mhurhangee/patent-ind-claim-en huggingface dataset:
A method for printing a garment, medical textile, medical implant, surgical mesh, stent or brace in three dimensions, the method comprising: shaping a three-dimensional template; depositing a filament onto at least one of a surface or one or more previously deposited filaments on the three-dimensional template in layers to form a three-dimensional part that conformably matches a shape of the three-dimensional template; and selectively modulating adhesion of the filament being deposited to the at least one of the surface or the one or more previously deposited filaments across a length of the filament being deposited to form a fabric such that the filament being deposited contacts but is unbonded with respect to the at least one of the surface or the one or more previously deposited filaments in one or more selected locations along a length of the at least one of the surface and the one or more previously deposited filaments. shaping a three-dimensional template; depositing a filament onto at least one of a surface or one or more previously deposited filaments on the three-dimensional template in layers to form a three-dimensional part that conformably matches a shape of the three-dimensional template; and selectively modulating adhesion of the filament being deposited to the at least one of the surface or the one or more previously deposited filaments across a length of the filament being deposited to form a fabric such that the filament being deposited contacts but is unbonded with respect to the at least one of the surface or the one or more previously deposited filaments in one or more selected locations along a length of the at least one of the surface and the one or more previously deposited filaments.
An electronic device comprising: a camera module (CM) that includes an image sensor and a shielding structure configured to shield components of the camera module from electromagnetic interference, EMI; and an external structure that two-dimensionally surrounds the camera module, at least a portion of the external structure being conductive, wherein the shielding structure comprises an accommodating portion configured to accommodate the image sensor , and a protruding portion that protrudes from the accommodating portion , and wherein the protruding portion of the shielding structure contacts at least the conductive portion of the external structure , characterised in that : the protruding portion is configured to maintain contact with the conductive portion of the external structure by elastic deformation. a camera module (CM) that includes an image sensor and a shielding structure configured to shield components of the camera module from electromagnetic interference, EMI; and an external structure that two-dimensionally surrounds the camera module, at least a portion of the external structure being conductive, wherein the shielding structure comprises an accommodating portion configured to accommodate the image sensor , and a protruding portion that protrudes from the accommodating portion , and wherein the protruding portion of the shielding structure contacts at least the conductive portion of the external structure ,
A hydrothermal process for treatment of a waste stream including sodium oxalate Na 2 C 2 O 4 , the method comprising the steps of: (a) feeding the stream through a tubular reactor at a dilution sufficient to avoid precipitation, at a temperature in the range of 250°C to 330°C, a pressure in the range of 90 to 160 Bar, and with a retention time in the range of 8 minutes to 30 minutes to provide treated liquid, (b) separating the treated liquid to provide a gas and a liquid comprising sodium carbonate, (c) treating the gas from step (b) to provide a gas discharge with carbon dioxide, and (d) treating the separated liquid from step (b) to provide a treated stream. (a) feeding the stream through a tubular reactor at a dilution sufficient to avoid precipitation, at a temperature in the range of 250°C to 330°C, a pressure in the range of 90 to 160 Bar, and with a retention time in the range of 8 minutes to 30 minutes to provide treated liquid, (b) separating the treated liquid to provide a gas and a liquid comprising sodium carbonate, (c) treating the gas from step (b) to provide a gas discharge with carbon dioxide, and (d) treating the separated liquid from step (b) to provide a treated stream.
Method for determining a resulting yaw moment (rGM) for driving dynamics regulation of a vehicle, wherein at least one driving dynamics target variable is determined, wherein at least one reference yaw moment (RGM) is determined as a function of the at least one driving dynamics target variable, wherein at least one available additional yaw moment is determined which can be generated by a device for generating an additional yaw moment, wherein the resulting yaw moment (rGM) is determined as a function of the reference yaw moment (RGM) and of the at least one available additional yaw moment, characterized in that the available additional yaw moment can be generated independently of the reference yaw moment, wherein the resulting yaw moment (rGM) is determined as the difference between the reference yaw moment (RGM) and the at least one available additional yaw moment.
