mhurhangee/patent-ind-claim-en huggingface dataset:
Melt-spun fibers comprising thermoplastic aliphatic polyketone as the first polymer and polyolefin, polyester, polyamide, polyoxymethylene, polyurethane, polyphenylene sulfide, polyphenylene sulfone, polyphenylene ether, polyphenylene ketone, polyphenylene ether ketone, liquid crystalline polymer and/or aliphatic polyketone as the second polymer, wherein the polymers are present in the form of two or more fiber components which are spatially separated from one another but arranged contiguously, and wherein, in case that aliphatic polyketone is present as the second polymer, its melting point is at least 5°C higher than the melting point of the aliphatic polyketone of the first polymer.
A method for operating a non-volatile memory device, comprising: performing a plurality of erase-verify iterations (EVla-EV4a) for a set of memory cells (MCO, MC1, 500, 510, 520, 532, 533, 534, 705, 706) connected to a set of word lines (524, WLL0-WLL22) until a verify test is passed by the set of memory cells, wherein each memory cell of the set of memory cells comprises a charge-trapping material (CTL, 403), the verify test determines whether memory cells of the set of memory cells have a threshold voltage which is below a verify voltage (Vv_erase), and the set of memory cells has a threshold voltage distribution when the verify test is passed by the set of memory cells; and after the verify test is passed by the set of memory cells, determining an erase depth of the set of memory cells and, based on the erase depth, biasing the set of memory cells to cause a lower tail of the threshold voltage distribution to move lower , wherein the biasing the set of memory cells comprises providing a positive control gate-to-drain voltage for each memory cell in the set of memory cells; and characterised in that the providing the positive control gate-to-drain voltage for each memory cell in the set of memory cells comprises applying a positive control gate voltage to each word line of the set of word lines; and the determining the erase depth comprises sensing a position (V1, 1000a) of the lower tail of the threshold voltage distribution; and the positive control gate voltage has a duration (tpulse) which is relatively shorter when the position is relatively higher. performing a plurality of erase-verify iterations (EVla-EV4a) for a set of memory cells (MCO, MC1, 500, 510, 520, 532, 533, 534, 705, 706) connected to a set of word lines (524, WLL0-WLL22) until a verify test is passed by the set of memory cells, wherein each memory cell of the set of memory cells comprises a charge-trapping material (CTL, 403), the verify test determines whether memory cells of the set of memory cells have a threshold voltage which is below a verify voltage (Vv_erase), and the set of memory cells has a threshold voltage distribution when the verify test is passed by the set of memory cells; and after the verify test is passed by the set of memory cells, determining an erase depth of the set of memory cells and, based on the erase depth, biasing the set of memory cells to cause a lower tail of the threshold voltage distribution to move lower , wherein the biasing the set of memory cells comprises providing a positive control gate-to-drain voltage for each memory cell in the set of memory cells; and characterised in that the providing the positive control gate-to-drain voltage for each memory cell in the set of memory cells comprises applying a positive control gate voltage to each word line of the set of word lines; and the determining the erase depth comprises sensing a position (V1, 1000a) of the lower tail of the threshold voltage distribution; and the positive control gate voltage has a duration (tpulse) which is relatively shorter when the position is relatively higher.
A communication device (100-1) comprising: a controller configured to receive data transmission packets from another communication device (100-2), create a reception confirmation packet indicating reception of the data transmission packet for each data transmission packet, and store the created reception confirmation packets in a transmission buffer ; and characterized by further comprising a transmitter configured to transmit one or more reception confirmation packets selected in order from and including the newest reception confirmation packet stored in the transmission buffer to the other communication device (100-2) and discard remaining reception confirmation packets from the transmission buffer such that reception confirmation packets other than the one or more transmitted reception confirmation packets are not transmitted to the other communication device (100-2). a controller configured to receive data transmission packets from another communication device (100-2), create a reception confirmation packet indicating reception of the data transmission packet for each data transmission packet, and store the created reception confirmation packets in a transmission buffer ; and characterized by further comprising a transmitter configured to transmit one or more reception confirmation packets selected in order from and including the newest reception confirmation packet stored in the transmission buffer to the other communication device (100-2) and discard remaining reception confirmation packets from the transmission buffer such that reception confirmation packets other than the one or more transmitted reception confirmation packets are not transmitted to the other communication device (100-2).
