mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a patient support for holding a patient, the patient support being above a floor; a particle accelerator; an outer gantry that is movable around the patient support, the particle accelerator being mounted on the outer gantry and being configured to output a proton or ion beam, the outer gantry being movable so that the particle accelerator is below the floor; and an inner gantry comprising a structural weldment comprising a bearing rail, the inner gantry comprising an applicator mounted to the rail, the applicator comprising an aperture for directing the proton or ion beam towards a target in the patient, the inner gantry being configured to move the applicator along the rail through a range of positions around the patient so as to position the proton or ion beam at sub-millimeter precision, and the inner gantry comprising a cover configured to roll along a path between a top part of the structural weldment and a bottom part of the structural weldment, the cover for covering a hole in the floor above the particle accelerator. a patient support for holding a patient, the patient support being above a floor; a particle accelerator; an outer gantry that is movable around the patient support, the particle accelerator being mounted on the outer gantry and being configured to output a proton or ion beam, the outer gantry being movable so that the particle accelerator is below the floor; and an inner gantry comprising a structural weldment comprising a bearing rail, the inner gantry comprising an applicator mounted to the rail, the applicator comprising an aperture for directing the proton or ion beam towards a target in the patient, the inner gantry being configured to move the applicator along the rail through a range of positions around the patient so as to position the proton or ion beam at sub-millimeter precision, and the inner gantry comprising a cover configured to roll along a path between a top part of the structural weldment and a bottom part of the structural weldment, the cover for covering a hole in the floor above the particle accelerator.
Apparatus for depositing magnetic or magnetizable microparticles from a suspension by means of high-gradient magnetic separation, - having a separator, the housing of which encloses a deposition chamber through which the suspension is able to flow in a predetermined flow direction, - having a magnetic or magnetizable deposition matrix, which comprises a plurality of surface elements, which are arranged with a clear lateral distance from one another in the deposition chamber to form flow spaces for the suspension, - having an inlet and an outlet, via which the suspension is guided into and out of the flow spaces, and - having a device for generating a magnetic field, in which the separator is arranged, characterized by an optical measurement device and an illumination system, wherein the optical lines of sight of the optical measurement device extend into the flow spaces to ascertain the size of the clear distance between the surface elements and the illumination system has at least one light source, the light of which is emittable into the flow spaces. - having a separator, the housing of which encloses a deposition chamber through which the suspension is able to flow in a predetermined flow direction, - having a magnetic or magnetizable deposition matrix, which comprises a plurality of surface elements, which are arranged with a clear lateral distance from one another in the deposition chamber to form flow spaces for the suspension, - having an inlet and an outlet, via which the suspension is guided into and out of the flow spaces, and - having a device for generating a magnetic field, in which the separator is arranged, characterized by an optical measurement device and an illumination system, wherein the optical lines of sight of the optical measurement device extend into the flow spaces to ascertain the size of the clear distance between the surface elements and the illumination system has at least one light source, the light of which is emittable into the flow spaces.
A composition comprising: (i) at least 25% by weight of an estolide base oil, said estolide base oil comprising at least one estolide compound selected from compounds of Formula I; wherein x is, independently for each occurrence, an integer selected from 0 to 10; y is, independently for each occurrence, an integer selected from 0 to 10; n is an integer selected from 0 to 20; R 1 is an optionally substituted C 1 to C 22 alkyl that is saturated or unsaturated, and branched or unbranched; and R 2 is an optionally substituted C 1 to C 22 alkyl that is saturated or unsaturated, and branched or unbranched, wherein each fatty acid chain residue is unsubstituted (ii) at least 40% by weight of at least one non-estolide base oil; (iii) at least one metal sulfonate detergent; and (iv) at least one antioxidant, wherein the composition exhibits a wear rating 60 μm or less, and a viscosity increase of 150% or less at 40°C, when tested according to ASTM Method 7320, wherein the estolide base oil has an iodine value of less than 10cg/g, and wherein the composition has a bio-based content of at least 25% by weight when tested according to ASTM Method D6866. (i) at least 25% by weight of an estolide base oil, said estolide base oil comprising at least one estolide compound selected from compounds of Formula I; wherein x is, independently for each occurrence, an integer selected from 0 to 10; y is, independently for each occurrence, an integer selected from 0 to 10; n is an integer selected from 0 to 20; R 1 is an optionally substituted C 1 to C 22 alkyl that is saturated or unsaturated, and branched or unbranched; and R 2 is an optionally substituted C 1 to C 22 alkyl that is saturated or unsaturated, and branched or unbranched, wherein each fatty acid chain residue is unsubstituted x is, independently for each occurrence, an integer selected from 0 to 10; y is, independently for each occurrence, an integer selected from 0 to 10; n is an integer selected from 0 to 20; R 1 is an optionally substituted C 1 to C 22 alkyl that is saturated or unsaturated, and branched or unbranched; and R 2 is an optionally substituted C 1 to C 22 alkyl that is saturated or unsaturated, and branched or unbranched, wherein each fatty acid chain residue is unsubstituted (ii) at least 40% by weight of at least one non-estolide base oil; (iii) at least one metal sulfonate detergent; and (iv) at least one antioxidant, wherein the composition exhibits a wear rating 60 μm or less, and a viscosity increase of 150% or less at 40°C, when tested according to ASTM Method 7320, wherein the estolide base oil has an iodine value of less than 10cg/g, and wherein the composition has a bio-based content of at least 25% by weight when tested according to ASTM Method D6866.
