mhurhangee/patent-ind-claim-en huggingface dataset:
Antibacterial formulation comprising a mixture of bacteriophages having lytic activity against strains of Salmonella spp. CHARACTERIZED in that it comprises: a) an effective amount of specific bacteriophages: Bacteriophage SenM-L8 IDAC deposit 060820-01, Bacteriophage SenM-STM1 IDAC deposit 060820-03, Bacteriophage SenM-STM23 IDAC deposit 060820-04, Bacteriophage SenS-STM47B IDAC deposit 060820-05, Bacteriophage SenM-M7 IDAC deposit 060820-06 and b) an acceptable vehicle, buffer and/or excipients. a) an effective amount of specific bacteriophages: Bacteriophage SenM-L8 IDAC deposit 060820-01, Bacteriophage SenM-STM1 IDAC deposit 060820-03, Bacteriophage SenM-STM23 IDAC deposit 060820-04, Bacteriophage SenS-STM47B IDAC deposit 060820-05, Bacteriophage SenM-M7 IDAC deposit 060820-06 and Bacteriophage SenM-L8 IDAC deposit 060820-01, Bacteriophage SenM-STM1 IDAC deposit 060820-03, Bacteriophage SenM-STM23 IDAC deposit 060820-04, Bacteriophage SenS-STM47B IDAC deposit 060820-05, Bacteriophage SenM-M7 IDAC deposit 060820-06 and b) an acceptable vehicle, buffer and/or excipients.
A method comprising: invoking , by a user device , a setup process of a fingerprint identification service of the user device, wherein the user device automatically initiates the setup process without receiving a request from the user and that operates as a background process on the user device, and wherein the setup comprises: capturing , by the user device, a fingerprint sample of the user of the user device without prompting the user; storing, by the user device, the fingerprint sample; determining , by the user device, whether to generate a fingerprint template; if it is determined to generate the fingerprint template, generating , by the user device, the fingerprint template based on determining to generate the fingerprint template; else continuing to capturing ; storing, by the user device, the fingerprint template; providing , by the user device, a notification to the user that indicates that the setup process of the fingerprint identification service is ready such that the fingerprint identification service can be activated; receiving, by the user device, from the user, a request to activate or to not activate the fingerprint identification service; and activating or not activating , by the user device, the fingerprint identification service based on the request to activate or to not activate the fingerprint identification service. capturing , by the user device, a fingerprint sample of the user of the user device without prompting the user; storing, by the user device, the fingerprint sample; determining , by the user device, whether to generate a fingerprint template; if it is determined to generate the fingerprint template, generating , by the user device, the fingerprint template based on determining to generate the fingerprint template; else continuing to capturing ; storing, by the user device, the fingerprint template; providing , by the user device, a notification to the user that indicates that the setup process of the fingerprint identification service is ready such that the fingerprint identification service can be activated; receiving, by the user device, from the user, a request to activate or to not activate the fingerprint identification service; and activating or not activating , by the user device, the fingerprint identification service based on the request to activate or to not activate the fingerprint identification service.
A Bluetooth pairing method, wherein the method is applied to a Bluetooth system, the Bluetooth system comprises a terminal and a Bluetooth device, and the method comprises: when the terminal receives a first operation of a user, sending (S501), by the terminal, an inquiry request to the Bluetooth device, wherein the inquiry request is used to obtain a Bluetooth address of the Bluetooth device; when the Bluetooth device receives the inquiry request, sending (S502), by the Bluetooth device, an inquiry response to the terminal, wherein the inquiry response comprises the Bluetooth address of the Bluetooth device; sending (S503), by the Bluetooth device, an extended inquiry response to the terminal, wherein the extended inquiry response comprises a device name of the Bluetooth device; and after the terminal receives the extended inquiry response, displaying, by the terminal, the device name of the Bluetooth device; characterized in that the extended inquiry response further comprises information about a feature supported by the Bluetooth device; wherein the information about a feature supported by the Bluetooth device comprises: secure simple pairing, 3-slot packet transmission, 5-slot packet transmission, timing accuracy, and synchronous connection oriented link. when the terminal receives a first operation of a user, sending (S501), by the terminal, an inquiry request to the Bluetooth device, wherein the inquiry request is used to obtain a Bluetooth address of the Bluetooth device; when the Bluetooth device receives the inquiry request, sending (S502), by the Bluetooth device, an inquiry response to the terminal, wherein the inquiry response comprises the Bluetooth address of the Bluetooth device; sending (S503), by the Bluetooth device, an extended inquiry response to the terminal, wherein the extended inquiry response comprises a device name of the Bluetooth device; and after the terminal receives the extended inquiry response, displaying, by the terminal, the device name of the Bluetooth device; characterized in that the extended inquiry response further comprises information about a feature supported by the Bluetooth device; wherein the information about a feature supported by the Bluetooth device comprises: secure simple pairing, 3-slot packet transmission, 5-slot packet transmission, timing accuracy, and synchronous connection oriented link.
