mhurhangee/ep-ind-claims huggingface dataset:
A surface treatment method for making a treatment target comprising polyimide on a surface thereof hydrophilic or hydrophobic, the method comprising: covalently bonding a first resin to the surface comprising polyimide of the treatment target; and covalently bonding a second resin to the first resin; wherein the first resin has a primary amino group and/or a hydroxyl group, and a secondary amino group, and the second resin has a (meth)acryloyl group and/or a carbamoyl group, and a hydrophilic group and/or a hydrophobic group. covalently bonding a first resin to the surface comprising polyimide of the treatment target; and covalently bonding a second resin to the first resin; wherein the first resin has a primary amino group and/or a hydroxyl group, and a secondary amino group, and the second resin has a (meth)acryloyl group and/or a carbamoyl group, and a hydrophilic group and/or a hydrophobic group.
An office chair comprising a seat element mounted movably on a fixed support element and a back support element, which arrangement simultaneously allows the seat element to move and tilt backwards when the user leans backwards and which seat element carries the chair seating panel in such a way that when the user leans to a side, said chair seating panel tilts to the same side according to the user's movement and independently of said chair's back support element and wherein said sideways tilting mechanism comprises a ball joint at the front of said chair seating panel and two springs (6,7) at the rear characterised in that the maximum tilt of said chair seating panel is determined by a pair of tilt limiters connecting the underside of said chair seating panel with said seat element and positioned equidistant outboard from said springs (6,7), and in that each of said tilt limiters comprises two hooks (16, 17) which engage with each other in such a way that the tilt of the said seating panel is limited by said hooks touching.
An infrared presence detector system comprising: a focal plane array comprising a plurality of sensors arranged in a series of rows and columns, the plurality of sensors including a first radiant energy sensor (68,68') and a plurality of second radiant energy sensors (70,70'), with the first and second radiant energy sensors configured to convert radiant energy into an electrical signal wherein the first radiant energy sensor and the plurality of second radiant energy sensors are infrared sensors; and a processor coupled to the focal plane array and configured to control the first and second radiant energy sensors in a sleep mode wherein the first radiant energy sensor is energized and the plurality of second radiant energy sensors are de-energized, and an active mode wherein at least the plurality of second radiant energy sensors are energized when the first radiant energy sensor detects a presence. a focal plane array comprising a plurality of sensors arranged in a series of rows and columns, the plurality of sensors including a first radiant energy sensor (68,68') and a plurality of second radiant energy sensors (70,70'), with the first and second radiant energy sensors configured to convert radiant energy into an electrical signal wherein the first radiant energy sensor and the plurality of second radiant energy sensors are infrared sensors; and a processor coupled to the focal plane array and configured to control the first and second radiant energy sensors in a sleep mode wherein the first radiant energy sensor is energized and the plurality of second radiant energy sensors are de-energized, and an active mode wherein at least the plurality of second radiant energy sensors are energized when the first radiant energy sensor detects a presence.
