mhurhangee/patent-ind-claim-en huggingface dataset:
A routing method for routing task instructions between secured computer systems in a computer network infrastructure, comprising the steps of: - invoking routing information stored in a key computer system, the routing information defining at least one routing to one or more computer systems to be mandatorily included along a communication path, in a network of the computer network infrastructure, between the key computer system, a group of one or more broker computer systems, and a target computer system within the computer network infrastructure, - creating a task file in the key computer system, the task file comprising at least the routing information and a task description of at least one task for the target computer system, - transmitting the task file based on the routing information along the communication path from the key computer system to the target computer system by means of the group of broker computer systems, - checking the validity of the task file by the target computer system, - executing at least one task in the target computer system based on the task file if the checking of the validity of the task file was successful, wherein both the key computer system and the target computer system keep predetermined network ports used for this method closed in such a way that no connection establishment to the key computer system or to the target computer system from the outside is permitted via the network of the computer network infrastructure and thus access to the key computer system or the target computer system via the network of the computer network infrastructure by means of these network ports is prevented, but wherein the key computer system and the target computer system each establish a connection to a broker computer system from the group of broker computer systems for storing the task file in or retrieving the task file from the broker computer system. - invoking routing information stored in a key computer system, the routing information defining at least one routing to one or more computer systems to be mandatorily included along a communication path, in a network of the computer network infrastructure, between the key computer system, a group of one or more broker computer systems, and a target computer system within the computer network infrastructure, - creating a task file in the key computer system, the task file comprising at least the routing information and a task description of at least one task for the target computer system, - transmitting the task file based on the routing information along the communication path from the key computer system to the target computer system by means of the group of broker computer systems, - checking the validity of the task file by the target computer system, - executing at least one task in the target computer system based on the task file if the checking of the validity of the task file was successful,
A method for improving image quality of image data, comprising: obtaining , for each of a plurality of voxels of image data, a set of entries of a dictionary, wherein an entry represents either a mapping between a lower resolution patch of voxels and a corresponding higher resolution patch of voxel or a local neighborhood around a voxel; deriving , for each of the plurality of voxels, a subspace, wherein the subspace is for one of the mapping or the local neighborhood; and restoring the image data with target image data based on the derived subspaces, wherein the target image data is image data with higher image resolution or reduced image noise, wherein the entries are patches, wherein the deriving of the subspace, for each voxel of the plurality of voxels, comprises: identifying patches in the dictionary that are similar to a currently processed patch around the voxel; creating a data matrix with the identified patches, wherein each row in the matrix corresponds to one patch; performing a principle component analysis PCA on the matrix; and estimating a number m of principle components corresponding to the m largest eigenvalues and modelling the currently processed patch; wherein the m principle components define the derived subspace. obtaining , for each of a plurality of voxels of image data, a set of entries of a dictionary, wherein an entry represents either a mapping between a lower resolution patch of voxels and a corresponding higher resolution patch of voxel or a local neighborhood around a voxel; deriving , for each of the plurality of voxels, a subspace, wherein the subspace is for one of the mapping or the local neighborhood; and restoring the image data with target image data based on the derived subspaces, wherein the target image data is image data with higher image resolution or reduced image noise, wherein the entries are patches, wherein the deriving of the subspace, for each voxel of the plurality of voxels, comprises: identifying patches in the dictionary that are similar to a currently processed patch around the voxel; creating a data matrix with the identified patches, wherein each row in the matrix corresponds to one patch; performing a principle component analysis PCA on the matrix; and estimating a number m of principle components corresponding to the m largest eigenvalues and modelling the currently processed patch; wherein the m principle components define the derived subspace.
