mhurhangee/patent-ind-claim-en huggingface dataset:
System for implementing a modular ceiling light, the system comprising at least two light modules , each of which being limited in a vertical direction (Z) by an upper side and an underside, wherein each of the light modules comprises at least two separate longitudinal profiles elongated in a longitudinal direction (X), at least two separate cross-connectors , a light source , and an optical element , wherein the two longitudinal profiles are spaced from each other in a transverse direction (Y) and are connected to each other in the transverse direction (Y) by said two cross-connectors , wherein the light source is arranged in a receiving space enclosed in the transverse direction (Y) by the longitudinal profiles , and wherein the optical element forms an underside portion of the light module , wherein each light module has a respective fastening device for an end piece on its two longitudinal ends, wherein the system comprises at least two end pieces , wherein each of the end pieces has a mounting device corresponding to one of the fastening devices of each of the light modules for fastening the end piece to one of the longitudinal ends of one of the light modules , wherein in a first mounting arrangement, in which a first ceiling light is implemented, one of the end pieces is fixed to each end of one of the light modules and forms one longitudinal end of the first ceiling light, wherein the system comprises at least one connection module for connecting the two light modules , wherein the connection module has fastening units corresponding to the fastening devices on its two longitudinal ends for fastening the connection module to the mutually facing longitudinal ends of the two light modules in a second mounting arrangement in which a second ceiling light is created and in which the two light modules are arranged side by side in the longitudinal direction (X) and a respective one of the end pieces is fixed to a longitudinal end of each light module facing away from the other light module , wherein each light module has two electrical plug-in devices which are each held on a longitudinal end portion of one of its longitudinal profiles and are each accessible from one of said longitudinal ends.
A fusion polypeptide comprising: a mutant polypeptide derived from DHFR comprising or consisting of a sequence differing from SEQ ID NO: 1 and SEQ ID NO: 2 in at least position F153, said sequence having at least 95% identity to SEQ ID NO: 1 or SEQ ID NO: 2, and a polypeptide of interest, wherein the F153 mutation destabilises the mutant polypeptide and/or the fusion polypeptide, wherein the mutant polypeptide is operatively linked to the polypeptide of interest, wherein the mutant polypeptide is capable of binding to a DHFR inhibitor, whereby the DHFR inhibitor can bind to the fusion polypeptide, thereby stabilising the fusion polypeptide. a mutant polypeptide derived from DHFR comprising or consisting of a sequence differing from SEQ ID NO: 1 and SEQ ID NO: 2 in at least position F153, said sequence having at least 95% identity to SEQ ID NO: 1 or SEQ ID NO: 2, and a polypeptide of interest, wherein the F153 mutation destabilises the mutant polypeptide and/or the fusion polypeptide, wherein the mutant polypeptide is operatively linked to the polypeptide of interest, wherein the mutant polypeptide is capable of binding to a DHFR inhibitor, whereby the DHFR inhibitor can bind to the fusion polypeptide, thereby stabilising the fusion polypeptide.
A complex comprising: (i) a Cas9 single-guide RNA (sgRNA) comprising an aptamer, wherein the Cas9 sgRNA does not hybridize to a target DNA in the absence of a specific ligand bound to the aptamer; and (ii) a Cas9 protein.
A laminate comprising: a metal substrate; a sliding layer overlying the metal substrate, the sliding layer including a polymer fabric comprising a first polymer P1, a melt-processable matrix polymer comprising a second polymer P2 and filler, wherein either P1 or P2 is a fluoropolymer, wherein the total amount of fluoropolymer and filler is at least 28 vol% and not greater than 70 vol% of the sliding layer. a metal substrate; a sliding layer overlying the metal substrate, the sliding layer including a polymer fabric comprising a first polymer P1, a melt-processable matrix polymer comprising a second polymer P2 and filler, a polymer fabric comprising a first polymer P1, a melt-processable matrix polymer comprising a second polymer P2 and filler,
A histochemical process composition, comprising: (a) deionized water; (b) a composition comprising 5-chloro-2-methyl-4-isothiazolin-3-one 2.30%; 2-methyl-4-isothiazolin-3-one 0.70%; modified glycol 93-95%; and alkyl carboxylate 2-3%; (c) from 2.5 parts per million to 25 parts per million of at least one nanoparticle; and (d) in addition (i) Tris base, boric acid, and EDTA disodium dehydrate; or (ii) sodium citrate dihydrate, citric acid monohydrate and polyoxyethylenesorbitan monolaurate; or (iii) sodium citrate dehydrate and citric acid monohydrate. (a) deionized water; (b) a composition comprising 5-chloro-2-methyl-4-isothiazolin-3-one 2.30%; 2-methyl-4-isothiazolin-3-one 0.70%; modified glycol 93-95%; and alkyl carboxylate 2-3%; (c) from 2.5 parts per million to 25 parts per million of at least one nanoparticle; and (d) in addition (i) Tris base, boric acid, and EDTA disodium dehydrate; or (ii) sodium citrate dihydrate, citric acid monohydrate and polyoxyethylenesorbitan monolaurate; or (iii) sodium citrate dehydrate and citric acid monohydrate. (i) Tris base, boric acid, and EDTA disodium dehydrate; or (ii) sodium citrate dihydrate, citric acid monohydrate and polyoxyethylenesorbitan monolaurate; or (iii) sodium citrate dehydrate and citric acid monohydrate.
