mhurhangee/ep-ind-claims huggingface dataset:
A sampling head for an NMR apparatus, which comprises an RF transmission and reception coil system and an opening extending in a z direction for receiving a sample tube containing a sample substance to be analyzed by means of NMR measurement, a compensation element (5; 5'; 5"; 5′′′) being present which at least partially compensates for disturbances of the homogeneous magnetic field B 0 due to the sample substance and the material of the sample tube at the end of the sample tube protruding farthest into the sampling head (1; 1') during the measuring operation, the compensation element (5; 5'; 5"; 5′′′) being arranged outside the sample tube protruding into the sampling head (1; 1') while the NMR apparatus is in measuring operation and in the z direction below the sampling end, and wherein the compensation element (5; 5"; 5′′′) is movably mounted in the z direction, characterized in that the compensation element (5; 5"; 5′′′) is mounted on a spring device acting in the direction of the z axis, or that the compensation element (5; 5"; 5′′′) is movably mounted in the z direction on an air cushion and that the air cushion on which the compensation element (5; 5"; 5′′′) is mounted is formed by a flow of temperature control gas in the sampling head. and wherein the compensation element (5; 5"; 5′′′) is movably mounted in the z direction, characterized in that the compensation element (5; 5"; 5′′′) is mounted on a spring device acting in the direction of the z axis, or that the compensation element (5; 5"; 5′′′) is movably mounted in the z direction on an air cushion and that the air cushion on which the compensation element (5; 5"; 5′′′) is mounted is formed by a flow of temperature control gas in the sampling head.
A multi-functional cargo transferring vehicle, comprising a vehicle body, a cargo conveying rack, a lifting mechanism, and a control system, wherein the vehicle body is located below for providing a platform and support; the cargo conveying rack is located above the vehicle body and comprises a plurality of layers for loading and unloading cargo; the lifting mechanism is used for lifting the cargo conveying rack; the control system is located on the vehicle body for controlling automatic loading and unloading of the cargo, omni-directional driving, and accurate butt joint of the multi-functional cargo transferring vehicle; the cargo conveying rack comprises a bracket, an apron board, a motor, a driving shaft, and a guide wheel; a motor, a driving shaft, and a guide wheel are mounted inside the bracket, and the driving shaft drives the guide wheel to rotate under an action of the motor to guide the cargo to move; a bottom of the bracket is connected with the lifting mechanism, and vertical and horizontal movement of the bracket is realized under driving of the lifting mechanism; characterized in that: the apron board is mounted in front, rear, left, and right directions of the bracket for preventing the cargo from falling off, and a front apron board is movably connected such that when the cargo enters and exits the bracket, the front apron board is changed from a vertical state to a horizontal state, thereby facilitating cargo loading and unloading, and wherein the bracket is respectively provided with a left side bracket, a middle bracket, and a right side bracket along three directions of left, middle, and right of the vehicle; the motor is a control motor and comprises a stepping motor, a servo motor, and a variable frequency motor, and is used for realizing programming control of a movement state; the driving shaft is connected with the motor through a speed reducer and is connected with the guide wheel through a key; the guide wheel is of a circular truncated cone structure with two small ends and a large middle, and a surface thereof is provided with an anti-slip stripe.
A pharmaceutical composition comprising a cell-penetrating anti-DNA antibody for use in a method of treating a neoplastic disease or viral infection in a subject, wherein the cell-penetrating anti-DNA antibody is monoclonal antibody 3E10, produced by ATCC Accession No. PTA 2439 hybridoma or a humanized form thereof, wherein the cell-penetrating anti-DNA antibody does not have a therapeutic agent attached thereto.