An apparatus configured to calculate a reduction of a Vector-Vector Dot-Product (VVDP), comprising: a resistive element array (105-130, 205-230, 305-330), including a plurality of word lines (105-110, 205-210,305-310), a plurality of bit lines (115-120, 215-220,315-320), and a plurality of programmable resistive elements (125-130, 225-230, 325-330) coupled between the plurality of word lines and the plurality of bit lines; a bit line select circuit comprising a plurality of bit line select elements (240-245, 340-345) configured to couple one or more of the plurality of bit lines to a current summing node (255, 355) in response to one or more of a plurality bit line select signals (140, 260-265, SEL1-SEL128); a reduction circuit (135, 235, 335) comprising a sense circuit (250, 360, 370), the sense circuit coupled to the current summing node, wherein the sense circuit is configured to sense a parameter of the current summing node in response to a node sense signal (SEN/SEL, 270, 375); and a word line drive circuit and a bit line driver circuit configured to set a state of the plurality of resistive elements according to a first plurality of values based on values of a weight matrix, wherein the word line drive circuit is further configured to drive a selected one or more of the plurality of word lines with a predetermined word line drive parameter according to a second plurality of values, wherein the sense circuit is configured to output a reduction value (145, 275, 350) based on the sensed parameter, wherein outputting the reduction value includes saving the reduction value back to the resistive element array. a resistive element array (105-130, 205-230, 305-330), including a plurality of word lines (105-110, 205-210,305-310), a plurality of bit lines (115-120, 215-220,315-320), and a plurality of programmable resistive elements (125-130, 225-230, 325-330) coupled between the plurality of word lines and the plurality of bit lines; a bit line select circuit comprising a plurality of bit line select elements (240-245, 340-345) configured to couple one or more of the plurality of bit lines to a current summing node (255, 355) in response to one or more of a plurality bit line select signals (140, 260-265, SEL1-SEL128); a reduction circuit (135, 235, 335) comprising a sense circuit (250, 360, 370), the sense circuit coupled to the current summing node, wherein the sense circuit is configured to sense a parameter of the current summing node in response to a node sense signal (SEN/SEL, 270, 375); and a word line drive circuit and a bit line driver circuit configured to set a state of the plurality of resistive elements according to a first plurality of values based on values of a weight matrix, wherein the word line drive circuit is further configured to drive a selected one or more of the plurality of word lines with a predetermined word line drive parameter according to a second plurality of values, wherein the sense circuit is configured to output a reduction value (145, 275, 350) based on the sensed parameter, wherein outputting the reduction value includes saving the reduction value back to the resistive element array.
A yaw control part for controlling a yaw rotation part of a wind turbine which comprises a wind turbine rotor, a nacelle rotatably supporting the wind turbine rotor, and a yaw rotation part configured to rotate the nacelle, wherein the yaw control part is configured to operate the yaw rotation part in a yaw rewind mode of rotating the nacelle in such a direction that a yaw angle changes toward zero, if an absolute value of the yaw angle exceeds a first threshold which is variable in accordance with a wind-velocity parameter representing a magnitude of a wind velocity, wherein the first threshold increases with an increase in the wind-velocity parameter, and wherein, where the wind turbine is in a standby state, the yaw control part is configured to operate the yaw rotation part in the yaw rewind mode until the yaw angle returns to zero, if the wind turbine is stopped and the wind-velocity parameter is smaller than a lower-limit threshold, and is configured to operate the yaw rotation part in the yaw rewind mode until an absolute value of the yaw angle reaches 180° or less and such that the nacelle follows the wind direction, if the wind turbine is stopped and the wind-velocity parameter is equal to or greater than the lower-limit threshold.
An arrangement comprising at least two blanks (1, 2) and a holding device for holding both blanks (1, 2), wherein both blanks (1, 2) each have a first side formed as a front side and a second side formed as a back side, wherein in a chucked state both blanks (1, 2) are facing to each other with their back sides and substantially the complete front sides of the blanks (1, 2) are accessible, characterized in that the blanks (1, 2) are disk-shaped and can be chucked to the holding device by peripheral areas.
A method for measurement of an analyte in a microparticle-based analyte-specific binding assay, wherein said microparticles are coated with the first partner of a binding pair, said method comprising a) mixing the coated microparticles, at least two analyte-specific binding agents, wherein each of said analyte-specific binding agents is bound to a second partner of the binding pair, and a sample suspected of comprising or comprising the analyte, wherein said second partner of the binding pair is bound to each of said analyte-specific binding agents via a linker comprising from 12 to 30 ethylene glycol units (PEG 12 to 30), thereby binding the analyte via the said analyte-specific binding agents to the coated microparticles, b) separating the microparticles comprising the analyte bound via the binding pair and the analyte-specific binding agent from the mixture and c) measuring the analyte bound to the microparticles. a) mixing the coated microparticles, at least two analyte-specific binding agents, wherein each of said analyte-specific binding agents is bound to a second partner of the binding pair, and a sample suspected of comprising or comprising the analyte, wherein said second partner of the binding pair is bound to each of said analyte-specific binding agents via a linker comprising from 12 to 30 ethylene glycol units (PEG 12 to 30), thereby binding the analyte via the said analyte-specific binding agents to the coated microparticles, b) separating the microparticles comprising the analyte bound via the binding pair and the analyte-specific binding agent from the mixture and c) measuring the analyte bound to the microparticles.
