mhurhangee/patent-ind-claim-en huggingface dataset:
Suction gripper for gripping and handling an object by means of a vacuum, comprising a base part and a suction side having a suction surface which provides a suction cross section for sucking up the object , the suction gripper having at least one displacement part which is can be displaced relative to the base part , the base part and the at least one displacement part being designed such that they jointly provide the suction surface , and it being possible for the suction cross section of the suction surface to be adjusted by displacing the at least one displacement part relative to the base part , it being possible for the base part and the at least one displacement part , at least in portions, to be pushed into one another and pulled apart again, characterized in that the base part and the at least one displacement part are designed such that the suction cross section of the suction surface is reduced when they are pushed into one another and the suction cross section is increased when they are pulled apart. comprising a base part and a suction side having a suction surface which provides a suction cross section for sucking up the object , the suction gripper having at least one displacement part which is can be displaced relative to the base part , the base part and the at least one displacement part being designed such that they jointly provide the suction surface , and it being possible for the suction cross section of the suction surface to be adjusted by displacing the at least one displacement part relative to the base part , it being possible for the base part and the at least one displacement part , at least in portions, to be pushed into one another and pulled apart again, characterized in that the base part and the at least one displacement part are designed such that the suction cross section of the suction surface is reduced when they are pushed into one another and the suction cross section is increased when they are pulled apart.
An implantable medical system for measuring at least one physiological parameter comprising: a first implantable medical device provided with a transmitter dipole , the transmitter dipole being formed of two electrodes (E1, E2) connected to a generator and being configured to transmit an electrical signal, and a second implantable medical device distinct from the first implantable medical device and provided with a receiver dipole , the receiver dipole being formed of two electrodes (E3, E4), each one being distinct from the electrodes (E1, E2) of the transmitter dipole , the receiver dipole being configured to collect the electrical signal transmitted by means of the transmitter dipole ; an analysis module comprising at least an amplifier , an envelope detector , an analog-to-digital converter and a processing means for processing the electrical signal collected by means of the receiver dipole ; a detecting means configured to collect an electrocardiogram or an electrogram, the analysis module being further configured to associate the processed electrical signal and the electrocardiogram or the electrogram to determine therefrom a parameter representative of a pre-ej ection period. a first implantable medical device provided with a transmitter dipole , the transmitter dipole being formed of two electrodes (E1, E2) connected to a generator and being configured to transmit an electrical signal, and a second implantable medical device distinct from the first implantable medical device and provided with a receiver dipole , the receiver dipole being formed of two electrodes (E3, E4), each one being distinct from the electrodes (E1, E2) of the transmitter dipole , the receiver dipole being configured to collect the electrical signal transmitted by means of the transmitter dipole ; an analysis module comprising at least an amplifier , an envelope detector , an analog-to-digital converter and a processing means for processing the electrical signal collected by means of the receiver dipole ; a detecting means configured to collect an electrocardiogram or an electrogram, the analysis module being further configured to associate the processed electrical signal and the electrocardiogram or the electrogram to determine therefrom a parameter representative of a pre-ej ection period.
Method for helping to improve the security of an electronic operation with a smart card , said smart card comprising a memory storing reference cryptographic nonces , the method comprising steps of: a) receiving a last cryptographic nonce intended to determine a securing cryptogram for said electronic operation , b) determining a last similarity datum based on the result of at least one comparison between said last cryptographic nonce and one of said reference cryptographic nonces stored in said memory , c) storing said last similarity datum in said memory , d) verifying if said last similarity datum satisfies a predefined condition, and e) taking a countermeasure if said last similarity datum satisfies said predefined condition, wherein step d) comprises comparing the last similarity datum and a preceding overall similarity datum stored in said memory during a preceding execution of said method in order to determine a last overall similarity datum , the last overall similarity datum being selected between the last similarity datum and the preceding overall similarity datum based on a determined overall criterion such as that which is selected is that which corresponds to the greatest degree of similarity. a) receiving a last cryptographic nonce intended to determine a securing cryptogram for said electronic operation , b) determining a last similarity datum based on the result of at least one comparison between said last cryptographic nonce and one of said reference cryptographic nonces stored in said memory , c) storing said last similarity datum in said memory , d) verifying if said last similarity datum satisfies a predefined condition, and e) taking a countermeasure if said last similarity datum satisfies said predefined condition,
