mhurhangee/patent-ind-claim-en huggingface dataset:
Network node for a wireless communication system , the network node comprising: a processor configured to allocate a plurality of Physical Resource Blocks, PRBs, for a Physical Uplink Control Channel, PUCCH, having a PUCCH format defined for two or more PRBs, wherein the allocated plurality of PRBs are associated with a user device ; a transceiver configured to signal allocation information to the user device , wherein the allocation information comprises a frequency location and a number of allocated plurality of PRBs; wherein the allocation information further comprises at least one of a modulation type and a modulation level for the allocated plurality of PRBs; wherein at least one of the frequency location and the number of allocated plurality of PRBs is jointly encoded with at least one of the modulation type and the modulation level. a processor configured to allocate a plurality of Physical Resource Blocks, PRBs, for a Physical Uplink Control Channel, PUCCH, having a PUCCH format defined for two or more PRBs, wherein the allocated plurality of PRBs are associated with a user device ; a transceiver configured to signal allocation information to the user device , wherein the allocation information comprises a frequency location and a number of allocated plurality of PRBs; wherein the allocation information further comprises at least one of a modulation type and a modulation level for the allocated plurality of PRBs; wherein at least one of the frequency location and the number of allocated plurality of PRBs is jointly encoded with at least one of the modulation type and the modulation level.
A mixing system for producing a mixture prior to it being fed into a bioreactor , comprising a plurality of supply units , each being able to hold media for use in the bioreactor a mixing unit for creating a uniform mixing of media a first feeding mechanism , arranged to feed media from the supply units into the mixing unit , a control unit operatively connected to the first feeding mechanism and the mixing unit , said control unit being configured to control the first feeding mechanism to feed predetermined amounts of media from the plurality of supply units to the mixing unit , and further being configured to control the mixing unit to create a uniform mixing of media, and further comprising a second feeding mechanism arranged to feed media from the mixing unit to the bioreactor , for feeding into a cell bag of the bioreactor . a plurality of supply units , each being able to hold media for use in the bioreactor a mixing unit for creating a uniform mixing of media a first feeding mechanism , arranged to feed media from the supply units into the mixing unit , a control unit operatively connected to the first feeding mechanism and the mixing unit , said control unit being configured to control the first feeding mechanism to feed predetermined amounts of media from the plurality of supply units to the mixing unit , and further being configured to control the mixing unit to create a uniform mixing of media, and further comprising a second feeding mechanism arranged to feed media from the mixing unit to the bioreactor , for feeding into a cell bag of the bioreactor .
An air inlet duct for a nacelle of an aircraft propulsion assembly , said duct comprising an annular body and an annular air inlet lip comprising two coaxial annular walls , respectively inner and outer , the inner wall defining a portion of an inner annular surface of the air inlet duct and the outer wall defining a portion of an outer annular surface of the air inlet duct , the air inlet duct further comprising a control system for moving the lip in axial translation relative to said body , from a first position in which the lip is joined to said body to a second position in which the lip is axially spaced apart from said body , the duct further comprising an annular row of grilles which are secured in translation with the lip and which are configured so as to be, in said first position, housed in said body , and, in said second position, extended from said body and intended to be traversed by an airflow entering the air inlet duct , the duct comprising at least one guiding system of the lip in translation with respect to said body , characterized in that the guiding system is rail and slide type, the rail being located on the body and the slide being located on the lip , the rail and the slide being configured to guide the lip parallel to a longitudinal axis of the air inlet duct during its moves from the first position to the second position and vice versa, the slide being provided in the grilles so that the air flow enters the nacelle by passing through the grilles and/or the slide when the lip is in second position, and in that the slide comprises two edges spaced apart so as to define a gap , the rail comprises two U-shaped profiles arranged to be accommodated in the gap in the first position and to free the gap in the second position, the edges and the U-shaped profiles being configured to allow an axial movement of the lip relative to the body and prevent any other type of movement. the duct comprising at least one guiding system of the lip in translation with respect to said body , characterized in that the guiding system is rail and slide type, the rail being located on the body and the slide being located on the lip , the rail and the slide being configured to guide the lip parallel to a longitudinal axis of the air inlet duct during its moves from the first position to the second position and vice versa, the slide being provided in the grilles so that the air flow enters the nacelle by passing through the grilles and/or the slide when the lip is in second position, and in that the slide comprises two edges spaced apart so as to define a gap , the rail comprises two U-shaped profiles arranged to be accommodated in the gap in the first position and to free the gap in the second position, the edges and the U-shaped profiles being configured to allow an axial movement of the lip relative to the body and prevent any other type of movement.