A low-formaldehyde containing dispersion of a vinyl ester/ethylene copolymer containing copolymerized carboxylic acid groups or salts thereof blended with a wet strength polyamidoamine-epichlorohydrin resin; wherein: a) the vinyl ester/ethylene copolymer dispersion is free of reactive N-methylol acrylamide groups; b) the PAE comprises less than 800 ppm halogenated organic compounds; c) the weight ratio of the solid particles of the vinyl ester/ethylene copolymer to the solid particles in the aqueous emulsion of the PAE resin is from 95:5 to 20:80; and d) the pH is greater than 6, preferably greater than 7, more preferably greater than 7.5. a) the vinyl ester/ethylene copolymer dispersion is free of reactive N-methylol acrylamide groups; b) the PAE comprises less than 800 ppm halogenated organic compounds; c) the weight ratio of the solid particles of the vinyl ester/ethylene copolymer to the solid particles in the aqueous emulsion of the PAE resin is from 95:5 to 20:80; and d) the pH is greater than 6, preferably greater than 7, more preferably greater than 7.5.
A control system for a gas turbine engine including a power turbine, the control system comprising: an outer loop control module configured to output a current power turbine torque request (Qpt_req), the outer loop control module comprising: a feedback control component configured to provide regulation of the power turbine, wherein the feedback control component comprises a Proportional Integral control component, the Proportional Integral control component including an integrator operative to produce an integral control signal (U_int); a feed-forward component configured to anticipate a load on the power turbine; and a hybrid control component; and an inner loop control module configured to receive the current power turbine torque request (Qpt_req) from the outer loop control module, to determine fuel flow and inlet guide vane schedules based at least in part on the received current power turbine torque request (Qpt_req), and to send signals to a gas generator of the gas turbine engine in order to control the gas generator according to the determined fuel flow and inlet guide vane schedules; wherein the control system is characterised in that the hybrid control component is configured to cause the integrator to switch to a decay dynamic if the previously determined power turbine torque request (Qpt_req) deviates more than a predetermined amount from the currently delivered torque of the power turbine. an outer loop control module configured to output a current power turbine torque request (Qpt_req), the outer loop control module comprising: a feedback control component configured to provide regulation of the power turbine, wherein the feedback control component comprises a Proportional Integral control component, the Proportional Integral control component including an integrator operative to produce an integral control signal (U_int); a feed-forward component configured to anticipate a load on the power turbine; and a hybrid control component; and a feedback control component configured to provide regulation of the power turbine, wherein the feedback control component comprises a Proportional Integral control component, the Proportional Integral control component including an integrator operative to produce an integral control signal (U_int); a feed-forward component configured to anticipate a load on the power turbine; and a hybrid control component; and an inner loop control module configured to receive the current power turbine torque request (Qpt_req) from the outer loop control module, to determine fuel flow and inlet guide vane schedules based at least in part on the received current power turbine torque request (Qpt_req), and to send signals to a gas generator of the gas turbine engine in order to control the gas generator according to the determined fuel flow and inlet guide vane schedules; wherein the control system is characterised in that the hybrid control component is configured to cause the integrator to switch to a decay dynamic if the previously determined power turbine torque request (Qpt_req) deviates more than a predetermined amount from the currently delivered torque of the power turbine.
