mhurhangee/patent-ind-claim-en huggingface dataset:
A filter device comprising a device housing that accommodates a filter element in a removable manner, which is provided with an element material that extends between two end members , of which at least one end member is provided with a wall member of a polygonal shape, which is inserted into an accommodating space of an accommodating member that is attached to the device housing , said accommodating member also having a polygon-shaped wall member , wherein the wall members with the polygon-shaped end member and accommodating member are disposed adjacent and opposite each other in the accommodating state, wherein the accommodating space is delimited outwards by its wall member with a polygonal shape, and wherein at least one further wall member with a circular shape, which delimits the accommodating space at least partially to the inside, passes through a circular transfer space in the adjacently disposed end member , characterized in that between the adjacently located, opposing wall members with the respective polygon shape of end member and accommodating member , a sealing means is disposed that seals the accommodating space towards the outside, and that a further sealing means on the end member forms the seal of the accommodating space towards the inside.
A controller for providing a location-based service to an area and to a mobile device associated with a person within said area, wherein the controller comprises a memory and a transceiver , wherein the controller is configured to: - obtain a location of the mobile device associated with the person ; - obtain sensor data from at least one sensor arranged for monitoring the person in the area when the obtained location of the mobile device is within the area ; wherein the at least one sensor is at least one of: a camera, a microphone, a radiofrequency antenna, a thermopile sensor, a PIR sensor, a motion sensor, a light sensor; - store the sensor data in the memory ; - forward, via the transceiver , the stored sensor data to the mobile device when the obtained location of the mobile device (20. 70) is no longer within the area , and subsequently delete the sensor data from the memory . - obtain a location of the mobile device associated with the person ; - obtain sensor data from at least one sensor arranged for monitoring the person in the area when the obtained location of the mobile device is within the area ; wherein the at least one sensor is at least one of: a camera, a microphone, a radiofrequency antenna, a thermopile sensor, a PIR sensor, a motion sensor, a light sensor; - store the sensor data in the memory ; - forward, via the transceiver , the stored sensor data to the mobile device when the obtained location of the mobile device (20. 70) is no longer within the area , and subsequently delete the sensor data from the memory .
An image forming apparatus , comprising a printer unit having an optical scanning device , a first temperature detector configured to detect a temperature of a first portion of the optical scanning device , the first portion being proximate to a heat generating element; a second temperature detector configured to detect a temperature of a second portion of the optical scanning device , the second portion being farther from the heat generating element than the first portion; and a controller configured to perform alignment control for correcting a color positional shift of the printer unit when either a detected temperature change of the first portion is greater than or equal to a first threshold value or a detected temperature change of the second portion is greater than or equal to a second threshold value, characterized in that the first threshold value is greater than the second threshold value. a first temperature detector configured to detect a temperature of a first portion of the optical scanning device , the first portion being proximate to a heat generating element; a second temperature detector configured to detect a temperature of a second portion of the optical scanning device , the second portion being farther from the heat generating element than the first portion; and a controller configured to perform alignment control for correcting a color positional shift of the printer unit when either a detected temperature change of the first portion is greater than or equal to a first threshold value or a detected temperature change of the second portion is greater than or equal to a second threshold value,
A method of encoding video data, the method comprising: generating an encoded video bitstream comprising multiple layers, the encoded video bitstream including a parameter set defining parameters of the encoded video bitstream; determining one or more parameters of the parameter set that include information describing a first sub-bitstream of the encoded video bitstream and information describing a second sub-bitstream of the encoded video bitstream, the first sub-bitstream including one or more layers with video data, and the second sub-bitstream including one or more layers with no video data; performing a sub-bitstream extraction process to generate the second sub-bitstream from the encoded video bitstream, wherein performing the sub-bitstream extraction process comprises removing at least one layer from the encoded video bitstream; and performing a bitstream conformance check on the first sub-bitstream based on the one or more layers of the first sub-bitstream having video data, wherein the bitstream conformance check is performed only on sub-bitstreams that include video data in all layers of the sub-bitstreams; determining that the bitstream conformance check not be performed on the second sub-bitstream, the determination based on the one or more layers of the second sub-bitstream having no video data, wherein the bitstream conformance check includes performing a test on the first sub-bitstream to ensure the first sub-bitstream is decodable, wherein the test comprises testing for underflow or overflow of a coded picture buffer when the bitstream is processed by a decoder. generating an encoded video bitstream comprising multiple layers, the encoded video bitstream including a parameter set defining parameters of the encoded video bitstream; determining one or more parameters of the parameter set that include information describing a first sub-bitstream of the encoded video bitstream and information describing a second sub-bitstream of the encoded video bitstream, the first sub-bitstream including one or more layers with video data, and the second sub-bitstream including one or more layers with no video data; performing a sub-bitstream extraction process to generate the second sub-bitstream from the encoded video bitstream, wherein performing the sub-bitstream extraction process comprises removing at least one layer from the encoded video bitstream; and performing a bitstream conformance check on the first sub-bitstream based on the one or more layers of the first sub-bitstream having video data, wherein the bitstream conformance check is performed only on sub-bitstreams that include video data in all layers of the sub-bitstreams; determining that the bitstream conformance check not be performed on the second sub-bitstream, the determination based on the one or more layers of the second sub-bitstream having no video data, wherein the bitstream conformance check includes performing a test on the first sub-bitstream to ensure the first sub-bitstream is decodable, wherein the test comprises testing for underflow or overflow of a coded picture buffer when the bitstream is processed by a decoder.
