mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method of combining at least a first anatomical image dataset of a subject and a second anatomical image dataset of the same subject into one combined image dataset comprising: a) providing a first calibration image dataset of a first examination volume of the subject having at least two slices , b) providing the first anatomical image dataset of the first examination volume of the subject , c) providing a second calibration image dataset of a second examination volume of the subject having at least two slices , d) providing the second anatomical image dataset of the second examination volume of the subject , e) wherein the calibration image datasets are shifted one against each other in one imaging direction (kz), characterized in that f) a frequency distribution is calculated for a parameter of at least one slice of each calibration image dataset , and at least one correction factor (cf1-2, cf2-3) for correcting signal intensities of at least one anatomical image dataset is calculated using the frequency distributions , g) generating a corrected second anatomical image dataset by adjusting the signal intensities of at least a region of the second anatomical image dataset using the correction factor (cf1-2, cf2-3), and h) combining the first anatomical dataset and the corrected second anatomical image dataset to a combined image dataset wherein a table supporting the subject has different positions during the acquisition of the calibration image datasets and the respective anatomical image datasets . a) providing a first calibration image dataset of a first examination volume of the subject having at least two slices , b) providing the first anatomical image dataset of the first examination volume of the subject , c) providing a second calibration image dataset of a second examination volume of the subject having at least two slices , d) providing the second anatomical image dataset of the second examination volume of the subject , e) wherein the calibration image datasets are shifted one against each other in one imaging direction (kz), characterized in that f) a frequency distribution is calculated for a parameter of at least one slice of each calibration image dataset , and at least one correction factor (cf1-2, cf2-3) for correcting signal intensities of at least one anatomical image dataset is calculated using the frequency distributions , g) generating a corrected second anatomical image dataset by adjusting the signal intensities of at least a region of the second anatomical image dataset using the correction factor (cf1-2, cf2-3), and h) combining the first anatomical dataset and the corrected second anatomical image dataset to a combined image dataset
A compound having formula I: or a pharmaceutically acceptable salt thereof; wherein: R 1 is hydrogen, NO 2 , SO 3 H, NH 2 , C 1-8 alkyl, or halogen, and R 2 is hydrogen, NO 2 , SO 3 H, NH 2 , C 1-8 alkyl, or halogen, for its use as a medicament and particularly for its use in the treatment of a disease or a condition selected from the group consisting of acromegaly, disorders caused by chemotherapy or other therapies involving toxins that damage normal cells, cancer, diabetes, immunodepression, immunosuppression, immunosenescence, immunodeficiency, Alzheimer's disease. R 1 is hydrogen, NO 2 , SO 3 H, NH 2 , C 1-8 alkyl, or halogen, and R 2 is hydrogen, NO 2 , SO 3 H, NH 2 , C 1-8 alkyl, or halogen, for its use as a medicament and particularly for its use in the treatment of a disease or a condition selected from the group consisting of acromegaly, disorders caused by chemotherapy or other therapies involving toxins that damage normal cells, cancer, diabetes, immunodepression, immunosuppression, immunosenescence, immunodeficiency, Alzheimer's disease.
A method for manufacturing a sulfur-carbon composite comprising the steps of: (a) drying a porous carbon material at a temperature of 100°C to 150°C for 6 hours to 36 hours, (b) adding sulfur to the dried porous carbon material, the weight ratio of the sulfur and the porous carbon material being 9:1 to 5:5, and mixing the result by a ball milling process conducted at 100 rpm to 500 rpm for 30 minutes to 5 hours, and (c) heating the mixed material at a temperature of 130°C to 170°C, wherein sulfur of Rosickyite phase is contained in the resulting sulfur-carbon composite in an amount of more than 0 wt% to less than 10 wt%. (a) drying a porous carbon material at a temperature of 100°C to 150°C for 6 hours to 36 hours, (b) adding sulfur to the dried porous carbon material, the weight ratio of the sulfur and the porous carbon material being 9:1 to 5:5, and mixing the result by a ball milling process conducted at 100 rpm to 500 rpm for 30 minutes to 5 hours, and (c) heating the mixed material at a temperature of 130°C to 170°C,
A system for treating a condition within a nasal cavity of a patient, the system comprising: a treatment device comprising a shaft and a multi-segment end effector extending from the shaft and for delivering energy to one or more target sites within the nasal cavity of the patient, the multi-segment end effector comprising a first segment and a separate second segment longitudinally spaced apart from the first segment , wherein each of the first and second segments is transformable between a retracted configuration and an expanded deployed configuration, and each of the first and second segments comprises a plurality of electrodes ; and a controller operably associated with the treatment device and configured to: receive data from the treatment device associated at least with presence and/or a depth/location of neural tissue at a position of each of the plurality of electrodes within the nasal cavity; and process the data to determine a level of energy to be delivered by each of the plurality of electrodes such that the energy delivered at each position by each of the plurality of electrodes is sufficient to modulate/ablate the neural tissue at each position and minimize and/or prevent damage to an artery or arterial wall adjacent to the neural tissue at each position. a treatment device comprising a shaft and a multi-segment end effector extending from the shaft and for delivering energy to one or more target sites within the nasal cavity of the