An isolated plant functional microRNA for use in treating viral diseases in a mammal, wherein said plant functional microRNA is MIR2911 and the target gene of the isolated plant functional microRNA is influenza virus gene and wherein said plant functional microRNAs are derived from Lonicera japonica, Isatis tinctoria, Isatis indigotica, Baphicacanthus cusia or Populus diversifolia ..
A method for erasing bootstrapping, at a device or a gateway for a machine-to-machine, M2M, service, the method comprising: receiving an erase request including a first payload transmitted from an M2M authentication server, MAS, or an M2M service bootstrapping function, MSBF, wherein the first payload includes an M2M node identifier, ID, of the device or the gateway to be erased, a key index, a nonce, a type including a value that indicates a type of the erase request, and a first hash value for providing origin authentication, integrity, and replay protection for the first payload; retrieving a secret key based on the M2M Node ID and the key index for a look up from a local key repository; skipping the erase request in case that there is no matching secret key in the local key repository; generating, in case that the secret key is retrieved, a second hash value based on the secret key, the M2M Node ID, the key index, the nonce, and the type; matching the first hash value with the second hash value; in case that the first hash value matches with the second hash value, processing the erase request based on a local policy of the device or the gateway; transmitting an erase response including a second payload to the MAS or the MSBF; and wherein a delay is put before deleting the bootstrapped state for a retransmitted erase request, wherein the second hash value is generated based on Hash value = Hash-function (secret key, M2M Node ID | key index | nonce | type). receiving an erase request including a first payload transmitted from an M2M authentication server, MAS, or an M2M service bootstrapping function, MSBF, wherein the first payload includes an M2M node identifier, ID, of the device or the gateway to be erased, a key index, a nonce, a type including a value that indicates a type of the erase request, and a first hash value for providing origin authentication, integrity, and replay protection for the first payload; retrieving a secret key based on the M2M Node ID and the key index for a look up from a local key repository; skipping the erase request in case that there is no matching secret key in the local key repository; generating, in case that the secret key is retrieved, a second hash value based on the secret key, the M2M Node ID, the key index, the nonce, and the type; matching the first hash value with the second hash value; in case that the first hash value matches with the second hash value, processing the erase request based on a local policy of the device or the gateway; transmitting an erase response including a second payload to the MAS or the MSBF; and wherein a delay is put before deleting the bootstrapped state for a retransmitted erase request, wherein the second hash value is generated based on Hash value = Hash-function (secret key, M2M Node ID | key index | nonce | type).
A resin composition for core-sheath type bi-component fiber comprising: core component comprising homopolypropylene fulfilling the following requirements (i) to (v); and sheath component comprising high density polyethylene having density measured according to ASTM D1505 of 0.930 g/cm 3 or more: (i) molecular weight distribution of 2.4 or less, (ii) residual stress rate of 0.05% or less, (iii) melt index, measured under load of 2.16 kg at 230°C according to ASTM D1238, of 20 to 40g/10min, (iv) tacticity of 98% or more, (v) melting point of 155°C or less, wherein (ii) the residual stress rate and (v) the melting point are measured in accordance with the methods indicated in the description. core component comprising homopolypropylene fulfilling the following requirements (i) to (v); and sheath component comprising high density polyethylene having density measured according to ASTM D1505 of 0.930 g/cm 3 or more: (i) molecular weight distribution of 2.4 or less, (ii) residual stress rate of 0.05% or less, (iii) melt index, measured under load of 2.16 kg at 230°C according to ASTM D1238, of 20 to 40g/10min, (iv) tacticity of 98% or more, (v) melting point of 155°C or less, (i) molecular weight distribution of 2.4 or less, (ii) residual stress rate of 0.05% or less, (iii) melt index, measured under load of 2.16 kg at 230°C according to ASTM D1238, of 20 to 40g/10min, (iv) tacticity of 98% or more, (v) melting point of 155°C or less, wherein (ii) the residual stress rate and (v) the melting point are measured in accordance with the methods indicated in the description.
