mhurhangee/ep-ind-claims huggingface dataset:
A method for forming an aluminide or chromide coating on a turbine engine rotor component, the method comprising the steps of: (a) depositing an aluminum or chromium coating on the surface of the component; and (b) heating the coated component in a nonoxidizing atmosphere to a temperature of from 500°C to 800°C to diffuse the aluminum or chromium into the surface of the component and form an aluminide or chromide coating on the surface of the component; the method being conducted in a vapor coating container having a hollow interior coating chamber, wherein step (a) comprises: loading the coating chamber with the component to be coated; heating the loaded coating chamber to a temperature of from 240°C to 700°C;and flowing a tri-alkyl aluminum or chromium carbonyl coating gas into the heated coating chamber at a pressure of from 0.68 to 27 kgf/m 2, for from 0.25 to 4 hours, to deposit an aluminum or chromium coating on the surface of the component. (a) depositing an aluminum or chromium coating on the surface of the component; and (b) heating the coated component in a nonoxidizing atmosphere to a temperature of from 500°C to 800°C to diffuse the aluminum or chromium into the surface of the component and form an aluminide or chromide coating on the surface of the component; the method being conducted in a vapor coating container having a hollow interior coating chamber, wherein step (a) comprises: loading the coating chamber with the component to be coated; heating the loaded coating chamber to a temperature of from 240°C to 700°C;and flowing a tri-alkyl aluminum or chromium carbonyl coating gas into the heated coating chamber at a pressure of from 0.68 to 27 kgf/m 2, for from 0.25 to 4 hours, to deposit an aluminum or chromium coating on the surface of the component. loading the coating chamber with the component to be coated; heating the loaded coating chamber to a temperature of from 240°C to 700°C;and flowing a tri-alkyl aluminum or chromium carbonyl coating gas into the heated coating chamber at a pressure of from 0.68 to 27 kgf/m 2, for from 0.25 to 4 hours, to deposit an aluminum or chromium coating on the surface of the component.
An organic electroluminescent element comprising a substrate having thereon an electrode and at least one organic layer, wherein at least one of the organic layers is a light-emitting layer containing a phosphorescent compound and a host compound, and the phosphorescent compound is represented by Formula, the phosphorescent compound has a HOMO of from -5.15 to -3.50 eV and a LUMO of from -1.25 to +1.00 eV, and the host compound is represented by Formula, the host compound has a 0-0 band of 460 nm or less in a phosphorescence spectrum and the host compound has a glass transition temperature of 130 °C or more, wherein R 1 represents a substituent; Z represents a group of non-metal elements necessary to form a five- to six-membered ring; n1 is an integer of 0 to 5; the heterocyclic ring formed by B 1 to B 5 is an imidazole ring and B 2 represent a carbon atom,; M 1 is an iridium; X 1 and X 2 each represent a carbon atom, a nitrogen atom or an oxygen atom; L 1 is a group of elements forming ligands having coordination number 2 with X 1 and X 2; m1 is an integer of 1 to 3; m2 is an integer of 0 to 2; and m1+m2 is 2 or 3,Formula: wherein R 1a represents a hydrogen atom; an aliphatic group, an aromatic group or a heterocyclic group; R 1 and R 2 each represent a hydrogen atom or a substituent; n1 is an integer of 0-4 and n2 is an integer of 0-4.
Bed with controllable components, in particular switches and/or motors of a motor-adjustable lying surface of the bed and/or an external interface for controlling components outside the bed via control signals, comprising - a first operating unit to operate at least one of the components, wherein the operating unit comprises an interface to transmit first control signals via a wire, - a second operating unit to operate at least one of the components, wherein the operating unit comprises an interface for a wireless transmission of communication signals, and - a control system (4, 5, 7) to receive the first control signals from the first operating unit and to receive the communication signals from the second operating unit, characterised in that - the control system (4, 5, 7) is configured so as to prioritise an operation of a component within the bed, for example of a motor, or of a component outside the bed by means of the first operating unit over operation of the component by the second operating unit. - a first operating unit to operate at least one of the components, wherein the operating unit comprises an interface to transmit first control signals via a wire, - a second operating unit to operate at least one of the components, wherein the operating unit comprises an interface for a wireless transmission of communication signals, and - a control system (4, 5, 7) to receive the first control signals from the first operating unit and to receive the communication signals from the second operating unit, - the control system (4, 5, 7) is configured so as to prioritise an operation of a component within the bed, for example of a motor, or of a component outside the bed by means of the first operating unit over operation of the component by the second operating unit.
