mhurhangee/ep-ind-claims huggingface dataset:
A motorised lock device (100, 200, 300, 400) comprising a rotatable lock shaft configured for mounting to a cylinder lock of a building door, such that in use, rotation of the lock shaft operates a lock bolt associated with the cylinder lock, the device further comprising a coupling bush (130, 230, 330, 430) mounted around the lock shaft, and a gear wheel (140, 240. 340, 440) mounted around the coupling bush, which engages therewith via an engagement member (145, 245, 345, 445a, 445b) that extends in a radially inward direction, whereby the gear wheel is drivable by a pinion gear mounted to an output shaft of an electric motor; characterized in that: • the coupling bush is displaceable in axial direction between a disengaged position and an engaged position in which the bush (130, 230, 330, 430) and the gear wheel (140, 240, 340, 440) are rotationally coupled to the lock shaft via an axially compressible engagement mechanism that engages with the coupling bush at a first end thereof; • axial displacement of the coupling bush towards the engaged position is effected by driven rotation of the gear wheel (140, 240, 340, 440), via cooperation between at least one first cam (335, 438) provided on the coupling bush and at least at least one second cam (145, 245, 345, 417) provided on a further component of the lock device, whereby at least one of the first and second cams comprises a ramp surface (135, 235, 347, 417a, 417b) inclined in axial direction, and whereby the lock device is provided with anti-rotation means, which prevent rotation of the coupling bush during displacement from the disengaged position towards the engaged position; and • the lock device further comprises a return mechanism (136, 250) for returning the coupling bush from the engaged position to the disengaged position. • the coupling bush is displaceable in axial direction between a disengaged position and an engaged position in which the bush (130, 230, 330, 430) and the gear wheel (140, 240, 340, 440) are rotationally coupled to the lock shaft via an axially compressible engagement mechanism that engages with the coupling bush at a first end thereof; • axial displacement of the coupling bush towards the engaged position is effected by driven rotation of the gear wheel (140, 240, 340, 440), via cooperation between at least one first cam (335, 438) provided on the coupling bush and at least at least one second cam (145, 245, 345, 417) provided on a further component of the lock device, whereby at least one of the first and second cams comprises a ramp surface (135, 235, 347, 417a, 417b) inclined in axial direction, and whereby the lock device is provided with anti-rotation means, which prevent rotation of the coupling bush during displacement from the disengaged position towards the engaged position; and • the lock device further comprises a return mechanism (136, 250) for returning the coupling bush from the engaged position to the disengaged position.
Device for mounting a brake pad in the housings of a disk brake yoke, said brake pad comprising at two of its ends two mounting ears (10, 10') and each ear being capable of being mounted in a housing (11, 11') of a disk brake yoke, the device comprising, for each pad ear, a first spring of linear or lamella shape, intended to bear, on the one hand, below a lower face of the ear and, on the other hand, on the lower face of the housing of the yoke so as to separate the lower face of the ear from the lower face of the housing, characterized in that said spring comprises: - a first bearing limb placed against the lower face of the ear of the pad, - a second sliding limb intended to be in contact with the lower face of the housing, this limb having a curved shape, being located parallel to a plane perpendicular to the plane of the ear and having a convex surface intended to slide on said lower face of the housing, - a third limb and a fourth limb connected to one another and making it possible to connect the first limb to the second limb to separate them from one another. - a first bearing limb placed against the lower face of the ear of the pad, - a second sliding limb intended to be in contact with the lower face of the housing, this limb having a curved shape, being located parallel to a plane perpendicular to the plane of the ear and having a convex surface intended to slide on said lower face of the housing, - a third limb and a fourth limb connected to one another and making it possible to connect the first limb to the second limb to separate them from one another.
A method for detecting at least one glitch in an electrical signal, said method comprising: - generating, from said electrical signal, at least one digital oscillating signal which is sensitive to glitches; and - performing the following steps as a repeatable round: - assigning a time window to at least one digital oscillating signal, said time window being implemented on the basis of a clock signal substantially insensitive to said at least one glitch to be detected; - determining from said time window a sampling value of the digital oscillating signal, said sampling value being characteristic of said digital oscillating signal throughout its time window; - detecting any potential glitch in said electrical signal by comparing said sampling value with an expected reference value; and - outputting a response typifying a result of the comparison step. - generating, from said electrical signal, at least one digital oscillating signal which is sensitive to glitches; and - performing the following steps as a repeatable round: - assigning a time window to at least one digital oscillating signal, said time window being implemented on the basis of a clock signal substantially insensitive to said at least one glitch to be detected; - determining from said time window a sampling value of the digital oscillating signal, said sampling value being characteristic of said digital oscillating signal throughout its time window; - detecting any potential glitch in said electrical signal by comparing said sampling value with an expected reference value; and - outputting a response typifying a result of the comparison step. - assigning a time window to at least one digital oscillating signal, said time window being implemented on the basis of a clock signal substantially insensitive to said at least one glitch to be detected; - determining from said time window a sampling value of the digital oscillating signal, said sampling value being characteristic of said digital oscillating signal throughout its time window; - detecting any potential glitch in said electrical signal by comparing said sampling value with an expected reference value; and - outputting a response typifying a result of the comparison step.
