mhurhangee/ep-ind-claims huggingface dataset:
A power feeding structure, comprising a fixing structure, a sliding structure, a swinging member (1, 1'), and a wire harness, wherein the wire harness is routed from the swinging member to a harness supporting member at the fixing structure; wherein the swinging member includes a harness holding portion arranged in a lateral direction and holds one end of the wire harness, a turning shaft or a turning bearing arranged in a vertical direction comprising a harness pulling-out hole and being offset from the harness holding portion in a radial direction of the harness holding portion, and a fixing member having upper and lower walls provided with the bearings which turnably engage with the shaft and a back wall connecting the upper and lower walls and fixed to the sliding structure, wherein, when the sliding structure is fully opened, the harness holding portion is positioned substantially parallel to the back wall of the fixing member and located closer to the sliding structure than the shaft or the bearing, and when the sliding structure is fully closed, the harness holding portion is located closer to the fixing structure than the shaft or the bearing, or, when the sliding structure is fully opened, the harness holding portion is located closer to the fixing structure than the shaft or the bearing, and when the sliding structure is fully closed, the harness holding portion is positioned substantially parallel to the back wall of the fixing member and located closer to the sliding structure than the shaft or the bearing.
A switchgear leakage current monitoring system for a high voltage or medium voltage switchgear, comprising: - at least one sensor (14, 16, 17); and - a leakage current monitoring unit; wherein, the at least one sensor comprises at least one conducting layer or electrode, wherein each sensor comprises a conducting layer or electrode; wherein, the at least one conducting layer or electrode is attached or integrated on at least one surface of at least one insulating component of a high voltage or medium voltage switchgear, wherein each insulating component has a conducting layer or electrode attached or integrated on its surface; wherein, the at least one insulating component is mechanically attached to at least one electrically conductive part at ground potential of the high voltage or medium voltage switchgear, wherein each insulating component is mechanically attached to an electrically conductive part, and wherein the at least one conducting layer or electrode is situated at a corresponding at least one location of the at least one insulating component that is close to the at least one electrically conductive part such that the at least one conducting layer or electrode is not in direct contact with the at least one electrically conductive part; wherein, the at least one sensor is configured to acquire at least one leakage current signal, wherein each sensor is configured to acquire a leakage current signal on a surface of the insulating component to which its corresponding conducting layer or electrode is attached or integrated; wherein the at least one sensor comprises at least one ground connection; wherein, the at least sensor has at least one data connection to the leakage current monitoring unit; and wherein, the leakage current monitoring unit is configured to be provided with at least one measurement data relating to the at least one leakage current signal via the at least one data connection. - at least one sensor (14, 16, 17); and - a leakage current monitoring unit;
A server computing device for remoting applications that have their respective visual content stored as a structural representation in a corresponding visual tree, such as Windows Presentation Foundation, WPF, applications, to one or more client computing devices (106-1, 106-2, 106-3), the server computing device comprising: a memory; one or more processors operatively coupled to the memory; a redirection agent in the memory, wherein the redirection agent remotes one or more non-composed desktops and applications of the server computing device to the one or more client computing devices; a structural redirection agent that transfers structural information of the desktop to the one or more client computing devices, wherein structural information includes data that specifies placement of visual contents on a desktop when displayed, and wherein a graphics system of the server computing device transitions from a single immediate drawing mode to a structural redirection mode when an application is created that has its visual content stored as a structural representation in a corresponding visual tree and wherein the structural redirection mode is implemented through the structural redirection agent; a visual tree generator that creates visual trees that correspond to the applications, wherein the visual trees include a child tree as a structural representation of a desktop and corresponding child trees of applications; and a window manager agent that provides structural information to the structural redirection agent to generate structural information node data, wherein the structural redirection agent maintains a visual tree for the whole desktop and instructs a remote display client to create a visual tree. a memory; one or more processors operatively coupled to the memory; a redirection agent in the memory, wherein the redirection agent remotes one or more non-composed desktops and applications of the server computing device to the one or more client computing devices; a structural redirection agent that transfers structural information of the desktop to the one or more client computing devices, wherein structural information includes data that specifies placement of visual contents on a desktop when displayed, and wherein a graphics system of the server computing device transitions from a single immediate drawing mode to a structural redirection mode when an application is created that has its visual content stored as a structural representation in a corresponding visual tree and wherein the structural redirection mode is implemented through the structural redirection agent; a visual tree generator that creates visual trees that correspond to the applications, wherein the visual trees include a child tree as a structural representation of a desktop and corresponding child trees of applications; and a window manager agent that provides structural information to the structural redirection agent to generate structural information node data, wherein the structural redirection agent maintains a visual tree for the whole desktop and instructs a remote display client to create a visual tree.
