mhurhangee/patent-ind-claim-en huggingface dataset:
A displacement pump for sucking and discharging a fluid by changing pressure in a space constituted by an outer peripheral surface of a rotor and an inner wall surface of a casing for accommodating the rotor , which is fixed to a pump main body for accommodating a shaft fixed to the rotor in an axial direction of the shaft and rotating with respect to the pump main body , comprising a side clearance adjusting member for moving the shaft in an axial direction of the shaft , wherein the side clearance adjusting member is screwed to the female screw of the pump main body at an end portion of the shaft on a side separated from the rotor , characterised in that a thermal expansion adjusting member is arranged between the side clearance adjusting member and a bearing for rotatably supporting the shaft , and thermal expansion coefficient of the thermal expansion adjusting member is larger than that of the pump main body for accommodating the shaft . wherein the side clearance adjusting member is screwed to the female screw of the pump main body at an end portion of the shaft on a side separated from the rotor , characterised in that a thermal expansion adjusting member is arranged between the side clearance adjusting member and a bearing for rotatably supporting the shaft , and thermal expansion coefficient of the thermal expansion adjusting member is larger than that of the pump main body for accommodating the shaft .
A life cycle management method for a network service, wherein the method comprises: receiving , by a first device, a life cycle management request from a second device for a target network service, NS, wherein the life cycle management request comprises a mapping relationship between an identifier of an existing virtualized network function, VNF, instance and a characteristic parameter corresponding to the identifier, the characteristic parameter is for identifying only one piece of VNF instance requirement information in a target network service descriptor, NSD, the VNF instance requirement information comprises a virtualized network function descriptor and a deployment flavor; and performing , by the first device, life cycle management on the target NS according to the existing VNF instance and the mapping relationship. receiving , by a first device, a life cycle management request from a second device for a target network service, NS, wherein the life cycle management request comprises a mapping relationship between an identifier of an existing virtualized network function, VNF, instance and a characteristic parameter corresponding to the identifier, the characteristic parameter is for identifying only one piece of VNF instance requirement information in a target network service descriptor, NSD, the VNF instance requirement information comprises a virtualized network function descriptor and a deployment flavor; and performing , by the first device, life cycle management on the target NS according to the existing VNF instance and the mapping relationship.
A mesoporous composite oxide catalyst represented by the following Formula 1: [Formula 1] 30~60 wt% Mo a Bi b Fe c Co d E e O y + 40~70wt% SiO 2 wherein E is cesium, a is 0.001 to 13, b, c, d and e are each independently 0.001 to 10, , and y is a value determined by the other components for adjusting the valance of O, wherein the mesoporous composite oxide catalyst has an average pore volume of the pores of 0.01 to 2 cm 3 /g, an average pore size is of 2 to 50 nm and a surface area of 20 to 1,400 m 2 /g, wherein the surface area, the average pore volume and the average pore size of the mesoporous composite oxide catalyst are calculated by BET, t-plot and BJH, respectively, based on adsorption isotherm of nitrogen. wherein E is cesium, a is 0.001 to 13, b, c, d and e are each independently 0.001 to 10, , and y is a value determined by the other components for adjusting the valance of O, wherein the mesoporous composite oxide catalyst has an average pore volume of the pores of 0.01 to 2 cm 3 /g, an average pore size is of 2 to 50 nm and a surface area of 20 to 1,400 m 2 /g, wherein the surface area, the average pore volume and the average pore size of the mesoporous composite oxide catalyst are calculated by BET, t-plot and BJH, respectively, based on adsorption isotherm of nitrogen.
