mhurhangee/patent-ind-claim-en huggingface dataset:
A polypeptide expression system comprising a first nucleic acid molecule and a second nucleic acid molecule, wherein: (a) the first nucleic acid molecule comprises a first expression cassette comprising the following components: (i) a first eukaryotic promoter (P1 Euk1 ), (ii) a first polypeptide-encoding sequence (PES1 1 ), (iii) a first 5' splice site (5'ss1 1 ), and (iv) a hybridizing sequence (HS1), wherein the components are operably linked to each other in a 5'-to-3' direction as P1 Euk1 -PES1 1 -5'ss1 1 -HS1; wherein the first expression cassette further comprises an excisable prokaryotic promoter module (ePPM 1 ) comprising the following components: (i) a 5' splice site (5'ss1 2 ), (ii) a prokaryotic promoter (P1 Prok1 ), and (iii) a 3' splice site (3'ss1 1 ), wherein the components are operably linked to each other in a 5'-to-3' direction as 5'ss1 2 -P1 Prok1 -3'ss1 1 , and wherein the ePPM 1 is positioned between the P1 Euk1 and the PES1 1 , and (b) the second nucleic acid molecule comprises the following components: (i) a eukaryotic promoter (P2 Euk ), (ii) a hybridizing sequence capable of hybridizing to HS1 (HS2), (iii) a 3' splice site (3'ss2), (iv) a polypeptide-encoding sequence (PES2), and (v) a polyadenylation site (pA2), wherein the components are operably linked to each other in a 5'-to-3' direction as P2 Euk -HS2-3'ss2-PES2-pA2. (a) the first nucleic acid molecule comprises a first expression cassette comprising the following components: (i) a first eukaryotic promoter (P1 Euk1 ), (ii) a first polypeptide-encoding sequence (PES1 1 ), (iii) a first 5' splice site (5'ss1 1 ), and (iv) a hybridizing sequence (HS1), wherein the components are operably linked to each other in a 5'-to-3' direction as P1 Euk1 -PES1 1 -5'ss1 1 -HS1; wherein the first expression cassette further comprises an excisable prokaryotic promoter module (ePPM 1 ) comprising the following components: (i) a 5' splice site (5'ss1 2 ), (ii) a prokaryotic promoter (P1 Prok1 ), and (iii) a 3' splice site (3'ss1 1 ), wherein the components are operably linked to each other in a 5'-to-3' direction as 5'ss1 2 -P1 Prok1 -3'ss1 1 , and wherein the ePPM 1 is positioned between the P1 Euk1 and the PES1 1 , and (b) the second nucleic acid molecule comprises the following components: (i) a eukaryotic promoter (P2 Euk ), (ii) a hybridizing sequence capable of hybridizing to HS1 (HS2), (iii) a 3' splice site (3'ss2), (iv) a polypeptide-encoding sequence (PES2), and (v) a polyadenylation site (pA2), wherein the components are operably linked to each other in a 5'-to-3' direction as P2 Euk -HS2-3'ss2-PES2-pA2.
A device for filtering emissions on a network supplied with current, positioned upstream of an apparatus to be protected, the filtering device having at least the following elements in combination: - a bidirectional DC-to-DC conversion manager adapted to supply a setpoint value to the terminals of an energy reserve capacitor , - a module for extracting the current flowing in the network, configured to transmit an extracted current I C to a bandpass filter adapted to eliminate the DC component of the extracted current, - a subtractor configured to receive the remaining AC component of the extracted current and a given reference current value I ref , and adapted to generate an error signal S e , - a correction module adapted to process the error signal S e and to generate a corresponding voltage value V cons , and to transmit the error voltage value V cons to a summer adapted to receive a reference voltage value and a charging voltage value of the energy reserve and to weight these three values before transmitting them to a component manager configured to provide the bidirectional DC-to-DC conversion manager with commands so that said bidirectional DC-to-DC conversion manager applies a voltage to the terminals of the energy reserve capacitor such that said energy reserve capacitor supplies energy to the network or, by contrast, takes energy from the network by charging itself. - a bidirectional DC-to-DC conversion manager adapted to supply a setpoint value to the terminals of an energy reserve capacitor , - a module for extracting the current flowing in the network, configured to transmit an extracted current I C to a bandpass filter adapted to eliminate the DC component of the extracted current, - a subtractor configured to receive the remaining AC component of the extracted current and a given reference current value I ref , and adapted to generate an error signal S e , - a correction module adapted to process the error signal S e and to generate a corresponding voltage value V cons , and to transmit the error voltage value V cons to a summer adapted to receive a reference voltage value and a charging voltage value of the energy reserve and to weight these three values before transmitting them to a component manager configured to provide the bidirectional DC-to-DC conversion manager with commands so that said bidirectional DC-to-DC conversion manager applies a voltage to the terminals of the energy reserve capacitor such that said energy reserve capacitor supplies energy to the network or, by contrast, takes energy from the network by charging itself.
