mhurhangee/ep-ind-claims huggingface dataset:
Pump for delivering a liquid, having at least one pump housing with at least one inlet and at least one outlet, and having an inner circumferential face and having a geometric axis, wherein an eccentric is arranged within the pump housing and the eccentric is movable relative to the pump housing about the geometric axis, wherein a deformable element is arranged in a pump gap between the inner circumferential face of the pump housing and an outer face of the eccentric, and wherein a delivery duct is formed from the at least one inlet to the at least one outlet by the deformable element and by the inner circumferential face of the pump housing, and wherein furthermore, the deformable element is pressed against the pump housing along at least one section of the delivery duct by the outer face of the eccentric such that at least one displaceable seal of the delivery duct and at least one closed pump volume are formed in the delivery duct, these being displaceable along the delivery duct from the inlet to the outlet by means of an eccentric movement of the eccentric for the delivery of the liquid, wherein, between the outlet and the inlet, there is provided a static seal which prevents a backflow of liquid from the outlet back to the inlet, characterized in that the inner circumferential face of the pump housing has a recess in the region of the static seal, and the deformable element is braced in fluid-tight fashion against the inner circumferential face in the region of the recess by means of a pin.
A control device for a motor drive system for driving an AC motor (MG1, MG2) having a magnet in a rotor, said motor drive system including a DC power supply configured to be chargeable, a first converter for stepping up a power supply voltage supplied from said DC power supply, and an inverter (130, 135) for driving said AC motor (MG1, MG2) by converting DC power from said first converter to AC power, wherein said control device is configured to generate a step-up command value (VR*) for said first converter based on a torque command value and a rotational speed for said AC motor (MG1, MG2) by referring to a map stored in advance, determine whether to carry out field-weakening control for increasing a current in a direction weakening force of said magnet, that is supplied from said inverter (130, 135) to said AC motor (MG1, MG2), based on said torque command value and said rotational speed for said AC motor (MG1, MG2), when said step-up command value (VR*) has reached a maximum value (Vdc) of system voltage, and further increase said generated step-up command value (VR*) by increasing said maximum value (Vdc) of system voltage when said field-weakening control should be carried out and when an absolute value of said torque command value is smaller than a threshold value (TRth).
An air-cooled battery module, comprising: a unit module stack formed by stacking a plurality of unit modules, each unit module having a plurality of battery cells stacked on each other; a swelling absorption pad interposed between the unit modules adjacent to each other; and a module housing configured to accommodate the unit module stack and the swelling absorption pad, wherein the swelling absorption pad has a water coolant channel formed to extend along a longitudinal direction thereof, wherein the air-cooled battery module includes: an air inlet formed through the module housing at one side of the unit module stack in a stacking direction; and an air outlet formed through the module housing at the other side of the unit module stack in the stacking direction, wherein the air-cooled battery module includes an expansion pad disposed inside the air inlet and the air outlet and configured to expand due to the contact with a water coolant introduced into the air-cooled battery module to close the air inlet and the air outlet. a unit module stack formed by stacking a plurality of unit modules, each unit module having a plurality of battery cells stacked on each other; a swelling absorption pad interposed between the unit modules adjacent to each other; and a module housing configured to accommodate the unit module stack and the swelling absorption pad, wherein the swelling absorption pad has a water coolant channel formed to extend along a longitudinal direction thereof, wherein the air-cooled battery module includes: an air inlet formed through the module housing at one side of the unit module stack in a stacking direction; and an air outlet formed through the module housing at the other side of the unit module stack in the stacking direction, wherein the air-cooled battery module includes an expansion pad disposed inside the air inlet and the air outlet and configured to expand due to the contact with a water coolant introduced into the air-cooled battery module to close the air inlet and the air outlet. an air inlet formed through the module housing at one side of the unit module stack in a stacking direction; and an air outlet formed through the module housing at the other side of the unit module stack in the stacking direction, wherein the air-cooled battery module includes an expansion pad disposed inside the air inlet and the air outlet and configured to expand due to the contact with a water coolant introduced into the air-cooled battery module to close the air inlet and the air outlet.
Process for manufacturing a fire protection element (1 or 1') having a layer structure, which element comprises at least two mineral wool layers in the form of slabs (2a, 2b) between which is arranged at least one inorganic material layer, which liberates water under the influence of heat, characterised in that a cured mineral wool mat is coated with an inorganic material layer, which essentially consists of paste of gypsum, and that the mat thereafter is divided into slabs, which thereby constitute said mineral wool slabs (2a, 2b), whereafter these slabs on the manufacturing line automatedly are placed on top of each other so that gypsum layers are formed between the mineral wool slabs and that these gypsum layers thereafter are allowed to dry up by themselves whereby the sheets are glued together.
