mhurhangee/ep-ind-claims huggingface dataset:
An electronic microcontroller system comprising an electronic microcontroller, and comprising: - at least two processors (CPU1, CPU2, CPU3) of which one processor, called the secure processor, is dedicated to applications involving a guaranteed level of security and integrity; - at least one exchange interface for exchanges with at least one peripheral (LCD, USB, PCIe, MAC), said peripheral being user master of said electronic microcontroller system; - means of access to a shared memory space; - an interconnection matrix for interconnecting said exchange interface, said processors (CPU1, CPU2, CPU3) and said means of access to a shared memory space, the electronic microcontroller system moreover comprising means for managing applications involving a guaranteed level of security and integrity and applications exhibiting a non-guaranteed level of security and integrity, said exchange interface cooperating with a cell for secure isolation of the memory (SMIC) situated between said user master peripheral (LCD, USB, PCIe, MAC) and said interconnection matrix, and the microcontroller system furthermore comprising several user master peripherals (LCD, USB, PCIe, MAC) each having a cell for secure isolation of the memory (SMIC), each cell for secure isolation of the memory (SMIC) being managed by the secure processor. - at least two processors (CPU1, CPU2, CPU3) of which one processor, called the secure processor, is dedicated to applications involving a guaranteed level of security and integrity; - at least one exchange interface for exchanges with at least one peripheral (LCD, USB, PCIe, MAC), said peripheral being user master of said electronic microcontroller system; - means of access to a shared memory space; - an interconnection matrix for interconnecting said exchange interface, said processors (CPU1, CPU2, CPU3) and said means of access to a shared memory space,
An electronic apparatus having a plurality of operation modes, the electronic apparatus comprising: an input unit to receive an input of DC power from an external adaptor; a battery unit to store the received DC power; a first control unit to determine an operation mode of the electronic apparatus; wherein the first control unit is arranged to drive the electronic apparatus in a first operation mode using power selected from the battery unit or power received from the input unit, and to drive the electronic apparatus using both the power of the battery unit and the power input from the input unit in a second operation mode; and a second control unit to receive information on the state of the battery unit and the state of the input unit from a power control unit, and provide the information on the state of the battery unit and the state of the input unit to the first control unit; a power control unit to prevent an operation mode of the electronic apparatus from being changed to the second operation mode according to a detected charge state of the battery unit; wherein the first control unit is at least one of a central processing unit, a graphic processing unit, and a central processing unit having a graphic processing unit embedded therein, wherein the second control unit is a main board chipset. an input unit to receive an input of DC power from an external adaptor; a battery unit to store the received DC power; a first control unit to determine an operation mode of the electronic apparatus; wherein the first control unit is arranged to drive the electronic apparatus in a first operation mode using power selected from the battery unit or power received from the input unit, and to drive the electronic apparatus using both the power of the battery unit and the power input from the input unit in a second operation mode; and a second control unit to receive information on the state of the battery unit and the state of the input unit from a power control unit, and provide the information on the state of the battery unit and the state of the input unit to the first control unit; a power control unit to prevent an operation mode of the electronic apparatus from being changed to the second operation mode according to a detected charge state of the battery unit; wherein the first control unit is at least one of a central processing unit, a graphic processing unit, and a central processing unit having a graphic processing unit embedded therein, wherein the second control unit is a main board chipset.
A method of applying a poly-electrolyte composition to a carrier, which method comprising the steps of: - Providing the carrier with an aqueous reaction mixture comprising at least a first hydrophilic monomer and a second hydrophilic monomer, and - causing the monomers to polymerize on the carrier under the influence of an energy source wherein radical formation occurs and the polymerization is started and wherein crosslinking between individual polymer chains occurs, so as to form a water insoluble, crosslinked polyelectrolyte copolymer, Wherein - the first monomer is selected from the group consisting of vinylic sulphonic acids, vinyl phosphonic acids or a water soluble salt thereof as shown in the formula I-IV, Wherein R1, R2, R3 represent hydrogen, optionally substituted alkyl or aryl group, Q represents an alkylene group and M represents hydrogen or cation, and - the second monomer is a vinylic monomer with a double bond, which monomer comprises at least one acid group and a spacer group arranged between the double bond and the acid group, and - the second monomer is different from the first monomer and at least one compound selected from the group consisting of monomers comprising an acid group being either in a free acid form or in a form of a water soluble salt, and of which the logarithm of the acid dissociation constant (pKa) in the free acid form has a value smaller than 3.5. - Providing the carrier with an aqueous reaction mixture comprising at least a first hydrophilic monomer and a second hydrophilic monomer, and - causing the monomers to polymerize on the carrier under the influence of an energy source wherein radical formation occurs and the polymerization is started and wherein crosslinking between individual polymer chains occurs, so as to form a water insoluble, crosslinked polyelectrolyte copolymer, Wherein - the first monomer is selected from the group consisting of vinylic sulphonic acids, vinyl phosphonic acids or a water soluble salt thereof as shown in the formula I-IV, Wherein R1, R2, R3 represent hydrogen, optionally substituted alkyl or aryl group, Q represents an alkylene group and M represents hydrogen or cation, and - the second monomer is a vinylic monomer with a double bond, which monomer comprises at least one acid group and a spacer group arranged between the double bond and the acid group, and - the second monomer is different from the first monomer and at least one compound selected from the group consisting of monomers comprising an acid group being either in a free acid form or in a form of a water soluble salt, and of which the logarithm of the acid dissociation constant (pKa) in the free acid form has a value smaller than 3.5.