Window regulator arrangement for a motor vehicle, having an adjustable window pane , an adjusting device with a drive and a driver arrangement comprising a pane adapter and a guide carriage , wherein the pane adapter has an upper, U-shaped holding section for the fixing of the window pane and a flat lower clamping section and is arranged on an edge region of the window pane , and wherein the guide carriage is arranged on the adjusting device and has a seat , which is brought into engagement with the clamping section of the pane adapter and which results from a guide limb and the opposite fastening limb connected thereto on one side, wherein the clamping section has an insertion channel formed by at least one elevation and the guide limb is arranged with its outer edges in the insertion channel , whereby upon insertion of the clamping section of the pane adapter into the seat of the guide carriage , a desired alignment of the pane adapter to the guide carriage is achieved, characterised in that the clamping section of the pane adapter abuts the guide limb and the fastening limb .
A method for producing a hot forged material, wherein both an upper die and a lower die are made of Ni-based super heat-resistant alloy, the method comprising: a raw material heating step of heating the material for hot forging in a furnace to a heating temperature within a range of 1025 to 1150°C; a die heating step of heating the upper die and the lower die to a heating temperature within a range of 1000 to 1075°C; a transferring step of transferring the material for hot forging onto the lower die by a manipulator after the completion of the raw material heating step and the die heating step; and a hot die forging step of pressing the material for hot forging by the lower die and the upper die in air to form the hot forged material, wherein a value obtained by subtracting the heating temperature of the upper die and the lower die from the heating temperature of the material for hot forging is 75°C or more, and the lower die and the upper die have a high-temperature compressive strength of 300 MPa or more under conditions of a strain rate of 10 -3 /sec at 1100°C. a raw material heating step of heating the material for hot forging in a furnace to a heating temperature within a range of 1025 to 1150°C; a die heating step of heating the upper die and the lower die to a heating temperature within a range of 1000 to 1075°C; a transferring step of transferring the material for hot forging onto the lower die by a manipulator after the completion of the raw material heating step and the die heating step; and a hot die forging step of pressing the material for hot forging by the lower die and the upper die in air to form the hot forged material, wherein a value obtained by subtracting the heating temperature of the upper die and the lower die from the heating temperature of the material for hot forging is 75°C or more, and the lower die and the upper die have a high-temperature compressive strength of 300 MPa or more under conditions of a strain rate of 10 -3 /sec at 1100°C.
Air treatment device, in particular cleanroom air treatment device, for an air treatment of a room (12a; 12b), with at least one outside air conduit (14a; 14b) for suctioning fresh air (16a; 16b), with at least one ambient air conduit (18a; 18b) for suctioning ambient air (20a; 20b) from the room (12a; 12b), with at least one incoming air conduit (22a; 22b) for feeding air (24a; 24b) into the room (12a; 12b) and with at least one air treatment unit (26a; 26b) for a conditioning of air (24a; 24b) that is to be fed in via the incoming air conduit (22a; 22b) and is implemented of the fresh air (16a; 16b) and the ambient air (20a; 20b), wherein the air treatment unit (26a; 26b) is configured to at least partially condition the fresh air (16a; 16b) separately from the ambient air (20a; 20b), wherein the air treatment unit (26a; 26b) comprises a first air treatment chamber (28a; 28b) for a tempering of the air that is to be fed in (24a; 24b) and comprises at least one second air treatment chamber (30a; 30b) for conditioning the fresh air (16a; 16b) separately from the ambient air (20a; 20b), characterised in that the air treatment unit comprises at least one heat pump system with at least one first cooling circuit for a tempering of the air that is to be fed in in the first air treatment chamber , and with a second cooling circuit and at least one heating circuit for conditioning the fresh air separately from the ambient air in the second air treatment chamber , or the air treatment unit comprises at least one heat pump system with at least one first cooling circuit and at least one heating circuit for a conditioning of the air that is to be fed in in the first air treatment chamber , and with a second cooling circuit for conditioning the fresh air separately from the ambient air in the second air treatment chamber .