A communication method, characterized by comprising: receiving (S501), by a first access and mobility management function network element, a first message from a terminal device, wherein the first message is used to request to register the terminal device with a first network, the first message comprises first identification information of the terminal device, the first access and mobility management function network element is located in the first network, and the first identification information is identification information of the terminal device in the first network; obtaining (S502), by the first access and mobility management function network element, second identification information of the terminal device based on the first identification information, wherein the second identification information is identification information of the terminal device in a second network; and sending (S503), by the first access and mobility management function network element, a second message to a second access and mobility management function network element, wherein the second message is used to request to register the terminal device with the second network, the second message comprises the second identification information, and the second access and mobility management function network element is located in the second network. receiving (S501), by a first access and mobility management function network element, a first message from a terminal device, wherein the first message is used to request to register the terminal device with a first network, the first message comprises first identification information of the terminal device, the first access and mobility management function network element is located in the first network, and the first identification information is identification information of the terminal device in the first network; obtaining (S502), by the first access and mobility management function network element, second identification information of the terminal device based on the first identification information, wherein the second identification information is identification information of the terminal device in a second network; and sending (S503), by the first access and mobility management function network element, a second message to a second access and mobility management function network element, wherein the second message is used to request to register the terminal device with the second network, the second message comprises the second identification information, and the second access and mobility management function network element is located in the second network.
A soluble ectonucleotide pyrophosphatase phosphodiesterase (NPP1) for use in a method for reducing vascular calcification, the method comprising administering to a subject with below normal plasma pyrophosphate (PPi) or above normal serum phosphate (Pi) two or more doses of soluble NPP1, wherein each dose contains an amount of soluble NPP1 that is sufficient to achieve a transient increase in plasma PPi in the subject, the transient increase in plasma PPi characterized by a peak plasma PPi level that is at least 40% of the normal plasma PPi level and a return to base-line plasma PPi level within 48 hours after administration of the dose; and wherein (a) the time period between doses is at least 2 days; (b) the normal level of plasma PPi is 2.63 ± 0.47 micromolar; and (c) the normal level of serum Pi is 1.5 ± 0.5 millimolar.
An interface for a frozen dessert machine comprising: a) a freezer door having opposed front and rear sides and including at least one recessed mounting pocket formed in the rear side thereof, the at least one mounting pocket having a cornice covering an upper portion thereof, wherein the freezer door is made from plastic; and b) at least one elongated baffle having opposed proximal and distal end portions, the proximal end portion of the at least one baffle including a retention flange that is dimensioned and configured for detachable reception within the at least one mounting pocket of the freezer door behind the cornice covering the upper portion thereof, wherein the at least one baffle is formed from molded plastic material. a) a freezer door having opposed front and rear sides and including at least one recessed mounting pocket formed in the rear side thereof, the at least one mounting pocket having a cornice covering an upper portion thereof, wherein the freezer door is made from plastic; and b) at least one elongated baffle having opposed proximal and distal end portions, the proximal end portion of the at least one baffle including a retention flange that is dimensioned and configured for detachable reception within the at least one mounting pocket of the freezer door behind the cornice covering the upper portion thereof, wherein the at least one baffle is formed from molded plastic material.
A heater comprising a plurality of zones each defined by an electrode path disposed through a length of the heater and having a width (W 1 , W 2 , W 3 , W 4 ) that varies along the length of the heater, at least two zones having a variable power density gradient through the length of each zone, where the variable power density gradient of the at least two zones is different from one another.
A method for operating a communication network , wherein - a communication network provides a sender of a distributed real-time application and a receiver of the distributed real-time application with a communication connection , the distributed real-time application defining a minimum operable data rate; - the sender periodically transmits data packets to the receiver via the provided communication connection at a data rate higher than the defined minimum operable data rate; - the sender steadily determines a currently available bitrate of the communication connection and adjusts the data rate to a data rate lower than the determined currently available bitrate by a data rate offset defined by the distributed real-time application ; - a node of the communication network learns the defined data rate offset and provides a guaranteed minimum bitrate of the communication connection higher than a booked minimum bitrate of the communication connection by the learned data rate offset. - a communication network provides a sender of a distributed real-time application and a receiver of the distributed real-time application with a communication connection , the distributed real-time application defining a minimum operable data rate; - the sender periodically transmits data packets to the receiver via the provided communication connection at a data rate higher than the defined minimum operable data rate; - the sender steadily determines a currently available bitrate of the communication connection and adjusts the data rate to a data rate lower than the determined currently available bitrate by a data rate offset defined by the distributed real-time application ; - a node of the communication network learns the defined data rate offset and provides a guaranteed minimum bitrate of the communication connection higher than a booked minimum bitrate of the communication connection by the learned data rate offset.
