mhurhangee/patent-ind-claim-en huggingface dataset:
A thermoplastic resin composition comprising: a first graft copolymer including a C 4 to C 10 alkyl (meth)acrylate-based monomer unit, a C 1 to C 3 alkyl-substituted styrene-based monomer unit, and a vinyl cyan-based monomer unit; a second graft copolymer including a C 4 to C 10 alkyl (meth)acrylate-based monomer unit, an alkyl-unsubstituted styrene-based monomer unit, and a vinyl cyan-based monomer unit; a first styrene-based copolymer including a C 1 to C 3 alkyl-substituted styrene-based monomer unit and a vinyl cyan-based monomer unit; a second styrene-based copolymer including an alkyl-unsubstituted styrene-based monomer unit and a vinyl cyan-based monomer unit; and an olefin-based copolymer including a C 1 to C 3 alkyl (meth)acrylate-based monomer unit. a first graft copolymer including a C 4 to C 10 alkyl (meth)acrylate-based monomer unit, a C 1 to C 3 alkyl-substituted styrene-based monomer unit, and a vinyl cyan-based monomer unit; a second graft copolymer including a C 4 to C 10 alkyl (meth)acrylate-based monomer unit, an alkyl-unsubstituted styrene-based monomer unit, and a vinyl cyan-based monomer unit; a first styrene-based copolymer including a C 1 to C 3 alkyl-substituted styrene-based monomer unit and a vinyl cyan-based monomer unit; a second styrene-based copolymer including an alkyl-unsubstituted styrene-based monomer unit and a vinyl cyan-based monomer unit; and an olefin-based copolymer including a C 1 to C 3 alkyl (meth)acrylate-based monomer unit.
A semiconductor power module , comprising: - a metal substrate structure with a metal top layer , a metal bottom layer , and a dielectric layer that is coupled to both the metal top layer and the metal bottom layer in between with respect to a stacking direction (A) of the metal substrate structure , - a housing configured to enclose electronics of the semiconductor power module , wherein housing comprises a top wall and side walls and is coupled to the metal substrate structure such that with respect to the stacking direction (A) there is a predetermined distance (D) between a lower surface of the top wall and an upper surface of the metal top layer adjacent to the side walls , respectively and - at least one terminal arranged inside the housing , wherein the at least one terminal is coupled to the lower surface of the top wall on the one hand and coupled to the upper surface of the metal top layer on the other hand, and wherein with respect to the stacking direction (A) a length of at least one terminal is configured in coordination with the distance (D), such that due to the at least one terminal the metal substrate structure is bent in a predetermined manner and comprises a convex shape in interaction with the housing . - a metal substrate structure with a metal top layer , a metal bottom layer , and a dielectric layer that is coupled to both the metal top layer and the metal bottom layer in between with respect to a stacking direction (A) of the metal substrate structure , - a housing configured to enclose electronics of the semiconductor power module , wherein housing comprises a top wall and side walls and is coupled to the metal substrate structure such that with respect to the stacking direction (A) there is a predetermined distance (D) between a lower surface of the top wall and an upper surface of the metal top layer adjacent to the side walls , respectively and - at least one terminal arranged inside the housing , wherein the at least one terminal is coupled to the lower surface of the top wall on the one hand and coupled to the upper surface of the metal top layer on the other hand, and wherein with respect to the stacking direction (A) a length of at least one terminal is configured in coordination with the distance (D), such that due to the at least one terminal the metal substrate structure is bent in a predetermined manner and comprises a convex shape in interaction with the housing .
Switch for medium or high voltage traction line testing device comprising a plurality of normally-opened pairs of contacts connected in series wherein each pair of contacts is equipped with a separate control coil characterized in that it further comprises: - a wireless power transfer supply module being on ground potential for supplying cascaded wireless power transfer receivers and comprising a transmitting coil, a high frequency inverter and a microcontroller, - a plurality of cascaded wireless power transfer receivers for supplying the control coils of the pairs of contacts wherein - each of the wireless power transfer receiver is referenced to the floating potential and comprises a receiving coil , - each of the control coils is connected to one of the wireless power transfer receivers , - receiving coils of wireless power transfer receivers are magnetically coupled, - the wireless power transfer supply module is located in the middle of the cascaded wireless power transfer receivers . - a wireless power transfer supply module being on ground potential for supplying cascaded wireless power transfer receivers and comprising a transmitting coil, a high frequency inverter and a microcontroller, - a plurality of cascaded wireless power transfer receivers for supplying the control coils of the pairs of contacts - each of the wireless power transfer receiver is referenced to the floating potential and comprises a receiving coil , - each of the control coils is connected to one of the wireless power transfer receivers , - receiving coils of wireless power transfer receivers are magnetically coupled, - the wireless power transfer supply module is located in the middle of the cascaded wireless power transfer receivers .
