mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for electrostatically spraying a coating product comprising: - a sprayer provided with a first pipe and a second pipe, respectively for the flow of coating product and air, in which the flow of coating product and air is controlled by at least one valve (6, 7), said sprayer also comprising means for controlling the opening/closing of the valve and a high-voltage unit, - a high-voltage unit power supply generator, said generator comprising a control module for controlling the current delivered to the high-voltage unit. the sprayer comprising at least one first sensor able to detect the position of a shutter (62, 72) of the valve (6, 7) relative to a seat (64, 74) and outputting a signal that can be used by the control module to control the current supplying of the high-voltage unit, characterized in that the sprayer comprises a second sensor able to detect the position of a switch positioned on the gun and to deliver a signal that can be used by the control module to control the current supplying of the high-voltage unit. - a sprayer provided with a first pipe and a second pipe, respectively for the flow of coating product and air, in which the flow of coating product and air is controlled by at least one valve (6, 7), said sprayer also comprising means for controlling the opening/closing of the valve and a high-voltage unit, - a high-voltage unit power supply generator, said generator comprising a control module for controlling the current delivered to the high-voltage unit.
A power supply device, comprising a power supply converter and a regulator, wherein the power supply converter comprises a first primary-side metal-oxide-semiconductor field-effect transistor (mosfet, Q1), a secondary-side mosfet and a transformer, the first primary-side mosfet is connected to a primary winding of the transformer, the secondary-side mosfet is connected to a secondary winding of the transformer, and the regulator comprises: a current sampling unit, configured to sample a current of a primary side of the power supply converter; and a control unit, configured to regulate a dead time according to a dead-time parameter, so that the dead time is in inverse proportion to the sampled current, and the dead time is in direct proportion to an input voltage, on the primary side and configured to, according to the regulated dead time, perform switching control on primary-side mosfets in the power supply converter in the case that the power supply converter further comprises a second primary-side mosfet Qc, or perform switching control on the primary-side mosfet and the secondary-side mosfet in the power supply converter; wherein the control unit is specifically configured to: control time in which primary-side mosfets in the power supply converter are simultaneously in a switch-off status as the regulated dead time in the case that the power supply converter further comprises the second primary-side mosfet Qc, or control time in which the first primary-side mosfet and the secondary-side mosfet in the power supply converter are simultaneously in a switch-off status as the regulated dead time. a current sampling unit, configured to sample a current of a primary side of the power supply converter; and a control unit, configured to regulate a dead time according to a dead-time parameter, so that the dead time is in inverse proportion to the sampled current, and the dead time is in direct proportion to an input voltage, on the primary side and configured to, according to the regulated dead time, perform switching control on primary-side mosfets in the power supply converter in the case that the power supply converter further comprises a second primary-side mosfet Qc, or perform switching control on the primary-side mosfet and the secondary-side mosfet in the power supply converter; control time in which primary-side mosfets in the power supply converter are simultaneously in a switch-off status as the regulated dead time in the case that the power supply converter further comprises the second primary-side mosfet Qc, or control time in which the first primary-side mosfet and the secondary-side mosfet in the power supply converter are simultaneously in a switch-off status as the regulated dead time.
A composition comprising tigecycline and a divalent or trivalent cation, wherein the molar ratio of said divalent or trivalent cation to said tigecycline is greater than 3:1.
An acoustic structure presenting a front surface and a back surface, the acoustic structure comprising: a backing layer comprising the back surface; a honeycomb core comprising a thickness defined between a back and a front, and a plurality of walls that define a plurality of honeycomb cells, wherein the plurality of honeycomb cells extend through the thickness of the honeycomb core opening out toward at least the front, and wherein the back of the honeycomb core is affixed to the backing layer with a first adhesive layer; a mesh layer affixed to the front of the honeycomb core with a second adhesive layer; and a knit fabric layer affixed to the mesh layer with a third adhesive layer and conforming to the front surface of the acoustic structure, wherein the second adhesive layer and the third adhesive layer are formed as non-continuous patterned layers, such that they overlie only the plurality of walls, and do not overlie the plurality of honeycomb cells. a backing layer comprising the back surface; a honeycomb core comprising a thickness defined between a back and a front, and a plurality of walls that define a plurality of honeycomb cells, wherein the plurality of honeycomb cells extend through the thickness of the honeycomb core opening out toward at least the front, and wherein the back of the honeycomb core is affixed to the backing layer with a first adhesive layer; a mesh layer affixed to the front of the honeycomb core with a second adhesive layer; and a knit fabric layer affixed to the mesh layer with a third adhesive layer and conforming to the front surface of the acoustic structure, wherein the second adhesive layer and the third adhesive layer are formed as non-continuous patterned layers, such that they overlie only the plurality of walls, and do not overlie the plurality of honeycomb cells.
