mhurhangee/ep-ind-claims huggingface dataset:
Blocking device (20, 20A) for a closing sequence control apparatus of a two-leaf revolving door system which has an overstriking active leaf and an understriking passive leaf which are each operatively connected to an output shaft (10, 11) of a drive device (6, 7), wherein the blocking device (20, 20A) blocks or releases the active leaf depending on the position of the passive leaf by the said blocking device having a coupling point for a mechanical transmission element, and acts on a motor shaft of a drive motor of the drive device of the active leaf by the said blocking device having a first brake element which is coupled to the motor shaft by means of a freewheeling bearing (19.1) of the blocking device (20; 20A), a contact-pressure part and a contact-pressure spring, wherein the first brake element is designed as a brake cone on which at least one brake segment (35, 36) of the rotatable and axially displaceable contact-pressure part acts, which contact-pressure part, in the blocking state of the contact-pressure spring, is pushed axially in the direction of the brake cone and blocks a rotary movement of the motor shaft in the closing direction, wherein the mechanical transmission element, in the release position, moves the contact-pressure part axially away from the brake cone against the force of the contact-pressure spring, so that the at least one brake segment (35, 36) lifts away from the brake cone and releases the rotary movement of the motor shaft in the closing direction, characterized in that the blocking device (20, 20A) has an overload protection means with a run-on web and a stationary run-on ramp, which overload protection means can be tripped by rotation of the contact-pressure part under load by the run-on web which is arranged on the contact-pressure part running onto the stationary run-on ramp when a prespecified torque threshold value is reached, so that the at least one brake segment (35, 36) lifts away from the brake cone and releases the rotary movement of the motor shaft in the closing direction.
A process for separating one or more alkylethylenediamines from ethylenediamine comprising the steps of: a) providing a composition comprising: i) ethylenediamine; ii) water; and iii) one or more alkylethylenediamines; b) causing the composition to be subjected to conditions such that an azeotrope forms between the water and the one or more alkylethylenediamines; and c) separating the one or more alkylethylenediamines and at least a portion of the azeotropic water from the composition. a) providing a composition comprising: i) ethylenediamine; ii) water; and iii) one or more alkylethylenediamines; i) ethylenediamine; ii) water; and iii) one or more alkylethylenediamines; b) causing the composition to be subjected to conditions such that an azeotrope forms between the water and the one or more alkylethylenediamines; and c) separating the one or more alkylethylenediamines and at least a portion of the azeotropic water from the composition.
A battery pack for electric or hybrid vehicle having multiple batteries connected in series by battery connectors, each battery having a positive and a negative pole; each battery connector comprising: a pair of battery pole covers made of an electrically insulating material mounted onto battery poles of two adjacent batteries, each battery pole cover having a receptacle area and an aperture providing access to the battery poles; a connect-disconnect safety device having a conductive element made of an electrically conductive material inserted into the receptacle area of the pole covers for electrically connecting the two adjacent batteries, and an interrupter, a central portion of the conductive element passing through the interrupter, the interrupter including a pyrotechnic charge and a mechanical cutter adapted to cut the central portion of the conductive element in the event of the vehicle being involved in a collision, thereby disconnecting the series connection of the batteries; and a pair of fasteners for securing the conductive element to the poles of the two adjacent batteries. a pair of battery pole covers made of an electrically insulating material mounted onto battery poles of two adjacent batteries, each battery pole cover having a receptacle area and an aperture providing access to the battery poles; a connect-disconnect safety device having a conductive element made of an electrically conductive material inserted into the receptacle area of the pole covers for electrically connecting the two adjacent batteries, and an interrupter, a central portion of the conductive element passing through the interrupter, the interrupter including a pyrotechnic charge and a mechanical cutter adapted to cut the central portion of the conductive element in the event of the vehicle being involved in a collision, thereby disconnecting the series connection of the batteries; and a pair of fasteners for securing the conductive element to the poles of the two adjacent batteries.