System for manufacturing a cosmetic product, comprising: - at least a first single-use packaging unit comprising a predetermined amount of a first phase of a cosmetic product, - at least a second single-use packaging unit comprising a predetermined amount of a second phase of a cosmetic product, - a machine comprising a mixer inside which the mixing of said predetermined amount of the first phase and of said predetermined amount of the second phase is automatically carried out so as to produce a cosmetic product directly consumable by the final consumer, said mixing being carried out in such a way that neither the first phase nor the second phase is in direct contact with any part of said mixer that is not a single-use part, thus avoiding soiling said mixer, said mixture not leaving the environment consisting, on the one hand, of said packaging units and, on the other hand, of the junction produced between said packaging units , at all or at least not before the homogenization of said mixture is complete, characterized in that said mixing comprises at least the transfer of the content of one of said single-use packaging units to the other of said single-use packaging units , and in that the machine comprises a motorized device which automatically transfers the content of one of the packaging units to the other of the packaging units. - at least a first single-use packaging unit comprising a predetermined amount of a first phase of a cosmetic product, - at least a second single-use packaging unit comprising a predetermined amount of a second phase of a cosmetic product, - a machine comprising a mixer inside which the mixing of said predetermined amount of the first phase and of said predetermined amount of the second phase is automatically carried out so as to produce a cosmetic product directly consumable by the final consumer, said mixing being carried out in such a way that neither the first phase nor the second phase is in direct contact with any part of said mixer that is not a single-use part, thus avoiding soiling said mixer, said mixture not leaving the environment consisting, on the one hand, of said packaging units and, on the other hand, of the junction produced between said packaging units , at all or at least not before the homogenization of said mixture is complete, characterized in that said mixing comprises at least the transfer of the content of one of said single-use packaging units to the other of said single-use packaging units , and in that the machine comprises a motorized device which automatically transfers the content of one of the packaging units to the other of the packaging units.
A storage system comprising: a plurality of embedded storage devices , wherein each embedded storage device of the plurality of embedded storage devices comprises: a mapped solid state drive, SSD, storage portion , wherein the first mapped SSD storage portion has erase blocks mapped as addressable storage of the SSD; and a non-volatile random-access memory, NVRAM, portion comprising a random access memory, RAM, device and a processing device, wherein the mapped SSD portion and the NVRAM portion are separately addressable, and wherein the NVRAM portion is smaller than the mapped SSD portion ; and a plurality of storage system controllers operatively coupled to the plurality of embedded storage devices via a bus, the plurality of storage system controllers configured to: identify and maintain a list of allocation units across multiple mapped solid state drives SSD of the storage system, wherein the allocation units are entire erase blocks or multiple erase blocks; determine that data is to be stored in the mapped SSD storage portion of a first embedded storage device of the plurality of embedded storage devices; and buffer the data in the NVRAM portion of a second embedded storage device of the plurality of embedded storage devices. a plurality of embedded storage devices , wherein each embedded storage device of the plurality of embedded storage devices comprises: a mapped solid state drive, SSD, storage portion , wherein the first mapped SSD storage portion has erase blocks mapped as addressable storage of the SSD; and a non-volatile random-access memory, NVRAM, portion comprising a random access memory, RAM, device and a processing device, wherein the mapped SSD portion and the NVRAM portion are separately addressable, and wherein the NVRAM portion is smaller than the mapped SSD portion ; and a plurality of storage system controllers operatively coupled to the plurality of embedded storage devices via a bus, the plurality of storage system controllers configured to: identify and maintain a list of allocation units across multiple mapped solid state drives SSD of the storage system, wherein the allocation units are entire erase blocks or multiple erase blocks; determine that data is to be stored in the mapped SSD storage portion of a first embedded storage device of the plurality of embedded storage devices; and buffer the data in the NVRAM portion of a second embedded storage device of the plurality of embedded storage devices.
An exhaust hood comprising a body ; a suction channel which is provided in the body ; a fan ; at least one first temperature sensor which detects the ambient temperature; at least one second temperature sensor which detect the temperature of the air rising from a cooking device such as countertop cooker, oven, etc. or a cooking vessel thereon; a control unit which enables the exhaust hood to automatically operate according to the information received from the first and second temperature sensors (5 and 6) and which also enables the operation level to be automatically adjusted; characterized by a surface which is positioned on the side facing the cooking device and which has thermal conductivity by radiation or convection and the second temperature sensor which detects the temperature of said surface wherein the surface is located on the side thereof facing the cooking zones on the cooking device and the second temperature sensor is disposed on the surface from the inside of the exhaust hood .