A system for detecting divergence in a noise-cancellation system , comprising: a controller configured to: receive, from at least one reference sensor , at least one reference signal representative of undesired sound; receive, from an error sensor , an error signal representing a sum of a component of the error signal correlated with the least one reference signal and a residual component that is uncorrelated with the least one reference signal; determine a power of the component of the error signal that is correlated to the at least one reference signal ; determine an average value, over a first time period, of a value representative of a time gradient of the power of the component of the error signal, said average value corresponding to an estimate of a degree of divergence of the noise-cancellation system; and determine whether the average value is greater than a threshold. receive, from at least one reference sensor , at least one reference signal representative of undesired sound; receive, from an error sensor , an error signal representing a sum of a component of the error signal correlated with the least one reference signal and a residual component that is uncorrelated with the least one reference signal; determine a power of the component of the error signal that is correlated to the at least one reference signal ; determine an average value, over a first time period, of a value representative of a time gradient of the power of the component of the error signal, said average value corresponding to an estimate of a degree of divergence of the noise-cancellation system; and determine whether the average value is greater than a threshold.
A wireless charging system for electric vehicles , the charging system comprising: an AC-to-DC converter connectable to an electric AC grid ; a DC-to-AC converter interconnected with the AC-to-DC converter ; a first inductive coil interconnected with the DC-to-AC converter and for inductively coupling to a second inductive coil for power transfer via an air gap; a first housing , in which the AC-to-DC converter and a DC link with a DC link capacitor , which is interconnected between the AC-to-DC converter and the DC-to-AC converter ,is arranged; a second housing , in which the DC-to-AC converter and the first inductive coil are arranged; a cable for interconnecting the AC-to-DC converter and the DC-to-AC converter outside of the first housing and second housing ; a first controller inside the first housing for controlling the AC-to-DC converter , wherein the first controller is adapted to control a DC link voltage of the DC link to a variable setpoint voltage; a second controller inside the second housing for controlling the DC-to-AC converter ; wherein the first controller and the second controller are communicatively interconnected with a signal line that is provided in the cable ; wherein the first controller receives a power demand of the second controller via the signal line and determines the variable setpoint voltage from the power demand. an AC-to-DC converter connectable to an electric AC grid ; a DC-to-AC converter interconnected with the AC-to-DC converter ; a first inductive coil interconnected with the DC-to-AC converter and for inductively coupling to a second inductive coil for power transfer via an air gap; a first housing , in which the AC-to-DC converter and a DC link with a DC link capacitor , which is interconnected between the AC-to-DC converter and the DC-to-AC converter ,is arranged; a second housing , in which the DC-to-AC converter and the first inductive coil are arranged; a cable for interconnecting the AC-to-DC converter and the DC-to-AC converter outside of the first housing and second housing ; a first controller inside the first housing for controlling the AC-to-DC converter , wherein the first controller is adapted to control a DC link voltage of the DC link to a variable setpoint voltage; a second controller inside the second housing for controlling the DC-to-AC converter ; wherein the first controller and the second controller are communicatively interconnected with a signal line that is provided in the cable ; wherein the first controller receives a power demand of the second controller via the signal line and determines the variable setpoint voltage from the power demand.
A method for operating a device, the method comprising: determining, by the device , adaptation criteria for a waveform to be transmitted by a transmitting device over a communications channel towards a receiving device; adjusting , by the device, values for a generalized multi-carrier multiplexing parameter, GMMP, of the waveform in accordance with the adaptation criteria, wherein the GMMP specifies multiple waveforms and associated communications system parameters, wherein different values for the GMMP correspond to different waveforms, wherein each of said waveforms includes one of a orthogonal frequency division multiple access, OFDM, a sparse code multiple access, SCMA, a low density spreading, LDS, a low density signature OFDM, LDS-OFDM, a code division multiple access OFDM, CDMA-OFDM, a faster than Nyquist signaling, FTN and a filter bank multi-carrier, FBMC; and transmitting , by the device , an indicator of the adjusted values for the GMMP to at least one of the transmitting device and the receiving device; the adjusting the values for the GMMP permits the co-existence of different of said waveforms, wherein the different of said waveforms are assigned to different network resource partitions. determining, by the device , adaptation criteria for a waveform to be transmitted by a transmitting device over a communications channel towards a receiving device; adjusting , by the device, values for a generalized multi-carrier multiplexing parameter, GMMP, of the waveform in accordance with the adaptation criteria, wherein the GMMP specifies multiple waveforms and associated communications system parameters, wherein different values for the GMMP correspond to different waveforms, wherein each of said waveforms includes one of a orthogonal frequency division multiple access, OFDM, a sparse code multiple access, SCMA, a low density spreading, LDS, a low density signature OFDM, LDS-OFDM, a code division multiple access OFDM, CDMA-OFDM, a faster than Nyquist signaling, FTN and a filter bank multi-carrier, FBMC; and transmitting , by the device , an indicator of the adjusted values for the GMMP to at least one of the transmitting device and the receiving device; the adjusting the values for the GMMP permits the co-existence of different of said waveforms, wherein the different of said waveforms are assigned to different network resource partitions.