A wireless access point configured to: determine (410, 420) whether a wireless station that is wirelessly communicating with the wireless access point is within a predetermined distance to the wireless access point, wherein the wireless access point is configured to transmit signals at a first transmission rate within a first transmission range; determine an optimal transmission rate for the wireless station by polling a set of wireless stations that are communicating with the wireless access point for transmission rates and selecting a highest common transmission rate from the transmission rates of the set of wireless stations as the optimal transmission rate; and in response to the wireless station being within the predetermined distance to the wireless access point, reduce the first transmission range of the wireless access point to a second transmission range by increasing the first transmission rate of the wireless access point to a second transmission rate based on the optimal transmission rate. determine (410, 420) whether a wireless station that is wirelessly communicating with the wireless access point is within a predetermined distance to the wireless access point, wherein the wireless access point is configured to transmit signals at a first transmission rate within a first transmission range; determine an optimal transmission rate for the wireless station by polling a set of wireless stations that are communicating with the wireless access point for transmission rates and selecting a highest common transmission rate from the transmission rates of the set of wireless stations as the optimal transmission rate; and in response to the wireless station being within the predetermined distance to the wireless access point, reduce the first transmission range of the wireless access point to a second transmission range by increasing the first transmission rate of the wireless access point to a second transmission rate based on the optimal transmission rate.
A system for acid gas removal comprising: a membrane contactor having a plurality of membrane fibers in which a feed gas pressure is maintained above a liquid absorbent pressure allowing a portion of a slip gas to bubble through the liquid absorbent; feed gas inlet and outlet ports (308, 340) coupled to the membrane contactor for providing a flow of feed gas through the membrane contactor; liquid stream inlet and outlet ports (320, 325) coupled to the membrane contactor for providing a flow of liquid absorbent through the membrane contactor; a first control valve for controlling an interface between liquid in the contactor and the slip gas to ensure that plurality of fibers remain immersed in the liquid stream; a second control valve for controlling an interface between feed gas and entrained liquid at the feed gas outlet port to ensure that a level of entrained liquid remains low; a first level sensor configured to measure the interface between the liquid in the contactor and the slip gas and to communicate a signal indicative of the interface level to the first control valve; a second level sensor configured to measure the interface between the feed gas and entrained liquid at the gas outlet port and to communicate a signal indicative of the interface level to the second control valve; a slip gas outlet for removing the bubbled slip gas from the contactor; and a blower (140, 405) coupled to the slip gas outlet adapted to pressurize slip gas exiting through the slip gas outlet and to redirect the pressurized slip gas back to the gas inlet of the membrane contactor. a membrane contactor having a plurality of membrane fibers in which a feed gas pressure is maintained above a liquid absorbent pressure allowing a portion of a slip gas to bubble through the liquid absorbent; feed gas inlet and outlet ports (308, 340) coupled to the membrane contactor for providing a flow of feed gas through the membrane contactor; liquid stream inlet and outlet ports (320, 325) coupled to the membrane contactor for providing a flow of liquid absorbent through the membrane contactor; a first control valve for controlling an interface between liquid in the contactor and the slip gas to ensure that plurality of fibers remain immersed in the liquid stream; a second control valve for controlling an interface between feed gas and entrained liquid at the feed gas outlet port to ensure that a level of entrained liquid remains low; a first level sensor configured to measure the interface between the liquid in the contactor and the slip gas and to communicate a signal indicative of the interface level to the first control valve; a second level sensor configured to measure the interface between the feed gas and entrained liquid at the gas outlet port and to communicate a signal indicative of the interface level to the second control valve; a slip gas outlet for removing the bubbled slip gas from the contactor; and a blower (140, 405) coupled to the slip gas outlet adapted to pressurize slip gas exiting through the slip gas outlet and to redirect the pressurized slip gas back to the gas inlet of the membrane contactor.