A medical image processing device comprising: a depth determination unit (140, 240, 340) configured to determine an operation depth of a medical operation whose image is to be captured; a disparity determination unit configured to determine a disparity by using a captured image showing a visual field observed in the operation and generate disparity information; a correction unit configured to correct the disparity information depending on the operation depth determined by the depth determination unit; and a means to determine an operation depth range from the operation depth; wherein the correction unit corrects the disparity information so as to emphasize a stereoscopic effect expressed by a stereoscopic image generated on a basis of the captured image, and the medical image processing device is characterized in that: the correction unit reduces a correction factor of the disparity within a second depth range outside of the operation depth range as compared with a first depth range within the operation depth range, wherein the captured image includes a right-eye image and a left-eye image and the correction factor is determined in accordance with a base length between the right-eye image and the left eye image. a depth determination unit (140, 240, 340) configured to determine an operation depth of a medical operation whose image is to be captured; a disparity determination unit configured to determine a disparity by using a captured image showing a visual field observed in the operation and generate disparity information; a correction unit configured to correct the disparity information depending on the operation depth determined by the depth determination unit; and a means to determine an operation depth range from the operation depth; wherein the correction unit corrects the disparity information so as to emphasize a stereoscopic effect expressed by a stereoscopic image generated on a basis of the captured image, and the medical image processing device is characterized in that: the correction unit reduces a correction factor of the disparity within a second depth range outside of the operation depth range as compared with a first depth range within the operation depth range, wherein the captured image includes a right-eye image and a left-eye image and the correction factor is determined in accordance with a base length between the right-eye image and the left eye image.
Solid-bowl screw centrifuge having a housing and a rotor rotatably mounted in the housing, comprising at least the following: a. a rotatable drum having an axis of rotation, wherein the drum has a cylindrical portion and a conical portion, b. at least one liquid outlet arranged in the cylindrical portion of the drum, and c. at least one solids discharge arranged in the conical portion of the drum, d. a screw rotatable relative to the rotatable drum at a differential speed and arranged within the drum, wherein the drum and screw together form the rotor, e. at least two drum bearings (221, 222) for mounting the drum in the housing, f. at least a first screw bearing for mounting the screw in the drum, g. wherein the drum is designed in the region of the conical portion or drying zone such that solid matter Fe is transported by means of the screw up to a solid-discharge drum cover, which forms a termination of the conical portion in the axial direction of the drum, in order to leave the drum through a plurality of axially or substantially axially aligned openings in the solid-discharge drum cover, and h. wherein the openings in the solid-discharge drum cover are located within, preferably entirely within, the smallest inner diameter of the conical portion of the drum, characterized in that i. a cover element, in particular a cover plate, with openings corresponding to the openings of the solid-discharge drum cover, in particular of the conical portion, is fitted to the solid discharge drum cover having the solid discharge, in particular to its conical portion. a. a rotatable drum having an axis of rotation, wherein the drum has a cylindrical portion and a conical portion, b. at least one liquid outlet arranged in the cylindrical portion of the drum, and c. at least one solids discharge arranged in the conical portion of the drum, d. a screw rotatable relative to the rotatable drum at a differential speed and arranged within the drum, wherein the drum and screw together form the rotor, e. at least two drum bearings (221, 222) for mounting the drum in the housing, f. at least a first screw bearing for mounting the screw in the drum, g. wherein the drum is designed in the region of the conical portion or drying zone such that solid matter Fe is transported by means of the screw up to a solid-discharge drum cover, which forms a termination of the conical portion in the axial direction of the drum, in order to leave the drum through a plurality of axially or substantially axially aligned openings in the solid-discharge drum cover, and h. wherein the openings in the solid-discharge drum cover are located within, preferably entirely within, the smallest inner diameter of the conical portion of the drum, characterized in that i. a cover element, in particular a cover plate, with openings corresponding to the openings of the solid-discharge drum cover, in particular of the conical portion, is fitted to the solid discharge drum cover having the solid discharge, in particular to its conical portion.