Method of processing a slurry containing organic components, such as biomass, having a water contents of at least 50%, comprising the steps of increasing the pressure and temperature of the slurry to bring the water in the slurry in a supercritical state, converting through supercritical water gasification at least a part of the organic components in the slurry and separating gaseous products from the converted slurry, characterized by mixing fluid from the converted slurry with the upstream slurry before converting at least a part of the organic components in the slurry. increasing the pressure and temperature of the slurry to bring the water in the slurry in a supercritical state, converting through supercritical water gasification at least a part of the organic components in the slurry and separating gaseous products from the converted slurry, characterized by mixing fluid from the converted slurry with the upstream slurry before converting at least a part of the organic components in the slurry.
A pressurized vehicle having an outside mold line defined by a fuselage and including a window comprising: a frame, at least one transparent pane (28, 30) suspended within the frame, wherein the transparent pane comprises a deformable material, wherein the transparent pane defines a first surface position h 1 when not subjected to a pressure differential thereacross and a second surface position h 2 when subject to the pressure differential thereacross, wherein the first and second surface positions are defined with reference to the outside mold line, wherein the first surface position h 1 defines a reverse curvature with respect to the outside mold line, wherein, in response to the pressure differential ΔP, the second surface position h 2 includes bulging of the transparent pane by a predetermined distance Δh from the first surface position h 1, wherein the frame is positioned within the vehicle such that the transparent pane presents a surface, when subjected to the pressure differential ΔP, that is substantially consistent with the outside mold line of the vehicle, and. charcterized in that the first surface position h 1 lies between about 0.17 and 0.06 inches, corresponding to 4.32 and 1.52 mm, respectively. a frame, at least one transparent pane (28, 30) suspended within the frame, wherein the transparent pane comprises a deformable material, wherein the transparent pane defines a first surface position h 1 when not subjected to a pressure differential thereacross and a second surface position h 2 when subject to the pressure differential thereacross, wherein the first and second surface positions are defined with reference to the outside mold line, wherein the first surface position h 1 defines a reverse curvature with respect to the outside mold line, wherein, in response to the pressure differential ΔP, the second surface position h 2 includes bulging of the transparent pane by a predetermined distance Δh from the first surface position h 1, wherein the frame is positioned within the vehicle such that the transparent pane presents a surface, when subjected to the pressure differential ΔP, that is substantially consistent with the outside mold line of the vehicle, and. charcterized in that the first surface position h 1 lies between about 0.17 and 0.06 inches, corresponding to 4.32 and 1.52 mm, respectively.
Method for masking unwanted background noises occurring during operation of a vehicle by means of synthetic noises, wherein the synthetic noise is generated from an unmodulated synthetic noise (3.1) for adjusting a desired sound characteristic by multiplication with at least one filter and/or amplifier dependent on a vehicle parameter, wherein a pitch of all acoustic signals of which the modulated synthetic noise (3.3) is composed is kept constant during an output of the modulated synthetic noise (3.3), characterized in that the unmodulated synthetic noise (3.1) is formed as 1/f noise and is pre-modulated by means of at least one static filter before modulation by the at least one filter and/or amplifier dependent on the vehicle parameter, wherein after modulation by the at least one adaptive filter and/or an amplifier, the synthetic noise experiences a feedback delay, in particular with an adjustable attenuation, the transfer function of which corresponds to a comb filter. the unmodulated synthetic noise (3.1) is formed as 1/f noise and is pre-modulated by means of at least one static filter before modulation by the at least one filter and/or amplifier dependent on the vehicle parameter, wherein after modulation by the at least one adaptive filter and/or an amplifier, the synthetic noise experiences a feedback delay, in particular with an adjustable attenuation, the transfer function of which corresponds to a comb filter.
