mhurhangee/ep-ind-claims huggingface dataset:
An agricultural work machine comprising: a communication system configured to receive a map that includes values of a cut height characteristic corresponding to different locations in a field; a geographic position sensor configured to detect a geographic location of the agricultural work machine; an in-situ sensor configured to detect a value of an agricultural characteristic corresponding to the geographic location; a predictive map generator configured to generate a functional predictive agricultural map of the field that maps predictive control values to the different geographic locations in the field based on the values of the cut height characteristic in the map and based on the value of the agricultural characteristic; a controllable subsystem; and a control system configured to generate a control signal to control the controllable subsystem based on the geographic location of the agricultural work machine and based on the control values in the functional predictive agricultural map. a communication system configured to receive a map that includes values of a cut height characteristic corresponding to different locations in a field; a geographic position sensor configured to detect a geographic location of the agricultural work machine; an in-situ sensor configured to detect a value of an agricultural characteristic corresponding to the geographic location; a predictive map generator configured to generate a functional predictive agricultural map of the field that maps predictive control values to the different geographic locations in the field based on the values of the cut height characteristic in the map and based on the value of the agricultural characteristic; a controllable subsystem; and a control system configured to generate a control signal to control the controllable subsystem based on the geographic location of the agricultural work machine and based on the control values in the functional predictive agricultural map.
A vehicle heating ventilation and air conditioning unit that is configured so as to selectively blow out an air flow whose temperature has been regulated by an evaporator and a heater mounted in an air channel from a DEF blowing channel, a face blowing channel, and a foot blowing channel, which are provided downstream of the evaporator and the heater, into a cabin by opening and closing a DEF damper, a face damper, and a foot damper, the vehicle heating ventilation and air conditioning unit comprising: side demister channels that are provided at both side portions of the DEF blowing channel so as to guide the temperature-regulated air to side window glass, and plate-like baffle ribs (36, 36a, 36b, 36c) that are provided in the vicinity of both end portions of the DEF damper that opens and closes the DEF blowing channel and the side demister channels simultaneously so as to guide the temperature-regulated air to the side demister channels, the vehicle heating ventilation and air conditioning unit being characterized in that the baffle ribs (36, 36a, 36b, 36c) are provided at locations of substantially around 50 % of the distance relative to the widthwise dimension of the side demister channels from both end portions of the DEF damper. side demister channels that are provided at both side portions of the DEF blowing channel so as to guide the temperature-regulated air to side window glass, and plate-like baffle ribs (36, 36a, 36b, 36c) that are provided in the vicinity of both end portions of the DEF damper that opens and closes the DEF blowing channel and the side demister channels simultaneously so as to guide the temperature-regulated air to the side demister channels, the vehicle heating ventilation and air conditioning unit being characterized in that the baffle ribs (36, 36a, 36b, 36c) are provided at locations of substantially around 50 % of the distance relative to the widthwise dimension of the side demister channels from both end portions of the DEF damper.
An X-ray imaging system, comprising: a tube device, capable of moving to a preset position so as to emit an X-ray; one or a plurality of sensors, mounted on one or a plurality of surfaces of the tube device, and configured to acquire a feedback signal in a sensing region thereof; and a controller, connected to the one or the plurality of sensors and the tube device, wherein the controller comprises: a determination module, configured to determine, on the basis of the feedback signal, whether an obstacle is present in the sensing region and acquire position information of the obstacle; and a control module, configured to control motion of the tube device on the basis of the position information of the obstacle, wherein the one or the plurality of sensors comprise a millimeter wave radar sensor mounted on an inner side of a housing of the tube device. a tube device, capable of moving to a preset position so as to emit an X-ray; one or a plurality of sensors, mounted on one or a plurality of surfaces of the tube device, and configured to acquire a feedback signal in a sensing region thereof; and a controller, connected to the one or the plurality of sensors and the tube device, wherein the controller comprises: a determination module, configured to determine, on the basis of the feedback signal, whether an obstacle is present in the sensing region and acquire position information of the obstacle; and a control module, configured to control motion of the tube device on the basis of the position information of the obstacle, wherein the one or the plurality of sensors comprise a millimeter wave radar sensor mounted on an inner side of a housing of the tube device. a determination module, configured to determine, on the basis of the feedback signal, whether an obstacle is present in the sensing region and acquire position information of the obstacle; and a control module, configured to control motion of the tube device on the basis of the position information of the obstacle, wherein the one or the plurality of sensors comprise a millimeter wave radar sensor mounted on an inner side of a housing of the tube device.