An electrical converter system for power supplies, comprising at least two identical individual modules (901, 910, 920, 930) in a cascade connection, characterised in that each individual module has at least three, preferably at least four internal switching elements (903 - 914), at least one energy storage element and at least four connectors, wherein the connectors serve in pairs as a first and a second terminal pair; and at least two individual modules are cascade connected in such manner that each of the connectors of the second terminal pair of a preceding individual module is connected with - either the connectors of the first terminal pair of the respective following individual module, or - connectors of at least one intermediate module, which is arranged between the preceding individual module and the respective following individual module, wherein the switching elements of the respective individual modules in the cascade connection of individual modules connect their respective energy storage elements to the terminals of the cascade connection thereof in such manner that the energy storage element of an individual module can be connected selectively either in parallel or in series with the energy storage element of its subsequent individual module, thereby permitting controlling a cascade connection of plural individual modules so that in such a cascade connection, a series connection of energy storage elements and a parallel connection of energy storage elements is simultaneously present, wherein a diode is additionally arranged parallel to each switching element (903 - 914), and the diodes are connected in such manner that they protect the switching elements from polarity reversal and overload. - either the connectors of the first terminal pair of the respective following individual module, or - connectors of at least one intermediate module, which is arranged between the preceding individual module and the respective following individual module,
Semiconductor module comprising a layer structure and at least one capacitive sensor, - wherein the layer structure comprises an upper electrode layer and a lower electrode layer and also an active layer, which is arranged between the electrode layers (8, 10) and is produced from a semiconductor material, - wherein the capacitive sensor comprises a measuring electrode integrated into the layer structure, - characterized in that the measuring electrode is formed from an upper part, which is a partial region of the upper electrode layer, and a lower part, which is a partial region of the lower electrode layer, - wherein the upper part and the lower part are electrically connected by means of a via through the active layer. - wherein the layer structure comprises an upper electrode layer and a lower electrode layer and also an active layer, which is arranged between the electrode layers (8, 10) and is produced from a semiconductor material, - wherein the capacitive sensor comprises a measuring electrode integrated into the layer structure, - characterized in that - wherein the upper part and the lower part are electrically connected by means of a via through the active layer.
Arrangement for identifying fingerprints having at least one fingerprint sensor and at least two electrodes, wherein a fingerprint can be captured using the fingerprint sensor, wherein a first electrode is arranged spaced apart from a hand resting surface in the vicinity of said hand resting surface, in such a way that when the index finger and/or the middle finger and/or the ring finger and/or the little finger of a hand is placed on this hand resting surface, the thumb of this hand can be placed on the first electrode, wherein at least a second electrode is mounted on the hand resting surface in such a way that at least one finger of the index finger, middle finger, ring finger or little finger can be placed on the second electrode, wherein the first electrode or the at least one second electrode is executed with the fingerprint sensor as a unit in each case, or wherein the fingerprint sensor and the first electrode and another fingerprint sensor and the at least one second electrode are each executed as a unit, wherein a measuring unit is provided for applying and evaluating electrical signals that are conducted between the at least two electrodes (8, 23) through the hand and are modified by the hand, wherein an identification result can be determined with the help of the captured fingerprint and the captured, modified electrical signals of the measuring unit.