A method for preparing a conjugated polymer, comprising providing at least one first monomer comprising a 3,4-dioxythiophene, 3,4-dioxyselenophene, 3,4-dioxytellurophene 3,4-dioxyfuran, or 3,4-dioxypyrrole; optionally providing at least one second monomer comprising a conjugated unit; providing a Pd or Ni comprising catalyst; providing an aprotic solvent; providing a carboxylic acid; combining the first monomer, second monomer, catalyst, solvent and carboxylic acid as a polymerization mixture; and heating the polymerization mixture in excess of 120 °C, wherein at least one of the first monomers or second monomers is substituted with hydrogen reactive functionalities and at least one of the first or second monomers is substituted with non-hydrogen reactive functionalities, wherein the non-hydrogen reactive functionalities are Cl, Br, I, OTs, OTf, CN, OCN, SCN, wherein the polymerization mixture is free of a phosphine ligand, and wherein the ratio of the hydrogen reactive functionalities and the non-hydrogen reactive functionalities permits a degree of polymerization in excess of four. providing at least one first monomer comprising a 3,4-dioxythiophene, 3,4-dioxyselenophene, 3,4-dioxytellurophene 3,4-dioxyfuran, or 3,4-dioxypyrrole; optionally providing at least one second monomer comprising a conjugated unit; providing a Pd or Ni comprising catalyst; providing an aprotic solvent; providing a carboxylic acid; combining the first monomer, second monomer, catalyst, solvent and carboxylic acid as a polymerization mixture; and heating the polymerization mixture in excess of 120 °C, wherein at least one of the first monomers or second monomers is substituted with hydrogen reactive functionalities and at least one of the first or second monomers is substituted with non-hydrogen reactive functionalities, wherein the non-hydrogen reactive functionalities are Cl, Br, I, OTs, OTf, CN, OCN, SCN, wherein the polymerization mixture is free of a phosphine ligand, and wherein the ratio of the hydrogen reactive functionalities and the non-hydrogen reactive functionalities permits a degree of polymerization in excess of four.
A multi phase soft gelatin capsule for oral administration, the soft gelatin capsule comprising: a preformed solid unit dosage form, comprising a statin compound, wherein the preformed solid unit dosage form is a tablet having at least one coating; and at least one liquid fill phase comprising omega-3 fatty acids; wherein the preformed solid unit dosage form and the at least one liquid fill phase are independently introduced in the soft gelatin capsule. a preformed solid unit dosage form, comprising a statin compound, wherein the preformed solid unit dosage form is a tablet having at least one coating; and at least one liquid fill phase comprising omega-3 fatty acids;
A scaffolding material for culturing a stem cell, the scaffolding material comprising a synthetic resin, and the synthetic resin having a nitrogen content of 0.1% by mass or more and 10% by mass or less, wherein the synthetic resin contains a polyvinyl acetal resin having a degree of acetalization of 60 mol% or more and 90 mol% or less. the scaffolding material comprising a synthetic resin, and the synthetic resin having a nitrogen content of 0.1% by mass or more and 10% by mass or less, wherein the synthetic resin contains a polyvinyl acetal resin having a degree of acetalization of 60 mol% or more and 90 mol% or less.
A method of facilitating performance of a task on a surface of a material with a user device having a cutting tool comprising a cutting instrument, the method comprising: scanning, by a camera coupled with the user device, the surface of the material to obtain first scanned data of the surface of the material, wherein scanning the surface of the material comprises scanning identifying markers on the material to obtain first scanned data indicating a map of the surface of the material; scanning, by the camera, at least a portion of the surface of the material to obtain second scanned data; evaluating, by a processor, the first scanned data and the second scanned data to determine a position of the camera relative to the surface of the material, wherein evaluating the first scanned data and the second scanned data comprises comparing identifying markers of the second scanned data with the map to determine the position of the camera; determining, by the processor and based on the position of the camera relative to the surface of the material, a position of the cutting instrument of the user device relative to the surface of the material; and adjusting the position of the cutting instrument based on the determined position of the cutting instrument and a target point corresponding to a design plan. scanning, by a camera coupled with the user device, the surface of the material to obtain first scanned data of the surface of the material, wherein scanning the surface of the material comprises scanning identifying markers on the material to obtain first scanned data indicating a map of the surface of the material; scanning, by the camera, at least a portion of the surface of the material to obtain second scanned data; evaluating, by a processor, the first scanned data and the second scanned data to determine a position of the camera relative to the surface of the material, wherein evaluating the first scanned data and the second scanned data comprises comparing identifying markers of the second scanned data with the map to determine the position of the camera; determining, by the processor and based on the position of the camera relative to the surface of the material, a position of the cutting instrument of the user device relative to the surface of the material; and adjusting the position of the cutting instrument based on the determined position of the cutting instrument and a target point corresponding to a design plan.
