mhurhangee/ep-ind-claims huggingface dataset:
Safety belt device for a vehicle, with a safety belt force limiting unit constructed as a piston-cylinder arrangement, made up of a piston tube and a piston, which can be displaced in the event of a safety belt force limitation, in particular a collision, with expansion and plastic deformation across a force limitation path (s) in the piston tube, so that the belt force exerted on a vehicle occupant is limited to a predefined force level, characterized in that the safety belt device has a switching unit by means of which a force level profile (F(s)) across the force limitation path (s) can be predefined depending on the size, weight, and/or seating position of the vehicle occupant; and in that the switching unit is connected in terms of signaling with a collision sensor system and with an occupant detection sensor system by means of which the size, weight, and/or seating position of the vehicle occupant can be determined; and in that, in the event of a pre-collision phase, an actuator can be controlled by means of the switching unit, with which actuator a component strength of the piston tube can be reduced/increased depending on the size/the weight or the seating position of the vehicle occupant.
Sensor device, comprising: a sensor configured to produce a sensor signal responsive to an external physical quantity of an environmental attribute, the sensor being electrically connected to a first signal; a test device configured for electrically providing a test signal, the test device being connected in series with the sensor by an electrical test connection providing said test signal, the test device being a test sensor which is a substantial duplicate of said sensor and the test sensor being electrically connected to a second signal, and wherein the first signal, the second signal and the test signal are different signals; and a monitor circuit electrically connected to the first, second and test signals, the monitor circuit comprising a processing circuit and a determination circuit, wherein the processing circuit is configured to form a processing output signal responsive to the test signal and to a predetermined processing value, and wherein the determination circuit is configured to determine a diagnostic signal responsive to the processing output signal. a sensor configured to produce a sensor signal responsive to an external physical quantity of an environmental attribute, the sensor being electrically connected to a first signal; a test device configured for electrically providing a test signal, the test device being connected in series with the sensor by an electrical test connection providing said test signal, the test device being a test sensor which is a substantial duplicate of said sensor and the test sensor being electrically connected to a second signal, and wherein the first signal, the second signal and the test signal are different signals; and a monitor circuit electrically connected to the first, second and test signals, the monitor circuit comprising a processing circuit and a determination circuit, wherein the processing circuit is configured to form a processing output signal responsive to the test signal and to a predetermined processing value, and wherein the determination circuit is configured to determine a diagnostic signal responsive to the processing output signal.
A fuel cell system comprising: a fuel cell; an air supplier that supplies air to a cathode of the fuel cell; a flow rate sensor that senses an air flow rate; and a silencer, the flow rate sensor, the air supplier, and the fuel cell being arranged in an air passage in series in order named from an upstream side of flow of the air, characterized in that the silencer is configured to reduce sound of a certain frequency through interference of an acoustic wave, the silencer is arranged in a branch portion of the air passage, the branch portion being between the flow rate sensor and the air supplier, the air supplier is a pump that controls the air flow rate by changing amplitude while an operation frequency is constant, the silencer is a Helmholtz silencer, the Helmholtz silencer includes a cavity and a neck, wherein the neck is coupled to the cavity and to a principle pipe that forms the air passage. a fuel cell; an air supplier that supplies air to a cathode of the fuel cell; a flow rate sensor that senses an air flow rate; and a silencer, the flow rate sensor, the air supplier, and the fuel cell being arranged in an air passage in series in order named from an upstream side of flow of the air, characterized in that the silencer is configured to reduce sound of a certain frequency through interference of an acoustic wave, the silencer is arranged in a branch portion of the air passage, the branch portion being between the flow rate sensor and the air supplier, the air supplier is a pump that controls the air flow rate by changing amplitude while an operation frequency is constant, the silencer is a Helmholtz silencer, the Helmholtz silencer includes a cavity and a neck, wherein the neck is coupled to the cavity and to a principle pipe that forms the air passage.
A fuel monitoring system for a vehicle comprising: a fuel filter sensor device (204, 206; 1208; 1212) configured to generate data reflecting a filter restriction value of a fuel filter; a geolocation circuit configured to generate or receive geolocation data; a system control circuit configured to evaluate the fuel filter sensor device data to determine changes in the filter restriction value; receive fuel level data; cross-reference geolocation data and fuel level data to identify refueling locations utilized; correlate refueling locations with subsequent changes in the filter restriction value to identify an effect of specific refueling locations utilized on fuel filter loading. a fuel filter sensor device (204, 206; 1208; 1212) configured to generate data reflecting a filter restriction value of a fuel filter; a geolocation circuit configured to generate or receive geolocation data; a system control circuit configured to evaluate the fuel filter sensor device data to determine changes in the filter restriction value; receive fuel level data; cross-reference geolocation data and fuel level data to identify refueling locations utilized; correlate refueling locations with subsequent changes in the filter restriction value to identify an effect of specific refueling locations utilized on fuel filter loading.
