mhurhangee/ep-ind-claims huggingface dataset:
Bed assisting the performance of sexual intercourse between partners assisting them in their reciprocal movements and/or reciprocal positioning, wherein the bed extends in length along a longitudinal axis (X-X), in width along a transversal axis (Y-Y) and in height along a vertical axis (Z-Z), the bed comprising: - a first portion suitable for providing a first support surface for example to one of the two partners; - a second portion suitable for providing a second support surface for example to the other partner, positioned adjacent to the first portion along the longitudinal axis (X-X); wherein said second portion is suitable for continuously alternately translating along the longitudinal axis (X-X) between a rest position in which the second portion and the first portion are positioned substantially on the same plane and a rearward position in which the second portion is distanced along the longitudinal axis (X-X) in relation to the first portion; the bed is characterized by the fact that the first portion is further suitable for translating along the vertical axis (Z-Z) between said rest position and a raised position in which the first portion is raised along the vertical axis (Z-Z) in relation to the second portion, in the rest and/or lowered position. - a first portion suitable for providing a first support surface for example to one of the two partners; - a second portion suitable for providing a second support surface for example to the other partner, positioned adjacent to the first portion along the longitudinal axis (X-X);
A method for determining whether an activity engaged in by a user is performed under suitable lighting conditions, the method comprising: determining, with an optical sensor of a wearable computing device, an actual lighting condition in a field of view of the user wearing said wearable computing device; determining an actual user activity with a further sensor arrangement (116, 230), said user activity being associated with a suitable lighting condition for performing said user activity, wherein a suitable lighting condition is a range of lighting conditions that are appropriate for performing said user activity; characterised by: comparing, on the wearable computing device, the actual lighting condition with the suitable lighting condition; and generating (306, 406) a signal with the wearable device if the actual lighting condition deviates from the suitable lighting condition. determining, with an optical sensor of a wearable computing device, an actual lighting condition in a field of view of the user wearing said wearable computing device; determining an actual user activity with a further sensor arrangement (116, 230), said user activity being associated with a suitable lighting condition for performing said user activity, wherein a suitable lighting condition is a range of lighting conditions that are appropriate for performing said user activity; characterised by: comparing, on the wearable computing device, the actual lighting condition with the suitable lighting condition; and generating (306, 406) a signal with the wearable device if the actual lighting condition deviates from the suitable lighting condition. comparing, on the wearable computing device, the actual lighting condition with the suitable lighting condition; and generating (306, 406) a signal with the wearable device if the actual lighting condition deviates from the suitable lighting condition.
A modular transfer unit comprising: a frame having a first end and a second end; a main belt supported by the frame, the main belt comprising a plurality of hingedly-connected belt modules, each of the plurality of belt modules comprising a body and a plurality of spherical balls, the spherical balls having an upper portion that protrudes above an upper surface of the body and a lower portion that protrudes below a lower surface of the body, the spherical balls configured to rotate relative to the body; a main belt drive unit configured to drive the main belt in a first direction, the main belt drive unit comprising a motor and a drive roller, the drive roller engaged with the main belt at the first end of the frame; and a diverter belt supported by the frame, the diverter belt configured to travel in a second direction that is generally perpendicular to the first direction, the diverter belt positioned at least partially underneath the main belt such that the diverter belt contacts the protruding lower portion of the spherical balls and the relative movement of the main and diverter belts (312, 322) causes the spherical balls to rotate; wherein the diverter belt is configured to be repositioned between the first end and a second end of the frame along a track system while remaining supported by the frame. a frame having a first end and a second end; a main belt supported by the frame, the main belt comprising a plurality of hingedly-connected belt modules, each of the plurality of belt modules comprising a body and a plurality of spherical balls, the spherical balls having an upper portion that protrudes above an upper surface of the body and a lower portion that protrudes below a lower surface of the body, the spherical balls configured to rotate relative to the body; a main belt drive unit configured to drive the main belt in a first direction, the main belt drive unit comprising a motor and a drive roller, the drive roller engaged with the main belt at the first end of the frame; and a diverter belt supported by the frame, the diverter belt configured to travel in a second direction that is generally perpendicular to the first direction, the diverter belt positioned at least partially underneath the main belt such that the diverter belt contacts the protruding lower portion of the spherical balls and the relative movement of the main and diverter belts (312, 322) causes the spherical balls to rotate; wherein the diverter belt is configured to be repositioned between the first end and a second end of the frame along a track system while remaining supported by the frame.
