mhurhangee/ep-ind-claims huggingface dataset:
Oven with an integral oven front element consisting of sheet material and having a control panel as well as front mouldings surrounding the oven door at least on both sides, wherein the control panel is fixedly connected to a cross arm likewise consisting of sheet material and forming a component part of a control and display panel and is embodied as a support for controlling and displaying functional organs of the oven, characterised in that the cross arm overhangs the control panel of the oven front element and serves as a control panel for functional organs of the oven.
System for extruding cords of cementitious material for additive manufacturing robot of architectural structures comprising: - a head for depositing cords of cementitious material, called the print head, comprising an inlet of cementitious material, an outlet nozzle configured to form cords of cementitious material and a mixing enclosure arranged upstream of said outlet nozzle which extends along a direction, called the longitudinal direction, - a supply circuit of cementitious material to said print head comprising a cementitious material storage tank, a cementitious material supply line connecting said storage tank and said print head, and a booster pump for said conduct supply of cementitious material from said storage tank, - an admixture device connected to said print head upstream of said outlet nozzle and which opens into said mixing chamber so as to be able to inject admixtures modifying the characteristics of the cementitious material before ejection of said cords of cementitious material through said outlet nozzle, characterized in that said admixture device comprises a plurality of needles opening into said mixing enclosure along an admixture direction forming with said longitudinal direction an angle of between 0 and 90°, each needle being connected to a drum of adjuvants via a volumetric dispenser, so as to be able to inject said adjuvants from said drum of adjuvants into said mixing chamber according to said direction of adjuvantation. - a head for depositing cords of cementitious material, called the print head, comprising an inlet of cementitious material, an outlet nozzle configured to form cords of cementitious material and a mixing enclosure arranged upstream of said outlet nozzle which extends along a direction, called the longitudinal direction, - a supply circuit of cementitious material to said print head comprising a cementitious material storage tank, a cementitious material supply line connecting said storage tank and said print head, and a booster pump for said conduct supply of cementitious material from said storage tank, - an admixture device connected to said print head upstream of said outlet nozzle and which opens into said mixing chamber so as to be able to inject admixtures modifying the characteristics of the cementitious material before ejection of said cords of cementitious material through said outlet nozzle, characterized in that said admixture device comprises a plurality of needles opening into said mixing enclosure along an admixture direction forming with said longitudinal direction an angle of between 0 and 90°, each needle being connected to a drum of adjuvants via a volumetric dispenser, so as to be able to inject said adjuvants from said drum of adjuvants into said mixing chamber according to said direction of adjuvantation.
An implementation method for remote access, being applied to a gateway agent, GA and comprising: receiving a notification resource creation request transmitted by a cloud server, CS, wherein the notification resource creation request is generated according to a first resource updating request from a mobile device MD; activating a local remote configuration file according to a parameter "remote configuration file" of the notification resource creation request; and executing, upon receiving a remote access request from the MD, the remote access request according to the activated local remote configuration file; wherein, before receiving the notification resource creation request transmitted by the CS, the method further comprises: when the local remote configuration file is deactivated or deleted, transmitting a second resource updating request to the CS, wherein the second resource updating request indicates a deletion of an attribute "remote configuration file" of a resource; and receiving a second resource updating response transmitted by the CS after the CS deletes the attribute "remote configuration file" of the resource. receiving a notification resource creation request transmitted by a cloud server, CS, wherein the notification resource creation request is generated according to a first resource updating request from a mobile device MD; activating a local remote configuration file according to a parameter "remote configuration file" of the notification resource creation request; and executing, upon receiving a remote access request from the MD, the remote access request according to the activated local remote configuration file; wherein, before receiving the notification resource creation request transmitted by the CS, the method further comprises: when the local remote configuration file is deactivated or deleted, transmitting a second resource updating request to the CS, wherein the second resource updating request indicates a deletion of an attribute "remote configuration file" of a resource; and receiving a second resource updating response transmitted by the CS after the CS deletes the attribute "remote configuration file" of the resource. when the local remote configuration file is deactivated or deleted, transmitting a second resource updating request to the CS, wherein the second resource updating request indicates a deletion of an attribute "remote configuration file" of a resource; and receiving a second resource updating response transmitted by the CS after the CS deletes the attribute "remote configuration file" of the resource.
