mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a growing medium, the method comprising - feeding biomass and biochar to a crusher , characterized in that the method further comprises - feeding a probiotic solution and a mixture obtained from the crusher, having a particle size of less than 25 mm, to a conveyor, the particle size of which biochar is 0.01-2.5 mm and the biochar is used in an amount of 0.05-7 vol-% of the biomass; the probiotic solution comprises lactic bacteria, photosynthetic bacteria and at least one yeast, and the probiotic solution is used in an amount of 0.1-2 vol-% of the biomass, and wherein a distillate obtained from a manufacture of the biochar is additionally fed to the crusher and/or the conveyor. - feeding biomass and biochar to a crusher , - feeding a probiotic solution and a mixture obtained from the crusher, having a particle size of less than 25 mm, to a conveyor,
Protein preparation, which is a rape protein flour produced from rape seeds, wherein the protein preparation has a protein content, which is at least 40 % and at most 70 % based on the dry mass, wherein the protein preparation has a brightness L*, determined according to CIE-L*a*b* color scale, of at least 80 as well as at least water-binding, oil-binding and emulsifying functionality, wherein the emulsifying capacity, determined according to the EK determination method defined in the description, is at least 600 ml/g and wherein the protein preparation has a fat content which, based on the dry mass and determined according to Caviezel, is less than 6 %, and a protein solubility which, determined according to the PN determination method defined in the description, is greater than 60 %.
A charger for charging an aerosol-generating device comprising: a housing defining a cavity for receiving the aerosol-generating device to be charged, the cavity having an opening , at least one electrical contact being located in the cavity ; and a cover comprising a plurality of moveable elements actuatable between an open position and a closed position, each of the moveable elements having an inner surface facing the cavity when in the closed position, in which; at least a portion of the inner surface of at least one of the moveable elements of the cover defines a profiled engagement member having a leading edge and a trailing edge , the profiled engagement member sloping into, or towards, the cavity when the respective moveable element is in the closed position, the slope increasing in a direction from the leading edge to the trailing edge of the profiled engagement member . a housing defining a cavity for receiving the aerosol-generating device to be charged, the cavity having an opening , at least one electrical contact being located in the cavity ; and a cover comprising a plurality of moveable elements actuatable between an open position and a closed position, each of the moveable elements having an inner surface facing the cavity when in the closed position, in which; at least a portion of the inner surface of at least one of the moveable elements of the cover defines a profiled engagement member having a leading edge and a trailing edge , the profiled engagement member sloping into, or towards, the cavity when the respective moveable element is in the closed position, the slope increasing in a direction from the leading edge to the trailing edge of the profiled engagement member .
A consumable electrode-fed welding-type system , comprising: a welding-type power source configured to provide welding-type power to a welding-type circuit, the welding-type circuit comprising a welding-type electrode and a first contact tip of a welding torch ; an electrode preheating circuit configured to provide preheating power through a first portion of the welding-type electrode via a second contact tip of the welding torch ; and an electrode preheating control circuit configured to control the preheating power based on a user input specifying the preheating power; characterised in that the system further comprises a user interface configured to receive a selection of an amount of weld penetration; wherein the electrode preheating control circuit is configured: in response to an increase in the selected weld penetration, to decrease the preheating power and increase the welding-type power; and in response to a decrease in the selected weld penetration, to increase the preheating power and decrease the welding-type power. a welding-type power source configured to provide welding-type power to a welding-type circuit, the welding-type circuit comprising a welding-type electrode and a first contact tip of a welding torch ; an electrode preheating circuit configured to provide preheating power through a first portion of the welding-type electrode via a second contact tip of the welding torch ; and an electrode preheating control circuit configured to control the preheating power based on a user input specifying the preheating power; characterised in that the system further comprises a user interface configured to receive a selection of an amount of weld penetration; wherein the electrode preheating control circuit is configured: in response to an increase in the selected weld penetration, to decrease the preheating power and increase the welding-type power; and in response to a decrease in the selected weld penetration, to increase the preheating power and decrease the welding-type power. in response to an increase in the selected weld penetration, to decrease the preheating power and increase the welding-type power; and in response to a decrease in the selected weld penetration, to increase the preheating power and decrease the welding-type power.
