mhurhangee/ep-ind-claims huggingface dataset:
A stable herbicide composition comprising: an aryloxyphenoxy propionate herbicide, an acid or ester thereof, or a combination thereof, wherein the aryloxyphenoxypropionate herbicide is quizalofop; and a surfactant blend comprising a sulfated surfactant, a C 8-20 alkoxylated alcohol, and a sorbitan derivative, which sorbitan derivative comprises a sorbitan ester, an ethoxylated sorbitan ester, or a combination thereof; wherein weight ratio of the aryloxyphenoxy propionate herbicide to the surfactant blend ranges from 1:0.5 to 1: 10. an aryloxyphenoxy propionate herbicide, an acid or ester thereof, or a combination thereof, wherein the aryloxyphenoxypropionate herbicide is quizalofop; and a surfactant blend comprising a sulfated surfactant, a C 8-20 alkoxylated alcohol, and a sorbitan derivative, which sorbitan derivative comprises a sorbitan ester, an ethoxylated sorbitan ester, or a combination thereof; wherein weight ratio of the aryloxyphenoxy propionate herbicide to the surfactant blend ranges from 1:0.5 to 1: 10.
A method of dynamically connecting a client node to a serving network (N1, N2, N3), comprising the steps of: providing an access network to which a client node has a network connection; providing at least one access router (AR1, AR2) having a network connection to said access network and having a network connection to at least one serving network; sending, from the access network, serving network provider advertising information to said client node, said serving network provider advertising information including a serving network provider identifier advertised per each serving network; receiving at the access router, from said client node, serving network provider information specifying a serving network to which said client node desires access; and establishing a secure communication tunnel between said client node and said access router through said access network, such that said client node is able to send and receive data packets to and from the serving network specified by said client node within said secure communication tunnel through said access network; and binding said secure communication tunnel to said specified serving network by using serving network information of said specified serving network as a security association identifier of said secure communication tunnel. providing an access network to which a client node has a network connection; providing at least one access router (AR1, AR2) having a network connection to said access network and having a network connection to at least one serving network; sending, from the access network, serving network provider advertising information to said client node, said serving network provider advertising information including a serving network provider identifier advertised per each serving network; receiving at the access router, from said client node, serving network provider information specifying a serving network to which said client node desires access; and establishing a secure communication tunnel between said client node and said access router through said access network, such that said client node is able to send and receive data packets to and from the serving network specified by said client node within said secure communication tunnel through said access network; and binding said secure communication tunnel to said specified serving network by using serving network information of said specified serving network as a security association identifier of said secure communication tunnel.
A process for synthesizing a Mn 4+ doped phosphor of formula I: A x [MF y]: Mn 4+ wherein, A is Li, Na, K, Rb, Cs, or a combination thereof; M is Si, Ge, Sn, Ti, Zr, Al, Ga, In, Sc, Hf, Y, La, Nb, Ta, Bi, Gd, or a combination thereof; x is the absolute value of the charge of the [MF y] ion; and y is 5, 6 or 7; the method comprising electrolyzing a reaction solution comprising a source of manganese, a source of M and a source of A; wherein, A is Li, Na, K, Rb, Cs, or a combination thereof; M is Si, Ge, Sn, Ti, Zr, Al, Ga, In, Sc, Hf, Y, La, Nb, Ta, Bi, Gd, or a combination thereof; x is the absolute value of the charge of the [MF y] ion; and y is 5, 6 or 7; the method comprising electrolyzing a reaction solution comprising a source of manganese, a source of M and a source of A;
A frequency locked loop comprising: a digitally controlled oscillator configured to generate a frequency signal; a frequency counter and sequencer circuit configured to generate an estimate (f_EST) of the frequency of the frequency signal by counting periods of the frequency signal during a counting phase having a start and an end timed by corresponding transitions of a reference clock signal (CLK_REF), the frequency counter and sequencer circuit being further configured to have a computing phase during which periods of the frequency signal are not counted; and a controller configured to generate a digital control signal (C_FREQ) for controlling the digitally controlled oscillator based on the estimated frequency (f_EST), characterized in that the controller is clocked by a further clock signal having a variable frequency, and the controller is configured to generate and provide to the frequency counter and sequencer circuit a trigger signal (AUTO_CLEAR) for triggering, after resynchronization of the trigger signal with the reference clock signal (CLK_REF), the end of the computing phase. a digitally controlled oscillator configured to generate a frequency signal; a frequency counter and sequencer circuit configured to generate an estimate (f_EST) of the frequency of the frequency signal by counting periods of the frequency signal during a counting phase having a start and an end timed by corresponding transitions of a reference clock signal (CLK_REF), the frequency counter and sequencer circuit being further configured to have a computing phase during which periods of the frequency signal are not counted; and a controller configured to generate a digital control signal (C_FREQ) for controlling the digitally controlled oscillator based on the estimated frequency (f_EST), characterized in that the controller is clocked by a further clock signal having a variable frequency, and the controller is configured to generate and provide to the frequency counter and sequencer circuit a trigger signal (AUTO_CLEAR) for triggering, after resynchronization of the trigger signal with the reference clock signal (CLK_REF), the end of the computing phase.
