mhurhangee/patent-ind-claim-en huggingface dataset:
A composition in the form of a suspension, comprising (i) luminescent crystals of 3 - 500 nm size of formula (I) [M 1 A 1 ] a M 2 b X c (I), wherein: A 1 represents one or more organic cations selected from the group consisting of ammonium, formamidinium, guanidinium, imidazolium, pyridinium, pyrrolidinium, protonated thiourea, M 1 represents one or more alkaline metals selected from Cs, Rb, K, Na, Li, M 2 represents one or more metals selected from the group consisting of Ge, Sn, Pb, Sb, and Bi, X represents one or more anions selected from the group consisting of chloride, bromide, iodide, cyanide, thiocyanate, isothiocyanate and sulfide, a represents 1-4, b represents 1-2, c represents 3-9; and (ii) surfactant selected from the group of zwitter-ionic surfactants; and (iii) optionally solvent, preferably selected from the group of aliphatic hydrocarbons, aromatic hydrocarbons, ethers, esters, alcohols, ketones; and (iv) optionally polymer and/or pre-polymer, preferably selected from the group of acrylates, epoxies, urethanes, styrenes, silicones and cyclic olefinic copolymers. (i) luminescent crystals of 3 - 500 nm size of formula (I) [M 1 A 1 ] a M 2 b X c (I), wherein: A 1 represents one or more organic cations selected from the group consisting of ammonium, formamidinium, guanidinium, imidazolium, pyridinium, pyrrolidinium, protonated thiourea, M 1 represents one or more alkaline metals selected from Cs, Rb, K, Na, Li, M 2 represents one or more metals selected from the group consisting of Ge, Sn, Pb, Sb, and Bi, X represents one or more anions selected from the group consisting of chloride, bromide, iodide, cyanide, thiocyanate, isothiocyanate and sulfide, a represents 1-4, b represents 1-2, c represents 3-9; and A 1 represents one or more organic cations selected from the group consisting of ammonium, formamidinium, guanidinium, imidazolium, pyridinium, pyrrolidinium, protonated thiourea, M 1 represents one or more alkaline metals selected from Cs, Rb, K, Na, Li, M 2 represents one or more metals selected from the group consisting of Ge, Sn, Pb, Sb, and Bi, X represents one or more anions selected from the group consisting of chloride, bromide, iodide, cyanide, thiocyanate, isothiocyanate and sulfide, a represents 1-4, b represents 1-2, c represents 3-9; and (ii) surfactant selected from the group of zwitter-ionic surfactants; and (iii) optionally solvent, preferably selected from the group of aliphatic hydrocarbons, aromatic hydrocarbons, ethers, esters, alcohols, ketones; and (iv) optionally polymer and/or pre-polymer, preferably selected from the group of acrylates, epoxies, urethanes, styrenes, silicones and cyclic olefinic copolymers.
A method of sorting and dispensing microparticles, comprising: passing a microparticle surrounded by fluid into a flow switch ; changing a flow rate of the fluid surrounding the microparticle from a first flow rate to a second flow rate when the microparticle has a predetermined characteristic and is present in the flow switch by opening a valve controlling flow into the flow switch from a source of pressurized fluid; and passing the microparticle through the flow switch into a waste outlet flow path when the fluid surrounding the microparticle is traveling through the flow switch at approximately the first flow rate, or passing the microparticle through the flow switch into a sample outlet flow path and dispensing the microparticle as a droplet out of the sample outlet flow path when the fluid surrounding the microparticle is traveling through the flow switch at approximately the second flow rate, wherein a static fluid pressure in the waste outlet flow path is lower than a static fluid pressure in the sample outlet flow path. passing a microparticle surrounded by fluid into a flow switch ; changing a flow rate of the fluid surrounding the microparticle from a first flow rate to a second flow rate when the microparticle has a predetermined characteristic and is present in the flow switch by opening a valve controlling flow into the flow switch from a source of pressurized fluid; and passing the microparticle through the flow switch into a waste outlet flow path when the fluid surrounding the microparticle is traveling through the flow switch at approximately the first flow rate, or passing the microparticle through the flow switch into a sample outlet flow path and dispensing the microparticle as a droplet out of the sample outlet flow path when the fluid surrounding the microparticle is traveling through the flow switch at approximately the second flow rate, wherein a static fluid pressure in the waste outlet flow path is lower than a static fluid pressure in the sample outlet flow path.