An implantable medical device, comprising: a housing including a power source, a sensing element , and an electronic circuit configured to generate a signal indicative of a physiological parameter measured by the sensing element, the housing having first and second opposing ends; and a fixation assembly including asymmetric fixation members coupled to the opposing ends of the housing, wherein each of the asymmetric fixation members includes a structure with a plurality of loops , wherein a first loop of the plurality of loops has a maximum pitch that is different from a maximum pitch of a second loop of the plurality of loops, wherein each of the asymmetric fixation members is configured in a figure-of-eight structure with each of the loops of the figure-of-eight structure having a different maximum pitch. a housing including a power source, a sensing element , and an electronic circuit configured to generate a signal indicative of a physiological parameter measured by the sensing element, the housing having first and second opposing ends; and a fixation assembly including asymmetric fixation members coupled to the opposing ends of the housing, wherein each of the asymmetric fixation members includes a structure with a plurality of loops , wherein a first loop of the plurality of loops has a maximum pitch that is different from a maximum pitch of a second loop of the plurality of loops, wherein each of the asymmetric fixation members is configured in a figure-of-eight structure with each of the loops of the figure-of-eight structure having a different maximum pitch.
A method for producing an individual dental impression tray, in which, first of all, an impression of the dentition and the palatal region of the patient is formed by means of a suitable impression material and a standard tray and a plaster cast in the form of a positive model is produced based on this impression and subsequently scanned or, alternatively, an oral scan of the dentition and the palatal region is directly produced, wherein an individual impression tray is subsequently produced by means of 3D printing based on the previously acquired data, and wherein the digital jaw model obtained based on the previously acquired data is transferred to specially programmed CAD software and the individual impression tray is designed by means of this CAD software, characterized in that the impression material to be used is selected from a plurality of different impression materials in the software, and in that the data obtained from the scan of the model or intraorally is modified by means of at least one parameter specific to a material property of the selected impression material and the individual impression tray is designed based on this modified data, wherein at least one clearance in mm, in which a block-out is provided between the impression tray and a jaw region and/or a tooth region of the molded dentition, is selected as a parameter that is dependent on the impression material used, and wherein this at least one clearance is a first clearance in mm for a general block-out, which is constant at all locations on the circumference around the jaw . characterized in that the impression material to be used is selected from a plurality of different impression materials in the software, and in that the data obtained from the scan of the model or intraorally is modified by means of at least one parameter specific to a material property of the selected impression material and the individual impression tray is designed based on this modified data, wherein at least one clearance in mm, in which a block-out is provided between the impression tray and a jaw region and/or a tooth region of the molded dentition, is selected as a parameter that is dependent on the impression material used, and wherein this at least one clearance is a first clearance in mm for a general block-out, which is constant at all locations on the circumference around the jaw .
Functional layer production method, in which plastics fibers are formed from at least one plastics starting material, the plastics starting material being melted into a plastics melt and the plastics melt being kept in a processing temperature range which is a temperature range between the melting temperature and a cross-linking temperature and in which the plastics melt remains flowable, and the plastics fibers being formed from the plastics melt without a chemical hardening reaction and spatial cross-linking of the plastics melt to form a thermoset starting in the processing temperature range, at least one thermoset-based resin-hardener mixture which is solid up to 40°C is used as the plastics starting material, and the plastics fibers are deposited to form a non-woven or a fiber web, the formed plastics fibers and the non-woven or the fiber web formed from the plastics fibers not yet consisting of thermoset, characterized in that the plastics starting material melts between 40°C and 90°C and/or cross-links only above 90°C.