patient, the multi-segment end effector comprising a first segment and a separate second segment longitudinally spaced apart from the first segment , wherein each of the first and second segments is transformable between a retracted configuration and an expanded deployed configuration, and each of the first and second segments comprises a plurality of electrodes ; and a controller operably associated with the treatment device and configured to: receive data from the treatment device associated at least with presence and/or a depth/location of neural tissue at a position of each of the plurality of electrodes within the nasal cavity; and process the data to determine a level of energy to be delivered by each of the plurality of electrodes such that the energy delivered at each position by each of the plurality of electrodes is sufficient to modulate/ablate the neural tissue at each position and minimize and/or prevent damage to an artery or arterial wall adjacent to the neural tissue at each position. receive data from the treatment device associated at least with presence and/or a depth/location of neural tissue at a position of each of the plurality of electrodes within the nasal cavity; and process the data to determine a level of energy to be delivered by each of the plurality of electrodes such that the energy delivered at each position by each of the plurality of electrodes is sufficient to modulate/ablate the neural tissue at each position and minimize and/or prevent damage to an artery or arterial wall adjacent to the neural tissue at each position.
An electric pulse tool comprising: an electric motor drivingly connected to a cylinder shaped fly wheel enclosing a drive element and a compression spring ; an output shaft ; whereby the electric pulse tool is operative to oscillate the flywheel between a first and a second direction, wherein the fly wheel is arranged to drive the drive element in the first direction to provide a torque pulse on the output shaft in the first direction, whereby the drive element compresses the compression spring , via a first and a second cam surfaces , wherein the drive element is arranged to drive the fly wheel in the second direction, when the compression spring is decompressed and forces the drive element to rotate in the second direction. an electric motor drivingly connected to a cylinder shaped fly wheel enclosing a drive element and a compression spring ; an output shaft ; whereby the electric pulse tool is operative to oscillate the flywheel between a first and a second direction, wherein the fly wheel is arranged to drive the drive element in the first direction to provide a torque pulse on the output shaft in the first direction, whereby the drive element compresses the compression spring , via a first and a second cam surfaces , wherein the drive element is arranged to drive the fly wheel in the second direction, when the compression spring is decompressed and forces the drive element to rotate in the second direction.
Mechanical automotive vacuum pump with a housing arrangement enclosing a pumping chamber and rotatably supporting a pump rotor with a rotor body with a bearing section and a chamber section , wherein the rotor body is at the chamber section provided with a radial vane slit wherein a radially shiftable pump vane is supported and is at the bearing section provided with a cylindrical bearing surface which defines together with a cylindrical bearing surface of the housing arrangement a friction bearing , the rotor body bearing section is provided with a circular lubrication ring groove and the housing bearing surface is provided with a corresponding lubrication inlet opening lying in the same transversal plane as the circular lubrication ring groove and opposite to the circular lubrication ring groove , and the lubrication inlet opening is directly connected to a lubricant pump connector at the housing arrangement of the vacuum pump , characterized in that the circular lubrication ring groove is fluidically connected to the radial vane slit by a connection channel for fluidically connecting the circular lubrication ring groove and the radial vane slit , and the connection channel is an axial connection groove at the rotor body .
Method for the production of a press pad having the following method steps: a) By means of an extruder an elastomeric material is formed around a core thread . b) The elastomeric material is cross-linked, whereby the core thread and the elastomeric material together form a high temperature-resistant elastomeric thread . c) A multiplicity of elastomeric threads are processed with a multiplicity of heat-conducting threads in a weaving process to form the press pad, wherein either the elastomeric threads are arranged in the warp direction and the heat-conducting threads are arranged in the weft direction, or the elastomeric threads are arranged in the weft direction and the heat-conducting threads are arranged in the warp direction, characterised by , the following method steps: d) Before the cross-linking of the elastomeric material, at least one contact thread is pressed into a surface of the elastomeric material, wherein a part of a surface of the contact thread remains free. e) By means of the cross-linking, the at least one contact thread is anchored in the elastomeric material. a) By means of an extruder an elastomeric material is formed around a core thread . b) The elastomeric material is cross-linked, whereby the core thread and the elastomeric material together form a high temperature-resistant elastomeric thread . c) A multiplicity of elastomeric threads are processed with a multiplicity of heat-conducting threads in a weaving process to form the press pad, wherein either the elastomeric threads are arranged in the warp direction and the heat-conducting threads are arranged in the weft direction, or the elastomeric threads are arranged in the weft direction and the heat-conducting threads are arranged in the warp direction, d) Before the cross-linking of the elastomeric material, at least one contact thread is pressed into a surface of the elastomeric material, wherein a part of a surface of the contact thread remains free. e) By means of the cross-linking, the at least one contact thread is anchored in the elastomeric material.