A polyolefin composition comprising: A) from 90.0 wt% to 99.0 wt%;of a propylene homopolymer having: (i) polydispersity index ranging from 5 to 10 (ii) solubles in xylene at 25°C ranging from 4.0 wt% to 1.0 wt%; (iii) the melt flow rate (230°C/5 kg.. ISO 1133) ranging from 0.2 g/lOmin to 3.5 g/lOmin; B) from 1.0 wt% to 10.0 wt%; of a propylene, ethylene copolymer composition comprising: b1) from 14 wt% to 52 wt%; of a propylene homopolymer or a propylene/ethylene copolymer having a content of ethylene derived units ranging from 0.1 wt% to 4.5 wt%; having a xylene soluble content measured at 25°C lower than 10 wt%; and a melt flow rate (230°C/2.16 kg. ISO 1133) ranging from 50 g/lOmin to 120 g/lOmin; b2) from 48 wt% to 86 wt% of a propylene ethylene copolymer having a content of ethylene derived units ranging from 20.0 wt% to 55.0 wt%; wherein the resulting polyolefin composition has an melt flow rate (230°C/5 kg.. ISO 1133) ranging from 0.2 g/lOmin to 4.0 g/lOmin; the sum of amounts of A+B being 100 and the sum of amounts of b1+b2 being 100. A) from 90.0 wt% to 99.0 wt%;of a propylene homopolymer having: (i) polydispersity index ranging from 5 to 10 (ii) solubles in xylene at 25°C ranging from 4.0 wt% to 1.0 wt%; (iii) the melt flow rate (230°C/5 kg.. ISO 1133) ranging from 0.2 g/lOmin to 3.5 g/lOmin; (i) polydispersity index ranging from 5 to 10 (ii) solubles in xylene at 25°C ranging from 4.0 wt% to 1.0 wt%; (iii) the melt flow rate (230°C/5 kg.. ISO 1133) ranging from 0.2 g/lOmin to 3.5 g/lOmin; B) from 1.0 wt% to 10.0 wt%; of a propylene, ethylene copolymer composition comprising: b1) from 14 wt% to 52 wt%; of a propylene homopolymer or a propylene/ethylene copolymer having a content of ethylene derived units ranging from 0.1 wt% to 4.5 wt%; having a xylene soluble content measured at 25°C lower than 10 wt%; and a melt flow rate (230°C/2.16 kg. ISO 1133) ranging from 50 g/lOmin to 120 g/lOmin; b2) from 48 wt% to 86 wt% of a propylene ethylene copolymer having a content of ethylene derived units ranging from 20.0 wt% to 55.0 wt%; b1) from 14 wt% to 52 wt%; of a propylene homopolymer or a propylene/ethylene copolymer having a content of ethylene derived units ranging from 0.1 wt% to 4.5 wt%; having a xylene soluble content measured at 25°C lower than 10 wt%; and a melt flow rate (230°C/2.16 kg. ISO 1133) ranging from 50 g/lOmin to 120 g/lOmin; b2) from 48 wt% to 86 wt% of a propylene ethylene copolymer having a content of ethylene derived units ranging from 20.0 wt% to 55.0 wt%;
A method of determining the performance of a test apparatus, the method comprising the steps of: a) attaching by an operator a test apparatus to a communications network, the communications network comprising a plurality of local exchanges, each of the local exchanges being connected to a plurality of customer premises by a metallic loop; b) applying by the test apparatus one or more test signals to a metallic loop; c) determining by the test apparatus one or more metallic loop parameters in accordance with measurements made whilst the one or more test signals were applied to the metallic loop; d) comparing by the test apparatus the one or more metallic loop parameters to predetermined threshold values; e) determining by the test apparatus the status of the metallic loop on the basis of the comparison performed in step d); f) storing by the test apparatus data relating to the status of the metallic loop in a database; and g) determining by the test apparatus the accuracy of the one or more metallic loop parameters determined by the test apparatus by comparing the metallic loop parameter values with data stored in the database which relates to tests carried out by that test apparatus. a) attaching by an operator a test apparatus to a communications network, the communications network comprising a plurality of local exchanges, each of the local exchanges being connected to a plurality of customer premises by a metallic loop; b) applying by the test apparatus one or more test signals to a metallic loop; c) determining by the test apparatus one or more metallic loop parameters in accordance with measurements made whilst the one or more test signals were applied to the metallic loop; d) comparing by the test apparatus the one or more metallic loop parameters to predetermined threshold values; e) determining by the test apparatus the status of the metallic loop on the basis of the comparison performed in step d); f) storing by the test apparatus data relating to the status of the metallic loop in a database; and g) determining by the test apparatus the accuracy of the one or more metallic loop parameters determined by the test apparatus by comparing the metallic loop parameter values with data stored in the database which relates to tests carried out by that test apparatus.
