mhurhangee/ep-ind-claims huggingface dataset:
An electrical connector assembly, comprising: a yoke, which is comprised of an outer housing and a central conductor provided within the outer housing, wherein the central conductor comprises at least three outwardly extending portions (110-1, 110-2, 110-3, 110-4); a first outwardly extending portion and a second outwardly extending portion of the central conductor which are operatively coupled to first and second power cables (104-1, 104-2), respectively; and a third outwardly extending portion of the central conductor characterised in that the third outwardly extending portion comprises a permanent ground point that is mechanically and electrically connected to the central conductor and allows for the entire connector assembly to be grounded when a grounding device (170; 172) that is connected to system ground is attached to the permanent ground point. a yoke, which is comprised of an outer housing and a central conductor provided within the outer housing, wherein the central conductor comprises at least three outwardly extending portions (110-1, 110-2, 110-3, 110-4); a first outwardly extending portion and a second outwardly extending portion of the central conductor which are operatively coupled to first and second power cables (104-1, 104-2), respectively; and a third outwardly extending portion of the central conductor characterised in that the third outwardly extending portion comprises a permanent ground point that is mechanically and electrically connected to the central conductor and allows for the entire connector assembly to be grounded when a grounding device (170; 172) that is connected to system ground is attached to the permanent ground point.
Module for a heating and/or hot water supply system of a building, wherein the module comprises at least one component (7, 8, 9, 10, 11) of a heating and/or hot water supply system for a building, wherein the component(s) (7, 8, 9, 10, 11) as well as pipelines for connecting the component(s) (7, 8, 9, 10, 11) are arranged on a support element, wherein the module, in particular the support element, is configured such that the component(s) (7, 8, 9, 10, 11) and/or pipelines can each be arranged at a plurality of different positions on the support element, wherein the support element has a plurality of attachment points for attaching the component (7, 8, 9, 10, 11) and/or the pipelines, wherein the support element is a planar element for providing the attachment points and the attachment points are distributed in a regular grid over the support element and wherein the plurality of attachment points allows to vary the spatial arrangement of the component(s) and pipeline(s) on the support element, characterized in that the support element has reinforcing elements for mechanically reinforcing the support element, wherein the reinforcing elements are arranged in a frame-like manner in the region of the edges of the support element. wherein the component(s) (7, 8, 9, 10, 11) as well as pipelines for connecting the component(s) (7, 8, 9, 10, 11) are arranged on a support element, wherein the module, in particular the support element, is configured such that the component(s) (7, 8, 9, 10, 11) and/or pipelines can each be arranged at a plurality of different positions on the support element, wherein the support element has a plurality of attachment points for attaching the component (7, 8, 9, 10, 11) and/or the pipelines, wherein the support element is a planar element for providing the attachment points and the attachment points are distributed in a regular grid over the support element and wherein the plurality of attachment points allows to vary the spatial arrangement of the component(s) and pipeline(s) on the support element, characterized in that the support element has reinforcing elements for mechanically reinforcing the support element, wherein the reinforcing elements are arranged in a frame-like manner in the region of the edges of the support element.
A touch sensing device comprising: a touch sensitive surface (101; 501) having a plurality of sensing points, each sensing point being at the intersection of at least one of a plurality of drive lines (105a; 505a) and at least one of a plurality of sense lines (105b; 505b), wherein the relationship between a sense signal on a sense line (105b; 505b) and drive signals on the drive lines (105a; 505a) is a function of a capacitive coupling that is capable of being affected by touch or proximity of one or more objects to one or more sensing points being at the intersection of at least one drive line (105a; 505a) and at least one sense line (105b; 505b); drive circuitry that applies a first drive signal to a first drive line (105a; 505a) and applies a second drive signal to a second drive line (105a; 505a), the time period of the application of the first drive signal at least partially overlapping with the time period of the application of the second drive signal; and sense circuitry that detects a sense signal in at least one sense line (105b; 505b), characterized in that, the first and second drive signals have different frequencies. a touch sensitive surface (101; 501) having a plurality of sensing points, each sensing point being at the intersection of at least one of a plurality of drive lines (105a; 505a) and at least one of a plurality of sense lines (105b; 505b), wherein the relationship between a sense signal on a sense line (105b; 505b) and drive signals on the drive lines (105a; 505a) is a function of a capacitive coupling that is capable of being affected by touch or proximity of one or more objects to one or more sensing points being at the intersection of at least one drive line (105a; 505a) and at least one sense line (105b; 505b); drive circuitry that applies a first drive signal to a first drive line (105a; 505a) and applies a second drive signal to a second drive line (105a; 505a), the time period of the application of the first drive signal at least partially overlapping with the time period of the application of the second drive signal; and sense circuitry that detects a sense signal in at least one sense line (105b; 505b), characterized in that, the first and second drive signals have different frequencies.