A heating, ventilation, and/or air conditioning (HVAC) system comprising: a heat exchanger (210, 310) for transferring heat between a refrigerant and a fluid medium, the heat exchanger comprising a lateral side where a bend in the heat exchanger is located; and a baffle disposed vertically adjacent to the lateral side of the heat exchanger, vertically being defined from a lower surface of the HVAC system, the HVAC system characterized by the baffle comprising a fishbone configuration or a helical configuration configured to direct at least a portion of a refrigerant leak. a heat exchanger (210, 310) for transferring heat between a refrigerant and a fluid medium, the heat exchanger comprising a lateral side where a bend in the heat exchanger is located; and a baffle disposed vertically adjacent to the lateral side of the heat exchanger, vertically being defined from a lower surface of the HVAC system, the HVAC system characterized by the baffle comprising a fishbone configuration or a helical configuration configured to direct at least a portion of a refrigerant leak.
Door assembly comprising a door frame, a door leaf supported on the door frame pivotably around a leaf pivot axis, a door closer for operating the door leaf, and a door closer linkage which is configured as a two-part linkage having linkage rods (38, 44) which are pivotably connected to one another by means of a pivot axle, wherein the door closer linkage is coupled to a closer shaft of the door closer at one end and is supported rotatably around a support axis on the door frame by means of a support at the other end, wherein the support is arranged such that, when the door leaf is closed, the axis of the closer shaft is situated on the side of the support axis facing away from the pivot axis of the leaf, and wherein the door closer is mounted in such a way that, when the door leaf is operated, the direction of rotation of the door leaf and the direction of rotation of the closer shaft are identical, characterized in that, beginning at an partially open position of the door leaf in the opening direction, the pivot axle of the door closer linkage and the leaf pivot axis are congruent.
A drive system for a self-propelled harvesting machine (1, 2), comprising a propulsion engine, a distribution gear driven by the propulsion engine with a driven belt pulley disposed on a drive shaft of the distribution gear, which, by means of a main drive belt, drives at least one main belt pulley of a rotary knife drum disposed on an end of a knife drum shaft as well as a conditioning device and a discharge accelerator, and at least one hydraulic pump (14, 14a) which is driven by the propulsion engine for hydraulically driving a front attachment and/or an intake device, characterized in that the driven belt pulley, the main drive belt and the main belt pulley form a main drive train for driving the knife drum, the conditioning device as well as the discharge accelerator, and in that the front attachment and the intake device are respectively driven by a separate drive train (52, 53, 53'), wherein at least one universal joint shaft (24, 56) disposed on the side of the main drive train is disposed to lie in a common vertical plane with the main drive belt.
Filter vessel for reception of a filter insert, which is produced from water-permeable material and which is fillable with coffee grinds, wherein the filter vessel has upwardly spreading side walls and a base, at which a filtrate can drain through at least two openings (9, 10), wherein a separating element is provided in a middle region of the base and divides the region above the base into two drain chambers (12, 13) of approximately the same size, and at least one opening (9, 10) for draining the filtrate is associated with each drain chamber (12, 13), characterised in that each drain chamber (12, 13) has a base dropping away towards the opening (9, 10).