A device for treating metal-ion-containing solutions by means of thermal pyrohydrolysis, comprising at least one pyrolysis reactor, a waste gas cleaning system having at least one solids separator, in particular at least one dust cyclone, for the separation of fine dust particles, and at least one outlet line from the at least one solids separator, characterised in that at least one injection device is arranged in the at least one outlet line.
A device for generating optical radiation, in particular EUV radiation or soft x-rays, by means of electrically operated discharges, comprising - at least two electrodes (1, 2) arranged in a discharge space at a distance from one another which allows ignition of a plasma in a gaseous medium between said electrodes (1, 2), - a device for applying a liquid material to one or several surface(s) moving through said discharge space, - an energy beam device adapted to direct one or several pulsed energy beams onto said surface(s) evaporating said applied liquid material at least partially thereby producing at least part of said gaseous medium, - wherein said energy beam device is designed to apply within a time interval of each electrical discharge at least two consecutive pulses (9, 18) of said pulsed energy beam(s) onto said surface(s), characterised by - radiation sensors arranged for measuring a characteristic of said generated optical radiation and/or a dI/dt probe for determining an amount of fast ions generated by the discharge and - a control unit connected to said energy beam device and controlling a time delay between the two consecutive pulses (9, 18) based on the measured characteristic and/or determined amount of fast ions. - at least two electrodes (1, 2) arranged in a discharge space at a distance from one another which allows ignition of a plasma in a gaseous medium between said electrodes (1, 2), - a device for applying a liquid material to one or several surface(s) moving through said discharge space, - an energy beam device adapted to direct one or several pulsed energy beams onto said surface(s) evaporating said applied liquid material at least partially thereby producing at least part of said gaseous medium, - wherein said energy beam device is designed to apply within a time interval of each electrical discharge at least two consecutive pulses (9, 18) of said pulsed energy beam(s) onto said surface(s), - radiation sensors arranged for measuring a characteristic of said generated optical radiation and/or a dI/dt probe for determining an amount of fast ions generated by the discharge and - a control unit connected to said energy beam device and controlling a time delay between the two consecutive pulses (9, 18) based on the measured characteristic and/or determined amount of fast ions.
A thawing device configured to thaw a frozen matter of liquid contained in a bag, comprising: a supporting unit that supports the bag; a first heater and a second heater (1, 2) that are opposed via the supporting unit; a guide mechanism having a path that descends gradually toward the second heater, the first heater being supported at the path to be movable back and forth; and a driving unit that drives the second heater so as to incline an opposed angle of the second heater with respect to the first heater in a predetermined direction with a predetermined period. a supporting unit that supports the bag; a first heater and a second heater (1, 2) that are opposed via the supporting unit; a guide mechanism having a path that descends gradually toward the second heater, the first heater being supported at the path to be movable back and forth; and a driving unit that drives the second heater so as to incline an opposed angle of the second heater with respect to the first heater in a predetermined direction with a predetermined period.
A radio access entity for communication with a mobile communication device over a radio access network, wherein the mobile communication device has a first communication port according to a first data transfer technology and a second communication port according to a second data transfer technology, having: a first communication interface for receiving a data stream; a processor, which is configured for splitting the data stream into a first component data stream and into a second component data stream as a function of a ratio of a first performance of the first communication port of the mobile communication device to a second performance of the second communication port of the mobile communication device; and a second communication interface, which is configured to transmit the first component data stream according to the first data transfer technology to the first communication port and the second component data stream according to the second data transfer technology to the second communication port; wherein the radio access entity is configured to receive information on the first performance and on the second performance from the mobile communication device. a first communication interface for receiving a data stream; a processor, which is configured for splitting the data stream into a first component data stream and into a second component data stream as a function of a ratio of a first performance of the first communication port of the mobile communication device to a second performance of the second communication port of the mobile communication device; and a second communication interface, which is configured to transmit the first component data stream according to the first data transfer technology to the first communication port and the second component data stream according to the second data transfer technology to the second communication port; wherein the radio access entity is configured to receive information on the first performance and on the second performance from the mobile communication device.
A process for removing lignin from black liquor by acidifying the black liquor with an acidifier and filtering the acidified black liquor, wherein the black liquor is oxidized prior to said acidifying to minimize total reduced sulphur in the black liquor and such that hemicelluloses in the black liquor are oxidized to form an acidifying agent selected from isosaccharinic acids, acetic acid, formic acid, lactic acid, oxalic acid, carbon dioxide and mixtures thereof, said acidifying agent reducing the amount of acidifier required for the acidification.
