mhurhangee/ep-ind-claims huggingface dataset:
A mould for moulding a container starting from a parison made of thermoplastic material, comprising: - a first half-mould and a second half-mould that can be brought together to define at least one housing cavity for housing the parison and the moulded container; - a first circuit configured to inject a blowing fluid into the parison; - a compensating chamber for compensating the mechanical deformations and plays of said half-moulds (1a, 1b); - a second circuit for supplying the compensating chamber, the second circuit comprising at least one valve configurable in an open position for a time interval (T open) during which the valve allows the fluid communication of a supply line for supplying the blowing fluid with the compensating chamber, characterised in that said second circuit further comprises: - a pressure sensor configured to detect a first signal (p mis) representing the pressure of the blowing fluid present in said compensating chamber; - a control unit which, in response to said first signal (p mis) detected, is configured to retroactively regulate said time interval (T open) during which said at least one valve is in the open position. - a first half-mould and a second half-mould that can be brought together to define at least one housing cavity for housing the parison and the moulded container; - a first circuit configured to inject a blowing fluid into the parison; - a compensating chamber for compensating the mechanical deformations and plays of said half-moulds (1a, 1b); - a second circuit for supplying the compensating chamber, the second circuit comprising at least one valve configurable in an open position for a time interval (T open) during which the valve allows the fluid communication of a supply line for supplying the blowing fluid with the compensating chamber, - a pressure sensor configured to detect a first signal (p mis) representing the pressure of the blowing fluid present in said compensating chamber; - a control unit which, in response to said first signal (p mis) detected, is configured to retroactively regulate said time interval (T open) during which said at least one valve is in the open position.
A composition comprising at least one yeast for use in the prevention of simple and/or recurrent cystitis, characterized in that the yeast is in the form of a live yeast, a dead yeast, yeast cell walls, purified fractions of yeast cell walls or mixtures thereof, and in that the yeast is the yeast obtained by culture of the Saccharomyces cerevisiae strain deposited with the CNCM on 17 October 2007 under number 1-3856.
An apparatus comprising: a first subchannel encoder configured to receive a first input signal representing a data signal, and to generate elements of a first weighted subchannel vector; a second subchannel encoder configured to receive a second input signal representing a clock signal, and to generate elements of a second weighted subchannel vector, wherein the second weighted subchannel vector is mutually orthogonal to the first weighted subchannel vector and wherein the second input signal has a half-unit interval offset with respect to the first input signal; an asynchronous codeword generator connected to the first and second subchannel encoders, the asynchronous codeword generator configured to receive the first and second subchannel vectors and to responsively generate elements of an asynchronous-transmit codeword by adding the first and second weighted subchannel vectors, wherein elements of the asynchronous-transmit codeword transition asynchronously in response to transitions of elements of the first or second weighted subchannel vector; and a driver configured to transmit the elements of the asynchronous-transmit codeword as analog signals on a multi-wire bus. a first subchannel encoder configured to receive a first input signal representing a data signal, and to generate elements of a first weighted subchannel vector; a second subchannel encoder configured to receive a second input signal representing a clock signal, and to generate elements of a second weighted subchannel vector, wherein the second weighted subchannel vector is mutually orthogonal to the first weighted subchannel vector and wherein the second input signal has a half-unit interval offset with respect to the first input signal; an asynchronous codeword generator connected to the first and second subchannel encoders, the asynchronous codeword generator configured to receive the first and second subchannel vectors and to responsively generate elements of an asynchronous-transmit codeword by adding the first and second weighted subchannel vectors, wherein elements of the asynchronous-transmit codeword transition asynchronously in response to transitions of elements of the first or second weighted subchannel vector; and a driver configured to transmit the elements of the asynchronous-transmit codeword as analog signals on a multi-wire bus.
