mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communication of different information types, comprising the steps of: inputting information comprising different information types; forming a composite aggregation of the different information types input; and transmitting the composite aggregation from a wireless sender to a wireless receiver over a wireless channel; wherein forming a composite aggregation of the different information types further includes forming a composite information packet including multiple sub-packets and location information indicating a location of each sub-packet within the composite information packet, wherein at least one of the sub-packets contains different information types; and, wherein each sub-packet comprises: payload fields for different information types; and, a sub-header that indicates the information types in that sub-packet and the length of payload fields for different information types in the sub-packet. inputting information comprising different information types; forming a composite aggregation of the different information types input; and transmitting the composite aggregation from a wireless sender to a wireless receiver over a wireless channel; wherein forming a composite aggregation of the different information types further includes forming a composite information packet including multiple sub-packets and location information indicating a location of each sub-packet within the composite information packet, wherein at least one of the sub-packets contains different information types; and, wherein each sub-packet comprises: payload fields for different information types; and, a sub-header that indicates the information types in that sub-packet and the length of payload fields for different information types in the sub-packet. payload fields for different information types; and, a sub-header that indicates the information types in that sub-packet and the length of payload fields for different information types in the sub-packet.
A method for selecting an appropriately sized meter for use in a selected application, comprising; associating an encoder-receiver-transmitter ERT endpoint with a consumption measuring meter; configuring the endpoint to record consumption data for a selectable time period over selectable length time intervals; comparing recorded data with known meter specifications; and selecting an appropriate meter based on the known meter specifications.
A catalyst for a solid polymer fuel cell, comprising catalyst particles containing platinum and cobalt supported on a carbon powder carrier, the catalyst having sulfo groups (-SO 3 H) at least on the catalyst particles, in TEM-EDX analysis, a ratio (I S /I Pt) of a sulfur peak intensity (I S) to a platinum peak intensity (I Pt) on the catalyst particles being within a range of 0.0044 or more and 0.0090 or less.
Tridentate iminopyrrolyl nickel complexes, characterised by the general molecular formula, in which the chelating iminopyrrolyl ligand is bonded to the nickel centre in a tridentate fashion, through a subsequent cyclometallation reaction by an intramolecular C-H activation, in which: a) Ar represents an aryl group, such as phenyl, biphenyl, naphtyl and equivalents, or a substituted aryl group, especially phenyl, having one or both ortho positions of the aromatic ring substituted with alkyl groups C1-C4, unsubstituted or substituted alkoxy or aryl groups, the latter preferably having alkyl C1 or trifluoromethyl groups in meta positions; b) R1 represents a hydrogen atom or an alkyl group C1-C4; c) R2 represents a hydrogen atom or an alkyl group C1-C4 or a substituted or unsubstituted aryl group preferably phenyl; d) R3 always represents a methylene group; e) R4 and R5 represent hydrogen atoms; f) R6 represents a hydrogen atom, an alkyl group C1-C11, an unsubstituted or substituted aryl group or a halogen, but preferably a hydrogen atom; g) L represents a neutral coordinating ligand, such as triphenylphosphine, tri(C1-C6 alkyl)phosphine, tricycloalkylphosphine, diphenylalkylphosphine, dialkylphenylphosphine, trialkylamine, arylamine such as pyridine, a nitrile such as acetonitrile or equivalent. a) Ar represents an aryl group, such as phenyl, biphenyl, naphtyl and equivalents, or a substituted aryl group, especially phenyl, having one or both ortho positions of the aromatic ring substituted with alkyl groups C1-C4, unsubstituted or substituted alkoxy or aryl groups, the latter preferably having alkyl C1 or trifluoromethyl groups in meta positions; b) R1 represents a hydrogen atom or an alkyl group C1-C4; c) R2 represents a hydrogen atom or an alkyl group C1-C4 or a substituted or unsubstituted aryl group preferably phenyl; d) R3 always represents a methylene group; e) R4 and R5 represent hydrogen atoms; f) R6 represents a hydrogen atom, an alkyl group C1-C11, an unsubstituted or substituted aryl group or a halogen, but preferably a hydrogen atom; g) L represents a neutral coordinating ligand, such as triphenylphosphine, tri(C1-C6 alkyl)phosphine, tricycloalkylphosphine, diphenylalkylphosphine, dialkylphenylphosphine, trialkylamine, arylamine such as pyridine, a nitrile such as acetonitrile or equivalent.