A food casing with antifungal properties characterized in that it is coated at least in its external surface with a water-based composition comprising at least, a film forming agent, a lipid and natamycin.
A device for the treatment of metatarsophalangeal predislocation syndrome, that is made up of an elastic tubular body, made of a breathable material, which is adapted in shape and dimensions to the anterior region of the instep of the foot, said tubular body having, in correspondence with the anterior edge of its face, arranged in the upper part of the foot in use, a frontal area having a length in accordance with the phalange of the dislocated toe in use, where it is from this frontal area that two side flaps and project, which side flaps and can be folded, characterized in that said side flaps and have fixing means on the inner face thereof for fixing them on the face arranged on the sole of the foot in use, going around the dislocated toe.
A vehicle seat with integrated heating for the neck and/or head area, featuring a housing for conveying the heated air, wherein the location of at least part of the housing can be changed under the influence of a force and the housing is composed of multiple elements, and wherein the part of the housing, which directly borders on the seat surface of the vehicle seat or the surface of the headrest of the vehicle seat, can be changed with respect to its location relative to the vehicle seat, characterized in that parts of the housing feature bending points or predetermined breaking points, by means of which a shape change is realized, or that the housing or part of the housing consists of a rubber-like or elastic material, which allows a reversible change of the housing, or that a change in location of parts of the housing is realized in that individual parts of the housing change their position under the influence of a force.
Access system for a vehicle, in particular for activating an electric lock of the vehicle: - at least one actuation sensor, by means of which a first inductance detection can be carried out to detect an activation action, - at least one information sensor, by means of which a second inductance detection can be carried out, so that additional information on the activation action can be determined, whereby the detection of the activation action can be made plausible, wherein the information sensor is arranged on the vehicle in such a way that a disturbance influence on the detection of the activation action can be detected by the second inductance detection, characterized in that the plausibility check is carried out by using the second inductance detection to determine a threshold value for an evaluation for detection. - at least one actuation sensor, by means of which a first inductance detection can be carried out to detect an activation action, - at least one information sensor, by means of which a second inductance detection can be carried out, so that additional information on the activation action can be determined, whereby the detection of the activation action can be made plausible, wherein the information sensor is arranged on the vehicle in such a way that a disturbance influence on the detection of the activation action can be detected by the second inductance detection, characterized in that the plausibility check is carried out by using the second inductance detection to determine a threshold value for an evaluation for detection.
Two-component polyurethane composition comprising - a first component comprising at least one polybutadiene polyol P1 having an average molecular weight M n in the range from 2'000 to 10'000 g/mol and an average OH functionality in the range from 2.1 to 4, and - a second component comprising at least one polyisocyanate and optionally at least one isocyanate-terminated polyurethane prepolymer, wherein the polyurethane composition further comprises at least one hydrophobic diol P2 having an average molecular weight M n in the range from 500 to 5'000 g/mol selected from the group consisting of polyester diols, polycarbonate diols and polyether diols having a repeat unit having at least 4 carbon atoms and/or at least one hydrophobic compound P3 terminated by amino groups and having an average molecular weight M n in the range from 200 to 2'000 g/mol, where the molar ratio V1 of the number of hydroxyl groups from the polybutadiene polyol P1 to the number of hydroxyl and primary and secondary amino groups from diol P2 and the compound P3 is in the range from 2:1 to 16:1, and where the average molecular weight M n is determined by gel permeation chromatography against polystyrene as standard. - a first component comprising at least one polybutadiene polyol P1 having an average molecular weight M n in the range from 2'000 to 10'000 g/mol and an average OH functionality in the range from 2.1 to 4, and - a second component comprising at least one polyisocyanate and optionally at least one isocyanate-terminated polyurethane prepolymer, at least one hydrophobic diol P2 having an average molecular weight M n in the range from 500 to 5'000 g/mol selected from the group consisting of polyester diols, polycarbonate diols and polyether diols having a repeat unit having at least 4 carbon atoms and/or at least one hydrophobic compound P3 terminated by amino groups and having an average molecular weight M n in the range from 200 to 2'000 g/mol, where the molar ratio V1 of the number of hydroxyl groups from the polybutadiene polyol P1 to the number of hydroxyl and primary and secondary amino groups from diol P2 and the compound P3 is in the range from 2:1 to 16:1, and where the average molecular weight M n is determined by gel permeation chromatography against polystyrene as standard.
