mhurhangee/patent-ind-claim-en huggingface dataset:
1. An insert for a flow wrapped packaging assembly comprising a bottom wall and a peripheral wall extending from said bottom wall to define with the bottom wall an interior volume for containing product , said insert comprising at least one tongue at a top end of the peripheral wall distal from the bottom wall , said at least one tongue being movable between at least one closed position in which it at least partially closes the interior volume at the top end of the insert and at least one open position in which it does not impede access to the interior volume through the open top end, said peripheral wall comprising opposed front and rear wall portions and opposed side wall portions extending between said front and rear wall portions , wherein the front and rear wall portions are substantially planar and said side wall portions are curved, said at least one tongue is connected to the distal upper end of the rear wall portion by a hinge or fold line , characterised in that a dispensing aperture is defined in said front wall portion .
A dissolvable solid structure comprising fibers, wherein the fibers are fibrous elements, wherein the dissolvable solid structure is a unitary fibrous structure, wherein the unitary fibrous structure is an arrangement comprising a plurality of two or more fibrous elements that are inter-entangled or otherwise associated with one another to form the fibrous structure; wherein the fibers being fibrous elements are formed from a composition comprising: a. from about 10% to about 75% of a surfactant; b. from about 10% to about 70% water soluble polymeric structurant; wherein the dissolvable solid structure comprises from 1 wt% to 80 wt% preformed effervescent agglomerated particles; wherein the dissolvable solid structure comprises a detersive surfactant from about 0.5g to about 4.0g, has a detersive surfactant density from about 0.1 to about 0.3g/cm 3 ; the dissolvable solid structure weight is from about 1.0g to about 4.0g, and wherein the footprint of the dissolvable solid structure is from about 1 cm 2 to about 50cm 2 ; wherein the bulk density of the dissolvable solid structure is from 0.100 g/cm 3 to 0.375 g/cm 3 ; and wherein the dissolvable solid structure has a dissolution of less than 25 strokes of the Hand Dissolution Method, wherein the method of measurements is defined as in the present description. a. from about 10% to about 75% of a surfactant; b. from about 10% to about 70% water soluble polymeric structurant; wherein the dissolvable solid structure comprises from 1 wt% to 80 wt% preformed effervescent agglomerated particles; wherein the dissolvable solid structure comprises a detersive surfactant from about 0.5g to about 4.0g, has a detersive surfactant density from about 0.1 to about 0.3g/cm 3 ; the dissolvable solid structure weight is from about 1.0g to about 4.0g, and wherein the footprint of the dissolvable solid structure is from about 1 cm 2 to about 50cm 2 ; wherein the bulk density of the dissolvable solid structure is from 0.100 g/cm 3 to 0.375 g/cm 3 ; and wherein the dissolvable solid structure has a dissolution of less than 25 strokes of the Hand Dissolution Method, wherein the method of measurements is defined as in the present description.
Paving surface, having artificial stones which are spaced apart from each other as equidistantly as possible, in particular paving stones or composite paving stones, wherein the artificial stones have a circumferential edge, and wherein in the laid state, as a result of the spacing between the artificial stones, gaps which are intended to be filled, in particular seepage gaps, are produced, wherein the gaps are at least partially filled with granulate of resilient material, characterised in that at least some of the artificial stones have as a spacing element a strip which extends around the edge thereof in order to define a dynamic gap width to the greatest possible extent with respect to adjacent artificial stones, wherein the spacing element is at least partially produced from a resilient material.