Method for producing a three-dimensional object in layers by means of a stereolithography machine of the type comprising: - a container for containing a liquid substance suited to be solidified through exposure to predefined radiation; - means for emitting said predefined radiation, suited to selectively irradiate a layer of said liquid substance having a predefined thickness and arranged adjacent to the bottom of said container in order to solidify it; - a supporting surface (6a, 7a) for said solidified layer, facing the bottom of said container; - actuator means suited to move said supporting surface (6a, 7a) with respect to said bottom at least according to a direction perpendicular to said bottom; said method comprising the following operations: - moving said supporting surface (6a, 7a) near said bottom through a mutual positioning movement (11; 11'), in such a way as to arrange it in contact with said layer of liquid substance in a predefined operating position; - with said supporting surface (6a, 7a) in said operating position, selectively irradiating said layer in such a way as to solidify it, characterized in that said positioning movement (11; 11') comprises a plurality of approaching moves (12, 12a, 12b, 12c) having corresponding predefined lengths (13, 13a, 13b, 13c), spaced by corresponding intermediate stops (14, 14a, 14b) for corresponding predefined time intervals (15, 15a, 15b), said intermediate stops (14, 14a, 14b) being carried out when said supporting surface (6a, 7a) is at least partially immersed in said liquid substance. - a container for containing a liquid substance suited to be solidified through exposure to predefined radiation; - means for emitting said predefined radiation, suited to selectively irradiate a layer of said liquid substance having a predefined thickness and arranged adjacent to the bottom of said container in order to solidify it; - a supporting surface (6a, 7a) for said solidified layer, facing the bottom of said container; - actuator means suited to move said supporting surface (6a, 7a) with respect to said bottom at least according to a direction perpendicular to said bottom; - moving said supporting surface (6a, 7a) near said bottom through a mutual positioning movement (11; 11'), in such a way as to arrange it in contact with said layer of liquid substance in a predefined operating position; - with said supporting surface (6a, 7a) in said operating position, selectively irradiating said layer in such a way as to solidify it,
A vehicle body structure comprising: a frame structure portion configured to define an opening, the frame structure portion including a first panel having a first joint portion (26C1), a second panel having a second joint portion, and a first adhesive portion that adheres to the first joint portion (26C1) and the second joint portion; a windowpane that is provided on a vehicle outside of the opening and that covers the opening; and a second adhesive portion that adheres to the first panel, the second panel, and the windowpane, wherein at least one of the first panel and the second panel is made of resin, the second adhesive portion is arranged closing off or covering an open end of a gap in a joint between the first panel and the second panel, and the first adhesive portion is arranged within the gap, characterized in that the second adhesive portion adheres to the first panel, the second panel and the windowpane; the first panel includes an extended portion (26C3) that extends in a direction toward an end portion of the windowpane via a stepped portion (26C2) from the first joint portion (26C1), the extended portion (26C3) is arranged such that the open end is positioned between an end portion of the second joint portion and the stepped portion (26C2), and the second adhesive portion adheres to the end portion of the second joint portion, the extended portion (26C3), and the windowpane, wherein the extended portion (26C3) and the second joint portion are made flush with each other. a frame structure portion configured to define an opening, the frame structure portion including a first panel having a first joint portion (26C1), a second panel having a second joint portion, and a first adhesive portion that adheres to the first joint portion (26C1) and the second joint portion; a first panel having a first joint portion (26C1), a second panel having a second joint portion, and a first adhesive portion that adheres to the first joint portion (26C1) and the second joint portion; a windowpane that is provided on a vehicle outside of the opening and that covers the opening; and a second adhesive portion that adheres to the first panel, the second panel, and the windowpane, wherein at least one of the first panel and the second panel is made of resin, the second adhesive portion is arranged closing off or covering an open end of a gap in a joint between the first panel and the second panel, and the first adhesive portion is arranged within the gap, characterized in that the second adhesive portion adheres to the first panel, the second panel and the windowpane; the first panel includes an extended portion (26C3) that extends in a direction toward an end portion of the windowpane via a stepped portion (26C2) from the first joint portion (26C1), the extended portion (26C3) is arranged such that the open end is positioned between an end portion of the second joint portion and the stepped portion (26C2), and the second adhesive portion adheres to the end portion of the second joint portion, the extended portion (26C3), and the windowpane, wherein the extended portion (26C3) and the second joint portion are made flush with each other.
Device for testing a motor vehicle provided with an advanced driving assistance system, comprising a frame for attaching a target, a support arm, the frame being mounted on the support arm so as to be able to rotate about an axis of rotation parallel to said support arm, the frame being able to pass from a detectable position, in which the target can be detected by the tested vehicle, to a retracted position, in which the target is invisible for the detection system of the tested vehicle, the testing device comprises active drive means (35, 26) that are able to make the frame pass from the detectable position to the retracted position, and means (35, 26, 60) for holding the frame in the retracted position, characterized in that the active drive means (35, 26) comprise at least one spring attached on one hand to the support arm and on the other hand to the frame, said spring defining a critical position on one side of which the spring returns the frame to the detectable position, and on the other side of which the spring returns the frame to the retracted position.
An adhesive patch comprising a layer comprising a primer; and a composition provided on said primer layer, comprising the reaction product of at least one component A and at least one component B, wherein component A comprises a compound comprising at least two thiol groups or a disulfide derivative of a compound comprising at least two thiol groups, and wherein component B comprises vinyl reactive groups chosen from vinyl, acrylates, methacrylates, allyl and unsaturated cyclic vinyls; wherein the primer is a dendritic polymer structure wherein the composition further comprises fibres.