Functional element having electrically controllable optical properties with a plurality of side edges (4.1, 4.2, 4.3, 4.4) at least comprising a first carrier film having a first flat electrode and a second carrier film having a second flat electrode and an active layer arranged flat between the first flat electrode and the second flat electrode , wherein - a first bus bar and a second bus bar are arranged on at least one first side edge (4.1), - the first carrier film has at least one first recess (10.1) and the second carrier film has at least one second recess (10.2), and wherein - the first bus bar is arranged on the surface of the second carrier film facing away from the second flat electrode and in the region of the at least one second recess (10.2) passes through the latter and contacts the first flat electrode electrically conductively, - the second bus bar is arranged on the surface of the first carrier film facing away from the first flat electrode and in the region of the at least one first recess (10.1) passes through the latter and contacts the second flat electrode electrically conductively, and - the at least one first bus bar is divided into at least one first section (18.1) and at least one second section (18.2), which can be controlled independently of one another and/or the at least one second bus bar is divided into at least one first section (19.1) and at least one second section (19.2), which can be controlled independently of one another, and - the first recesses (10.1) and the second recesses (10.2) are arranged alternatingly with respect to one another. - a first bus bar and a second bus bar are arranged on at least one first side edge (4.1), - the first carrier film has at least one first recess (10.1) and the second carrier film has at least one second recess (10.2), and wherein - the first bus bar is arranged on the surface of the second carrier film facing away from the second flat electrode and in the region of the at least one second recess (10.2) passes through the latter and contacts the first flat electrode electrically conductively, - the second bus bar is arranged on the surface of the first carrier film facing away from the first flat electrode and in the region of the at least one first recess (10.1) passes through the latter and contacts the second flat electrode electrically conductively, and - the at least one first bus bar is divided into at least one first section (18.1) and at least one second section (18.2), which can be controlled independently of one another and/or the at least one second bus bar is divided into at least one first section (19.1) and at least one second section (19.2), which can be controlled independently of one another, and - the first recesses (10.1) and the second recesses (10.2) are arranged alternatingly with respect to one another.
A boron nitride powder which comprises bulky boron nitride formed such that scaly primary particles of hexagonal boron nitride are aggregated to form bulky particles, and which has the following characteristics (A) to (C) : (A) a particle strength of the bulky particles at a cumulative breakdown rate of 63.2% is 5.0 MPa or more; (B) an average particle size of the boron nitride powder is 2 μm or more and 20 μm or less; and (C) an orientation index of the boron nitride powder as determined from X-ray diffraction is 20 or less. (A) a particle strength of the bulky particles at a cumulative breakdown rate of 63.2% is 5.0 MPa or more; (B) an average particle size of the boron nitride powder is 2 μm or more and 20 μm or less; and (C) an orientation index of the boron nitride powder as determined from X-ray diffraction is 20 or less.
Device for belt-tightening and shock absorption for a safety belt, comprising at least one spring device, which is received in a guide and is connectible by way of a coupling device with a belt , wherein the guide has at least one guide opening by way of which the coupling device is connected with the spring device, and a trigger unit comprising at least one locking element which holds the spring device in a biased setting and frees the spring device if a minimum force arising due to an accident is exceeded, so that the coupling device can be brought along the guide opening from a first position to a second position, wherein the coupling device is movable against the force of the spring device at least in a section in the direction of the first position.
Method for detecting a load of a rotating drum in a laundry treatment machine with damp items of laundry within a detection time interval (t D ) from commissioning the laundry treatment machine and by means of a sensor facility comprising a pair of electrodes for making contact with the items of laundry in the drum , an evaluation facility , lines , which connect the evaluation facility with the electrodes and a counter provided in the evaluation facility , in which method: a) the evaluation facility sets the counter to zero with the commissioning; b) the evaluation facility records a series of resistance measured values (r i ) of the electrodes during the detection time interval (t D ); characterised in that c) the evaluation facility compares each resistance measured value (r i ) with a threshold value (s) and increments the counter by 1 if the resistance measured value (r i ) is smaller than the threshold value (s) and does not change the counter if the resistance measured value (r i ) is greater than the threshold value (s) or is equal to the same; d) the evaluation facility compares the value (z) of the counter with a first limit value (gi) and determines the detection of the loading as positive if the value (z) is greater than the first limit value (g 1 ) and determines the detection as negative if the value (z) is lower than the first limit value (g 1 ) or is equal thereto. a) the evaluation facility sets the counter to zero with the commissioning; b) the evaluation facility records a series of resistance measured values (r i ) of the electrodes during the detection time interval (t D ); characterised in that c) the evaluation facility compares each resistance measured value (r i ) with a threshold value (s) and increments the counter by 1 if the resistance measured value (r i ) is smaller than the threshold value (s) and does not change the counter if the resistance measured value (r i ) is greater than the threshold value (s) or is equal to the same; d) the evaluation facility compares the value (z) of the counter with a first limit value (gi) and determines the detection of the loading as positive if the value (z) is greater than the first limit value (g 1 ) and determines the detection as negative if the value (z) is lower than the first limit value (g 1 ) or is equal thereto.