A method for sidelink data transmission, comprising: receiving (S210) Downlink Control Information, DCI; determining (S220) a format of the DCI; when the DCI is a DCI in a first format, the DCI is used for scheduling a first type of sidelink; when the DCI is a DCI in a second format, the DCI is used for scheduling a second type of sidelink; wherein configuration parameters of the first type of sidelink and the second type of sidelink are different; and transmitting (S230) sidelink data by using the scheduled sidelink; characterized in that the configuration parameters of the first type of sidelink and the second type of sidelink being different comprises: a maximum bandwidth supported by the first type of sidelink is different from a maximum bandwidth supported by the second type of sidelink; and the configuration parameter of the first type of sidelink does not comprise parameter information of a sidelink feedback channel, and the configuration parameter of the second type of sidelink comprises the parameter information of the sidelink feedback channel. receiving (S210) Downlink Control Information, DCI; determining (S220) a format of the DCI; when the DCI is a DCI in a first format, the DCI is used for scheduling a first type of sidelink; when the DCI is a DCI in a second format, the DCI is used for scheduling a second type of sidelink; wherein configuration parameters of the first type of sidelink and the second type of sidelink are different; and transmitting (S230) sidelink data by using the scheduled sidelink; characterized in that the configuration parameters of the first type of sidelink and the second type of sidelink being different comprises: a maximum bandwidth supported by the first type of sidelink is different from a maximum bandwidth supported by the second type of sidelink; and the configuration parameter of the first type of sidelink does not comprise parameter information of a sidelink feedback channel, and the configuration parameter of the second type of sidelink comprises the parameter information of the sidelink feedback channel. a maximum bandwidth supported by the first type of sidelink is different from a maximum bandwidth supported by the second type of sidelink; and the configuration parameter of the first type of sidelink does not comprise parameter information of a sidelink feedback channel, and the configuration parameter of the second type of sidelink comprises the parameter information of the sidelink feedback channel.
Gas/Air mixing device (20, 20', 20") for a gas burner, having a housing , at least two venturi nozzles positioned within the housing, each venturi nozzle having: an air inlet section with an air inlet opening for air, a gas inlet section with at least two gas inlet openings for gas, a gas/air outlet section with a gas/air outlet opening for a gas/air mixture, wherein the air inlet section and the air inlet opening of each venturi nozzle each have a rectangular cross-section, the gas inlet openings of each venturi nozzle each have a rectangular cross-section; the gas/air outlet section and the gas/air outlet opening of each venturi nozzle each have a rectangular cross-section; characterized in that at least two venturi nozzles are positioned side-by-side in a row or almost in a row such that all gas inlet openings of the venturi nozzles are positioned in a row, or at least four venturi nozzles are positioned in a circumferential arrangement such that the gas/air outlet section of the venturi nozzles are all aligned towards a center of the circumferential arrangement, the air inlet opening of at least one venturi nozzle is permanently blocked by a blocking element , while the gas inlet openings and gas/air outlet opening of the same is permanently unblocked. an air inlet section with an air inlet opening for air, a gas inlet section with at least two gas inlet openings for gas, a gas/air outlet section with a gas/air outlet opening for a gas/air mixture, wherein the air inlet section and the air inlet opening of each venturi nozzle each have a rectangular cross-section, the gas inlet openings of each venturi nozzle each have a rectangular cross-section; the gas/air outlet section and the gas/air outlet opening of each venturi nozzle each have a rectangular cross-section; characterized in that
A method for communicating between a stylus pen and a digitizer, comprising: detecting , in the stylus pen, touch signals generated by the digitizer; analyzing , in the stylus pen, the touch signals to determine which of multiple protocols to use for communication with the digitizer, wherein the analyzing of the touch signals includes performing a correlation between the detected touch signals and signatures stored within the stylus pen, the signatures being associated with a plurality of different types of digitizers; based on the analyzing, selecting one of the multiple protocols, each protocol of the multiple protocols being associated with a different type of digitizer; and transmitting signals from the stylus pen using the selected protocol; wherein the transmitting of the signals from the stylus pen includes selecting one of a plurality of transmission circuits located on the stylus pen and transmitting data from the stylus pen over the selected transmission circuit using the selected protocol, wherein each of the plurality of transmission circuits is associated with a different digitizer and the plurality of transmission circuits are configured to generate signals having different electrical characteristics from each other that are matched to the selected protocol associated with the different type of digitizer. detecting , in the stylus pen, touch signals generated by the digitizer; analyzing , in the stylus pen, the touch signals to determine which of multiple protocols to use for communication with the digitizer, wherein the analyzing of the touch signals includes performing a correlation between the detected touch signals and signatures stored within the stylus pen, the signatures being associated with a plurality of different types of digitizers; based on the analyzing, selecting one of the multiple protocols, each protocol of the multiple protocols being associated with a different type of digitizer; and transmitting signals from the stylus pen using the selected protocol; wherein the transmitting of the signals from the stylus pen includes selecting one of a plurality of transmission circuits located on the stylus pen and transmitting data from the stylus pen over the selected transmission circuit using the selected protocol, wherein each of the plurality of transmission circuits is associated with a different digitizer and the plurality of transmission circuits are configured to generate signals having different electrical characteristics from each other that are matched to the selected protocol associated with the different type of digitizer.