A method for locating an animal with the aid of radio waves, wherein the animal is located on a ground and is equipped with a node of the radio location system that is to be located and wherein at least one further node of the radio location system is each located on one known position, wherein radio signals are transmitted between the node to be located and the nodes with known position and wherein the distance between one or more nodes of known position on the one hand and the node to be located on the other hand is calculated from parameters measured during signal transmissions and/or differences in the distances from the individual nodes of known position to the node to be located are calculated and wherein further possible positions of the node to be located are calculated from the calculation results and wherein the animal is provided with one or more acceleration sensors through which accelerations as a result of movements of the animal are measured and wherein it is inferred from these measurement results by means of a data processing system on the basis of a comparison with exemplary acceleration processes, which of several possible distinguishable activities the animal is currently performing, characterized in that it is stored in a data processing system, at which height above the ground the node to be located is on the animal at which activity of the animal, wherein at least two activities that can be distinguished from one another are assigned different heights and wherein for the calculation of the position of the node to be located from the measurement results of the signal transmissions, the assumption of the height assigned to the current activity as a boundary condition is included.
A quartz crystal microbalance, QCM, sensor apparatus comprising: a sensor holder having a compartment for receiving a QCM sensor , a plurality of sample fluid containers , a fluid selector unit for selectively placing one of said sample fluid containers in fluid connection with a measurement cell formed above the received QCM sensor , said fluid selector unit having: a plurality of inlet ports , each inlet port in fluid connection with a sample fluid container, a sensor outlet configured to be in fluid connection with said sensor, and a valve arrangement for selectively connecting one of said inlets to said outlet, and a thermoelectrical element arranged in thermal connection with the sensor holder , wherein said fluid selector unit is sandwiched between the fluid sample containers and the sensor holder , and wherein that the sensor apparatus further comprises a thermally insulating housing comprising another compartment enclosing the sample fluid containers , fluid selector unit and sensor holder , an interior of the other compartment being configured to have a substantially homogeneous temperature. a sensor holder having a compartment for receiving a QCM sensor , a plurality of sample fluid containers , a fluid selector unit for selectively placing one of said sample fluid containers in fluid connection with a measurement cell formed above the received QCM sensor , said fluid selector unit having: a plurality of inlet ports , each inlet port in fluid connection with a sample fluid container, a sensor outlet configured to be in fluid connection with said sensor, and a valve arrangement for selectively connecting one of said inlets to said outlet, and a plurality of inlet ports , each inlet port in fluid connection with a sample fluid container, a sensor outlet configured to be in fluid connection with said sensor, and a valve arrangement for selectively connecting one of said inlets to said outlet, and a thermoelectrical element arranged in thermal connection with the sensor holder , wherein said fluid selector unit is sandwiched between the fluid sample containers and the sensor holder , and wherein that the sensor apparatus further comprises a thermally insulating housing comprising another compartment enclosing the sample fluid containers , fluid selector unit and sensor holder , an interior of the other compartment being configured to have a substantially homogeneous temperature.
A grinding element configured to be coupled to a carrier element comprising: abrasive particles embedded in a metal matrix having a network of interconnected pores; a first face ; a second face ; a grinding portion between the first face and the second face, where the grinding portion wears in use; a bonding edge between the first face and the second face and opposite the grinding edge, where the bonding edge of each grinding element is configured to be bonded to the carrier element; a height (H) equal to the distance between the grinding portion and the bonding edge; and a first indicator mark disposed on the first face of the grinding element characterised in that said first indicator mark is disposed at a first distance from the bonding edge and parallel to the bonding edge. abrasive particles embedded in a metal matrix having a network of interconnected pores; a first face ; a second face ; a grinding portion between the first face and the second face, where the grinding portion wears in use; a bonding edge between the first face and the second face and opposite the grinding edge, where the bonding edge of each grinding element is configured to be bonded to the carrier element; a height (H) equal to the distance between the grinding portion and the bonding edge; and a first indicator mark disposed on the first face of the grinding element characterised in that said first indicator mark is disposed at a first distance from the bonding edge and parallel to the bonding edge.