Sanitary insert part comprising: a) a main body which can be inserted into an outlet opening of a sanitary fitting, b) an inlet opening formed on the main body on the inflow side, at which opening a hose holder is formed, on which a connecting hose can be connected to the main body, c) a jet and/or flow regulator unit arranged on the main body downstream of the inlet opening in a flow path, and comprising d) a fastening means which is configured for tension-resistant fastening of the connecting hose on the main body, and by way of which the connecting hose can be captively fastened to the main body, wherein the connecting hose can be plug-connected to the hose holder and to this end can be plugged into the hose holder configured as an aperture, and wherein the connecting hose can be locked or secured in the hose holder using the fastening means, such that the connecting hose is captively fastened to the main body, which is formed as one piece, characterised in that the hose holder is integrally formed on the jet and/or flow regulator unit. a) a main body which can be inserted into an outlet opening of a sanitary fitting, b) an inlet opening formed on the main body on the inflow side, at which opening a hose holder is formed, on which a connecting hose can be connected to the main body, c) a jet and/or flow regulator unit arranged on the main body downstream of the inlet opening in a flow path, and comprising d) a fastening means which is configured for tension-resistant fastening of the connecting hose on the main body, and by way of which the connecting hose can be captively fastened to the main body, wherein the connecting hose can be plug-connected to the hose holder and to this end can be plugged into the hose holder configured as an aperture, and wherein the connecting hose can be locked or secured in the hose holder using the fastening means, such that the connecting hose is captively fastened to the main body, which is formed as one piece, characterised in that the hose holder is integrally formed on the jet and/or flow regulator unit.
Visual time-temperature indicator which comprises a first and a second element each comprising a hydrogel, wherein said first element further comprises at least one alkalinizing agent and said second element further comprising at least one food colouring, wherein said first and second elements are at least partially in contact with each other through a contact surface, wherein each hydrogel comprises a gelatine of animal or plant origin with a Bloom number comprised between 200 and 350, preferably comprised between 225 and 325.
A shape extraction method comprising: a step of receiving image data of a projective image that has been acquired by radiation projection to an object; a step of using a predetermined mesh structure to acquire a cross-sectional image of the object from the image data of the projective image by computed tomography reconstruction using tomography; a step of causing a lattice point, that forms the mesh structure for the computed tomography reconstruction, to move in conformity with the surface shape of the object, based on the cross-sectional image that has been acquired by the computed tomography reconstruction; and a step of carrying out step using a mesh that has had position of the lattice point corrected using step to acquire the cross sectional image again, and then repeatedly executing step and step as many times as required, wherein the mesh structure is a tetrahedral mesh for producing a three-dimensional shape. a step of receiving image data of a projective image that has been acquired by radiation projection to an object; a step of using a predetermined mesh structure to acquire a cross-sectional image of the object from the image data of the projective image by computed tomography reconstruction using tomography; a step of causing a lattice point, that forms the mesh structure for the computed tomography reconstruction, to move in conformity with the surface shape of the object, based on the cross-sectional image that has been acquired by the computed tomography reconstruction; and a step of carrying out step using a mesh that has had position of the lattice point corrected using step to acquire the cross sectional image again, and then repeatedly executing step and step as many times as required,
A scintillator material for an ionizing radiation detector comprising an inorganic crystalline cation halide comprising at least one cation other than Eu 2+ and Sm 2+, which is doped with Eu 2+ and co-doped with Sm 2+, said cation halide comprising at least one halogen selected from Br, Cl, I, at least 60 mol%, and more preferably at least 80 mol%, of the halogen atoms of the cation halide are selected from Br, Cl, I and if it is present, the alkali metal K is not the only cation in the cation halide.
