mhurhangee/patent-ind-claim-en huggingface dataset:
An information disclosure system (1; 10) that discloses user's information to a communicating party, the information disclosure system (1; 10) comprising: information disclosing means for disclosing at least part of the user's information as disclosure information to the communicating party; setting means for setting a disclosure range for disclosing the user's information as the disclosure information in the information disclosing means ; history storage means for storing a history of communication between the user and the communicating party; and interaction frequency calculating means for calculating an interaction frequency between the user and the communicating party based on the history of the communication stored in the history storage means , wherein the setting means sets the disclosure range based on the interaction frequency calculated by the interaction frequency calculating means , and wherein, when the history of the communication stored in the history storage means includes communication performed from the user to the communicating party, the interaction frequency calculating means calculates a higher interaction frequency of the user and the communicating party when the communication is newly performed from the user to the communicating party than when the communication is a response to communication previously performed from the communicating party to the user. information disclosing means for disclosing at least part of the user's information as disclosure information to the communicating party; setting means for setting a disclosure range for disclosing the user's information as the disclosure information in the information disclosing means ; history storage means for storing a history of communication between the user and the communicating party; and interaction frequency calculating means for calculating an interaction frequency between the user and the communicating party based on the history of the communication stored in the history storage means , wherein the setting means sets the disclosure range based on the interaction frequency calculated by the interaction frequency calculating means , and wherein, when the history of the communication stored in the history storage means includes communication performed from the user to the communicating party, the interaction frequency calculating means calculates a higher interaction frequency of the user and the communicating party when the communication is newly performed from the user to the communicating party than when the communication is a response to communication previously performed from the communicating party to the user.
An antenna assembly, comprising: a layered structure comprising a planar array of antenna elements, wherein the planar array of antenna elements comprises contacts for the array of antenna elements ; and a feed arrangement provided in a plane that is at an angle to the plane of the antenna elements; wherein the layered structure further comprises one or more layers over the planar array of antenna elements, and wherein holes are provided through the one or more layers to allow the feed arrangement to be connected to the contacts for the array of antenna elements, characterised in that the layered structure further comprises thermal pads , solder wettings and vias, wherein the vias are adapted to conduct heat from the thermal pads to the contacts so as to connect the contacts electrically, via the solder wettings, to the feed arrangement. a layered structure comprising a planar array of antenna elements, wherein the planar array of antenna elements comprises contacts for the array of antenna elements ; and a feed arrangement provided in a plane that is at an angle to the plane of the antenna elements; wherein the layered structure further comprises one or more layers over the planar array of antenna elements, and wherein holes are provided through the one or more layers to allow the feed arrangement to be connected to the contacts for the array of antenna elements, characterised in that the layered structure further comprises thermal pads , solder wettings and vias, wherein the vias are adapted to conduct heat from the thermal pads to the contacts so as to connect the contacts electrically, via the solder wettings, to the feed arrangement.
A ligature delivery system for use with a left atrial appendage ligature, the ligature delivery system comprising: an elongate support mechanism having a proximal portion and a distal portion; a flexible hoop assembly coupled with the distal portion of the elongate support mechanism, the flexible hoop assembly comprising a support body coupled with a support frame , the support frame is biased to hold the support body in a trailing configuration whereby a free portion of the support body is disposed proximal to the distal portion of the elongate support mechanism; and a cinchable constriction member ; wherein the support frame of the flexible hoop assembly is coupled with the distal portion of the elongate support mechanism, and wherein the support body is configured to support the cinchable constriction member and a loop of the left atrial appendage ligature. an elongate support mechanism having a proximal portion and a distal portion; a flexible hoop assembly coupled with the distal portion of the elongate support mechanism, the flexible hoop assembly comprising a support body coupled with a support frame , the support frame is biased to hold the support body in a trailing configuration whereby a free portion of the support body is disposed proximal to the distal portion of the elongate support mechanism; and a cinchable constriction member ; wherein the support frame of the flexible hoop assembly is coupled with the distal portion of the elongate support mechanism, and wherein the support body is configured to support the cinchable constriction member and a loop of the left atrial appendage ligature.
