mhurhangee/ep-ind-claims huggingface dataset:
A radio communication system comprising: first and second radio stations (10, 20); and a radio terminal, wherein each of the first and second radio station (10, 20) has a function of performing communication with the radio terminal using simultaneously multiple carriers included in a carrier set which is an aggregation of a plurality of carriers having frequencies different from each other, and includes a plurality of the carriers of different types, the first radio station comprising means (104, 106) for informing the second radio station information indicating which carriers are included in the carrier set, wherein the information includes carrier type information indicating a carrier type of each carrier included in the carrier set. first and second radio stations (10, 20); and a radio terminal, wherein each of the first and second radio station (10, 20) has a function of performing communication with the radio terminal using simultaneously multiple carriers included in a carrier set which is an aggregation of a plurality of carriers having frequencies different from each other, and includes a plurality of the carriers of different types, the first radio station comprising means (104, 106) for informing the second radio station information indicating which carriers are included in the carrier set, wherein the information includes carrier type information indicating a carrier type of each carrier included in the carrier set.
A windmill comprising a support structure and a rotor assembly, the rotor assembly comprising: - a rotor mast (109, 209, 309, 409) for rotatable attachment of said rotor assembly (101, 201, 301, 401) to a support structure for rotation of said rotor assembly (101, 201, 301, 401) relative to said support structure about a rotation axis, - a rotor having two rotor blades (103, 105, 203, 205, 303, 305, 403, 405) extending in a virtual plane in a longitudinal direction, wherein said two rotor blades (103, 105, 203, 205, 303, 305, 403, 405) are arranged to be propelled by air flow, and - a pivot arrangement defining a pivot axis, wherein said rotor is pivotably connected, by said pivot arrangement, to said rotor mast (109, 209, 309, 409) for pivoting said two rotor blades (103, 105, 203, 205, 303, 305, 403, 405) simultaneously relative to said rotor mast (109, 209, 309, 409) about said pivot axis, wherein said longitudinal direction and a projection of said pivot axis in said virtual plane enclose a constant acute angle in said virtual plane; wherein said rotor assembly is rotatably attached to said support structure, by said rotor mast, for rotation of said two rotor blades about said rotation axis relative to said support structure; characterized in that said rotor assembly is rotatably attached to said support structure at a first location of said support structure, said windmill further comprising a floating body for floating said windmill on water, wherein said floating body is attached to said support structure at a distance from said rotor assembly, wherein said rotor assembly is attached to said support structure such that an increase in wind speed, in use, causes said rotation axis of said rotor assembly to move towards an upright position. - a rotor mast (109, 209, 309, 409) for rotatable attachment of said rotor assembly (101, 201, 301, 401) to a support structure for rotation of said rotor assembly (101, 201, 301, 401) relative to said support structure about a rotation axis, - a rotor having two rotor blades (103, 105, 203, 205, 303, 305, 403, 405) extending in a virtual plane in a longitudinal direction, wherein said two rotor blades (103, 105, 203, 205, 303, 305, 403, 405) are arranged to be propelled by air flow, and - a pivot arrangement defining a pivot axis, wherein said rotor is pivotably connected, by said pivot arrangement, to said rotor mast (109, 209, 309, 409) for pivoting said two rotor blades (103, 105, 203, 205, 303, 305, 403, 405) simultaneously relative to said rotor mast (109, 209, 309, 409) about said pivot axis,
A computer-implemented method for visualization of an elongated anatomical structure using ultrasound, the method comprising the steps of: - receiving a plurality of 3D ultrasound image volumes, each image volume depicting at least a portion of an elongated anatomical structure having a curved longitudinal extension; - on each 3D ultrasound image volume, automatically or semi-automatically fitting a parametric curve to the depicted portion of the elongated anatomical structure along its longitudinal extension, the parametric curve being defined by curve parameters; - reformatting each 3D ultrasound image volume by applying a transformation which straightens the parametric curve along at least one axis, so as to generate a plurality of reformatted image volumes and reformatted parametric curves (32, 34); - registering the reformatted image volumes with one another by determining the joining point of their respective parametric curves (32, 34); and - fusing the reformatted image volumes with one another to yield a fused image depicting the whole elongated anatomical structure or a larger portion thereof than the 3D ultrasound image volumes. - receiving a plurality of 3D ultrasound image volumes, each image volume depicting at least a portion of an elongated anatomical structure having a curved longitudinal extension; - on each 3D ultrasound image volume, automatically or semi-automatically fitting a parametric curve to the depicted portion of the elongated anatomical structure along its longitudinal extension, the parametric curve being defined by curve parameters; - reformatting each 3D ultrasound image volume by applying a transformation which straightens the parametric curve along at least one axis, so as to generate a plurality of reformatted image volumes and reformatted parametric curves (32, 34); - registering the reformatted image volumes with one another by determining the joining point of their respective parametric curves (32, 34); and - fusing the reformatted image volumes with one another to yield a fused image depicting the whole elongated anatomical structure or a larger portion thereof than the 3D ultrasound image volumes.
