mhurhangee/patent-ind-claim-en huggingface dataset:
Vertical packaging machine comprising a vertical forming tube with a product inlet opening , a product outlet opening downstream of the inlet opening and an inner passage section, characterized in that the machine further comprises retaining means associated with the forming tube and comprising at least one retaining device configured for being displaced between a blocking position (P1) in which it at least partially blocks the inner passage section of the forming tube between the inlet opening and the outlet opening , and a release position (P2) in which it does not block said inner passage section of the forming tube , with the retaining device , in the blocking position (P1), being arranged at a fixed specific height with respect to the outlet opening of the forming tube and configured for preventing a product from passing through said inner passage section of the forming tube , and with said retaining device further being configured for, upon transitioning from the blocking position (P1) to the release position (P2), being at least partially withdrawn from the path to be followed by said product through said inner passage section of the forming tube .
Heating compartment for supplying heat, wherein the heating compartment comprises a combustion chamber for generating the heat by combustion of a fuel, and a measuring sensor is arranged in the heating compartment and/or at the combustion chamber for detecting a measurement variable, wherein an autonomous power supply is associated with the measuring sensor so that the measuring sensor is freely operable by an external cable-based power supply, characterised in that the measuring sensor and/or the associated autonomous power supply is or are clamped in a material of the heating compartment and/or the combustion chamber by means of a piezo element .
Method for controlling a dynamoelectric machine , in particular a dynamoelectric rotary machine, comprising the following steps: - ascertaining an ambient air pressure of the dynamoelectric machine by means of an apparatus for determining air pressure , - adapting a power output of the dynamoelectric machine as a function of the ambient air pressure, characterised in that this counteracts an air pressure which drops as installation altitude rises and an associated deterioration of cooling properties, such that a sufficient cooling of the machine is ensured, wherein the ambient air pressure is determined by ascertaining an altitude and/or wherein the ambient air pressure is measured, in particular by means of a barometer. - ascertaining an ambient air pressure of the dynamoelectric machine by means of an apparatus for determining air pressure , - adapting a power output of the dynamoelectric machine as a function of the ambient air pressure, characterised in that this counteracts an air pressure which drops as installation altitude rises and an associated deterioration of cooling properties, such that a sufficient cooling of the machine is ensured, wherein the ambient air pressure is determined by ascertaining an altitude and/or wherein the ambient air pressure is measured, in particular by means of a barometer.
A method comprising: determining a printing condition of a first print head ; determining whether to use priming or spitting to soak a portion of a web in a printing device with printing liquid from the first print head in dependence on the determined printing condition of the first print head; soaking the portion of the web with the printing liquid using priming or spitting from the first print head of the printing device in dependence on the determined use of priming or spitting; and wiping at least one nozzle of a second print head in the printing device with the soaked portion of the web. determining a printing condition of a first print head ; determining whether to use priming or spitting to soak a portion of a web in a printing device with printing liquid from the first print head in dependence on the determined printing condition of the first print head; soaking the portion of the web with the printing liquid using priming or spitting from the first print head of the printing device in dependence on the determined use of priming or spitting; and wiping at least one nozzle of a second print head in the printing device with the soaked portion of the web.
