mhurhangee/patent-ind-claim-en huggingface dataset:
A first interface board of a network device, comprising a Peripheral Component Interconnect Express PCI-E Endpoint, an Ethernet switch chip, a board memory, and a logical device; wherein the PCI-E Endpoint is to connect with a PCI-E root complex RC in a forwarding board of the network device via a PCI-E bus, wherein the PCI-E RC corresponds to the first interface board; the Ethernet switch chip is to receive a first Ethernet data packet from an exterior of the network device; the board memory is mapped to PCI-E memory space in the network device, wherein an address range in the PCI-E memory space mapped by the board memory is different from address ranges in the PCI-E memory space, which are mapped by a board memory of each remaining interface board, and mapped by a system memory of the forwarding board; the logical device is to receive the first Ethernet data packet from the Ethernet switch chip, and determine a destination board of the first Ethernet data packet; wherein when determining that the destination board of the first Ethernet data packet received from the Ethernet switch chip is a second interface board of the network device, the logical device is further to encapsulate the first Ethernet data packet into a first PCI-E packet, which takes a PCI-E memory space address of a board memory of the second interface board as destination address, wherein the PCI-E Endpoint forwards the first PCI-E packet to the forwarding board of the network device; the logical device is further to obtain from the board memory a second PCI-E packet coming from a third interface board, parse out a second Enternet data packet from the obtained second PCI-E packet, and transmit the second Ethernet data packet to the Ethernet switch chip, wherein the third interface board is the same as the second interface board, or is different from the second interface board.
A liquid dispensing valve, comprising: a liquid inlet for receiving the liquid and a liquid outlet for discharging the liquid, a valve member mounted for movement relative to said liquid outlet between open and closed positions, and a liquid passage communicating between said liquid inlet and said liquid outlet ; an air inlet for receiving air from a source of pressurized air; an air passageway coupled with said air inlet; a pneumatic actuator communicating with said air passageway for moving said valve member at least to the open position; and an electrically operated air supply device interacting with said air passageway so as to control the flow of pressurized air to said pneumatic actuator , an air actuation portion carrying said pneumatic actuator and said air inlet is located in said air actuation portion, characterized in that the air actuation portion comprises a housing with the air passage way therein, said electrically operated air supply device is mounted to said housing, and said electrically operated air supply device further comprising a movable element engageable with said actuation portion and movable with respect to said air passageway to selectively allow and prevent flow of the pressurized air to operate said pneumatic actuator , said moveable element extending from outside the housing at least partially into the housing . a liquid inlet for receiving the liquid and a liquid outlet for discharging the liquid, a valve member mounted for movement relative to said liquid outlet between open and closed positions, and a liquid passage communicating between said liquid inlet and said liquid outlet ; an air inlet for receiving air from a source of pressurized air; an air passageway coupled with said air inlet; a pneumatic actuator communicating with said air passageway for moving said valve member at least to the open position; and an electrically operated air supply device interacting with said air passageway so as to control the flow of pressurized air to said pneumatic actuator , an air actuation portion carrying said pneumatic actuator and said air inlet is located in said air actuation portion, characterized in that the air actuation portion comprises a housing with the air passage way therein, said electrically operated air supply device is mounted to said housing, and said electrically operated air supply device further comprising a movable element engageable with said actuation portion and movable with respect to said air passageway to selectively allow and prevent flow of the pressurized air to operate said pneumatic actuator , said moveable element extending from outside the housing at least partially into the housing .
A method for producing a Ti-Al alloy, comprising: a primary ingot producing step of melting and holding a melting raw material under an atmosphere of 1.33 Pa or more by a melting method using a water-cooled copper vessel to produce a primary ingot, the melting raw material being prepared by adding a CaO-CaF 2 flux to a Ti-Al alloy to contain from 3 to 20 mass% of the CaO-CaF 2 flux relative to the Ti-Al alloy, the Ti-Al alloy being composed of a titanium material and an aluminum material and comprising 0.1 mass% or more of oxygen and 40 mass% or more of Al, the CaO-CaF 2 flux being prepared by mixing from 35 to 95 mass% of calcium fluoride with calcium oxide; a secondary ingot producing step of melting the primary ingot under an atmosphere of 1.33 Pa or more by a melting method using a bottomless water-cooled copper mold and continuously drawing the primary ingot downward to obtain a secondary ingot; and a flux layer removing step of mechanically removing a flux layer adhering to a surface of the secondary ingot. a primary ingot producing step of melting and holding a melting raw material under an atmosphere of 1.33 Pa or more by a melting method using a water-cooled copper vessel to produce a primary ingot, the melting raw material being prepared by adding a CaO-CaF 2 flux to a Ti-Al alloy to contain from 3 to 20 mass% of the CaO-CaF 2 flux relative to the Ti-Al alloy, the Ti-Al alloy being composed of a titanium material and an aluminum material and comprising 0.1 mass% or more of oxygen and 40 mass% or more of Al, the CaO-CaF 2 flux being prepared by mixing from 35 to 95 mass% of calcium fluoride with calcium oxide; a secondary ingot producing step of melting the primary ingot under an atmosphere of 1.33 Pa or more by a melting method using a bottomless water-cooled copper mold and continuously drawing the primary ingot downward to obtain a secondary ingot; and a flux layer removing step of mechanically removing a flux layer adhering to a surface of the secondary ingot.