A method of making an eyewear product by three-dimensional printing, comprising the steps of: a) dyeing a single-color filament adapted for printing with a 3D printer extruder with one or more dye compositions to form a multi-color filament; b) passing the multi-color filament into the 3D printer extruder; c) melting the multi-color filament in the 3D printer extruder to form a melt; and d) discharging the melt from at least one nozzle of the 3D printer extruder to form the eyewear product, wherein the single-color filament is made of a thermoplastic resin selected from a cellulose ester, a nylon or a polyester, and wherein each of the one or more dye compositions comprises a dye and water. a) dyeing a single-color filament adapted for printing with a 3D printer extruder with one or more dye compositions to form a multi-color filament; b) passing the multi-color filament into the 3D printer extruder; c) melting the multi-color filament in the 3D printer extruder to form a melt; and d) discharging the melt from at least one nozzle of the 3D printer extruder to form the eyewear product,
A PEGylated insulin analogue which, compared with human insulin, has one or more PEG-containing extensions extended from the A1, B1, A21 and/or B30 position(s), said extension(s) consist(s) of amino acid residue(s) and wherein the PEG moiety, via a linker, is attached to an amino acid residue in the extension and with the proviso that, preferably, the parent insulin analogue contains only one lysine residue.
An electromagnetic switch, wherein a main contact housing portion that houses a main contact mechanism having a pair of fixed contacts (11a, 11b) fixedly disposed maintaining a predetermined interval and a movable contact disposed so as to be connectable to and detachable from the pair of fixed contacts in a contact housing case, an auxiliary contact housing portion that houses two or more auxiliary contact mechanisms (34A, 34B) having fixed contacts (26a, 26b, 27a, 27b) and movable contacts (32a, 32b) disposed so as to be connectable to and detachable from the fixed contacts, and a movable contact holding portion that holds the movable contacts via contact springs 33a, 33b), and an electromagnet unit having a movable plunger that individually couples and moves the movable contact of the main contact mechanism and the movable contacts (32a, 32b) of the auxiliary contact mechanisms, are disposed in series, and characterized in that the movable contact holding portion is configured of anyone of the following options: either so as to hold the movable contact with the contact spring (33a, 33b)) on the electromagnet unit side in one end portion, and hold the movable contact with the contact spring (33a, 33b)) on the main contact housing portion side in the other end portion, wherein the auxiliary contact mechanisms are configured of an a contact that is in contact in an engaged state of the main contact mechanism and a b contact that is in contact in a released state of the main contact mechanism, or so as to hold the movable contact with the contact spring (33a, 33b) on the electromagnet unit side in both end portions, wherein the auxiliary contact mechanisms are configured of a plurality of a contacts, or so as to hold the movable contact with the contact spring (33a, 33b) on the main contact housing portion side in both end portions, wherein the auxiliary contact mechanisms are configured of a plurality of b contacts. either so as to hold the movable contact with the contact spring (33a, 33b)) on the electromagnet unit side in one end portion, and hold the movable contact with the contact spring (33a, 33b)) on the main contact housing portion side in the other end portion, wherein the auxiliary contact mechanisms are configured of an a contact that is in contact in an engaged state of the main contact mechanism and a b contact that is in contact in a released state of the main contact mechanism, or so as to hold the movable contact with the contact spring (33a, 33b) on the electromagnet unit side in both end portions, wherein the auxiliary contact mechanisms are configured of a plurality of a contacts, or so as to hold the movable contact with the contact spring (33a, 33b) on the main contact housing portion side in both end portions, wherein the auxiliary contact mechanisms are configured of a plurality of b contacts.
Method for illuminating a sample in a microscope, wherein the sample is illuminated using both a transmitted light bright field illumination device and, alternatively, a reflected light fluorescence illumination device, - wherein a white light LED is used as a light source for the transmitted light bright field illumination, - wherein a shutter is forcibly activated at a location of the illumination beam path of the transmitted light bright field illumination device when the reflected light fluorescence illumination device is activated, even if the white light LED is deactivated, said shutter preventing an excitation of the white light LED by the incident light of the reflected light fluorescence illumination device, - and wherein this shutter is forcibly deactivated when activating the transmitted light bright field illumination device. - wherein a white light LED is used as a light source for the transmitted light bright field illumination, - wherein a shutter is forcibly activated at a location of the illumination beam path of the transmitted light bright field illumination device when the reflected light fluorescence illumination device is activated, even if the white light LED is deactivated, said shutter preventing an excitation of the white light LED by the incident light of the reflected light fluorescence illumination device, - and wherein this shutter is forcibly deactivated when activating the transmitted light bright field illumination device.