A radio-controlled socket system having - a plurality of radio-controlled socket devices having plug receptacles , wherein each radio-controlled socket device has a base body in which the plug receptacles are formed and on which plug devices are arranged, which are suitable to be inserted into a socket, and display means for individualizing the respective radio-controlled socket device , - a central control device for wireless control of the radio-controlled socket devices , wherein the display means are designed as optical display device for reproduction of color information and / or for reproduction of symbols and wherein the display means are suitable to display a visual and individualizing optical encoding characterized in that the encoding is assignable to each radio-controlled socket device after coupling by the central control device . - a plurality of radio-controlled socket devices having plug receptacles , wherein each radio-controlled socket device has a base body in which the plug receptacles are formed and on which plug devices are arranged, which are suitable to be inserted into a socket, and display means for individualizing the respective radio-controlled socket device , - a central control device for wireless control of the radio-controlled socket devices ,
A bone anchoring device, including: an anchoring element having a shank for anchoring in bone and a head , a receiving part configured to receive the head of the anchoring element in a pivotable manner such that the shank can assume a plurality of angular positions relative to the receiving part, the receiving part having a passage defining a central axis (C), a pressure member arranged in the passage and configured to exert pressure onto the head for locking the head in the receiving part, and an insert member (7, 7', 7", 700) at least partially arranged in the pressure member and being movable relative to the pressure member so as to exert an adjustable pressure onto the head, wherein the pressure member and the insert member (7, 7', 7", 700) are coupled through an advancement structure, the advancement structure being a thread. an anchoring element having a shank for anchoring in bone and a head , a receiving part configured to receive the head of the anchoring element in a pivotable manner such that the shank can assume a plurality of angular positions relative to the receiving part, the receiving part having a passage defining a central axis (C), a pressure member arranged in the passage and configured to exert pressure onto the head for locking the head in the receiving part, and an insert member (7, 7', 7", 700) at least partially arranged in the pressure member and being movable relative to the pressure member so as to exert an adjustable pressure onto the head, wherein the pressure member and the insert member (7, 7', 7", 700) are coupled through an advancement structure, the advancement structure being a thread.
An aircraft, comprising a manual brake override system, the manual brake override system comprising: a gear system ; an electric motor in operative communication with the input of the gear system ; a holding brake in operative communication with the input of the gear system , configured to prevent movement within the gear system when engaged; a manual handwind in operative communication with the input of the gear system ; wherein the manual handwind and holding brake are configured such that the input of the gear system can be driven, with the manual handwind , whilst the holding brake is engaged; characterized in that the gear system , electric motor , holding brake and manual handwind form part of an actuator; wherein the actuator is a rotary actuator; and wherein the rotary actuator is used to fold a wing of the aircraft. a gear system ; an electric motor in operative communication with the input of the gear system ; a holding brake in operative communication with the input of the gear system , configured to prevent movement within the gear system when engaged; a manual handwind in operative communication with the input of the gear system ; wherein the manual handwind and holding brake are configured such that the input of the gear system can be driven, with the manual handwind , whilst the holding brake is engaged; characterized in that the gear system , electric motor , holding brake and manual handwind form part of an actuator; wherein the actuator is a rotary actuator; and wherein the rotary actuator is used to fold a wing of the aircraft.
An apparatus comprising: an elongated assembly, at least a portion of which is sized, shaped, or otherwise configured to be inserted into a human body to measure a pressure at an internal location within the body, wherein the elongated assembly includes: a guidewire (1302; 1402); an optical fiber (1304; 1404), extending longitudinally along the guidewire, the optical fiber configured to communicate light between a location outside of the body and a portion of the optical fiber that is to be located at or near the internal location within the body at which the pressure is to be measured and at least one optical fiber pressure sensor configured to be located on the elongated assembly to allow positioning at or near the internal location within the body at which pressure is to be measured, the optical fiber being attached to the optical fiber pressure sensor; wherein at least a portion of the guidewire defines a longitudinal optical fiber carrier that extends longitudinally along at least a portion of the length of the guidewire, wherein the optical fiber carrier is a groove (1306; 1406) in the guidewire; the optical fiber being disposed in the groove. a guidewire (1302; 1402); an optical fiber (1304; 1404), extending longitudinally along the guidewire, the optical fiber configured to communicate light between a location outside of the body and a portion of the optical fiber that is to be located at or near the internal location within the body at which the pressure is to be measured and at least one optical fiber pressure sensor configured to be located on the elongated assembly to allow positioning at or near the internal location within the body at which pressure is to be measured, the optical fiber being attached to the optical fiber pressure sensor; wherein at least a portion of the guidewire defines a longitudinal optical fiber carrier that extends longitudinally along at least a portion of the length of the guidewire, wherein the optical fiber carrier is a groove (1306; 1406) in the guidewire; the optical fiber being disposed in the groove.