An automated system including a configuration subsystem and a production subsystem , the configuration subsystem being separate from the production subsystem that comprises a plurality of components (31-33), a gatekeeper and an entity secured with a first secret value, the configuration subsystem comprising a generator including instructions that, when executed by a first processor, cause said generator to select a secret sharing scheme, to generate, from an input parameter different from said first secret value, a set of secret shares using the secret sharing scheme and to uniquely assign and securely send a secret share extracted from the set to each of said components, the gatekeeper including instructions that, when executed by a second processor, cause said gatekeeper to get a first subset of the secret shares from said components, to construct a second secret value from said first subset using the secret sharing scheme, to compute the first secret value by applying a preset function to the second secret value and to unlock access to the entity using the first secret value, characterized in that the gatekeeper is configured to retrieve a second subset of the secret shares from said components, to build a third secret value from said second subset using the secret sharing scheme, to compare said second and third secret values and to compute the first secret value only if said second and third secret values are equal; said second subset being different from said first subset. the configuration subsystem being separate from the production subsystem that comprises a plurality of components (31-33), a gatekeeper and an entity secured with a first secret value, the configuration subsystem comprising a generator including instructions that, when executed by a first processor, cause said generator to select a secret sharing scheme, to generate, from an input parameter different from said first secret value, a set of secret shares using the secret sharing scheme and to uniquely assign and securely send a secret share extracted from the set to each of said components, the gatekeeper including instructions that, when executed by a second processor, cause said gatekeeper to get a first subset of the secret shares from said components, to construct a second secret value from said first subset using the secret sharing scheme, to compute the first secret value by applying a preset function to the second secret value and to unlock access to the entity using the first secret value, characterized in that the gatekeeper is configured to retrieve a second subset of the secret shares from said components, to build a third secret value from said second subset using the secret sharing scheme, to compare said second and third secret values and to compute the first secret value only if said second and third secret values are equal; said second subset being different from said first subset.
A management system for managing a package of shuffled playing cards or chips in a casino equipped with a game table , wherein the package of shuffled playing cards or the chips is equipped with an RFID tag storing an ID for identifying the package of shuffled playing cards or the chips , the management system comprising: a storage provided under the game table to store the package of shuffled playing cards or the chips to be used on the game table ; a first RFID reader provided at the storage to read the RFID tag of the package of shuffled playing cards or the chips stored in the storage ; a second RFID reader (R) provided on the game table to read the RFID tag of the package of shuffled playing cards or the chips brought out of the storage onto the game table ; and the management system is configured to cause the first RFID reader and the second RFID reader (R) to read the RFID tag of the package of shuffled playing cards or the chips , and inspect the package of shuffled playing cards or the chips brought out of the storage onto the game table based on the reading results of the second RFID reader (R). wherein the package of shuffled playing cards or the chips is equipped with an RFID tag storing an ID for identifying the package of shuffled playing cards or the chips , the management system comprising: a storage provided under the game table to store the package of shuffled playing cards or the chips to be used on the game table ; a first RFID reader provided at the storage to read the RFID tag of the package of shuffled playing cards or the chips stored in the storage ; a second RFID reader (R) provided on the game table to read the RFID tag of the package of shuffled playing cards or the chips brought out of the storage onto the game table ; and the management system is configured to cause the first RFID reader and the second RFID reader (R) to read the RFID tag of the package of shuffled playing cards or the chips , and inspect the package of shuffled playing cards or the chips brought out of the storage onto the game table based on the reading results of the second RFID reader (R). a storage provided under the game table to store the package of shuffled playing cards or the chips to be used on the game table ; a first RFID reader provided at the storage to read the RFID tag of the package of shuffled playing cards or the chips stored in the storage ; a second RFID reader (R) provided on the game table to read the RFID tag of the package of shuffled playing cards or the chips brought out of the storage onto the game table ; and the management system is configured to cause the first RFID reader and the second RFID reader (R) to read the RFID tag of the package of shuffled playing cards or the chips , and inspect the package of shuffled playing cards or the chips brought out of the storage onto the game table based on the reading results of the second RFID reader (R).
Energy management system for a building, comprising at least one heat pump (HP), at least one first thermal energy storage device for providing domestic hot water (DHW-TES), at least one second thermal energy storage device for providing space heating (SH-TES), at least one renewable energy generation device, at least one first state of charge analyser for determining the state of charge of the at least one first thermal energy storage device (SOC-DHW), at least one second state of charge analyser for determining the state of charge of the at least one second thermal energy storage device (SOC-SH), and a controller configured to control the at least one heat pump (HP), the at least one first thermal energy storage device (DHW-TES), the at least one second thermal energy storage device (SH-TES), and the at least one renewable energy generation device, characterized in that the controller is configured to control, in dependence on at least the state of charge of the at least one first thermal energy storage device (SOC-DHW) and/or the state of charge of the at least one second thermal energy storage device (SOC-SH), whether one of and which of the at least one first thermal energy storage device (DHW-TES) and the at least one second thermal energy storage device (SH-TES) is charged with energy provided by the at least one heat pump (HP) and/or energy provided by the at least one renewable energy generation device. at least one heat pump (HP), at least one first thermal energy storage device for providing domestic hot water (DHW-TES), at least one second thermal energy storage device for providing space heating (SH-TES), at least one renewable energy generation device, at least one first state of charge analyser for determining the state of charge of the at least one first thermal energy storage device (SOC-DHW), at least one second state of charge analyser for determining the state of charge of the at least one second thermal energy storage device (SOC-SH), and a controller configured to control the at least one heat pump (HP), the at least one first thermal energy storage device (DHW-TES), the at least one second thermal energy storage device (SH-TES), and the at least one renewable energy generation device, characterized in that the controller is configured to control, in dependence on at least the state of charge of the at least one first thermal energy storage device (SOC-DHW) and/or the state of charge of the at least one second thermal energy storage device (SOC-SH), whether one of and which of the at least one first thermal energy storage device (DHW-TES) and the at least one second thermal energy storage device (SH-TES) is charged with energy provided by the at least one heat pump (HP) and/or energy provided by the at least one renewable energy generation device.