A capacitive micromachined ultrasonic transducer (CMUT) device comprising a membrane coupled to a first electrode, a substrate opposing the membrane with a gas or vacuum cavity there between, said substrate being coupled to a second and a third electrodes, wherein the second electrode opposes the first electrode in a peripheral region and the third electrode opposes the first electrode in a central region; and at least one drive circuit comprising an AC-source and a DC-source each being coupled to the second electrode, the at least one drive circuit being adapted to (a) bring the membrane into a collapsed state in which the membrane is collapsed to the substrate in the central region, by applying a DC voltage over the first and the third electrodes, and (b) activate the CMUT device by applying an AC voltage having a CMUT operating frequency over the first and the second electrodes; characterized in that the third electrode is electrically coupled to the second electrode via a high impedance resistor having an impedance value higher than an AC impedance between the first and the second electrodes, when the membrane is in the collapsed state and the CMUT device is activated at operating frequency.
A muscle strengthening bar comprising a central gripping part separating a first end designed to receive a first weight and a second end designed to receive a second weight, a first attachment means and a second attachment means positioned symmetrically in relation to the central gripping part, each attachment means (4a, 4b) being positioned between one of the ends (2a, 2b) and the central gripping part and being designed to be connected to an end (6a, 6b) of a cord (5a, 5b), the muscle strengthening bar comprising a third attachment means and a fourth attachment means positioned symmetrically with respect to the central gripping part, each attachment means (8a, 8b) being positioned between one of the ends (2a, 2b) and the central gripping part and being designed to be connected to an end (23a, 23b) of an additional cord (9a, 9b), characterized in that the first attachment means is offset relative to the third attachment means, the second attachment means is offset relative to the fourth attachment means, the first attachment means and the second attachment means being rotatably mounted relative to the muscle strengthening bar and about the central axis, the third attachment means and the fourth attachment means being fixedly mounted on the muscle strengthening bar.
An array antenna apparatus wherein a plurality of antenna elements (10a - 10n) having transmission modules (20a - 20n), respectively, are arranged, wherein each of said plurality of transmission modules (20a - 20n) includes: a transmission signal generator (11a - 11 n) that outputs a transmission intermediate frequency signal; a local oscillation signal generator (21a - 21 n) that outputs a local oscillation signal; and a transmission mixer (12a - 12n) that mixes said transmission intermediate frequency signal and said local oscillation signal with each other thereby to carry out frequency conversion to a transmission high frequency signal; characterized in that a reference signal source is provided which inputs a reference signal (Sr) to said transmission signal generators (11a 11n) and said local oscillation signal generators (21a - 21 n); and said transmission intermediate frequency signal and said local oscillation signal are synchronized by said reference signal (Sr). a transmission signal generator (11a - 11 n) that outputs a transmission intermediate frequency signal; a local oscillation signal generator (21a - 21 n) that outputs a local oscillation signal; and a transmission mixer (12a - 12n) that mixes said transmission intermediate frequency signal and said local oscillation signal with each other thereby to carry out frequency conversion to a transmission high frequency signal; characterized in that a reference signal source is provided which inputs a reference signal (Sr) to said transmission signal generators (11a 11n) and said local oscillation signal generators (21a - 21 n); and said transmission intermediate frequency signal and said local oscillation signal are synchronized by said reference signal (Sr).
A data processing method of a printing apparatus for printing a multi-color image on a printing medium by each of printing heads (19a, 19b) for at least two colors while transporting the printing medium relative to the printing heads in a paper-feed direction, the method comprising: a skew detecting step of detecting a degree of skew of the printing medium; a correction printing-data generating step of setting a locatable area for locating print data for performing printing by a printing unit and shifting the print data in the locatable area in the paper-feed direction and a direction orthogonal with respect to the paper-feed direction in accordance with the degree of skew to generate correction printing-data, the printing unit having a first printing head disposed at an upstream end in the paper-feed direction and a second printing head spaced away from the first printing head in a downstream end in the paper-feed direction; and a printing step of performing printing on the printing medium with the printing unit in accordance with the correction printing-data, wherein the locatable area is larger than a locatable area when no skew occurs, and the correction printing-data is generated having the correction printing-data printed by the second printing head shifted more largely rather than the correction printing-data printed by the first printing head. a skew detecting step of detecting a degree of skew of the printing medium; a correction printing-data generating step of setting a locatable area for locating print data for performing printing by a printing unit and shifting the print data in the locatable area in the paper-feed direction and a direction orthogonal with respect to the paper-feed direction in accordance with the degree of skew to generate correction printing-data, the printing unit having a first printing head disposed at an upstream end in the paper-feed direction and a second printing head spaced away from the first printing head in a downstream end in the paper-feed direction; and a printing step of performing printing on the printing medium with the printing unit in accordance with the correction printing-data, wherein the locatable area is larger than a locatable area when no skew occurs, and the correction printing-data is generated having the correction printing-data printed by the second printing head shifted more largely rather than the correction printing-data printed by the first printing head.