A system for spectroscopic measurement of a characteristic of a biological tissue, the system comprising: at least one light source operable to emit light that penetrates the biological tissue; at least one light detector operable to detect light emitted by the at least one light source and passed through the biological tissue, and operable to convert the detected light into a detection signal; and a processor operable to receive the detection signal, and operable to determine an adjusted peak-to-peak amplitude value that is representative of an amplitude of the detection signal adjusted to account for an unwanted noise component present in the detection signal; wherein, in order to determine the adjusted peak-to-peak amplitude value, the processor includes a filter operable to convert the detection signal into a differentiated detection signal; wherein the processor is operable to convert the differentiated detection signal into a differentiated and gain-adjusted detection signal; and wherein the processor is operable to determine a maximum value of the differentiated and gain-adjusted detection signal, and a minimum value of the differentiated and gain-adjusted detection signal. at least one light source operable to emit light that penetrates the biological tissue; at least one light detector operable to detect light emitted by the at least one light source and passed through the biological tissue, and operable to convert the detected light into a detection signal; and a processor operable to receive the detection signal, and operable to determine an adjusted peak-to-peak amplitude value that is representative of an amplitude of the detection signal adjusted to account for an unwanted noise component present in the detection signal; wherein, in order to determine the adjusted peak-to-peak amplitude value, the processor includes a filter operable to convert the detection signal into a differentiated detection signal; wherein the processor is operable to convert the differentiated detection signal into a differentiated and gain-adjusted detection signal; and wherein the processor is operable to determine a maximum value of the differentiated and gain-adjusted detection signal, and a minimum value of the differentiated and gain-adjusted detection signal.
Star sensor having an optical imaging system (2, 2a) with an optical unit which images a field of view (17, 19), prescribed by an optical axis, onto a sensor surface (6, 6a) of a detector (5, 5a) along a beam path (10, 11, 11a), characterized in that the optical unit has a partial objective, which is designed in the form of a central objective with a first focal length, and focuses a first field of view onto the entire sensor surface (6, 6a), and a partial objective (9, 9a), which is designed in the form of a mirror-lens objective surrounding said partial objective and focuses a second field of view onto the entire sensor surface (6, 6a) and has a longer focal length and light patterns (15, 22, 22a) simultaneously imaging onto the sensor surface (6, 6a) and at least partially separated from one another by means of a computing device imaged on the sensor surface (6, 6a).
A method for manufacturing a plugged honeycomb structure, comprising: a forming raw material preparation step of mixing and kneading a partition wall base material raw material at least including cordierite powder and binder with water to obtain a partition wall base material forming raw material; a forming/drying step of forming the obtained partition wall base material forming raw material to obtain a honeycomb formed body including a not-fired partition wall base material that defines a plurality of cells serving as a through channel of fluid, and drying the obtained honeycomb formed body to obtain a honeycomb dried body; a slurry application step of applying trapping layer forming slurry at least including a trapping layer forming raw material and water to a surface of the not-fired partition wall base material that defines predetermined cells of the honeycomb dried body, and drying the honeycomb dried body to which the trapping layer forming slurry has been applied; a firing step of firing the honeycomb dried body to which the trapping layer forming slurry has been applied to obtain a honeycomb fired body; and a plugging step of disposing a plugging portion at open ends of predetermined cells of the honeycomb dried body to which the trapping layer forming slurry has been applied or of the honeycomb fired body, wherein the trapping layer forming raw material includes a cordierite forming raw material or alumina. a forming raw material preparation step of mixing and kneading a partition wall base material raw material at least including cordierite powder and binder with water to obtain a partition wall base material forming raw material; a forming/drying step of forming the obtained partition wall base material forming raw material to obtain a honeycomb formed body including a not-fired partition wall base material that defines a plurality of cells serving as a through channel of fluid, and drying the obtained honeycomb formed body to obtain a honeycomb dried body; a slurry application step of applying trapping layer forming slurry at least including a trapping layer forming raw material and water to a surface of the not-fired partition wall base material that defines predetermined cells of the honeycomb dried body, and drying the honeycomb dried body to which the trapping layer forming slurry has been applied; a firing step of firing the honeycomb dried body to which the trapping layer forming slurry has been applied to obtain a honeycomb fired body; and a plugging step of disposing a plugging portion at open ends of predetermined cells of the honeycomb dried body to which the trapping layer forming slurry has been applied or of the honeycomb fired body, wherein the trapping layer forming raw material includes a cordierite forming raw material or alumina.