A toothbrush with a handle, a head with oral care elements and a neck that connects the head with the handle, wherein a basic structure of the handle, of the neck and of the head is formed out of a hard plastic component, wherein the basic structure of the handle is at least partially covered with a first soft plastic component; characterized in that: the head has a second soft plastic component; the neck has an opening therethrough (15, 37); and at least one section of a boundary wall (18, 19, 20, 21) of the opening (15, 37) is provided with an elastic "muscle" (7, 38). the head has a second soft plastic component; the neck has an opening therethrough (15, 37); and at least one section of a boundary wall (18, 19, 20, 21) of the opening (15, 37) is provided with an elastic "muscle" (7, 38).
Energy Harvesting System using a plurality of Electro Active Polymer - hereinafter EAP- based sections (EAP1, EAP2,..., EAPn), comprising the plurality of EAP based sections, a power source/sink unit (PSS1, PSS2) and a controller; each EAP based section comprising an electronic charge/discharge unit (E1, E2,..., EN) and a variable capacitor; the variable capacitor comprising an elastically deformable body with an arrangement of stretchable synthetic material and electrodes being arranged as the variable capacitor with a capacitance that varies as the deformable body stretches and relaxes; each EAP based section being connected to the power source/sink unit by the respective electronic charge/discharge unit under control of the controller; the controller comprising a processing unit, sensing circuitry and driving circuitry, with the processing unit being coupled to the sensing circuitry and the driver circuitry; the sensing circuitry being coupled to the variable capacitor of each EAP based section for receiving at least one state parameter signal from the variable capacitor; the driving circuitry being coupled to the electronic charge/discharge unit for transmitting a dedicated control signal to the electronic charge/discharge unit; the processing unit being arranged to establish for each EAP based section a control value of the dedicated control signal based on the associated state parameter signal received from the variable capacitor, characterised in that each of the EAP based sections of the system comprises a monitoring unit (M1, M2,..., MN) being coupled between the electronic charge/discharge unit (E1, E2,..., EN) and the associated variable capacitor, and wherein the monitoring unit (M1, M2,..., MN) is configured to monitor the state parameter signal of the associated EAP based section and wherein the sensing circuitry of the controller is coupled to each monitoring unit for receiving the state parameter signal from the monitoring unit.
A traffic light detection system comprising: a plurality of lenses (108-1, 108-2, 108-3), wherein each of the plurality of lenses (108-1, 108-2, 108-3) is configured to receive light from different fields of view; a plurality of light sensors (110-1, 110-2, 110-3) configured to sense light received from the plurality of lenses (108-1, 108-2, 108-3), wherein each of the plurality of light sensors (110-1, 110-2, 110-3) is associated with a respective one of the plurality of lenses (108-1, 108-2, 108-3); characterized in that the traffic light detection system further comprises a single filter situated between the plurality of light sensors (110-1, 110-2, 110-3) and the plurality of lenses (108-1, 108-2, 108-3), wherein the single filter is configured to permit a preconfigured set of wavelengths of light associated with colors of a traffic signal to pass between the plurality of lenses (108-1, 108-2, 108-3) and the plurality of light sensors (110-1, 110-2, 110-3), and wherein the single filter is sized and arranged to engage with the plurality of lenses (108-1, 108-2, 108-3) and the plurality of light sensors (110-1, 110-2, 110-3). a plurality of lenses (108-1, 108-2, 108-3), wherein each of the plurality of lenses (108-1, 108-2, 108-3) is configured to receive light from different fields of view; a plurality of light sensors (110-1, 110-2, 110-3) configured to sense light received from the plurality of lenses (108-1, 108-2, 108-3), wherein each of the plurality of light sensors (110-1, 110-2, 110-3) is associated with a respective one of the plurality of lenses (108-1, 108-2, 108-3); characterized in that the traffic light detection system further comprises a single filter situated between the plurality of light sensors (110-1, 110-2, 110-3) and the plurality of lenses (108-1, 108-2, 108-3), wherein the single filter is configured to permit a preconfigured set of wavelengths of light associated with colors of a traffic signal to pass between the plurality of lenses (108-1, 108-2, 108-3) and the plurality of light sensors (110-1, 110-2, 110-3), and wherein the single filter is sized and arranged to engage with the plurality of lenses (108-1, 108-2, 108-3) and the plurality of light sensors (110-1, 110-2, 110-3). wherein each of the plurality of light sensors (110-1, 110-2, 110-3) is associated with a respective one of the plurality of lenses (108-1, 108-2, 108-3); characterized in that the traffic light detection system further comprises a single filter situated between the plurality of light sensors (110-1, 110-2, 110-3) and the plurality of lenses (108-1, 108-2, 108-3), wherein the single filter is configured to permit a preconfigured set of wavelengths of light associated with colors of a traffic signal to pass between the plurality of lenses (108-1, 108-2, 108-3) and the plurality of light sensors (110-1, 110-2, 110-3), and wherein the single filter is sized and arranged to engage with the plurality of lenses (108-1, 108-2, 108-3) and the plurality of light sensors (110-1, 110-2, 110-3).
