mhurhangee/ep-ind-claims huggingface dataset:
An arrangement for guiding at least one moveable furniture part, in particular at least one furniture door or at least one drawer, relative to a stationary furniture part, comprising - at least one guide rail, to be mounted in particular to the stationary furniture part, and - at least one guide device, which can be coupled in particular to the at least one moveable furniture part, which has at least one, preferably substantially cylindrical, load-transmitting rolling body, wherein the at least one guide rail has at least one track on which the at least one load-transmitting rolling body is moveably mounted, the at least one track has at least one parking position (8, 9) for the at least one load-transmitting rolling body and the at least one parking position (8, 9) corresponds to an end position of the at least one moveable furniture part relative to the stationary furniture part, characterised in that the at least one load-transmitting rolling body and the at least one track at least in the region of the at least one parking position (8, 9) are so designed that in that region the at least one track is deformable to form a depression and the at least one load-transmitting rolling body is substantially stable in shape. - at least one guide rail, to be mounted in particular to the stationary furniture part, and - at least one guide device, which can be coupled in particular to the at least one moveable furniture part, which has at least one, preferably substantially cylindrical, load-transmitting rolling body,
Sensor for tripping a vehicle safety device, wherein - the sensor has a carrier element and a housing part which holds the carrier element, characterized in that - the housing part is composed of a softer material than the carrier element, - the housing part has two parallel rail sections (100, 105), and - the carrier element of the sensor is inserted or pushed between the two parallel rail sections (100, 105) and is held by the said rail sections. - the sensor has a carrier element and a housing part which holds the carrier element, characterized in that - the housing part is composed of a softer material than the carrier element, - the housing part has two parallel rail sections (100, 105), and - the carrier element of the sensor is inserted or pushed between the two parallel rail sections (100, 105) and is held by the said rail sections.
An aerosol-generating article for use with an electrically-operated aerosol-generating device, the article having a mouth end and a distal end upstream from the mouth end, the article comprising: a heat diffuser at the distal end of the article; and an aerosol-forming substrate downstream of the heat diffuser, wherein the heat diffuser comprises a non-combustible porous body for absorbing heat from an electric heating element such that, in use, air drawn through the aerosol-generating article from the distal end to the mouth end is heated by the heat absorbed in the porous body, the porous body being formed from a plug of porous material. a heat diffuser at the distal end of the article; and an aerosol-forming substrate downstream of the heat diffuser, wherein the heat diffuser comprises a non-combustible porous body for absorbing heat from an electric heating element such that, in use, air drawn through the aerosol-generating article from the distal end to the mouth end is heated by the heat absorbed in the porous body, the porous body being formed from a plug of porous material.
A charging device for electrically charging a member-to-be-charged of an image forming apparatus of an electrophotographic type, comprising: a corona charger provided with a charging electrode, said corona charger forms an opening closer to the member-to-be-charged than a charging electrode; a sheet-like member provided so that said sheet-like member can open and close the opening; characterized by further comprising movable means configured to move said sheet-like member in a long direction of the opening; and regulating member fixed to a leading end portion of said sheet-like member with respect to a closing movement direction of said sheet-like member, configured to regulate a shape of the leading end portion of said sheet-like member so that a central portion of said sheet-like member with respect to a short direction, perpendicular to the long direction, of the opening protrudes toward the charging electrode more than end portions of said sheet-like member. a corona charger provided with a charging electrode, said corona charger forms an opening closer to the member-to-be-charged than a charging electrode; a sheet-like member provided so that said sheet-like member can open and close the opening; characterized by further comprising movable means configured to move said sheet-like member in a long direction of the opening; and regulating member fixed to a leading end portion of said sheet-like member with respect to a closing movement direction of said sheet-like member, configured to regulate a shape of the leading end portion of said sheet-like member so that a central portion of said sheet-like member with respect to a short direction, perpendicular to the long direction, of the opening protrudes toward the charging electrode more than end portions of said sheet-like member.