Process for the plenoptic capture of photographic, cinematographic, microscopic or stereoscopic images of a scene, characterized in that it comprises the following steps: splitting a primary light beam coming from at least one light source in at least two distinct light beams (7, 8); directing said at least two distinct light beams (7, 8) towards at least two distinct capturing sensors (13, 14) to capture images, of which at least one capturing sensor is an angular-measure capturing sensor and at least one capturing sensor is a spatial-measure capturing sensor, each pixel of said angular-measure capturing sensor is correlated, by means of a correlating device, with the entire pixel array of said spatial-measure capturing sensor the angular measure being adapted to provide the propagation direction of at least one light beam reflected by said scene, the spatial measure being adapted to provide the image of said scene. splitting a primary light beam coming from at least one light source in at least two distinct light beams (7, 8); directing said at least two distinct light beams (7, 8) towards at least two distinct capturing sensors (13, 14) to capture images, of which at least one capturing sensor is an angular-measure capturing sensor and at least one capturing sensor is a spatial-measure capturing sensor, each pixel of said angular-measure capturing sensor is correlated, by means of a correlating device, with the entire pixel array of said spatial-measure capturing sensor the angular measure being adapted to provide the propagation direction of at least one light beam reflected by said scene, the spatial measure being adapted to provide the image of said scene.
An optical system made of a transparent material for wavelengths comprised within a set of beams of luminous rays and for aligning said set of beams of luminous rays with respect to a main optical axis (O-O) from a light source comprising an emission axis and at least one emitter surface of luminous rays intended to be emitted in a space with a refractive index greater than or equal to one; said optical system comprising: - a first incident surface comprising a first proximal singular point located on the main optical axis (O-O); - a first emergent surface comprising a first distal singular point located on the main optical axis (O-O); the first incident surface and the first emergent surface are configured so as to define an intermediate focus area located between the first incident surface and the first emergent surface, the optical system further comprising a second incident surface and a second emergent surface, characterized in that a lateral surface is configured to reflect by total internal reflection the luminous rays originating from the second incident surface towards the second emergent surface so that the luminous rays emerging from the second emergent surface are comprised within an angle comprised between 0° and 10°, in particular between 0° and 5°, and preferably between 0° and 3°, with respect to the main optical axis (O-O). - a first incident surface comprising a first proximal singular point located on the main optical axis (O-O); - a first emergent surface comprising a first distal singular point located on the main optical axis (O-O);
A process for preparing shaped catalyst bodies whose active composition is a multielement oxide, in which a finely divided precursor mixture which comprises added graphite as a finely divided shaping assistant is shaped to the desired geometry and the resulting shaped catalyst precursor bodies are treated thermally at elevated temperature to obtain the shaped catalyst bodies whose active composition is a multielement oxide, wherein a) for the specific suface area O G of the finely divided graphite: 0, 5 m 2 / g ≤ O G ≤ 5 m 2 / g and b) for the particle diameter of the finely divided graphite: 90 μm ≤ d 50 ≤ 200 μm, 20 μm ≤ d 10 ≤ 90 μm, 150 μm ≤ d 90 ≤ 300 μm. a) for the specific suface area O G of the finely divided graphite: 0, 5 m 2 / g ≤ O G ≤ 5 m 2 / g and b) for the particle diameter of the finely divided graphite: 90 μm ≤ d 50 ≤ 200 μm, 20 μm ≤ d 10 ≤ 90 μm, 150 μm ≤ d 90 ≤ 300 μm.
Series of driving devices, in particular for a flap of a vehicle, wherein each driving device of the series comprises: - a rotary drive, - a spindle drive having a threaded spindle and a threaded nut arranged on the threaded spindle, wherein the rotary drive having the threaded spindle or the threaded nut is connected via a coupling unit to a first coupling element on the rotary drive side and to a second coupling element on the spindle drive side, wherein the threaded spindle and the threaded nut are axially movable relative to one another in reaction to a rotation of the rotary drive, wherein each driving device of the series is made up of a rotary drive assembly and a spindle drive assembly, wherein the rotary drive assembly comprises the rotary drive and the first coupling element, and the spindle drive assembly comprises the spindle drive and the second coupling element, wherein the rotary drive assembly and the spindle drive assembly are removed from a modular system which comprises at least two rotary drive assemblies and at least two spindle drive assemblies, wherein the at least two rotary drive assemblies of the modular system have identically formed first coupling elements, but, with regard to the configuration of the rotary drive, differ from one another in at least one configuration parameter, for example the rotary drive power, wherein the at least two spindle drive assemblies of the modular system have identically formed second coupling elements, but, with regard to the configuration of the spindle drive, differ from one another in at least one configuration parameter, for example the stroke length, and wherein the first coupling elements of the at least two rotary drive assemblies and the second coupling elements of the at least two spindle drive assemblies are designed to complement one another. - a rotary drive, - a spindle drive having a threaded spindle and a threaded nut arranged on the threaded spindle, wherein the rotary drive having the threaded spindle or the threaded nut is connected via a coupling unit to a first coupling element on the rotary drive side and to a second coupling element on the spindle drive side, wherein the threaded spindle and the threaded nut are axially movable relative to one another in reaction to a rotation of the rotary drive,