An apparatus that is a core network device or a part thereof, the apparatus comprising: means for communicating with a first base station including providing a control plane for multicasting/broadcasting traffic that is associated with a user plane of the multicasting/broadcasting traffic, to cause the first base station to transmit control information of the control plane via a first network that uses a first Radio Access Technology, RAT, means for communicating with a second base station including providing the user plane for multicasting/broadcasting traffic to cause the second base station to transmit the multicasting/broadcasting traffic of the user plane via a second network that uses a second Radio Access Technology, wherein the first RAT is different from the second RAT, and wherein the multicasting/broadcasting traffic comprises packet data transmissions. means for communicating with a first base station including providing a control plane for multicasting/broadcasting traffic that is associated with a user plane of the multicasting/broadcasting traffic, to cause the first base station to transmit control information of the control plane via a first network that uses a first Radio Access Technology, RAT, means for communicating with a second base station including providing the user plane for multicasting/broadcasting traffic to cause the second base station to transmit the multicasting/broadcasting traffic of the user plane via a second network that uses a second Radio Access Technology, wherein the first RAT is different from the second RAT, and wherein the multicasting/broadcasting traffic comprises packet data transmissions.
A charge-transporting material comprising a charge-transporting substance, a halotetracyanoquinodimethane, and a complexing agent having the ability to form a complex with the halotetracyanoquinodimethane, wherein the halotetracyanoquinodimethane and the complexing agent form a complex, wherein the complexing agent is 1,3-dimethyl-2-imidazolidinone, wherein the charge-transporting material is not either of the following compositions; Composition A: 0.321 g aniline derivative of Formula C1; 0.619 g Phosphotungstic acid; 0.306 g 2,3,5,6-tetrafluoro-7,7,8,8-tetracyanoquinodimethane; 0.021 g 3,3,3-trifluoropropyltrimethoxysilane; 0.041 g Phenyltrimethoxysilane; 14 g 1,3-dimethyl-2-imidazolidinone; 4 g 2,3-butanediol; 2 g propylene glycol monomethyl ether; Composition B: 0.171 g aniline derivative of Formula C1; 0.309 g Phosphotungstic acid; 0.138 g 2,3,5,6-tetrafluoro-7,7,8,8-tetracyanoquinodimethane; 0.010 g 3,3,3-trifluoropropyltrimethoxysilane; 0.021 g Phenyltrimethoxysilane; 7 g 1,3-dimethyl-2-imidazolidinone; 2 g 2,3-butanediol; 1 g propylene glycol monomethyl ether a charge-transporting substance, a halotetracyanoquinodimethane, and a complexing agent having the ability to form a complex with the halotetracyanoquinodimethane, wherein the halotetracyanoquinodimethane and the complexing agent form a complex, wherein the complexing agent is 1,3-dimethyl-2-imidazolidinone, wherein the charge-transporting material is not either of the following compositions; Composition A: 0.321 g aniline derivative of Formula C1; 0.619 g Phosphotungstic acid; 0.306 g 2,3,5,6-tetrafluoro-7,7,8,8-tetracyanoquinodimethane; 0.021 g 3,3,3-trifluoropropyltrimethoxysilane; 0.041 g Phenyltrimethoxysilane; 14 g 1,3-dimethyl-2-imidazolidinone; 4 g 2,3-butanediol; 2 g propylene glycol monomethyl ether; Composition B: 0.171 g aniline derivative of Formula C1; 0.309 g Phosphotungstic acid; 0.138 g 2,3,5,6-tetrafluoro-7,7,8,8-tetracyanoquinodimethane; 0.010 g 3,3,3-trifluoropropyltrimethoxysilane; 0.021 g Phenyltrimethoxysilane; 7 g 1,3-dimethyl-2-imidazolidinone; 2 g 2,3-butanediol; 1 g propylene glycol monomethyl ether
Method for producing a hydrocarbon and hydrogen-containing gas mixture from plastics, comprising the following steps: A) pyrolysis of plastics to a pyrolysis gas mixture, B) hot gas filtration for remove of solid particles, C) catalytic cracking to produce the hydrocarbon- and hydrogen-containing gas mixture, D) gas scrubbing of the hydrocarbon- and hydrogen-containing gas mixture, wherein between step A) and B) or between step B) and C) a further step A2) is carried out: A2) catalytic cracking of the pyrolysis gas mixture, wherein water vapor and air or oxygen are supplied during the catalytic cracking comprising steps C) and A2). A) pyrolysis of plastics to a pyrolysis gas mixture, B) hot gas filtration for remove of solid particles, C) catalytic cracking to produce the hydrocarbon- and hydrogen-containing gas mixture, D) gas scrubbing of the hydrocarbon- and hydrogen-containing gas mixture, wherein between step A) and B) or between step B) and C) a further step A2) is carried out: A2) catalytic cracking of the pyrolysis gas mixture, wherein water vapor and air or oxygen are supplied during the catalytic cracking comprising steps C) and A2).