A backlight module, comprising: a light source module and a light emergent module, wherein the light source module comprises a transparent block, a light source and a first grating group; the light emergent module comprises: a light guide plate and a second grating group; wherein the first grating group and the light source are attached to surfaces of the transparent block and the first grating group is opposite to the light source; the light guide plate is provided with a light emergent surface and a backlight surface that are oppositely disposed and parallel to each other, and a side surface perpendicular to the backlight surface; the light source module is attached to the side surface of the light guide plate; and the second grating group is attached to at least one of the backlight surface and the light emergent surface; the light source emits initial lights to the first grating group; the first grating group diffracts the initial lights to obtain first diffracted lights, and controls the first diffracted lights to be totally reflected in the light guide plate and transmitted to the second grating group; the second grating group diffracts the first diffracted lights to obtain second diffracted lights, and controls the second diffracted lights to be emergent from the backlight module; wherein when an included angle between the initial lights and the side surface is greater than zero degree, an included angle between the second diffracted lights and the side surface is smaller than the included angle between the initial lights and the side surface. wherein the first grating group and the light source are attached to surfaces of the transparent block and the first grating group is opposite to the light source; the light guide plate is provided with a light emergent surface and a backlight surface that are oppositely disposed and parallel to each other, and a side surface perpendicular to the backlight surface; the light source module is attached to the side surface of the light guide plate; and the second grating group is attached to at least one of the backlight surface and the light emergent surface; the light source emits initial lights to the first grating group; the first grating group diffracts the initial lights to obtain first diffracted lights, and controls the first diffracted lights to be totally reflected in the light guide plate and transmitted to the second grating group; the second grating group diffracts the first diffracted lights to obtain second diffracted lights, and controls the second diffracted lights to be emergent from the backlight module; wherein when an included angle between the initial lights and the side surface is greater than zero degree, an included angle between the second diffracted lights and the side surface is smaller than the included angle between the initial lights and the side surface.
A steering device comprising: a column housing encapsulating a steering shaft related to steering of a vehicle, being supported by a pivotal support portion of the vehicle, and enabling a posture change; a bracket being located adjacent to the column housing at a position different from that of the pivotal support portion on a side of the vehicle; and a tensioner mechanism that is provided between the column housing and the bracket, and produces press force against the column housing and the bracket, wherein the tensioner mechanism includes a casing being provided in the column housing or the bracket, a tensioner main body being provided in the casing, and being movable in a direction intersecting a facing direction of the column housing and the bracket, and a biasing member biasing the tensioner main body in the intersecting direction, and the tensioner main body includes a first surface facing toward the column housing, and a second surface facing toward the bracket, and the first surface and the second surface are configured to be in a tapered shape in which a space therebetween is narrower as being positioned closer to a lower side of a biasing direction by the biasing member, characterized in that a lock portion and a locked portion that engage with each other in a state where the tensioner main body is moved in a direction opposite to the biasing direction are allocated to and formed in the tensioner main body and the casing. a column housing encapsulating a steering shaft related to steering of a vehicle, being supported by a pivotal support portion of the vehicle, and enabling a posture change; a bracket being located adjacent to the column housing at a position different from that of the pivotal support portion on a side of the vehicle; and a tensioner mechanism that is provided between the column housing and the bracket, and produces press force against the column housing and the bracket, wherein the tensioner mechanism includes a casing being provided in the column housing or the bracket, a tensioner main body being provided in the casing, and being movable in a direction intersecting a facing direction of the column housing and the bracket, and a biasing member biasing the tensioner main body in the intersecting direction, and the tensioner main body includes a first surface facing toward the column housing, and a second surface facing toward the bracket, and the first surface and the second surface are configured to be in a tapered shape in which a space therebetween is narrower as being positioned closer to a lower side of a biasing direction by the biasing member, characterized in that a lock portion and a locked portion that engage with each other in a state where the tensioner main body is moved in a direction opposite to the biasing direction are allocated to and formed in the tensioner main body and the casing.
A low refractive layer satisfying the following formula 1: 30 % ≥ Δ S = S 0 − S 1 / S 0 × 100 in the formula 1, S 0 is the maximum load that scratches are not generated, when rubbing the surface of the low refractive layer while applying a load to a grade #0000 steel wool and reciprocating ten times at a speed of 24 rpm; and S 1 is the maximum load that scratches are not generated, as measured in the same manner as a method of measuring So as to the film prepared by immersing the low refractive layer for 2 minutes in 10 wt% sodium hydroxide aqueous solution heated to 30°C, washing the immersed layer with water, wiping moisture off, followed by immersing the wiped layer for 30 seconds in 10 wt% sodium hydroxide aqueous solution heated to 55°C, and then washing it with water and wiping moisture off, wherein the low refractive layer includes a photo-cured product obtained by photo-curing a photocurable coating composition, wherein the photocurable coating composition comprises: - a polysilsesquioxane substituted with at least one reactive functional group; - a photopolymerizable compound; - a fluorine-based compound containing -O-CF 2 CF 2 -O-CF 3; - an inorganic particle; and - a photopolymerization initiator. S 0 is the maximum load that scratches are not generated, when rubbing the surface of the low refractive layer while applying a load to a grade #0000 steel wool and reciprocating ten times at a speed of 24 rpm; and S 1 is the maximum load that scratches are not generated, as measured in the same manner as a method of measuring So as to the film prepared by immersing the low refractive layer for 2 minutes in 10 wt% sodium hydroxide aqueous solution heated to 30°C, washing the immersed layer with water, wiping moisture off, followed by immersing the wiped layer for 30 seconds in 10 wt% sodium hydroxide aqueous solution heated to 55°C, and then washing it with water and wiping moisture off, wherein the low refractive layer includes a photo-cured product obtained by photo-curing a photocurable coating composition, wherein the photocurable coating composition comprises: - a polysilsesquioxane substituted with at least one reactive functional group; - a photopolymerizable compound; - a fluorine-based compound containing -O-CF 2 CF 2 -O-CF 3; - an inorganic particle; and - a photopolymerization initiator. - a polysilsesquioxane substituted with at least one reactive functional group; - a photopolymerizable compound; - a fluorine-based compound containing -O-CF 2 CF 2 -O-CF 3; - an inorganic particle; and - a photopolymerization initiator.