A dry composition prepared by mixing and drying of a mixture of from 10 9 to 10 13 cfu/g of lactic acid bacteria cells, wherein the mixture is characterized by that it also comprises the following amounts of protective agents, all amounts of protective agents below are given relative to 1 g of lactic acid bacteria cells in the composition: from 2 to 9 g of sucrose, from 1 to 3 g of maltodextrin and from 0.75 to 2 g of Na-ascorbate.
A header for an agricultural harvester, comprising: a framework; a crop gathering arrangement defining a forward end of the header; and a homologation frame attachable to the framework and having at least one visibility enhancing safety feature; characterized in that: the homologation frame includes at least two arms which are pivotally attached to the framework, the homologation frame being movable between an upright position in which the arms extend in a generally upward direction and a downward position in which the arms extend in a generally forward direction, the at least one visibility enhancing safety feature being positioned in association with the forward end of the header when the homologation frame is in the downward position, such that the at least one visibility enhancing safety feature is visible from a front of the harvester. a framework; a crop gathering arrangement defining a forward end of the header; and a homologation frame attachable to the framework and having at least one visibility enhancing safety feature; characterized in that: the homologation frame includes at least two arms which are pivotally attached to the framework, the homologation frame being movable between an upright position in which the arms extend in a generally upward direction and a downward position in which the arms extend in a generally forward direction, the at least one visibility enhancing safety feature being positioned in association with the forward end of the header when the homologation frame is in the downward position, such that the at least one visibility enhancing safety feature is visible from a front of the harvester. the homologation frame includes at least two arms which are pivotally attached to the framework, the homologation frame being movable between an upright position in which the arms extend in a generally upward direction and a downward position in which the arms extend in a generally forward direction, the at least one visibility enhancing safety feature being positioned in association with the forward end of the header when the homologation frame is in the downward position, such that the at least one visibility enhancing safety feature is visible from a front of the harvester.
A motor platform, which carries an entire motor winding interconnection for operating an electrosurgical instrument, comprises a circuit, preferably a delta connection or star connection, which is formed by three phases with one phase coil each, and at least one phase coil is formed from N>1 interconnected individual coils, wherein the output of a first operating voltage and of a second operating voltage different from the first operating voltage is provided to a motor, wherein, in the first operating voltage, the N individual coils of each phase coil are connected in parallel and in the second operating voltage, the N individual coils of each phase coil are connected in series, and the switching between the first and second operating voltages (4, 5) via at least one short-circuiting means per phase coil is provided, wherein the at least one short-circuiting means is configured as a passive component and wherein the motor platform is provided and designed in such a way that the motor characteristic and the characteristic values of the motor are identical during operation in the first and second operating voltages (4, 5), which are different from each other.
A method of characterizing a part comprising a step of obtaining an X-ray tomography image of the part and then a step of correlating said image with a reference comprising an image of the part constructed from a computer assisted design model, the method being characterized in that the correlation step comprises searching among a predefined set of X-ray tomography image transformations for a transformation that minimizes the difference between the image and the reference in order to characterize (300, 350; 400; 500) the inside of said part.
Use of a titanium phosphate powder comprising plate-shaped crystalline particles of titanium phosphate, wherein the plate-shaped crystalline particles have an average thickness of 0.01 μm or more and less than 0.10 μm, and an aspect ratio that is a value obtained by dividing an average primary particle diameter of the plate-shaped crystalline particles by the average thickness is 5 or more, as an additive or a pigment in cosmetics, in particular as white pigment in cosmetics. the plate-shaped crystalline particles have an average thickness of 0.01 μm or more and less than 0.10 μm, and an aspect ratio that is a value obtained by dividing an average primary particle diameter of the plate-shaped crystalline particles by the average thickness is 5 or more,
A vibration damping device comprising: a main frame portion having a vibration source; a dynamic vibration absorber having an auxiliary mass and a cushioning portion and being supported by the main frame portion via the cushioning portion, wherein a resonant frequency of the dynamic vibration absorber is a frequency of vibration of the vibration source; a casing that supports the main frame portion via a cushioning support member; a transmission force detecting portion arranged to calculate a transmission force transmitted from the main frame portion to the auxiliary mass via the cushioning portion, an amplifying portion arranged to amplify the transmission force calculated by the transmission force detecting portion using an amplification coefficient, and an auxiliary mass driving portion arranged to drive the auxiliary mass based on the transmission force amplified by the amplifying portion, wherein the transmission force detecting portion is arranged to calculate the transmission force based on a position of the auxiliary mass with reference to the main frame portion in the vibration damping direction and a driving signal of the auxiliary mass driving portion, and wherein the transmission force is calculated by an equation where the following are added: a value of a viscosity coefficient of viscoelastic characteristics of the cushioning portion multiplied by a value of a speed of the main frame portion with reference to the casing, and a value of an elastic coefficient of viscoelastic characteristics of the cushioning portion multiplied by an amount of displacement of the main frame portion with reference to the casing in a vibration damping direction. a main frame portion having a vibration source; a dynamic vibration absorber having an auxiliary mass and a cushioning portion and being supported by the main frame portion via the cushioning portion, wherein a resonant frequency of the dynamic vibration absorber is a frequency of vibration of the vibration source; a casing that supports the main frame portion via a cushioning support member; a transmission force detecting portion arranged to calculate a transmission force transmitted from the main frame portion to the auxiliary mass via the cushioning portion, an amplifying portion arranged to amplify the transmission force calculated by the transmission force detecting portion using an amplification coefficient, and an auxiliary mass driving portion arranged to drive the auxiliary mass based on the transmission force amplified by the amplifying portion, a value of a viscosity coefficient of viscoelastic characteristics of the cushioning portion multiplied by a value of a speed of the main frame portion with reference to the casing, and a value of an elastic coefficient of viscoelastic characteristics of the cushioning portion multiplied by an amount of displacement of the main frame portion with reference to the casing in a vibration damping direction.