A processing machine for the production of dental workpieces (W) from a blank , comprising - a housing in which a first chamber (K1) and a second chamber (K2) which is separate from the first chamber (K1) are formed, - a first holding device for a blank with the first holding device being arranged in the first chamber (K1) and being movable relative to the housing , - a second holding device for a blank with the second holding device being arranged in the second chamber (K2) and being movable relative to the housing , and - a processing device being movable relative to the housing , wherein a blank held in the first holding device and a blank held in the second holding device can be processed with the processing device , characterized in that the housing has a limiting wall with a first access opening (Z1) to the first chamber (K1) and a second access opening (Z2) to the second chamber (K2), wherein the processing device is movably mounted on the limiting wall . - a housing in which a first chamber (K1) and a second chamber (K2) which is separate from the first chamber (K1) are formed, - a first holding device for a blank with the first holding device being arranged in the first chamber (K1) and being movable relative to the housing , - a second holding device for a blank with the second holding device being arranged in the second chamber (K2) and being movable relative to the housing , and - a processing device being movable relative to the housing ,
An apparatus for additive manufacturing of a three-dimensional object by successive layer-by-layer selective illumination and thus selective solidification of construction material layers formed in a construction plane , consisting of a construction material that can be solidified by means of at least one energy beam , comprising a housing structure , characterized by a combined coating and illumination assembly firmly arranged or formed on the housing structure of the apparatus, comprising a coating device provided for applying the construction material into the construction plane and for forming construction material layers to be solidified in the construction plane , and an illumination device provided for the selective illumination of respective construction material layers formed in the construction plane by means of the coating device , and a carrying device which comprises at least one carrying element that comprises the construction plane and is movably supported in a horizontal movement plane relative to the combined coating and illumination assembly ; wherein the carrying element is moveable relative to the combined coating and illumination assembly in the horizontally oriented movement plane back and forth, wherein both coating and illumination processes can be carried out during respective movements of the carrying element relative to the combined coating and illumination assembly , wherein movement of the carrying element relative to the combined coating and illumination assembly allows for formation, at least in sections, in particular fully, of a defined construction material layer and selective illumination, at least in sections, in particular fully, of the construction material layer formed. a combined coating and illumination assembly firmly arranged or formed on the housing structure of the apparatus, comprising a coating device provided for applying the construction material into the construction plane and for forming construction material layers to be solidified in the construction plane , and an illumination device provided for the selective illumination of respective construction material layers formed in the construction plane by means of the coating device , and a carrying device which comprises at least one carrying element that comprises the construction plane and is movably supported in a horizontal movement plane relative to the combined coating and illumination assembly ; wherein the carrying element is moveable relative to the combined coating and illumination assembly in the horizontally oriented movement plane back and forth, wherein both coating and illumination processes can be carried out during respective movements of the carrying element relative to the combined coating and illumination assembly , wherein movement of the carrying element relative to the combined coating and illumination assembly allows for formation, at least in sections, in particular fully, of a defined construction material layer and selective illumination, at least in sections, in particular fully, of the construction material layer formed.
A method for controlling a robot by a controller , wherein the robot comprises a plurality of motors, the method performed by the controller comprising: obtaining parameters of the plurality of motors, the parameters being associated with the robot to be controlled by the controller ; retrieving, based on obtained parameters, models of the plurality of motors from a database accessible to the controller ; determining a first identity of the robot based on the parameters comprising determining the first identity from the retrieved models; comparing the first identity with a pre-stored second identity; and in response to the first identity matching the second identity, controlling operations of the robot with the controller , wherein obtaining the parameters of the plurality of motors comprises: sending at least one excitation signal to the plurality of motors of the robot from the controller ; receiving the feedback signals that are provided by the plurality of motors in response to the at least one excitation signal; and determining the parameters of the plurality of motors based on the feedback signals and the at least one excitation signal. obtaining parameters of the plurality of motors, the parameters being associated with the robot to be controlled by the controller ; retrieving, based on obtained parameters, models of the plurality of motors from a database accessible to the controller ; determining a first identity of the robot based on the parameters comprising determining the first identity from the retrieved models; comparing the first identity with a pre-stored second identity; and in response to the first identity matching the second identity, controlling operations of the robot with the controller , wherein obtaining the parameters of the plurality of motors comprises: sending at least one excitation signal to the plurality of motors of the robot from the controller ; receiving the feedback signals that are provided by the plurality of motors in response to the at least one excitation signal; and determining the parameters of the plurality of motors based on the feedback signals and the at least one excitation signal. sending at least one excitation signal to the plurality of motors of the robot from the controller ; receiving the feedback signals that are provided by the plurality of motors in response to the at least one excitation signal; and determining the parameters of the plurality of motors based on the feedback signals and the at least one excitation signal.
A phosphorous-containing flame retarding phenol-formaldehyde novolac, comprising a compound with the general formula represented by formula (I): wherein A and A' are individually Y is -CH 2 - or -CH 2 -O-CH 2 -, and Y in different units are the same or different; Z is unsubstituted,-C(CH 3 ) 2 -, -O-, -S- or -S(O) 2 -, and Z in different units are the same or different; R is H, a C1-C10 alkyl group, a C6-C18 aromatic group, and R in different units are the same or different; p is 0-2; q is 0-3; a is an integer greater than or equal to 1; b is an integer greater than or equal to 1; m is 0-6; wherein Ar and Ar' are individually R' is H, a C1-C4 alkyl group or a C6-C18 aromatic group, and R' in different units are the same or different; and n is 0-5. wherein A and A' are individually Y is -CH 2 - or -CH 2 -O-CH 2 -, and Y in different units are the same or different; Z is unsubstituted,-C(CH 3 ) 2 -, -O-, -S- or -S(O) 2 -, and Z in different units are the same or different; R is H, a C1-C10 alkyl group, a C6-C18 aromatic group, and R in different units are the same or different; p is 0-2; q is 0-3; a is an integer greater than or equal to 1; b is an integer greater than or equal to 1; m is 0-6; wherein Ar and Ar' are individually R' is H, a C1-C4 alkyl group or a C6-C18 aromatic group, and R' in different units are the same or different; and n is 0-5.