Method for filling a cooling module assigned to a transport container for transporting cooled products, with a coolant which, in normal use of the transport container , is brought into thermal contact with a product stored in a storage region of the transport container and in that context cools the product by making use of the enthalpy of vaporization, of fusion or of sublimation of the coolant , wherein prior to the beginning of use a gross mass value for the quantity of coolant to be supplied to the cooling module is calculated on the basis of the cooling duration, the difference between the storage temperature and the ambient temperature during use and the thermal transmission coefficients and geometry of the transport container , characterized in that prior to the beginning of use the mass of product stored in the storage region is determined, on the basis of the mass and the specific water content of the stored product , a value for the total mass of water in the product is calculated, on the basis of the total mass of water in the product and a tolerance temperature difference, an enthalpy value for the heating of the total mass of water in the product around tolerance temperature difference is determined, the enthalpy value for the heating of the total mass of water is related to the enthalpy of sublimation of coolant in order to calculate an equivalence mass value of coolant , the equivalence mass value is subtracted from the calculated gross mass value for the coolant to be supplied to the cooling module , and in this way a net mass value of coolant is determined and a mass of coolant corresponding to the net mass value is supplied to the cooling module .
A crucible assembly for physical vapor deposition on a surface comprising: - a base to support and drive in rotation a crucible around a rotational axis (A), the base comprising a base upper surface having a first alignment relief , - a crucible comprising: • at least one cavity for receiving a material to be vaporized by an electron beam gun on the surface , the at least one cavity being disposed at a peripheral area of the crucible with regard to the rotational axis (A), • a crucible bottom surface intended to contact the base upper surface of the base , the crucible bottom surface having a second alignment relief which is complementary shaped with regard to the first alignment relief so as to align both the base and the crucible with regard to the rotational axis (A) when the crucible bottom surface contacts the base upper surface and the first and second alignment reliefs are brought one into the other, the second alignment relief being disposed at a central area of the crucible with regard to the rotation axis (A). - a base to support and drive in rotation a crucible around a rotational axis (A), the base comprising a base upper surface having a first alignment relief , - a crucible comprising: • at least one cavity for receiving a material to be vaporized by an electron beam gun on the surface , the at least one cavity being disposed at a peripheral area of the crucible with regard to the rotational axis (A), • a crucible bottom surface intended to contact the base upper surface of the base , the crucible bottom surface having a second alignment relief which is complementary shaped with regard to the first alignment relief so as to align both the base and the crucible with regard to the rotational axis (A) when the crucible bottom surface contacts the base upper surface and the first and second alignment reliefs are brought one into the other, the second alignment relief being disposed at a central area of the crucible with regard to the rotation axis (A). • at least one cavity for receiving a material to be vaporized by an electron beam gun on the surface , the at least one cavity being disposed at a peripheral area of the crucible with regard to the rotational axis (A), • a crucible bottom surface intended to contact the base upper surface of the base , the crucible bottom surface having a second alignment relief which is complementary shaped with regard to the first alignment relief so as to align both the base and the crucible with regard to the rotational axis (A) when the crucible bottom surface contacts the base upper surface and the first and second alignment reliefs are brought one into the other, the second alignment relief being disposed at a central area of the crucible with regard to the rotation axis (A).