A heat source unit comprising: a housing including a machine chamber incorporating a compressor and an expansion valve and having an air ventilation port allowing for ventilation with outside air and a heat exchange chamber incorporating a heat exchanger and an air-sending device configured to cause air to pass through the heat exchanger ; a control box disposed in the housing at a position so that an airflow from the air-sending device passes through the control box ; a refrigerant concentration detection device disposed in the control box and configured to detect refrigerant concentration; and a control circuit disposed in the control box and configured to control the air-sending device , the air-sending device performing forward rotation being rotation in a direction during a normal operation and reverse rotation being a direction opposite to the forward rotation, and characterized by : when refrigerant leakage is detected on a basis of a detection value of the refrigerant concentration detection device , the control circuit being configured to control the air-sending device to perform either of the forward rotation and the reverse rotation achieving a larger amount of a volume of air passing through the control box . a housing including a machine chamber incorporating a compressor and an expansion valve and having an air ventilation port allowing for ventilation with outside air and a heat exchange chamber incorporating a heat exchanger and an air-sending device configured to cause air to pass through the heat exchanger ; a control box disposed in the housing at a position so that an airflow from the air-sending device passes through the control box ; a refrigerant concentration detection device disposed in the control box and configured to detect refrigerant concentration; and a control circuit disposed in the control box and configured to control the air-sending device , the air-sending device performing forward rotation being rotation in a direction during a normal operation and reverse rotation being a direction opposite to the forward rotation, and characterized by : when refrigerant leakage is detected on a basis of a detection value of the refrigerant concentration detection device , the control circuit being configured to control the air-sending device to perform either of the forward rotation and the reverse rotation achieving a larger amount of a volume of air passing through the control box .
A method for transforming a plurality of input video images captured from a scene through at least one ultra wide-angle (UWA) lens, wherein the at least one UWA lens is characterized by a corresponding lens transformation that maps 3D object space onto a plane that displays the plurality of input video images, said method comprising: (a) obtaining the plurality of input video images data captured through the at least one UWA lens; and said method being characterized by comprising the following steps: (b) constructing a 2D surface envelope that fully encompasses the field of view of the at least one UWA lens; (c) constructing an envelope transformation , independently from the corresponding UWA lens transformation, that maps an output image plane onto the surface envelope uniquely for every point in the output image plane; (d) concatenating the corresponding UWA lens transformation for the at least one UWA lens and the envelope transformation to obtain a zero-content-loss transformation , that provides a content preserving mapping between the input and output image planes, and wherein the UWA lens transformation is independent of image content; and (e) applying the zero-content-loss transformation to the plurality of input video image data to obtain a plurality of output video images ; wherein at least one of the surface envelope and the envelope transformation is modified to locally adjust for perspective corrections in at least one selected region of interest of the scene; and wherein the envelope transformation is modifiable without change to the surface envelope. (a) obtaining the plurality of input video images data captured through the at least one UWA lens; (b) constructing a 2D surface envelope that fully encompasses the field of view of the at least one UWA lens; (c) constructing an envelope transformation , independently from the corresponding UWA lens transformation, that maps an output image plane onto the surface envelope uniquely for every point in the output image plane; (d) concatenating the corresponding UWA lens transformation for the at least one UWA lens and the envelope transformation to obtain a zero-content-loss transformation , that provides a content preserving mapping between the input and output image planes, and wherein the UWA lens transformation is independent of image content; and (e) applying the zero-content-loss transformation to the plurality of input video image data to obtain a plurality of output video images ;
A cylindrical thermally and acoustically insulating structure configured to cover a pipe for transporting a fluid capable of being brought to variable temperatures, comprising an inner wall and an outer wall , said insulating structure comprising at least one protrusion which emerges from its inner wall so as to generate an air space between the inner wall and the pipe , the inner wall of the insulating structure , which at least partially delimits the protrusion , being denser than the outer wall of the insulating structure , characterized in that a densification of the protrusion emanating from the inner wall providing the protrusion with an increased resistance to deformation and allowing conservation of said air space between the pipe and the insulating structure .