A sterilizer apparatus, configured to perform a sterilizing process to sterilize a load and comprising a sterilizer chamber , wherein the sterilizer apparatus is configured to inject steam into the sterilizer chamber ; a measurement probe comprising a measurement chamber having a fluid connection to the sterilizer chamber ; a light source configured to emit light into the measurement chamber ; and a light detector configured to detect the light in the measurement chamber and convert the detected light into a detection signal; wherein the measurement chamber comprises an orifice for supply of a dry gas, the orifice and the fluid connection with the sterilizer chamber being on opposite sides of the measurement chamber, and wherein the sterilizer apparatus is configured to automatically blow the dry gas through the orifice into the measurement chamber before or after the sterilizing procedure. a sterilizer chamber , wherein the sterilizer apparatus is configured to inject steam into the sterilizer chamber ; a measurement probe comprising a measurement chamber having a fluid connection to the sterilizer chamber ; a light source configured to emit light into the measurement chamber ; and a light detector configured to detect the light in the measurement chamber and convert the detected light into a detection signal; wherein the measurement chamber comprises an orifice for supply of a dry gas, the orifice and the fluid connection with the sterilizer chamber being on opposite sides of the measurement chamber,
A pharmaceutical composition comprising a) granulocyte-macrophage colony-stimulating factor (GM-CSF), b) sucralfate, and c) hyaluronic acid for use in the treatment or alleviation of a wound or ulcer of the skin of the body by topical application to said wound or ulcer. a) granulocyte-macrophage colony-stimulating factor (GM-CSF), b) sucralfate, and c) hyaluronic acid
A marker for illuminating an area of an aircraft, the marker comprising a housing and photoluminescent material exhibiting persistent luminescence and arranged to emit blue visible light in response to an excitation by electromagnetic radiation having wavelengths from 250nm to 500nm and wherein the photoluminescent material has an emission spectrum with a maximum peak intensity between 400nm and 510nm.
A method for measuring a sensor comprising multiple optical resonators optically connected to a single optical output interface ; wherein each optical resonator has a spectral response (S1) comprising a series of resonance peaks at distinct wavelengths (X1,i), wherein the wavelengths (X1,i) of the resonance peaks are indicative of a sensor measurable (X); the method comprising - interrogating the optical resonators with a light input signal (Si); - measuring a light output signal (So) from the optical output interface to determine a combined spectral response (Sa) covering a wavelength range (W) including a plurality of the resonance peaks (λ 1,i ; λ 2,j ) for each of the optical resonators ; - calculating a Fourier transform spectrum (FT) of the combined spectral response (Sa); - identifying a harmonic series of periodic peaks (n·f1) in the Fourier transform spectrum (FT); - filtering the harmonic series of periodic peaks to obtain a filtered Fourier transform spectrum (FT1); - calculating a sensor signal (X1) corresponding to one of the optical resonators based on the filtered Fourier transform spectrum (FT1). - interrogating the optical resonators with a light input signal (Si); - measuring a light output signal (So) from the optical output interface to determine a combined spectral response (Sa) covering a wavelength range (W) including a plurality of the resonance peaks (λ 1,i ; λ 2,j ) for each of the optical resonators ; - calculating a Fourier transform spectrum (FT) of the combined spectral response (Sa); - identifying a harmonic series of periodic peaks (n·f1) in the Fourier transform spectrum (FT); - filtering the harmonic series of periodic peaks to obtain a filtered Fourier transform spectrum (FT1); - calculating a sensor signal (X1) corresponding to one of the optical resonators based on the filtered Fourier transform spectrum (FT1).
A work vehicle , being an articulated type in which a front frame and a rear frame are linked, the work vehicle comprising: a hydraulic actuator driven hydraulically and configured to change a steering angle (θs) of the front frame with respect to the rear frame ; a joystick lever configured to be operated by an operator; a control valve linked to the joystick lever , and configured to control flow of fluid supplied to the hydraulic actuator according to an operation amount of the joystick lever , and restrict the operation amount of the joystick lever to a predetermined range; characterized by a force imparting component configured to impart an assist force or a counterforce to the operation of the joystick lever by the operator; and a controller configured to control the force imparting component so as to decrease the assist force or increase the counterforce before the operation of the joystick lever is restricted by the control valve . a hydraulic actuator driven hydraulically and configured to change a steering angle (θs) of the front frame with respect to the rear frame ; a joystick lever configured to be operated by an operator; a control valve linked to the joystick lever , and configured to control flow of fluid supplied to the hydraulic actuator according to an operation amount of the joystick lever , and restrict the operation amount of the joystick lever to a predetermined range; characterized by a force imparting component configured to impart an assist force or a counterforce to the operation of the joystick lever by the operator; and a controller configured to control the force imparting component so as to decrease the assist force or increase the counterforce before the operation of the joystick lever is restricted by the control valve .
