mhurhangee/patent-ind-claim-en huggingface dataset:
A thrust reverser for an aircraft propulsion unit , this thrust reverser comprising a fixed structure and a mobile external structure , this thrust reverser being configured to be placed in: - a direct jet configuration wherein the mobile external structure is in a closed position, the mobile external structure in the closed position being able to guide a flow of fluid in the propulsion unit so as to generate a thrust, - a reverse jet configuration wherein the mobile external structure is in an open position, the mobile external structure in the open position releasing a radial opening capable of discharging a portion of said fluid flow from the propulsion unit so as to generate a counter-thrust, the movement of the mobile external structure from the closed position to the open position defining a positive sense of movement (D3), this thrust reverser being characterised in that the fixed structure comprises a first braking element and the mobile external structure comprises a second braking element , the first and the second braking element cooperating with each other by sliding with friction when the mobile external structure is moved in the positive sense (D3) beyond the open position so as to generate a braking force that opposes this movement, the first and the second braking element being configured so that the braking force increases when the mobile external structure moves away from the open position. - a direct jet configuration wherein the mobile external structure is in a closed position, the mobile external structure in the closed position being able to guide a flow of fluid in the propulsion unit so as to generate a thrust, - a reverse jet configuration wherein the mobile external structure is in an open position, the mobile external structure in the open position releasing a radial opening capable of discharging a portion of said fluid flow from the propulsion unit so as to generate a counter-thrust,
A method for reading qualimetric data by a qualimetry device (Q) configured for communicating with N meters, N being a positive integer, said method comprising, for each of said N meters (C1, C2): a) calculating (S100), by said meter, qualimetric data over a time period T and timestamping said qualimetric data; b) receiving (S102), by said meter, a request for qualimetric data from said qualimetry device; c) in response to said request, sending (S104), by said meter, said timestamped qualimetric data to said qualimetry device while adding a signature thereto; and said method comprising for the qualimetry device: d) on reception of said timestamped qualimetric data by said qualimetry device, authenticating said timestamped qualimetric data from said signature received and from a signature public key associated with said meter, and storing (S106) said timestamped qualimetric data in memory in association with an identifier of said meter that sent said timestamped qualimetric data in the case of successful authentication. a) calculating (S100), by said meter, qualimetric data over a time period T and timestamping said qualimetric data; b) receiving (S102), by said meter, a request for qualimetric data from said qualimetry device; c) in response to said request, sending (S104), by said meter, said timestamped qualimetric data to said qualimetry device while adding a signature thereto;
An adjustable ring assembly for an electrical installation box, comprising: an extension ring with a cavity at its periphery and an angular aperture formed on opposite sides of one end of the extension ring ; a wedge member having an inclined edge on its both sides; a screw member further connects the wedge member through the extension ring by sliding the wedge member via a guideway located on the extension ring and the wedge member so that the extension ring expands when torque is applied on the screw member to sandwich the extension ring between the screw member and the wedge member ; a mounting box having a circular projection with an open end and a threaded area formed inside the circular projection ; characterized in that the wedge member is pre-clipped within the aperture in such a way that the inclined edge slides inside the aperture ; the extension ring having a plurality of alternate threaded and non-threaded areas on its outer surface; and the extension ring is assembled in and out of the circular projection by activating a telescopic action that engages the non-threaded area of the extension ring with the threaded area of the projection or vice versa to achieve different heights based on thickness of an installation surface and the telescopic action is disengaged by rotating the extension ring so that the extension ring threadly engages and locks with the mounting box . an extension ring with a cavity at its periphery and an angular aperture formed on opposite sides of one end of the extension ring ; a wedge member having an inclined edge on its both sides; a screw member further connects the wedge member through the extension ring by sliding the wedge member via a guideway located on the extension ring and the wedge member so that the extension ring expands when torque is applied on the screw member to sandwich the extension ring between the screw member and the wedge member ; a mounting box having a circular projection with an open end and a threaded area formed inside the circular projection ; characterized in that the wedge member is pre-clipped within the aperture in such a way that the inclined edge slides inside the aperture ; the extension ring having a plurality of alternate threaded and non-threaded areas on its outer surface; and the extension ring is assembled in and out of the circular projection by activating a telescopic action that engages the non-threaded area of the extension ring with the threaded area of the projection or vice versa to achieve different heights based on thickness of an installation surface and the telescopic action is disengaged by rotating the extension ring so that the extension ring threadly engages and locks with the mounting box .