A method for expanding a data memory for an existing microprocessor architecture comprising a bank select accessing scheme for accessing data memory which is divided into a plurality of memory banks and a bank select register configured to select a memory bank and wherein the existing microprocessor architecture comprises an instruction set having a dedicated bank select instruction (MOVLB) for selecting a memory bank; wherein an opcode of the dedicated bank select instruction (MOVLB) provides for a maximum of n bits payload thereby providing for an address value which is configured to select a maximum of 2 n memory banks, wherein no additional opcode is added to the instruction set and wherein a processor of the existing microprocessor architecture is configured to operate in a normal operation mode or in a test mode; the method comprising the steps of: using an opcode of a test instruction that provides for m bits of payload for a new bank select instruction, wherein m>n, wherein the test instruction is a control instruction that updates simulation states when said processor of the existing microprocessor architecture operates in the test mode; and using an opcode of the dedicated bank select instruction for a new test instruction that updates simulation states when operating in the test mode. using an opcode of a test instruction that provides for m bits of payload for a new bank select instruction, wherein m>n, wherein the test instruction is a control instruction that updates simulation states when said processor of the existing microprocessor architecture operates in the test mode; and using an opcode of the dedicated bank select instruction for a new test instruction that updates simulation states when operating in the test mode.
A low sulfur marine distillate fuel trunk piston diesel engine lubricating oil composition comprising: (a) a major amount of a Group I base oil or a Group II base oil or mixtures thereof; (b) at least one or more detergents comprising at least one overbased salt of an alkyl-substituted hydroxybenzoic acid; and (c) a succinimide dispersant derived from polyalkylene having a number average molecular weight (Mn) of 1400-3000; wherein the alkyl groups of the overbased salt of an alkyl-substituted hydroxybenzoic acid, are at least 90 mole % C 20 or greater; and wherein the succinimide dispersant is present at greater than 1.2 wt. % on an actives basis; and the total base number of the low sulfur marine distillate fuel trunk piston diesel engine lubrication oil composition is less than 30 mg KOH/g, measured in accordance with ASTM Standard No. D2896. (a) a major amount of a Group I base oil or a Group II base oil or mixtures thereof; (b) at least one or more detergents comprising at least one overbased salt of an alkyl-substituted hydroxybenzoic acid; and (c) a succinimide dispersant derived from polyalkylene having a number average molecular weight (Mn) of 1400-3000; wherein the alkyl groups of the overbased salt of an alkyl-substituted hydroxybenzoic acid, are at least 90 mole % C 20 or greater; and wherein the succinimide dispersant is present at greater than 1.2 wt. % on an actives basis; and the total base number of the low sulfur marine distillate fuel trunk piston diesel engine lubrication oil composition is less than 30 mg KOH/g, measured in accordance with ASTM Standard No. D2896.
A compound represented by formula (I) or a pharmaceutically acceptable salt thereof, wherein, each R 1 is independently selected from H, halogen, OH, NH 2 , CN, C 1-3 alkyl, and C 1-3 alkoxy, the C 1-3 alkyl and the C 1-3 alkoxy are optionally substituted with 1, 2 or 3 R a ; n is selected from 0, 1, 2, 3, and 4; R a is selected from H, F, Cl, Br, I, OH, and NH 2 ; R 2 is selected from H, halogen, OH, NH 2 , and CN; ring A is selected from C 5-6 cycloalkyl and 5-6 membered heterocycloalkyl; and the 5-6 membered heterocycloalkyl contains 1, 2, 3 or 4 heteroatoms or heteroatomic groups independently selected from -NH-, -O- and N. each R 1 is independently selected from H, halogen, OH, NH 2 , CN, C 1-3 alkyl, and C 1-3 alkoxy, the C 1-3 alkyl and the C 1-3 alkoxy are optionally substituted with 1, 2 or 3 R a ; n is selected from 0, 1, 2, 3, and 4; R a is selected from H, F, Cl, Br, I, OH, and NH 2 ; R 2 is selected from H, halogen, OH, NH 2 , and CN; ring A is selected from C 5-6 cycloalkyl and 5-6 membered heterocycloalkyl; and the 5-6 membered heterocycloalkyl contains 1, 2, 3 or 4 heteroatoms or heteroatomic groups independently selected from -NH-, -O- and N.