A method comprising: identifying, by a computing device, a first set of data blocks of a first point-in-time copy of a dataset invalidated by a second point-in-time copy of the dataset, when a threshold number of point-in-time copies is stored in a first storage tier, wherein the first storage tier stores at least the first and second point-in-time copies and the first point-in-time copy precedes in time the second point-in-time copy; migrating, by the computing device, the invalidated first set of data blocks of the first point-in-time copy of the dataset from the first storage tier to a second storage tier, wherein each of the first set of data blocks of the first point-in-time copy of the dataset has been at least partially overwritten by another data block in the second point-in-time copy of the dataset; and updating, by the computing device, a data map to indicate that the first set of data blocks of the first point-in-time copy of the dataset are no longer stored in the first storage tier. identifying, by a computing device, a first set of data blocks of a first point-in-time copy of a dataset invalidated by a second point-in-time copy of the dataset, when a threshold number of point-in-time copies is stored in a first storage tier, wherein the first storage tier stores at least the first and second point-in-time copies and the first point-in-time copy precedes in time the second point-in-time copy; migrating, by the computing device, the invalidated first set of data blocks of the first point-in-time copy of the dataset from the first storage tier to a second storage tier, wherein each of the first set of data blocks of the first point-in-time copy of the dataset has been at least partially overwritten by another data block in the second point-in-time copy of the dataset; and updating, by the computing device, a data map to indicate that the first set of data blocks of the first point-in-time copy of the dataset are no longer stored in the first storage tier.
A method for suppressing corrosion under insulation, comprising a step of applying a paste comprising silica aerogel particles, wherein aerogel particles include aerogel, xerogel and/or cryogel particles, a liquid medium, which is a water-based solvent, and a binder resin to a target surface to form a coating film, wherein the binder resin comprises a first binder resin and a second binder resin, both dissolved in the liquid medium and wherein the second binder resin has a lower solubility to the liquid medium than the first binder resin, wherein a content of the second binder resin is greater than a content of the first binder resin, wherein the first binder resin is a cellulose-based resin or an (meth)acrylic acid-based resin, which is a polymer including an acrylic acid, an acrylate, methacrylic acid, and methacrylate as structural units and wherein the second binder resin is a thermoplastic resin or a thermosetting resin, and wherein a content of the aerogel particles is 5% by mass or more based on a total amount of the paste.
A fluid manifold (100; 200) comprising: a manifold body (102; 202) including a first annular passage defined between a first wall of the manifold body (102; 202) and a second wall of the manifold body (102; 202); and a second annular passage, wherein the second annular passage is defined between the second wall of the manifold body (102; 202) and a third wall of the manifold body (102; 202), wherein each of the first annular passage and the second annular passage includes a plurality of distinct outlet passages (122, 124; 222, 224) branching off therefrom, wherein each of the outlet passages (122, 124; 222, 224) extends in a radial direction from a respective annular chamber, and wherein each of the first annular passage and the second annular passage includes a respective inlet feed passage (134, 136) that feeds into a respective annular passage (104, 110) tangentially to induce spin on fluids flowing therethrough. a manifold body (102; 202) including a first annular passage defined between a first wall of the manifold body (102; 202) and a second wall of the manifold body (102; 202); and a second annular passage, wherein the second annular passage is defined between the second wall of the manifold body (102; 202) and a third wall of the manifold body (102; 202), wherein each of the first annular passage and the second annular passage includes a plurality of distinct outlet passages (122, 124; 222, 224) branching off therefrom, wherein each of the outlet passages (122, 124; 222, 224) extends in a radial direction from a respective annular chamber, and wherein each of the first annular passage and the second annular passage includes a respective inlet feed passage (134, 136) that feeds into a respective annular passage (104, 110) tangentially to induce spin on fluids flowing therethrough.
