mhurhangee/ep-ind-claims huggingface dataset:
A method of dynamic management of private data during communication between a remote server and a user's device, the method comprising: receiving, by the user's device, a request from the remote server for sharing of at least one data packet from the user's device, wherein the user's device comprises a processor and a communication module; determining, by the processor, without reading the contents of the at least one data packet, at least one communication data type of the at least one data packet corresponding to the received request, wherein the determining comprises use of at least one of a data type database or a data pattern database; receiving, by the processor, from a privacy preference database, a privacy preference for the user's device, wherein the privacy preference comprises a list of forbidden data packet communication types for sharing during communication; modifying (410, 530, 604), by the processor, each data packet of the at least one data packet whose determined at least one communication data type matches a data packet communication type in the list of forbidden data packet communication types; and sharing, by the processor, the modified data packets with the remote server. receiving, by the user's device, a request from the remote server for sharing of at least one data packet from the user's device, wherein the user's device comprises a processor and a communication module; determining, by the processor, without reading the contents of the at least one data packet, at least one communication data type of the at least one data packet corresponding to the received request, wherein the determining comprises use of at least one of a data type database or a data pattern database; receiving, by the processor, from a privacy preference database, a privacy preference for the user's device, wherein the privacy preference comprises a list of forbidden data packet communication types for sharing during communication; modifying (410, 530, 604), by the processor, each data packet of the at least one data packet whose determined at least one communication data type matches a data packet communication type in the list of forbidden data packet communication types; and sharing, by the processor, the modified data packets with the remote server.
An end-piece of an air inlet line of an internal combustion engine of a motor vehicle comprising, at the front part, an interface with a technical face or other air inlet part (s) of the vehicle and, at the rear part, an interface with an air intake conduit, the interface with the face or other air inlet part(s) comprising a first interface constituted by two guide means, each disposed on one side of an air opening crossmember, and a second interface at the upper part in the form of a tongue including at least one opening intended to receive any attachment means for holding the said end-piece on the face or other air inlet part(s), characterized in that the guide means of the first interface with the face or other air inlet part(s) are slides which are drafted and are inlayed with lugs so as to have a point contact and to catch the end-piece at the face or other air inlet part(s).
A fuel tank, comprising: an interior wall; a sump; and a baffle, comprising: a center fitting; a full-length containment petal, comprising a full-length side edge, extending radially outward from the center fitting; characterized in that the baffle further comprises: a partial-length containment petal, comprising a partial-length side edge, extending radially outward from the center fitting; and a dump tube, connected to the sump, wherein: the full-length side edge of the full-length containment petal is longer than the partial-length side edge of the partial-length containment petal, and all of the partial-length side edge of the partial-length containment petal is attached to a linear portion of the full-length side edge of the full-length containment petal. an interior wall; a sump; and a baffle, comprising: a center fitting; a full-length containment petal, comprising a full-length side edge, a center fitting; a full-length containment petal, comprising a full-length side edge, extending radially outward from the center fitting; a partial-length containment petal, comprising a partial-length side edge, extending radially outward from the center fitting; and a dump tube, connected to the sump, wherein: the full-length side edge of the full-length containment petal is longer than the partial-length side edge of the partial-length containment petal, and all of the partial-length side edge of the partial-length containment petal is attached to a linear portion of the full-length side edge of the full-length containment petal. the full-length side edge of the full-length containment petal is longer than the partial-length side edge of the partial-length containment petal, and all of the partial-length side edge of the partial-length containment petal is attached to a linear portion of the full-length side edge of the full-length containment petal.
