mhurhangee/patent-ind-claim-en huggingface dataset:
A treatment device for treating reinforcement fiber comprising: a support including a supporting surface ; a pressure body (35; 135) including a pressing surface (35; 135a); vibration means for applying ultrasonic vibrations to the pressure body in a pressing direction perpendicular to the supporting surface; and movement means for moving a reinforcements fiber (B) and a resin member (S) relative to the pressure body in a state where the reinforcement fiber overlapped with the resin member is held between the supporting surface and the pressing surface of the pressure body ultrasonically vibrated by the vibration means in the pressing direction, wherein the reinforcement fiber is impregnated with a resin of the resin member while the movement means is moving a pressed part of the reinforcement fiber pressed by the pressing surface. a support including a supporting surface ; a pressure body (35; 135) including a pressing surface (35; 135a); vibration means for applying ultrasonic vibrations to the pressure body in a pressing direction perpendicular to the supporting surface; and movement means for moving a reinforcements fiber (B) and a resin member (S) relative to the pressure body in a state where the reinforcement fiber overlapped with the resin member is held between the supporting surface and the pressing surface of the pressure body ultrasonically vibrated by the vibration means in the pressing direction, wherein the reinforcement fiber is impregnated with a resin of the resin member while the movement means is moving a pressed part of the reinforcement fiber pressed by the pressing surface.
A three-phase transmitter, comprising: a first signal branch (102 ), a second signal branch (102 ), and a third signal branch (102 ), wherein each of the first signal branch, the second signal branch, and the third signal branch comprises a respective branch impedance (104 -104 ) and a respective driving impedance (106 - 106 ); wherein the three-phase transmitter is characterised by being configured to configure the respective driving impedance of a selected signal branch to be less than the respective branch impedance of the selected signal branch when a signal branch among the first signal branch, the second signal branch, and the third signal branch is selected to function as a common mode branch by being coupled to a common mode voltage. a first signal branch (102 ), a second signal branch (102 ), and a third signal branch (102 ), wherein each of the first signal branch, the second signal branch, and the third signal branch comprises a respective branch impedance (104 -104 ) and a respective driving impedance (106 - 106 ); wherein the three-phase transmitter is characterised by being configured to configure the respective driving impedance of a selected signal branch to be less than the respective branch impedance of the selected signal branch when a signal branch among the first signal branch, the second signal branch, and the third signal branch is selected to function as a common mode branch by being coupled to a common mode voltage.
A conductive terminal (10; 20) comprising: a body (100; 200); and a pair of first elastic cantilevers (110,110; 220,220) adapted to clamp a first conductor , the pair of first elastic cantilevers being connected to the body (100; 200) and accommodated within a first accommodation chamber (101; 201) formed in the body (100; 200), characterized in that each first elastic cantilever (110; 210) or the body (100; 200) is formed with a first elastic support structure , by which a free end (1 10a) of each first elastic cantilever (110; 210) is elastically supported on an inner wall of the first accommodation chamber (101; 201) when the first conductor is clamped between the pair of first elastic cantilevers (110,110; 210,210). a body (100; 200); and a pair of first elastic cantilevers (110,110; 220,220) adapted to clamp a first conductor , the pair of first elastic cantilevers being connected to the body (100; 200) and accommodated within a first accommodation chamber (101; 201) formed in the body (100; 200), characterized in that each first elastic cantilever (110; 210) or the body (100; 200) is formed with a first elastic support structure , by which a free end (1 10a) of each first elastic cantilever (110; 210) is elastically supported on an inner wall of the first accommodation chamber (101; 201) when the first conductor is clamped between the pair of first elastic cantilevers (110,110; 210,210).
Door of a dwelling comprising an openable mail slot mounted on the door and provided with slot locking means storing a public encryption key and being configured to - wirelessly receive and verify a time limited opening code digitally signed or encrypted by the corresponding secret key and transmitted by a short-range wireless key of a mail carrier and - to control the mail slot such that the mail slot is opened automatically by said slot locking means without the carrier's action when the carrier's wireless key is brought to the immediate vicinity of the mail slot and when the opening code received from said carrier's wireless key has been successfully verified by the slot locking means by means of the public encryption key stored in the slot locking means , characterized in that the mail slot , in a locked condition, is strictly flush with the door surface and sealed to its frame to prevent the pouring of liquids in through the slot, and, in an opened condition, the mail slot allows the delivery of parcels having a thickness of at least 5 cm. - wirelessly receive and verify a time limited opening code digitally signed or encrypted by the corresponding secret key and transmitted by a short-range wireless key of a mail carrier and - to control the mail slot such that the mail slot is opened automatically by said slot locking means without the carrier's action when the carrier's wireless key is brought to the immediate vicinity of the mail slot and when the opening code received from said carrier's wireless key has been successfully verified by the slot locking means by means of the public encryption key stored in the slot locking means , characterized in that the mail slot , in a locked condition, is strictly flush with the door surface and sealed to its frame to prevent the pouring of liquids in through the slot, and, in an opened condition, the mail slot allows the delivery of parcels having a thickness of at least 5 cm.
