mhurhangee/ep-ind-claims huggingface dataset:
Method of applying a skin beneficial agent to an absorbent article comprising a topsheet layer having a body facing surface and a garment facing surface, the article having a longitudinal front portion, a longitudinal back portion and a crotch portion located between the front and the back portion, comprising: - printing, by means of an in-line synchronized print technique, a water based ink composition comprising a binder and a microencapsulated skin beneficial agent on the article, each layer of the absorbent article has a garment facing surface and a body facing surface, and the ink being applied to any of said surfaces, the skin beneficial agent being at least a partly hydrophobic or lipophilic substance or additive, and the microcapsule material being water-insoluble at 20°C. - printing, by means of an in-line synchronized print technique, a water based ink composition comprising a binder and a microencapsulated skin beneficial agent on the article, each layer of the absorbent article has a garment facing surface and a body facing surface, and the ink being applied to any of said surfaces, the skin beneficial agent being at least a partly hydrophobic or lipophilic substance or additive, and the microcapsule material being water-insoluble at 20°C.
An electrical power generation system, comprising: a hydraulic pump configured to be switchable between operating in a first pump direction and in a second pump direction opposite the first pump direction; a hydraulic motor operably connected to the hydraulic pump to convert hydraulic flow into electrical power, the hydraulic motor having a motor inlet passage and a motor outlet passage; and a hydraulic block disposed in flow communication with the hydraulic pump and with the hydraulic motor, the hydraulic block configured such that hydraulic fluid flow exiting the hydraulic block toward the hydraulic motor is directed through the motor inlet passage, regardless of whether the hydraulic pump is operating in the first pump or the second pump direction. a hydraulic pump configured to be switchable between operating in a first pump direction and in a second pump direction opposite the first pump direction; a hydraulic motor operably connected to the hydraulic pump to convert hydraulic flow into electrical power, the hydraulic motor having a motor inlet passage and a motor outlet passage; and a hydraulic block disposed in flow communication with the hydraulic pump and with the hydraulic motor, the hydraulic block configured such that hydraulic fluid flow exiting the hydraulic block toward the hydraulic motor is directed through the motor inlet passage, regardless of whether the hydraulic pump is operating in the first pump or the second pump direction.
Hydropneumatic suspension suitable for use in a vehicle, in particular a rail vehicle, comprising: a hydraulic cylinder arrangement having a hydraulic cylinder and a cylinder piston that is movable back and forth in the hydraulic cylinder, a first spring segment, which is arranged at one of the two longitudinal ends of the hydraulic cylinder arrangement, and a second spring segment, which is arranged at the other of the two longitudinal ends of the hydraulic cylinder arrangement, wherein the respective longitudinal ends of the hydraulic cylinder arrangement and the associated spring segments (5, 6) are designed in each case in such a way that they form an arc shape curving inwards towards the hydraulic cylinder arrangement, the hydraulic cylinder as well as the cylinder piston are each rigidly connected to a mounting plate, which, in cross-section, has an arc shape, for example a circular arc shape, sloping inwards towards the longitudinal axis of the hydraulic cylinder arrangement, such that this arc shape has a point at a minimal distance near or on the longitudinal axis of the hydraulic cylinder arrangement, the spring segments (5, 6) are each arranged on the side of the respective mounting plate facing away from the hydraulic cylinder arrangement, and the spring segments (5, 6) are layered spring segments, for example layered rubber springs, which preferably have a plurality of layers arranged side by side, such that a plurality of layers are provided perpendicularly to the longitudinal axis of the hydraulic cylinder arrangement in order to achieve a high vertical compressive strength. a hydraulic cylinder arrangement having a hydraulic cylinder and a cylinder piston that is movable back and forth in the hydraulic cylinder, a first spring segment, which is arranged at one of the two longitudinal ends of the hydraulic cylinder arrangement, and a second spring segment, which is arranged at the other of the two longitudinal ends of the hydraulic cylinder arrangement, wherein the respective longitudinal ends of the hydraulic cylinder arrangement and the associated spring segments (5, 6) are designed in each case in such a way that they form an arc shape curving inwards towards the hydraulic cylinder arrangement, the hydraulic cylinder as well as the cylinder piston are each rigidly connected to a mounting plate, which, in cross-section, has an arc shape, for example a circular arc shape, sloping inwards towards the longitudinal axis of the hydraulic cylinder arrangement, such that this arc shape has a point at a minimal distance near or on the longitudinal axis of the hydraulic cylinder arrangement, the spring segments (5, 6) are each arranged on the side of the respective mounting plate facing away from the hydraulic cylinder arrangement, and the spring segments (5, 6) are layered spring segments, for example layered rubber springs, which preferably have a plurality of layers arranged side by side, such that a plurality of layers are provided perpendicularly to the longitudinal axis of the hydraulic cylinder arrangement in order to achieve a high vertical compressive strength.