A method for repairing a leaking point in a plate pack of a plate heat exchanger , which plate pack comprises heat exchange plates having openings and arranged on top of each other, the perimeters of which define the outer surface of the plate pack and which plates are attached to each other as plate pairs in such a manner that - the inner parts of the plate pairs are arranged in connection with each other through flow channels formed by the openings of the heat exchange plates, whereby a primary circuit of the heat exchanger is formed to the inner parts of the plate pairs, and - the spaces between the plate pairs are arranged in connection with each other through the outer surface of the plate pack, whereby plate spaces of a secondary circuit are in the spaces between adjacent plate pairs, wherein that the space between adjacent plate pairs of a plate pack, with which the leaking point is in connection, is closed by arranging a separate strip into the space between the plate pairs on the whole length of the outer perimeter of the plate pack, wherein the strip is arranged in the space between the plate pairs on the outer perimeter of the plate space and the strip is welded to the heat exchange plates . - the inner parts of the plate pairs are arranged in connection with each other through flow channels formed by the openings of the heat exchange plates, whereby a primary circuit of the heat exchanger is formed to the inner parts of the plate pairs, and - the spaces between the plate pairs are arranged in connection with each other through the outer surface of the plate pack, whereby plate spaces of a secondary circuit are in the spaces between adjacent plate pairs, wherein that the space between adjacent plate pairs of a plate pack, with which the leaking point is in connection, is closed by arranging a separate strip into the space between the plate pairs on the whole length of the outer perimeter of the plate pack, wherein the strip is arranged in the space between the plate pairs on the outer perimeter of the plate space and the strip is welded to the heat exchange plates .
A control circuit for a header module of a modular energy system , the header module comprising a display screen configured to display a user interface (UI) and be coupled to the control circuit , the header module configured to removably connect to a plurality of energy modules , each energy module comprising a port configured to deliver one or more energy modalities to a surgical instrument connected thereto, wherein the control circuit is configured to: detect attachment of a first energy module of the plurality of energy modules to the modular energy system ; control the display screen to display a first UI portion on the UI corresponding to the first energy module, the first UI portion comprising a first UI element corresponding to a first port or a first function of the first energy module ; detect attachment of a second energy module of the plurality of energy modules to the modular energy system ; control the display screen to reconfigure the displayed first UI portion and further display a second UI portion on the UI corresponding to the second energy module such that both the first UI portion and the second UI portion are displayed on the display screen , the second UI portion comprising a second UI element corresponding to a second port or a second function of the second energy module. detect attachment of a first energy module of the plurality of energy modules to the modular energy system ; control the display screen to display a first UI portion on the UI corresponding to the first energy module, the first UI portion comprising a first UI element corresponding to a first port or a first function of the first energy module ; detect attachment of a second energy module of the plurality of energy modules to the modular energy system ; control the display screen to reconfigure the displayed first UI portion and further display a second UI portion on the UI corresponding to the second energy module such that both the first UI portion and the second UI portion are displayed on the display screen , the second UI portion comprising a second UI element corresponding to a second port or a second function of the second energy module.
A method comprising: at a biometric sensor (b1, b2, ..., bn), recording current biometric features of a person (P), at a matching server (MS), comparing currently recorded biometric features of the person (P) with prestored biometric features of enrolled persons while applying one or more identifying acceptance tolerances, and signalling positive authentication in case of a match, characterized in that at a user device (S) of the person (P), in case of no positive authentication at the matching server (MS), sending an anonymous identifier of the person (P) via a communication link between the user device (S) and the respective biometric sensor (b1, b2, ..., bn) to the matching server (MS) for the purpose of selecting prestored biometric features of the person (P); at the matching server (MS), selecting prestored biometric features of the person (P) and comparing the currently recorded biometric features of the person (P) with selected prestored biometric features of the person (P) while applying a verifying acceptance tolerance, and signalling positive authentication in case of successful verification. at a biometric sensor (b1, b2, ..., bn), recording current biometric features of a person (P), at a matching server (MS), comparing currently recorded biometric features of the person (P) with prestored biometric features of enrolled persons while applying one or more identifying acceptance tolerances, and signalling positive authentication in case of a match, characterized in that at a user device (S) of the person (P), in case of no positive authentication at the matching server (MS), sending an anonymous identifier of the person (P) via a communication link between the user device (S) and the respective biometric sensor (b1, b2, ..., bn) to the matching server (MS) for the purpose of selecting prestored biometric features of the person (P); at the matching server (MS), selecting prestored biometric features of the person (P) and comparing the currently recorded biometric features of the person (P) with selected prestored biometric features of the person (P) while applying a verifying acceptance tolerance, and signalling positive authentication in case of successful verification.