FBMC receiver intended to receive at least one packet of FBMC symbols, the FBMC symbols being transmitted by means of a plurality N of sub-channels and following one another at a frequency f =1/ T with an overlapping factor K, the receiver comprising a sampler (400,800) to sample at the frequency Nf the signal received in baseband, a serial-parallel converter (410, 810) to form blocks of successive samples of size KN, a FFT module (430, 830) to carry out a FFT of size KN on each of said blocks, a battery of analysis filters (440, 840) to carry out a filtering and a spectral despreading on the frequency components at the output of the FFT module, characterised in that it further comprises a first multiplexer (415, 815) to pad with zero values a first plurality ( M z) of the last samples of the last block of the FBMC packet at the input of the FFT module, without waiting for the end of reception of the FBMC packet.
A stimulator device, comprising: a plurality of electrode nodes, each electrode node configured to be coupled to one of a plurality of electrodes (E1, E2,... E15, E16) configured to contact a patient's tissue; and stimulation circuitry configured by stimulation parameters to provide a repeating sequence of interleaved first and second pulses at at least two of the electrode nodes to create via the first and second pulses a stimulation current through the patient's tissue, wherein, at a first electrode node of the at least two electrode nodes, each first pulse comprises a first monophasic pulse of a first polarity and a first passive charge recovery pulse of a second polarity opposite the first polarity, the first passive charge recovery pulse being configured to recover charge stored during the first monophasic pulse, and wherein, at the first electrode node, each second pulse comprises a second monophasic pulse of the second polarity and a second passive charge recovery pulse of the first polarity, the second passive charge recovery pulse being configured to recover charge stored during the second monophasic pulse, wherein the first and second monophasic pulses are charge balanced at the first electrode node. a plurality of electrode nodes, each electrode node configured to be coupled to one of a plurality of electrodes (E1, E2,... E15, E16) configured to contact a patient's tissue; and stimulation circuitry configured by stimulation parameters to provide a repeating sequence of interleaved first and second pulses at at least two of the electrode nodes to create via the first and second pulses a stimulation current through the patient's tissue, wherein, at a first electrode node of the at least two electrode nodes, each first pulse comprises a first monophasic pulse of a first polarity and a first passive charge recovery pulse of a second polarity opposite the first polarity, the first passive charge recovery pulse being configured to recover charge stored during the first monophasic pulse, and wherein, at the first electrode node, each second pulse comprises a second monophasic pulse of the second polarity and a second passive charge recovery pulse of the first polarity, the second passive charge recovery pulse being configured to recover charge stored during the second monophasic pulse, wherein the first and second monophasic pulses are charge balanced at the first electrode node.
An implantable medical system comprising: a first optical sensor configured to generate a first electrical signal; a second optical sensor configured to generate a second electrical signal; wherein each of the first and second optical sensors (18,20) comprise at least one light source (32, 34, 38, 40) and at least one light detector (36, 42), and the first and second electrical signals are indicative of the intensity of the light detected by the at least one light detector of the respective sensor, so that said first and second electrical signals change as a function of the amount of blood within the artery; and a processor configured to receive the first electrical signal and the second electrical signal, to detect an arterial pulse of the patient based on the first and second electrical signals, and to determine whether the arterial pulse is a spurious pulse based on the first and second electrical signals; and characterized in that the first optical sensor and the second optical sensor are adapted for implantation along an artery of a patient, such that the second optical sensor is downstream of the first optical sensor relative to the direction of blood flow in the artery; and the processor is configured to determine whether the arterial pulse is a spurious pulse by at least determining whether the first and second signal characteristics occurred within a predetermined range of time, and if the first and second characteristics occurred within the predetermined range of time, the processor is configured to determine that the detected arterial pulse is the spurious pulse. a first optical sensor configured to generate a first electrical signal; a second optical sensor configured to generate a second electrical signal; wherein each of the first and second optical sensors (18,20) comprise at least one light source (32, 34, 38, 40) and at least one light detector (36, 42), and the first and second electrical signals are indicative of the intensity of the light detected by the at least one light detector of the respective sensor, so that said first and second electrical signals change as a function of the amount of blood within the artery; and a processor configured to receive the first electrical signal and the second electrical signal, to detect an arterial pulse of the patient based on the first and second electrical signals, and to determine whether the arterial pulse is a spurious pulse based on the first and second electrical signals; and characterized in that the first optical sensor and the second optical sensor are adapted for implantation along an artery of a patient, such that the second optical sensor is downstream of the first optical sensor relative to the direction of blood flow in the artery; and the processor is configured to determine whether the arterial pulse is a spurious pulse by at least determining whether the first and second signal characteristics occurred within a predetermined range of time, and if the first and second characteristics occurred within the predetermined range of time, the processor is configured to determine that the detected arterial pulse is the spurious pulse.
An optically variable security device comprising a thin film reflection filter structure which exhibits a first optically variable effect; an embossing layer provided with a surface relief structure on the thin film reflection filter structure which exhibits a second optically variable effect, characterized in that opaque regions defined by a metallisation are provided between the surface relief structure and the thin film reflection filter structure.