An edge-emitting semiconductor laser (200,300) for reducing a transverse second order mode, the laser comprising: a substrate; an active region arranged over the substrate, wherein the active region includes one or more quantum wells, the active region emitting a primary mode as a main mode and the transverse second order mode as a side mode; a planar slab waveguide layer (202,302) arranged over the substrate and having a thickness such that the waveguide layer is especially associated with the second order mode such that a strength of optical coupling between the waveguide layer and the transverse second order mode is stronger than the strength of optical coupling between the waveguide layer and the primary mode, wherein the active region is arranged over the waveguide layer; a grating arranged over the active region; and a ridge arranged over the grating. a substrate; an active region arranged over the substrate, wherein the active region includes one or more quantum wells, the active region emitting a primary mode as a main mode and the transverse second order mode as a side mode; a planar slab waveguide layer (202,302) arranged over the substrate and having a thickness such that the waveguide layer is especially associated with the second order mode such that a strength of optical coupling between the waveguide layer and the transverse second order mode is stronger than the strength of optical coupling between the waveguide layer and the primary mode, wherein the active region is arranged over the waveguide layer; a grating arranged over the active region; and a ridge arranged over the grating.
A method, performed by a MOS, Mean Opinion Score, estimator, for predicting a multimedia session MOS, wherein the multimedia comprises a video and an audio, wherein video quality is represented by a list of per time unit scores of a video quality of the multimedia session, an initial buffering event and rebuffering events in the video of the multimedia session, and wherein audio quality is represented by a list of per time unit scores of audio quality of the multimedia session, the method comprising: generating video features from the list of per time unit scores of the video quality, wherein the video features comprise at least one of: a first percentile of the per unit time scores of the video quality, a fifth percentile of the per unit time scores of the video quality and a fifteenth percentile of the per unit time scores of the video quality; generating audio features from the list of per time unit scores of the audio quality, wherein the audio features comprise at least one of an average of the first half, of the session, of the per time unit audio score and an average of the second half, of the session, of the per time unit audio score; generating buffering features from the initial buffering event and rebuffering events in the video of the multimedia session, wherein the buffering features comprise at least one of: a total buffering time, number of rebuffering events, a percentage of buffering time divided by video time, a frequency of rebuffering events and a last seen rebuffering from the end of the video; and estimating a multimedia session MOS from the generated video features, generated audio features and generated buffering features using a random forest model. generating video features from the list of per time unit scores of the video quality, wherein the video features comprise at least one of: a first percentile of the per unit time scores of the video quality, a fifth percentile of the per unit time scores of the video quality and a fifteenth percentile of the per unit time scores of the video quality; generating audio features from the list of per time unit scores of the audio quality, wherein the audio features comprise at least one of an average of the first half, of the session, of the per time unit audio score and an average of the second half, of the session, of the per time unit audio score; generating buffering features from the initial buffering event and rebuffering events in the video of the multimedia session, wherein the buffering features comprise at least one of: a total buffering time, number of rebuffering events, a percentage of buffering time divided by video time, a frequency of rebuffering events and a last seen rebuffering from the end of the video; and estimating a multimedia session MOS from the generated video features, generated audio features and generated buffering features using a random forest model.
A heat exchanger comprising: a plurality of fins; a plurality of tubes passing a fluid therethrough, extending through the plurality of fins and radially expanded into an interference fit therewith, a least one tube of the plurality of tubes including: an outer diameter; an inner diameter; and a plurality of ridges extending from the inner diameter inwardly into an interior of the tube; characterised in that after expansion of the tube into interference fit with the plurality of fins, a tube internal surface area per unit of length of the tube multiplied by the ratio of the outer diameter to the inner diameter and divided by a tube wall thickness, is equal to or greater than 30.0. a plurality of fins; a plurality of tubes passing a fluid therethrough, extending through the plurality of fins and radially expanded into an interference fit therewith, a least one tube of the plurality of tubes including: an outer diameter; an inner diameter; and a plurality of ridges extending from the inner diameter inwardly into an interior of the tube; characterised in that after expansion of the tube into interference fit with the plurality of fins, a tube internal surface area per unit of length of the tube multiplied by the ratio of the outer diameter to the inner diameter and divided by a tube wall thickness, is equal to or greater than 30.0. an outer diameter; an inner diameter; and a plurality of ridges extending from the inner diameter inwardly into an interior of the tube; characterised in that after expansion of the tube into interference fit with the plurality of fins, a tube internal surface area per unit of length of the tube multiplied by the ratio of the outer diameter to the inner diameter and divided by a tube wall thickness, is equal to or greater than 30.0.