A method for processing metallized ceramic substrates, wherein a. a laser scribe line is generated as a predetermined breaking line in the metallized ceramic substrate using a laser beam; and/or b. an at least partial cutting through of the metallized ceramic substrate is carried out using a laser beam; wherein the processing is performed using a p-sec IR laser, characterized in that the light of the laser is absorbed by the ceramic substrate and the metal coating of the metallized ceramic substrate, in that in the generation of the laser scribe line as a nominal break line or in the cutting through a pulse duration of the laser is used which is selected such that the laser scribe line contains less than 30 vol. % and more than 0.1 vol. % of the melt phase of the ceramic material of the metallized ceramic substrate, that the processing speed of the p-sec laser is at least 0.05 m/sec and at most 19 m/sec and the depth of the laser scribe line is 5 to 50 % of the layer thickness of the ceramic substrate. a. a laser scribe line is generated as a predetermined breaking line in the metallized ceramic substrate using a laser beam; and/or b. an at least partial cutting through of the metallized ceramic substrate is carried out using a laser beam;
A grain yield management system for a combine harvester, the system comprising: a threshing apparatus ; a grain accumulator ; a grain conveyance mechanism for conveying grains from the threshing apparatus to the grain accumulator ; a conveyed grain measurement apparatus for measuring an amount of grain conveyed by the grain conveyance mechanism during travel for reaping grain culms; an accumulated grain measurement apparatus for measuring an amount of grain accumulated in the grain accumulator ; and an information generator for generating grain yield information regarding a field subjected to harvesting work, based on conveyed grain measurement data outputted from the conveyed grain measurement apparatus and accumulated grain measurement data outputted from the accumulated grain measurement apparatus , characterized in that the information generator includes a corrector for correcting the conveyed grain measurement data, based on a comparative evaluation value that is obtained by comparing and evaluating integrated data obtained by integrating the conveyed grain measurement data with the accumulated grain measurement data, and in that the corrector is configured to correct each piece of the conveyed grain measurement data so that a grain yield, obtained by integrating a conveyed grain measurement data group outputted until the accumulated grain measurement data is outputted, is equal to a grain yield that is based on the accumulated grain measurement data. a threshing apparatus ; a grain accumulator ; a grain conveyance mechanism for conveying grains from the threshing apparatus to the grain accumulator ; a conveyed grain measurement apparatus for measuring an amount of grain conveyed by the grain conveyance mechanism during travel for reaping grain culms; an accumulated grain measurement apparatus for measuring an amount of grain accumulated in the grain accumulator ; and an information generator for generating grain yield information regarding a field subjected to harvesting work, based on conveyed grain measurement data outputted from the conveyed grain measurement apparatus and accumulated grain measurement data outputted from the accumulated grain measurement apparatus , characterized in that the information generator includes a corrector for correcting the conveyed grain measurement data, based on a comparative evaluation value that is obtained by comparing and evaluating integrated data obtained by integrating the conveyed grain measurement data with the accumulated grain measurement data, and in that the corrector is configured to correct each piece of the conveyed grain measurement data so that a grain yield, obtained by integrating a conveyed grain measurement data group outputted until the accumulated grain measurement data is outputted, is equal to a grain yield that is based on the accumulated grain measurement data.