A method of producing an electrode catalyst comprising applying an electric potential to a perovskite metal oxide so as to cause metal to exsolve from the perovskite metal oxide lattice and form particles on the surface of the perovskite metal oxide lattice, resulting in the electrode catalyst having a metal particle population of from 100 to 600 particles μm -2, wherein the perovskite metal oxide has the formula: (M 1 x1 M 2 x2)(M 3 y M 4 z M 5 a M 6 b)O 3-γ wherein M 1 is selected from the group consisting of La, Ce and Pr, M 2 is Ca, M 3 is selected from the group consisting of Ti, Cr, Fe, Al and Sc, M 4, M 5 and M 6 are each independently chosen from the group consisting of Ti, Sc, V, Mn, Cr, Fe, Co, Ni, Cu, Zn, Zr, Nb, Mo, Ru, Rh, Pd, Cd, Ag, Pt, Au and Al, and M 3 is different from at least one of M 4, M 5 and M 6, 0 ≤x1+x2 ≤ 1, 0 < y ≤ 1, 0 < z ≤ 1, 0 ≤ a ≤ 1, 0 ≤ b ≤ 1, y+z+ a+ b = 1, and 0 ≤ γ ≤ 0.1. M 1 is selected from the group consisting of La, Ce and Pr, M 2 is Ca, M 3 is selected from the group consisting of Ti, Cr, Fe, Al and Sc, M 4, M 5 and M 6 are each independently chosen from the group consisting of Ti, Sc, V, Mn, Cr, Fe, Co, Ni, Cu, Zn, Zr, Nb, Mo, Ru, Rh, Pd, Cd, Ag, Pt, Au and Al, and M 3 is different from at least one of M 4, M 5 and M 6, 0 ≤x1+x2 ≤ 1, 0 < y ≤ 1, 0 < z ≤ 1, 0 ≤ a ≤ 1, 0 ≤ b ≤ 1, y+z+ a+ b = 1, and 0 ≤ γ ≤ 0.1.
Rocker for a current collector of a vehicle, said rocker having at least one first contact strip which is connected to a first lever arrangement, which is coupled to a first bearing device, and to a second lever arrangement, which is coupled to a second bearing device, wherein the first bearing device and the second bearing device are connectable in an articulated manner to a current collector linkage, wherein the rocker has a first torsion spring and wherein the first torsion spring is at the same time the torque transmission device and spring device between the first lever arrangement and the first bearing device, characterised in that the first torsion spring is fixedly connected to a lever of the first lever arrangement as well as non-rotatably via a displaceable bearing to the first bearing device or the first torsion spring is connected non-rotatably via a displaceable bearing to a lever of the first lever arrangement and fixedly to the first bearing device.
An actuator drive circuit for a liquid discharge apparatus, comprising: a discharge waveform generating circuit configured to generate a plurality of drive waveforms to be applied to an actuator, the plurality of drive waveforms corresponding to a plurality of gradation values of gray scale data formed of a plurality of bits; a sleep waveform generating circuit configured to generate a sleep waveform to be applied to the actuator, the sleep waveform causing a voltage of the actuator to transition to a first voltage without liquid discharge from a nozzle associated with the actuator; and a wake waveform generating circuit configured to generate a wake waveform to be applied to the actuator, the wake waveform causing the voltage of the actuator to transition to a second voltage higher than the first voltage without liquid discharge from the nozzle, characterised in that the actuator drive circuit further comprises a signal processing circuit configured to detect a first command and a second command each assigned to a part of the plurality of bits forming the gray scale data, upon detecting the first command, cause the sleep waveform generated by the sleep waveform generating circuit to be applied to a plurality of actuators and upon detecting the second command, cause the wake waveform generated by the wake waveform generating circuit to be applied to a plurality of actuators. a discharge waveform generating circuit configured to generate a plurality of drive waveforms to be applied to an actuator, the plurality of drive waveforms corresponding to a plurality of gradation values of gray scale data formed of a plurality of bits; a sleep waveform generating circuit configured to generate a sleep waveform to be applied to the actuator, the sleep waveform causing a voltage of the actuator to transition to a first voltage without liquid discharge from a nozzle associated with the actuator; and a wake waveform generating circuit configured to generate a wake waveform to be applied to the actuator, the wake waveform causing the voltage of the actuator to transition to a second voltage higher than the first voltage without liquid discharge from the nozzle, characterised in that the actuator drive circuit further comprises a signal processing circuit configured to detect a first command and a second command each assigned to a part of the plurality of bits forming the gray scale data, upon detecting the first command, cause the sleep waveform generated by the sleep waveform generating circuit to be applied to a plurality of actuators and upon detecting the second command, cause the wake waveform generated by the wake waveform generating circuit to be applied to a plurality of actuators.