A method of producing an electrode catalyst comprising applying an electric potential to a perovskite metal oxide so as to cause metal to exsolve from the perovskite metal oxide lattice and form particles on the surface of the perovskite metal oxide lattice, resulting in the electrode catalyst having a metal particle population of from 100 to 600 particles μm -2 , wherein the perovskite metal oxide has the formula: (M 1 x1 M 2 x2 )(M 3 y M 4 z M 5 a M 6 b )O 3-γ wherein M 1 is selected from the group consisting of La, Ce and Pr, M 2 is Ca, M 3 is selected from the group consisting of Ti, Cr, Fe, Al and Sc, M 4 , M 5 and M 6 are each independently chosen from the group consisting of Ti, Sc, V, Mn, Cr, Fe, Co, Ni, Cu, Zn, Zr, Nb, Mo, Ru, Rh, Pd, Cd, Ag, Pt, Au and Al, and M 3 is different from at least one of M 4 , M 5 and M 6 , 0 ≤x1+x2 ≤ 1, 0 < y ≤ 1, 0 < z ≤ 1, 0 ≤ a ≤ 1, 0 ≤ b ≤ 1, y+z+ a+ b = 1, and 0 ≤ γ ≤ 0.1. M 1 is selected from the group consisting of La, Ce and Pr, M 2 is Ca, M 3 is selected from the group consisting of Ti, Cr, Fe, Al and Sc, M 4 , M 5 and M 6 are each independently chosen from the group consisting of Ti, Sc, V, Mn, Cr, Fe, Co, Ni, Cu, Zn, Zr, Nb, Mo, Ru, Rh, Pd, Cd, Ag, Pt, Au and Al, and M 3 is different from at least one of M 4 , M 5 and M 6 , 0 ≤x1+x2 ≤ 1, 0 < y ≤ 1, 0 < z ≤ 1, 0 ≤ a ≤ 1, 0 ≤ b ≤ 1, y+z+ a+ b = 1, and 0 ≤ γ ≤ 0.1.
Method for in-vitro determination of the presence of bacteria producing beta-lactamases, in a sample that may contain said bacteria, said method comprising the following steps: (a) incubating said sample in a medium containing a substrate of the beta-lactamases, having electrochemical properties, in particular a beta-lactam antibiotic having electrochemical properties, and (b) applying a means of electrochemical analysis in order to determine the presence of the substrate of the beta-lactamases after having been hydrolyzed. (a) incubating said sample in a medium containing a substrate of the beta-lactamases, having electrochemical properties, in particular a beta-lactam antibiotic having electrochemical properties, and (b) applying a means of electrochemical analysis in order to determine the presence of the substrate of the beta-lactamases after having been hydrolyzed.
A sealed film comprising: a first and a second substrate , wherein the first and the second substrates are in an offset relationship; a first and a second electrode disposed on the surface of at least one of the substrates; a switching material disposed between the first and second substrates, wherein the switching material is in contact with the first and second electrodes; and a first seal and a second seal , the first seal disposed along an edge of the switching material, separating the switching material from the second seal, wherein the sealed film is a spacerless sealed film, wherein the first seal is disposed upon an offset area along the edge of the switching material, and wherein the offset area is defined by the offset relationship of the first and second substrates. a first and a second substrate , wherein the first and the second substrates are in an offset relationship; a first and a second electrode disposed on the surface of at least one of the substrates; a switching material disposed between the first and second substrates, wherein the switching material is in contact with the first and second electrodes; and a first seal and a second seal , the first seal disposed along an edge of the switching material, separating the switching material from the second seal, wherein the sealed film is a spacerless sealed film, wherein the first seal is disposed upon an offset area along the edge of the switching material, and wherein the offset area is defined by the offset relationship of the first and second substrates.
A skin lightening composition comprising: a) An effective amount of niacinamide; and b) An effective amount of galardin. a) An effective amount of niacinamide; and b) An effective amount of galardin.