A cyclohexane triester-based plasticizer composition, comprising: a cyclohexane triester-based composition comprising one or more cyclohexane triesters of the following Formula 1, wherein alkyl groups of the cyclohexane triester are derived from an isomer mixture of hexyl alcohol having a degree of branching of 2.0 or less, and the isomer mixture of hexyl alcohol comprises two or more selected from the group consisting of 1-hexanol, 1-methylpentanol, 2-methylpentanol, 3-methylpentanol, 4-methylpentanol, 1,1-dimethylbutanol, 1,2-dimethylbutanol, 1,3-dimethylbutanol, 2,2-dimethylbutanol, 2,3-dimethylbutanol, 3,3-dimethylbutanol, 1-ethylbutanol, 2-ethylbutanol, 3-ethylbutanol and cyclopentyl methanol: in Formula 1, R 1 to R 3 are each independently an n-hexyl group, a branch type hexyl group or a cyclopentyl methyl group. a cyclohexane triester-based composition comprising one or more cyclohexane triesters of the following Formula 1, wherein alkyl groups of the cyclohexane triester are derived from an isomer mixture of hexyl alcohol having a degree of branching of 2.0 or less, and the isomer mixture of hexyl alcohol comprises two or more selected from the group consisting of 1-hexanol, 1-methylpentanol, 2-methylpentanol, 3-methylpentanol, 4-methylpentanol, 1,1-dimethylbutanol, 1,2-dimethylbutanol, 1,3-dimethylbutanol, 2,2-dimethylbutanol, 2,3-dimethylbutanol, 3,3-dimethylbutanol, 1-ethylbutanol, 2-ethylbutanol, 3-ethylbutanol and cyclopentyl methanol: in Formula 1, R 1 to R 3 are each independently an n-hexyl group, a branch type hexyl group or a cyclopentyl methyl group.
A method in a user equipment, the method comprising: receiving a respective reference signal associated with each of one or more downlink transmit antenna ports in a wireless communication network; determining a value for each of one or more measurable characteristics relative to each of the received reference signals; receiving one or more parameters including one or more adjustments, each adjustment being specific to one of the downlink transmit antenna ports and including adjustments in the form of one or more respective reference signal received power, RSRP, offset values to be applied to at least some of the one or more determined values of the measurable characteristics of the received reference signals; and selecting at least one downlink transmit antenna port to function as a serving downlink transmit antenna port for the user equipment, based upon a comparison of the resulting values of the measurable characteristics of the received reference signals after the received one or more adjustments have been applied to the corresponding determined values, characterized in that different RSRP offset values are applied to the one or more determined values of the measurable characteristics of the received reference signals depending on whether the associated downlink transmit antenna port has an associated contention free random access resource or not. receiving a respective reference signal associated with each of one or more downlink transmit antenna ports in a wireless communication network; determining a value for each of one or more measurable characteristics relative to each of the received reference signals; receiving one or more parameters including one or more adjustments, each adjustment being specific to one of the downlink transmit antenna ports and including adjustments in the form of one or more respective reference signal received power, RSRP, offset values to be applied to at least some of the one or more determined values of the measurable characteristics of the received reference signals; and selecting at least one downlink transmit antenna port to function as a serving downlink transmit antenna port for the user equipment, based upon a comparison of the resulting values of the measurable characteristics of the received reference signals after the received one or more adjustments have been applied to the corresponding determined values, characterized in that different RSRP offset values are applied to the one or more determined values of the measurable characteristics of the received reference signals depending on whether the associated downlink transmit antenna port has an associated contention free random access resource or not.