A computer-implemented method comprising: receiving an encoded video frame; decompressing the received encoded video frame; extracting a first quantization parameter, QP, from the decompressed video frame, wherein the first QP corresponds to quantization settings originally used for compressing the encoded video frame; acquiring a delta QP based on the first QP; acquiring a quality degradation offset indicating an amount of quality degradation; utilizing a compensation function that compares a total byte size of at least some of the video frames previously decompressed and a total byte size of the at least some of the video frames after previously being compressed and outputs a byte size inflation adjustment value; adjusting the delta QP using the quality degradation offset and the byte size inflation adjustment value; deriving a second QP based on the adjusted delta QP and the first QP, wherein the second QP corresponds to quantization settings for compressing the decompressed video frame, and wherein the second QP is different from the delta QP; compressing the decompressed video frame based on the second QP; and providing the compressed video frame; wherein acquiring the delta QP is further based on a mapping table between the first QP and the delta QP. receiving an encoded video frame; decompressing the received encoded video frame; extracting a first quantization parameter, QP, from the decompressed video frame, wherein the first QP corresponds to quantization settings originally used for compressing the encoded video frame; acquiring a delta QP based on the first QP; acquiring a quality degradation offset indicating an amount of quality degradation; utilizing a compensation function that compares a total byte size of at least some of the video frames previously decompressed and a total byte size of the at least some of the video frames after previously being compressed and outputs a byte size inflation adjustment value; adjusting the delta QP using the quality degradation offset and the byte size inflation adjustment value; deriving a second QP based on the adjusted delta QP and the first QP, wherein the second QP corresponds to quantization settings for compressing the decompressed video frame, and wherein the second QP is different from the delta QP; compressing the decompressed video frame based on the second QP; and providing the compressed video frame; wherein acquiring the delta QP is further based on a mapping table between the first QP and the delta QP.
A method performed by an agent of a network management system for performing one or more managed object, MO, operations, the method comprising: receiving a request for said one or more MO operations, the request including two or more manipulation entries, each of said two or more manipulation entries corresponding to each of said one or more MO operations, wherein each of said two or more manipulation entries includes: a manipulation identifier, indicating a type of the MO operation corresponding to the manipulation entry; and a target MO list, indicating a list of MOs which are targets of the MO operation corresponding to the manipulation entry; obtaining said two or more manipulation entries from the received request; and for each of said two or more manipulation entries, performing an MO operation corresponding to the manipulation entry. receiving a request for said one or more MO operations, the request including two or more manipulation entries, each of said two or more manipulation entries corresponding to each of said one or more MO operations, wherein each of said two or more manipulation entries includes: a manipulation identifier, indicating a type of the MO operation corresponding to the manipulation entry; and a target MO list, indicating a list of MOs which are targets of the MO operation corresponding to the manipulation entry; a manipulation identifier, indicating a type of the MO operation corresponding to the manipulation entry; and a target MO list, indicating a list of MOs which are targets of the MO operation corresponding to the manipulation entry; obtaining said two or more manipulation entries from the received request; and for each of said two or more manipulation entries, performing an MO operation corresponding to the manipulation entry.