A method of wireless communication comprising: communicating on a radio frequency spectrum band of a first radio access technology, RAT, using a set of antennas; reconfiguring at least one antenna of the set of antennas to perform a first scan on the radio frequency spectrum band of a second RAT; and characterised by determining, based at least in part on the first scan, whether to reconfigure a remaining portion of antennas of the set of antennas to perform a second scan on the radio frequency spectrum band of the second RAT. communicating on a radio frequency spectrum band of a first radio access technology, RAT, using a set of antennas; reconfiguring at least one antenna of the set of antennas to perform a first scan on the radio frequency spectrum band of a second RAT; and characterised by determining, based at least in part on the first scan, whether to reconfigure a remaining portion of antennas of the set of antennas to perform a second scan on the radio frequency spectrum band of the second RAT.
An operation control method of an electronic device having a touch screen, the operation control method comprising: displaying a menu screen including a plurality of menu items determining whether a second manipulation is made on the touch screen within a predetermined time period after a first touch is made on a menu item of the menu screen; and controlling to perform an operation corresponding to the second manipulation instead of an operation corresponding to the menu item selected by the first touch, if the second manipulation is made within the predetermined time period after the first touch is made; characterized in that the method further comprises repeatedly performing the operation corresponding to the menu item selected by the first touch from the predetermined time period until a touch release is made on the screen if the second manipulation is not made within the predetermined time period after the first touch is made. displaying a menu screen including a plurality of menu items determining whether a second manipulation is made on the touch screen within a predetermined time period after a first touch is made on a menu item of the menu screen; and controlling to perform an operation corresponding to the second manipulation instead of an operation corresponding to the menu item selected by the first touch, if the second manipulation is made within the predetermined time period after the first touch is made; characterized in that the method further comprises repeatedly performing the operation corresponding to the menu item selected by the first touch from the predetermined time period until a touch release is made on the screen if the second manipulation is not made within the predetermined time period after the first touch is made.
Pressure equalising device for pneumatic pressure equalisation of a hydraulic tank, - with a housing having a mounting and a pot-shaped cover, - with a ring filter element arranged in the housing with a lower and an upper end plate (8,9), which limit a filter material arranged between them on the front end, characterised in that - the mounting has a central connecting channel, which is connectable communicatingly with the hydraulic tank, - there is provided in the region of the connecting channel a pressure equalisation valve, which opens into an outlet direction at least when there is a defined positive pressure, - the ring filter element has a coalescer or the filter material is formed to be coalescent, - the pressure equalisation valve has a valve disc pretensioned against an associated valve seat on the mounting side with a centrally arranged valve body, which is held on the valve disc by way of cantilevers with a raised edge, - openings are provided in the edge, which enables fluid separated off on the ring filter element to flow back via the connecting channel into the hydraulic tank, - the lower end plate of the ring filter element has a raised outer edge and, in comparison with that, a lower, raised inner edge. - with a housing having a mounting and a pot-shaped cover, - with a ring filter element arranged in the housing with a lower and an upper end plate (8,9), which limit a filter material arranged between them on the front end, characterised in that - the mounting has a central connecting channel, which is connectable communicatingly with the hydraulic tank, - there is provided in the region of the connecting channel a pressure equalisation valve, which opens into an outlet direction at least when there is a defined positive pressure, - the ring filter element has a coalescer or the filter material is formed to be coalescent, - the pressure equalisation valve has a valve disc pretensioned against an associated valve seat on the mounting side with a centrally arranged valve body, which is held on the valve disc by way of cantilevers with a raised edge, - openings are provided in the edge, which enables fluid separated off on the ring filter element to flow back via the connecting channel into the hydraulic tank, - the lower end plate of the ring filter element has a raised outer edge and, in comparison with that, a lower, raised inner edge.
An unmanned aerial vehicle comprising: a fuselage housing a first fuselage-mounted effector (621, 622); a first airfoil (141, 142) comprising a first control surface (147, 148) resiliently mounted to the first airfoil, wherein the first control surface is opposed by the first fuselage-mounted effector; a second airfoil (145, 146; 1045, 1046), rotatably attached to the fuselage housing; and a second fuselage-mounted effector disposed within the fuselage housing and extendible in part to engage the second airfoil. a fuselage housing a first fuselage-mounted effector (621, 622); a first airfoil (141, 142) comprising a first control surface (147, 148) resiliently mounted to the first airfoil, wherein the first control surface is opposed by the first fuselage-mounted effector; a second airfoil (145, 146; 1045, 1046), rotatably attached to the fuselage housing; and a second fuselage-mounted effector disposed within the fuselage housing and extendible in part to engage the second airfoil.