A fill sheet for insertion into a counterflow cooling tower, wherein the fill sheet is oriented such that air flows along a plurality of flutes from an intake edge toward an air exit edge and water flows from the air exit edge toward the air intake edge, to cool the water flowing over the sheet, the fill sheet comprising: the air intake edge; the air exit edge positioned opposite the air intake edge; the plurality of flutes extending from the air intake edge toward the air exit edge, an airflow axis extending through the air intake edge and the air exit edge and a lateral axis extending substantially perpendicular to the airflow axis, the plurality of flutes including a first flute section having a first peak, a first inlet end, a first outlet end and defining a first flute vector, the first flute vector being tangent relative to the first peak, and microstructure formed on the plurality of flutes, the microstructure defining a microstructure angle (Δ) of fifteen to forty-five degrees relative to the lateral axis, the microstructure serves to redistribute the water both within and between the plurality of flutes by generating water flow in a direction of micro-corrugations of the microstructure, the microstructure angle (Δ) being independent of the first flute vector, characterized in that the first flute vector constantly changes between the first inlet end and the first outlet end. the air intake edge; the air exit edge positioned opposite the air intake edge; the plurality of flutes extending from the air intake edge toward the air exit edge, an airflow axis extending through the air intake edge and the air exit edge and a lateral axis extending substantially perpendicular to the airflow axis, the plurality of flutes including a first flute section having a first peak, a first inlet end, a first outlet end and defining a first flute vector, the first flute vector being tangent relative to the first peak, and microstructure formed on the plurality of flutes, the microstructure defining a microstructure angle (Δ) of fifteen to forty-five degrees relative to the lateral axis, the microstructure serves to redistribute the water both within and between the plurality of flutes by generating water flow in a direction of micro-corrugations of the microstructure, the microstructure angle (Δ) being independent of the first flute vector, characterized in that the first flute vector constantly changes between the first inlet end and the first outlet end.
A printed circuit board for a capacitive sensor configured to sense position or motion of a shaft comprising an electrically conducting part, characterized in that the printed circuit board comprises a mounting hole configured to receive the electrically conducting part therethrough, at least one capacitor electrode (22, 23, 24) formed to the printed circuit board, wherein an electrode surface of the electrode (22, 23, 24) extends parallel to a center axis of the mounting hole and faces the center axis.
Hydraulic controller for double clutch transmissions of vehicles having an internal combustion engine, in particular of commercial vehicles, which hydraulic controller can be used for actuating and cooling the clutches, having a hydraulic energy source, it being possible for the hydraulic energy source to be driven both by means of the internal combustion engine and by means of an electric machine, and the hydraulic energy source comprising a hydraulic pump which can be driven both by means of the internal combustion engine and by means of the electric machine, characterized in that the hydraulic energy source comprises, as main pump, a hydraulic pump which can be driven by means of the internal combustion engine, and an additional hydraulic pump which can be driven by means of the electric machine and is assigned to the cooling means.