A method comprising: encoding all 3D video components of a 3D video format in a view- or layer-based structured bitstream, all the layers or views of said bitstream being jointly coded using multi-view coding or scalable video coding, each of said 3D video components being assigned to one view or one layer, one or more views or layers being capable of being used as a reference for at least one other view or layer to exploit redundancy there between; arranging sets of encoded 3D video components in the view- or layer-based structured bitstream in a first order based on the 3D video format; and encoding signaling information of the view- or layer-based structured bitstream, said signaling information indicating said first order based on the 3D video format; characterized in that said signaling information comprises a first syntax element indicating that the 3D video format includes: - 2D video and corresponding depth components; or - 2D video and corresponding depth components, corresponding 2D occlusion video component and corresponding depth occlusion video component. encoding all 3D video components of a 3D video format in a view- or layer-based structured bitstream, all the layers or views of said bitstream being jointly coded using multi-view coding or scalable video coding, each of said 3D video components being assigned to one view or one layer, one or more views or layers being capable of being used as a reference for at least one other view or layer to exploit redundancy there between; arranging sets of encoded 3D video components in the view- or layer-based structured bitstream in a first order based on the 3D video format; and encoding signaling information of the view- or layer-based structured bitstream, said signaling information indicating said first order based on the 3D video format; characterized in that said signaling information comprises a first syntax element indicating that the 3D video format includes: - 2D video and corresponding depth components; or - 2D video and corresponding depth components, corresponding 2D occlusion video component and corresponding depth occlusion video component. - 2D video and corresponding depth components; or - 2D video and corresponding depth components, corresponding 2D occlusion video component and corresponding depth occlusion video component.
Open-end spinning machine comprising at least one spinning head having a spinning unit and a winding unit into reels , wherein the winding unit into reels winds onto a tube a reel of yarn obtained from the underlying spinning unit , - a main suction system of the spinning machine , with means for producing a vacuum for the machine and provided with a reception duct of the yarn waste, such as fluff, dust and/or yarn fibres, with an input mouth aeraulically connectable to said vacuum generating means by means of a main shut-off valve , - at least one service trolley mobile so as to be placeabale in the vicinity of each spinning head , the service trolley being fitted with its own secondary suction device able to generate a vacuum to aspirate yarn waste from each spinning head , wherein - the secondary suction device is fitted with its own storage tank for collecting the aspirated yarn waste, and its own discharge duct suitable to allow the selective emptying of the waste accumulated in said storage tank , - the discharge duct being fitted with a discharge mouth and a secondary shut-off valve configured to interact selectively with the input mouth of the waste reception duct and/or with the main shut-off valve , wherein the yarn waste reception duct is of the mobile and/or telescopic type so as to pass from a retracted configuration in which it does not interface with the discharge duct of the service trolley to an extracted configuration in which it connects aeraulically with said discharge duct in order to allow the passage of the waste from the collection tank into the centralised suction system . - a main suction system of the spinning machine , with means for producing a vacuum for the machine and provided with a reception duct of the yarn waste, such as fluff, dust and/or yarn fibres, with an input mouth aeraulically connectable to said vacuum generating means by means of a main shut-off valve , - at least one service trolley mobile so as to be placeabale in the vicinity of each spinning head , the service trolley being fitted with its own secondary suction device able to generate a vacuum to aspirate yarn waste from each spinning head , wherein - the secondary suction device is fitted with its own storage tank for collecting the aspirated yarn waste, and its own discharge duct suitable to allow the selective emptying of the waste accumulated in said storage tank , - the discharge duct being fitted with a discharge mouth and a secondary shut-off valve configured to interact selectively with the input mouth of the waste reception duct and/or with the main shut-off valve , wherein the yarn waste reception duct is of the mobile and/or telescopic type so as to pass from a retracted configuration in which it does not interface with the discharge duct of the service trolley to an extracted configuration in which it connects aeraulically with said discharge duct in order to allow the passage of the waste from the collection tank into the centralised suction system .