A vehicle radar system comprising a control unit arrangement and at least one radar sensor arrangement that is arranged to transmit signals and receive reflected signals, where the vehicle radar system is arranged to acquire a plurality of measured radar detections (z t, z t+1) at different times; where the control unit arrangement is arranged to engage a tracking algorithm using the present measured radar detections (z t, z t+1) as input such that at least one track is initialized, where for each track, for each one of a plurality of measured radar detections (z t, z t+1), the control unit arrangement is arranged to calculate a corresponding predicted detection (x t|t-1|, x t+1|t|) and a corresponding corrected predicted detection (x t|t|, x t+1|t+1|), said vehicle radar system being characterized in that the control unit arrangement is further arranged to calculate a corresponding distance vector, an innovation vector (18, 19), that runs between a present measured radar detection (z t) and a corresponding present predicted detection (x t|t-1|), where each innovation vector (18, 19) is constituted by a vector part of a first vector type (18a, Δφ) and of a vector part of a second vector type (18b, Δr), where the control unit arrangement is arranged to: - calculate a statistical distribution (24; σ inno,φ, σ inno,r) of a plurality of at least one of said vector types (18a, Δφ; 18b, Δr); - determine how the calculated statistical distribution (24; σ inno,φ, σ inno,r) is related to another statistical distribution (25; σ meas,φ, σ meas,r); and/or - determine symmetrical characteristics of the calculated statistical distribution (24; σ inno,φ, σ inno,r); - and to either maintain or re-initialize the tracking algorithm in dependence of the determined relation and/or symmetrical characteristics that provides data for quality measures of said track where said another statistical distribution is constituted either by a predetermined statistical distribution, or by a statistical distribution (σ meas,φ σ meas,r) of parts of the corresponding measured radar detections (z t, z t+1). - calculate a statistical distribution (24; σ inno,φ, σ inno,r) of a plurality of at least one of said vector types (18a, Δφ; 18b, Δr); - determine how the calculated statistical distribution (24; σ inno,φ, σ inno,r) is related to another statistical distribution (25; σ meas,φ, σ meas,r); and/or - determine symmetrical characteristics of the calculated statistical distribution (24; σ inno,φ, σ inno,r); - and to either maintain or re-initialize the tracking algorithm in dependence of the determined relation and/or symmetrical characteristics that provides data for quality measures of said track
A computer-implemented method for numerical modular simulation of a system said system being disaggregated (a) into at least two subunit simulation subsystems, said method comprising: (b) simulating the respective subunits stepwise repeatedly generating subsystem-step-output from subsystem-step-input during a respective subsystem-time-step, characterized by the additional steps for enabling numerical modular simulation of said system even if different platforms or different internal solvers are used for each subunit: (c) transmitting subsystem-step-inputs to a receiving subsystem and simulating this subsystem over a delay-time before its subsystem-step-outputs are generated, (d) receiving connection interface variables from a sending subsystem comprising at least one of: - numerical data, - at least parameters of a data-prediction-model of said numerical data, - a data-prediction-model assigned to said numerical data, wherein said numerical data belongs to said subsystem-step-output of said sending subsystem, comprising details about at least one information of the sending subsystem to be sent to at least one receiving subsystem, (e) predicting said numerical data by a data-prediction-model over said delay-time to obtain predicted numerical data of said interface variables provided by said sending subsystem, (f) starting the next simulation step of said receiving subsystem generating the next subsystem-step-output from subsystem-step-input, wherein said subsystem-step-input comprises said predicted numerical data. (c) transmitting subsystem-step-inputs to a receiving subsystem and simulating this subsystem over a delay-time before its subsystem-step-outputs are generated, (d) receiving connection interface variables from a sending subsystem comprising at least one of: - numerical data, - at least parameters of a data-prediction-model of said numerical data, - a data-prediction-model assigned to said numerical data, wherein said numerical data belongs to said subsystem-step-output of said sending subsystem, comprising details about at least one information of the sending subsystem to be sent to at least one receiving subsystem, - numerical data, - at least parameters of a data-prediction-model of said numerical data, - a data-prediction-model assigned to said numerical data, (e) predicting said numerical data by a data-prediction-model over said delay-time to obtain predicted numerical data of said interface variables provided by said sending subsystem, (f) starting the next simulation step of said receiving subsystem generating the next subsystem-step-output from subsystem-step-input, wherein said subsystem-step-input comprises said predicted numerical data.