Tread of a tyre intended to be fitted to an off-road vehicle, this tread having a tread surface which is intended to come into contact with the ground when the tyre is running, this tread having a total width (W) and a total thickness of wearable material at least equal to 60 mm, this tread being delimited axially by shoulder regions , each shoulder region having a width comprised between 15% and 35% of the total width W of the tread and comprising a plurality of transverse or oblique grooves of depth P, these shoulder-region grooves being arranged in the circumferential direction with a mean spacing (D), this tread further comprising a central region centred on the equatorial mid-plane (XX') and in which region there is formed a narrow groove that occupies the entire width of this central region , this narrow groove , when said tread is new, being made up of an alternation of first narrow-groove parts and of second narrow-groove parts , these first and second narrow-groove parts being connected to each other by joining regions (A, B) of said narrow groove , the circumferential distance between two same joining regions axially on the inside of which a first groove part and a second groove part can be found being equal to the mean spacing (D) of the shoulder-region grooves , this tread comprising, between each shoulder region and the central region , an intermediate region in which there are formed a plurality of oblique or transverse narrow grooves , that is to say grooves the mean orientation of which makes an angle at most equal to 60 degrees with the axial direction, each of these narrow grooves beginning in a joining region (A, B) of the narrow groove of the central region to reconnect into a transverse or oblique groove formed in one of the shoulder regions , this tread when new being characterized in that: - the narrow groove of the central region is made up of first narrow-groove parts of depth P1 and of second narrow-groove parts of depth P2, the depth P1 being greater than the depth P2, these depths P1 and P2 being less than the depth P of the grooves in the shoulder regions , and in that - the narrow grooves of one same intermediate region comprise, in the circumferential direction, an alternation of narrow grooves of a first depth P11 and of narrow grooves of a second depth P22, these depths P11 and P22 being less than the depth P of the grooves in the shoulder regions . - the narrow groove of the central region is made up of first narrow-groove parts of depth P1 and of second narrow-groove parts of depth P2, the depth P1 being greater than the depth P2, these depths P1 and P2 being less than the depth P of the grooves in the shoulder regions , and in that - the narrow grooves of one same intermediate region comprise, in the circumferential direction, an alternation of narrow grooves of a first depth P11 and of narrow grooves of a second depth P22, these depths P11 and P22 being less than the depth P of the grooves in the shoulder regions .
A method of detecting islanding operation of a distributed power generator (DG), wherein the method comprises determining a frequency of a grid 2. (LG) to which the distributed power generator is connected, measuring a rate of change of the frequency of the grid at an output of the distributed power generator, determining a threshold value for the rate of change of frequency, comparing the rate of change of the frequency of the grid with the threshold value, and detecting islanding operation when the measured rate of change of the frequency exceeds the threshold value for a certain time period, characterized in that the threshold value for the rate of change of the frequency of the grid is determined by forming an envelope curve from absolute values of a momentary rate of change of the frequency, averaging the formed envelope curve, and multiplying the averaged curve by a constant higher than one for obtaining the threshold value.
An image forming apparatus including a housing and an operation panel , wherein the operation panel is provided so as to be movable between two side faces (14a and 14b) of the housing and is arranged flush with the side face (14a or 14b), wherein the operation panel is provided so as to be slid between storing recessed parts (15a and 15b) formed continuously in the two side faces (14a and 14b) being adjacent to each other of the housing and to become flush with the side face (14a or 14b) in a state being stored in the storing recessed part (15a or 15b) by sliding, in the storing recessed parts (15a and 15b), a rail part over between the two side faces (14a and 14b) is arranged, the operation panel includes an engaging part engaging with the rail part to slide along the rail part , the rail part includes a slit groove having an L-shape, the engaging part is configured to include a columnar shaft part penetrating through the slit groove upwardly/downwardly, and a disk-formed stopper part formed in an upper end of the shaft part and having a larger diameter than an outer diameter of the shaft part and a width of the slit groove , when the engaging part is moved to a bent part of the slit groove , the operation panel is turned around the engaging part . the operation panel is provided so as to be movable between two side faces (14a and 14b) of the housing and is arranged flush with the side face (14a or 14b), wherein the operation panel is provided so as to be slid between storing recessed parts (15a and 15b) formed continuously in the two side faces (14a and 14b) being adjacent to each other of the housing and to become flush with the side face (14a or 14b) in a state being stored in the storing recessed part (15a or 15b) by sliding, in the storing recessed parts (15a and 15b), a rail part over between the two side faces (14a and 14b) is arranged, the operation panel includes an engaging part engaging with the rail part to slide along the rail part , the rail part includes a slit groove having an L-shape, the engaging part is configured to include a columnar shaft part penetrating through the slit groove upwardly/downwardly, and a disk-formed stopper part formed in an upper end of the shaft part and having a larger diameter than an outer diameter of the shaft part and a width of the slit groove , when the engaging part is moved to a bent part of the slit groove , the operation panel is turned around the engaging part .