A new polyurethane dispersant, characterized in that polyurethane dispersant is terminated by a nitrogen-containing heterocyclic compound during synthesis, wherein the nitrogen-containing heterocyclic compound is prepared by subjecting anhydride and a compound containing a primary amine and a secondary amine or a hydroxyl or mercapto group to dehydration condensation, and the condensed product is the nitrogen-containing heterocyclic compound, containing a reactive hydrogen, and the compound containing the primary amine and the secondary amine or hydroxyl or mercapto group is 3-(2-aminoethyl)indole, 4-(2-aminoethyl)phenylmethanol, 1 H-imidazole-4-ethanaimne, 4-(hydroxyphenyl)ethylamine, 2-(2-aminoethyl)phenol, 2-methylindole-3-ethylamine, N-ethyl-ethylenediamine, N-phenylethylenediamine, 3-amino-1-methylpyrazole, 2-(aminomethyl)morpholine, 5-(aminomethyl)indole, 4-(aminomethyl)benzalcohol, 5-aminomethylindazole, 2-(2-aminopropyl)pyrrole, 4-(2-aminopropyl)phenol, 1-(2-aminoethyl)piperazine, 4-methyl-5-aminoindole, 5-aminoisoindole, 1-amino-4-hydroxylanthraquinone, 4-aminobenzimidazolinone, 4-amino-3-mercaptopyridine or 2-(2-aminoethyl)phenol.
Treatment installation for treating workpieces, comprising: - a treatment chamber which comprises a plurality of treatment chamber sections that are each associated with one of a plurality of separate circulatory air modules of the treatment installation, wherein each circulatory air module is arranged to guide a separate recirculating gas stream; - a heating installation which comprises a self-enclosed heating gas conduit in which at least a portion of a heating gas stream can be guided in a circuit, wherein a plurality of circulatory air modules are coupled to the heating gas conduit, in particular for heating the gas guided through the treatment chamber sections, characterized in that the heating gas conduit comprises a central heating gas line in which a) heating gas is guided or guidable and by means of which heating gas from the heating gas conduit is suppliable to the plurality of circulatory air modules and/or to the treatment chamber sections, wherein the heating gas is introducible into the respective treatment chamber sections; and/or b) heating gas is guided or guidable and by means of which gas can be discharged from the circulatory air modules and/or from the treatment chamber sections. - a treatment chamber which comprises a plurality of treatment chamber sections that are each associated with one of a plurality of separate circulatory air modules of the treatment installation, wherein each circulatory air module is arranged to guide a separate recirculating gas stream; - a heating installation which comprises a self-enclosed heating gas conduit in which at least a portion of a heating gas stream can be guided in a circuit, a) heating gas is guided or guidable and by means of which heating gas from the heating gas conduit is suppliable to the plurality of circulatory air modules and/or to the treatment chamber sections, wherein the heating gas is introducible into the respective treatment chamber sections; and/or b) heating gas is guided or guidable and by means of which gas can be discharged from the circulatory air modules and/or from the treatment chamber sections.
A fault localization system configured for locating a fault in a gas-insulated switchgear, the fault localization system comprising at least one transceiver (12, 12A, 12B) and a controller connected to each transceiver (12, 12A, 12B), each transceiver (12, 12A, 12B) being configured to be arranged within the gas-insulated switchgear, each transceiver (12, 12A, 12B) being configured to output a detection signal corresponding to a received electromagnetic wave, generated by the fault; the controller being configured, for each transceiver (12, 12A, 12B), to compute a time reversed signal by performing time reversal based on the corresponding detection signal, and to input, to the transceiver (12, 12A, 12B), an associated probe signal that is dependent on the corresponding time reversed signal; each transceiver (12, 12A, 12B) being further configured to radiate, at an emission time, a probe electromagnetic wave based on the corresponding probe signal, and to output a response signal associated to a response electromagnetic wave corresponding to a response of the environment of the transceiver (12, 12A, 12B) to the probe electromagnetic wave, and received at a reception time, the controller being further configured to determine information relating to the location of the fault based on a time difference between the emission time and the reception time. each transceiver (12, 12A, 12B) being configured to be arranged within the gas-insulated switchgear, each transceiver (12, 12A, 12B) being configured to output a detection signal corresponding to a received electromagnetic wave, generated by the fault; the controller being configured, for each transceiver (12, 12A, 12B), to compute a time reversed signal by performing time reversal based on the corresponding detection signal, and to input, to the transceiver (12, 12A, 12B), an associated probe signal that is dependent on the corresponding time reversed signal; each transceiver (12, 12A, 12B) being further configured to radiate, at an emission time, a probe electromagnetic wave based on the corresponding probe signal, and to output a response signal associated to a response electromagnetic wave corresponding to a response of the environment of the transceiver (12, 12A, 12B) to the probe electromagnetic wave, and received at a reception time, the controller being further configured to determine information relating to the location of the fault based on a time difference between the emission time and the reception time.
