further configured to be rotatable with respect to each other in order to thereby generate the electrical power when at least one of the first element and second element comprises the electrical charge, - a first element and a second element at least one of which is configured for comprising an electrical charge, the first and second element being further configured to be rotatable with respect to each other in order to thereby generate the electrical power when at least one of the first element and second element comprises the electrical charge, - a mechanism configured for controlling a distance between the first element and the second element such that the distance is controlled in dependence on a relative speed of rotation between the first element and the second element.
Fragment protection which is connectable to the intake flange of a vacuum pump with a fast-rotating rotor, comprising at least one component covering the opening of the intake flange of the vacuum pump, wherein at least one component is made of a material with a relative permeability μ r of greater than 1000, characterised in that the component for increasing the separating effect for dynamic magnetic fields covering the opening has a layer made of copper.
A method of monitoring an electric motor circuit of the kind comprising an electric motor having a plurality of phases (2, 4, 6) connected together in a star or delta configuration, a switching circuit comprising a plurality of electrical switches arranged in a bridge, the switches being operable in response to signals from a controller to selectively connect the phases (2, 4, 6) to a power supply so as to cause current to flow through the phases (2, 4, 6) of the motor, the motor controller being responsive to a current error signal dependent on the difference between a demanded motor current value and an actual motor current value indicative of the actual current flowing in the motor, characterised by the method comprising the steps of processing at least one signal that is present in use of the electric motor circuit to identify a frequency component of the at least one signal that is equal to, or substantially equal to, the reciprocal of twice or another integer multiple of the time taken to propagate around the control loop that includes the controller and in the event that the component is identified and that it does meet the criteria providing an indication that there is a fault.
A fused protein in which the Knob region of a fiber protein of egg drop syndrome virus (EDSV) is fused to a polypeptide having a coiled-coil forming unit, wherein the polypeptide having a coiled-coil forming unit and the Knob region are adjacent to each other or comprise a linker and/or tag sequence between them, wherein the Knob region consists of the amino acid sequence represented by SEQ ID NO: 11, or of the amino acid sequence of SEQ ID NO: 11 with the deletion, substitution or addition of 1 to 3 amino acids.
A method of reducing noise in a cabin of a vehicle environment, the method comprising: receiving a reference signal representative of a noise to be reduced; providing a noise cancellation signal based upon the reference signal; receiving a feedback signal representative of a residual noise in the environment; combining the noise cancellation signal with an active sound signal related to engine harmonic of the vehicle; and filtering at least one of the reference signal, the noise cancellation signal, or the feedback signal based upon a rotational rate of a rotating equipment associated with the environment characterised in that filtering at least one of the reference signal, the noise cancellation signal, or the feedback signal based upon a rotational rate of a rotating equipment includes filtering out a bandwidth of frequencies based upon a change or a rate of change of the rotational rate. receiving a reference signal representative of a noise to be reduced; providing a noise cancellation signal based upon the reference signal; receiving a feedback signal representative of a residual noise in the environment; combining the noise cancellation signal with an active sound signal related to engine harmonic of the vehicle; and filtering at least one of the reference signal, the noise cancellation signal, or the feedback signal based upon a rotational rate of a rotating equipment associated with the environment characterised in that filtering at least one of the reference signal, the noise cancellation signal, or the feedback signal based upon a rotational rate of a rotating equipment includes filtering out a bandwidth of frequencies based upon a change or a rate of change of the rotational rate.