A method of allocating transmit power among two or more carriers assigned to a wireless communication device, the method comprising: determining a total amount of data transmit power available at the wireless communication device (116, 122) for data transmission over the carriers; determining an efficiency metric for each carrier based on the carrier's transmission characteristics; allocating a guaranteed minimum amount of the total data transmit power to one or more carriers; and allocating a portion of the remaining total data transmit power to each carrier based on each carrier's efficiency metric. determining a total amount of data transmit power available at the wireless communication device (116, 122) for data transmission over the carriers; determining an efficiency metric for each carrier based on the carrier's transmission characteristics; allocating a guaranteed minimum amount of the total data transmit power to one or more carriers; and allocating a portion of the remaining total data transmit power to each carrier based on each carrier's efficiency metric.
A solid-state imaging device for capturing images at a predetermined frame rate comprising: a semiconductor substrate having a surface sectioned for red pixels, green pixels, blue pixels, and white pixels arranged in a matrix with photodiodes formed thereon; color filters (18R, 18G, 18B) formed on the semiconductor substrate in light incident paths to the photodiodes of the respective formation regions of the red pixels (R1, R2), the green pixels (G1, G2), and the blue pixels (B1, B2) and respectively transmitting lights in red, green, and blue wavelength regions; characterised by photochromic films formed on the semiconductor substrate in the light incident path to the photodiodes in the formation regions of at least some of the white pixels (W1, W2), and containing a photochromic material that has its light transmittance reduced in response to incident light intensity in a visible light region without substantially changing the colour of the transmitted light, wherein a half period of the light transmittance of the photochromic films is shorter than one frame which is a period in which pixel signals obtained in the pixels are read out with respect to all pixels, the half period being a necessary period from blocking of the light to the recovery of a value of a half of the fluctuation range of the light transmittance. a semiconductor substrate having a surface sectioned for red pixels, green pixels, blue pixels, and white pixels arranged in a matrix with photodiodes formed thereon; color filters (18R, 18G, 18B) formed on the semiconductor substrate in light incident paths to the photodiodes of the respective formation regions of the red pixels (R1, R2), the green pixels (G1, G2), and the blue pixels (B1, B2) and respectively transmitting lights in red, green, and blue wavelength regions; characterised by photochromic films formed on the semiconductor substrate in the light incident path to the photodiodes in the formation regions of at least some of the white pixels (W1, W2), and containing a photochromic material that has its light transmittance reduced in response to incident light intensity in a visible light region without substantially changing the colour of the transmitted light, wherein a half period of the light transmittance of the photochromic films is shorter than one frame which is a period in which pixel signals obtained in the pixels are read out with respect to all pixels, the half period being a necessary period from blocking of the light to the recovery of a value of a half of the fluctuation range of the light transmittance.
A method for performing access to a medium by a station, STA, in a wireless communication system, the method comprising: receiving a frame containing a Restricted Access Window, RAW, Parameter Set, RPS, element; checking a RAW Assignment field in the RPS element; and performing access based on a start time of a RAW when the STA corresponds to a RAW group related to the RAW Assignment field, wherein the start time of the RAW is obtained based on a Start Time Indication subfield, wherein the Start Time Indication subfield indicates whether a RAW Start Time subfield indicating the start time of the RAW is included in the RAW Assignment field., wherein, when the RAW Assignment field is a first RAW Assignment field in the RPS element and the Start Time Indication subfield is set to 0, the start time of the RAW is a time immediately after transmission of the frame, and wherein, when the RAW Assignment field is not the first RAW Assignment field in the RPS element and the Start Time Indication subfield is set to 0, the start time of the RAW is determined depending on a position of the RAW Assignment field among other RAW Assignment fields in the RPS element. receiving a frame containing a Restricted Access Window, RAW, Parameter Set, RPS, element; checking a RAW Assignment field in the RPS element; and performing access based on a start time of a RAW when the STA corresponds to a RAW group related to the RAW Assignment field, wherein the start time of the RAW is obtained based on a Start Time Indication subfield, wherein the Start Time Indication subfield indicates whether a RAW Start Time subfield indicating the start time of the RAW is included in the RAW Assignment field., wherein, when the RAW Assignment field is a first RAW Assignment field in the RPS element and the Start Time Indication subfield is set to 0, the start time of the RAW is a time immediately after transmission of the frame, and wherein, when the RAW Assignment field is not the first RAW Assignment field in the RPS element and the Start Time Indication subfield is set to 0, the start time of the RAW is determined depending on a position of the RAW Assignment field among other RAW Assignment fields in the RPS element.