A drug delivery device (1000, 1001) comprising a stent (1100, 1110) and a recovery mechanism, the stent (1100, 1110) comprising a tubular main body (300, 350), characterized in that: the main body (300, 350) has a first end provided with a connecting structure (400, 420, 450, 460, 1111) configured for connection with the recovery mechanism; the main body (300, 350) has an inner or outer surface attached with a cover layer, the cover layer coated with a drug; and the connecting structure (400, 420, 450, 460, 1111) is undetachably connected with the recovery mechanism, the recovery mechanism comprises a sheath (610, 1220, 1221) and a recovery wire (800, 850, 860, 1210, 1230) that passes through the sheath (610, 1220, 1221) and has one end connected to the connecting structure (400, 420, 450, 460, 1111) of the stent (1100, 1110), and the sheath (610, 1220, 1221) is configured to receive the stent (1100, 1110) when the stent (1100, 1110) is in a contracted configuration, the cover layer is a bioabsorbable film. the main body (300, 350) has a first end provided with a connecting structure (400, 420, 450, 460, 1111) configured for connection with the recovery mechanism; the main body (300, 350) has an inner or outer surface attached with a cover layer, the cover layer coated with a drug; and the connecting structure (400, 420, 450, 460, 1111) is undetachably connected with the recovery mechanism, the recovery mechanism comprises a sheath (610, 1220, 1221) and a recovery wire (800, 850, 860, 1210, 1230) that passes through the sheath (610, 1220, 1221) and has one end connected to the connecting structure (400, 420, 450, 460, 1111) of the stent (1100, 1110), and the sheath (610, 1220, 1221) is configured to receive the stent (1100, 1110) when the stent (1100, 1110) is in a contracted configuration, the cover layer is a bioabsorbable film.
A vapor emission device, comprising: an emission part in the shape of a shower-plate configured so as to be heatable and having a plurality of emission orifices arranged within a plane thereof for emitting a vapor of an organic evaporation material; a feeding part provided inside the emission part to feed the vapor of the organic evaporation material thereinto, and having a blowout orifice configured so as to spray the vapor of the organic evaporation material against an inner wall of the emission part; and a cooling means provided at least in a position on the emission orifice side of the emission part, wherein the cooling means is formed so as to cover the entire emission part. an emission part in the shape of a shower-plate configured so as to be heatable and having a plurality of emission orifices arranged within a plane thereof for emitting a vapor of an organic evaporation material; a feeding part provided inside the emission part to feed the vapor of the organic evaporation material thereinto, and having a blowout orifice configured so as to spray the vapor of the organic evaporation material against an inner wall of the emission part; and a cooling means provided at least in a position on the emission orifice side of the emission part, wherein the cooling means is formed so as to cover the entire emission part.
A method for casting crankcases made of cast iron for reciprocating-piston combustion engines having a power of up to approximately 1500 hp and a crankcase weight of up to approximately 500 kg, wherein the crankcase, upside-down with the cylinder head side facing downwards in a casting mould with essentially vertical mould parting, is cast by introducing the liquid casting material from below, and the gate for introduction of the liquid casting material is located at the lowest point in the casting mould in order to avoid turbulence during filling of the mould, and in that filling of the casting mould with liquid casting material via said bottom gate is carried out either by low pressure from below or by gravity (7, 8) from above, with a casting material source positioned above the highest point of the crankcase that is to be cast, characterized in that the casting material is grey iron which is introduced into the casting mould at just a relatively low casting temperature of approximately 1350 to approximately 1380°C, so as to produce a small temperature drop in the crankcase that is to be cast and, after cooling, small internal stresses therein.