Transport system for a plurality of containers, comprising a feed device for a supply of containers which can be received at a transfer end of the feed device by a receiving region of a working platform of a transport mover, the transport mover having a drive portion connected to the working platform for the purpose of moving in a working plane, which drive portion cooperates with a stationary, planar drive plane, characterized in that the working platform has a blocking surface, the distance of which to the drive plane can be changed by moving the drive portion of the transport mover relative to the drive plane, the blocking surface, in a transfer position associated with a smaller distance to the drive plane, being arranged so low that a transfer of containers from the transfer end of the feed device over the blocking surface into or onto the receiving region of the working platform is made possible, and the blocking surface, in a blocking position associated with a greater distance to the drive plane, blocking a transfer of containers from the transfer end of the feed device into or onto the receiving region of the working platform.
A vehicle system for activating at least one vehicle component to provide access to a vehicle, the vehicle system comprising: two different devices, an electronic device and a vehicle access key; a first receiver operative to obtain a wireless signal at least comprising first identification data of the electronic device; a memory storing at least second identification data; and at least a second receiver operative to check a presence of a matching vehicle access key, the second receiver being operative to check the presence of the matching vehicle access key if the first identification data match the at least second identification data. two different devices, an electronic device and a vehicle access key; a first receiver operative to obtain a wireless signal at least comprising first identification data of the electronic device; a memory storing at least second identification data; and at least a second receiver operative to check a presence of a matching vehicle access key, the second receiver being operative to check the presence of the matching vehicle access key if the first identification data match the at least second identification data.
A seismic vibrator comprising: an actuator comprising two oppositely rotating, adjustably eccentric masses (201, 202; 701, 702; 904-907); a motor configured to power the actuator, and to control the rotation frequency of the eccentric masses; an eccentricity adjustment system configured to change eccentricity (205, 206) while the actuator is operating, whether or not the rotation frequency is simultaneously being changed, and independent of any change in rotational frequency; characterized in that the seismic vibrator further comprises a sweep controller configured to control the motor and the eccentricity adjustment system to provide a combination of eccentricity as a function of time of sweep e(t) and frequency as a function of time of sweep f(t) required to produce an output proportional in magnitude to, and in phase with, a pre-selected sweep input signal. an actuator comprising two oppositely rotating, adjustably eccentric masses (201, 202; 701, 702; 904-907); a motor configured to power the actuator, and to control the rotation frequency of the eccentric masses; an eccentricity adjustment system configured to change eccentricity (205, 206) while the actuator is operating, whether or not the rotation frequency is simultaneously being changed, and independent of any change in rotational frequency; characterized in that the seismic vibrator further comprises a sweep controller configured to control the motor and the eccentricity adjustment system to provide a combination of eccentricity as a function of time of sweep e(t) and frequency as a function of time of sweep f(t) required to produce an output proportional in magnitude to, and in phase with, a pre-selected sweep input signal.
Beam clamp having two clamp elements (2, 3) of identical shape which bear, on mutually opposite sides, contact surfaces (4, 5; 6, 7) which delimit a clamp mouth, wherein the clamp elements (2, 3) each have a central part and, on both sides of the central part, a first and a second wing part (12, 13) and which are U-shaped in form in such a way that the central part forms the central web of the U shape, and the wing parts (12, 13) each form a free web of the U shape, wherein one of the contact surfaces (4, 5, 6, 7) is provided on a transverse edge, which faces away from the central part, of at least one wing part (12, 13) of each clamp element (2, 3), and wherein the clamp elements (2, 3) are guided displaceably on one another with their wing parts (12, 13) between a relative position of minimum spacing and a relative position of maximum spacing separating the contact surfaces (4, 5; 6, 7) arranged on mutually opposite sides, characterized in that, on the first wing part of each clamp element (2, 3), a longitudinal edge facing away from the clamp mouth is angled towards the adjacent second wing part of this clamp element (2, 3), and in that a longitudinal edge, which faces away from the clamp mouth, on the second wing part of this clamp element (2, 3) is bent over in such a way that in each case the bent-over longitudinal edge on the second wing part of the one clamp element (2, 3) engages behind the angled longitudinal edge on the first wing part of the other clamp element (3, 2).