A photomultiplier tube comprising: a first substrate and a second substrate which are arranged so as to oppose each other, with the respective opposing surfaces made with an insulating material; a side wall part which constitutes a casing together with the first and the second substrates; a plurality of stages of electron multiplying parts which are arrayed so as to be spaced away sequentially from a first end side to a second end side on the opposing surface of the first substrate; a photocathode which is installed on the first end side so as to be spaced away from the electron multiplying parts, converting incident light from outside to photoelectrons to emit the photoelectrons; and an anode part which is installed on the second end side so as to be spaced away from the electron multiplying parts to take out electrons multiplied by the electron multiplying parts as a signal; characterized in that a wall-like electrode which is arranged so as to enclose the photocathode when viewed from a direction directly opposite to the opposing surface, extending so as to run along an inner wall of the side wall part from the photocathode, and having a notched part at a site opposing the electron multiplying parts on the second end side, and electrically connected to the photocathode. a first substrate and a second substrate which are arranged so as to oppose each other, with the respective opposing surfaces made with an insulating material; a side wall part which constitutes a casing together with the first and the second substrates; a plurality of stages of electron multiplying parts which are arrayed so as to be spaced away sequentially from a first end side to a second end side on the opposing surface of the first substrate; a photocathode which is installed on the first end side so as to be spaced away from the electron multiplying parts, converting incident light from outside to photoelectrons to emit the photoelectrons; and an anode part which is installed on the second end side so as to be spaced away from the electron multiplying parts to take out electrons multiplied by the electron multiplying parts as a signal; characterized in that a wall-like electrode which is arranged so as to enclose the photocathode when viewed from a direction directly opposite to the opposing surface, extending so as to run along an inner wall of the side wall part from the photocathode, and having a notched part at a site opposing the electron multiplying parts on the second end side, and electrically connected to the photocathode.
Image processing apparatus comprising: an image sensor input for connecting an image sensor; a display output for connecting display means; a memory output for connecting a read-only memory; and a graphics processor configured to insert first overlapping image data (110a, 110b) into image data that can be obtained via the image sensor input to generate a first processed data stream, and to insert second overlapping image data differing from the first overlapping image data (110a, 110b) into the image data to obtain a second processed data stream, and to direct the first processed data stream to the memory output and to direct the second processed data stream to the display output, wherein the graphics processor is configured to generate the first processed data stream and a duplicate of the first processed data stream; wherein the graphics processor is configured to compress the first processed data stream and to direct the same to the memory output; wherein the graphics processor is configured to insert the second overlapping image data into the non-compressed duplicate of the first processed data stream to generate the second processed data stream; and wherein the graphics processor is configured to direct the second processed data stream to the display output. an image sensor input for connecting an image sensor; a display output for connecting display means; a memory output for connecting a read-only memory; and a graphics processor configured to insert first overlapping image data (110a, 110b) into image data that can be obtained via the image sensor input to generate a first processed data stream, and to insert second overlapping image data differing from the first overlapping image data (110a, 110b) into the image data to obtain a second processed data stream, and to direct the first processed data stream to the memory output and to direct the second processed data stream to the display output, wherein the graphics processor is configured to generate the first processed data stream and a duplicate of the first processed data stream; wherein the graphics processor is configured to compress the first processed data stream and to direct the same to the memory output; wherein the graphics processor is configured to insert the second overlapping image data into the non-compressed duplicate of the first processed data stream to generate the second processed data stream; and wherein the graphics processor is configured to direct the second processed data stream to the display output.
An assembly as bearing arrangement for the rotational mounting of machine and plant components, comprising nose ring, support ring and retaining ring, in particular of a large rolling bearing serving as the main mounting of a rotor of a wind power installation, and further comprising a plurality of tapered-roller rolling bearing arrangements, particularly at least two tapered-roller rolling element arrangements, which roll circulatingly about the main axis of the rotation about the axial direction, and further comprising at least one rolling bearing arrangement, particularly a cylindrical roller arrangement, that is arranged perpendicularly to said tapered-roller rolling element arrangements and is operative to support radial force components, characterized in that the plurality of tapered-roller rolling bearing arrangements for supporting all axial force components are arranged parallel to one another, and the planes of said tapered-roller rolling element arrangements in which said tapered rolling element arrangements rotate about the axial main axis upon rotational movement of the mounted part do not intersect in practice.