A method for optimising a network parameter in a set of network parameters in a multiple access wireless communication system comprising a plurality of terminals and a multi-access receiver which communicates using a frame comprising a plurality of slots , and the multi-access receiver has a first field of view and is configured to successfully decode up to m transmissions in each slot of a frame from terminals in the field of view , characterised in that each terminal has an active state for transmitting, and an inactive state during which the terminal is prevented from transmitting and the network parameters comprise ( p, n, m, ε ) where p is the probability of an active terminal deciding to transmit in a frame , n is the number of slots per frame , m is the number of simultaneous transmissions that a multi-access receiver can successfully decode in a single slot , and ε is the probability of failure of a terminal to successfully transmit a message whilst in a field of view of the multiple access receiver , and the method of optimising a network parameter comprising: selecting a network parameter and numerically solving q = 1 - pQ ( m , λ ) and K 0 = 1 − ε 1 / F 1 − ε λ ∗ n to optimise λ * where 1 - q is the proportion of terminals that succeed in transmitting in a frame and Q is the gamma function, K 0 is the number of new terminals that enter the field of view each frame , F is the number of frames a terminal is in the field of view for, λ = k / n and k = pK and where K is the number of active terminals in the field of view .
A phytosanitary product recovering panel , comprising a recovery surface extending along a main plane (P), and a recovery bin located on one edge of the recovery surface so a to receive the phytosanitary product by flowing on the recovery surface , characterised in that the recovery surface is formed by a plurality of fins spaced apart from each other so that an air stream (F) can cross the recovery surface by passing between the fins and in that the fins are tilted relative to the main plane (P) so as to form a continuous obstacle along a direction perpendicular to the main plane (P).
A battery pack and a battery charger system, said battery pack including a housing , mechanical location means to allow selective engagement of a power tool therewith, a plurality of power cells located within the housing and said power cells connected in groups to provide electrical power via a set of terminals located so as to be accessible externally of the battery pack , the said terminals include a ground terminal (22',22") for each of the groups of power cells , a Voltage terminal (22"", 22''''') greater than 0 volts for each of the groups of power cells , a relay control signal terminal , four voltage measurement terminals (22c1, 22c2, 22c3, 22c4) and a temperature monitoring terminal characterised in that the battery charger is configured to intermittently measure and monitor the power cells in a group and to provide a control signal by a relay to allow the monitoring to be switched between said groups of power cells ,), wherein the relay could be replaced by solid state switching.
A method for producing haploid, dihaploid, polyhaploid and/or doubled haploid plants of the family Cucurbitaceae from isolated microspores, wherein said method comprises: a) culturing isolated microspores to obtain embryos competent for plant regeneration, wherein the microspores have been isolated from plant material of a donor plant of the family Cucurbitaceae; and b) regenerating plants from the embryos; wherein step (a) comprises contacting the microspores with one or more inhibitor of histone deacetylase (HDACi) and one or more polyamine. a) culturing isolated microspores to obtain embryos competent for plant regeneration, wherein the microspores have been isolated from plant material of a donor plant of the family Cucurbitaceae; and b) regenerating plants from the embryos; wherein step (a) comprises contacting the microspores with one or more inhibitor of histone deacetylase (HDACi) and one or more polyamine.
Doorhandle system of a motor vehicle , having a support element , an operating element which is mounted movably on the support element , a locking device which is designed to be operatively connected to the operating element via a first operative connection , and a closing device which is designed to open a door or hatch of the motor vehicle , and which is designed to be operatively connected to the operating element via a second operative connection , wherein the operating element is designed to be movable from a rest position into an unlocking position in order to unlock the closing device by means of a first actuation movement carried out manually by a user, and wherein the operating element is designed to be movable from the rest position into an opening position in order to open the door or hatch by means of a second actuation movement carried out manually by the user. having a support element , an operating element which is mounted movably on the support element , a locking device which is designed to be operatively connected to the operating element via a first operative connection , and a closing device which is designed to open a door or hatch of the motor vehicle , and which is designed to be operatively connected to the operating element via a second operative connection , wherein the operating element is designed to be movable from a rest position into an unlocking position in order to unlock the closing device by means of a first actuation movement carried out manually by a user, and wherein the operating element is designed to be movable from the rest position into an opening position in order to open the door or hatch by means of a second actuation movement carried out manually by the user.