A method for encoding multi-channel Higher Order Ambisonics audio signals for noise reduction, comprising steps of - decorrelating the channels using an inverse adaptive Discrete Spherical Harmonics Transform (DSHT), the inverse adaptive DSHT comprising a rotation operation and an inverse DSHT (iDSHT, 812), with the rotation operation rotating a spatial sampling grid of the iDSHT, wherein the spatial sampling grid is rotated such that the logarithm of the term ∑ l = 1 L Sd ∑ j = 1 L Sd | Σ W S d l, j | − ∑ σ S d 1 2,..., σ S d L Sd 2 is minimized, wherein | Σ W S d l, j | are the absolute values of the elements of ∑ W Sd with a row index l and a column index j, and σ S d l 2 are the diagonal elements of ∑ W Sd, where Σ W Sd = W Sd W Sd H and W Sd is a matrix having a size of number of audio channels by number of block processing samples, and W Sd is the result of the inverse adaptive DSHT; - perceptually encoding each of the decorrelated channels; - encoding rotation information, wherein the rotation information is a spatial vector ψ̂ rot with three components defining said rotation operation; and - transmitting or storing the perceptually encoded audio channels and the encoded rotation information. - decorrelating the channels using an inverse adaptive Discrete Spherical Harmonics Transform (DSHT), the inverse adaptive DSHT comprising a rotation operation and an inverse DSHT (iDSHT, 812), with the rotation operation rotating a spatial sampling grid of the iDSHT, wherein the spatial sampling grid is rotated such that the logarithm of the term ∑ l = 1 L Sd ∑ j = 1 L Sd | Σ W S d l, j | − ∑ σ S d 1 2,..., σ S d L Sd 2 is minimized, wherein | Σ W S d l, j | are the absolute values of the elements of ∑ W Sd with a row index l and a column index j, and σ S d l 2 are the diagonal elements of ∑ W Sd, where Σ W Sd = W Sd W Sd H and W Sd is a matrix having a size of number of audio channels by number of block processing samples, and W Sd is the result of the inverse adaptive DSHT; - perceptually encoding each of the decorrelated channels; - encoding rotation information, wherein the rotation information is a spatial vector ψ̂ rot with three components defining said rotation operation; and - transmitting or storing the perceptually encoded audio channels and the encoded rotation information.
A method of prolonging the shelf life of fresh squeezed orange juice comprising: providing an electrolytic cell having a pair of titanium electrodes with a ruthenium coating spaced 0,63 cm (1/4 inch) apart, each electrode 10 cm (4 inch) wide and 15 cm (6 inch) long, an inlet for the liquid, an outlet for the liquid and a power source; introducing the orange juice into the electrolytic cell via the inlet; energizing the electrodes so as to cause current to pass from a first electrode to a second electrode; and removing the liquid to be treated from the electrolytic cell via the outlet, wherein a) a direct current power source is utilized to energize the electrodes at a current density of 1,5mA/cm 2 (0.01 amps per square inch) or 4,5mA/cm 2 (0.03 amps per square inch) and the orange juice resides in the electrolytic cell for 10 seconds or b) a direct current power source is utilized to energize the electrodes at a current density of 1,5mA/cm 2 (0.01 amps per square inch) and the orange juice resides in the electrolytic cell for 30 seconds. providing an electrolytic cell having a pair of titanium electrodes with a ruthenium coating spaced 0,63 cm (1/4 inch) apart, each electrode 10 cm (4 inch) wide and 15 cm (6 inch) long, an inlet for the liquid, an outlet for the liquid and a power source; introducing the orange juice into the electrolytic cell via the inlet; energizing the electrodes so as to cause current to pass from a first electrode to a second electrode; and removing the liquid to be treated from the electrolytic cell via the outlet, wherein a) a direct current power source is utilized to energize the electrodes at a current density of 1,5mA/cm 2 (0.01 amps per square inch) or 4,5mA/cm 2 (0.03 amps per square inch) and the orange juice resides in the electrolytic cell for 10 seconds or b) a direct current power source is utilized to energize the electrodes at a current density of 1,5mA/cm 2 (0.01 amps per square inch) and the orange juice resides in the electrolytic cell for 30 seconds. a) a direct current power source is utilized to energize the electrodes at a current density of 1,5mA/cm 2 (0.01 amps per square inch) or 4,5mA/cm 2 (0.03 amps per square inch) and the orange juice resides in the electrolytic cell for 10 seconds or b) a direct current power source is utilized to energize the electrodes at a current density of 1,5mA/cm 2 (0.01 amps per square inch) and the orange juice resides in the electrolytic cell for 30 seconds.