System for storage/withdrawal of thermal energy, comprising, - a monolithic cementitious material comprising a mass fraction of ettringite greater than 20%, said material being surrounded by a thermal insulator and a water insulator , - a source of a heat transfer fluid, - a humidification device of said fluid for carrying out a withdrawal phase of the system , - a heating device of said fluid for carrying out a storage phase of said system , - an outlet of the heat transfer fluid of said material , - at least one circuit for circulation of heat-transfer fluid passing through the heating device and through the humidification device , said circuit being supplied by the source of said fluid and opening onto the cementitious material , characterized in that the source of the heat transfer fluid is placed upstream of the humidification device , which is itself placed upstream of the heating device , and in that said heating device is placed upstream of the cementitious material . - a monolithic cementitious material comprising a mass fraction of ettringite greater than 20%, said material being surrounded by a thermal insulator and a water insulator , - a source of a heat transfer fluid, - a humidification device of said fluid for carrying out a withdrawal phase of the system , - a heating device of said fluid for carrying out a storage phase of said system , - an outlet of the heat transfer fluid of said material , - at least one circuit for circulation of heat-transfer fluid passing through the heating device and through the humidification device , said circuit being supplied by the source of said fluid and opening onto the cementitious material ,
An arrangement comprising a medical module designed as a filter, a blood filter, a dialyzer, a cartridge, a gas exchanger or an adsorber, comprising at least one first holder for releasably holding the module to a medical treatment apparatus , and comprising at least one second holder , wherein the module is releasably connected with the first holder and with the second holder , and wherein the first holder and the second holder each comprise at least one first reception unit and each comprise a second reception unit , and wherein the second holder is connected both with the module and with at least one further module or with an adapter for receiving a further module .
A colour laser markable article comprising at least a first, a second and a third laser markable layer comprising respectively a first infrared dye IR-1 having an absorption maximum in the infrared region λ max (IR-1), a second infrared dye IR-2 having an absorption maximum in the infrared region λ max (IR-2), and a third infrared dye IR-3 having an absorption maximum in the infrared region λ max (IR-3), wherein the colour laser markable layers further comprise a Diffusion Hindered Molecular Assembly (DHMA) which contains a leuco dye, wherein the DHMA is a capsule composed of a polymeric shell surrounding a core and wherein the core contains the leuco dye, wherein the conditions a) and b) are fulfilled: a) λ max (IR-1) > λ max (IR-2) > λ max (IR-3) ; and b) λ max (IR-1) > 1100 nm and λ max (IR-3) < 1000 nm, and wherein the infrared dye IR-1 and/or the infrared dye IR-2 and/or the infrared dye IR-3 are also incorporated in the core of a capsule. a) λ max (IR-1) > λ max (IR-2) > λ max (IR-3) ; and b) λ max (IR-1) > 1100 nm and λ max (IR-3) < 1000 nm,
A thermoformed container that comprises an EVOH layer (A) comprising an ethylene-vinyl alcohol copolymer (I) as a principal component, wherein the EVOH layer (A) comprises a carbonyl compound (II), wherein the carbonyl compound (II) is an unsaturated aldehyde (II-1), a saturated aldehyde (II-2), a saturated ketone (II-3) or a combination thereof, and a content of the carbonyl compound (II) in the EVOH layer (A) is 0.01 ppm or greater and 100 ppm or less. the EVOH layer (A) comprises a carbonyl compound (II), wherein the carbonyl compound (II) is an unsaturated aldehyde (II-1), a saturated aldehyde (II-2), a saturated ketone (II-3) or a combination thereof, and a content of the carbonyl compound (II) in the EVOH layer (A) is 0.01 ppm or greater and 100 ppm or less.