A blade for an aviation engine comprising: an airfoil portion formed entirely from a first metallic material, having a forward airfoil edge , a first airfoil surface, and a second airfoil surface; and a sheath portion formed from a second metallic material, the sheath portion having a sheath head section , a first sheath flank and a second sheath flank , both flanks extending chordwise rearwardly from the sheath head section , wherein the sheath portion is bonded to the airfoil portion such that the sheath head section covers the forward airfoil edge to define a blade leading edge , the first sheath flank covers a portion of the first airfoil surface proximate the forward airfoil edge , jointly defining a blade suction surface , and the second sheath flank covers a portion of the second airfoil surface proximate the forward airfoil edge , jointly defining a blade pressure surface opposite the blade suction surface ; characterised in that the first metallic material is an aluminum alloy containing between about 0.5 wt% and about 3.0 wt% of lithium. an airfoil portion formed entirely from a first metallic material, having a forward airfoil edge , a first airfoil surface, and a second airfoil surface; and a sheath portion formed from a second metallic material, the sheath portion having a sheath head section , a first sheath flank and a second sheath flank , both flanks extending chordwise rearwardly from the sheath head section , wherein the sheath portion is bonded to the airfoil portion such that the sheath head section covers the forward airfoil edge to define a blade leading edge , the first sheath flank covers a portion of the first airfoil surface proximate the forward airfoil edge , jointly defining a blade suction surface , and the second sheath flank covers a portion of the second airfoil surface proximate the forward airfoil edge , jointly defining a blade pressure surface opposite the blade suction surface ; characterised in that the first metallic material is an aluminum alloy containing between about 0.5 wt% and about 3.0 wt% of lithium.
A method of determining a soft buffer size for a transport block, the method comprising the steps of: determining a basic unit for the soft buffer size according to a legacy soft buffer size for the transport block and a first parameter ; and determining the soft buffer size for the transport block according to the basic unit and a second parameter ; wherein the basic unit is determined according to the following equation: N unit = N IR M unit , where N unit is the basic unit, N IR is the legacy soft buffer size for the transport block, and M unit is the first parameter; wherein the soft buffer size for the transport block is M TBS ∗ N unit , where M TBS is the second parameter; wherein the legacy soft buffer size for the transport block corresponds to a modulation level not greater than 64 quadrature amplitude modulation, 64QAM, and wherein the soft buffer size for the transport block corresponds to a modulation level greater than 64QAM. determining a basic unit for the soft buffer size according to a legacy soft buffer size for the transport block and a first parameter ; and determining the soft buffer size for the transport block according to the basic unit and a second parameter ; wherein the basic unit is determined according to the following equation: N unit = N IR M unit , where N unit is the basic unit, N IR is the legacy soft buffer size for the transport block, and M unit is the first parameter; wherein the soft buffer size for the transport block is M TBS ∗ N unit , where M TBS is the second parameter; wherein the legacy soft buffer size for the transport block corresponds to a modulation level not greater than 64 quadrature amplitude modulation, 64QAM, and wherein the soft buffer size for the transport block corresponds to a modulation level greater than 64QAM.
An aeronautical part , comprising: - a substrate , - an environmental barrier comprising at least one layer selected from a thermally insulating layer , a sublayer suitable for promoting adhesion between the substrate and a thermally insulating layer and a protective layer suitable for protecting the substrate from oxidation and/or corrosion, the environmental barrier at least partially covering the substrate - at least one reactive layer suitable for reacting with at least one CMAS compound selected from a calcium oxide, a magnesium oxide, an aluminum oxide and a silicon oxide, the reactive layer at least partially covering environmental barrier , characterized in that the material of the reactive layer comprises at least one oxide of formula A' 4-x A" x B' 2-y B" y O 11-δ , A' being selected from a rare earth, yttrium and scandium, A" being selected from a rare earth, yttrium, scandium and aluminum, B' being selected from tantalum and niobium, B" being selected from tantalum, niobium, zirconium, hafnium, aluminum and cesium, x and y being real numbers between 0 and 2 and δ being a real number between -1 and 1. - a substrate , - an environmental barrier comprising at least one layer selected from a thermally insulating layer , a sublayer suitable for promoting adhesion between the substrate and a thermally insulating layer and a protective layer suitable for protecting the substrate from oxidation and/or corrosion, the environmental barrier at least partially covering the substrate - at least one reactive layer suitable for reacting with at least one CMAS compound selected from a calcium oxide, a magnesium oxide, an aluminum oxide and a silicon oxide, the reactive layer at least partially covering environmental barrier ,
A frequency conversion device , intended to be loaded on board a satellite, comprising an active assembly comprising at least a first radiofrequency processing chain comprising a first mixer, a first local oscillator operating at a first frequency and connected to the first mixer, at least a second radiofrequency processing chain comprising a second mixer, and a second local oscillator operating at a second frequency and connected to the second mixer and to a current or voltage converter to power the active assembly, the device being characterised in that in the active assembly said current or voltage converter , said first radiofrequency processing chain , said first local oscillator , said second radiofrequency processing chain and said second local oscillator are grouped together within a first piece of equipment , the device comprising at least one additional piece of equipment identical to the first piece of equipment , each additional piece of equipment being made either active or redundant inactive.