A security processing method for a car sharing service, characterized by comprising: a smart terminal encrypting a second random code according to a first smart terminal encryption key, to obtain a first cyphertext, the first smart terminal encryption key comprising a first random code and order form information sent by a cloud server; the smart terminal sending the first cyphertext to a vehicle; the smart terminal receiving a third random code sent by the vehicle, wherein the third random code is sent to the smart terminal after being encrypted according to the first vehicle encryption key by the vehicle, the third random code being obtained by the vehicle by decrypting the first cyphertext according to a first vehicle encryption key, the first vehicle encryption key comprising the first random code and the order form information sent by the cloud server; the smart terminal subjecting the second random code and the third random code to comparative verification, to obtain an identity authentication result; when the identity authentication result has passed, the smart terminal sending encrypted service data to the vehicle; and the vehicle decrypting the service data to execute the service data. a smart terminal encrypting a second random code according to a first smart terminal encryption key, to obtain a first cyphertext, the first smart terminal encryption key comprising a first random code and order form information sent by a cloud server; the smart terminal sending the first cyphertext to a vehicle; the smart terminal receiving a third random code sent by the vehicle, wherein the third random code is sent to the smart terminal after being encrypted according to the first vehicle encryption key by the vehicle, the third random code being obtained by the vehicle by decrypting the first cyphertext according to a first vehicle encryption key, the first vehicle encryption key comprising the first random code and the order form information sent by the cloud server; the smart terminal subjecting the second random code and the third random code to comparative verification, to obtain an identity authentication result; when the identity authentication result has passed, the smart terminal sending encrypted service data to the vehicle; and the vehicle decrypting the service data to execute the service data.
A method for a user equipment, UE, to receive a physical downlink shared channel, PDSCH, transmitted by a base station, the method comprising: receiving first information indicating one or more subframes in which the UE is configured to monitor an enhanced physical downlink control channel, EPDCCH; receiving third information indicating a duration in number of symbols for receiving a physical downlink control channel, PDCCH, in a subframe; determining (1380,1522) a starting symbol for the PDSCH in a first subframe indicated by the first information, based on second information indicating a start symbol for the EPDCCH in a subframe, if the PDSCH is scheduled by the EPDCCH in the first subframe; determining the starting symbol for the PDSCH in the first subframe indicated by the first information, based on the third information, if the second information is not received; determining (1390,1512) the starting symbol for the PDSCH in a second subframe which is not indicated by the first information, based on the third information, if the PDSCH is scheduled by the PDCCH in the second subframe; receiving (1514,1524) from a base station, the PDSCH based on the determined starting symbol. receiving first information indicating one or more subframes in which the UE is configured to monitor an enhanced physical downlink control channel, EPDCCH; receiving third information indicating a duration in number of symbols for receiving a physical downlink control channel, PDCCH, in a subframe; determining (1380,1522) a starting symbol for the PDSCH in a first subframe indicated by the first information, based on second information indicating a start symbol for the EPDCCH in a subframe, if the PDSCH is scheduled by the EPDCCH in the first subframe; determining the starting symbol for the PDSCH in the first subframe indicated by the first information, based on the third information, if the second information is not received; determining (1390,1512) the starting symbol for the PDSCH in a second subframe which is not indicated by the first information, based on the third information, if the PDSCH is scheduled by the PDCCH in the second subframe; receiving (1514,1524) from a base station, the PDSCH based on the determined starting symbol.
A power distribution panel comprising: a power distribution box, wherein the power distribution box includes a board supporting plug-in pins for receiving power, a contactor supported by the board, connected to the plug-in pins and configured to selectively provide power to a secondary power distribution connector supported on the board in response to a command, the board including power traces connecting the plug-in pins to the secondary power distribution connector; current-protection circuitry supported by the board and connected to at least one of the plug-in pins and the power traces, the current-protection circuitry being configured to monitor current to the power traces; secondary power distribution circuitry supported by the board and configured to provide the command; and a secondary circuit board supported by the board, the current-protection circuitry being mounted on the secondary circuit board. a power distribution box, wherein the power distribution box includes a board supporting plug-in pins for receiving power, a contactor supported by the board, connected to the plug-in pins and configured to selectively provide power to a secondary power distribution connector supported on the board in response to a command, the board including power traces connecting the plug-in pins to the secondary power distribution connector; current-protection circuitry supported by the board and connected to at least one of the plug-in pins and the power traces, the current-protection circuitry being configured to monitor current to the power traces; secondary power distribution circuitry supported by the board and configured to provide the command; and a secondary circuit board supported by the board, the current-protection circuitry being mounted on the secondary circuit board.
An in vitro method of diagnosing squamous cell carcinoma of lung cancer, comprising the detection of a DSG3 protein using an antibody that specifically binds to the DSG3 protein wherein the antibody is a monoclonal or polyclonal antibody.