A mixing unit for mixing a liquid product, the mixing unit comprising: a tank configured to hold the liquid product; and a fluid nozzle attached to a bottom of the tank and configured to inject a fluid flow (6, 7) of the liquid product into the tank; wherein the fluid nozzle has a first outlet that opens in a sideways direction, a second outlet that opens in an upward direction, and a valve plug configured to selectively open and close the first outlet and the second outlet, wherein the mixing unit is operable - in a low stage operational mode during which the first outlet is open and the second outlet is closed for effecting mixing in a lower region of the tank, and - in a high stage operational mode during which the first outlet is closed and the second outlet is open for effecting mixing in an upper region of the tank; wherein the valve plug includes an elongated control stem; characterized in that the control stem is axially movable to a first axial position during the low stage operational mode and to a second axial position during the high stage operational mode. a tank configured to hold the liquid product; and a fluid nozzle attached to a bottom of the tank and configured to inject a fluid flow (6, 7) of the liquid product into the tank; wherein the fluid nozzle has a first outlet that opens in a sideways direction, a second outlet that opens in an upward direction, and a valve plug configured to selectively open and close the first outlet and the second outlet, wherein the mixing unit is operable - in a low stage operational mode during which the first outlet is open and the second outlet is closed for effecting mixing in a lower region of the tank, and - in a high stage operational mode during which the first outlet is closed and the second outlet is open for effecting mixing in an upper region of the tank; - in a low stage operational mode during which the first outlet is open and the second outlet is closed for effecting mixing in a lower region of the tank, and - in a high stage operational mode during which the first outlet is closed and the second outlet is open for effecting mixing in an upper region of the tank; wherein the valve plug includes an elongated control stem; characterized in that the control stem is axially movable to a first axial position during the low stage operational mode and to a second axial position during the high stage operational mode.
A system for gamification of real time physical reality immersive experiences, comprising, in combination: a physical medium comprising multiple checkpoints at locations arrayed along a course, each checkpoint comprising a data capture spot to capture choices of multiple independent users traversing the course; at least one unique identifying device for connecting to and monitoring the progress of at least one of the users,, characterised in that: the system further comprises a master control system operatively linked to the physical medium for simultaneously managing, for the multiple independent users, challenge interactions with checkpoints and resultory scoring totals as the users traverse the course; the system is arranged to provide versions of the real time physical reality immersive experience to exist concurrently at locations which are remote relative to each other; the system also includes a versioning control system, being a technical system of software and hardware systems that controls each version of the real time physical reality immersive experience, whereby the users may complete versions of the real time physical reality immersive experiences simultaneously. a physical medium comprising multiple checkpoints at locations arrayed along a course, each checkpoint comprising a data capture spot to capture choices of multiple independent users traversing the course; at least one unique identifying device for connecting to and monitoring the progress of at least one of the users,, the system further comprises a master control system operatively linked to the physical medium for simultaneously managing, for the multiple independent users, challenge interactions with checkpoints and resultory scoring totals as the users traverse the course; the system is arranged to provide versions of the real time physical reality immersive experience to exist concurrently at locations which are remote relative to each other; the system also includes a versioning control system, being a technical system of software and hardware systems that controls each version of the real time physical reality immersive experience, whereby the users may complete versions of the real time physical reality immersive experiences simultaneously.
Extruded product comprising an extruded surface covering material for covering a boat or yacht deck or another outdoor area, where the extruded surface covering material is an extruded flexible shape conforming surface covering material comprising a flexible synthetic material, where the synthetic material is plasticized UV-stable PVC or another flexible UV-stable material, where the extruded surface covering material further comprises rigid hollow micro balloons with an opaque surface, characterized in, that the extruded surface covering material comprises a percentage by volume of 15-25% micro balloons, 45-55% synthetic material and 25-30% plasticizer, and that the extruded surface covering material contains colour pigments to imitate the colour of wood, wherein the rigid hollow micro balloons are made of glass and are substantially spherical or of a ceramic material of any shape, and wherein the rigid hollow micro balloons are filled with gas.
A method for the alignment of food products, in which food products running in on an incoming conveyor in a conveying direction arrive at an alignment station at which the products are aligned and from which the aligned products move to an outgoing conveyor; wherein a misalignment of the products with respect to a desired alignment is detected and the alignment of the products takes place in dependence on the misalignment; wherein the alignment of the products takes place in that the products lie on a product support of the alignment station and the product support is controlled for the carrying out of alignment movements (34, 36); wherein the product support is moved as a whole relative to the outgoing conveyor for the carrying out of the alignment movements (34, 36); and wherein the alignment of the products is done without relative movements between the products and the product support.