A method for monitoring surface phenomena, comprising: - measuring a first surface plasmon resonance angle value (φ SPP,PEF ) of a sample region (REG1), - measuring a first critical angle value (φ TIR,REF ) of the sample region (REG1), - causing a change of surface concentration (c M1,SRF ) of an analyte (M1) at the sample region (REG1), - changing the bulk composition at the sample region (REG1), - measuring a second surface plasmon resonance angle value (φ SPR (t)) of the sample region (REG1), - measuring a second critical angle value (φ TIR (t)) of the sample region (REG1), and - determining an indicator value (φ AUX (t)) indicative of the change of the surface concentration (c M1,SRF ), wherein the indicator value (φ AUX (t)) is determined from the second surface plasmon resonance angle value (φ SPR (t)) by compensating an effect of the bulk composition, and wherein the magnitude (φ COMP ) of said effect is determined by using the second critical angle value (φ TIR (t)), wherein the sample region (REG1) comprises a substrate and a conductive layer , characterized in that the magnitude of the effect of the bulk composition is determined from the second critical angle value (φ TIR (t)) according to the following equation: φ COMP t = arcsin 1 n G ε 2 ⋅ ε x t ε 2 + ε x t where φ COMP denotes a compensating angle value, n G denotes the refractive index of the substrate , ε 2 denotes the real part of the dielectric permittivity of the conductive layer , and ε x (t) denotes a dielectric permittivity value calculated according to the following equation: ε x t = n G 2 sin 2 φ TIR t where φ TIR (t) denotes the second critical angle value. - measuring a first surface plasmon resonance angle value (φ SPP,PEF ) of a sample region (REG1), - measuring a first critical angle value (φ TIR,REF ) of the sample region (REG1), - causing a change of surface concentration (c M1,SRF ) of an analyte (M1) at the sample region (REG1), - changing the bulk composition at the sample region (REG1), - measuring a second surface plasmon resonance angle value (φ SPR (t)) of the sample region (REG1), - measuring a second critical angle value (φ TIR (t)) of the sample region (REG1), and - determining an indicator value (φ AUX (t)) indicative of the change of the surface concentration (c M1,SRF ), wherein the indicator value (φ AUX (t)) is determined from the second surface plasmon resonance angle value (φ SPR (t)) by compensating an effect of the bulk composition, and wherein the magnitude (φ COMP ) of said effect is determined by using the second critical angle value (φ TIR (t)),
Mounting frame for a sanitary article, in particular a WC or shower WC, comprising: - a flush pipe receptacle for receiving a flush pipe for supplying flush water to the sanitary article; - a fastening means for receiving and fastening a waste water pipe for discharging waste water from the sanitary article to the mounting frame ; and - at least a first and a second fastening means (15; 16) for fastening the sanitary article to the mounting frame ; wherein the flush pipe receptacle, the fastening means , and the first and second fastening means (15; 16) define an intermediate space , wherein the intermediate space is defined by two vertical planes which extend vertically through the first and second fastening means (15; 16), respectively, and by two horizontal planes which extend horizontally through the flush pipe receptacle and the fastening means , respectively, and wherein an electrical box for supplying power to the sanitary article is arranged in the intermediate space . - a flush pipe receptacle for receiving a flush pipe for supplying flush water to the sanitary article; - a fastening means for receiving and fastening a waste water pipe for discharging waste water from the sanitary article to the mounting frame ; and - at least a first and a second fastening means (15; 16) for fastening the sanitary article to the mounting frame ; wherein the flush pipe receptacle, the fastening means , and the first and second fastening means (15; 16) define an intermediate space , wherein the intermediate space is defined by two vertical planes which extend vertically through the first and second fastening means (15; 16), respectively, and by two horizontal planes which extend horizontally through the flush pipe receptacle and the fastening means , respectively, and wherein an electrical box for supplying power to the sanitary article is arranged in the intermediate space .
A method of operating a mobile telephone for indicating information of at least one portable object , the mobile telephone comprising an RFID communication unit and the method comprising the steps of: - receiving a user control command (UC) and thereupon activating the RFID communication unit for operating the RFID communication unit by using a user-controlled amount of energy; - operating the RFID communication unit for receiving an RFID signal (SR) from an RFID tag that is attached to the at least one portable object ; - evaluating the received RFID signal (SR) for determining tag information (TI); and - presenting the tag information (TI) to the user of the mobile telephone for indicating current information of the at least one portable object . - receiving a user control command (UC) and thereupon activating the RFID communication unit for operating the RFID communication unit by using a user-controlled amount of energy; - operating the RFID communication unit for receiving an RFID signal (SR) from an RFID tag that is attached to the at least one portable object ; - evaluating the received RFID signal (SR) for determining tag information (TI); and - presenting the tag information (TI) to the user of the mobile telephone for indicating current information of the at least one portable object .