A method for checking plausibility for additive manufacturing devices, using input data generated by means of CAM software, said input data being in the form of graphic data which are reproduced as layers to be printed each, wherein each layer has at least one pixel, in particular a plurality of pixels, corresponding to the component region to be printed in the respective layer, and output data controlling the additive manufacturing device to produce the component to be printed, characterized in that the input data of at least two successive layers are checked and the sum of all pixels to be exposed within a subregion of these layers is determined, wherein a first subregion of a first layer is connected to a second subregion of a second layer, and in that a signal is emitted if the pixel sum, i.e. the exposure area, within the second subregion of a subsequent layer differs from the number of pixels in the first subregion, connected to the second subregion, of the previous layer by at least a predetermined factor, in particular is greater by at least the predetermined factor.
An assembly of stator modules for a planar drive system , comprising a first stator module and a second stator module , the first stator module and/or the second stator module each comprising stator segments with a segment width , wherein the stator segments are embodied to be energizable, wherein with the aid of the stator segments a magnetic field may be provided for interacting with magnet arrangements of a rotor of the planar drive system in order to drive and/or hold the rotor , wherein the first stator module and the second stator module are arranged at a distance from each other and a gap is formed as a result, wherein the gap comprises a gap width , wherein the gap width is smaller than or equal to the segment width , wherein at least one functional element is arranged in the region of the gap , wherein the functional element provides further functions that go beyond the moving of the rotors , characterized in that the functional element comprises a movable door , or wherein the functional element comprises a light source and a light detector , wherein with the aid of the light source and of the light detector a detection of the movable rotor and/or a determination of a movement of an object between the light source and the light detector may be carried out or wherein the functional element provides an air curtain, or wherein the functional element comprises a cleaning brush , wherein the cleaning brush has a stationary or rotatable embodiment or wherein the functional element comprises a nozzle for applying a fluid or wherein the functional element comprises a disinfecting element or wherein the functional element comprises a suction device , or wherein the functional element comprises a retaining element . characterized in that the functional element comprises a movable door , or wherein the functional element comprises a light source and a light detector , wherein with the aid of the light source and of the light detector a detection of the movable rotor and/or a determination of a movement of an object between the light source and the light detector may be carried out or wherein the functional element provides an air curtain, or wherein the functional element comprises a cleaning brush , wherein the cleaning brush has a stationary or rotatable embodiment or wherein the functional element comprises a nozzle for applying a fluid or wherein the functional element comprises a disinfecting element or wherein the functional element comprises a suction device , or wherein the functional element comprises a retaining element .
A brake control system for a motor vehicle (K), wherein - the brake control system (BS) has a first control unit (SG1) for controlling a first brake actuator (B1) of the motor vehicle (K); and - the brake control system (BS) has a second control unit (SG2) for controlling a second brake actuator (B2) of the motor vehicle (K); - the brake control system (BS) has a third control unit (SG3) for controlling the first brake actuator (B1) and the second brake actuator (B2); and - the brake control system (BS) has a switching device (SE), which is configured to connect the third control unit (SG3) to the first brake actuator (B1) and/or to the second brake actuator (B2) depending on a fault status of the brake control system (BS); - the switching device (SE) is configured to connect the first control unit (SG1) to the first brake actuator (B1) depending on the fault status; and/or - the switching device (SE) is configured to connect the second control unit (SG2) to the second brake actuator (B2) depending on the fault status; and characterized in that - the switching device (SE) has a first switching element (S1) for connecting the first control unit (SG1) to the first brake actuator (B1), a second switching element (S2) for connecting the third control unit (SG3) to the first brake actuator (B1), a third switching element (S3) for connecting the third control unit (SG3) to the second brake actuator (B2), and a fourth switching element (S4) for connecting the second control unit (SG2) to the second brake actuator (B2). - the brake control system (BS) has a first control unit (SG1) for controlling a first brake actuator (B1) of the motor vehicle (K); and - the brake control system (BS) has a second control unit (SG2) for controlling a second brake actuator (B2) of the motor vehicle (K); - the brake control system (BS) has a third control unit (SG3) for controlling the first brake actuator (B1) and the second brake actuator (B2); and - the brake control system (BS) has a switching device (SE), which is configured to connect the third control unit (SG3) to the first brake actuator (B1) and/or to the second brake actuator (B2) depending on a fault status of the brake control system (BS); - the switching device (SE) is configured to connect the first control unit (SG1) to the first brake actuator (B1) depending on the fault status; and/or - the switching device (SE) is configured to connect the second control unit (SG2) to the second brake actuator (B2) depending on the fault status; and characterized in that - the switching device (SE) has a first switching element (S1) for connecting the first control unit (SG1) to the first brake actuator (B1), a second switching element (S2) for connecting the third control unit (SG3) to the first brake actuator (B1), a third switching element (S3) for connecting the third control unit (SG3) to the second brake actuator (B2), and a fourth switching element (S4) for connecting the second control unit (SG2) to the second brake actuator (B2).