An apparatus comprising: (a) a body; (b) a shaft assembly extending distally from the body, wherein the shaft assembly defines a longitudinal axis; (c) an articulation section attached to a distal end of the shaft assembly; (d) an end effector located distally relative to the shaft assembly, wherein the end effector is connected to the articulation section such that the end effector is configured to deflect relative to the longitudinal axis defined by the shaft assembly; (e) an articulation connector slidably disposed within the shaft assembly, wherein the articulation connector is configured to translate relative to the shaft assembly to deflect the end effector relative to the longitudinal axis; and (f) an articulation drive assembly, wherein the articulation drive assembly is configured to translate the articulation connector relative to the shaft assembly, wherein the articulation drive assembly comprises: (i) a rotatable housing configured to rotate relative to the body, and (ii) a first lead screw assembly, characterized by said first lead screw assembly comprising a first half and a second half, wherein the first half is configured to couple with the second half such that the first lead screw assembly is slidably coupled with the shaft assembly. (a) a body; (b) a shaft assembly extending distally from the body, wherein the shaft assembly defines a longitudinal axis; (c) an articulation section attached to a distal end of the shaft assembly; (d) an end effector located distally relative to the shaft assembly, wherein the end effector is connected to the articulation section such that the end effector is configured to deflect relative to the longitudinal axis defined by the shaft assembly; (e) an articulation connector slidably disposed within the shaft assembly, wherein the articulation connector is configured to translate relative to the shaft assembly to deflect the end effector relative to the longitudinal axis; and (f) an articulation drive assembly, wherein the articulation drive assembly is configured to translate the articulation connector relative to the shaft assembly, wherein the articulation drive assembly comprises: (i) a rotatable housing configured to rotate relative to the body, and (ii) a first lead screw assembly, characterized by said first lead screw assembly comprising a first half and a second half, wherein the first half is configured to couple with the second half such that the first lead screw assembly is slidably coupled with the shaft assembly. (i) a rotatable housing configured to rotate relative to the body, and (ii) a first lead screw assembly, characterized by said first lead screw assembly comprising a first half and a second half, wherein the first half is configured to couple with the second half such that the first lead screw assembly is slidably coupled with the shaft assembly.
A vibrator beam, comprising - at least two vertical tubes (11, 12) and, therebetween, a support structure comprised of at least one horizontal upper support tube and at least one horizontal lower support tube arranged between the vertical tubes (11, 12) of the vibrator beam, - a plurality of vibrators, comprising vibrator rods, in the direction of the support structure, and - lift means for moving the vibrator beam, wherein the vibrator beam further comprises a guide formed by an elongated bar below said vibrators, which guide is movable in the vertical and horizontal directions during use of the vibrator beam, and which vibrator beam comprises control means for adjusting the distance between the guide and the support structure and the guide comprises a plurality of openings in the longitudinal direction of the guide, which openings are dimensioned to be larger than the diameter of the vibrator rods such that when adjusting the distance between the guide and the support structure, the vibrator rods go through the openings in the guide and the guide is movable in opposite directions in relation to the vibrator rods, both upward and downward, characterized in that the control means for adjusting the distance between the guide and the support structure comprise a wire rope reel or a chain hoist. - at least two vertical tubes (11, 12) and, therebetween, a support structure comprised of at least one horizontal upper support tube and at least one horizontal lower support tube arranged between the vertical tubes (11, 12) of the vibrator beam, - a plurality of vibrators, comprising vibrator rods, in the direction of the support structure, and - lift means for moving the vibrator beam,
A vehicle control method for automatically controlling an acceleration-deceleration rate control of a vehicle including starting and stopping, comprising: performing the starting of the vehicle at a starting time with a first drive force which exceeds a starting friction force, which is a friction force acting on the vehicle at the starting time; and switching to a second drive force after performing the starting, the second drive force being greater than the first drive force, and the second drive force being a drive force that is necessary to make a headway distance to a preceding vehicle equal to a pre-set headway distance when there is a preceding vehicle, and being a drive force that is necessary to accelerate to a pre-set vehicle speed when there is no the preceding vehicle, characterized in that the switching from the first drive force to the second drive force is performed at a timing at which a vehicle speed of a host vehicle reaches a pre-set switching vehicle speed. performing the starting of the vehicle at a starting time with a first drive force which exceeds a starting friction force, which is a friction force acting on the vehicle at the starting time; and switching to a second drive force after performing the starting, the second drive force being greater than the first drive force, and the second drive force being a drive force that is necessary to make a headway distance to a preceding vehicle equal to a pre-set headway distance when there is a preceding vehicle, and being a drive force that is necessary to accelerate to a pre-set vehicle speed when there is no the preceding vehicle, characterized in that the switching from the first drive force to the second drive force is performed at a timing at which a vehicle speed of a host vehicle reaches a pre-set switching vehicle speed.