A parameter setting method, characterized by comprising: receiving, by a terminal device, a parameter indication that is used for setting a parameter of a resource to a first value or a second value; and setting, by the terminal device, a parameter of a first resource to the first value or the second value according to the parameter indication; wherein the resource in the parameter indication comprises the first resource, wherein the parameter indication is further used for indicating at least one of a first Hybrid Automatic Repeat reQuest, HARQ, feedback type of the resource being associated with the first value of the parameter, a second HARQ feedback type of the resource being associated with the second value of the parameter, the first HARQ feedback type is a feedback-based HARQ transmission type and the second HARQ feedback type is a non-feedback-based HARQ transmission type, characterized in that the parameter comprises a parameter of a first timer, wherein the parameter indication is further used for indicating at least one of whether to start the first timer with the first value or whether to start the first timer with the second value, and the first timer comprises a Configured Grant Timer. receiving, by a terminal device, a parameter indication that is used for setting a parameter of a resource to a first value or a second value; and setting, by the terminal device, a parameter of a first resource to the first value or the second value according to the parameter indication; wherein the resource in the parameter indication comprises the first resource, wherein the parameter indication is further used for indicating at least one of a first Hybrid Automatic Repeat reQuest, HARQ, feedback type of the resource being associated with the first value of the parameter, a second HARQ feedback type of the resource being associated with the second value of the parameter, the first HARQ feedback type is a feedback-based HARQ transmission type and the second HARQ feedback type is a non-feedback-based HARQ transmission type, characterized in that the parameter comprises a parameter of a first timer, wherein the parameter indication is further used for indicating at least one of whether to start the first timer with the first value or whether to start the first timer with the second value, and the first timer comprises a Configured Grant Timer.
An apparatus (10, 10a) for collecting a dry material sample flowing in a duct, the apparatus (10, 10a) comprising: a sample tube; a housing configured as a fluid cylinder (22, 42) and having a duct end and an outlet end; a piston (28, 44) mounted around and connected to the sample tube and positioned within the housing; first and second sealing sleeves (30, 32) around and slideably supporting the sample tube, the duct end including the first sealing sleeve and the outlet end including the second sealing sleeve; and a duct-connecting structure configured for extending between the duct end of the housing and the duct, wherein the sample tube is a piston rod within the fluid cylinder housing, and the fluid-cylinder housing is configured to extend and retract the sample tube within the duct, characterized in that the sample tube has a closed distal end and a sample-inlet aperture in the wall of the sample tube adjacent the closed distal end, wherein 4he the sample tube is configured for assuming a retracted position inside the fluid cylinder 22, wherein the closed distal end is located inside the duct end of the fluid cylinder. a sample tube; a housing configured as a fluid cylinder (22, 42) and having a duct end and an outlet end; a piston (28, 44) mounted around and connected to the sample tube and positioned within the housing; first and second sealing sleeves (30, 32) around and slideably supporting the sample tube, the duct end including the first sealing sleeve and the outlet end including the second sealing sleeve; and a duct-connecting structure configured for extending between the duct end of the housing and the duct, wherein the sample tube is a piston rod within the fluid cylinder housing, and the fluid-cylinder housing is configured to extend and retract the sample tube within the duct, characterized in that the sample tube has a closed distal end and a sample-inlet aperture in the wall of the sample tube adjacent the closed distal end, wherein 4he the sample tube is configured for assuming a retracted position inside the fluid cylinder 22, wherein the closed distal end is located inside the duct end of the fluid cylinder.
A communication terminal (10, 20) comprising: monitoring means (11, 21) for monitoring control information containing allocation information of at least one subframe where downlink data is transmitted, the control information being used in multi-subframe scheduling; and control means (12, 22) for determining monitoring time to monitor the control information in accordance with a decoding result comprising any one of the number of times or percentage that the downlink data has been decoded correctly and the number of times or percentage that the downlink data has not been decoded correctly, wherein all subframes have a region for control information and the monitoring means (11, 21) is configured to monitor the control information at the determined monitoring time. monitoring means (11, 21) for monitoring control information containing allocation information of at least one subframe where downlink data is transmitted, the control information being used in multi-subframe scheduling; and control means (12, 22) for determining monitoring time to monitor the control information in accordance with a decoding result comprising any one of the number of times or percentage that the downlink data has been decoded correctly and the number of times or percentage that the downlink data has not been decoded correctly, wherein all subframes have a region for control information and the monitoring means (11, 21) is configured to monitor the control information at the determined monitoring time.