A method of operating an apparatus , the apparatus comprising a prime mover and a plurality of hydraulic actuators , a hydraulic machine having a rotatable shaft in driven engagement with the prime mover and comprising a plurality of working chambers having a volume which varies cyclically with rotation of the rotatable shaft, a hydraulic circuit extending between a group of one or more working chambers of the hydraulic machine and one or more of the hydraulic actuators, each working chamber of the hydraulic machine comprising a low-pressure valve which regulates the flow of hydraulic fluid between the working chamber and a low-pressure manifold and a high-pressure valve which regulates the flow of hydraulic fluid between the working chamber and a high-pressure manifold , the hydraulic machine being configured to actively control at least the low-pressure valves of the group of one or more working chambers to select the net displacement of hydraulic fluid by each working chamber on each cycle of working chamber volume, and thereby the net displacement of hydraulic fluid by the group of one or more working chambers, responsive to a demand signal, the method comprising controlling the said valves to cause each working chamber to carry out either an active or an inactive cycle of working chamber volume during each cycle of working chamber volume, characterised in that the fraction of working chambers which carry out active cycles is variable and is selected from of a plurality of discrete fractions, wherein the plurality of discrete fractions are selected to avoid generating any repeating patterns of active and inactive cycles of working chamber volume with a length greater than a predetermined maximum repeat pattern length. a hydraulic circuit extending between a group of one or more working chambers of the hydraulic machine and one or more of the hydraulic actuators, each working chamber of the hydraulic machine comprising a low-pressure valve which regulates the flow of hydraulic fluid between the working chamber and a low-pressure manifold and a high-pressure valve which regulates the flow of hydraulic fluid between the working chamber and a high-pressure manifold , the hydraulic machine being configured to actively control at least the low-pressure valves of the group of one or more working chambers to select the net displacement of hydraulic fluid by each working chamber on each cycle of working chamber volume, and thereby the net displacement of hydraulic fluid by the group of one or more working chambers, responsive to a demand signal, the method comprising controlling the said valves to cause each working chamber to carry out either an active or an inactive cycle of working chamber volume during each cycle of working chamber volume, characterised in that the fraction of working chambers which carry out active cycles is variable and is selected from of a plurality of discrete fractions, wherein the plurality of discrete fractions are selected to avoid generating any repeating patterns of active and inactive cycles of working chamber volume with a length greater than a predetermined maximum repeat pattern length.
A cell culture package for containing a cell-containing deformable material, including: an inner bag having a closed inner space , a seal disposed on the inner bag , a holder disposed in the inner bag and configured to allow liquid to pass at least partially therethrough, and an outer bag having a sterilized closed inner space in which the inner bag is enclosed such that the seal is exposed, wherein the holder has columns and a ring formed in a predetermined shape and a mesh, through which liquid can pass, attached to a frame . an inner bag having a closed inner space , a seal disposed on the inner bag , a holder disposed in the inner bag and configured to allow liquid to pass at least partially therethrough, and an outer bag having a sterilized closed inner space in which the inner bag is enclosed such that the seal is exposed, wherein the holder has columns and a ring formed in a predetermined shape and a mesh, through which liquid can pass, attached to a frame .