An apparatus that can be implemented in a cylinder lock device with the purpose to make the lock resistant to the manipulation through the method of "bumping", and is possibly also implementable in an existing lock ("retrofitting") without modification of the pre-existing body and/or rotor of the same lock, the apparatus comprising: a) at least one engagement element (35, 35a) capable to displace itself in at least one position of engagement that can prevent the opening of the lock, as well as to displace itself at least in one position of disengagement that can allow the opening of the lock; and b) at least one reaction mechanism (34, 36a, 36b, 43, 43a, 44, 45) capable to drive and/or to further push the engagement element (35, 35a) in a position of engagement under the effect of the mechanical pulse that characterizes an attempt of manipulation through the method of "bumping"; the reaction mechanism comprising at least one transmission element comprising at least one counter-piston or section of counter-piston (34, 34a), possibly also having engagement functions between the body and the rotor, and c) at least one operation mechanism (7, 34, 34a, 36a, 36b, 43, 43a, 44, 45), not necessarily distinct, even only partially, from the reaction mechanism, capable to drive the displacement of the engagement element (35, 35a) in a position of disengagement through a movement that is operated by the non-pulsed action of the insertion of a key; and one or more moving elements (36, 36b, 43, 43a, 44, 45), possibly cooperating together and/or with other elements of the lock, in order to receive at least part of the "bumping" mechanical pulse transmitted by the at least one transmission element (34, 34a), and have it converted, at least partly, into a reaction pulse that is applied to the at least one engagement element (35, 35a) according to a direction that drives its engagement and/or increase of its engagement between the body and the rotor. a) at least one engagement element (35, 35a) capable to displace itself in at least one position of engagement that can prevent the opening of the lock, as well as to displace itself at least in one position of disengagement that can allow the opening of the lock; and b) at least one reaction mechanism (34, 36a, 36b, 43, 43a, 44, 45) capable to drive and/or to further push the engagement element (35, 35a) in a position of engagement under the effect of the mechanical pulse that characterizes an attempt of manipulation through the method of "bumping"; the reaction mechanism comprising at least one transmission element comprising at least one counter-piston or section of counter-piston (34, 34a), possibly also having engagement functions between the body and the rotor, and c) at least one operation mechanism (7, 34, 34a, 36a, 36b, 43, 43a, 44, 45), not necessarily distinct, even only partially, from the reaction mechanism, capable to drive the displacement of the engagement element (35, 35a) in a position of disengagement through a movement that is operated by the non-pulsed action of the insertion of a key; and
A tower assembly, comprising: a base tower section; a tower flange integral with the base tower section, the tower flange comprising a substantially cylindrical wall defining an outer diameter and an inner diameter separated by a radial thickness, the radial thickness being oversized to accommodate foundations of varying sizes; and, a foundation comprising a base portion and a mounting portion embedded within the base portion, the mounting portion defining an outer diameter and an inner diameter separated by a radial thickness, the tower flange being secured to the mounting portion of the foundation, wherein a radial offset is defined between the outer diameter of the tower flange and the outer diameter of the mounting portion of the foundation; and wherein the radial thickness of the tower flange is greater than the radial thickness of the mounting portion of the foundation. a base tower section; a tower flange integral with the base tower section, the tower flange comprising a substantially cylindrical wall defining an outer diameter and an inner diameter separated by a radial thickness, the radial thickness being oversized to accommodate foundations of varying sizes; and, a foundation comprising a base portion and a mounting portion embedded within the base portion, the mounting portion defining an outer diameter and an inner diameter separated by a radial thickness, the tower flange being secured to the mounting portion of the foundation, wherein a radial offset is defined between the outer diameter of the tower flange and the outer diameter of the mounting portion of the foundation; and wherein the radial thickness of the tower flange is greater than the radial thickness of the mounting portion of the foundation.