Print head for a 3D printer, in particular a metal printer, comprising a housing , a device for supplying a metal , a piston , a reservoir having an outlet opening , and an actuator device for driving the piston , the reservoir comprising a melting region and a displacement space for a liquid phase of the metal , the melting region being adjacent to an inert atmosphere and connected to the displacement space in such a way that the liquid phase of the metal can be made to pass through the outlet opening by driving the piston , wherein the housing is configured in a plurality of parts and it comprises at least a cooling flange , an insulating plate and the reservoir , the reservoir being connected to the cooling flange and/or the insulating plate by a centering device , characterized in that the centering device comprises at least a flange , a clamping device and a centering sleeve , the reservoir being connected to the flange via an active surface , in such a way that the reservoir is aligned concentrically with respect to the cooling flange and/or the insulating plate , the flange being connected to the cooling flange and/or the insulating plate via the clamping device , the centering sleeve being arranged in the cooling flange and/or the insulating plate in such a way that the piston is aligned centrally with respect to the reservoir . the reservoir being connected to the cooling flange and/or the insulating plate by a centering device , characterized in that the centering device comprises at least a flange , a clamping device and a centering sleeve , the reservoir being connected to the flange via an active surface , in such a way that the reservoir is aligned concentrically with respect to the cooling flange and/or the insulating plate , the flange being connected to the cooling flange and/or the insulating plate via the clamping device , the centering sleeve being arranged in the cooling flange and/or the insulating plate in such a way that the piston is aligned centrally with respect to the reservoir .
A pneumatic tire comprising: a pair of bead cores ; a carcass ply comprising a main body positioned between the bead cores and a turn-up portion connected to the main body and formed by turning up around each bead core from inside to outside in a tire width direction (A); a cover rubber covering the main body of the carcass ply and an outer side of the turn-up portion in the tire width direction and configuring a tire outer surface; and a reinforcement layer located inward from the tire outer surface of the cover rubber and covering an outer side, in the tire width direction, of at least a portion of the turn-up portion of the carcass ply, wherein the reinforcement layer is configured by a non-woven fabric formed from metal fibers ; wherein in a tire widthwise cross-sectional view, at least a portion of the reinforcement layer is located in a region (RA), in a tire radial direction, that is from 5% to 30% of a tire section height from an inner edge of the bead core in the tire radial direction outward in the tire radial direction; wherein in the tire widthwise cross-sectional view, the reinforcement layer extends from a position farther outward, in the tire radial direction, than an outer edge of the bead core in the tire radial direction to a position farther inward; and wherein in the tire widthwise cross-sectional view, the reinforcement layer is turned up around the bead core from an outer side towards an inner side in the tire width direction. a pair of bead cores ; a carcass ply comprising a main body positioned between the bead cores and a turn-up portion connected to the main body and formed by turning up around each bead core from inside to outside in a tire width direction (A); a cover rubber covering the main body of the carcass ply and an outer side of the turn-up portion in the tire width direction and configuring a tire outer surface; and a reinforcement layer located inward from the tire outer surface of the cover rubber and covering an outer side, in the tire width direction, of at least a portion of the turn-up portion of the carcass ply, wherein the reinforcement layer is configured by a non-woven fabric formed from metal fibers ; wherein in a tire widthwise cross-sectional view, at least a portion of the reinforcement layer is located in a region (RA), in a tire radial direction, that is from 5% to 30% of a tire section height from an inner edge of the bead core in the tire radial direction outward in the tire radial direction; wherein in the tire widthwise cross-sectional view, the reinforcement layer extends from a position farther outward, in the tire radial direction, than an outer edge of the bead core in the tire radial direction to a position farther inward; and wherein in the tire widthwise cross-sectional view, the reinforcement layer is turned up around the bead core from an outer side towards an inner side in the tire width direction.