A trainable transceiver for installation in a vehicle and for controlling a remote device , comprising: a transceiver circuit configured based on training information to communicate with the remote device ; a communications device configured to communicate with a mobile communications device ; and a control circuit coupled to the transceiver circuit , and coupled to the communications device, wherein the control circuit is configured to: transmit diagnostic information related to the trainable transceiver to a mobile communications device via the communications device, characterised in that the control circuit is further configured to: receive a signal generated based on the diagnostic information from the mobile device , and adjust a frequency used by the transceiver circuit to communicate with the remote device based on the received signal. a transceiver circuit configured based on training information to communicate with the remote device ; a communications device configured to communicate with a mobile communications device ; and a control circuit coupled to the transceiver circuit , and coupled to the communications device, wherein the control circuit is configured to: transmit diagnostic information related to the trainable transceiver to a mobile communications device via the communications device, characterised in that the control circuit is further configured to: receive a signal generated based on the diagnostic information from the mobile device , and adjust a frequency used by the transceiver circuit to communicate with the remote device based on the received signal. transmit diagnostic information related to the trainable transceiver to a mobile communications device via the communications device, characterised in that the control circuit is further configured to: receive a signal generated based on the diagnostic information from the mobile device , and adjust a frequency used by the transceiver circuit to communicate with the remote device based on the received signal.
A container having an opening and a mouth section extending substantially cylindrical starting from the opening , and a sealing cap removably attached to the container and closing the opening in a closed position, and having a substantially cylindrical shell surface which, in the closed position, at least partially encloses the mouth section , wherein first interacting latching elements are provided on an inner surface of the shell surface of the sealing cap and on an outer surface of the mouth section , and a first circumferential protrusion is provided below the first latching element in the mouth section , and a ring is provided, the upper edge of which is circumferentially connected to the shell surface via a tear-off film , wherein the tear-off film is in contact with the first protrusion , characterized in that the container has a second preferably circumferential protrusion and the ring has a protrusion on its inner side, wherein the second protrusion of the container and the protrusion of the ring are formed as second latching elements and are in a latching connection with one another. a sealing cap removably attached to the container and closing the opening in a closed position, and having a substantially cylindrical shell surface which, in the closed position, at least partially encloses the mouth section , wherein first interacting latching elements are provided on an inner surface of the shell surface of the sealing cap and on an outer surface of the mouth section , and a first circumferential protrusion is provided below the first latching element in the mouth section , and a ring is provided, the upper edge of which is circumferentially connected to the shell surface via a tear-off film , wherein the tear-off film is in contact with the first protrusion , characterized in that the container has a second preferably circumferential protrusion and the ring has a protrusion on its inner side, wherein the second protrusion of the container and the protrusion of the ring are formed as second latching elements and are in a latching connection with one another.
A nerve cuff deployment apparatus for minimally invasively attaching a nerve cuff electrode to a patient's nerve root, the apparatus comprising: an elongated body having a column strength sufficient to resist buckling at compressive forces of at least 10 N, wherein the elongated body comprises a first half and a second half, each extending distally to proximally; and a nerve cuff engagement region at a distal end of elongated body, configured to releasably secure to a nerve cuff electrode wherein the nerve cuff engagement region further comprises a first capsule portion at the distal end of the first half and a second capsule portion at the distal end of the second half, wherein the first and second capsule portions are configured to form a capsule to enclose and protect the nerve cuff electrode. an elongated body having a column strength sufficient to resist buckling at compressive forces of at least 10 N, wherein the elongated body comprises a first half and a second half, each extending distally to proximally; and a nerve cuff engagement region at a distal end of elongated body, configured to releasably secure to a nerve cuff electrode wherein the nerve cuff engagement region further comprises a first capsule portion at the distal end of the first half and a second capsule portion at the distal end of the second half, wherein the first and second capsule portions are configured to form a capsule to enclose and protect the nerve cuff electrode.
A GH61 polypeptide comprising an amino acid sequence having at least 80% sequence identity to SEQ ID NO: 23 or a fragment thereof capable of enhancing hydrolysis of cellulosic material, and outperforming the hydrolytic efficiency of GH61 of Thielavia terrestris at a temperature range of 37-55°C.