A polyolefin-based resin wrap film comprising a polyolefin-based resin, wherein the polyolefin-based resin comprises a polyethylene-based resin and has a density of 0.860 to 0.960 g/cm 3, measured according to JIS K7112; wherein the content of the polyethylene-based resin is 70 to 100% by mass based on 100% by mass of the polyolefin-based resin; wherein the wrap film is torn in a machine direction when being torn in the machine direction; the wrap film is torn in a transverse direction when being torn in the transverse direction; the wrap film is torn either in the machine direction or in the transverse direction when being torn in a direction at 45° to the machine direction; an acute angle formed by a tearing direction and a cut line when the wrap film is torn in a direction at 45° to the machine direction is 30 to 60°; and a tear strength when the wrap film is torn in a direction at 45° to the machine direction is 10 g or lower measured using an Elmendorf tear strength tester according to JIS K7128, except for cutting a 10-mm score on the film of 60 mm x 60 mm and tearing the film in a direction at 45° to the machine direction, wherein the thickness of the wrap film is 5.0 to 15.0 μm, measured according to ASTM E-252, wherein a machine-direction shrinkage factor (Smd) thereof determined by the following formula and a transverse-direction shrinkage factor (Std) thereof determined by the following formula satisfy Smd ≥ 2.5 times, Std ≥ 2.5 times, Smd x Std ≥ 10 times and Std/Smd = 0.5 to 10: machine-direction shrinkage factor Smd = 100 / 100 − α md and transverse-direction shrinkage factor Std = 100 / 100 − α td wherein in the above formulae and, αmd represents a maximum thermal shrinkage (%) in the machine direction; and αtd represents a maximum thermal shrinkage (%) in the transverse direction, the maximum thermal shrinkage being measured according to ASTM D-1204; wherein a gel fraction thereof is 10 to 60% by mass measured according to ASTM D-2765; wherein a melting point thereof in differential scanning calorimetry is 80 to 123°C; and wherein the wrap film is obtained by a method comprising an extrusion step and a stretching step, wherein the stretching step is a step of biaxially stretching the extruded polyolefin resin.
Burner for a catalytic reactor comprising a central oxidiser supply tube for providing oxidant flow to a combustion zone of the reactor with a stationary swirler element, an inner side, an outer side, an oxidant inlet and an oxidant nozzle tip and an outer concentric fuel supply tube for providing fuel flow to the combustion zone with an inner side, an outer side, a fuel inlet and a fuel nozzle tip characterised in that: the burner further comprises a recycle gas duct within the fuel supply tube in the space between the oxidiser supply tube and the fuel supply tube, said recycle gas duct having an inlet and a recycle gas nozzle tip (12, 13), which has an inner side which faces the oxidiser supply tube and an outer side which faces the fuel supply tube, wherein the recycle gas duct is arranged so that the inner side of the recycle gas nozzle tip is at a distance X from the outer side of the oxidiser supply tube, and the outer side of the recycle gas nozzle tip is at a distance Y from the inner side of the fuel supply tube, where X is large enough to provide fuel flow passage between the outer side of the oxidiser supply tube and the inner side of the recycle gas nozzle tip and Y is large enough to provide fuel flow passage between the inner side of the fuel supply tube and the outer side of the recycle gas nozzle tip. the burner further comprises a recycle gas duct within the fuel supply tube in the space between the oxidiser supply tube and the fuel supply tube, said recycle gas duct having an inlet and a recycle gas nozzle tip (12, 13), which has an inner side which faces the oxidiser supply tube and an outer side which faces the fuel supply tube, wherein the recycle gas duct is arranged so that the inner side of the recycle gas nozzle tip is at a distance X from the outer side of the oxidiser supply tube, and the outer side of the recycle gas nozzle tip is at a distance Y from the inner side of the fuel supply tube, where X is large enough to provide fuel flow passage between the outer side of the oxidiser supply tube and the inner side of the recycle gas nozzle tip and Y is large enough to provide fuel flow passage between the inner side of the fuel supply tube and the outer side of the recycle gas nozzle tip.
A drive device for adjusting an interior assembly of a vehicle, comprising an electromotive adjusting drive for adjusting the interior assembly and a control device for controlling the adjusting drive, wherein the control device is configured to actuate the adjusting drive in a servo mode to provide a supporting force during a manual adjustment of the interior assembly by a user, characterized in that the control device includes a servo control module for determining a setpoint in dependence on a load acting on the interior assembly. an electromotive adjusting drive for adjusting the interior assembly and a control device for controlling the adjusting drive, wherein the control device is configured to actuate the adjusting drive in a servo mode to provide a supporting force during a manual adjustment of the interior assembly by a user, characterized in that the control device includes a servo control module for determining a setpoint in dependence on a load acting on the interior assembly.