An electromagnetic-wave-absorbing filter to be wound around a conductor cable , comprising an electromagnetic-wave-absorbing layer , an insulating layer , and an electromagnetic-wave-shielding layer in this order from inside; characterized in that said electromagnetic-wave-absorbing layer is constituted by a laminate of at least two electromagnetic-wave-absorbing films ; each of said electromagnetic-wave-absorbing films comprises a single- or multi-layer thin metal film formed on a surface of a plastic film , said thin metal film being provided with pluralities of substantially parallel, intermittent, linear scratches with irregular widths and intervals in plural directions; said linear scratches in each of said electromagnetic-wave-absorbing films have an acute crossing angle θs in a range of 30-90°; the linear scratches (113 1 ) in one electromagnetic-wave-absorbing film is crossing the linear scratches (113 2 ) in the other electromagnetic-wave-absorbing film ; said two electromagnetic-wave-absorbing films have different lengths in a longitudinal direction of said conductor cable ; and an L 2 /L 1 ratio, wherein L 1 is the length of a longer electromagnetic-wave-absorbing film , and L 2 is the length of a shorter electromagnetic-wave-absorbing film , being 30-70%.
A sensor mounting for an electric machine for the drive of a motor vehicle, having a retaining body for accommodating a temperature sensor , a metal retaining plate that is fastened to the retaining body and is intended for fastening to the electric machine in a defined installation position relative to the electric machine, wherein, in the installation position, the temperature sensor is oriented substantially in the radial direction of the electric machine, and having a spring element that is supported on the retaining body and is intended for providing spring prestressing in the axial direction for the purpose of pressing the temperature sensor against a radially inner edge of a winding , wherein the spring element is designed in one piece with the retaining plate .
Portable, hand-held cut-off grinding machine having: ▪ a supporting housing part , ▪ a cut-off grinding disc with a disc diameter (D), ▪ an output shaft which is mounted on the housing part by means of a bearing element so as to be rotatable about an output axis , ▪ a drive motor and a transmission device which connects the drive motor to the output shaft , wherein the transmission device is arranged on the housing part , ▪ a flange with a flange diameter (d f ), wherein the cut-off grinding disc is able to be arranged in a rotationally conjoint manner on the output shaft by means of the flange , and ▪ a protective hood with a covering region , which at least partially covers the cut-off grinding disc , and with a machining region , which exposes the cut-off grinding disc , wherein the protective hood is mounted on the housing part so as to be pivotable about a pivot axis , characterized in that the flange diameter (d f ) of the flange corresponds to a minimum flange diameter (d min ), and the protective hood , over a first angle range (θ 1 ), the supporting housing part , over a second angle range (θ 2 ), and the transmission device , over a third angle range (θ 3 ), have maximum distances (b 1 , b 2 , b 3 ) from the output axis which are less than or equal to half the minimum flange diameter (d min ). ▪ a supporting housing part , ▪ a cut-off grinding disc with a disc diameter (D), ▪ an output shaft which is mounted on the housing part by means of a bearing element so as to be rotatable about an output axis , ▪ a drive motor and a transmission device which connects the drive motor to the output shaft , wherein the transmission device is arranged on the housing part , ▪ a flange with a flange diameter (d f ), wherein the cut-off grinding disc is able to be arranged in a rotationally conjoint manner on the output shaft by means of the flange , and ▪ a protective hood with a covering region , which at least partially covers the cut-off grinding disc , and with a machining region , which exposes the cut-off grinding disc , wherein the protective hood is mounted on the housing part so as to be pivotable about a pivot axis ,
An identification method of an isotope present in a medium to be characterised by a measurement system for measuring energy-resolved ionising radiations, the identification method including the following steps of: - E1 measuring at least one reference spectrum for at least two reference isotopes, - E2 normalising the reference spectra , - E3 delimiting for each reference isotope measurement windows in the reference spectrum of said isotope, the width of the measurement windows being dependent on said reference spectrum of the reference isotope, - E4 measuring a measured spectrum on the medium to be characterised, - E5 normalising the measured spectrum , - E6 for each reference isotope, delimiting in the measured spectrum measurement windows identical to those delimited for said reference isotope and calculating for each of the measurement windows a deviation value which is representative of the deviation between the measured spectrum and that of the reference isotope in said measurement window , - E7 for each reference isotope, determining from the deviation values calculated for said reference isotope an identity coefficient, - E8 identifying the isotope from the determined identity coefficients. - E1 measuring at least one reference spectrum for at least two reference isotopes, - E2 normalising the reference spectra , - E3 delimiting for each reference isotope measurement windows in the reference spectrum of said isotope, the width of the measurement windows being dependent on said reference spectrum of the reference isotope, - E4 measuring a measured spectrum on the medium to be characterised, - E5 normalising the measured spectrum , - E6 for each reference isotope, delimiting in the measured spectrum measurement windows identical to those delimited for said reference isotope and calculating for each of the measurement windows a deviation value which is representative of the deviation between the measured spectrum and that of the reference isotope in said measurement window , - E7 for each reference isotope, determining from the deviation values calculated for said reference isotope an identity coefficient, - E8 identifying the isotope from the determined identity coefficients.