An arrangement of carbon nanotubes, CNTs, including: a substrate ; a first CNT block (no) rising up from the substrate ; a second CNT block rising up from the substrate , the first CNT block and the second CNT block being spaced apart from each other; and a CNT link connecting the first CNT block to the second CNT block , wherein the CNT link is configured as a CNT bridge, characterized in that the CNTs of the CNT link are oriented in a same direction as the CNTs of the first CNT block and the second CNT block . a substrate ; a first CNT block (no) rising up from the substrate ; a second CNT block rising up from the substrate , the first CNT block and the second CNT block being spaced apart from each other; and a CNT link connecting the first CNT block to the second CNT block , wherein the CNT link is configured as a CNT bridge, characterized in that the CNTs of the CNT link are oriented in a same direction as the CNTs of the first CNT block and the second CNT block .
A method for production of an organic semiconducting film comprising: coating a support substrate with a sacrificial layer , wherein the sacrificial layer is a water-soluble film ; followed by application of a film of an organic material on the support substrate ; irradiation of the surface of the film with a low-energy electron beam to crosslink the near-surface region of the organic material, the low-energy electron beam having an electron beam energy between 10 eV and 10,000 eV; and detachment the irradiated film from the support substrate . coating a support substrate with a sacrificial layer , wherein the sacrificial layer is a water-soluble film ; followed by application of a film of an organic material on the support substrate ; irradiation of the surface of the film with a low-energy electron beam to crosslink the near-surface region of the organic material, the low-energy electron beam having an electron beam energy between 10 eV and 10,000 eV; and detachment the irradiated film from the support substrate .
A polypeptide comprising a truncated von Willebrand Factor (VWF) and a half-life extending moiety, for use in the treatment of a blood coagulation disorder, said treatment comprising administering the polypeptide to a subject having a blood coagulation disorder and having endogenous Factor VIII (FVIII), wherein the activity level of endogenous FVIII in said subject before treatment with said polypeptide is reduced relative to the activity level of FVIII in normal human plasma (NHP) provided that the activity level of endogenous FVIII in said subject is at least 0.5% of the activity level of endogenous FVIII in normal human plasma (NHP), wherein the truncated VWF comprises an amino acid sequence having a sequence identity of at least 90% to amino acids 764 to 1242 of SEQ ID NO:4, and wherein the polypeptide is capable of binding to endogenous FVIII, wherein the truncated von Willebrand Factor (VWF) provides for the capability of the polypeptide for binding to endogenous FVIII; wherein the polypeptide is a dimer and the affinity of said dimer to FVIII is greater than the affinity of a monomeric polypeptide to said FVIII, said monomeric polypeptide having the same amino acid sequence as a monomeric subunit of the dimeric polypeptide; wherein the polypeptide has a FVIII binding affinity characterized by a dissociation constant K D of less than 1 nM; wherein the half-life extending moiety is a heterologous amino acid sequence fused to the truncated VWF or is conjugated to the polypeptide; and wherein the endogenous FVIII level is increased following administration of said polypeptide and wherein - (i) said polypeptide is administered for prophylactic prevention of a bleeding event, wherein a) said treatment either does not comprise co-administration of exogenous FVIII, or b) said treatment comprising that an exogenous FVIII is administered and thereby providing for the endogenous FVIII in said subject; or - (ii) said polypeptide is co-administered together with exogenous FVIII for the treatment of a bleeding event or for initiation of a prophylactic treatment regime, wherein for follow-up treatments said polypeptide is administered without co-administration of exogenous FVIII. - (i) said polypeptide is administered for prophylactic prevention of a bleeding event, wherein a) said treatment either does not comprise co-administration of exogenous FVIII, or b) said treatment comprising that an exogenous FVIII is administered and thereby providing for the endogenous FVIII in said subject; or a) said treatment either does not comprise co-administration of exogenous FVIII, or b) said treatment comprising that an exogenous FVIII is administered and thereby providing for the endogenous FVIII in said subject; or - (ii) said polypeptide is co-administered together with exogenous FVIII for the treatment of a bleeding event or for initiation of a prophylactic treatment regime, wherein for follow-up treatments said polypeptide is administered without co-administration of exogenous FVIII.