A prismatic contact lens , comprising: a first prism zone in a central circular region, having a first prism and a first optical power; a progressive prism zone , adjacent to the first prism zone and in a ring around the central circular region, having a progressive prism that varies from the first prism to a second prism, wherein the second prism is different from the first prism; and at least one of an orientation mark , and a ballast in a lower region of the prismatic contact lens , for orienting a refraction direction of the prismatic contact lens in a horizontal direction. a first prism zone in a central circular region, having a first prism and a first optical power; a progressive prism zone , adjacent to the first prism zone and in a ring around the central circular region, having a progressive prism that varies from the first prism to a second prism, wherein the second prism is different from the first prism; and at least one of an orientation mark , and a ballast in a lower region of the prismatic contact lens , for orienting a refraction direction of the prismatic contact lens in a horizontal direction.
A system for managing the feed of a plurality of yarns at constant tension and/or velocity to a textile machine of circular, loom or yarn preparation type, said yarns being fed to said machine by a plurality of feed devices , comprising an interface unit connected to said plurality of devices and arranged to set their operation, said interface unit receiving synchronization signals from the machine and measuring on the basis of these latter every portion of a production cycle or of the working advancement state of an article or of a production process, said production cycle being divided into different stages, the interface unit acting on each individual feed device on the basis of said stages such that each feed device feeds and/or controls the respective yarn with predefined tension and/or velocity individual to each of said stages, for each stage of the article production cycle corresponding to the manufacture of each part or zone of the article, said stage being defined and measured by the interface unit by means of said synchronization signals, values are set for at least one characteristic of the yarn fed by each feed device , said characteristic comprising at least one from tension, velocity, and yarn presence, said interface unit programming these values set on the feed devices , the values of each fed yarn characteristic being tabulated within the interface unit such that at each individual part or zone of the manufactured product, for each individual revolution of a machine cylindrical member and for each individual feed device, a set datum is scheduled with which to possibly compare the corresponding current value measured by the interface unit of the feed device , characterised in that the interface unit is capable of receiving and saving data relative to an operating program associated with productive modes of each individual portion of an article under production, said operating program rendering the interface unit suitable for making articles comprising parts or zones obtained with the same or different yarns but fed to the textile machine with different tension and/or velocity so as to obtain parts or zones with characteristics individual to the part or zone itself and different from those of the adjacent parts or zones of the article.
A catalyst article comprising a catalyst disposed on a substrate, wherein the catalyst comprises: a. a small pore aluminosilicate molecular sieve material containing a maximum ring size of 8 comprising a plurality of crystals having a surface and a porous network; and b. at least one metal selected from the group consisting of Ru, Rh, Pd, Os, Ir, Pt, Mo, W, Au and Ag, wherein at least about 75 weight percent of said metal is embedded in said porous network based on the total amount of said metal in and on said small pore aluminosilicate molecular sieve material, as measured by SEM imaging, wherein the substrate is a wall-flow filter or a flow-through monolith, wherein the small pore molecular sieve material has a framework selected from RHO and CHA. a. a small pore aluminosilicate molecular sieve material containing a maximum ring size of 8 comprising a plurality of crystals having a surface and a porous network; and b. at least one metal selected from the group consisting of Ru, Rh, Pd, Os, Ir, Pt, Mo, W, Au and Ag, wherein at least about 75 weight percent of said metal is embedded in said porous network based on the total amount of said metal in and on said small pore aluminosilicate molecular sieve material, as measured by SEM imaging, wherein the substrate is a wall-flow filter or a flow-through monolith, wherein the small pore molecular sieve material has a framework selected from RHO and CHA.
A method comprising: generating a passive optical network, PON, frame , wherein the PON frame comprises an integer number of forward error correction, FEC, codewords , wherein each FEC codeword comprised in the PON frame has a codeword length of 17,280 bits, the FEC codewords comprise a first codeword at the beginning of the PON frame , and only the first codeword comprises a physical synchronization block, PSB ; and transmitting the PON frame . generating a passive optical network, PON, frame , wherein the PON frame comprises an integer number of forward error correction, FEC, codewords , wherein each FEC codeword comprised in the PON frame has a codeword length of 17,280 bits, the FEC codewords comprise a first codeword at the beginning of the PON frame , and only the first codeword comprises a physical synchronization block, PSB ; and transmitting the PON frame .