Device to dry, in particular, sewage sludge, having a drying surface to which the sewage sludge is able to be applied for drying, having a conveyor for loosening and turning the sewage sludge, distributing the sewage sludge on the drying surface and for conveying the sewage sludge in a conveying direction which has a traverse which is situated above the drying surface and extends transversely to the conveying direction and is moveable in the conveying direction, and which has conveyor elements which protrude downwards towards the drying surface and are arranged alongside one another with spacing, which loosen and turn the sewage sludge on the drying surface during a movement of the traverse in the conveying direction, distribute it and convey it in the conveying direction, and having wipers which protrude upwards from the drying surface between the conveyor elements and wipe sewage sludge from the conveyor elements, said sludge adhering to the conveyor elements, when the conveyor elements pass, and crush large sewage sludge clumps, characterised in that the wipers extend in the conveying direction and guide the conveyor elements if the conveyor elements are situated between the wipers.
A sliding door seal system with opposite functional surfaces (1; 2) and magnets arranged behind them, characterized in that it consists of two first and second mounting profiles (7; 8), which are arrangeable in opposite directions on a frame or a case and on a door leaf and each have flat contact backs (9; 10), and that a functional profile is arranged on a first mounting profile and has a first functional surface parallel to the surface of the case and an oblique ramp plane directed in a closing direction, and an elastic seal profile (12; 22; 23) is fixed on the second mounting profile and has a second functional surface parallel to the first functional surface and a lateral ramp profile for running the seal profile (12; 22; 23) over the ramp plane of the functional profile, wherein the seal profile (12; 22; 23) is designed to be of different heights or depths in order to adapt to different mounting distances between door leaves and cases.
A detergent container cradle comprising: a seating surface suitable for supporting one side of a detergent container in a length direction thereof; characterized by sloped sidewalls provided at opposite edges of the seating surface, wherein a distance between the sidewalls becomes the greater as the sidewalls go upward the more, so that to be able to apply pressure to an outside circumferential surface of the detergent container. a seating surface suitable for supporting one side of a detergent container in a length direction thereof; characterized by sloped sidewalls provided at opposite edges of the seating surface, wherein a distance between the sidewalls becomes the greater as the sidewalls go upward the more, so that to be able to apply pressure to an outside circumferential surface of the detergent container.
A main cutting unit and a secondary cutting unit for a working machine, the secondary cutting unit being mounted on the back of the main cutting unit, wherein the secondary cutting unit is a modular agricultural cutting unit with a plurality of cutting modules each having a horizontally arranged shaft drivable in rotation and a plurality of cutting elements arranged on the appropriate shaft for cutting crop material, wherein the shafts of the cutting modules are not arranged to overlap in the cutting width of the cutting unit, characterized in that the cutting modules are directly or indirectly affixed to a common supporting frame by means of clamps.
Transmitting apparatus for transmitting signals in a multi carrier system on the basis of a frame structure, each frame comprising at least two signalling patterns adjacent to each other in the frequency direction and data patterns following the at least two signalling patterns in the time direction in the time slot immediately succeeding the time slot in which the at least two signalling patterns are located, wherein each of the data patterns succeeding the at least two signalling patterns is respectively followed by further data patterns in succeeding time slots in the time direction, wherein all data patterns following each other in the time direction have the same frequency direction structure, each of the at least two signalling patterns and the data patterns comprising a plurality of frequency carriers, wherein said at least two signalling patterns comprised in a frame have the same length and comprise identical signalling data, said transmitting apparatus comprising frame forming means adapted to arrange signalling data and pilot signals in said at least two signalling patterns in a frame, said signalling data comprising the physical layer information necessary for the receipt of the succeeding data patterns, whereby the signalling data are repeated in each of said at least two signalling patterns so that the identical signalling data can be retrieved from each of said at least two signalling patterns, said signalling data comprising the tuning position of each of the data patterns in the frame, and to arrange data and at least one pilot signal in each of said data patterns in a frame, wherein the length of each of said one or more data patterns in the frequency direction is equal to or a multiple of a minimum data pattern length, transforming means adapted to transform said at least two signalling patterns and said data patterns from the frequency domain into the time domain in order to generate a time domain transmission signal, and transmitting means adapted to transmit said time domain transmission signal.