An apparatus for insertion in an eye of a patient for aspirating material from the eye in treatment of an ocular condition, the apparatus comprising: a needle disposed at a distal end of the apparatus, the needle including a distal aperture; an aspiration channel extending from the distal aperture of the needle to a proximal end of the apparatus, the aspiration channel comprising a proximal portion having a first diameter, a bypass portion having a second diameter, and a distal portion having a third diameter, wherein the second diameter is larger than the third diameter; an irrigation passageway coaxially disposed about at least a portion of the bypass portion and the distal portion of the aspiration channel; and at least one bypass port formed in a wall between the bypass portion of the aspiration channel and the irrigation passageway, to establish direct fluid communication between the irrigation passageway and the aspiration channel. a needle disposed at a distal end of the apparatus, the needle including a distal aperture; an aspiration channel extending from the distal aperture of the needle to a proximal end of the apparatus, the aspiration channel comprising a proximal portion having a first diameter, a bypass portion having a second diameter, and a distal portion having a third diameter, wherein the second diameter is larger than the third diameter; an irrigation passageway coaxially disposed about at least a portion of the bypass portion and the distal portion of the aspiration channel; and at least one bypass port formed in a wall between the bypass portion of the aspiration channel and the irrigation passageway, to establish direct fluid communication between the irrigation passageway and the aspiration channel.
A terminal device in communication with a base station device comprising: a receiving unit configured to receive a Master Information Block, MIB, on a Physical Broadcast Channel, PBCH, from the base station device, the MIB including a first configuration associated with a machine type communication, MTC, wherein the receiving unit is configured to receive a System Information Block, from the base station device, SIB, associated with the MTC on a physical downlink shared channel, PDSCH, in a subframe being based on the first configuration, the SIB includes a second configuration associated with the MTC, the second configuration includes a first parameter indicating a first subframe set and second subframe set, a second parameter indicating frequency hopping and a third parameter indicating a transport block size, and the receiving unit is configured to receive a first SIB associated with the MTC using the first subframe set and receive a second SIB associated with the MTC using the second subframe set. a receiving unit configured to receive a Master Information Block, MIB, on a Physical Broadcast Channel, PBCH, from the base station device, the MIB including a first configuration associated with a machine type communication, MTC, wherein the receiving unit is configured to receive a System Information Block, from the base station device, SIB, associated with the MTC on a physical downlink shared channel, PDSCH, in a subframe being based on the first configuration, the SIB includes a second configuration associated with the MTC, the second configuration includes a first parameter indicating a first subframe set and second subframe set, a second parameter indicating frequency hopping and a third parameter indicating a transport block size, and the receiving unit is configured to receive a first SIB associated with the MTC using the first subframe set and receive a second SIB associated with the MTC using the second subframe set.
RF-safe instrument for use in an MR examination, wherein the instrument is made of or comprises a conductor which is subject to an RF common mode current which is induced in the conductor when the conductor is exposed to a magnetic resonance exciting RF field generated in the MR examination, wherein, in order to attenuate or suppress the RF common mode current, an electrically damping element (4; 4a, 4b; 6), formed by at least one of a resistive, a reactive and a dielectric load, is added to the conductor at a proximal end of the conductor , at which an increased or a maximum of the RF electric field strength or an increased or a maximum of the RF common mode current occurs in comparison to other positions along the conductor (1; 3), wherein in case a resistive or a reactive load is provided, the load is galvanically connected or inductively coupled to the conductor , and in case a dielectric load is provided, the load is capacitively coupled to the conductor , wherein the damping element (4; 4a, 4b; 6) is provided with fastening means such that it can be manually attached at and detached from the conductor by a user, wherein the proximal end of the conductor is either electrically open or not electrically open, and wherein in the case that the proximal end of the conductor is not electrically open, the instrument further comprises at least one RF trap circuit , connected at the proximal end of the conductor, for provoking at said proximal end said increased or maximum of the RF electric field strength or an increased or a maximum of the RF common mode current.
A process for reacting isopulegol to menthone, in which isopulegol in a carrier gas phase is contacted with an activated oxidic copper catalyst optionally comprising at least one further element selected from aluminum, manganese, barium, chromium, calcium, and iron, and optionally after the reaction a menthone-containing reaction product is isolated, in which the copper catalyst is activated with hydrogen and an alcohol.