Method for verifying an association between a user device and a group of user devices sharing a common subscription, said user device being adapted to communicate with a specific service provider using signalling messages sent through the Internet, comprising: - intercepting the signalling messages sent from the user device to the specific service provider; - deriving an involved service provider from an incoming message; - verifying whether this service provider is on a list of service providers; - only if the service provider is on said list, adapting each signalling message with information to include a guarantee to the service provider that the message is sent from a location allowed by the common subscription; and sending each adapted signalling message through the Internet to the specific service provider. - intercepting the signalling messages sent from the user device to the specific service provider; - deriving an involved service provider from an incoming message; - verifying whether this service provider is on a list of service providers; - only if the service provider is on said list, adapting each signalling message with information to include a guarantee to the service provider that the message is sent from a location allowed by the common subscription; and sending each adapted signalling message through the Internet to the specific service provider.
An anti-infective and anti-adhesive wound dressing based on nonspecific adhesion to bacteria, comprising a micron-sized porous membrane with polyolefin contained in a surface thereof and does not contain any bactericide, wherein the micron-sized porous membrane forms nonspecific adhesion to bacteria on a wound by adaptability of surface energy and a structure of the porous membrane to surface energy of the bacterial, so as to realize the anti-infection for the bacteria and the anti-adhesion to the wound; wherein the polyolefin is polymethylpentene.
An apparatus for use in a user equipment, UE, the apparatus comprising processing circuitry configured to: receive information elements, IEs, configuring first and second sets of physical uplink control channel, PUCCH, resources for transmitting uplink control information, UCI, wherein each of the first and the second set of PUCCH resources include a first and a second PUCCH format resource having different UCI capacities; generate UCI for transmission using a selected PUCCH format resource, wherein: the PUCCH format resource is selected from the first set of PUCCH resources when the UE is configured with more than five component carriers and when UCI to be transmitted on PUCCH of a single uplink, UL, subframe includes either hybrid automatic repeat request acknowledgement, HARQ-ACK, bits only or a combination of HARQ-ACK bits and periodic channel state information, P-CSI, bits; and the first PUCCH format resource is selected based on the payload size of the UCI; and set transmission power for transmitting the UCI using the selected PUCCH format resource based on the payload size of the UCI and the number of resource blocks of the selected PUCCH resource. receive information elements, IEs, configuring first and second sets of physical uplink control channel, PUCCH, resources for transmitting uplink control information, UCI, wherein each of the first and the second set of PUCCH resources include a first and a second PUCCH format resource having different UCI capacities; generate UCI for transmission using a selected PUCCH format resource, wherein: the PUCCH format resource is selected from the first set of PUCCH resources when the UE is configured with more than five component carriers and when UCI to be transmitted on PUCCH of a single uplink, UL, subframe includes either hybrid automatic repeat request acknowledgement, HARQ-ACK, bits only or a combination of HARQ-ACK bits and periodic channel state information, P-CSI, bits; and the first PUCCH format resource is selected based on the payload size of the UCI; and set transmission power for transmitting the UCI using the selected PUCCH format resource based on the payload size of the UCI and the number of resource blocks of the selected PUCCH resource. the PUCCH format resource is selected from the first set of PUCCH resources when the UE is configured with more than five component carriers and when UCI to be transmitted on PUCCH of a single uplink, UL, subframe includes either hybrid automatic repeat request acknowledgement, HARQ-ACK, bits only or a combination of HARQ-ACK bits and periodic channel state information, P-CSI, bits; and the first PUCCH format resource is selected based on the payload size of the UCI; and set transmission power for transmitting the UCI using the selected PUCCH format resource based on the payload size of the UCI and the number of resource blocks of the selected PUCCH resource.