A transistor control device for controlling a bi-directional power transistor, the transistor control device comprising: a resistor having one end connectable to a body terminal of the bi-directional power transistor; and a transistor body switch circuit connected to the other end of the resistor, connectable to a drain terminal of the bi-directional power transistor, and connectable to a source terminal of the bi-directional power transistor, wherein the transistor body switch circuit comprises two switch devices (110-1, 110-2) and two alternating current, AC, capacitive voltage dividers (112-, 112-2) respectively connected to the control terminals of the switch devices, and connectable between the drain terminal and the source terminal of the bi-directional power transistor and wherein the AC capacitive voltage dividers are configured to control the switch devices to switch a voltage of the one end of the resistor as a function of a voltage between the drain terminal of the bi-directional power transistor and the source terminal of the bi-directional power transistor. a resistor having one end connectable to a body terminal of the bi-directional power transistor; and a transistor body switch circuit connected to the other end of the resistor, connectable to a drain terminal of the bi-directional power transistor, and connectable to a source terminal of the bi-directional power transistor, wherein the transistor body switch circuit comprises two switch devices (110-1, 110-2) and two alternating current, AC, capacitive voltage dividers (112-, 112-2) respectively connected to the control terminals of the switch devices, and connectable between the drain terminal and the source terminal of the bi-directional power transistor and wherein the AC capacitive voltage dividers are configured to control the switch devices to switch a voltage of the one end of the resistor as a function of a voltage between the drain terminal of the bi-directional power transistor and the source terminal of the bi-directional power transistor.
A device for slubbing yarns comprising: - a linear element, extending transversally to a yarn path; - at least one yarn releasing slide (9; 9X; 9Y) for releasing the yarn, the yarn releasing slide having a yarn sliding surface that extends from the linear element and is inclined with respect to the linear element; - a cursor movable parallel to the linear element and configured so as to push the yarn along the inclined surface of the yarn releasing slide (9; 9X; 9Y); wherein the linear element has a longitudinal groove parallel to the longitudinal extension of the linear element, and wherein the sliding surface of the yarn releasing slide extends inside the longitudinal groove. - a linear element, extending transversally to a yarn path; - at least one yarn releasing slide (9; 9X; 9Y) for releasing the yarn, the yarn releasing slide having a yarn sliding surface that extends from the linear element and is inclined with respect to the linear element; - a cursor movable parallel to the linear element and configured so as to push the yarn along the inclined surface of the yarn releasing slide (9; 9X; 9Y);
Device for the treatment of a syngas, characterised in that said device comprises: - a feed chamber to which is connected a reactor, said feed chamber and said reactor each having an internal volume delimited by walls covered at least partially with refractory elements, said chamber and said reactor being in fluidic communication, - said feed chamber comprising a non-transferred-arc plasma torch having a main axis, with said torch intended to generate a plasma jet having a propagation axis substantially collinear with the main axis of said torch, - said feed chamber comprising an input port placed downstream of said torch plasma for the feeding of a syngas in such a way as to ensure that it is mixed with said plasma jet, - said reactor having a substantially cylindrical elongate shape, the longitudinal axis of said reactor being substantially collinear with the propagation axis of said plasma jet, said reactor comprising in its downstream portion an output port of said output gas, and in that - said feed chamber comprising a distribution chamber surrounding the internal volume of this chamber, said distribution chamber being on the one hand connected to an input port intended to receive the syngas to be treated and on the other hand comprising N orifices, with N being greater than 2, in communication with the internal volume of said chamber in order to distribute therein the syngas with flow speeds standardised by said distribution chamber. - a feed chamber to which is connected a reactor, said feed chamber and said reactor each having an internal volume delimited by walls covered at least partially with refractory elements, said chamber and said reactor being in fluidic communication, - said feed chamber comprising a non-transferred-arc plasma torch having a main axis, with said torch intended to generate a plasma jet having a propagation axis substantially collinear with the main axis of said torch, - said feed chamber comprising an input port placed downstream of said torch plasma for the feeding of a syngas in such a way as to ensure that it is mixed with said plasma jet, - said reactor having a substantially cylindrical elongate shape, the longitudinal axis of said reactor being substantially collinear with the propagation axis of said plasma jet, said reactor comprising in its downstream portion an output port of said output gas, and in that - said feed chamber comprising a distribution chamber surrounding the internal volume of this chamber, said distribution chamber being on the one hand connected to an input port intended to receive the syngas to be treated and on the other hand comprising N orifices, with N being greater than 2, in communication with the internal volume of said chamber in order to distribute therein the syngas with flow speeds standardised by said distribution chamber.