Wiper blade rubber for a windshield wiper, in particular for a windshield wiper of a motor vehicle, composed of a molded, vulcanizable elastomeric material, where the surface of the wiper blade rubber has a surface layer which is hydrophobic with a contact angle greater than 90° with respect to water, preferably greater than 120°, and with a surface structure with elevations and/or depressions in the micrometer range and has been formed from particles, characterized in that the material of the particles of the surface layer is polyamide.
A controller configured to control a system by generating a control input to an actuator changing a state of the system in accordance with the control input, comprising: an interface configured to receive, from the actuator, data indicative of a dynamic response of the actuator; wherein the dynamic response of the actuator represents a relation between a history of input signal to the actuator, being the control input, and a history of output signal of the actuator, being an input of the system; a tuner configured to determine the maximum rate of change of the control input during a control cycle using the received data indicative of the dynamic response of the actuator and to update a constraint on a maximum rate of change of the control input with the determined maximum rate of change of the control input; a receiver configured to receive measurements of the state of the system; and a solver configured to determine a current value of the control input for controlling the controlled system based on the state of the controlled system subject to constraints on operation of the system and the constraint on the maximum rate of change of the control input, and to cause the actuator to change the state of the system according to the current value of the control input. an interface configured to receive, from the actuator, data indicative of a dynamic response of the actuator; wherein the dynamic response of the actuator represents a relation between a history of input signal to the actuator, being the control input, and a history of output signal of the actuator, being an input of the system; a tuner configured to determine the maximum rate of change of the control input during a control cycle using the received data indicative of the dynamic response of the actuator and to update a constraint on a maximum rate of change of the control input with the determined maximum rate of change of the control input; a receiver configured to receive measurements of the state of the system; and a solver configured to determine a current value of the control input for controlling the controlled system based on the state of the controlled system subject to constraints on operation of the system and the constraint on the maximum rate of change of the control input, and to cause the actuator to change the state of the system according to the current value of the control input.
A method of treating soil, in which method: soil is treated with at least one binder to improve its compression strength; and the soil is treated in a movable apparatus; characterized in that the soil of a load-bearing structure of a road is stabilized to a compression strength of at least 0.1 MPa by using as the binder an activator which forms together with road aggregate a hardenable geopolymeric or alkali-activatable mixture. soil is treated with at least one binder to improve its compression strength; and the soil is treated in a movable apparatus; characterized in that the soil of a load-bearing structure of a road is stabilized to a compression strength of at least 0.1 MPa by using as the binder an activator which forms together with road aggregate a hardenable geopolymeric or alkali-activatable mixture.
A chip substrate, comprising: conductive layers (A, A'); an insulation layer configured to electrically isolate the conductive layers (A, A'); and a cavity composed of a groove formed at a predetermined depth in a region including the insulation layer, wherein one side of the cavity includes a first surface vertically extending from a lower surface of the cavity and a second surface continuously extending from the first surface and having a slope, and wherein a distance between a center of the cavity and one side of an upper portion of the cavity is equal to a distance between the center of the cavity and the other side of a upper portion of the cavity, and the upper portion of the cavity forms a true circle, and the second surface has the same slope as that of the other side opposite to first and second surfaces (31, 33) of the cavity in order that the second surface has the same reflection angle as that of the other side of the cavity, and a distance between the center of the cavity and a one side of a lower portion of the cavity at the first surface is larger than a distance between the center of the cavity and the other side of the lower portion of the cavity, to provide a space between the first surface at one side of the lower portion of the cavity and the insulation layer large enough to bond the wire extending from the optical element chip to the conductive layer. conductive layers (A, A'); an insulation layer configured to electrically isolate the conductive layers (A, A'); and a cavity composed of a groove formed at a predetermined depth in a region including the insulation layer, wherein one side of the cavity includes a first surface vertically extending from a lower surface of the cavity and a second surface continuously extending from the first surface and having a slope, and wherein a distance between a center of the cavity and one side of an upper portion of the cavity is equal to a distance between the center of the cavity and the other side of a upper portion of the cavity, and the upper portion of the cavity forms a true circle, and the second surface has the same slope as that of the other side opposite to first and second surfaces (31, 33) of the cavity in order that the second surface has the same reflection angle as that of the other side of the cavity, and a distance between the center of the cavity and a one side of a lower portion of the cavity at the first surface is larger than a distance between the center of the cavity and the other side of the lower portion of the cavity, to provide a space between the first surface at one side of the lower portion of the cavity and the insulation layer large enough to bond the wire extending from the optical element chip to the conductive layer.