A base station comprising: circuitry, which, in operation, configures a predefined first number of demodulation reference signals, DMRSs, the first number being a predefined value common to every subframe, or a second number of DMRSs for a terminal , which transmits an uplink signal formed by time-multiplexing a data symbol with a DMRS in one subframe, the second number being larger than the first number; a receiver , which, in operation, receives the uplink signal including the DMRSs and transmitted from the terminal; wherein the circuitry, in operation, performs channel estimation using the DMRS included in the received uplink signal, and configures the second number of DMRSs in a second subframe, in which the terminal transmits no sounding reference signal, SRS, the second number of DMRSs being obtained by adding additional DMRSs to the predefined first number of DMRSs, wherein when the second number of DMRSs is configured for the terminal , the circuitry, in operation, performs, in a first subframe, in which the SRS is transmitted, channel estimation using the first number of DMRSs and the SRS, and the circuitry, in operation, performs, in the second subframe, in which no SRS is transmitted, channel estimation using the first number of DMRSs and the additional DMRS, and wherein in the second subframe the additional DMRS is mapped to a position of the second subframe where the SRS is mapped in the first subframe. circuitry, which, in operation, configures a predefined first number of demodulation reference signals, DMRSs, the first number being a predefined value common to every subframe, or a second number of DMRSs for a terminal , which transmits an uplink signal formed by time-multiplexing a data symbol with a DMRS in one subframe, the second number being larger than the first number; a receiver , which, in operation, receives the uplink signal including the DMRSs and transmitted from the terminal; wherein the circuitry, in operation, performs channel estimation using the DMRS included in the received uplink signal, and configures the second number of DMRSs in a second subframe, in which the terminal transmits no sounding reference signal, SRS, the second number of DMRSs being obtained by adding additional DMRSs to the predefined first number of DMRSs, wherein when the second number of DMRSs is configured for the terminal , the circuitry, in operation, performs, in a first subframe, in which the SRS is transmitted, channel estimation using the first number of DMRSs and the SRS, and the circuitry, in operation, performs, in the second subframe, in which no SRS is transmitted, channel estimation using the first number of DMRSs and the additional DMRS, and wherein in the second subframe the additional DMRS is mapped to a position of the second subframe where the SRS is mapped in the first subframe.
A method of mitigating motion sickness in a vehicle, the method comprising: mitigating motion of at least a portion of the vehicle within a first frequency range by a first degree during a first mode of operation; detecting an event, a series of events and/or a pattern of events; determining that the event, the series of events and/or the pattern of events is associated with an increase in a likelihood of motion sickness of at least one occupant of the vehicle; after determining that the event, the series of events and/or the pattern of events is associated with the increased likelihood of motion sickness, mitigating motion of the portion of the vehicle within the first frequency range by a second degree, higher than the first degree, during a second mode of operation; and operating at least one actuator of an active suspension system to mitigate the motion in the first mode and the second mode. mitigating motion of at least a portion of the vehicle within a first frequency range by a first degree during a first mode of operation; detecting an event, a series of events and/or a pattern of events; determining that the event, the series of events and/or the pattern of events is associated with an increase in a likelihood of motion sickness of at least one occupant of the vehicle; after determining that the event, the series of events and/or the pattern of events is associated with the increased likelihood of motion sickness, mitigating motion of the portion of the vehicle within the first frequency range by a second degree, higher than the first degree, during a second mode of operation; and operating at least one actuator of an active suspension system to mitigate the motion in the first mode and the second mode.
A scrubber for exhaust gas cleaning onboard a marine vessel, comprising: - a scrubber shell forming a scrubber chamber; - an opening in the scrubber shell; and - a tubular pipe running through the scrubber shell for feeding scrubber liquid into the scrubber chamber; characterized in that the scrubber further comprises: - a concave bowl for connecting the tubular pipe to the scrubber shell, the concave bowl having the shape of a solid of revolution and including a rim and a bottom , and the shape curving smoothly from the rim of the concave bowl to the bottom of the concave bowl; - wherein the tubular pipe runs through the bottom of the concave bowl in such a way that the bottom encircles the tubular pipe, and the tubular pipe and the bottom are connected to each other, and - wherein the concave bowl is placed in the opening in the scrubber shell in such a way that the scrubber shell encircles the rim of the concave bowl, and the scrubber shell and the rim are connected to each other. - a scrubber shell forming a scrubber chamber; - an opening in the scrubber shell; and - a tubular pipe running through the scrubber shell for feeding scrubber liquid into the scrubber chamber; - a concave bowl for connecting the tubular pipe to the scrubber shell, the concave bowl having the shape of a solid of revolution and including a rim and a bottom , and the shape curving smoothly from the rim of the concave bowl to the bottom of the concave bowl; - wherein the tubular pipe runs through the bottom of the concave bowl in such a way that the bottom encircles the tubular pipe, and the tubular pipe and the bottom are connected to each other, and - wherein the concave bowl is placed in the opening in the scrubber shell in such a way that the scrubber shell encircles the rim of the concave bowl, and the scrubber shell and the rim are connected to each other.