An enclosure comprising: a housing including a cover and a base (26, 224), the cover having an open end positioned opposite from a closed end, the cover including a cover flange that extends around a periphery of the cover at the open end of the cover, the base being a hollow sleeve having an inner end and an outer end, the base including a base flange the extends around a periphery of the base at the inner end of the base; a clamp that receives the cover flange and the base flange to couple the cover and the base together; a sealing unit (48, 42a, 232) that fits within the base, the sealing unit (48, 42a, 232) defining a plurality of cable ports, the sealing unit (48, 42a, 232) including a sealant arrangement (52, 236) for sealing the cable ports and for providing a peripheral seal between the base and the cable sealing unit (48, 42a, 232); an actuator (56, 238) carried with the sealing unit (48, 42a, 232) for pressurizing the sealant arrangement (52, 236) within the base; the base lacking a permanent retention structure (55, 155a) at the outer end of the base for retaining the sealing unit (48, 42a, 232) in the base; the sealing unit (48, 42a, 232) being removable from the base by de-pressurizing the sealant arrangement (52, 236) and sliding the sealing unit (48, 42a, 232) outwardly from the base through the outer end of the base; and the cover being removable from the base without requiring the sealant arrangement (52, 236) to be de-pressurized. a housing including a cover and a base (26, 224), the cover having an open end positioned opposite from a closed end, the cover including a cover flange that extends around a periphery of the cover at the open end of the cover, the base being a hollow sleeve having an inner end and an outer end, the base including a base flange the extends around a periphery of the base at the inner end of the base; a clamp that receives the cover flange and the base flange to couple the cover and the base together; a sealing unit (48, 42a, 232) that fits within the base, the sealing unit (48, 42a, 232) defining a plurality of cable ports, the sealing unit (48, 42a, 232) including a sealant arrangement (52, 236) for sealing the cable ports and for providing a peripheral seal between the base and the cable sealing unit (48, 42a, 232); an actuator (56, 238) carried with the sealing unit (48, 42a, 232) for pressurizing the sealant arrangement (52, 236) within the base; the base lacking a permanent retention structure (55, 155a) at the outer end of the base for retaining the sealing unit (48, 42a, 232) in the base; the sealing unit (48, 42a, 232) being removable from the base by de-pressurizing the sealant arrangement (52, 236) and sliding the sealing unit (48, 42a, 232) outwardly from the base through the outer end of the base; and the cover being removable from the base without requiring the sealant arrangement (52, 236) to be de-pressurized.
Measurement equipment comprising a probe for observing objects moving along a longitudinal direction, preferably for carrying out a spatially resolved spectroscopic analysis on said objects, a triggering device offset from the probe along the longitudinal direction, and a control unit; the probe comprising: • a surface extending along the longitudinal direction and along a lateral direction perpendicular to the longitudinal direction, • one or more first optical fibres opening out onto said surface and arranged to emit electromagnetic radiation from at least one source, each first optical fibre having a first acceptance cone, • second optical fibres opening out onto said surface, and arranged to capture electromagnetic radiation and transmit it to a receiving device, each second optical fibre having a second acceptance cone, the second optical fibres being offset from the first optical fibre or fibres along the longitudinal direction and located on a same side of the first optical fibre or fibres; the probe being such that at least one of the second acceptance cones intersects at least one first acceptance cone at less than 10 mm of said surface; the triggering device being configured to detect the moving objects; and the measurement equipment being configured to activate the observation of the objects by the probe in response to their detection by the triggering device. • a surface extending along the longitudinal direction and along a lateral direction perpendicular to the longitudinal direction, • one or more first optical fibres opening out onto said surface and arranged to emit electromagnetic radiation from at least one source, each first optical fibre having a first acceptance cone, • second optical fibres opening out onto said surface, and arranged to capture electromagnetic radiation and transmit it to a receiving device, each second optical fibre having a second acceptance cone, the second optical fibres being offset from the first optical fibre or fibres along the longitudinal direction and located on a same side of the first optical fibre or fibres; the probe being such that at least one of the second acceptance cones intersects at least one first acceptance cone at less than 10 mm of said surface; the triggering device being configured to detect the moving objects; and the measurement equipment being configured to activate the observation of the objects by the probe in response to their detection by the triggering device. the probe being such that at least one of the second acceptance cones intersects at least one first acceptance cone at less than 10 mm of said surface; the triggering device being configured to detect the moving objects; and the measurement equipment being configured to activate the observation of the objects by the probe in response to their detection by the triggering device.