A pneumatically actuated solar panel array system comprising: a plurality of separate pneumatically actuated solar panel actuator assemblies that each include: a top plate and bottom plate; and a first and second bellows that each extend between and are coupled directly to the top and bottom plates at a respective top head and bottom head, the first and second bellows being configured to be separately pneumatically inflated, where the pneumatic inflation expands the bellows along a length; a first pneumatic channel operably coupled to each of the first bellows of the plurality of actuator assemblies and configured to inflate each of the first bellows simultaneously; a second pneumatic channel operably coupled to each of the second bellows of the plurality of actuator assemblies and configured to inflate each of the second bellows simultaneously; and a plurality of solar panels coupled to the actuator assemblies, the solar panels configured to be actuated based on inflation of one or more bellows associated with the plurality of actuator assembles. a plurality of separate pneumatically actuated solar panel actuator assemblies that each include: a top plate and bottom plate; and a first and second bellows that each extend between and are coupled directly to the top and bottom plates at a respective top head and bottom head, the first and second bellows being configured to be separately pneumatically inflated, where the pneumatic inflation expands the bellows along a length; a top plate and bottom plate; and a first and second bellows that each extend between and are coupled directly to the top and bottom plates at a respective top head and bottom head, the first and second bellows being configured to be separately pneumatically inflated, where the pneumatic inflation expands the bellows along a length; a first pneumatic channel operably coupled to each of the first bellows of the plurality of actuator assemblies and configured to inflate each of the first bellows simultaneously; a second pneumatic channel operably coupled to each of the second bellows of the plurality of actuator assemblies and configured to inflate each of the second bellows simultaneously; and a plurality of solar panels coupled to the actuator assemblies, the solar panels configured to be actuated based on inflation of one or more bellows associated with the plurality of actuator assembles.
A laminating device, wherein the laminating device comprises: an adhesion roller, disposed controllably to rotate around its own axis, used to adhere a sheet material, the sheet material is cut from a first film material adhered on the adhesion roller; a fixed laminating roller, disposed controllably to rotate around its own axis, used to wind a second film material; and characterized in that the lamination device comprises a moving laminating roller, disposed controllably to rotate around its own axis, and reciprocating between the adhesion roller and the fixed laminating roller; wherein a pickup position and a laminating position are provided during a process of the moving laminating roller reciprocating between the adhesion roller and the fixed laminating roller; when the moving laminating roller is located at the pickup position, the moving laminating roller abuts against the adhesion roller to transfer the sheet material on the adhesion roller to the moving laminating roller; when the moving laminating roller is located at the laminating position, the moving laminating roller abuts against the fixed laminating roller to laminate the sheet material adhered on the moving laminating roller onto the second film material wound on the fixed laminating roller. an adhesion roller, disposed controllably to rotate around its own axis, used to adhere a sheet material, the sheet material is cut from a first film material adhered on the adhesion roller; a fixed laminating roller, disposed controllably to rotate around its own axis, used to wind a second film material; and characterized in that the lamination device comprises a moving laminating roller, disposed controllably to rotate around its own axis, and reciprocating between the adhesion roller and the fixed laminating roller; wherein a pickup position and a laminating position are provided during a process of the moving laminating roller reciprocating between the adhesion roller and the fixed laminating roller; when the moving laminating roller is located at the pickup position, the moving laminating roller abuts against the adhesion roller to transfer the sheet material on the adhesion roller to the moving laminating roller; when the moving laminating roller is located at the laminating position, the moving laminating roller abuts against the fixed laminating roller to laminate the sheet material adhered on the moving laminating roller onto the second film material wound on the fixed laminating roller.
A lock for a door, with a lock housing, in which a knob follower is disposed to be rotatable around an axis of rotation, wherein an actuating arm is disposed at the knob follower, with a lock latch-bolt mobile between a closed position and an opened position, a slider which is supported to be translationally mobile and a locking mechanism for blocking or releasing a movement of the lock latch-bolt, wherein the actuating arm is formed such that during a rotary movement of the knob follower the actuating arm performs the displacement of the slider over a slider contact surface, wherein during the displacement a contact contour of the actuating arm slides along the slider contact surface, wherein the actuating arm is cam-shaped formed, characterized in that the slider contact surface is formed to be curved, in particular convex curved.