A method of manufacturing an orthodontic archwire that is adapted to be received in a set of brackets having a bonding pad for bonding the brackets to the teeth of a patient, the method comprising the steps of: - defining the location of a set of bracket slots for the set of brackets in a three-dimensional space with the aid of a computer; - supplying a wire bending robot with information corresponding to the location of the set of bracket slots; - providing an archwire wire having a cross-sectional configuration that has at least one flat planar surface, wherein the archwire material has a composition of 40% cobalt, 20% chromium, 15% nickel, 7% molybdenum, 2% manganese, 0.15% carbon and a balance of iron; - bending the archwire into a configuration during manufacturing to have a shape, in a relaxed, as-manufactured condition, such that the flat planar surface of the archwire is canted relative to an occlusal plane over a substantial arcuate extent, said shape corresponding to the location of the bracket slots; and - heat treating the archwire after bending. - defining the location of a set of bracket slots for the set of brackets in a three-dimensional space with the aid of a computer; - supplying a wire bending robot with information corresponding to the location of the set of bracket slots; - providing an archwire wire having a cross-sectional configuration that has at least one flat planar surface, wherein the archwire material has a composition of 40% cobalt, 20% chromium, 15% nickel, 7% molybdenum, 2% manganese, 0.15% carbon and a balance of iron; - bending the archwire into a configuration during manufacturing to have a shape, in a relaxed, as-manufactured condition, such that the flat planar surface of the archwire is canted relative to an occlusal plane over a substantial arcuate extent, said shape corresponding to the location of the bracket slots; and - heat treating the archwire after bending.
A device , comprising: one or more processors to: determine a first set of hash values corresponding to a first set of files stored by a plurality of client devices; analyze information associated with the first set of hash values to determine a second set of hash values corresponding to a second set of files to be analyzed, the second set of hash values being different from the first set of hash values; for respective hash values of the second set of hash values, determine a quantity of client devices, of the plurality of client devices, that store a respective file associated with a respective hash value of the second set of hash values; prioritize the second set of hash values to form a prioritized set of hash values corresponding to a prioritized set of files, of the second set of files, to be analyzed, the prioritized set of hash values indicating a prioritized order of the second set of hash values that are ordered based on the quantity of client devices that store the respective file, associated with the respective hash value, for the respective hash values of the second set of hash values; request the prioritized set of files from one or more client devices of the plurality of client devices; receive the prioritized set of files; and cause the prioritized set of files to be analyzed. determine a first set of hash values corresponding to a first set of files stored by a plurality of client devices; analyze information associated with the first set of hash values to determine a second set of hash values corresponding to a second set of files to be analyzed, the second set of hash values being different from the first set of hash values; for respective hash values of the second set of hash values, determine a quantity of client devices, of the plurality of client devices, that store a respective file associated with a respective hash value of the second set of hash values; prioritize the second set of hash values to form a prioritized set of hash values corresponding to a prioritized set of files, of the second set of files, to be analyzed, the prioritized set of hash values indicating a prioritized order of the second set of hash values that are ordered based on the quantity of client devices that store the respective file, associated with the respective hash value, for the respective hash values of the second set of hash values; request the prioritized set of files from one or more client devices of the plurality of client devices; receive the prioritized set of files; and cause the prioritized set of files to be analyzed.
Method for producing a load-bearing element for a means of transport , having the steps of: providing a flat base chord made of a first material with a first surface and a second surface , applying a plurality of layers , one on top of the other and next to one another, of at least one second material to the first surface using an additive friction-stir method, and machining the layers of the second material in order to produce a desired profile cross section of the load-bearing element with webs and flanges , wherein the first material and the second material are metallic materials that are different from one another. providing a flat base chord made of a first material with a first surface and a second surface , applying a plurality of layers , one on top of the other and next to one another, of at least one second material to the first surface using an additive friction-stir method, and machining the layers of the second material in order to produce a desired profile cross section of the load-bearing element with webs and flanges , wherein the first material and the second material are metallic materials that are different from one another.