Pipette head for a pipette device , in particular a pipette robot, with a pipette channel , to which a pipette tip , in particular a disposable pipette tip, can be coupled, wherein the pipette channel comprises a pressure generating device for producing pressure changes in the pipette tip for the aspirating or dispensing of sample fluid into the pipette tip or out of it respectively, and with at least one mechanical coupling means and at least one electrical coupling means , which are arranged at the pipette head , and which are configured such as to be connected to a respective mechanical or electrical counter-coupling means , wherein the at least one mechanical coupling means and the associated counter-coupling means are configured in such a way that the pipette head can be secured to the pipette device in a detachable manner and free of play, characterized in that the pipette head comprises a sealing actuation device, which is configured in such a way that a fluid-tight connection can be produced between a pipette tip and the pipette channel and/or released after the use of the pipette tip , wherein a drive means , which can be brought into work connection or is in work connection with the sealing actuation device, is not arranged at the pipette head , wherein the sealing actuation device of the pipette head and the drive means driving the sealing actuation device interact operationally in such a way that the fluid-tight connection between a pipette tip and the pipette channel is produced and/or can be detached after the use of the pipette tip. with at least one mechanical coupling means and at least one electrical coupling means , which are arranged at the pipette head , and which are configured such as to be connected to a respective mechanical or electrical counter-coupling means , wherein the at least one mechanical coupling means and the associated counter-coupling means are configured in such a way that the pipette head can be secured to the pipette device in a detachable manner and free of play, characterized in that the pipette head comprises a sealing actuation device, which is configured in such a way that a fluid-tight connection can be produced between a pipette tip and the pipette channel and/or released after the use of the pipette tip , wherein a drive means , which can be brought into work connection or is in work connection with the sealing actuation device, is not arranged at the pipette head , wherein the sealing actuation device of the pipette head and the drive means driving the sealing actuation device interact operationally in such a way that the fluid-tight connection between a pipette tip and the pipette channel is produced and/or can be detached after the use of the pipette tip.
Method for connecting a filter material to a fluidic component, wherein it comprises the step of: materially bonding the filter material to the fluidic component by means of a material bonding process, wherein the filter material is joined to a functional component of the fluidic component by a material bonding process, the connection is performed as a step of an assembly process in which the functional component is mounted in the fluidic component, the fluidic component is a valve , the functional component is a nozzle , the material bonding process is an ultrasonic welding process, the suitable shape and size of the filter material is created by punching, the punching is carried out by means of a welding tool for the ultrasonic welding process, and the punching and welding of the ultrasonic welding process are carried out in a single working stroke of the welding tool , characterized in that, the filter material is supplied automatically by means of a band , and the welding tool subsequently moves in order to punch the filter material out of the band and then moves further in the direction of the nozzle and when the punching tool strikes the punched out filter material an ultrasonic vibration is transmitted from the punching tool via the filter material to the nozzle , whereby the filter material and a material of the nozzle are plasticized. materially bonding the filter material to the fluidic component by means of a material bonding process, wherein the filter material is joined to a functional component of the fluidic component by a material bonding process, the connection is performed as a step of an assembly process in which the functional component is mounted in the fluidic component, the fluidic component is a valve , the functional component is a nozzle , the material bonding process is an ultrasonic welding process, the suitable shape and size of the filter material is created by punching, the punching is carried out by means of a welding tool for the ultrasonic welding process, and the punching and welding of the ultrasonic welding process are carried out in a single working stroke of the welding tool , characterized in that, the filter material is supplied automatically by means of a band , and the welding tool subsequently moves in order to punch the filter material out of the band and then moves further in the direction of the nozzle and when the punching tool strikes the punched out filter material an ultrasonic vibration is transmitted from the punching tool via the filter material to the nozzle , whereby the filter material and a material of the nozzle are plasticized.