A method of controlling a supply of purge gas to reduce leakage past a dynamic seal for sealing a vacuum chamber , the dynamic seal comprising at least a first sealing member (12-1) having opposing first and second sides (12-1A, 12-1B), the method comprising: determine a first operating pressure on the first side of the first sealing member (12-1); determine a second operating pressure on the second side of the first sealing member (12-1); determining a pressure differential (ΔP) between the first operating pressure (P1) on the first side of the first sealing member (12-1) and the second operating pressure (P2) on the second side of the first sealing member (12-1); controlling the supply of purge gas to the second side of the first sealing member (12-1) in dependence on the determined pressure differential (ΔP); determine a rate of change (dP1/dt) of the first operating pressure (P1); and identify when the determined rate of change (dP1/dt) is less than a predefined rate of change threshold; wherein the method comprises reducing or inhibiting the supply of purge gas when the determined rate of change (dP1/dt) of the first operating pressure (P1) is less than the predefined rate of change threshold. determine a first operating pressure on the first side of the first sealing member (12-1); determine a second operating pressure on the second side of the first sealing member (12-1); determining a pressure differential (ΔP) between the first operating pressure (P1) on the first side of the first sealing member (12-1) and the second operating pressure (P2) on the second side of the first sealing member (12-1); controlling the supply of purge gas to the second side of the first sealing member (12-1) in dependence on the determined pressure differential (ΔP); determine a rate of change (dP1/dt) of the first operating pressure (P1); and identify when the determined rate of change (dP1/dt) is less than a predefined rate of change threshold; wherein the method comprises reducing or inhibiting the supply of purge gas when the determined rate of change (dP1/dt) of the first operating pressure (P1) is less than the predefined rate of change threshold.
Card reading device for a self-service terminal, having a housing into which a card can be pulled in order to be read, having mechatronic transducers comprising sensors and/or actuators which are connected to an evaluation apparatus , the mechatronic transducers being arranged in or on the housing in such a manner that the integrity of the card reading device , in particular the housing , can be checked, wherein the evaluation apparatus is configured to receive, from the mechatronic transducers, a signal which is excited by some of the mechatronic transducers and is detected by some of the mechatronic transducers, to compare said signal with reference data and, in the event of a defined deviation, to output a warning signal representing a lack of integrity of the card reading device; the mechatronic transducers being piezoelectric elements which function as an actuator or a sensor, with the result that an actuator can also function as a sensor, characterized in that one of the two functionalities of the mechatronic transducers is implemented depending on the control, wherein the evaluation apparatus determines the function as an actuator or a sensor.
A method for supporting direct wireless communication between a first user equipment, UE, and a second UE, the method comprising at the first UE: identifying a wireless channel allocated for a data transmission to be transmitted to the second UE using a first radio access technology, RAT, during a first time period; transmitting a message using a second RAT indicating that the data transmission is to occur during the first time period, the second RAT being a wireless local area network, WLAN, and being different from the first RAT, the message being transmitted during a second time period designated for second RAT transmissions by one or more other user equipments, UEs, wherein transmitting the message comprises one of: transmitting the message across a first band of frequencies that overlaps with and is wider than a second band of frequencies used for the data transmission; transmitting multiple messages simultaneously during the second time period using the second RAT across respective first bands of frequencies that overlap with and are collectively wider than a second band of frequencies for the data transmission; and transmitting the data transmission to the second UE over the wireless channel during the first time period using the first RAT. identifying a wireless channel allocated for a data transmission to be transmitted to the second UE using a first radio access technology, RAT, during a first time period; transmitting a message using a second RAT indicating that the data transmission is to occur during the first time period, the second RAT being a wireless local area network, WLAN, and being different from the first RAT, the message being transmitted during a second time period designated for second RAT transmissions by one or more other user equipments, UEs, wherein transmitting the message comprises one of: transmitting the message across a first band of frequencies that overlaps with and is wider than a second band of frequencies used for the data transmission; transmitting multiple messages simultaneously during the second time period using the second RAT across respective first bands of frequencies that overlap with and are collectively wider than a second band of frequencies for the data transmission; and transmitting the message across a first band of frequencies that overlaps with and is wider than a second band of frequencies used for the data transmission; transmitting multiple messages simultaneously during the second time period using the second RAT across respective first bands of frequencies that overlap with and are collectively wider than a second band of frequencies for the data transmission; and transmitting the data transmission to the second UE over the wireless channel during the first time period using the first RAT.