Method for controlling a warning system which is a virtual-reality system comprising a virtual-reality device (2, 3a, 3b), the method comprising, in the warning system: - the device receiving, when it is worn by a user, a wireless signal sent to a surface which the user is on, the range of which defines, on the surface, a plurality of regions comprising a first region without a warning and a second region (9b, 9c) with a warning, a characteristic relating to the sent signal being able to take a value corresponding to the second region, referred to as the first value; - upon the device detecting the characteristic having the first value, obtaining a warning signal, and - transmitting the warning signal to a control unit for the warning system in order to notify the user, characterized in that: the characteristic relating to the sent signal may, furthermore, take a second value corresponding to the first region, the method comprising, furthermore, upon receiving the sent signal with the characteristic having the second value corresponding to the first region, obtaining a non-warning signal. - the device receiving, when it is worn by a user, a wireless signal sent to a surface which the user is on, the range of which defines, on the surface, a plurality of regions comprising a first region without a warning and a second region (9b, 9c) with a warning, a characteristic relating to the sent signal being able to take a value corresponding to the second region, referred to as the first value; - upon the device detecting the characteristic having the first value, obtaining a warning signal, and - transmitting the warning signal to a control unit for the warning system in order to notify the user, characterized in that: the characteristic relating to the sent signal may, furthermore, take a second value corresponding to the first region, the method comprising, furthermore, upon receiving the sent signal with the characteristic having the second value corresponding to the first region, obtaining a non-warning signal.
Component, in particular for outdoor applications, comprising a plastic layer made from a UV-resistant plastic, for example from PMMA or ASA, having at least one surface that is subjected to exposure to water or water vapour and/or dirt particles when the component is in the mounted state, characterised in that a reservoir of non-polar or predominantly non-polar molecules (17a, 17b, 17c) capable of migration is disposed in the plastic layer as an additive in order to reduce surface tension on the surface.
A field-effect transistor (11, 12, 14), comprising: a base (21, 31, 91); a passivation layer; a gate insulating layer (23, 34, 93) formed between the base and the passivation layer; a source electrode (24, 35, 36, 94) and a drain electrode (25, 37, 38, 95); a semiconductor layer (26, 39, 40, 96), which is formed between at least the source electrode (24, 35, 36, 94) and the drain electrode (25, 37, 38, 95), and is in contact with the gate insulating layer (23, 34, 93), the source electrode (24, 35, 36, 94), and the drain electrode (25, 37, 38, 95); and a gate electrode (22, 32, 33, 92), which is in contact with the gate insulating layer (23, 34, 93), and faces the semiconductor layer (26, 39, 40, 96) via the gate insulating layer (23, 34, 93), wherein the passivation layer contains a first passivation layer (27a, 41a, 42a, 97a), which is formed of a first composite metal oxide containing Si, and an alkaline earth metal, and a second passivation layer (27b, 41b, 42b, 97b), which is formed to be in contact with the first passivation layer (27a, 41a, 42a, 97a), and is formed of a second composite metal oxide containing an alkaline earth metal, and a rare-earth element, wherein the first composite metal oxide further contains Al, or B, or both thereof, wherein the first passivation layer (27a, 41a, 42a, 97a) is formed on the semiconductor layer (26, 39, 40, 96) and the second passivation layer (27b, 41b, 42b, 97b) is formed on the first passivation layer (27a, 41a, 42a, 97a). a base (21, 31, 91); a passivation layer; a gate insulating layer (23, 34, 93) formed between the base and the passivation layer; a source electrode (24, 35, 36, 94) and a drain electrode (25, 37, 38, 95); a semiconductor layer (26, 39, 40, 96), which is formed between at least the source electrode (24, 35, 36, 94) and the drain electrode (25, 37, 38, 95), and is in contact with the gate insulating layer (23, 34, 93), the source electrode (24, 35, 36, 94), and the drain electrode (25, 37, 38, 95); and a gate electrode (22, 32, 33, 92), which is in contact with the gate insulating layer (23, 34, 93), and faces the semiconductor layer (26, 39, 40, 96) via the gate insulating layer (23, 34, 93), wherein the passivation layer contains a first passivation layer (27a, 41a, 42a, 97a), which is formed of a first composite metal oxide containing Si, and an alkaline earth metal, and a second passivation layer (27b, 41b, 42b, 97b), which is formed to be in contact with the first passivation layer (27a, 41a, 42a, 97a), and is formed of a second composite metal oxide containing an alkaline earth metal, and a rare-earth element,
Heatable media line having a tubular media line, at least one heating element (4, 5) arranged externally on the tubular media line, and at least one fixing device for fixing the position of the at least one heating element (4, 5) on the outside of the tubular media line, wherein, in order to prevent fixing agent from adhering to the outside of the tubular media line, there is provided at least one high-temperature-resistant film element made of a polymer material which can be exposed to temperatures of 150°C or more without being damaged, wherein the high-temperature-resistant film element is arranged on the outside of the tubular media line around which the at least one heating element (4, 5) is wound, wherein the high-temperature-resistant film element serves as the fixing device for fixing the at least one heating element (4, 5) to the outside of the tubular media line.