A wallboard tape obtainable by contacting a web of cellulose fibers with polyvinyl alcohol and with starch in a size press, the wallboard tape having a CD tensile of from 0.875 kN/m to 10.51 kN/m (5 to 60 lbf/inch) width as measured by TAPPI method 494 and a MD tensile of from 4.38 kN/m to 17.51 kN/m (25 to 100 lbf/inch) width as measured by TAPPI method 494, and the wallboard tape comprising from 0.05 to 20 wt% starch, based on the total weight of the wallboard tape, and from 0.05 to 20 wt% polyvinyl alcohol based on the total weight of the wallboard tape in a ratio of starch/polyvinyl alcohol of from 99 wt% starch/1 wt% polyvinyl alcohol to 5 wt% starch/95 wt% polyvinyl alcohol based on the total weight of the starch and polyvinyl alcohol, wherein said polyvinyl alcohol is from 75 to 100% hydrolyzed.
Arrangement for color-coded triangulation of an object to be measured, comprising a projector unit for projecting a colour pattern onto an object surface of the object to be measured, at least one camera with a camera sensor, for recording an image of the colour pattern projected onto the surface, the camera sensor being sensitive in a first, in at least one second and a third spectral range (12, 14, 16), the sensitive spectral ranges (12, 14, 16) being arranged according to increasing wavelengths, wherein the arrangement comprises at least one colour filter which has a first, at least one second and a third spectral transmission range (20, 22, 24), the spectral transmission ranges (20, 22, 24) being separated pairwise, an upper edge wavelength of the first transmission range lying within the first sensitive spectral range of the camera sensor, a lower and upper edge wavelength of the at least one second transmission range (28, 30) lying within the at least one second sensitive spectral range, and a lower edge wavelength of the third transmission range lying within the third sensitive spectral range of the camera sensor, characterized in that the projector unit comprises a light source, a transparency and the colour filter, which is fitted inside the projector unit between the light source and the transparency.
A multi-lumen stent graft, comprising a tubular main body stent graft and a tubular connection stent graft, wherein the main body stent graft comprises a tubular main body stent; the main body stent comprises a tubular main body covering and a main body support frame fixed on a wall of the main body covering; and a main lumen and at least one sub lumen are separated axially by a separation covering within the main body stent; in a released state, a proximal end of the connection stent graft and the main lumen at a distal end of the tubular main body stent graft are fitted and connected together; characterized in that the multi-lumen stent graft further comprises: a support rod fixed axially along an outer wall of a connection covering of the tubular connection stent graft, wherein the support rod is disposed on the connection covering on a side near the sub lumen. the main body stent graft comprises a tubular main body stent; the main body stent comprises a tubular main body covering and a main body support frame fixed on a wall of the main body covering; and a main lumen and at least one sub lumen are separated axially by a separation covering within the main body stent; in a released state, a proximal end of the connection stent graft and the main lumen at a distal end of the tubular main body stent graft are fitted and connected together; characterized in that the multi-lumen stent graft further comprises: a support rod fixed axially along an outer wall of a connection covering of the tubular connection stent graft, wherein the support rod is disposed on the connection covering on a side near the sub lumen.
Method for controlling the intensity of heat delivered by at least one heat source belonging to a cooking apparatus provided with a hob, said heat source being arranged underneath a circumscribed cooking area of said hob, said method being characterized in that it provides for the following steps: - calculating the variation over time in the difference between the temperatures detected in a first point (P 1) and in a second point (P 2) of said hob; and - reducing said heat intensity delivered by said heat source if such variation exceeds a predetermined maximum threshold Δ 2 T max. - calculating the variation over time in the difference between the temperatures detected in a first point (P 1) and in a second point (P 2) of said hob; and - reducing said heat intensity delivered by said heat source if such variation exceeds a predetermined maximum threshold Δ 2 T max.