Wind turbine , with a nacelle with a stationary section and a rotating section , which comprises a rotor of an electric generator, a cooling circuit comprising a cooling unit on the rotor , a heat exchanger in or on the stationary part of the wind turbine, a cooling circuit pump for pumping cooling liquid into the cooling circuit and a rotary feedthrough coupling the cooling unit of the rotor to the heat exchanger , a leakage collection tank in the area of the rotary feedthrough , which is configured to collect leakage fluids from the rotary feedthrough , a pump for pumping the cooling liquid from the leakage collection tank into an expansion tank of the cooling circuit , wherein the expansion tank has a valve to depressurise the expansion tank so that liquid can be pumped from the collection tank into the expansion tank by means of the pump , and a control unit , which is coupled to the cooling circuit pump and the pump , in order to control the cooling circuit by means of the cooling circuit pump and to control a pumping out of cooling liquid located in the collecting tank by means of the pump . a nacelle with a stationary section and a rotating section , which comprises a rotor of an electric generator, a cooling circuit comprising a cooling unit on the rotor , a heat exchanger in or on the stationary part of the wind turbine, a cooling circuit pump for pumping cooling liquid into the cooling circuit and a rotary feedthrough coupling the cooling unit of the rotor to the heat exchanger , a leakage collection tank in the area of the rotary feedthrough , which is configured to collect leakage fluids from the rotary feedthrough , a pump for pumping the cooling liquid from the leakage collection tank into an expansion tank of the cooling circuit , wherein the expansion tank has a valve to depressurise the expansion tank so that liquid can be pumped from the collection tank into the expansion tank by means of the pump , and a control unit , which is coupled to the cooling circuit pump and the pump , in order to control the cooling circuit by means of the cooling circuit pump and to control a pumping out of cooling liquid located in the collecting tank by means of the pump .
A genetically engineered Kluyveromyces sp. yeast cell wherein said yeast cell comprising at least a genetic modification that deletes a nucleotide sequence encoding for an amino acid SEQ ID No. 2.
A peptide product selected from: 1) 2) 3) 4) 5) 6) 7) 8) 9) 10) 11) 12) 13) 14) 15) or a pharmaceutically acceptable salt thereof, wherein residues marked by an asterisk (*) are linked to form a cyclic lactam in the sequence. 1) 2) 3) 4) 5) 6) 7) 8) 9) 10) 11) 12) 13) 14) 15)
A method of feeding a growing fish, comprising feeding the growing fish a fish food composition comprising an effective amount of purified preen oil to improve survival and/or stimulate growth in the growing fish.
An audio processing method, applied to a cloud interactive system, the cloud interactive system comprising a user equipment and a server, and the method comprising: detecting, by the server, a function call from an interactive application to an audio interface when running the interactive application; generating, by the server, according to a type of the audio interface, an audio instruction corresponding to the type when the function call from the interactive application to the audio interface is detected; when the server determines that the audio instruction needs audio data according to the type of the audio interface, determining, by the server, whether there exists a sending record that the audio data corresponding to the audio instruction is already sent to the user equipment; and sending, by the server, the audio instruction to the user equipment if the sending record exists, wherein the audio instruction is used to instruct the user equipment to use the cached audio data when executing the audio instruction; calling, by the server, the audio data corresponding to the audio instruction if the sending record does not exist, and sequentially sending the audio data and the audio instruction to the user equipment. detecting, by the server, a function call from an interactive application to an audio interface when running the interactive application; generating, by the server, according to a type of the audio interface, an audio instruction corresponding to the type when the function call from the interactive application to the audio interface is detected; when the server determines that the audio instruction needs audio data according to the type of the audio interface, determining, by the server, whether there exists a sending record that the audio data corresponding to the audio instruction is already sent to the user equipment; and sending, by the server, the audio instruction to the user equipment if the sending record exists, wherein the audio instruction is used to instruct the user equipment to use the cached audio data when executing the audio instruction; calling, by the server, the audio data corresponding to the audio instruction if the sending record does not exist, and sequentially sending the audio data and the audio instruction to the user equipment.