A method of associating a payment card of a cardholder with a cardholder computing device of the cardholder in an electronic payment network, the method comprising the steps of: providing the cardholder with the card and a device activation code for the cardholder computing device to be associated with the card, wherein the card has a number uniquely identifying the card in the electronic payment network and wherein the device activation code comprises a one-time code uniquely associated with the card; communicating the card number and the device activation code from the cardholder computing device to a first remote server; wherein at the first remote server, obtaining an issuer assured card token generated from a second remote server, the issuer assured card token based on both the card number and the device activation code; generating a device token and an authorisation token at the first remote server, wherein the device token is uniquely representative of the cardholder computing device; storing the card token, the device token and the authorisation token in a data structure at the first remote server; and communicating the card token and the device token to the cardholder computing device and storing same thereat. providing the cardholder with the card and a device activation code for the cardholder computing device to be associated with the card, wherein the card has a number uniquely identifying the card in the electronic payment network and wherein the device activation code comprises a one-time code uniquely associated with the card; communicating the card number and the device activation code from the cardholder computing device to a first remote server; wherein at the first remote server, obtaining an issuer assured card token generated from a second remote server, the issuer assured card token based on both the card number and the device activation code; generating a device token and an authorisation token at the first remote server, wherein the device token is uniquely representative of the cardholder computing device; storing the card token, the device token and the authorisation token in a data structure at the first remote server; and communicating the card token and the device token to the cardholder computing device and storing same thereat.
A radio communication apparatus (1, 91) comprising: an input means for receiving a user input that obtains a user input, a generating means (101, 54) for generating an inquiry signal to a plurality of communication apparatuses in response to the user input obtained by the input means; a receiving means (101, 54) for receiving predetermined information from at least one of the plurality of communication apparatuses; a receiving means (101, 54) for receiving an inquiry signal from an other communication apparatus; a generating means (101, 54) for generating an inquiry response signal in response to the inquiry signal from the other communication apparatus; and control means for establishing a communication with the other communication device in response to receiving the inquiry signal from the other communication apparatus and in response to obtaining the user input by the input means within a predetermined period. an input means for receiving a user input that obtains a user input, a generating means (101, 54) for generating an inquiry signal to a plurality of communication apparatuses in response to the user input obtained by the input means; a receiving means (101, 54) for receiving predetermined information from at least one of the plurality of communication apparatuses; a receiving means (101, 54) for receiving an inquiry signal from an other communication apparatus; a generating means (101, 54) for generating an inquiry response signal in response to the inquiry signal from the other communication apparatus; and control means for establishing a communication with the other communication device in response to receiving the inquiry signal from the other communication apparatus and in response to obtaining the user input by the input means within a predetermined period.
An ethylene-based polymer formed from at least the following: ethylene and a monomeric chain transfer agent (monomeric CTA) selected from Structure 1: wherein L is selected from a saturated hydrocarbon, a substituted saturated hydrocarbon, an unsaturated hydrocarbon, or a substituted unsaturated hydrocarbon; R1 is selected from hydrogen, a saturated hydrocarbon, a substituted saturated hydrocarbon, an unsaturated hydrocarbon, or a substituted unsaturated hydrocarbon; R2 is selected from hydrogen, a saturated hydrocarbon or a substituted saturated hydrocarbon; R3 is selected from hydrogen, a saturated hydrocarbon or a substituted saturated hydrocarbon; and R4 is selected from a saturated hydrocarbon, a substituted saturated hydrocarbon, an unsaturated hydrocarbon, or a substituted unsaturated hydrocarbon. L is selected from a saturated hydrocarbon, a substituted saturated hydrocarbon, an unsaturated hydrocarbon, or a substituted unsaturated hydrocarbon; R1 is selected from hydrogen, a saturated hydrocarbon, a substituted saturated hydrocarbon, an unsaturated hydrocarbon, or a substituted unsaturated hydrocarbon; R2 is selected from hydrogen, a saturated hydrocarbon or a substituted saturated hydrocarbon; R3 is selected from hydrogen, a saturated hydrocarbon or a substituted saturated hydrocarbon; and R4 is selected from a saturated hydrocarbon, a substituted saturated hydrocarbon, an unsaturated hydrocarbon, or a substituted unsaturated hydrocarbon.