System for controlling usability of an electronic device , - which device comprises a processing unit , the system comprising a first control module , - adapted to be connected to the processing unit, said first control module comprising a modem for communicating with a wireless communication network, and an access circuit connected to the modem for access to said wireless communication network, which access circuit comprises a first secure element ; a second control module comprising a second secure element , configured to communicate with the first secure element over a communication link; wherein said access circuit is configured to set a usability state dependent on communication between the first secure element and the second secure element, and to control the device in accordance with said usability state, wherein the first control module is configured to authenticate the second control module, and to enter an alert state either if the second module is not connected or not authenticated, wherein operation of the processing unit is inhibited in said alert state so as to partially or fully disable the electronic device. - which device comprises a processing unit , the system comprising a first control module , - adapted to be connected to the processing unit, said first control module comprising a modem for communicating with a wireless communication network, and an access circuit connected to the modem for access to said wireless communication network, which access circuit comprises a first secure element ; a second control module comprising a second secure element , configured to communicate with the first secure element over a communication link;
An electronic module comprising means for determining an operating system targeted by a message received by a transmitter-receiver (T/R) of an electronic device , from among at least a Rich-OS operating system and a trusted operating system executed on one same chipset of said electronic device , so that the said message becomes accessible to the said targeted operating system, the said determination means being set in operation in response to receipt of the said message by the said transmitter-receiver (T/R), characterized in that the electronic module is a material component comprising a microprocessor, the determination means being set in operation without any operating system inter-positioned between the determination means and the electronics of the module.
An antenna system, comprising: an array of antennas , each antenna to emit electromagnetic waves, wherein each antenna is presented with a load that is different from other antennas in the array; and a control system , comprising: a single transmitter to sequentially drive antenna sets; a switching device to select, for each activation period in an activation sequence, an antenna set to be driven; and a controller to: determine an actual power output of each antenna; and generate an adjusted control signal for the single transmitter such that the power output of each antenna is controlled to match a target power for that antenna, regardless of a load for the antenna. an array of antennas , each antenna to emit electromagnetic waves, wherein each antenna is presented with a load that is different from other antennas in the array; and a control system , comprising: a single transmitter to sequentially drive antenna sets; a switching device to select, for each activation period in an activation sequence, an antenna set to be driven; and a controller to: determine an actual power output of each antenna; and generate an adjusted control signal for the single transmitter such that the power output of each antenna is controlled to match a target power for that antenna, regardless of a load for the antenna. a single transmitter to sequentially drive antenna sets; a switching device to select, for each activation period in an activation sequence, an antenna set to be driven; and a controller to: determine an actual power output of each antenna; and generate an adjusted control signal for the single transmitter such that the power output of each antenna is controlled to match a target power for that antenna, regardless of a load for the antenna. determine an actual power output of each antenna; and generate an adjusted control signal for the single transmitter such that the power output of each antenna is controlled to match a target power for that antenna, regardless of a load for the antenna.
A power output device comprising: a field winding ; a motor including a plurality of star-connected motor windings having three or more phases; a capacitor ; an inverter circuit configured to convert electric power supplied from the capacitor and supply the converted electric power to the motor windings ; a battery (B) connected to the field winding ; and a controller , wherein the inverter circuit includes a positive bus bar , a negative bus bar , and a plurality of switching element pairs (S1-S2, S3-S4, S5-S6) respectively corresponding to the motor windings , wherein the switching element pairs (S1-S2, S3-S4, S5-S6) each include an upper arm switching element (S1, S3, S5) and a lower arm switching element (S2, S4, S6) that are connected in series to each other, the capacitor is connected to the positive bus bar and the negative bus bar , the field winding is connected to one of the positive bus bar or the negative bus bar via the battery (B), and a neutral point (N) of the motor , the controller is configured to control the switching element pairs (S1-S2, S3-S4, S5-S6) to charge the capacitor by stepping up a voltage of the battery (B) and to supply a direct current to the field winding . a field winding ; a motor including a plurality of star-connected motor windings having three or more phases; a capacitor ; an inverter circuit configured to convert electric power supplied from the capacitor and supply the converted electric power to the motor windings ; a battery (B) connected to the field winding ; and a controller , wherein the inverter circuit includes a positive bus bar , a negative bus bar , and a plurality of switching element pairs (S1-S2, S3-S4, S5-S6) respectively corresponding to the motor windings , wherein the switching element pairs (S1-S2, S3-S4, S5-S6) each include an upper arm switching element (S1, S3, S5) and a lower arm switching element (S2, S4, S6) that are connected in series to each other, the capacitor is connected to the positive bus bar and the negative bus bar , the field winding is connected to one of the positive bus bar or the negative bus bar via the battery (B), and a neutral point (N) of the motor , the controller is configured to control the switching element pairs (S1-S2, S3-S4, S5-S6) to charge the capacitor by stepping up a voltage of the battery (B) and to supply a direct current to the field winding .