Device for analysing a vehicle driver's perception of a danger, which device comprises: - a heart rate sensor designed to measure the driver's heart rate over time (t), and - a processing unit designed to a) receive an indication of the danger present in the surroundings of the vehicle, b) analyse the driver's heart rate that was measured by the heart rate sensor, for a time interval which starts upon reception of the indication by the processing unit, and c) determine if the danger has been perceived or not by the driver depending on whether the driver's heart rate that was analysed in step b) comprises or does not comprise a deceleration phase within said time interval. - a heart rate sensor designed to measure the driver's heart rate over time (t), and - a processing unit designed to a) receive an indication of the danger present in the surroundings of the vehicle, b) analyse the driver's heart rate that was measured by the heart rate sensor, for a time interval which starts upon reception of the indication by the processing unit, and c) determine if the danger has been perceived or not by the driver depending on whether the driver's heart rate that was analysed in step b) comprises or does not comprise a deceleration phase within said time interval.
Arrangement for removing varnish fog when varnishing a component such as an aircraft fuselage comprising a supply air device and an exhaust air device, wherein the supply air device is arranged in a lower section or a lower area of the component and wherein the exhaust air device is arranged in an upper section or an upper area of the component, characterized in that the supply air device is constructed for supplying supply air which is heated in relation to the ambient air of the component and forms a thermal flow along a surface of the component, and that the exhaust air device is constructed for removing exhaust air flowing with the thermal flow along a surface of the component and carrying the varnish fog.
A method of weighing a bale formed by a round baler, the method comprising: - obtaining one or more bale weight measurements (Fx1,Fx2;Fx), with one or more load sensors (310,312; 610), of the baler with a formed bale contained therein, the one or more load sensors (310,312; 610) being positioned at one or more supporting points (16a,16b,220) of the round baler; - obtaining one or more empty baler weight measurements (Fz1,Fz2;Fy,Fz) with the one or more load sensors (310,312;610), of the baler empty; and - determining, by a processing unit in communication with the one or more load sensors (310,312;610), a corrected bale weight by adjusting a first bale weight, the first bale weight being a function of the one or more bale weight measurements (Fx1,Fx2; Fx) and the one or more empty baler weight measurements (Fz1,Fz2; Fz); characterised in that the first bale weight is adjusted based upon one or more of (i) one or more slopes (a, b) on a surface on which the baler is positioned, wherein the one or more slopes comprises one or more of a front-to-back angle (a) and a side-to-side angle (b) of the baler; (ii) a size of the bale; and (iii) a shape of the bale. - obtaining one or more bale weight measurements (Fx1,Fx2;Fx), with one or more load sensors (310,312; 610), of the baler with a formed bale contained therein, the one or more load sensors (310,312; 610) being positioned at one or more supporting points (16a,16b,220) of the round baler; - obtaining one or more empty baler weight measurements (Fz1,Fz2;Fy,Fz) with the one or more load sensors (310,312;610), of the baler empty; and - determining, by a processing unit in communication with the one or more load sensors (310,312;610), a corrected bale weight by adjusting a first bale weight, the first bale weight being a function of the one or more bale weight measurements (Fx1,Fx2; Fx) and the one or more empty baler weight measurements (Fz1,Fz2; Fz); (i) one or more slopes (a, b) on a surface on which the baler is positioned, wherein the one or more slopes comprises one or more of a front-to-back angle (a) and a side-to-side angle (b) of the baler; (ii) a size of the bale; and (iii) a shape of the bale.