Method for determining at least one parameter for vaporization in an inhaler comprising a vaporizer , based upon resistance heating, and an electronic control device , wherein the electronic control device is configured to carry out the following initialization procedure - in particular, after a replacement of a vaporizer cartridge in the inhaler : - outputting an inhalation request to a user of the inhaler ; - in the case of a puff taken by the user following the inhalation request: - - operating the vaporizer with a comparatively low vaporization capacity P, and - - recording a time measurement series of an electrical parameter of the vaporizer ; - determining a transition point ÜP between a region of low vaporization and a region of high vaporization in the recorded time measurement series; - determining and storing at least one parameter associated with the initialization procedure, characterized in that the heating power P set during the initialization procedure is not more than 80% of the average heating power <P> or the maximum heating power Pmax used in normal consumption operation. - outputting an inhalation request to a user of the inhaler ; - in the case of a puff taken by the user following the inhalation request: - - operating the vaporizer with a comparatively low vaporization capacity P, and - - recording a time measurement series of an electrical parameter of the vaporizer ; - - operating the vaporizer with a comparatively low vaporization capacity P, and - - recording a time measurement series of an electrical parameter of the vaporizer ; - determining a transition point ÜP between a region of low vaporization and a region of high vaporization in the recorded time measurement series; - determining and storing at least one parameter associated with the initialization procedure,
Method for managing electrical supply of at least one device (210, 211, 213-218-, 219, 221) connected to a central energy management unit comprising: - obtaining a message informing the central energy management unit of a hazardous situation; - sending from the central energy management unit a request of a status report of said at least one device; - determining a risk assessment for said at least one device with respect to the hazardous situation, said risk assessment being based on the status report of said at least one device using a risk assessment algorithm; - processing said risk assessment so as to determine and launch a safety procedure, said safety procedure affecting electrical supply of the at least one device based on the risk assessment, the method being characterized in that , the at least one device being an electrical vehicle , the method further comprises: - determining a new position for the electrical vehicle based on the status report. - obtaining a message informing the central energy management unit of a hazardous situation; - sending from the central energy management unit a request of a status report of said at least one device; - determining a risk assessment for said at least one device with respect to the hazardous situation, said risk assessment being based on the status report of said at least one device using a risk assessment algorithm; - processing said risk assessment so as to determine and launch a safety procedure, said safety procedure affecting electrical supply of the at least one device based on the risk assessment, - determining a new position for the electrical vehicle based on the status report.
Device for labelling individual packages , - having an advancing installation for transporting the respective package in a transporting direction (X); - having an application installation for applying a dispensed label to the respective package ; - wherein the application installation has a ram shank and a pendulum ram having a ram foot connected to said ram shank for moving the dispensed label from a receiving position in which the label is received by the ram foot to a dispensing position in which the label is capable of being applied by the ram foot to the respective package ; - wherein the application installation furthermore has a guide element on which the ram shank is mounted so as to be axially movable and which guides the ram shank in the axial movements of said ram shank ; - wherein the application installation furthermore has a mount which is composed of a unit of components and by which the ram shank in the direction of gravity (Y) in each position of the ram shank is held relative to the guide element ; - wherein the mount comprises at least one first drive motor which is at least configured for effecting the axial movements of the ram shank ; - wherein the ram shank is mounted so as to be pivotable about a horizontal pivot axis (X 1 ) that runs so as to be orthogonal to the direction of gravity (Y); and - wherein the guide element supports at least one of a plurality of components of the mount and on a support on which said guide element is assembled is pivotable about the pivot axis (X 1 ), characterized in that the at least one first drive motor is immovable relative to the support and/or relative to the advancing installation . - having an advancing installation for transporting the respective package in a transporting direction (X); - having an application installation for applying a dispensed label to the respective package ; - wherein the application installation has a ram shank and a pendulum ram having a ram foot connected to said ram shank for moving the dispensed label from a receiving position in which the label is received by the ram foot to a dispensing position in which the label is capable of being applied by the ram foot to the respective package ; - wherein the application installation furthermore has a guide element on which the ram shank is mounted so as to be axially movable and which guides the ram shank in the axial movements of said ram shank ; - wherein the application installation furthermore has a mount which is composed of a unit of components and by which the ram shank in the direction of gravity (Y) in each position of the ram shank is held relative to the guide element ; - wherein the mount comprises at least one first drive motor which is at least configured for effecting the axial movements of the ram shank ; - wherein the ram shank is mounted so as to be pivotable about a horizontal pivot axis (X 1 ) that runs so as to be orthogonal to the direction of gravity (Y); and - wherein the guide element supports at least one of a plurality of components of the mount and on a support on which said guide element is assembled is pivotable about the pivot axis (X 1 ),