Stator of an electric machine , which stator has a stator yoke that extends annularly around a stator axis and has stator teeth that each extend along a tooth axis and protrude from the stator yoke in the radial direction with respect to the stator axis , wherein a first end of each stator tooth is arranged on the stator yoke and a tooth head is formed on a second end opposite the first end , each tooth head having two tooth-head projections (X, Y), each of which projects transversely to the tooth axis in relation to the remaining stator tooth so as to form a tooth-head step (4.1), wherein each tooth head of the stator teeth is trapezoidal and is formed asymmetrically with respect to the respective tooth axis , wherein the trapezoidal shape of the tooth head has a base facing the tooth-head step (4.1), a bottom side facing away from the tooth-head step (4.1), and also a first limb and a second limb , wherein the first limb and the second limb each extend between the base and the bottom side , and in particular form different angles with the base , wherein the base is longer than the bottom side , wherein the base and the bottom side run parallel to each other, wherein the first limb and the second limb preferably do not run in parallel, and wherein the base rests against the second end of the stator tooth , wherein a first tooth-head projection (X), which corresponds to the subregion of the base between the first limb and the stator tooth , is greater than a second tooth-head projection (Y), which corresponds to the subregion of the base between the stator tooth and the second limb , and wherein the second tooth-head projection (Y) is 0.4 times to 0.85 times the first tooth-head projection (X).
An emotion inference device comprising: a storage unit and a device side control unit , wherein the storage unit is configured to collect and store various data, the various data are utilizable as detection values concerned with the emotion of the user (U), the storage unit collects the various data from a plurality of products for use by the user (U), the plurality of products are connected to a communication network , the device side control unit is configured to execute an individual personality that is an algorithm to simulate or emulate an emotion of the user (U) in accordance with a computer program, the individual personality is a virtual personality that imitates an emotion or emotion change of the user (U) in accordance with an external factor by machine learning the various data stored in the storage unit , and the emotion inference device is characterized in that the device side control unit is configured to form a base personality based on the individual personality , the base personality is a data showing an emotion held by the user (U) when the user is in a calm state, the base personality is obtained by inferring a tendency of the emotion of the user (U), the emotion inference device further comprising an emotion detecting section configured to infer an emotion of the user (U) by comparing the individual personality of the user (U) with the base personality of the user (U). a storage unit and a device side control unit , wherein the storage unit is configured to collect and store various data, the various data are utilizable as detection values concerned with the emotion of the user (U), the storage unit collects the various data from a plurality of products for use by the user (U), the plurality of products are connected to a communication network , the device side control unit is configured to execute an individual personality that is an algorithm to simulate or emulate an emotion of the user (U) in accordance with a computer program, the individual personality is a virtual personality that imitates an emotion or emotion change of the user (U) in accordance with an external factor by machine learning the various data stored in the storage unit , and the emotion inference device is characterized in that the device side control unit is configured to form a base personality based on the individual personality , the base personality is a data showing an emotion held by the user (U) when the user is in a calm state, the base personality is obtained by inferring a tendency of the emotion of the user (U), the emotion inference device further comprising an emotion detecting section configured to infer an emotion of the user (U) by comparing the individual personality of the user (U) with the base personality of the user (U).
A power converting device , including: a dc-dc converting circuit configured to convert a dc input voltage (Vin1) to a dc bus voltage (Vbus); a dc-ac converting circuit electrically coupled to the dc-dc converting circuit and configured to convert the dc bus voltage (Vbus) to an ac voltage (Vac); and an insulation detecting circuit electrically coupled between the dc-dc converting circuit and the dc-ac converting circuit and electrically coupled to a ground terminal, and configured to receive the dc bus voltage, wherein the insulation detecting circuit is configured to detect a ground impedance value of the power converting device according to the received dc bus voltage (Vbus). a dc-dc converting circuit configured to convert a dc input voltage (Vin1) to a dc bus voltage (Vbus); a dc-ac converting circuit electrically coupled to the dc-dc converting circuit and configured to convert the dc bus voltage (Vbus) to an ac voltage (Vac); and an insulation detecting circuit electrically coupled between the dc-dc converting circuit and the dc-ac converting circuit and electrically coupled to a ground terminal, and configured to receive the dc bus voltage, wherein the insulation detecting circuit is configured to detect a ground impedance value of the power converting device according to the received dc bus voltage (Vbus).