A method for controlling a vapour compression system, the vapour compression system comprising a compressor unit, a heat rejecting heat exchanger, an ejector comprising a primary inlet, a secondary inlet and an outlet, a receiver, at least one expansion device and at least one evaporator, arranged in a refrigerant path, the method comprising the steps of: - obtaining a temperature of refrigerant leaving the heat rejecting heat exchanger, characterized in that the method further comprises the steps of: - deriving a reference pressure value of refrigerant leaving the heat rejecting heat exchanger, based on the obtained temperature of refrigerant leaving the heat rejecting heat exchanger, - obtaining a pressure difference between a pressure prevailing in the receiver and a pressure of refrigerant leaving the evaporator, - comparing the pressure difference to a predefined first lower threshold value, - in the case that the pressure difference is higher than the first lower threshold value, controlling the vapour compression system on the basis of the derived reference pressure value, and in order to obtain a pressure of refrigerant leaving the heat rejecting heat exchanger which is equal to the derived reference pressure value, and - in the case that the pressure difference is lower than the first lower threshold value, selecting a fixed reference pressure value corresponding to a derived reference pressure value when the pressure difference is at a predefined level which is essentially equal to the first lower threshold value, and controlling the vapour compression system on the basis of the selected fixed reference pressure value, and in order to obtain a pressure of refrigerant leaving the heat rejecting heat exchanger which is equal to the selected fixed reference pressure value. - obtaining a temperature of refrigerant leaving the heat rejecting heat exchanger, - deriving a reference pressure value of refrigerant leaving the heat rejecting heat exchanger, based on the obtained temperature of refrigerant leaving the heat rejecting heat exchanger, - obtaining a pressure difference between a pressure prevailing in the receiver and a pressure of refrigerant leaving the evaporator, - comparing the pressure difference to a predefined first lower threshold value, - in the case that the pressure difference is higher than the first lower threshold value, controlling the vapour compression system on the basis of the derived reference pressure value, and in order to obtain a pressure of refrigerant leaving the heat rejecting heat exchanger which is equal to the derived reference pressure value, and - in the case that the pressure difference is lower than the first lower threshold value, selecting a fixed reference pressure value corresponding to a derived reference pressure value when the pressure difference is at a predefined level which is essentially equal to the first lower threshold value, and controlling the vapour compression system on the basis of the selected fixed reference pressure value, and in order to obtain a pressure of refrigerant leaving the heat rejecting heat exchanger which is equal to the selected fixed reference pressure value.
A lightning protection structure of a blade for wind power generation, comprising: a lightning receptor made of an electrical conductive material and configured to form a part of a surface of the blade; and a lightning receiving protrusion configured to protrude outward from a surface of the lightning receptor, such that the lightning receptor forms a tip of a blade body made of fiber reinforced plastic, and that the lightning receiving protrusion is placed in the vicinity of a surface boundary between a blade body and the lightning receptor, such that at least a portion of the surface boundary configured to protect against lightning is positioned within a radius of a circle, which is centered on a tip of the lightning receiving protrusion and which has a radius of twice a length of the lightning receiving protrusion, characterized in that the distance between the lightning receiving protrusion and the surface boundary in an axial direction of the blade is 10 to 150 mm. a lightning receptor made of an electrical conductive material and configured to form a part of a surface of the blade; and a lightning receiving protrusion configured to protrude outward from a surface of the lightning receptor, such that the lightning receptor forms a tip of a blade body made of fiber reinforced plastic, and that the lightning receiving protrusion is placed in the vicinity of a surface boundary between a blade body and the lightning receptor, such that at least a portion of the surface boundary configured to protect against lightning is positioned within a radius of a circle, which is centered on a tip of the lightning receiving protrusion and which has a radius of twice a length of the lightning receiving protrusion, characterized in that the distance between the lightning receiving protrusion and the surface boundary in an axial direction of the blade is 10 to 150 mm.
A polarity reversal protection device for motor vehicles, with a detection device, a first connection element electrically connected to a supply tap, a second connection device having the electrical potential of the vehicle frame, wherein in the case of a polarity reversal, the first connection element is electrically connected to the second connection element via the detection device, wherein an insulating layer is arranged between the first connection element and the second connection element, characterized in that each of the connection elements (22, 24) has at least one receptacle (36, 38), and that the detection device is at least positively engaged in at least one receptacle (36, 38).