A dynamic positioning vessel comprising: a plurality of redundancy zones, wherein each redundancy zone is in a separate enclosed area, a thruster system comprising at least two thrusters to create transversal thrust, and a main power supply system comprising: a generator system, and a main electrical distribution system comprising a switchboard system, characterized in that the vessel further comprises an energy storage system comprising a plurality of energy storage subsystems, where the energy storage system represents electrical power at standby, ready to use, wherein at least one of the thrusters is operatively connected to a first of the plurality of energy storage subsystems, and the at least one thruster and the operatively connected energy storage subsystem are located in a first redundancy zone, and another of the thrusters and the generator system are located outside said first redundancy zone, and the generator system is located in a single compartment in a single redundancy zone. a plurality of redundancy zones, wherein each redundancy zone is in a separate enclosed area, a thruster system comprising at least two thrusters to create transversal thrust, and a main power supply system comprising: a generator system, and a main electrical distribution system comprising a switchboard system, a generator system, and a main electrical distribution system comprising a switchboard system, the vessel further comprises an energy storage system comprising a plurality of energy storage subsystems, where the energy storage system represents electrical power at standby, ready to use, wherein at least one of the thrusters is operatively connected to a first of the plurality of energy storage subsystems, and the at least one thruster and the operatively connected energy storage subsystem are located in a first redundancy zone, and another of the thrusters and the generator system are located outside said first redundancy zone, and the generator system is located in a single compartment in a single redundancy zone.
A method for controlling a parking brake of a motor vehicle during a stop, comprising the following steps: detecting an ignition signal, detecting an actuating state of the parking brake and setting an application force of the parking brake to a first value dependent on the actuating state of the parking brake when the ignition signal is present, characterized in that the first value is lower than a second value which is set upon parking the vehicle, although is sufficient to hold the vehicle in a current position, and wherein the application force is reduced from the second value to the first value when the parking brake is in the applied actuating state and/or the application force is increased to the first value when the parking brake is in the released actuating state. detecting an ignition signal, detecting an actuating state of the parking brake and setting an application force of the parking brake to a first value dependent on the actuating state of the parking brake when the ignition signal is present, that the first value is lower than a second value which is set upon parking the vehicle, although is sufficient to hold the vehicle in a current position, and wherein the application force is reduced from the second value to the first value when the parking brake is in the applied actuating state and/or the application force is increased to the first value when the parking brake is in the released actuating state.
Lysate of a bacterium or bacteria belonging to the genus Vitreoscilla sp. (in particular the species Vitreoscilla filiformis) in a complete fermentation medium as active agent for use thereof to prevent and/or treat cosmetic unsightliness related to dandruff conditions of the scalp, in particular associated with proliferation of pathogenic microorganisms on the scalp and/or imbalance of the ecoflora of the scalp; said complete fermentation medium being a medium derived from the culture method used for growth and cell lysis of the microorganism dedicated to forming said lysate, said medium not having undergone any additional handling intended to separate and/or remove all or part of the non-aqueous constituents thereof.
Method for producing three-dimensional work pieces, the method comprising the following steps: - supplying gas to a process chamber accommodating a carrier and a powder application device, - applying a layer of raw material powder onto the carrier by means of the powder application device, - selectively irradiating electromagnetic or particle radiation onto the raw material powder applied onto the carrier by means of an irradiation device, and - discharging gas containing particulate impurities from the process chamber, characterized in that the method further comprises the steps of - filtering the particulate impurities from the discharged gas stream, and - controlling the operation of the irradiation device by means of a control unit such that a radiation beam emitted by at least one radiation source of the irradiation device is guided over the layer of raw material powder applied onto the carrier according to a radiation pattern (56, 56') containing a plurality of scan vectors (V, V'), wherein the scan vectors (V, V'), in at least a section of the radiation pattern (56, 56"), extend substantially parallel to each other and are directed in opposite directions, and wherein the scan vectors (V, V') of the substantially parallel scan vectors (V, V') extend at an angle (γ, γ') between 30° and 60°, between 120° and 150°, between 210° and 240° or between 300° and 330° with respect to a direction of flow of a gas stream flowing through the process chamber. - supplying gas to a process chamber accommodating a carrier and a powder application device, - applying a layer of raw material powder onto the carrier by means of the powder application device, - selectively irradiating electromagnetic or particle radiation onto the raw material powder applied onto the carrier by means of an irradiation device, and - discharging gas containing particulate impurities from the process chamber, characterized in that the method further comprises the steps of - filtering the particulate impurities from the discharged gas stream, and - controlling the operation of the irradiation device by means of a control unit such that a radiation beam emitted by at least one radiation source of the irradiation device is guided over the layer of raw material powder applied onto the carrier according to a radiation pattern (56, 56') containing a plurality of scan vectors (V, V'), wherein the scan vectors (V, V'), in at least a section of the radiation pattern (56, 56"), extend substantially parallel to each other and are directed in opposite directions, and wherein the scan vectors (V, V') of the substantially parallel scan vectors (V, V') extend at an angle (γ, γ') between 30° and 60°, between 120° and 150°, between 210° and 240° or between 300° and 330° with respect to a direction of flow of a gas stream flowing through the process chamber.