Device for splicing and continuously providing an outgoing film web, which device comprises a first film supply for feeding in a first incoming film web, a second film supply for feeding in a second incoming film web, a splicing unit for splicing the first or the second incoming film web (4, 5) to the outgoing film web, and a clamping unit and an intermediate film storage means, downstream of the clamping unit, for the outgoing film web, wherein the splicing unit comprises a first sealing jaw with a first holding device for the outgoing film web, and a first cutting device for severing the outgoing film web in the region of the first sealing jaw, characterized in that the splicing unit furthermore comprises a second sealing jaw with a second holding device alternately for the first or the second incoming film web (4, 5), and a second cutting device for severing the first or the second incoming film web (4, 5), wherein the first sealing jaw with the first holding device and the second sealing jaw with the second holding device can be displaced relative to one another out of the region of action of their first and second cutting devices (13, 16) into their mutual region of action.
A method for balancing an elevator car comprising a frame; a cabin box mounted on the frame; several elastic members (4a,4b,4c,4d), such as springs, in vertical direction between the frame and the cabin box, via which elastic members (4a,4b,4c,4d) the cabin box rests on the frame; characterized in that the method comprising measuring vertical distance between the frame and the cabin box in several horizontally spaced apart locations (A,B,C,D) with distance sensors (5a,5b,5c,5d); and adjusting weight distribution of the cabin box based on the result of the measuring, said adjusting weight distribution of the cabin box comprising adding weight elements on the cabin box and/or removing weight elements mounted on the cabin box. a frame; a cabin box mounted on the frame; several elastic members (4a,4b,4c,4d), such as springs, in vertical direction between the frame and the cabin box, via which elastic members (4a,4b,4c,4d) the cabin box rests on the frame; measuring vertical distance between the frame and the cabin box in several horizontally spaced apart locations (A,B,C,D) with distance sensors (5a,5b,5c,5d); and adjusting weight distribution of the cabin box based on the result of the measuring, said adjusting weight distribution of the cabin box comprising adding weight elements on the cabin box and/or removing weight elements mounted on the cabin box.
A method for self-calibrating a radar system, the method comprising the steps of: providing a radar system comprising a Frequency Modulated Continuous Wave (FMCW) radar altimeter system that comprises a receiver for processing a simulated return signal based on a transmission radar signal, the receiver comprising: a mixer configured to receive the simulated return signal and the transmission radar signal; a low noise amplifier coupled to an output of the mixer; a high pass filter coupled to an output of the low noise amplifier; an analog to digital converter coupled to an output of the high pass filter; and a fast Fourier transform unit coupled to an output of the analog to digital converter; and generating calibration factors for the radar system by a method comprising: a) generating the simulated return signal based on one or more range values; b) generating the transmission radar signal; and c) determining one or more calibration factors based on the simulated return signal, the transmission radar signal, and ideal return signal characteristics. providing a radar system comprising a Frequency Modulated Continuous Wave (FMCW) radar altimeter system that comprises a receiver for processing a simulated return signal based on a transmission radar signal, the receiver comprising: a mixer configured to receive the simulated return signal and the transmission radar signal; a low noise amplifier coupled to an output of the mixer; a high pass filter coupled to an output of the low noise amplifier; an analog to digital converter coupled to an output of the high pass filter; and a fast Fourier transform unit coupled to an output of the analog to digital converter; and a mixer configured to receive the simulated return signal and the transmission radar signal; a low noise amplifier coupled to an output of the mixer; a high pass filter coupled to an output of the low noise amplifier; an analog to digital converter coupled to an output of the high pass filter; and a fast Fourier transform unit coupled to an output of the analog to digital converter; and generating calibration factors for the radar system by a method comprising: a) generating the simulated return signal based on one or more range values; b) generating the transmission radar signal; and c) determining one or more calibration factors based on the simulated return signal, the transmission radar signal, and ideal return signal characteristics. a) generating the simulated return signal based on one or more range values; b) generating the transmission radar signal; and c) determining one or more calibration factors based on the simulated return signal, the transmission radar signal, and ideal return signal characteristics.