A measurement system comprising : - at least one signal probing hardware circuit configured to provide probed signals resulting from probing at a port of a device under test, DUT, while allowing a signal to flow towards said DUT or while arranged to provide a termination to said DUT, one or more of voltage and current or incident and reflected wave, characterized by - a multi-channel receiver structure comprising a plurality of receivers , configured to receive two probed signals coming from at least one of said signal probing hardware circuits, each of the plurality of receivers comprising a respective digitizer for digitizing a corresponding one of the two probed signals, the respective digitizer having its own sample clock derived from a master clock, - a synchronization block external to the plurality of receivers and comprising a reference clock derived from the master clock, the synchronization block configured to enable the two probed signals to be phase coherently digitized across the plurality of receivers by synchronizing the respective sample clocks of the plurality of receivers while the reference clock is being shared with the plurality of receivers, - a signal processing circuit configured to process the phase coherently digitized probed signals. - at least one signal probing hardware circuit configured to provide probed signals resulting from probing at a port of a device under test, DUT, while allowing a signal to flow towards said DUT or while arranged to provide a termination to said DUT, one or more of voltage and current or incident and reflected wave, characterized by - a multi-channel receiver structure comprising a plurality of receivers , configured to receive two probed signals coming from at least one of said signal probing hardware circuits, each of the plurality of receivers comprising a respective digitizer for digitizing a corresponding one of the two probed signals, the respective digitizer having its own sample clock derived from a master clock, - a synchronization block external to the plurality of receivers and comprising a reference clock derived from the master clock, the synchronization block configured to enable the two probed signals to be phase coherently digitized across the plurality of receivers by synchronizing the respective sample clocks of the plurality of receivers while the reference clock is being shared with the plurality of receivers, - a signal processing circuit configured to process the phase coherently digitized probed signals.
Electrically conductive nonwoven comprising a raw nonwoven having a first electrical conductivity, wherein the raw nonwoven comprises electrically conductive particles having a second electrical conductivity, and wherein the second electrical conductivity is higher than the first electrical conductivity, characterized in that the particles have a size of from 3 μm to 8 μm, in that the raw nonwoven comprises fibres having a fibre thickness of from 4 μm to 10 μm, and in that the nonwoven has an electrical resistance ≤ 10 Ω during its intended use.
Guiding device for a workpiece , in particular a profile from a wooden material, which is movable along a conveying direction on a processing machine , in particular a woodworking machine, wherein the guiding device guides the workpiece along a conveying direction and is configured so as to be adjustable for height and width, and has guiding means which are configured so as to be movable relative to one another as well as transversely to the conveying direction so as to be capable of mutually engaging and overlapping, wherein - the guiding device has one or a plurality of relatively stationary vertical and/or lateral guiding means and one or a plurality of vertical and lateral guiding means which are actuatable transversely to the conveying direction ; - wherein the actuatable vertical and lateral guiding means are configured so as to be capable of mutually engaging and overlapping transversely to the conveying direction ; - wherein the actuatable vertical and lateral guiding means and the relatively stationary vertical and/or lateral guiding means have in each case a plurality of guiding elements which are disposed at a mutual spacing in one row along the conveying direction and are in each case configured as a rotatable roller. - the guiding device has one or a plurality of relatively stationary vertical and/or lateral guiding means and one or a plurality of vertical and lateral guiding means which are actuatable transversely to the conveying direction ; - wherein the actuatable vertical and lateral guiding means are configured so as to be capable of mutually engaging and overlapping transversely to the conveying direction ; - wherein the actuatable vertical and lateral guiding means and the relatively stationary vertical and/or lateral guiding means have in each case a plurality of guiding elements which are disposed at a mutual spacing in one row along the conveying direction and are in each case configured as a rotatable roller.
A powder for solid freeform fabrication comprising: a first resin particle; and a second resin particle, wherein a mass ratio of the first resin particle to the second resin particle is from 4:6 to 9.8:0.2 in the powder, wherein MFR2 is greater than MFR1 and a ratio of MFR2 to MFR1 is from 2 to 5, where MFR1 represents a melt mass-flow rate (MFR) of the first resin particle and MFR2 represents a melt mass-flow rate of the second resin particle, wherein MFR is measured according to JIS 7210 format, wherein the first resin particle and the second resin particle are of the same kind of resin, wherein the volume average particle diameter of the first resin particle and the volume average particle diameter of the second resin particle are from 5 to 200 μm. a first resin particle; and a second resin particle, wherein a mass ratio of the first resin particle to the second resin particle is from 4:6 to 9.8:0.2 in the powder, wherein MFR2 is greater than MFR1 and a ratio of MFR2 to MFR1 is from 2 to 5, where MFR1 represents a melt mass-flow rate (MFR) of the first resin particle and MFR2 represents a melt mass-flow rate of the second resin particle, wherein MFR is measured according to JIS 7210 format, wherein the first resin particle and the second resin particle are of the same kind of resin, wherein the volume average particle diameter of the first resin particle and the volume average particle diameter of the second resin particle are from 5 to 200 μm.