A method of transmitting a signal by a User Equipment, UE, to a Base Station, BS, in a wireless communication system, the method comprising: allocating 2 symbols for a Physical Uplink Control Channel, PUCCH, to a plurality of antenna ports; and transmitting, to the BS, the PUCCH through the plurality of antenna ports, characterized in that based on that a frequency hopping is applied to the 2 symbols, a Spatial Orthogonal Resource Transmit Diversity, SORTD, scheme is applied as the transmit diversity scheme for the 2 symbols, and wherein, based on that (i) the frequency hopping is not applied and (ii) a reference signal, RS, for the PUCCH and Uplink Control Information, UCI, for the PUCCH are interlaced in a symbol, a Space Time Block Coding, STBC, scheme is applied as the transmit diversity scheme for the 2 symbols. allocating 2 symbols for a Physical Uplink Control Channel, PUCCH, to a plurality of antenna ports; and transmitting, to the BS, the PUCCH through the plurality of antenna ports, characterized in that based on that a frequency hopping is applied to the 2 symbols, a Spatial Orthogonal Resource Transmit Diversity, SORTD, scheme is applied as the transmit diversity scheme for the 2 symbols, and wherein, based on that (i) the frequency hopping is not applied and (ii) a reference signal, RS, for the PUCCH and Uplink Control Information, UCI, for the PUCCH are interlaced in a symbol, a Space Time Block Coding, STBC, scheme is applied as the transmit diversity scheme for the 2 symbols.
People conveyor drive of a people conveyor comprising a plurality of treads interconnected to form an endless tread band, the people conveyor drive comprising: a tension member drive system configured to drive the endless tread band; and a shaft (42; 30; 35) having a shaft main portion and at least one shaft support portion, the at least one shaft support portion being supported by at least one shaft bearing to be rotatable around a shaft axis; wherein the shaft (42; 30; 35) is configured for engaging with an endless tread drive tension member to drive the endless tread band; wherein the shaft (42; 30; 35) has a split shaft configuration with the shaft main portion being detachably coupled to the at least one shaft support portion; characterised in that: the at least one shaft support portion comprises a shaft main portion receiving part configured to receive a first end of the shaft main portion to couple the shaft main portion to the at least one shaft support portion; wherein the shaft main portion receiving part comprises a receptacle supporting the first end of the shaft main portion, and a clamping part detachably coupled to the receptacle to fix the first end of the shaft main portion in the receptacle. a tension member drive system configured to drive the endless tread band; and a shaft (42; 30; 35) having a shaft main portion and at least one shaft support portion, the at least one shaft support portion being supported by at least one shaft bearing to be rotatable around a shaft axis; wherein the shaft (42; 30; 35) is configured for engaging with an endless tread drive tension member to drive the endless tread band; wherein the shaft (42; 30; 35) has a split shaft configuration with the shaft main portion being detachably coupled to the at least one shaft support portion; characterised in that: the at least one shaft support portion comprises a shaft main portion receiving part configured to receive a first end of the shaft main portion to couple the shaft main portion to the at least one shaft support portion; wherein the shaft main portion receiving part comprises a receptacle supporting the first end of the shaft main portion, and a clamping part detachably coupled to the receptacle to fix the first end of the shaft main portion in the receptacle. the at least one shaft support portion comprises a shaft main portion receiving part configured to receive a first end of the shaft main portion to couple the shaft main portion to the at least one shaft support portion; wherein the shaft main portion receiving part comprises a receptacle supporting the first end of the shaft main portion, and a clamping part detachably coupled to the receptacle to fix the first end of the shaft main portion in the receptacle.
A method of communication, comprising: receiving at least a first portion of a reconfiguration message from a network entity; detecting an absent second portion of the reconfiguration message; sending a retransmission request to the network entity based at least in part on the detecting of the absent second portion of the reconfiguration message; and triggering a status prohibit timer disregard state (46, 58) for at least a portion of a status prohibit time period of a status prohibit timer to increase a frequency of retransmission requests communicated to the network entity, wherein the status prohibit timer disregard state permits the sending of a subsequent retransmission request during the status prohibit timer period. receiving at least a first portion of a reconfiguration message from a network entity; detecting an absent second portion of the reconfiguration message; sending a retransmission request to the network entity based at least in part on the detecting of the absent second portion of the reconfiguration message; and triggering a status prohibit timer disregard state (46, 58) for at least a portion of a status prohibit time period of a status prohibit timer to increase a frequency of retransmission requests communicated to the network entity, wherein the status prohibit timer disregard state permits the sending of a subsequent retransmission request during the status prohibit timer period.