A vehicle environment detection system arranged to detect at least one radar detection (12, 13) for an object outside a vehicle, the vehicle environment detection system comprising at least one radar system, at least one stereo camera device and at least one processing unit, where, for each radar detection (12, 13), said radar system is arranged to obtain at least one azimuth detection angle (φ d, θ 1, θ 2) with respect to an x-axis (7, 14) extending from the vehicle in its forward running direction, wherein an y-axis extends in a direction perpendicular to the x-axis forming an x,y-coordinate system with an origin (x 0, y 0) whose position is known, and a detected Doppler velocity component (v D1, v D2) that is constituted by detected Doppler velocity with respect to the radar system, characterized in that said processing unit is arranged to obtain at least one stereo camera detection (12', 13') from said stereo camera device, and where a sum of the number of radar detections (12, 13) and the number of stereo camera detections (12', 13') is at least three, where furthermore the vehicle environment detection system is arranged to calculate a two-dimensional motion state of the target object by solving the linear equation system v D 1 ⋮ v DN v y 1 ′ ⋮ v yM ′ = x S sin θ 1 − y S cos θ 1 cos θ 1 sin θ 1 ⋮ ⋮ ⋮ x S sin θ N − y S cos θ N cos θ N sin θ N x 1 ′ 0 1 ⋮ ⋮ ⋮ x M ′ 0 1 ω v x 0 v y 0, where v D1... v DN are detected Doppler velocity components for each radar detection (12, 13), θ 1... θ N are detected azimuth detection angles for each radar detection (12, 13), v y1 '... v yM ' are determined velocity y-components for each stereo camera detection (12', 13'), x s is an x-coordinate of the position of the radar system with respect to the origin (x 0,y 0), y s is a y-coordinate of the position of the radar system with respect to the origin (x 0,y 0), x c is the x-position of the position (x c, y c) of said stereo camera device with respect to the origin (x 0,y 0) and x 1 '... x M ' is an x-coordinate for each stereo camera detection (12', 13') with respect to the origin (x 0, y 0) and x 1 '... x M ' being each the sum of the respective distance measured per stereo camera detection by the stereo camera device in direction of the x-axis and the x-position x c of the stereo camera device, where furthermore, for the origin (x 0, y 0) of the x-axis and the y-axis, v x0 is the velocity x-component and v y0 is the velocity y-component for the velocity vector v 0 of the origin (x 0, y 0) and ω is an angular velocity of the object with respect to said origin (x 0, y 0), where the two-dimensional motion state of the object is expressed by means of the velocity vector v 0 at the known position (x 0,y 0) of the origin and the corresponding angular velocity ω of the object around said origin (x 0,y 0)..
A dynamic light source for a display, the light source comprising a first light source located inside a first device; a second light source; wherein the first device is configured to allow light from the first light source to exit the first device in a first cone of angles and to reflect light incident outside the cone of angles back towards the first light source; wherein the first device is configured such that injected light from the second light source is reflected by the first light source in a second cone of angles substantially coincident with the first cone of angles and that light output by the first device from the second light source is attenuated more than light output by the first light source, and an amount of attenuation is based on an intended dynamic power range of the dynamic light source, wherein the attenuation is greater than a factor of 10. a first light source located inside a first device; a second light source; wherein the first device is configured to allow light from the first light source to exit the first device in a first cone of angles and to reflect light incident outside the cone of angles back towards the first light source; wherein the first device is configured such that injected light from the second light source is reflected by the first light source in a second cone of angles substantially coincident with the first cone of angles and that light output by the first device from the second light source is attenuated more than light output by the first light source, and an amount of attenuation is based on an intended dynamic power range of the dynamic light source, wherein the attenuation is greater than a factor of 10.
A water heater comprising a tank intended to contain water and a heating means for heating the water stored in said tank, said water heater comprising a dry anti-heating safety device (20, 30), able to detect the presence of water in the tank, said device (20, 30) including an electrical circuit (21, 31) provided with an energy source (22, 32) and a detection element (23, 33) for detecting the presence of water in the tank, the water present in the tank electrically closing said circuit (21, 31) and activating said detection element (23, 33), characterized in that the tank comprises an inner tube emerging to the outside of said tank and allowing detection of complete filling of said tank with water, and in that the safety device (20, 30) is placed below the tank at an outlet of said inner tube.
Tool turret, in particular intended for use with a machine tool, having a pivotable tool disc, which has on its outer circumference a plurality of receptacles for holders provided with machining tools, said holders being attached to the tool disc in an exchangeable manner by means of a fixing device and, each swivelled into a working position, permit the assigned machining tool to be driven by means of a drive, which for this purpose can be coupled to a driven shaft of the respective holder by means of a coupling device, characterised in that the clamping device can be actuated by means of this drive when said drive is disengaged while the machining tool is stopped, and in that the clamping device has a pawl arrangement with control pawls and latching pawls which are assigned to each other in pairs and can be actuated by an actuating device in such a manner that, in their latched position, they connect a holder to the tool disc and, in their released position, release this holder.
Controller comprising a control unit (2, 5), which is in communication connection with at least one input and/or output unit via a data transmission channel (3, 6) for exchange of process data, characterized in that the controller comprises predetermined power-saving process data for power-saving states (E n) assigned to the input/output units, and is adapted to access the predetermined power-saving process data instead of the exchanged process data when being in the power-saving state, wherein the predetermined power-saving process data is assigned to individual channels (11a, 11b,..., 11n) of the input/output units, and wherein the control unit (2, 5) is adapted to switch selected channels (11a, 11b,..., 11n) of the input/output units to a power-saving state, wherein for the selected channels (11a, 11b,..., 11n) instead of using process data of the respective channel (11a, 11b,..., 11n) the assigned predetermined power-saving process data is used.