A method for encoding video comprising: obtaining video frames provided to an encoder; obtaining motion estimation data for the video frames; calculating a ME score for the video frames; comparing the ME score with a threshold; calculating a value of a metric, denoted as ME score temporal variability metric, from a temporal variability of the ME score; comparing the value of the ME score temporal variability metric with a predetermined value; and providing a high film grain indication signal to the encoder indicating a particular segment of the video frames contains high film grain when the ME score exceeds the threshold and the value of the ME score temporal variability metric is below a predetermined level. obtaining video frames provided to an encoder; obtaining motion estimation data for the video frames; calculating a ME score for the video frames; comparing the ME score with a threshold; calculating a value of a metric, denoted as ME score temporal variability metric, from a temporal variability of the ME score; comparing the value of the ME score temporal variability metric with a predetermined value; and providing a high film grain indication signal to the encoder indicating a particular segment of the video frames contains high film grain when the ME score exceeds the threshold and the value of the ME score temporal variability metric is below a predetermined level.
An information processing device, comprising: a recognition unit configured to recognize an object included in a real space so as to distinguish the object from a background on the basis of three-dimensional data of the real space in order to generate a virtual object image obtained by changing a state of the object; an image generation unit configured to generate the object image of the object recognized by the recognition unit; a change object generation unit configured to generate a virtual change object obtained by changing the state of the object; and a display control unit configured to control a display unit so that the display unit displays the object image generated by the image generation unit on a surface of the change object, wherein the image generation unit is configured to generate, on the basis of a portion corresponding to an exposed surface of the object in a captured image obtained by capturing an image of the real space, a second surface image obtained by estimating a surface of the object hidden in the captured image, and wherein the display control unit is configured to display the object image in which the second surface image is attached to a region of the change object which is newly exposed due to the change. a recognition unit configured to recognize an object included in a real space so as to distinguish the object from a background on the basis of three-dimensional data of the real space in order to generate a virtual object image obtained by changing a state of the object; an image generation unit configured to generate the object image of the object recognized by the recognition unit; a change object generation unit configured to generate a virtual change object obtained by changing the state of the object; and a display control unit configured to control a display unit so that the display unit displays the object image generated by the image generation unit on a surface of the change object, wherein the image generation unit is configured to generate, on the basis of a portion corresponding to an exposed surface of the object in a captured image obtained by capturing an image of the real space, a second surface image obtained by estimating a surface of the object hidden in the captured image, and wherein the display control unit is configured to display the object image in which the second surface image is attached to a region of the change object which is newly exposed due to the change.
A pulse generator for an indirect time of flight system comprising: a first counter configured to receive a phase setting sent from the outside of the pulse generator and determine a phase of a pulse to be outputted based on the phase setting, wherein the determined phase is usable for distance measurement to a distance measurement target using an input signal; aD-type flip-flop configured to receive the output of the first counter as a clock and output a value of an input from an output on the basis of the clock; an AND gate configured to receive a clock inputted to the pulse generator and an output of the D-type flip-flop; and a second counter, wherein the second counter is a programmable counter and is configured to count output clocks of the AND gate and determine a frequency of the pulse based on the count of the output clocks of the AND gate. a first counter configured to receive a phase setting sent from the outside of the pulse generator and determine a phase of a pulse to be outputted based on the phase setting, wherein the determined phase is usable for distance measurement to a distance measurement target using an input signal; aD-type flip-flop configured to receive the output of the first counter as a clock and output a value of an input from an output on the basis of the clock; an AND gate configured to receive a clock inputted to the pulse generator and an output of the D-type flip-flop; and a second counter, wherein the second counter is a programmable counter and is configured to count output clocks of the AND gate and determine a frequency of the pulse based on the count of the output clocks of the AND gate.