A stimulation device for activating at least one muscle involved in raising the foot while an individual is walking, comprising: - sensors configured to be placed on a lower limb of the individual and of which measurement signals allow calculating an angle of flexion of the knee corresponding to said lower limb; - electrodes configured to be placed on the muscle(s) to be activated and suitable for electrically stimulating said muscle(s); - a processing unit able to receive the measurement signals from the sensors, the processing unit having calculation means for calculating the value of the angle of flexion of the knee from the measurement signals, and electrode control means connected to the calculation means and to the electrodes; where • the calculation means are configured to determine the swing phase in a walking cycle of the individual; • the control means are configured to: - activate the electrodes only during the swing phase of a walking cycle of the individual so that the electrodes generate electrical stimulation having an intensity as a function of the angle of flexion of the knee, characterized in that the control means are configured to: - activate the electrodes so that the electrodes generate electrical stimulation with an intensity that increases with the decrease of the angle of flexion of the knee, upon re-extension of the knee during the swing phase. - sensors configured to be placed on a lower limb of the individual and of which measurement signals allow calculating an angle of flexion of the knee corresponding to said lower limb; - electrodes configured to be placed on the muscle(s) to be activated and suitable for electrically stimulating said muscle(s); - a processing unit able to receive the measurement signals from the sensors, the processing unit having calculation means for calculating the value of the angle of flexion of the knee from the measurement signals, and electrode control means connected to the calculation means and to the electrodes; • the calculation means are configured to determine the swing phase in a walking cycle of the individual; • the control means are configured to: - activate the electrodes only during the swing phase of a walking cycle of the individual so that the electrodes generate electrical stimulation having an intensity as a function of the angle of flexion of the knee, characterized in that the control means are configured to: - activate the electrodes so that the electrodes generate electrical stimulation with an intensity that increases with the decrease of the angle of flexion of the knee, upon re-extension of the knee during the swing phase. - activate the electrodes only during the swing phase of a walking cycle of the individual so that the electrodes generate electrical stimulation having an intensity as a function of the angle of flexion of the knee, - activate the electrodes so that the electrodes generate electrical stimulation with an intensity that increases with the decrease of the angle of flexion of the knee, upon re-extension of the knee during the swing phase.
A method for manufacturing a wheel comprising a tubular preform manufacturing step (a), which comprises casting a liquid to be polymerized in a first mold and polymerizing said liquid in said first mold so as to be solidified into a tubular preform, with a main axis (XX'), the first mold comprising a central core, which is centered on the main axis (XX') and which allows forming the central bore of the tubular preform, as well as modeling cores arranged substantially parallel to the main axis (XX') so as to form, in the radial thickness of the tubular preform, recesses which extend axially according to the length of said tubular preform, said method comprising afterwards a cutting step (b), which comprising cutting the tubular preform substantially perpendicularly to the main axis (XX') thereof, and secant to the recesses, so as to obtain a tubular preform section forming a rim, and then an overmolding step (d) which comprises placing said rim in a second mold, concentrically with a central support member (12, 3), such as a sleeve or a shaft, which materializes the axis of rotation (X 1, X 1 ') of the wheel to be formed, and a polymer filling material is injected in the interstitial space which is comprised radially between said central support member (12, 3) and the rim so that said filling material come into contact with said central support member (12, 3) and penetrates the recesses of the rim, and therefore creates, when solidified, an intermediate disc which fastens the rim to the central support member (12, 3).
A method of applying a lid onto a neck of a container, the container being made of flexible sheet packaging material, the lid having a side wall extending around an axis and an end wall extending transversely to said axis, the method comprising the following steps: - positioning the lid onto the neck; - exerting on the end wall a force directed towards the container, so as to level the lid on the neck; - screwing the lid onto the neck by rotating the lid in a screwing direction, wherein, during the step of positioning the lid onto the neck, the container strips the lid from a dispensing opening of a distribution unit, characterized in that the step of screwing the lid is carried out by at least two gripping elements that are drivable between an engagement position, in which the gripping elements are closer to one another, and a disengagement position, in which the gripping elements are further from one another, the step of exerting on the end wall a force directed towards the container is carried out by the gripping elements, each of which has an abutment portion that impacts on the end wall, the gripping elements are in the disengagement position while the step of exerting on the end wall a force directed towards the container is carried out. - positioning the lid onto the neck; - exerting on the end wall a force directed towards the container, so as to level the lid on the neck; - screwing the lid onto the neck by rotating the lid in a screwing direction, wherein, during the step of positioning the lid onto the neck, the container strips the lid from a dispensing opening of a distribution unit, characterized in that the step of screwing the lid is carried out by at least two gripping elements that are drivable between an engagement position, in which the gripping elements are closer to one another, and a disengagement position, in which the gripping elements are further from one another, the step of exerting on the end wall a force directed towards the container is carried out by the gripping elements, each of which has an abutment portion that impacts on the end wall, the gripping elements are in the disengagement position while the step of exerting on the end wall a force directed towards the container is carried out.
An occupancy sensor characterised by comprising passive infrared sensor, PIR sensor, configured to sense values indicative of a person approaching or moving away from the occupancy sensor, and an infrared sensor, IR sensor, configured to detect the presence or absence of warm bodies, the occupancy sensor being configured to confirm occupancy or non-occupancy in dependence on signals measured by both the PIR sensor and the IR sensor wherein one half of the PIR sensor is shielded by covering half of the PIR sensor, wherein an ambient temperature sensor comprising a thermistor is further provided, adapted to monitor the ambient temperature and convert this into a value that is subtracted from the IR value sensed by the IR sensor, to neutralize inaccuracies in the IR value caused by a change in temperature.