Coating device for coating components with a coating agent, in particular for painting motor vehicle body components , with a) a printhead with a1) at least one nozzle for delivering a coating agent jet to the component to be coated, and a2) at least one printhead valve for controlling the release of coating agent through the nozzle, b) a multi-axis coating robot which guides the printhead over the surface of the component to be coated, as well as c) a robot control which controls the coating robot , wherein the robot control controls the coating robot with a specific first cycle time in a clocked manner, d) a printhead control that controls the printhead valve, wherein the printhead control controls the printhead valve of the printhead in a clocked manner with a specific second cycle time, characterized in that e) the second cycle time of the printhead control is shorter than the first cycle time of the robot control . a) a printhead with a1) at least one nozzle for delivering a coating agent jet to the component to be coated, and a2) at least one printhead valve for controlling the release of coating agent through the nozzle, a1) at least one nozzle for delivering a coating agent jet to the component to be coated, and a2) at least one printhead valve for controlling the release of coating agent through the nozzle, b) a multi-axis coating robot which guides the printhead over the surface of the component to be coated, as well as c) a robot control which controls the coating robot , wherein the robot control controls the coating robot with a specific first cycle time in a clocked manner, d) a printhead control that controls the printhead valve, wherein the printhead control controls the printhead valve of the printhead in a clocked manner with a specific second cycle time, characterized in that e) the second cycle time of the printhead control is shorter than the first cycle time of the robot control .
A smoking substitute apparatus comprising: a passage extending between a fluid inlet and a fluid outlet ; an aerosol generator for generating an aerosol in the passage downstream of the fluid inlet ; and characterised in that the smoking substitute apparatus further comprises: an additive inlet in fluid communication with the passage downstream of the aerosol generator , the additive inlet configured for connection with a pressurised additive source for supply of an additive from the additive source to the passage . a passage extending between a fluid inlet and a fluid outlet ; an aerosol generator for generating an aerosol in the passage downstream of the fluid inlet ; and characterised in that the smoking substitute apparatus further comprises: an additive inlet in fluid communication with the passage downstream of the aerosol generator , the additive inlet configured for connection with a pressurised additive source for supply of an additive from the additive source to the passage .
Electrical circuit arrangement inserted in a signal path from a component with a lower voltage level to a component with a higher voltage level in a multi-voltage onboard electrical system with at least two different voltage levels and at least one signal path between components of the electrical system characterized in, that the circuit arrangement comprises: a second switch (S2), third and fourth resistors (R3,R4), a second and a third current-mirror-circuit (CM2, CM3), and a second diode (D2), whereby the second switch (S2) is arranged between a first contact of the third resistor (R3) and the positive pole of the higher voltage system control voltage (BN48 +SV) and its control input is connected with the input of the circuit arrangement (IN48), whereby a second contact of the third resistor (R3) is connected with a control input of the second current-mirror-circuit (CM2), which is arranged between the ground of the high voltage system (BN48 GND) and the negative pole of a second diode(D2) which is connected with its positive pole to the control input of the third current-mirror-circuit (CM3), which is arranged between the positive pole of a control voltage of the low voltage system (BN12 +SV) and a first contact of a fourth resistor (R4), which is connected with its second contact to the ground of the lower voltage system (BN12 GND), the first contact of the fourth resistor (R4) is also connected to the output of the circuit arrangement (OUT12).
A method of collecting mononuclear cells, comprising: providing whole blood stored in suitable containers; separating the whole blood into plasma and cellular components; combining the cellular components with plasma replacement fluid to form a first mixture; and separating the first mixture into mononuclear cells and at least one component, wherein the steps of separating whole blood into plasma and cellular components and separating the first mixture into mononuclear cells and at least one component take place at the same time. providing whole blood stored in suitable containers; separating the whole blood into plasma and cellular components; combining the cellular components with plasma replacement fluid to form a first mixture; and separating the first mixture into mononuclear cells and at least one component, wherein the steps of separating whole blood into plasma and cellular components and separating the first mixture into mononuclear cells and at least one component take place at the same time.