An intra-body communication system for diagnosing a disease or condition in a patient, the system comprising: a first device configured to be implanted into a patient's body, comprising a biologic component, which comprises a cell layer having cells from a target site pre-positioned on or in the first device prior to implantation, and wherein the pre-positioned cells are adapted to respond to a physiological signal from the patient; and an electronic component, comprising at least one sensor and at least one electrode contacting said biologic component; a second device configured to be implanted inside the patient's body and to be spaced apart from the first device in use, wherein the second device is capable of drug delivery; the first device and second device capable of engaging in a two-way wireless communication including transmitting and receiving one or more infrared signals through at least a portion of the patient's body between the first device and the second device, wherein the one or more infrared signals travel through the body with minimal interference from a surrounding tissue or organ and are encoded using frequency and/or amplitude modulation to represent the physiological signal in the patient; and a receiver , configured to detect and/or decode the one or more infrared signals from the first and/or the second device and to compare the one or more infrared signals to a reference signal to diagnose a disease or condition. a first device configured to be implanted into a patient's body, comprising a biologic component, which comprises a cell layer having cells from a target site pre-positioned on or in the first device prior to implantation, and wherein the pre-positioned cells are adapted to respond to a physiological signal from the patient; and an electronic component, comprising at least one sensor and at least one electrode contacting said biologic component; a second device configured to be implanted inside the patient's body and to be spaced apart from the first device in use, wherein the second device is capable of drug delivery; the first device and second device capable of engaging in a two-way wireless communication including transmitting and receiving one or more infrared signals through at least a portion of the patient's body between the first device and the second device, wherein the one or more infrared signals travel through the body with minimal interference from a surrounding tissue or organ and are encoded using frequency and/or amplitude modulation to represent the physiological signal in the patient; and a receiver , configured to detect and/or decode the one or more infrared signals from the first and/or the second device and to compare the one or more infrared signals to a reference signal to diagnose a disease or condition.
A system configured for generating an AC signal having a positive half-cycle and a negative half-cycle, each comprising a plurality of pulse width modulated, PWM, pulses each with an individually designated pulse width, the system comprising: a first clock circuit configured to provide a first clock signal having a first frequency; a second clock circuit configured to generate a second clock signal having a second frequency, wherein the second frequency is greater than the first frequency; clock ratio measurement circuitry configured to output a first measurement for determining a ratio of the second frequency to the first frequency; a propagation delay circuit comprising a plurality of propagation delay elements and configured to output a second measurement indicative of a number of propagation elements through which a bit transition propagates within a single cycle of the second clock signal; a pulse data calculation element configured to determine pulse shaping data from the first and second measurements and the individually designated pulse widths; and, for each of the positive half-cycle and the negative half-cycle, a respective pulse synthesis circuit configured to synthesise the respective plurality of PWM pulses, each PWM pulse of each of the plurality of PWM pulses having a respective start defined by the first clock signal, and a respective pulse width defined by the pulse shaping data and synthesised from the second clock signal and a respective output pulse from the propagation delay circuit. a first clock circuit configured to provide a first clock signal having a first frequency; a second clock circuit configured to generate a second clock signal having a second frequency, wherein the second frequency is greater than the first frequency; clock ratio measurement circuitry configured to output a first measurement for determining a ratio of the second frequency to the first frequency; a propagation delay circuit comprising a plurality of propagation delay elements and configured to output a second measurement indicative of a number of propagation elements through which a bit transition propagates within a single cycle of the second clock signal; a pulse data calculation element configured to determine pulse shaping data from the first and second measurements and the individually designated pulse widths; and, for each of the positive half-cycle and the negative half-cycle, a respective pulse synthesis circuit configured to synthesise the respective plurality of PWM pulses, each PWM pulse of each of the plurality of PWM pulses having a respective start defined by the first clock signal, and a respective pulse width defined by the pulse shaping data and synthesised from the second clock signal and a respective output pulse from the propagation delay circuit.