Operating attachment for arrangement on a predefinable switching device and for operating a pivotable switching device toggle of the switching device, wherein the operating attachment has a housing which is open on one side and is to be placed on the switching device, wherein the operating attachment has a manual operating part, wherein the manual operating part is arranged on a rotatable shaft of the operating attachment, wherein a switch-on projection for pivoting the switching device toggle in a first pivot direction is arranged on the shaft, wherein a switch-off projection for pivoting the switching device toggle in a second pivot direction opposite the first pivot direction is arranged on the shaft, characterised in that a housing stop for contact with a stop edge of the switch-off projection is arranged in the housing, and the switch-off projection is designed to yield resiliently such that it is bent for contact with the housing stop fixed to the housing when loaded with a predefinable first force which acts in the direction of the manual operating part and parallel to the rotation axis of the shaft.
Front door of motor vehicle, including: - a metal structure with a box and a glass frame extending upwards from the box, the frame comprising a front and bottom portion; - an exterior mirror with a base attached to the front and bottom portion of the glass frame; - a lining extending along a top face of the glass frame to the front and bottom portion of the glass frame; characterized by the base extends forward beyond the front and bottom portion of the glass frame and is attached to the lining at the front of the glass frame. - a metal structure with a box and a glass frame extending upwards from the box, the frame comprising a front and bottom portion; - an exterior mirror with a base attached to the front and bottom portion of the glass frame; - a lining extending along a top face of the glass frame to the front and bottom portion of the glass frame;
An external skin component for a motor vehicle with an external skin element and an air-guiding device of a motor vehicle, with - a first air-guiding element and a second air-guiding element, which together delimit an air-guiding duct which is formed between the air-guiding elements (5, 6) and through which air can flow; and - a fastening element, which is arranged on the first air-guiding element and corresponds with a first fastening element of an external skin element of the motor vehicle, so that the first air-guiding element and consequently the air-guiding device is fixed to the external skin element by the fastening element of the air-guiding device in the absence of an integrally bonded connection, and with a fastening means, wherein the external skin element and the air-guiding device are fixed to one another in that a first air-guiding element of the air-guiding device and the external skin element are fixed to one another by the fastening means and in the absence of an integrally bonded connection, characterised in that an edge tab is formed on the first air-guiding element, and the fastening element arranged on the first air-guiding element comprises the edge tab as a holding element, wherein the edge tab is configured to engage form-fittingly in a corresponding holding element receptacle of the motor vehicle, in particular of the external skin element, wherein the holding element and the holding element receptacle are configured to slide against one another in a mounting direction during a mounting or fastening of the ventilation device to the external skin element and in this respect the holding element and the holding element receptacle serve as a mounting aid means in that, to mount the ventilation device on the external skin element, the ventilation device is held displaceably in translation in relation to the mounting direction, whereas the ventilation device, on account of the holding element or on account of the holding element receptacle, transversely to the mounting direction, in particular transversely to the Z-axis of the motor vehicle, is blocked against deviating from the mounting direction when the mounting direction, in relation to the motor vehicle, runs at least substantially parallel to a vertical axis of the motor vehicle or coincides therewith. - a first air-guiding element and a second air-guiding element, which together delimit an air-guiding duct which is formed between the air-guiding elements (5, 6) and through which air can flow; and - a fastening element, which is arranged on the first air-guiding element and corresponds with a first fastening element of an external skin element of the motor vehicle, so that the first air-guiding element and consequently the air-guiding device is fixed to the external skin element by the fastening element of the air-guiding device in the absence of an integrally bonded connection,
A method for preparing a purified styrene composition, wherein the method comprises the following steps: a) providing a crude hydrocarbon composition containing styrene, b) subjecting the crude hydrocarbon composition provided in step a) to a distillation in a divided-wall column so as to produce an overhead hydrocarbon stream, a bottom hydrocarbon stream and a side hydrocarbon stream and c) subjecting the side hydrocarbon stream obtained in step b) to at least one crystallization step so as to obtain a purified styrene composition. a) providing a crude hydrocarbon composition containing styrene, b) subjecting the crude hydrocarbon composition provided in step a) to a distillation in a divided-wall column so as to produce an overhead hydrocarbon stream, a bottom hydrocarbon stream and a side hydrocarbon stream and c) subjecting the side hydrocarbon stream obtained in step b) to at least one crystallization step so as to obtain a purified styrene composition.