A method for producing a component made of composite material, comprising the steps of: - providing a light-weight structure comprising hollow chambers and being configured as a honeycomb panel, - applying a plurality of layers of a fiber-reinforced composite mat which is pre-impregnated with a thermoplastic material, - pressing or calendering the composite generated, wherein a semi-finished product is cut or stamped out of the pressed or calendered composite, wherein the semi-finished product is deep-drawn under the influence of heat, wherein the light-weight structure is deformed and its shape maintained by the cooled thermoplast , and wherein the semi-finished product , after having been deformed, is back-injection-molded with a thermoplast , wherein the semi-finished product is back-injection-molded in a die which was also used for deforming the semi-finished product. - providing a light-weight structure comprising hollow chambers and being configured as a honeycomb panel, - applying a plurality of layers of a fiber-reinforced composite mat which is pre-impregnated with a thermoplastic material, - pressing or calendering the composite generated,
A method of resource allocation for sparse code multiple access, SCMA, signals in a base station, comprising: signaling resource region assignments to devices of respective device groups, wherein the resource region assignments assign a plurality of resource regions of a resource block to the respective device groups; and receiving the SCMA signals from the devices of the respective device groups, wherein the SCMA waveform-based signals from one group of the respective device groups are asynchronous with respect to the SCMA waveform-based signals from another group of the respective device groups, and wherein the devices of the one group of the respective device groups are synchronized with other devices of the one group. signaling resource region assignments to devices of respective device groups, wherein the resource region assignments assign a plurality of resource regions of a resource block to the respective device groups; and receiving the SCMA signals from the devices of the respective device groups, wherein the SCMA waveform-based signals from one group of the respective device groups are asynchronous with respect to the SCMA waveform-based signals from another group of the respective device groups, and wherein the devices of the one group of the respective device groups are synchronized with other devices of the one group.
A method for adding an IMSI, comprising: sending, by a user terminal, an international mobile subscriber identity, IMSI, update command to a smart card of the user terminal, wherein the smart card supports multiple IMSIs; receiving, by the user terminal, IMSI update request information returned by the smart card; sending (S330, s900), by the user terminal, an IMSI application request message to a server according to the IMSI update request information; receiving (S350, S910), by the user terminal, a response message returned by the server in response to the IMSI application request message; and transmitting (S360, S920), by the user terminal, the response message to the smart card of the user terminal, so that the smart card adds a new IMSI in the smart card according to information carried in the response message. sending, by a user terminal, an international mobile subscriber identity, IMSI, update command to a smart card of the user terminal, wherein the smart card supports multiple IMSIs; receiving, by the user terminal, IMSI update request information returned by the smart card; sending (S330, s900), by the user terminal, an IMSI application request message to a server according to the IMSI update request information; receiving (S350, S910), by the user terminal, a response message returned by the server in response to the IMSI application request message; and transmitting (S360, S920), by the user terminal, the response message to the smart card of the user terminal, so that the smart card adds a new IMSI in the smart card according to information carried in the response message.
A detergent composition comprising a fatty acid-transforming enzyme to impart increased suds longevity in a manual dishwashing process, wherein the enzyme is selected from EC 3.1.1.4, EC 3.1.1.5 (phospholipase A2 and lysophospholipase, respectively) and EC 3.1.1.32 (phospholipase Al), and the detergent composition additionally comprises a surfactant system, said surfactant system comprising one or a mixture of more than one surfactants and the surfactant system comprises an anionic surfactant, wherein the surfactant system comprises an amine oxide surfactant and/or a betaine surfactant in addition to an anionic surfactant.