A sealing device for sealing a gap between a housing and a rotational shaft located in a shaft hole provided in the housing , comprising: an annular mounted part that is to be mounted on an inner peripheral surface of the shaft hole ; an inner annular part located radially inside of the mounted part ; a seal lip extending from the inner annular part and for being in contact with the outer peripheral surface of the rotational shaft ; a bellows part connecting the mounted part with the inner annular part ; a sound insulation ring fixed to the mounted part and expanding radially inward from the mounted part , the sound insulation ring comprising an opening through which the rotational shaft passes; and a circular annular sound insulation lip projecting from the inner annular part or the bellows part toward the sound insulation ring and comprising a distal end being in slidable contact with the sound insulation ring , the sound insulation lip protruding obliquely radially outward, the sound insulation ring comprising a circular annular part with which the distal end of the sound insulation lip is in contact, characterised by the circular annular part of the sound insulation ring being inclined with respect to an axial direction of the shaft hole such that a distance between an outer portion of the circular annular part and the inner annular part when projected in the axial direction of the shaft hole is greater than a distance between an inner portion of the circular annular part and the inner annular part when projected in the axial direction of the shaft hole . an annular mounted part that is to be mounted on an inner peripheral surface of the shaft hole ; an inner annular part located radially inside of the mounted part ; a seal lip extending from the inner annular part and for being in contact with the outer peripheral surface of the rotational shaft ; a bellows part connecting the mounted part with the inner annular part ; a sound insulation ring fixed to the mounted part and expanding radially inward from the mounted part , the sound insulation ring comprising an opening through which the rotational shaft passes; and a circular annular sound insulation lip projecting from the inner annular part or the bellows part toward the sound insulation ring and comprising a distal end being in slidable contact with the sound insulation ring , the sound insulation lip protruding obliquely radially outward, the sound insulation ring comprising a circular annular part with which the distal end of the sound insulation lip is in contact, characterised by the circular annular part of the sound insulation ring being inclined with respect to an axial direction of the shaft hole such that a distance between an outer portion of the circular annular part and the inner annular part when projected in the axial direction of the shaft hole is greater than a distance between an inner portion of the circular annular part and the inner annular part when projected in the axial direction of the shaft hole .
A foreign substance removal device comprising a monitoring system , a retainer . a generator and a jetting device , the monitoring system comprising: a pressure detection means for detecting a pressure inside the retainer , the generator adapted to generate compressed air, the retainer adapted to retain the generated compressed air therein, wherein the jetting device is adapted to jet the retained compressed air to blow off a foreign substance existing in a diverging portion of a railway track; characterized in that the monitoring system further comprises a failure sign determination means for determining whether there is a sign of failure of the foreign substance removal device based on the detected pressure inside the retainer . a pressure detection means for detecting a pressure inside the retainer , the generator adapted to generate compressed air, the retainer adapted to retain the generated compressed air therein, wherein the jetting device is adapted to jet the retained compressed air to blow off a foreign substance existing in a diverging portion of a railway track; characterized in that the monitoring system further comprises a failure sign determination means for determining whether there is a sign of failure of the foreign substance removal device based on the detected pressure inside the retainer .
An alarm processing method, comprising: detecting, at an Network Functions Virtualization Infrastructure, NFVI, layer, that the NFVI layer has a virtual resource pool failure (S202); when determining, at the NFVI layer, that the virtual resource pool failure is correlated to a Virtualized Network Function, VNF, instance (S204), generating, at the NFVI layer, the NFVI layer alarm (S206), wherein the NFVI layer alarm comprises identification information identifying that an alarm type of the NFVI layer alarm is a virtual resource pool alarm (S502); sending, at the NFVI layer, the generated NFVI layer alarm to a Virtualized Infrastructure Manager entity, VIM (S208); sending, by the VIM, the NFVI layer alarm to a Virtualized Network Function Manager entity, VNFM; and reporting, by the VNFM, the NFVI layer alarm to an Element Management System, EMS; and receiving, by the EMS, the NFVI layer alarm reported by the VNFM (S502). detecting, at an Network Functions Virtualization Infrastructure, NFVI, layer, that the NFVI layer has a virtual resource pool failure (S202); when determining, at the NFVI layer, that the virtual resource pool failure is correlated to a Virtualized Network Function, VNF, instance (S204), generating, at the NFVI layer, the NFVI layer alarm (S206), wherein the NFVI layer alarm comprises identification information identifying that an alarm type of the NFVI layer alarm is a virtual resource pool alarm (S502); sending, at the NFVI layer, the generated NFVI layer alarm to a Virtualized Infrastructure Manager entity, VIM (S208); sending, by the VIM, the NFVI layer alarm to a Virtualized Network Function Manager entity, VNFM; and reporting, by the VNFM, the NFVI layer alarm to an Element Management System, EMS; and receiving, by the EMS, the NFVI layer alarm reported by the VNFM (S502).
A chemical foaming agent comprising the following compound shown as structure (II): and optionally one or more of the following compounds shown as structures (I), and (III) through (IX): where Ts is a p-toluenesulfonyl group. one or more of the following compounds shown as structures (I), and (III) through (IX): where Ts is a p-toluenesulfonyl group.