A product holder assembly for mobile cultivation of plants along at least one path in a hall, which assembly is provided with: - a product holder having a bottom and an upstanding circumferential wall extending from the bottom , - a first space extending from the bottom of the product holder along the wall to allow a medium or substrate for roots of the plants to receive nutriments and/or support from, - a grid system arranged to be placed on the product holder to cover the first space in the product holder and to separate the first space from a second space adjacent to the grid system at a side of the grid system facing away from the first space , wherein the grid system is arranged for holding a plurality of separate plants , the roots of which to reach for the first space and the leaves of which to reach for the second space , wherein the grid system is arranged to operate in conjunction with an air duct system , wherein the air duct system is connectable with an external air supply system to cause an overpressure in the air duct system relative to the second space , and wherein the grid system is adapted to direct a flow of air from the grid system into the second space along the plants , and wherein the grid system is formed by a plate comprising: a) a plurality of first apertures , each of which being arranged for holding at least one plant, wherein the plurality of first apertures form a predetermined pattern of first apertures spaced apart according to predetermined distances, b) a plurality of second apertures , each of which being arranged for passage of the flow of air guided by the air duct system ; characterized in that each of the plurality of first apertures is associated with a third space enclosed by a peripheral wall , wherein the peripheral wall : i) extends towards the bottom from a side of the grid system facing the first space , ii) is configured to reach into medium or a substrate, iii) is configured for allowing medium to enter the third space. - a product holder having a bottom and an upstanding circumferential wall extending from the bottom , - a first space extending from the bottom of the product holder along the wall to allow a medium or substrate for roots of the plants to receive nutriments and/or support from, - a grid system arranged to be placed on the product holder to cover the first space in the product holder and to separate the first space from a second space adjacent to the grid system at a side of the grid system facing away from the first space , a) a plurality of first apertures , each of which being arranged for holding at least one plant, wherein the plurality of first apertures form a predetermined pattern of first apertures spaced apart according to predetermined distances, b) a plurality of second apertures , each of which being arranged for passage of the flow of air guided by the air duct system ; i) extends towards the bottom from a side of the grid system facing the first space , ii) is configured to reach into medium or a substrate, iii) is configured for allowing medium to enter the third space.
A device comprising: a device body (85; 95; 105) having an attachment face (83; 93; 103) defined by an attachment area (84; 94; 104); and a contact array (10; 10b; 10c; 10d; 10e; lOf; lOg; 10h) disposed in the device body (85; 95; 105) and exposed at a coupling face (13; 13z; 25; 25b; 25c; 56; 62; 71; 81; 91; 101), wherein the contact array (10; 10b; 10c; 10d; 10e; lOf; 10g; 10h) comprises: one or more magnets (11; 11a-11h; 11z) disposed on the coupling face (13; 13z; 25; 25b; 25c; 56; 62; 71; 81; 91; 101); characterized in that the contact array (10; 10b; 10c; 10d; 10e; 10f; 10g; 10h) further comprises: a plurality of electrically conductive terminals (12; 12z; 12y) disposed on the coupling face (13; 13z; 25; 25b; 25c; 56; 62; 71; 81; 91; 101) proximate to the one or more magnets (11; 11a-11h; 11z), wherein a periphery of the one or more magnets (11; 11a-11h; 11z) and the plurality of electrically conductive terminals (12; 12z; 12y) defines a coupling area (15; 15z; 82; 92; 102) and wherein the attachment area (84; 94; 104) is greater than and independent of the coupling area (15; 15z; 82; 92; 102). a device body (85; 95; 105) having an attachment face (83; 93; 103) defined by an attachment area (84; 94; 104); and a contact array (10; 10b; 10c; 10d; 10e; lOf; lOg; 10h) disposed in the device body (85; 95; 105) and exposed at a coupling face (13; 13z; 25; 25b; 25c; 56; 62; 71; 81; 91; 101), wherein the contact array (10; 10b; 10c; 10d; 10e; lOf; 10g; 10h) comprises: one or more magnets (11; 11a-11h; 11z) disposed on the coupling face (13; 13z; 25; 25b; 25c; 56; 62; 71; 81; 91; 101); characterized in that the contact array (10; 10b; 10c; 10d; 10e; 10f; 10g; 10h) further comprises: a plurality of electrically conductive terminals (12; 12z; 12y) disposed on the coupling face (13; 13z; 25; 25b; 25c; 56; 62; 71; 81; 91; 101) proximate to the one or more magnets (11; 11a-11h; 11z), wherein a periphery of the one or more magnets (11; 11a-11h; 11z) and the plurality of electrically conductive terminals (12; 12z; 12y) defines a coupling area (15; 15z; 82; 92; 102) and wherein the attachment area (84; 94; 104) is greater than and independent of the coupling area (15; 15z; 82; 92; 102).