A method of producing carbonate, comprising: reacting a feed comprising carbon monoxide and chlorine in a tube of a reactor to produce a product composition comprising phosgene, wherein the tube has a particulate catalyst contained therein, wherein a thermally conductive material separate from the tube contacts at least a portion of the particulate catalyst, and wherein carbon tetrachloride is present in the product composition in an amount of 0 to 10 ppm by volume based on the volume of the phosgene, wherein the reactor is capable of producing greater than or equal to 2,000 kilograms of the first product per hour; and reacting a monohydroxy compound with the phosgene to produce the carbonate. reacting a feed comprising carbon monoxide and chlorine in a tube of a reactor to produce a product composition comprising phosgene, wherein the tube has a particulate catalyst contained therein, wherein a thermally conductive material separate from the tube contacts at least a portion of the particulate catalyst, and wherein carbon tetrachloride is present in the product composition in an amount of 0 to 10 ppm by volume based on the volume of the phosgene, wherein the reactor is capable of producing greater than or equal to 2,000 kilograms of the first product per hour; and reacting a monohydroxy compound with the phosgene to produce the carbonate.
An axial gap type brushless motor, comprising: a stator (3, 4, 7) that includes a plurality of coils (31, 41, 131, 132, 141, 142, 91, C); and a rotor (2, 8, 12) that includes a plurality of permanent magnets (23, 82, 84, M), the rotor (2, 12) being spaced apart from the stator (3, 4, 7) in an axial direction, wherein the plurality of the permanent magnets (23, 82, 84, M) are arranged in a peripheral direction, and wherein the rotor (2, 8, 12) further includes conductors that extend in a radial direction between the permanent magnets (23, 82, 84, M) arranged in the peripheral direction, and short-circuiting rings (28, 29) that short-circuit ends of the conductors on inner and outer peripheral sides of the rotor (2, 8, 12), said axial type brushless motor being characterized in that each coil (31, 41, 131, 132, 141, 142, 91, C) is formed of a band-like wire that is spirally wound such that a width direction of the band-like wire generally coincides with a direction of a magnetic flux generated by the permanent magnet of the rotor (2, 8, 12), and the coils (31, 41, 131, 132, 141, 142, 91, C) are each supplied with a coil current in a corresponding one of nine phases. a stator (3, 4, 7) that includes a plurality of coils (31, 41, 131, 132, 141, 142, 91, C); and a rotor (2, 8, 12) that includes a plurality of permanent magnets (23, 82, 84, M), the rotor (2, 12) being spaced apart from the stator (3, 4, 7) in an axial direction, wherein the plurality of the permanent magnets (23, 82, 84, M) are arranged in a peripheral direction, and wherein the rotor (2, 8, 12) further includes conductors that extend in a radial direction between the permanent magnets (23, 82, 84, M) arranged in the peripheral direction, and short-circuiting rings (28, 29) that short-circuit ends of the conductors on inner and outer peripheral sides of the rotor (2, 8, 12), said axial type brushless motor being characterized in that each coil (31, 41, 131, 132, 141, 142, 91, C) is formed of a band-like wire that is spirally wound such that a width direction of the band-like wire generally coincides with a direction of a magnetic flux generated by the permanent magnet of the rotor (2, 8, 12), and the coils (31, 41, 131, 132, 141, 142, 91, C) are each supplied with a coil current in a corresponding one of nine phases.