A system, comprising: a multi-layer molded substrate, including: a first molded layer including a first mold compound having a first coefficient of thermal expansion, CTE; a first conductor in the first molded layer; an exposed conductor (118A, 118B) in the first molded layer configured to increase stiffness of the first molded layer and to provide a thermal outlet for thermal dissipation; a second molded layer including a second mold compound having a second CTE lower than the first CTE; a second conductor in the second molded layer; a third molded layer including a third mold compound having a third CTE lower than the second CTE; and a third conductor in the third molded layer; wherein the second molded layer is between the first and third molded layers; wherein the first, second, and third conductors are configured to transmit electrical signals through the multi-layer molded substrate, and wherein the exposed conductor (118A, 118B) is electrically isolated from the first, second, and third conductors by the first mold compound. a multi-layer molded substrate, including: a first molded layer including a first mold compound having a first coefficient of thermal expansion, CTE; a first conductor in the first molded layer; an exposed conductor (118A, 118B) in the first molded layer configured to increase stiffness of the first molded layer and to provide a thermal outlet for thermal dissipation; a second molded layer including a second mold compound having a second CTE lower than the first CTE; a second conductor in the second molded layer; a third molded layer including a third mold compound having a third CTE lower than the second CTE; and a third conductor in the third molded layer; a first molded layer including a first mold compound having a first coefficient of thermal expansion, CTE; a first conductor in the first molded layer; an exposed conductor (118A, 118B) in the first molded layer configured to increase stiffness of the first molded layer and to provide a thermal outlet for thermal dissipation; a second molded layer including a second mold compound having a second CTE lower than the first CTE; a second conductor in the second molded layer; a third molded layer including a third mold compound having a third CTE lower than the second CTE; and a third conductor in the third molded layer; wherein the second molded layer is between the first and third molded layers; wherein the first, second, and third conductors are configured to transmit electrical signals through the multi-layer molded substrate, and wherein the exposed conductor (118A, 118B) is electrically isolated from the first, second, and third conductors by the first mold compound.
A dental bleaching composition comprising a dental bleaching agent, a binder, tartrate, and a solvent; wherein the dental bleaching agent comprises peroxide, hypochlorite, percarbonate, peroxyacid, or a combination thereof; wherein the binder comprises a polymer, the polymer having a number averaged molecular weight of 500,000 to 4,000,000; wherein the tartrate comprises monosodium tartrate, disodium tartrate, sodium ammonium tartrate, monopotassium tartrate, dipotassium tartrate, potassium sodium tartrate, calcium tartrate, or a combination thereof; wherein the solvent comprises water, ethanol, or a combination thereof; wherein the dental bleaching composition comprises 100 parts by weight of the dental bleaching agent, 30 to 1,700 parts by weight of the binder, 0.3 to 350 parts by weight of the tartrate, and 300 to 3,200 parts by weight of the solvent; wherein the dental bleaching composition further comprises a metal component, wherein the metal component is derived from a metal salt; wherein the metal salt comprises iron salt, copper salt, or a combination thereof; wherein the concentration of the metal ions of metal salt within the dental bleaching agent composition ranges from 0.05 mM to 1 mM; and wherein said tartrate acts as a chelating agent that forms coordinate bonds to the metal ions to make a chemically stable chelate complex.
A method for determining a mass change at a rotating blade of a wind turbine, the method comprising: measuring a vibration quantity (aA, aB, aC) representative of a vibration of the wind turbine; measuring an azimuthal quantity representative of a rotation angle (Φ) of the blade; determining a frequency quantity representative of a vibration frequency (ω, f) of the blade from the vibration quantity and the azimuthal quantity; determining the mass change at the blade based on the frequency quantity, characterised in that the determining the mass change comprises comparing the frequency quantity with a reference frequency, wherein the determining the frequency quantity comprises multiplying a trigonometric function of a term related to the azimuthal quantity with the vibration quantity. measuring a vibration quantity (aA, aB, aC) representative of a vibration of the wind turbine; measuring an azimuthal quantity representative of a rotation angle (Φ) of the blade; determining a frequency quantity representative of a vibration frequency (ω, f) of the blade from the vibration quantity and the azimuthal quantity; determining the mass change at the blade based on the frequency quantity, characterised in that the determining the mass change comprises comparing the frequency quantity with a reference frequency, wherein the determining the frequency quantity comprises multiplying a trigonometric function of a term related to the azimuthal quantity with the vibration quantity.