High-voltage battery for a vehicle, comprising - a housing with a single-shell bottom shell composed of metal and a cover composed of plastic which closes the bottom shell , and - a plurality of energy storage cells and/or energy storage modules which are arranged in the housing , characterized in that the cover is manufactured from fibre-reinforced thermoplastic. - a housing with a single-shell bottom shell composed of metal and a cover composed of plastic which closes the bottom shell , and - a plurality of energy storage cells and/or energy storage modules which are arranged in the housing ,
A medical composition suitable for introduction into a mammal comprising: a collection of synthetic nanoparticles that have a mean particle diameter of less than 70 nm that comprise an antigen and a synthetic polymer with hydroxyl and/or thiol functional groups disposed on the exterior of the nanoparticle that activate complement in a mammal, with the nanoparticles comprising a hydrophobic core and a hydrophilic overlayer, wherein the core is comprised of poly(propylene sulfide), with the antigen being attached to the exterior of the nanoparticle through disulfide bonds between the nanoparticle and the antigen, with the antigen being a polypeptide that can be recognized by an immune system that is of at least three amino acids in lengths. a collection of synthetic nanoparticles that have a mean particle diameter of less than 70 nm that comprise an antigen and a synthetic polymer with hydroxyl and/or thiol functional groups disposed on the exterior of the nanoparticle that activate complement in a mammal, with the nanoparticles comprising a hydrophobic core and a hydrophilic overlayer, wherein the core is comprised of poly(propylene sulfide), with the antigen being attached to the exterior of the nanoparticle through disulfide bonds between the nanoparticle and the antigen, with the antigen being a polypeptide that can be recognized by an immune system that is of at least three amino acids in lengths.
An inspecting method for a product including a transparent substrate and a part placed at a predetermined position within a front surface of the transparent substrate , the method comprising: an imaging step of taking an image (P, P10) of the front surface by an imaging device with the front surface being illuminated by an illuminating device ; and an evaluating step of evaluating a degree of matching between an image (R1 to R12) which is derived from the image (P, P10) taken by the imaging device and represents a position corresponding to the predetermined position and its vicinity, and a template (T1, T2, T3), the imaging step including arranging the illuminating device and the imaging device to allow the imaging device to receive light which is part of light from the illuminating device and specularly reflected from the front surface , and the template (T1, T2, T3) being indicative of a positional relationship between a real image and a virtual image , of the part in a case where the part is placed at the predetermined position correctly. an imaging step of taking an image (P, P10) of the front surface by an imaging device with the front surface being illuminated by an illuminating device ; and an evaluating step of evaluating a degree of matching between an image (R1 to R12) which is derived from the image (P, P10) taken by the imaging device and represents a position corresponding to the predetermined position and its vicinity, and a template (T1, T2, T3), the imaging step including arranging the illuminating device and the imaging device to allow the imaging device to receive light which is part of light from the illuminating device and specularly reflected from the front surface , and the template (T1, T2, T3) being indicative of a positional relationship between a real image and a virtual image , of the part in a case where the part is placed at the predetermined position correctly.