A method for producing conductor fine particles comprising: applying a voltage between a positive electrode and a negative electrode placed in a conductive liquid to generate plasma in the vicinity of the negative electrode; and partially melting a conductive material constituting the negative electrode followed by re-solidifying to produce fine particles, characterized in that the plasma causes a current concentration phenomenon at the negative electrode/conductive liquid interface; a magnetic field is applied in the vicinity of the negative electrode to accelerate the occurrence of the current concentration phenomenon; and the partial melting of the conductive material is caused by the current concentration phenomenon. applying a voltage between a positive electrode and a negative electrode placed in a conductive liquid to generate plasma in the vicinity of the negative electrode; and partially melting a conductive material constituting the negative electrode followed by re-solidifying to produce fine particles, the plasma causes a current concentration phenomenon at the negative electrode/conductive liquid interface; a magnetic field is applied in the vicinity of the negative electrode to accelerate the occurrence of the current concentration phenomenon; and the partial melting of the conductive material is caused by the current concentration phenomenon.
Method for coating a flexible substrate which is guided via a process roll, where the flexible substrate has a first protective film, which is removed from the flexible substrate before the flexible substrate enters the coating zone of a coating facility opposite the process roll, where the first protective film is removed from the flexible substrate by means of a guide roll and a second protective film is applied to the coated side of the flexible substrate after the flexible substrate has left the coating zone of the coating facility, characterized in that a) the first protective film is removed from the flexible substrate by means of the guide roll after the flexible substrate has made mechanical contact with the surface of the process roll, b) the guide roll is at a distance with a measurement of 0.5 mm to 5 mm from the process roll, c) the free-swinging distance of the protective film removed from the substrate, between the process roll and the guide roll, is designed with a length of 5 mm to 50 mm, d) the second protective film is applied to the coated side of the flexible substrate before the mechanical contact between process roll and flexible substrate is ended. a) the first protective film is removed from the flexible substrate by means of the guide roll after the flexible substrate has made mechanical contact with the surface of the process roll, b) the guide roll is at a distance with a measurement of 0.5 mm to 5 mm from the process roll, c) the free-swinging distance of the protective film removed from the substrate, between the process roll and the guide roll, is designed with a length of 5 mm to 50 mm, d) the second protective film is applied to the coated side of the flexible substrate before the mechanical contact between process roll and flexible substrate is ended.
A system for determining an apparent skin age of a person, comprising: a non-transitory computer readable storage medium with logic stored thereon, wherein the logic causes the system to a) receive a digital image comprising a human face; b) process the digital image for analysis, wherein processing comprises locating the human face in the digital image and masking at least one macro feature present on the face, wherein masking comprises replacing pixels in the facial macro feature with pixels that have a uniform, non-zero, non-255 RGB value; c) analyze the processed image using a convolutional neural network, wherein the analysis includes identifying at least one pixel disposed in a facial micro feature that is indicative of the person's skin age; d) determine an apparent skin age of the person based on the analysis by the CNN; and e) display the apparent skin age on a display device visible to the user. a) receive a digital image comprising a human face; b) process the digital image for analysis, wherein processing comprises locating the human face in the digital image and masking at least one macro feature present on the face, wherein masking comprises replacing pixels in the facial macro feature with pixels that have a uniform, non-zero, non-255 RGB value; c) analyze the processed image using a convolutional neural network, wherein the analysis includes identifying at least one pixel disposed in a facial micro feature that is indicative of the person's skin age; d) determine an apparent skin age of the person based on the analysis by the CNN; and e) display the apparent skin age on a display device visible to the user.
A drainage chamber for storage and infiltration or retention or filtration of surface water with at least one drainage chamber body, wherein the drainage chamber body is put together from a number of supporting elements which are connected to one another by further elements, wherein each supporting element is a frame element which is made up of profiles (2, 3) connected to one another, wherein they comprise at least one cover element, which is supported against a section of the drainage chamber body, wherein the cover element is a grid or support plate, characterised in that the profiles (2, 3) and the grid or support plate are made from a metallic material, plastic, or concrete, wherein the frame elements are arranged in a vertical plane, and are connected to one another by the further elements, which are arranged horizontally, wherein the distance between adjacent frame elements may vary, and wherein the number of vertical profiles within one frame element is freely selectable, in order to be able to absorb the occurring loads.
Electric motor, in particular fan motor, having an apparatus for generating a signal sequence, wherein the signal sequence comprises a multiplicity of signal blocks and the signal blocks comprise a multiplicity of signals with a signal duration, wherein each signal block comprises a first and a second signal group, wherein the signal duration of the individual signals varies, characterized in that the apparatus is configured in such a manner that the signal durations of the signals in the second signal group are calculated on the basis of the total duration of the signals in the first signal group or are determined using a table, and is also configured in such a manner that the signal durations of the signals in the second signal group are calculated or determined in such a manner that a defined duration of a signal block and the sum of the signal durations of all signals in a signal block are substantially the same.