Masterbatch comprising a dimeric and/or trimeric cyclic ketone peroxide dispersed in a polymeric matrix with a porosity, expressed as percentage of voids on the volume of the matrix, of 0.1-80 vol% determined through mercury absorption according to ISO 15901-1, wherein said masterbatch comprises, per 100 g of polymeric matrix, 1-30 g dimeric and/or trimeric cyclic ketone peroxide and less than 0.20 g saturated hydrocarbons with 17-51 carbon atoms, wherein the amount of said saturated hydrocarbons in the masterbatch can be deteremined by extracting the masterbatch with heptane and analyzing the extract with gas chromatography.
A method for determining parameter of a satellite signal present in a coaxial cable, the method comprising the steps of: - aligning two capacitive coupling sensors (208, 209) in proximity to a length of the coaxial cable, wherein the distance between the capacitive coupling sensors (208, 209) is below 10 centimeters; - receiving from said two capacitive coupling sensors (208, 209) a signal being a differential voltage in the coaxial cable between the locations of the capacitive coupling sensors (208, 209), wherein the voltage is relative to a voltage level in said coaxial cable; - amplifying the differential voltage by a bandpass amplifier; - detecting, based on said amplified differential voltage, a valid DiSEqC command sequence being indicative of signal quality; - outputting a signal being indicative of signal quality of said satellite signal to an indication means. - aligning two capacitive coupling sensors (208, 209) in proximity to a length of the coaxial cable, wherein the distance between the capacitive coupling sensors (208, 209) is below 10 centimeters; - receiving from said two capacitive coupling sensors (208, 209) a signal being a differential voltage in the coaxial cable between the locations of the capacitive coupling sensors (208, 209), wherein the voltage is relative to a voltage level in said coaxial cable; - amplifying the differential voltage by a bandpass amplifier; - detecting, based on said amplified differential voltage, a valid DiSEqC command sequence being indicative of signal quality; - outputting a signal being indicative of signal quality of said satellite signal to an indication means.
A vehicle seat comprising a backrest portion and a seating surface portion, each of which is arranged to be connected with a seat base portion, wherein the backrest portion is resiliently arranged and supported to be able to swivel with respect to the seat base portion, and wherein the seating surface portion is arranged to be able to move in at least a longitudinal direction of the seat frontwards and rearwards with respect to the seat base portion, wherein the backrest portion and the seating surface portion are operatively connected together via a first lever arrangement in such a way that the seating surface portion is able to move rearwards in the longitudinal direction of the seat when the backrest portion makes a suspending movement with respect to the seat base portion in a direction away from the seating surface portion, characterised in that an upper end of the backrest portion is able to move rearwards in the longitudinal direction of the seat when said suspending movement of the backrest portion is made with respect to the seat base portion in the direction away from the seating surface portion.
An inner diffuser case for use in a gas turbine engine, the inner diffuser case comprising: a circumferentially continuous structural cone having a variable wall thickness configured to reduce thermal induced stress, characterised in that the structural cone is centered about an axis, has a stress region subject to localized stresses, a compliance feature proximate the stress region, and a segment adjacent the compliance feature, and wherein the compliance feature has a first wall thickness that is less than a second wall thickness of the segment; a strut projecting radially inward from and engaged to the structural cone, wherein the stress region is proximate the strut; a flange coupled to the structural cone; a circumferentially continuous first portion, wherein the compliance feature and the segment are included in the circumferentially continuous first portion, and the flange is disposed upstream from the first portion and centered about the axis; and a second portion engaged to and concentrically disposed downstream from the first portion, wherein the second portion includes the localized stress region, wherein the compliance feature is circumferentially continuous and the segment is circumferentially continuous, and wherein the segment is located axially between the compliance feature and a flange for structural rigidity of the flange. a circumferentially continuous structural cone having a variable wall thickness configured to reduce thermal induced stress, characterised in that the structural cone is centered about an axis, has a stress region subject to localized stresses, a compliance feature proximate the stress region, and a segment adjacent the compliance feature, and wherein the compliance feature has a first wall thickness that is less than a second wall thickness of the segment; a strut projecting radially inward from and engaged to the structural cone, wherein the stress region is proximate the strut; a flange coupled to the structural cone; a circumferentially continuous first portion, wherein the compliance feature and the segment are included in the circumferentially continuous first portion, and the flange is disposed upstream from the first portion and centered about the axis; and a second portion engaged to and concentrically disposed downstream from the first portion, wherein the second portion includes the localized stress region, wherein the compliance feature is circumferentially continuous and the segment is circumferentially continuous, and wherein the segment is located axially between the compliance feature and a flange for structural rigidity of the flange.