An air flow rate measurement device comprising: a flow rate detection unit which includes a diaphragm detecting an air flow rate of a gas to be measured; a circuit board to which the flow rate detection unit is mounted; wherein the flow rate detection unit and the circuit board are fixed by a sheet-like adhesive such that a surface parallel to the flow direction of the flow rate detection unit is opened, and is sealed by an elastic body that is arranged perpendicular to the flow direction, characterised in that: a housing houses the circuit board, and said surface is opened by a notch in the sheet-like adhesive, in a direction that extends more along an axis that is parallel to the flow direction than along an axis that is perpendicular to the flow direction. a flow rate detection unit which includes a diaphragm detecting an air flow rate of a gas to be measured; a circuit board to which the flow rate detection unit is mounted; wherein the flow rate detection unit and the circuit board are fixed by a sheet-like adhesive such that a surface parallel to the flow direction of the flow rate detection unit is opened, and is sealed by an elastic body that is arranged perpendicular to the flow direction, characterised in that: a housing houses the circuit board, and said surface is opened by a notch in the sheet-like adhesive, in a direction that extends more along an axis that is parallel to the flow direction than along an axis that is perpendicular to the flow direction. a housing houses the circuit board, and said surface is opened by a notch in the sheet-like adhesive, in a direction that extends more along an axis that is parallel to the flow direction than along an axis that is perpendicular to the flow direction.
A homo-multifunctional cross-linking reagent wherein said CLR is a polyhydroxy polymer comprising a PHP-backbone and a plurality of a reactive substituent which i) is attached to said PHP-backbone and ii) exhibits one or more reactive CLR-groups; wherein the PHP is polyvinyl alcohol and wherein the reactive CLR-group is a nucleophilic group selected from carbazate.
A reinforced composite comprising: a reinforcing material comprising a woven carbon fiber having a mesh size of 2 mm to 37 μm (10 to 400); and a carbon composite; wherein the carbon composite comprises carbon and a binder containing one or more of the following: a metal; or an alloy of the metal; and wherein the metal is one or more of the following: aluminum; copper; titanium; nickel; tungsten; chromium; iron; manganese; zirconium; hafnium; vanadium; niobium; molybdenum; tin; bismuth; antimony; lead; cadmium; or selenium; wherein the carbon in the carbon composite comprises one or more of the following: expanded graphite; expandable graphite; natural graphite; or synthetic graphite; wherein the carbon composite comprises at least two carbon microstructures and a binding phase disposed between the at least two carbon microstructures; wherein the binding phase comprises the binder; wherein the carbon microstructures are microscopic structures of graphite formed after compressing graphite and comprising graphite basal planes stacked together along the compression direction; wherein the largest dimension of the carbon microstructures is from 5 to 500 microns; wherein the carbon microstructures have a thickness of from 1 to 200 microns; and wherein the aspect ratio of the carbon microstructures is from 10 to 500. a reinforcing material comprising a woven carbon fiber having a mesh size of 2 mm to 37 μm (10 to 400); and a carbon composite; wherein the carbon composite comprises carbon and a binder containing one or more of the following: a metal; or an alloy of the metal; and wherein the metal is one or more of the following: aluminum; copper; titanium; nickel; tungsten; chromium; iron; manganese; zirconium; hafnium; vanadium; niobium; molybdenum; tin; bismuth; antimony; lead; cadmium; or selenium; wherein the carbon in the carbon composite comprises one or more of the following: expanded graphite; expandable graphite; natural graphite; or synthetic graphite; wherein the carbon composite comprises at least two carbon microstructures and a binding phase disposed between the at least two carbon microstructures; wherein the binding phase comprises the binder; wherein the carbon microstructures are microscopic structures of graphite formed after compressing graphite and comprising graphite basal planes stacked together along the compression direction; wherein the largest dimension of the carbon microstructures is from 5 to 500 microns; wherein the carbon microstructures have a thickness of from 1 to 200 microns; and wherein the aspect ratio of the carbon microstructures is from 10 to 500.