Bottle box with a floor , a receiving device (40; 44) for bottles and several side walls defining a bottle box opening , characterised in that a side wall (6-1) or at least a substantial part thereof is articulated on the bottle box such that it can be swivelled over the bottle box opening in the direction, preferably completely, to the oppositely-situated side wall (6-2), the floor on the side of the side wall (6-1) forms a drawn-up floor edge; and the swivellable side wall (6-1) has at the centre of its lower edge a U-shaped recess which in interaction with a correspondingly-formed depression in the drawn-up bottom edge serves as a grip opening and facilitates the folding up of the side wall (6-1).
A heating core for a hot air gun, the heating core comprising: a mount support ; and a heating wire arranged on the mount support ; wherein the heating wire includes a close wound segment on a surface of which an insulating layer is provided, wherein an interval between adjacent heating wires in the close wound segment is D, 0≤D≤2mm, and a longitudinal section of the mount support is in a cross shape, wherein four close wound segments are provided and distributed at four inner angles of the mount support ; or, the longitudinal section of the mount support is in a Y shape, wherein three close wound segments are provided and distributed at three inner angles of the mount support ; or, the longitudinal section of the mount support is in a "*" shape, wherein five close wound segments are provided and distributed at five inner angles of the mount support ; or, the longitudinal section of the mount support is in a " " shape, wherein six close wound segments are provided and distributed at six inner angles of the mount support ; or, the longitudinal section of the mount support is in a " " shape, wherein eight close wound segments are provided and distributed at eight inner angles of the mount support characterized in that an insulating heat concentrating element is arranged inside a hollow cavity of the close wound segment . a mount support ; and a heating wire arranged on the mount support ; wherein the heating wire includes a close wound segment on a surface of which an insulating layer is provided, wherein an interval between adjacent heating wires in the close wound segment is D, 0≤D≤2mm, and a longitudinal section of the mount support is in a cross shape, wherein four close wound segments are provided and distributed at four inner angles of the mount support ; or, the longitudinal section of the mount support is in a Y shape, wherein three close wound segments are provided and distributed at three inner angles of the mount support ; or, the longitudinal section of the mount support is in a "*" shape, wherein five close wound segments are provided and distributed at five inner angles of the mount support ; or, the longitudinal section of the mount support is in a " " shape, wherein six close wound segments are provided and distributed at six inner angles of the mount support ; or, the longitudinal section of the mount support is in a " " shape, wherein eight close wound segments are provided and distributed at eight inner angles of the mount support characterized in that an insulating heat concentrating element is arranged inside a hollow cavity of the close wound segment .
A compound of formula (I): F T -OC(O)O-B-OC(O)O-[A-OC(O)O-B] n -OC(O)O-F T (I) wherein (i) A comprises a soft segment and is covalently bound to B via a carbonate linkage; (ii) B comprises a polyalkylene oxide or a moiety described by the formula: and is covalently bound to A via a carbonate linkage; and (iii) F T is a surface active group comprising a polyfluoroorgano group, wherein F T is covalently bound to B via a carbonate linkage; and (iv) n is an integer from 1 to 10. (i) A comprises a soft segment and is covalently bound to B via a carbonate linkage; (ii) B comprises a polyalkylene oxide or a moiety described by the formula: and is covalently bound to A via a carbonate linkage; and (iii) F T is a surface active group comprising a polyfluoroorgano group, wherein F T is covalently bound to B via a carbonate linkage; and (iv) n is an integer from 1 to 10.