A process for manufacturing an aqueous sodium chloride solution, comprising the steps of a) dispersing a first solid material comprising sodium chloride, sodium carbonate, and sodium sulphate, and a second solid material comprising calcium chloride in an aqueous liquid to produce an aqueous medium; b) subjecting the aqueous medium to clarification; and c) recovering the clarified aqueous medium as aqueous sodium chloride solution; characterized in that the weight ratio between the aqueous liquid used in the preparation of the aqueous medium and the total weight of the first solid material and the second solid material (L/S ratio) is in the range of from 0.7 to 3.5. a) dispersing a first solid material comprising sodium chloride, sodium carbonate, and sodium sulphate, and a second solid material comprising calcium chloride in an aqueous liquid to produce an aqueous medium; b) subjecting the aqueous medium to clarification; and c) recovering the clarified aqueous medium as aqueous sodium chloride solution;
A process for preparing a cocoa biomass with a modified fat phase, said process comprising the steps of a. mixing cocoa biomass having a fat phase 1, wherein said fat phase is cocoa butter, with a vegetable fat phase 2, said fat phase 1 and fat phase 2 forming a modified fat phase 3 in the mixture, b. separating the cocoa biomass from modified fat phase 3 to a desired fat level, wherein the desired fat level is 0.1-70 wt% of said cocoa biomass, wherein said cocoa biomass now have a residual modified fat phase 3 at a desired fat level replacing fat phase 1 and wherein excess of fat phase 3 is removed, and wherein the residual modified fat phase 3 is substantially a combination of fat phase 1 and fat phase 2, and c. optionally, repeating step a) and b) above, wherein the vegetable fat phase 2 is not CB. a. mixing cocoa biomass having a fat phase 1, wherein said fat phase is cocoa butter, with a vegetable fat phase 2, said fat phase 1 and fat phase 2 forming a modified fat phase 3 in the mixture, b. separating the cocoa biomass from modified fat phase 3 to a desired fat level, wherein the desired fat level is 0.1-70 wt% of said cocoa biomass, wherein said cocoa biomass now have a residual modified fat phase 3 at a desired fat level replacing fat phase 1 and wherein excess of fat phase 3 is removed, and wherein the residual modified fat phase 3 is substantially a combination of fat phase 1 and fat phase 2, and c. optionally, repeating step a) and b) above,
A heat exchanger plate for a plate heat exchanger for treatment of a liquid feed, the heat exchanger plate defines a front surface and an opposite rear surface, a first longitudinal edge extending in a longitudinal direction and an opposite second longitudinal edge extending parallel to the first longitudinal edge and a centre axis extending substantially centrally between and in parallel with the first longitudinal edge and the second longitudinal edge, the heat exchanger plate further defining an evaporation section on the front surface for vaporizing the liquid feed, a separation section on the front surface for separating vaporized feed and non-vaporized feed, a first and a second brine section on the front surface for receiving the non-vaporized feed and a condensation section for condensing the vaporized feed, the separation sections being located between the evaporation section and the condensation section in the longitudinal direction, the first brine section being located between the evaporation section and the first longitudinal edge and the second brine section being located between the evaporation section and the second longitudinal edge, the evaporation section comprises obliquely extending ridges and valleys and the separation section comprises transversally extending ridges and valleys, characterized in that each plate comprising a pair of front surface flow guiding elements for directing the vaporized feed towards the central axis and/or for directing the non-vaporized feed towards the respective brine section (62a, 62b), each front surface flow guiding element defining an elongated ridge in the plate on the front surface between the evaporation section, the separation section and the respective brine section (62a, 62b) and extending in an oblique angle relative to the longitudinal direction, wherein when the heat exchanging plate being arranged successively with identical heat exchanging plates front surface to front surface and rear surface to rear surface to form a plate package of a heat exchanger, the obliquely extending ridges of the evaporation section contact each other at contact points, the transversally extending ridges of the separation section fall into each other and the elongated ridges of opposing plates contact each other along elongated contact surfaces.
A shaped piece to support the ankle, wherein the shaped piece is adapted to surround the ankle at least at the back and is formed corresponding to the malleoli (17, 18) of the ankle and provided with opposing cheeks located on either side of the ankle, which cheeks at the front determine an opening via which the ankle can be received in the shaped piece, characterized in that the shaped piece has a rear shaped region with a recess in the rear shaped region at the site of the Achilles' tendon in use, which recess extends in the rear shaped region from one side of the rear moulding region towards the heel, providing freedom of movement for the Achilles' tendon.