A communication device for handling a packet data network, PDN, connection and a network slice, comprising: at least one storage device ; and at least one processing circuit , coupled to the at least one storage device , wherein the at least one storage device stores, and the at least one processing circuit is configured to execute instructions of: establishing a PDN connection with an evolved packet core, EPC, network ; transmitting (304; 402) a Registration Request message of a Registration procedure to a fifth-generation core, 5GC,network ; receiving (306; 408), from the 5GCnetwork ,a Registration Accept message comprising a slice identifier; simultaneously connecting to the EPC and the 5GC networks ; and receiving packets from the EPC network at a first carrier frequency and the 5GCnetwork at a second carrier frequency, or transmitting packets to the EPC network at the first carrier frequency and the 5GCnetwork at the second carrier frequency. at least one storage device ; and at least one processing circuit , coupled to the at least one storage device , wherein the at least one storage device stores, and the at least one processing circuit is configured to execute instructions of: establishing a PDN connection with an evolved packet core, EPC, network ; transmitting (304; 402) a Registration Request message of a Registration procedure to a fifth-generation core, 5GC,network ; receiving (306; 408), from the 5GCnetwork ,a Registration Accept message comprising a slice identifier; simultaneously connecting to the EPC and the 5GC networks ; and receiving packets from the EPC network at a first carrier frequency and the 5GCnetwork at a second carrier frequency, or transmitting packets to the EPC network at the first carrier frequency and the 5GCnetwork at the second carrier frequency. establishing a PDN connection with an evolved packet core, EPC, network ; transmitting (304; 402) a Registration Request message of a Registration procedure to a fifth-generation core, 5GC,network ; receiving (306; 408), from the 5GCnetwork ,a Registration Accept message comprising a slice identifier; simultaneously connecting to the EPC and the 5GC networks ; and receiving packets from the EPC network at a first carrier frequency and the 5GCnetwork at a second carrier frequency, or transmitting packets to the EPC network at the first carrier frequency and the 5GCnetwork at the second carrier frequency.
A computer chassis , comprising: a sled ; and a sliding bracket with a first end and a second end , the sliding bracket further comprising a removable power supplier socket housed at the first end , the removable power supplier socket configured to be moved out of the computer chassis via a set of mechanisms; wherein, upon the removable power supplier socket being moved out of the computer chassis , the sled is capable of being pulled out of the computer chassis , wherein the set of mechanisms further comprises a rotational element and a first elastic element, wherein a loaded position of the first elastic element biases the power supplier socket to rotate away from the sled , wherein the rotational element further comprises an axis mechanically coupled to the first elastic element. a sled ; and a sliding bracket with a first end and a second end , the sliding bracket further comprising a removable power supplier socket housed at the first end , the removable power supplier socket configured to be moved out of the computer chassis via a set of mechanisms; wherein, upon the removable power supplier socket being moved out of the computer chassis , the sled is capable of being pulled out of the computer chassis , wherein the set of mechanisms further comprises a rotational element and a first elastic element, wherein a loaded position of the first elastic element biases the power supplier socket to rotate away from the sled , wherein the rotational element further comprises an axis mechanically coupled to the first elastic element.
An inter-communications-system handover method, comprising: receiving (S113), by user equipment, UE, indication information during a process of establishing a first session in a first communications system, wherein the indication information comprises one or more of a quality of service, QoS, parameter of a second communications system or an EPS bearer identifier of the second communications system, wherein the first communications system is a 5th generation, 5G, communications system, and wherein the second communications system is a 4th generation, 4G, communications system; determining based on the indication information, by the UE, that the first session is capable of being handed over from the first communications system to a second communications system; determining (S101), by the UE, whether the first session that is capable of being handed over from the first communications system to the second communications system exists in a session established in the first communications system; and sending (S102), by the UE, a message to a first core network device of the second communications system when determining that the first session exists, wherein the message is used to perform tracking area update, TAU, in the second communications system. receiving (S113), by user equipment, UE, indication information during a process of establishing a first session in a first communications system, wherein the indication information comprises one or more of a quality of service, QoS, parameter of a second communications system or an EPS bearer identifier of the second communications system, wherein the first communications system is a 5th generation, 5G, communications system, and wherein the second communications system is a 4th generation, 4G, communications system; determining based on the indication information, by the UE, that the first session is capable of being handed over from the first communications system to a second communications system; determining (S101), by the UE, whether the first session that is capable of being handed over from the first communications system to the second communications system exists in a session established in the first communications system; and sending (S102), by the UE, a message to a first core network device of the second communications system when determining that the first session exists, wherein the message is used to perform tracking area update, TAU, in the second communications system.