Balustrade for a moving walkway or an escalator, a handrail and a guide for the handrail being arranged on the balustrade, on which guide the handrail is moved by motor drive along its longitudinal axis, whereby the handrail is guided on the guide, rotated about its longitudinal axis along an arcuate portion of the guide, characterized in that the handrail is guided on the guide, rotated about its longitudinal axis through an angle of 90° along an arcuate portion of the guide.
A continuous hydroformylation process comprising: (a) removing a reaction fluid from a reactor, wherein the reaction fluid is obtained by contacting CO, H 2, an olefin and a catalyst comprising rhodium and an organophosphite ligand in a reaction zone under hydroformylation reaction conditions to produce an aldehyde product in the reaction fluid; (b) sending the reaction fluid to a vaporizer; (c) separating the reaction fluid in the vaporizer to produce a catalyst-containing liquid stream and a gas phase stream; and (d) maintaining an average CO partial pressure in the vaporizer of greater than 110 kPa (16 psia) by adding fresh CO to the vaporizer, wherein the hydroformylation process employs a metal organophosphorous ligand complex catalyst, the ligand being selected from monoorganophosphite, diorganophosphite, triorganophosphite and organopolyphosphite compounds.
A power conversion device comprising: a first power converter connected to a first AC system and configured to convert AC to DC, and DC to AC; a second power converter connected to a second AC system and configured to convert AC to DC, and DC to AC, a DC side of the second power converter being connected to the first power converter; and one initial charging device (100, 700) including a resistor (110, 701) and a disconnector (120, 702) and connected to at least one of a plurality of the power converters; characterized by: a charging assistance mechanism including one or more bypass lines and an arrangement of switches, the charging assistance mechanism being able to selectively connect one of the first AC system and the second AC system to the initial charging device (100, 700). a first power converter connected to a first AC system and configured to convert AC to DC, and DC to AC; a second power converter connected to a second AC system and configured to convert AC to DC, and DC to AC, a DC side of the second power converter being connected to the first power converter; and one initial charging device (100, 700) including a resistor (110, 701) and a disconnector (120, 702) and connected to at least one of a plurality of the power converters; characterized by: a charging assistance mechanism including one or more bypass lines and an arrangement of switches, the charging assistance mechanism being able to selectively connect one of the first AC system and the second AC system to the initial charging device (100, 700).
A pharmaceutical composition for use in improving decrease of bone mass in periodontal disease, facilitating recovery from alveolar bone defect after tooth extraction, or facilitating recovery from articular cartilage deficiency, which comprises as an active ingredient a compound represented by general formula below or a pharmacologically acceptable salt thereof: wherein, when R1 and R2 are not both hydrogen atoms, R1 and R2 are independently: 1) hydrogen atom; 2) halogen atom; 3) an alkyl group comprising one or two carbons that may be substituted with one to five fluorine atoms; or 4) an alkoxy group comprising one or two carbons that may be substituted with one to five fluorine atoms; or R1 and R2 bond with each other to form a group represented by the formula below: (wherein each ∗ indicates the position of bonding with the phenyl portion); and R3 and R4 are independently a methyl group that may be substituted with one to three fluorine atoms; or R3 and R4, together with a bound carbon atom, form a three- to six-membered carbocyclic ring (wherein, one of the carbon atoms forming the ring may be replaced with an oxygen atom, a sulfur atom, or a methyl-substituted or unsubstituted nitrogen atom). when R1 and R2 are not both hydrogen atoms, R1 and R2 are independently: 1) hydrogen atom; 2) halogen atom; 3) an alkyl group comprising one or two carbons that may be substituted with one to five fluorine atoms; or 4) an alkoxy group comprising one or two carbons that may be substituted with one to five fluorine atoms; or 1) hydrogen atom; 2) halogen atom; 3) an alkyl group comprising one or two carbons that may be substituted with one to five fluorine atoms; or 4) an alkoxy group comprising one or two carbons that may be substituted with one to five fluorine atoms; or R1 and R2 bond with each other to form a group represented by the formula below: (wherein each ∗ indicates the position of bonding with the phenyl portion); and R3 and R4 are independently a methyl group that may be substituted with one to three fluorine atoms; or R3 and R4, together with a bound carbon atom, form a three- to six-membered carbocyclic ring (wherein, one of the carbon atoms forming the ring may be replaced with an oxygen atom, a sulfur atom, or a methyl-substituted or unsubstituted nitrogen atom).