Calcium aluminate cement, including a calcium aluminate with a first crystallised mineralogical phase of calcium dialuminate CA2 comprising one calcium oxide CaO for two aluminium oxides Al 2 O 3 and a second crystallised mineralogical phase of dicalcium alumina silicate C2AS comprising two calcium oxides CaO for one aluminium oxide Al 2 O 3 and one silicon dioxide SiO 2 , characterised in that the mass fraction of all of said first and second mineralogical phases in said calcium aluminate is greater than or equal to 80%.
Method for arranging a slope in a self-levelling cast floor, the method comprising the steps of: - providing a mould with a shaped surface corresponding to the slope; - pouring the self-levelling cast floor on a base surface; - arranging the mould with the shaped surface at a distance from the base surface before or after pouring of the cast floor; and - removing the mould after curing of the cast floor wherein the mould is provided with a coupling piece for coupling to a draining opening, such as a siphon, arranged on the base surface. - providing a mould with a shaped surface corresponding to the slope; - pouring the self-levelling cast floor on a base surface; - arranging the mould with the shaped surface at a distance from the base surface before or after pouring of the cast floor; and - removing the mould after curing of the cast floor
A lubrication system for a gas turbine engine comprising: a primary fluid tank to receive a primary fluid; a plurality of secondary fluid tanks to receive at least one fluid additive, wherein each secondary fluid tank includes a different fluid additive; and a mixer having at least a first inlet in fluid communication with the primary fluid tank and a second inlet in fluid communication with at least one secondary fluid tank , and including at least one outlet configured to deliver a mixture of the primary fluid and the at least one fluid additive to a gas turbine engine component , and wherein the mixer includes an additional fluid inlet for each additional secondary fluid tank ; and one or more valves associated with supply lines that connect each secondary fluid tank to the mixer . a primary fluid tank to receive a primary fluid; a plurality of secondary fluid tanks to receive at least one fluid additive, wherein each secondary fluid tank includes a different fluid additive; and a mixer having at least a first inlet in fluid communication with the primary fluid tank and a second inlet in fluid communication with at least one secondary fluid tank , and including at least one outlet configured to deliver a mixture of the primary fluid and the at least one fluid additive to a gas turbine engine component , and wherein the mixer includes an additional fluid inlet for each additional secondary fluid tank ; and one or more valves associated with supply lines that connect each secondary fluid tank to the mixer .
An ultrasound device, comprising: a transducer array having transducer elements and being formed on a first side of a substrate ; a first through via passing through a thickness of the substrate between the first side and a second side, opposite the first side; a first conductive bump connected to the first through via on the second side, the conductive bump including a first solder cap ; a second through via passing through the thickness of the substrate between the first side and the second side; a second conductive bump connected to the second through via on the second side, the second conductive bump including a second solder cap ; a coaxial cable comprising (i) a center conductor electrically coupled to the first through via on the second side to provide signals to and from the transducer array , and (ii) a ground shield ; and a microbeamforming circuit which controls transmission and reception of signals by the transducer elements in the transducer array, characterized in that the microbeamforming circuit is integrated into the substrate on which also the transducer array is formed, and in that the center conductor of the coaxial cable is connected to the first solder cap and the ground shield of the coaxial cable is connected to the second solder cap . a transducer array having transducer elements and being formed on a first side of a substrate ; a first through via passing through a thickness of the substrate between the first side and a second side, opposite the first side; a first conductive bump connected to the first through via on the second side, the conductive bump including a first solder cap ; a second through via passing through the thickness of the substrate between the first side and the second side; a second conductive bump connected to the second through via on the second side, the second conductive bump including a second solder cap ; a coaxial cable comprising (i) a center conductor electrically coupled to the first through via on the second side to provide signals to and from the transducer array , and (ii) a ground shield ; and a microbeamforming circuit which controls transmission and reception of signals by the transducer elements in the transducer array, characterized in that the microbeamforming circuit is integrated into the substrate on which also the transducer array is formed, and in that the center conductor of the coaxial cable is connected to the first solder cap and the ground shield of the coaxial cable is connected to the second solder cap .
A communication device , comprising: a processor configured to receive an indication of a first signal power of a first base station and a second signal power of a second base station ; and characterized by a channel estimation module , implemented at least in part in circuitry, configured to compute an estimate of a channel from the first and second base stations based at least in part on a transmit precoder scaled according to the indication of the first signal power and the indication of the second signal power. a processor configured to receive an indication of a first signal power of a first base station and a second signal power of a second base station ; and characterized by a channel estimation module , implemented at least in part in circuitry, configured to compute an estimate of a channel from the first and second base stations based at least in part on a transmit precoder scaled according to the indication of the first signal power and the indication of the second signal power.