A device for monitoring a Transmission Control Protocol, TCP, session, the device comprising: one or more memories ; and one or more processors , communicatively coupled to the one or more memories, to: receive , from a first device and a second device , a plurality of data packets of a TCP session, wherein the device is separate from both the first device and the second device; determine that a particular TCP segment of the TCP session that includes a synchronization acknowledgment, SYN-ACK, flag, has been received from the first device before a corresponding TCP segment of the TCP session that includes a synchronization, SYN, flag has been received from the second device; store a sequence number of the particular TCP segment as an initial sequence number for a stream of the TCP session; and reassemble or rearrange a set of data packets of the TCP session based on the initial sequence number for the stream and based on one or more sequence numbers of the set of data packets of the TCP session. one or more memories ; and one or more processors , communicatively coupled to the one or more memories, to: receive , from a first device and a second device , a plurality of data packets of a TCP session, wherein the device is separate from both the first device and the second device; determine that a particular TCP segment of the TCP session that includes a synchronization acknowledgment, SYN-ACK, flag, has been received from the first device before a corresponding TCP segment of the TCP session that includes a synchronization, SYN, flag has been received from the second device; store a sequence number of the particular TCP segment as an initial sequence number for a stream of the TCP session; and reassemble or rearrange a set of data packets of the TCP session based on the initial sequence number for the stream and based on one or more sequence numbers of the set of data packets of the TCP session. receive , from a first device and a second device , a plurality of data packets of a TCP session, wherein the device is separate from both the first device and the second device; determine that a particular TCP segment of the TCP session that includes a synchronization acknowledgment, SYN-ACK, flag, has been received from the first device before a corresponding TCP segment of the TCP session that includes a synchronization, SYN, flag has been received from the second device; store a sequence number of the particular TCP segment as an initial sequence number for a stream of the TCP session; and reassemble or rearrange a set of data packets of the TCP session based on the initial sequence number for the stream and based on one or more sequence numbers of the set of data packets of the TCP session.
A transmission device for a household electrical appliance, comprising a drive shaft and an output shaft assembly, wherein the output shaft assembly comprises a planetary carrier, a planetary gear train mounted on the planetary carrier, an output shaft and a follower shaft , the planetary gear train comprises a sun gear and at least one planetary gear engaged with the sun gear, the planetary carrier is connected to the output shaft, the sun gear is connected to the follower shaft, the planetary carrier is provided with a first bearing and a second bearing that are disposed coaxially with the output shaft, one end of the follower shaft protrudes from the sun gear and is connected to the first bearing, and one other end of the follower shaft passes through the second bearing, protrudes from the planetary carrier and is connected to the drive shaft in a clearance fit.
An elevator car having a balustrade attached to a roof of the elevator car , which balustrade can be pivoted about a rotation axis between a folded-down position, in which the balustrade is arranged essentially horizontally, and a raised position, in which the balustrade is arranged essentially vertically, wherein the balustrade is mechanically coupled to a 3-state switch which can adopt three different switching states, and the balustrade and the 3-state switch are designed to cooperate such that - the 3-state switch adopts a first switching state when the balustrade is in the folded-down position, - the 3-state switch adopts a second switching state when the balustrade is in the raised position, and - the 3-state switch adopts a third switching state when the balustrade is in neither the folded-down position nor the raised position. - the 3-state switch adopts a first switching state when the balustrade is in the folded-down position, - the 3-state switch adopts a second switching state when the balustrade is in the raised position, and - the 3-state switch adopts a third switching state when the balustrade is in neither the folded-down position nor the raised position.
A method for assigning codes to infrastructure elements that describe individual units of infrastructure in an infrastructure modeling software architecture, comprising: accessing, by a code authority executing on a computing device local to a client , a code authority service executing on one or more computing devices remote from the client , the accessing to establish a chain of authority from the code authority on the computing device local to the client to the code authority service on the remote computing device; providing, by the code authority to the code authority service , a desired code scope that defines a boundary over which codes are to be guaranteed unique; receiving, at the code authority from the code authority service , one or more codes that are unique over the code scope, wherein each code was generated by concatenating a code specification part indicating what information is encoded into the code and how it is encoded, a code scope part indicating a layer of scoping in addition to the code scope, and a code value part with a unique value; assigning, by the code authority , a code from the one or more codes to an infrastructure element of a model of infrastructure; storing the code in one or more files accessible to the client ; and upon request, displaying the assigned code of the infrastructure element to a user in a user interface of the client . accessing, by a code authority executing on a computing device local to a client , a code authority service executing on one or more computing devices remote from the client , the accessing to establish a chain of authority from the code authority on the computing device local to the client to the code authority service on the remote computing device; providing, by the code authority to the code authority service , a desired code scope that defines a boundary over which codes are to be guaranteed unique; receiving, at the code authority from the code authority service , one or more codes that are unique over the code scope, wherein each code was generated by concatenating a code specification part indicating what information is encoded into the code and how it is encoded, a code scope part indicating a layer of scoping in addition to the code scope, and a code value part with a unique value; assigning, by the code authority , a code from the one or more codes to an infrastructure element of a model of infrastructure; storing the code in one or more files accessible to the client ; and upon request, displaying the assigned code of the infrastructure element to a user in a user interface of the client .