A semiconductor package comprising: an encapsulant comprising: an upper side; and a lower side mountable on a surface; a semiconductor substrate in the encapsulant, the substrate comprising: a backside proximal the lower side of the encapsulant for thermal connection to the surface, wherein the backside is recessed with respect to the lower side of the encapsulant to form a recess; and an active side distal the lower side of the encapsulant, the active side of the substrate including a plurality of die contacts; a plurality of electrically conductive interconnects extending to the lower surface of the encapsulant for electrically connecting the die contacts of the substrate to the surface, and a heat spreader in thermal contact with the backside of the semiconductor substrate for aiding thermal connection to the surface, characterised in that : the recess is partly filled with a thermally conductive material and partly filled with said encapsulant, and the thermally conductive material in the recess is arranged in a plurality of vias. an encapsulant comprising: an upper side; and a lower side mountable on a surface; an upper side; and a lower side mountable on a surface; a semiconductor substrate in the encapsulant, the substrate comprising: a backside proximal the lower side of the encapsulant for thermal connection to the surface, wherein the backside is recessed with respect to the lower side of the encapsulant to form a recess; and an active side distal the lower side of the encapsulant, the active side of the substrate including a plurality of die contacts; a backside proximal the lower side of the encapsulant for thermal connection to the surface, wherein the backside is recessed with respect to the lower side of the encapsulant to form a recess; and an active side distal the lower side of the encapsulant, the active side of the substrate including a plurality of die contacts; a plurality of electrically conductive interconnects extending to the lower surface of the encapsulant for electrically connecting the die contacts of the substrate to the surface, and a heat spreader in thermal contact with the backside of the semiconductor substrate for aiding thermal connection to the surface, the recess is partly filled with a thermally conductive material and partly filled with said encapsulant, and the thermally conductive material in the recess is arranged in a plurality of vias.
A method for providing fuel to primary and secondary fuel nozzles in a gas turbine engine fuel system , the method comprising: generating a fuel flow at a low flow rate; routing primary fuel from the fuel flow to a primary fuel nozzle ; maintaining a backpressure on the fuel flow using a passive equalization divider valve ; wherein maintaining a backpressure on the fuel flow comprises: biasing a spring-loaded piston within a piston chamber of the valve housing against the fuel flow opening the passive equalization divider valve at a high flow rate of the fuel flow to route secondary fuel from the fuel flow to secondary fuel nozzles ; and progressively opening the passive equalization divider valve from the low flow rate to the high flow rate to reduce a pressure drop across the first flow divider valve produced by the secondary fuel; and wherein progressively opening the valve from the low flow rate to the high flow rate comprises: moving the spring-loaded piston against a window in the housing to produce the secondary fuel, and further comprising routing the secondary fuel through a multi-port flow divider valve disposed within the housing. generating a fuel flow at a low flow rate; routing primary fuel from the fuel flow to a primary fuel nozzle ; maintaining a backpressure on the fuel flow using a passive equalization divider valve ; biasing a spring-loaded piston within a piston chamber of the valve housing against the fuel flow opening the passive equalization divider valve at a high flow rate of the fuel flow to route secondary fuel from the fuel flow to secondary fuel nozzles ; and progressively opening the passive equalization divider valve from the low flow rate to the high flow rate to reduce a pressure drop across the first flow divider valve produced by the secondary fuel; and wherein progressively opening the valve from the low flow rate to the high flow rate comprises: moving the spring-loaded piston against a window in the housing to produce the secondary fuel, and further comprising routing the secondary fuel through a multi-port flow divider valve disposed within the housing.
A laminate comprising a base layer, an intermediate layer formed on the base layer, and a surface layer formed on the intermediate layer, wherein: the base layer is a polymerized product of a base layer composition containing at least compound A having a (meth)acryloyl group in a molecule thereof; the intermediate layer is a polymerized product of an intermediate layer composition containing (i) compound B having two or more functional groups in a molecule thereof, at least one of the functional groups being (meth)acryloyl group, and (ii) compound C having two or more functional groups in a molecule thereof, at least one of the functional groups being hydroxyl group; the surface layer is a polymerized product of a surface layer composition containing at least compound D having an isocyanate group in a molecule thereof; the (meth)acryloyl group in the base layer is bonded to the (meth)acryloyl group in the intermediate layer composition; and the hydroxyl group in the intermediate layer is bonded to the isocyanate group in the surface layer composition. the base layer is a polymerized product of a base layer composition containing at least compound A having a (meth)acryloyl group in a molecule thereof; the intermediate layer is a polymerized product of an intermediate layer composition containing (i) compound B having two or more functional groups in a molecule thereof, at least one of the functional groups being (meth)acryloyl group, and (ii) compound C having two or more functional groups in a molecule thereof, at least one of the functional groups being hydroxyl group; the surface layer is a polymerized product of a surface layer composition containing at least compound D having an isocyanate group in a molecule thereof; the (meth)acryloyl group in the base layer is bonded to the (meth)acryloyl group in the intermediate layer composition; and the hydroxyl group in the intermediate layer is bonded to the isocyanate group in the surface layer composition.