A method for wireless communication by a user equipment, UE, comprising: receiving , from a base station, a plurality of physical downlink shared channel, PDSCH, transport blocks ,TBs, across one or more slots; determining a type of duplexing mode associated with each of the one or more slots; and acknowledging the plurality of PDSCH TBs based at least in part on the type of duplexing mode associated with each of the one or more slots; wherein the plurality of PDSCH TBs comprises: i) a first PDSCH TB received across a first set of symbols within one slot of the one or more slots, the first set of symbols being associated with a half-duplexing mode; and ii) a second PDSCH TB received across a second set of symbols within the one slot of the one or more slots, the second set of symbols being associated with a full-duplexing mode. receiving , from a base station, a plurality of physical downlink shared channel, PDSCH, transport blocks ,TBs, across one or more slots; determining a type of duplexing mode associated with each of the one or more slots; and acknowledging the plurality of PDSCH TBs based at least in part on the type of duplexing mode associated with each of the one or more slots; wherein the plurality of PDSCH TBs comprises: i) a first PDSCH TB received across a first set of symbols within one slot of the one or more slots, the first set of symbols being associated with a half-duplexing mode; and ii) a second PDSCH TB received across a second set of symbols within the one slot of the one or more slots, the second set of symbols being associated with a full-duplexing mode. i) a first PDSCH TB received across a first set of symbols within one slot of the one or more slots, the first set of symbols being associated with a half-duplexing mode; and ii) a second PDSCH TB received across a second set of symbols within the one slot of the one or more slots, the second set of symbols being associated with a full-duplexing mode.
A suction device for suction and transport of yarn for a service robot for a ring spinning machine, comprising: a suction tube provided with a front opening and a rear opening , the front opening being fluidically connected to the rear opening by an inner conduit , whereby the suction device further comprises a suction mouth , which is arranged at the front opening , and a first vacuum ejector , which is fluidically connected to the inner conduit , characterized in that the suction mouth is fluidically connected to the inner conduit by means of a suction conduit , whereby the first vacuum ejector is arranged in the area associated with the rear opening and is adapted to generate a pressure gradient between the suction mouth and the rear opening for conveying an air flow through the suction mouth via the suction conduit to the inner conduit , wherein at least a part of the suction conduit has a smaller cross-section than the cross-section of the inner conduit associated with the first vacuum ejector and whereby at least one yarn twist retaining element is arranged in the inner conduit between the suction mouth and the first vacuum ejector and wherein the at least one yarn twist retaining element is formed by a curved section of the suction tube or wherein the at least one yarn twist retaining element is formed by a yarn twist retaining device that is arranged in a straight part of the suction tube . a suction tube provided with a front opening and a rear opening , the front opening being fluidically connected to the rear opening by an inner conduit , whereby the suction device further comprises a suction mouth , which is arranged at the front opening , and a first vacuum ejector , which is fluidically connected to the inner conduit , characterized in that the suction mouth is fluidically connected to the inner conduit by means of a suction conduit , whereby the first vacuum ejector is arranged in the area associated with the rear opening and is adapted to generate a pressure gradient between the suction mouth and the rear opening for conveying an air flow through the suction mouth via the suction conduit to the inner conduit , wherein at least a part of the suction conduit has a smaller cross-section than the cross-section of the inner conduit associated with the first vacuum ejector and whereby at least one yarn twist retaining element is arranged in the inner conduit between the suction mouth and the first vacuum ejector and wherein the at least one yarn twist retaining element is formed by a curved section of the suction tube or wherein the at least one yarn twist retaining element is formed by a yarn twist retaining device that is arranged in a straight part of the suction tube .