Method for the production of phosphor particles of an Si-containing and/or Al-containing phosphor with a protective layer, comprising the method steps: A) Treatment of the Si-containing and/or Al-containing phosphor with an acid solution, wherein the pH value of the acid solution is maintained within a range of pH 3.5 to 7 for a period of at least 1 h and wherein an Si-containing layer is formed on the phosphor particles, which layer has a higher content of Si on the surface than the phosphor particles, and/or an Al-containing layer is formed on the phosphor particles, which layer has a modified content of aluminum on the surface compared with the phosphor particles, B) Tempering of the treated phosphor particles at a temperature between 250°C and 400 °C with production of the protective layer. A) Treatment of the Si-containing and/or Al-containing phosphor with an acid solution, wherein the pH value of the acid solution is maintained within a range of pH 3.5 to 7 for a period of at least 1 h and wherein an Si-containing layer is formed on the phosphor particles, which layer has a higher content of Si on the surface than the phosphor particles, and/or an Al-containing layer is formed on the phosphor particles, which layer has a modified content of aluminum on the surface compared with the phosphor particles, B) Tempering of the treated phosphor particles at a temperature between 250°C and 400 °C with production of the protective layer.
A repair diagram generation device comprising: an image acquisition unit configured to acquire a captured image (P) of a structure; a damage detection unit configured to detect damage from the captured image by image processing and configured to specify a degree of the damage; a method specifying unit configured to specify a repair method of the damage based on the damage and the degree of the damage; and a repair diagram generation unit configured to generate a repair diagram (A1, A2) showing a repair region and the repair method for repairing the damage based on the damage and the repair method, characterized in that in a case in which the damage is a plurality of fissures in the captured image and the plurality of fissures are close to each other by equal to or less than a threshold value, the repair diagram generation unit is configured to generate the repair diagram by connecting the fissures close to each other. an image acquisition unit configured to acquire a captured image (P) of a structure; a damage detection unit configured to detect damage from the captured image by image processing and configured to specify a degree of the damage; a method specifying unit configured to specify a repair method of the damage based on the damage and the degree of the damage; and a repair diagram generation unit configured to generate a repair diagram (A1, A2) showing a repair region and the repair method for repairing the damage based on the damage and the repair method, characterized in that in a case in which the damage is a plurality of fissures in the captured image and the plurality of fissures are close to each other by equal to or less than a threshold value, the repair diagram generation unit is configured to generate the repair diagram by connecting the fissures close to each other.
A method for choosing a transmission mode in a vehicle over the course of a road section; comprising a - simulation of at least one future speed profile v sim for an actual speed for said vehicle over the course of said road section, in which said simulation is conducted when said road section lies ahead of said vehicle and in which said simulation is based at least on a road slope; and characterized by : - determination of a time period T appl ahead of said vehicle , for which said time period T appl a current transmission mode is deemed to be applicable, in which said determination is based on said at least one future speed profile v sim and ensures that a lower transmission mode is chosen before a lowest permitted speed v min defined for said road section and/or a set speed v set for a speed control is reached, wherein said time period T appl starts at a first moment T 1 , when said simulation is conducted, and ends at a third moment T 3 , when said at least one future speed profile v sim falls below said lowest permitted speed v min ; - evaluation of whether a lower transmission mode shall be chosen in order to prevent the actual speed of the vehicle to fall below a minimum speed, in which said lower transmission mode according to said evaluation shall be chosen if said applicable time period T appl is shorter than a first threshold period T lim , T appl < T lim wherein said evaluation determines that a torque will need to be requested from an engine in said vehicle following the expiry of said time period T appl in order that said actual speed v act shall remain higher than said lowest permitted speed v min . - simulation of at least one future speed profile v sim for an actual speed for said vehicle over the course of said road section, in which said simulation is conducted when said road section lies ahead of said vehicle and in which said simulation is based at least on a road slope; and characterized by : - determination of a time period T appl ahead of said vehicle , for which said time period T appl a current transmission mode is deemed to be applicable, in which said determination is based on said at least one future speed profile v sim and ensures that a lower transmission mode is chosen before a lowest permitted speed v min defined for said road section and/or a set speed v set for a speed control is reached, wherein said time period T appl starts at a first moment T 1 , when said simulation is conducted, and ends at a third moment T 3 , when said at least one future speed profile v sim falls below said lowest permitted speed v min ; - evaluation of whether a lower transmission mode shall be chosen in order to prevent the actual speed of the vehicle to fall below a minimum speed, in which said lower transmission mode according to said evaluation shall be chosen if said applicable time period T appl is shorter than a first threshold period T lim , T appl < T lim