An insecticidal thread having a first (2, 7, 21) and a second cross sectional part, the first part having an insecticide, an insect sterilising agent, an entomopathogen, or a synergist or a combination thereof incorporated in a polymeric material of the first part, the second part having an insecticide, an insect sterilising agent, an entomopathogen, or synergist or a combination thereof incorporated in a polymeric material of the second part, wherein the type of insecticide, insect sterilising agent, entomopathogen, or synergist or combination thereof in the second part is different from the type of insecticide, insect sterilising agent, entomopathogen, or synergist or combination thereof in the first part, characterised in that the first part is a first type of filaments and the second part is a second type of filaments.
Polyphase motor having windings without coil overlapping, wherein a plurality of coils of a phase next to one another and not overlapping as a coil group of a phase, and a number of such coil groups corresponding to the number of phases of the winding likewise next to one another without overlapping, form a motor module, the total number of coils being integrally divisible by the number of phases of the winding and being one greater than the number of poles of the secondary part covered by the motor module, and the winding of the entire motor being composed of one or more of these motor modules, wherein the teeth of the primary part of laminated design have a trapezoidal cross-section, wherein each tooth has a tooth tip which is not fixedly connected and which is put over the ends of the stator laminations stacked on top of one another, wherein the motor is configured in such a way that the windings are producible with a needle movable around the respective tooth, wherein gaps are provided between the windings for leading a needle therethrough, wherein the motor is an internal rotor, wherein for the stringing-together of motor modules they are configured in such a way that their primary parts each cover an even number of poles of the secondary part, wherein the motor modules are structurally connected to one another, wherein the centre distance between two coil groups is always exactly 1/3 of that electrical angle which is formed by the poles covered by the primary part, and the coil spacings within the coil groups of a phase are provided in a manner extended such that an equal coil span in the motor module results and thus also equal tooth spacings in iron-containing primary parts result.
A medical device for capturing one or more stone fragments, the medical device comprising: a sheath having a proximal end and a distal end; a handle at the proximal end of the sheath; a basket operable with the handle, the basket having a collapsed configuration when the basket is positioned within the sheath and having an expanded configuration when the basket is positioned beyond the distal end of the sheath, the basket including a plurality of wires (18, 20) that capture the stone fragments; an indicator that communicates to an operator of the medical device that the size of the stone fragments exceeds a predetermined limit, the indicator is an expandable braided sleeve or mesh that is configured to slide over the sheath and the basket; and a release mechanism that releases the stone fragments from the plurality of wires (18, 20) when the size of the stone fragments exceeds the predetermined limit, the plurality of wires (18, 20) being able to reset into an operable position after releasing the stone fragments. a sheath having a proximal end and a distal end; a handle at the proximal end of the sheath; a basket operable with the handle, the basket having a collapsed configuration when the basket is positioned within the sheath and having an expanded configuration when the basket is positioned beyond the distal end of the sheath, the basket including a plurality of wires (18, 20) that capture the stone fragments; an indicator that communicates to an operator of the medical device that the size of the stone fragments exceeds a predetermined limit, the indicator is an expandable braided sleeve or mesh that is configured to slide over the sheath and the basket; and a release mechanism that releases the stone fragments from the plurality of wires (18, 20) when the size of the stone fragments exceeds the predetermined limit, the plurality of wires (18, 20) being able to reset into an operable position after releasing the stone fragments.