A single pot process for preparation of compound 5-HMF [5-hydroxy methyl furfural] comprising the steps of: i. reacting carbohydrates with oxalic acid and inorganic acids in the presence of biphasic solvent and carbon material selected from the group consisting of activated carbon, material constituted with carbon, and polycarbon material at a temperature in the range of 110°C-160°C for a time period in the range of 6 hrs - 12 hrs under vigorous stirring condition; and ii. drying the reaction mixture over Na 2 SO 4 and further solvent evaporation under reduced pressure giving compound 5-hydroxy methyl furfural with high yield and purity. i. reacting carbohydrates with oxalic acid and inorganic acids in the presence of biphasic solvent and carbon material selected from the group consisting of activated carbon, material constituted with carbon, and polycarbon material at a temperature in the range of 110°C-160°C for a time period in the range of 6 hrs - 12 hrs under vigorous stirring condition; and ii. drying the reaction mixture over Na 2 SO 4 and further solvent evaporation under reduced pressure giving compound 5-hydroxy methyl furfural with high yield and purity.
Packaging container , in particular for a gas-producing food product, wherein the packaging container has a packaging cup and a packaging closure , and wherein the packaging cup has a) a cup base , b) a cup jacket integrally formed on the cup base , c) a cup opening opposite the cup base , and d) an opening-side sealing edge , wherein at least one channel , in particular a plurality of channels , are introduced into the upper side of the sealing edge projecting away from the cup base , which channels are open on their long side opposite the cup base , and wherein the packaging closure is connected in a materially bonded manner to the upper side of the sealing edge opposite the cup base , such that the cup opening and the open long sides of the channels are covered and closed by the packaging closure , wherein the channels are open at their facing ends , such that the inner region of the packaging cup is connected to the outer region thereof in a gas-permeable manner, characterized in that the channels in the sealing edge run along a straight line. a) a cup base , b) a cup jacket integrally formed on the cup base , c) a cup opening opposite the cup base , and d) an opening-side sealing edge ,
A method performed by a user equipment, LTE , the method comprising: communicating with a first base station (5-1) and a second base station (5-2) using a 3 rd Generation Partnership Project, 3GPP, radio technology; communicating with a wireless communication device using at least one other radio technology; detecting in-device-coexistence, IDC, interference arising with respect to the second base station (5-2) as a result of coexistence of the 3GPP radio technology and the at least one other radio technology within the UE ; sending, to the first base station (5-1), in a case where the IDC interference cannot be solved by the LTE , IDC assistance information via a dedicated radio resource control, RRC, message including information identifying at least one of a Global Navigation Satellite System, GNSS, a wireless local area network, WLAN, and a Bluetooth radio technology to which in-device-coexistence, IDC, interference is caused from the 3GPP radio technology; receiving from at least one of the first base station (5-1) and the second base station (5-2), responsive to providing the IDC assistance information, control information for resolving the IDC interference; and resolving the IDC interference by controlling communication with at least one of the first base station (5-1) and the second base station (5-2) based on the control information. communicating with a first base station (5-1) and a second base station (5-2) using a 3 rd Generation Partnership Project, 3GPP, radio technology; communicating with a wireless communication device using at least one other radio technology; detecting in-device-coexistence, IDC, interference arising with respect to the second base station (5-2) as a result of coexistence of the 3GPP radio technology and the at least one other radio technology within the UE ; sending, to the first base station (5-1), in a case where the IDC interference cannot be solved by the LTE , IDC assistance information via a dedicated radio resource control, RRC, message including information identifying at least one of a Global Navigation Satellite System, GNSS, a wireless local area network, WLAN, and a Bluetooth radio technology to which in-device-coexistence, IDC, interference is caused from the 3GPP radio technology; receiving from at least one of the first base station (5-1) and the second base station (5-2), responsive to providing the IDC assistance information, control information for resolving the IDC interference; and resolving the IDC interference by controlling communication with at least one of the first base station (5-1) and the second base station (5-2) based on the control information.