System for acoustic reproduction, comprising: headphones or earphones having a microphone for measuring a sound field parameter, a first electroacoustic sound converter for generating a sound field and a second electroacoustic sound converter which is configured to enter upon acoustic interaction with the generated sound field of the first electroacoustic sound converter in order to generate a modified sound field; and a signal processing unit, wherein the signal processing unit is configured to control the first electroacoustic sound converter and the second electroacoustic sound converter by means of electrical signals; characterized in that the signal processing unit is furthermore configured to determine from the measured sound field parameter a given impedance value in the sound field and to derive therefrom an electrical adaptation signal and to control the second electroacoustic sound converter on the basis of the electrical adaptation signal in order set acoustic impedance values in the modified sound field according to an impedance signal (S Z). headphones or earphones having a microphone for measuring a sound field parameter, a first electroacoustic sound converter for generating a sound field and a second electroacoustic sound converter which is configured to enter upon acoustic interaction with the generated sound field of the first electroacoustic sound converter in order to generate a modified sound field; and a signal processing unit, wherein the signal processing unit is configured to control the first electroacoustic sound converter and the second electroacoustic sound converter by means of electrical signals; characterized in that the signal processing unit is furthermore configured to determine from the measured sound field parameter a given impedance value in the sound field and to derive therefrom an electrical adaptation signal and to control the second electroacoustic sound converter on the basis of the electrical adaptation signal in order set acoustic impedance values in the modified sound field according to an impedance signal (S Z).
An insect trap comprising: - an enclosure for receiving a human or an animal therein, and comprising an opening configured to allow air to flow out of the enclosure and prevent insects from entering the enclosure; and - a trapping unit disposed outside of the enclosure and in fluidic communication with the opening, and comprising a heatable container comprising either: (i) adhesive material for trapping an insect, or (ii) material comprising insecticide for killing an insect, characterised in that the heatable container comprises a liquid for retaining heat energy, optionally wherein the liquid is water. - an enclosure for receiving a human or an animal therein, and comprising an opening configured to allow air to flow out of the enclosure and prevent insects from entering the enclosure; and - a trapping unit disposed outside of the enclosure and in fluidic communication with the opening, and comprising a heatable container comprising either: (i) adhesive material for trapping an insect, or (ii) material comprising insecticide for killing an insect, characterised in that the heatable container comprises a liquid for retaining heat energy, optionally wherein the liquid is water.
A crystalline MCM-22 family molecular sieve having, in its as-synthesized form, an X-ray diffraction pattern including a peak at d-spacing maximum of 12.33±0.23 Angstroms, a distinguishable peak at a d-spacing maximum between 12.57 to 14.17 Angstroms and a non-discrete peak at a d-spacing maximum between 8.8 to 11 Angstroms, wherein the peak intensity of the d-spacing maximum between 12.57 to 14.17 Angstroms is less than 90% of the peak intensity of the d-spacing maximum at 12.33±0.23 Angstroms, and wherein the term "XRD distinguishable peak" is defined as XRD peak with clearly defined peak maximum, which is at least two times of the average background noise level.
A photoelectric board capable of transmitting an optical signal and an electrical signal; wherein said photoelectric board is configured for simultaneously providing power and communication channels to electronic modules (13, 15, 17, 19) paired with appropriate light emitter and receiver arrays attached to the board, and comprises: a middle layer of photoconductive material having a length, width, top and bottom surface, for propagating light waves (43, 45, 47) throughout the entire middle layer partially diffusing the light evenly throughout the entire photoelectric board; a top layer of electrically conductive, partially light reflective glass or polymers placed over the entire top surface of the middle layer for conducting electrical current in all directions; and a bottom layer of electrically conductive, partially light reflective glass or polymers placed over the entire bottom surface of the middle layer for conducting electrical current in all directions. a middle layer of photoconductive material having a length, width, top and bottom surface, for propagating light waves (43, 45, 47) throughout the entire middle layer partially diffusing the light evenly throughout the entire photoelectric board; a top layer of electrically conductive, partially light reflective glass or polymers placed over the entire top surface of the middle layer for conducting electrical current in all directions; and a bottom layer of electrically conductive, partially light reflective glass or polymers placed over the entire bottom surface of the middle layer for conducting electrical current in all directions.