Movable shove frame structure , comprising: - a shove frame that comprises support legs , - a shove ring and - a thrust ring placed between the shove frame and the shove ring , and - a gliding element under each support leg of the shove frame characterized in that it additionally comprises removable fixing means to anchor the support legs to the floor . - a shove frame that comprises support legs , - a shove ring and - a thrust ring placed between the shove frame and the shove ring , and - a gliding element under each support leg of the shove frame
A video relay device (Rx 120) for relaying a video signal and a control signal from a first video device (Tx 110) to a second video device (TV 121), wherein the video relay device is configured to: receive a first video signal and a first control signal from the first video device, wherein the first control signal includes a header block having a source logical address and a destination logical address, and a data block having an operation code as a control data following the header block, convert from a format of the first control signal to a format of a second control signal; and transmit a second video signal corresponding to the first video signal and the second control signal to the second video device, wherein the second control signal includes a header block having a source logical address and a destination logical address, and a data block having an operation code as a control data following the header block; wherein a block transmission duration for the first control signal is shorter than a block transmission duration for the second control signal; wherein the header block of the second control signal includes a timing position of a first ACK bit for confirming whether the second video device receives the header block of the second control signal or not; wherein the data block of the second control signal includes a timing position of a second ACK bit for confirming whether the second video device receives the data block of the second control signal or not; wherein the second control signal is a Consumer Electronics Control message; and wherein the first control signal is configured to be transmitted block by block. receive a first video signal and a first control signal from the first video device, wherein the first control signal includes a header block having a source logical address and a destination logical address, and a data block having an operation code as a control data following the header block, convert from a format of the first control signal to a format of a second control signal; and transmit a second video signal corresponding to the first video signal and the second control signal to the second video device, wherein the second control signal includes a header block having a source logical address and a destination logical address, and a data block having an operation code as a control data following the header block; wherein a block transmission duration for the first control signal is shorter than a block transmission duration for the second control signal; wherein the header block of the second control signal includes a timing position of a first ACK bit for confirming whether the second video device receives the header block of the second control signal or not; wherein the data block of the second control signal includes a timing position of a second ACK bit for confirming whether the second video device receives the data block of the second control signal or not; wherein the second control signal is a Consumer Electronics Control message; and wherein the first control signal is configured to be transmitted block by block.
A network access method, wherein the method comprises: sending , by an intelligent device, a first network connection request to an access point; establishing , by the access point, a first network connection between the access point and the intelligent device in response to the first network connection request; sending , by the intelligent device, a first device identifier of the intelligent device to the access point; sending , by a user equipment, a room identifier to a server by using a login account, wherein the server stores a mapping relationship between an account and network configuration parameters, the network configuration parameters comprise an access point, a room identifier, and n device identifiers corresponding to the room identifier, and n is a positive integer; sending , by the server to the access point corresponding to the room identifier, the n device identifiers corresponding to the room identifier; after receiving the n device identifiers sent by the server, if determining that the first device identifier matches the n device identifiers, sending , by the access point, a network identifier and a password of the access point to the intelligent device by using the first network connection; and after receiving the network identifier and the password sent by the access point, sending , by the intelligent device, a second network connection request to the access point based on the network identifier and the password. sending , by an intelligent device, a first network connection request to an access point; establishing , by the access point, a first network connection between the access point and the intelligent device in response to the first network connection request; sending , by the intelligent device, a first device identifier of the intelligent device to the access point; sending , by a user equipment, a room identifier to a server by using a login account, wherein the server stores a mapping relationship between an account and network configuration parameters, the network configuration parameters comprise an access point, a room identifier, and n device identifiers corresponding to the room identifier, and n is a positive integer; sending , by the server to the access point corresponding to the room identifier, the n device identifiers corresponding to the room identifier; after receiving the n device identifiers sent by the server, if determining that the first device identifier matches the n device identifiers, sending , by the access point, a network identifier and a password of the access point to the intelligent device by using the first network connection; and after receiving the network identifier and the password sent by the access point, sending , by the intelligent device, a second network connection request to the access point based on the network identifier and the password.
A gas diffusion layer with flowpath in which electroconductive wires A for forming flow channels are disposed upon an electroconductive substrate B, wherein the gas diffusion layer with flowpath is characterized in that : the flow channels formed by the electroconductive wires A have a height of 300 |jm or less; flow channels formed by adjacent electroconductive wires have an equivalent diameter of 300 μm or less; and the electroconductive substrate B is formed from one layer of electroconductive wires C that are orthogonal to but not interwoven with the electroconductive wires A, characterized in that: the electroconductive wires A being formed from a non-electroconductive core material and an electroconductive surface layer material for coating the non-electroconductive core material. the flow channels formed by the electroconductive wires A have a height of 300 |jm or less; flow channels formed by adjacent electroconductive wires have an equivalent diameter of 300 μm or less; and the electroconductive substrate B is formed from one layer of electroconductive wires C that are orthogonal to but not interwoven with the electroconductive wires A,