A method for constituting a pre-paid virtual card, characterised by downloading from the internet onto a smartphone an application (APP) which at the moment in which it is downloaded creates a pre-paid virtual card and automatically assigns as its identifier the telephone subscription number of said smartphone, then registering with an Electronic Money Institution (EMI) which is to operate said pre-paid virtual card, at least said telephone subscription number, the E-mail address of the holder of said subscription, a password for subsequent access, and a PIN security code for future payment instructions, wherein after said application (APP) has created the pre-paid virtual card and has assigned the telephone subscription number as its identifier, it connects to said Electronic Money Institution (EMI) to register therewith the data relative to the holder of the electronic card, said password and said PIN code.
Inhaler for oral inhalation administration of a drug, comprising a housing , a drug chamber in the housing, an air pump upstream of the drug chamber configured to pump air through the drug chamber for expulsing the drug through an outlet of a mouthpiece , wherein the air pump comprises a motor characterized in that the motor is coupled to a centrifugal compressor operable to pump air through the drug chamber at a pressure greater than 20 millibars and a flow rate greater than 20 litres per minute and wherein the motor is operable to rotate at a speed exceeding 100 000 rpm.
Container , formed and configured to receive and discharge portions of a product mass flow formed from rod-shaped articles of the tobacco-processing industry during the transport movement of the containers in transport direction T in an arrangement for discretising or forming a product mass flow , comprising a base body formed from two side walls , two end walls as well as a bottom wall which forms a receiving chamber for the portions , wherein the receiving chamber is dimensioned in terms of width transversely to transport direction T and in terms of height perpendicular to the bottom wall for receiving such portions which have the original structure and the original cross-section of the supplied product mass flow or the structure and the cross-section of the product mass flow to be formed, wherein both end walls are formed to be at least partially open for collision-free transport in the arrangement , characterized in that at least one of the two side walls is formed to be adjustable or positionable relative to the other side wall in order to change distance A between the side walls .
A method of verifying whether a transparent layer of a given medium is integrally applied onto a support material , in which method a layer of said medium is applied onto an applicator roller , said applicator roller being then used to apply the medium layer to the support material which is to be coated, characterised in that - a surface structure is formed in the medium layer during or after the application of the medium layer onto the applicator roller and prior to the application of the medium layer onto the support material , - prior to the application of the medium layer from the applicator roller to the support material , the surface structure of the layer is captured by means of an image acquisition device comprising at least one camera and one lighting device which are oriented towards the surface structure and activated by a control device , and said surface structure is evaluated by an evaluation device . - a surface structure is formed in the medium layer during or after the application of the medium layer onto the applicator roller and prior to the application of the medium layer onto the support material , - prior to the application of the medium layer from the applicator roller to the support material , the surface structure of the layer is captured by means of an image acquisition device comprising at least one camera and one lighting device which are oriented towards the surface structure and activated by a control device , and said surface structure is evaluated by an evaluation device .
A water removable coating composition comprising a polymerizable ionic liquid comprising a polymerizable anion and a cation of the formula: R 1 is H or a C 1 -C 25 alkyl group, R 2 is H or -CO- X 1 -R 5 , where R 5 is H, a C 1 -C 25 alkyl group or R PEG ; and X 1 is -O- or -NR 6 -, where R 6 is H or a C 1 -C 6 alkyl; R 3 is H or CH 3 , R 8 is a (hetero)hydrocarbyl group, and w is 0, 1, 2 or 3; and R PEG is a poly(alkyleneoxy) containing group; subscript x is 1 or 2. R 1 is H or a C 1 -C 25 alkyl group, R 2 is H or -CO- X 1 -R 5 , where R 5 is H, a C 1 -C 25 alkyl group or R PEG ; and X 1 is -O- or -NR 6 -, where R 6 is H or a C 1 -C 6 alkyl; R 3 is H or CH 3 , R 8 is a (hetero)hydrocarbyl group, and w is 0, 1, 2 or 3; and R PEG is a poly(alkyleneoxy) containing group; subscript x is 1 or 2.