A method comprising: transmitting signals between a head-end unit and remote units (108a,..., 108d) of a telecommunication system; determining that a first delay of a signal path between the head-end unit and a first remote unit of the remote units is greater than each delay of signal paths between the head-end unit and other remote units; determining if the first delay is greater than a threshold; and configuring, based on the first delay when the first delay is less than the threshold and based on another delay that is below the threshold when the first delay is greater than the threshold, the telecommunication system to delay transmission of additional multiple-input/ multiple-output signals such that the additional multiple-input/multiple-output signals are simultaneously transmitted to another unit by either the head-end unit or the remote units. transmitting signals between a head-end unit and remote units (108a,..., 108d) of a telecommunication system; determining that a first delay of a signal path between the head-end unit and a first remote unit of the remote units is greater than each delay of signal paths between the head-end unit and other remote units; determining if the first delay is greater than a threshold; and configuring, based on the first delay when the first delay is less than the threshold and based on another delay that is below the threshold when the first delay is greater than the threshold, the telecommunication system to delay transmission of additional multiple-input/ multiple-output signals such that the additional multiple-input/multiple-output signals are simultaneously transmitted to another unit by either the head-end unit or the remote units.
Sliding door assembly, comprising a frame, a door leaf which can be displaced relative to the frame and is coupled to a sliding guide and which is guided by means of the sliding guide in a guide rail arranged on the frame, and at least one consumer (50, 52, 54) of electrical energy arranged on the leaf, wherein conductor elements (66, 68) are arranged on or in the guide rail and extend along the longitudinal direction of the guide rail, and in that the sliding guide has first contact elements (86, 88) and second contact elements (90, 92) electrically connected thereto, wherein the first contact elements (86, 88) are in contact with the conductor elements (66, 68), wherein the second contact elements (90, 92) are in contact with contact surfaces (94, 96) which are arranged on the leaf and which are electrically or electronically connected to the consumer (50, 52, 54), and wherein the second contact elements (90, 92) extend along a direction of extension toward the door leaf and are able to deform elastically along the direction of extension in order to compensate for a distance between the sliding guide and the contact surfaces (94, 96).
A method of making an asymmetric hollow fiber carbon molecular sieve comprising, (i) providing a dope solution comprised of a polyimide and a solvent, wherein the polyimide has a storage modulus minimum at a temperature greater than 250°C that is less than the storage modulus at a temperature of 250°C, but no more than ten times less, wherein the storage modulus minimum is measured using dynamic mechanical thermal analysis as described herein from 250°C to a temperature where the polyimide carbonizes, (ii) shaping the dope solution to form a hollow fiber; (iii) removing the solvent from the hollow fiber to form a polyimide hollow fiber; and (iv) heating the polyimide hollow fiber in an atmosphere that is non-oxidizing to form the asymmetric hollow fiber carbon molecular sieve; wherein the polyimide is the reaction product of a dianhydride and a diamine, wherein the diamine has no rotational freedom, and the dianhydride is comprised of an aromatic dianhydride that has no rotational freedom within the dianhydride and a dianhydride that has rotational freedom within the dianhydride; wherein no rotational freedom means that only one aromatic ring is present or there are no single bonds between aromatic rings that would allow the aromatic rings to rotate in relation to each other and rotational freedom means that there are single bonds between aromatic rings that would allow the aromatic rings to rotate in relation to each other; and wherein the dianhydride that has no rotational freedom is naphthalenetetracarboxylic dianhydride, benzoquinonetetracarboxylic dianhydride, or combination thereof. (i) providing a dope solution comprised of a polyimide and a solvent, wherein the polyimide has a storage modulus minimum at a temperature greater than 250°C that is less than the storage modulus at a temperature of 250°C, but no more than ten times less, wherein the storage modulus minimum is measured using dynamic mechanical thermal analysis as described herein from 250°C to a temperature where the polyimide carbonizes, (ii) shaping the dope solution to form a hollow fiber; (iii) removing the solvent from the hollow fiber to form a polyimide hollow fiber; and (iv) heating the polyimide hollow fiber in an atmosphere that is non-oxidizing to form the asymmetric hollow fiber carbon molecular sieve; wherein the polyimide is the reaction product of a dianhydride and a diamine, wherein the diamine has no rotational freedom, and the dianhydride is comprised of an aromatic dianhydride that has no rotational freedom within the dianhydride and a dianhydride that has rotational freedom within the dianhydride; wherein no rotational freedom means that only one aromatic ring is present or there are no single bonds between aromatic rings that would allow the aromatic rings to rotate in relation to each other and rotational freedom means that there are single bonds between aromatic rings that would allow the aromatic rings to rotate in relation to each other; and wherein the dianhydride that has no rotational freedom is naphthalenetetracarboxylic dianhydride, benzoquinonetetracarboxylic dianhydride, or combination thereof.