A medical fluid transfer system comprising: a hose assembly having a hose portion coupled to a first closeable connector and a second closeable connector, the first closeable connector configured to couple to a first container and second closeable connector configured to couple to a second container; a peristaltic pump arranged within a housing and being configured to transfer fluid from the first container, through the hose portion, and into the second container; a destination sensor configured to measure a weight of fluid transferred to the second container and to output weight information about the second container, the destination sensor having a housing that is separate from the housing incorporating the peristaltic pump; and a control system being located within the housing incorporating the peristaltic pump and being configured to: receive instructions, wherein the instructions comprise a fluid transfer instruction; operate the peristaltic pump based on the fluid transfer instructions; receive weight information about the weight of the second container from the destination sensor; and operate the peristaltic pump based on the weight information received from the destination sensor. a hose assembly having a hose portion coupled to a first closeable connector and a second closeable connector, the first closeable connector configured to couple to a first container and second closeable connector configured to couple to a second container; a peristaltic pump arranged within a housing and being configured to transfer fluid from the first container, through the hose portion, and into the second container; a destination sensor configured to measure a weight of fluid transferred to the second container and to output weight information about the second container, the destination sensor having a housing that is separate from the housing incorporating the peristaltic pump; and a control system being located within the housing incorporating the peristaltic pump and being configured to: receive instructions, wherein the instructions comprise a fluid transfer instruction; operate the peristaltic pump based on the fluid transfer instructions; receive weight information about the weight of the second container from the destination sensor; and operate the peristaltic pump based on the weight information received from the destination sensor. receive instructions, wherein the instructions comprise a fluid transfer instruction; operate the peristaltic pump based on the fluid transfer instructions; receive weight information about the weight of the second container from the destination sensor; and operate the peristaltic pump based on the weight information received from the destination sensor.
A method of guiding positioning of electrodes for transcranial brain stimulation on a head of a user of the electrodes, the method comprising: capturing, using a camera, one or more head images depicting the head; detecting, in the one or more head images, features of the head; creating, using the detected features of the head, a model of the head of the user; comparing the model of the head of the user to a plurality of predetermined models of heads, wherein each predetermined model of a head comprises information pertaining to positioning of the electrodes for that particular predetermined model of the head; finding a predetermined model of a head from the plurality of predetermined models of heads that has a best fit with the model of the head the user, computing, using the model of the head of the user, intended positions of the electrodes on the head further based on the predetermined model of the head from the plurality of predetermined models of heads; and displaying, on a display, a representation of the electrodes as an overlay on an image of the head of the user. capturing, using a camera, one or more head images depicting the head; detecting, in the one or more head images, features of the head; creating, using the detected features of the head, a model of the head of the user; comparing the model of the head of the user to a plurality of predetermined models of heads, wherein each predetermined model of a head comprises information pertaining to positioning of the electrodes for that particular predetermined model of the head; finding a predetermined model of a head from the plurality of predetermined models of heads that has a best fit with the model of the head the user, computing, using the model of the head of the user, intended positions of the electrodes on the head further based on the predetermined model of the head from the plurality of predetermined models of heads; and displaying, on a display, a representation of the electrodes as an overlay on an image of the head of the user.
An integrated device for fuel supply in an internal combustion engine, which comprises at least: a pressure reducer comprising a reducer body containing valve means for reducing and regulating a pressure of the fuel, a filter comprising a filter body containing a filter element for filtering the fuel, and one or more injectors, each of which comprises an injector body in which valve means are contained for regulating the fluid flow towards a nozzle, characterised in that at least a portion of the reducer body and at least a portion of the filter body and at least a portion of the injector body are made by an internally hollow single body. a pressure reducer comprising a reducer body containing valve means for reducing and regulating a pressure of the fuel, a filter comprising a filter body containing a filter element for filtering the fuel, and one or more injectors, each of which comprises an injector body in which valve means are contained for regulating the fluid flow towards a nozzle, characterised in that at least a portion of the reducer body and at least a portion of the filter body and at least a portion of the injector body are made by an internally hollow single body.
A voltage regulator circuit, including an output current summing node for supplying a load with a load current (I load) at a regulated output voltage (V load), the circuit including: - an analog portion sensitive (102a, 102b) to said output voltage (V load) and including at least one reference voltage source (V ref P, V ref N), said analog portion applying (1022a, 1022b) to said current summing node at least one first current (I analog, I p, I n) which is a function of the difference between said output voltage (V load) and the reference voltage of said at least one reference voltage source (V ref P, V ref N), and - a digital portion including a digital integrator (1400, 1404, 1406) sensitive (I' analog, 104a) to said at least one first current (I analog, I p, I n), wherein said digital integrator (1400, 1404, 1406) is coupled to a digitally driven current source to apply to said current summing node a second current (I digital), whereby said at least one first current (I analog, I p, I n) and said second current (I digital) provide to said current summing node said load current (I load) at said regulated output voltage (V load). - an analog portion sensitive (102a, 102b) to said output voltage (V load) and including at least one reference voltage source (V ref P, V ref N), said analog portion applying (1022a, 1022b) to said current summing node at least one first current (I analog, I p, I n) which is a function of the difference between said output voltage (V load) and the reference voltage of said at least one reference voltage source (V ref P, V ref N), and - a digital portion including a digital integrator (1400, 1404, 1406) sensitive (I' analog, 104a) to said at least one first current (I analog, I p, I n),