A method of forming a dental restoration, comprising the steps of: (i) dispensing a heated polymerizable material into a matrix; (ii) positioning the matrix over an area of a pre-formed dental model that will receive the restoration and allowing the polymerizable material to cool so as to form a dimensionally shape- stable, uncured restoration; (iii) removing the matrix while maintaining the uncured restoration seated on the model; (iv) irradiating the polymerizable material with light so that it fully cures and forms a hardened restoration; and (v) removing the cured restoration from the model, wherein the polymerizable material is a wax-like material which is flowable or fluid at and above 40°C, and which becomes dimensionally stable at least at and below 23°C within 5 minutes, and comprises: (a) polymerizable acrylic compound, wherein the polymerizable acrylic compound of the material is a semi-crystalline material; and (b) polymerization initiation system, capable of being activated by light or heat, for polymerizing the material. (i) dispensing a heated polymerizable material into a matrix; (ii) positioning the matrix over an area of a pre-formed dental model that will receive the restoration and allowing the polymerizable material to cool so as to form a dimensionally shape- stable, uncured restoration; (iii) removing the matrix while maintaining the uncured restoration seated on the model; (iv) irradiating the polymerizable material with light so that it fully cures and forms a hardened restoration; and (v) removing the cured restoration from the model, wherein the polymerizable material is a wax-like material which is flowable or fluid at and above 40°C, and which becomes dimensionally stable at least at and below 23°C within 5 minutes, and comprises: (a) polymerizable acrylic compound, wherein the polymerizable acrylic compound of the material is a semi-crystalline material; and (b) polymerization initiation system, capable of being activated by light or heat, for polymerizing the material. (a) polymerizable acrylic compound, wherein the polymerizable acrylic compound of the material is a semi-crystalline material; and (b) polymerization initiation system, capable of being activated by light or heat, for polymerizing the material.
An automated dispensing system comprising: a controller configured to process a request for one or more articles to be dispensed; one or more storage modules comprising a plurality of moveable trays stacked vertically, each of the moveable trays comprising one or more storage locations to hold the one or more articles; a loading bin having an end panel and a sliding floor; and a robot configured to access the one or more storage locations within the one or more moveable trays within the one or more storage modules and transfer the requested one or more articles to the loading bin prior to dispensing the requested one or more articles from the loading bin into a patient-specific container, wherein each of the one or more moveable trays is moved from a storage position to a retrieval position prior to the access by the robot to the one or more storage locations to retrieve the one or more articles, wherein the loading bin dispenses the requested one or more articles into the patient-specific container in response to the loading bin being inserted into the patient-specific container, the end panel opening an end of the bin, the sliding floor retracting from the bin, and the bin being removed from the patient-specific container. a controller configured to process a request for one or more articles to be dispensed; one or more storage modules comprising a plurality of moveable trays stacked vertically, each of the moveable trays comprising one or more storage locations to hold the one or more articles; a loading bin having an end panel and a sliding floor; and a robot configured to access the one or more storage locations within the one or more moveable trays within the one or more storage modules and transfer the requested one or more articles to the loading bin prior to dispensing the requested one or more articles from the loading bin into a patient-specific container, wherein each of the one or more moveable trays is moved from a storage position to a retrieval position prior to the access by the robot to the one or more storage locations to retrieve the one or more articles, wherein the loading bin dispenses the requested one or more articles into the patient-specific container in response to the loading bin being inserted into the patient-specific container, the end panel opening an end of the bin, the sliding floor retracting from the bin, and the bin being removed from the patient-specific container.
A folding clasp for a wristwatch comprising a first bracket and a second bracket, the first bracket having a first fastening mechanism for fastening a strap or a watch case of the wristwatch, wherein the second bracket comprises a second fastening mechanism for fastening the strap of the wristwatch, the first bracket and the second bracket being movably connected to each other such that the first and second brackets (3, 4) can be moved relative to each other between an open state and a closed state of the folding clasp, the folding clasp comprising a locking mechanism for holding the first and second bows (3, 4) in the closed state, the second fastening mechanism comprising a projecting pin adapted to be passed through the strap to fasten the strap in different axial positions in the second fastening mechanism, wherein the second fastening mechanism comprises a blocking means adapted to hold the distal end of the pin passed through the strap such that the strap is blocked on the pin in the open state of the folding clasp, and wherein the blocking means comprises a blocking aperture adapted to receive and hold the distal end of the pin, characterized in that the blocking aperture is formed by two leaf spring elements (81, 82) arranged opposite each other.
A method for generating a group key, comprising: obtaining a group ID of a group where a machine type communication MTC device is located; obtaining a group communication root key corresponding to the group ID; generating a group key corresponding to the group ID according to the group communication root key; and sending the group key encrypted by using an access stratum key of the MTC device to the MTC device; wherein, the MTC device is one of a plurality of MTC devices in the group and wherein the plurality of MTC devices share the group key. obtaining a group ID of a group where a machine type communication MTC device is located; obtaining a group communication root key corresponding to the group ID; generating a group key corresponding to the group ID according to the group communication root key; and sending the group key encrypted by using an access stratum key of the MTC device to the MTC device; wherein, the MTC device is one of a plurality of MTC devices in the group and wherein the plurality of MTC devices share the group key.