mhurhangee/ep-ind-claims huggingface dataset:
A method for establishing a link between virtualized network functions, comprising: obtaining, by a network functions virtualization orchestrator NFVO, an IP address of a connection point, CP, of a first virtualized network function VNF and identification information of the CP; determining, by the NFVO according to prestored link information between VNFs, identification information of a second VNF corresponding to the identification information of the CP of the first VNF, wherein the link information comprises identification information of CPs of the VNFs, a correspondence between the identification information of the CPs of the VNFs, and a correspondence between the identification information of the CPs and identification information of the VNFs; sending, by the NFVO, the IP address of the CP of the first VNF and the identification information of the CP to the second VNF corresponding to the identification information of the second VNF; and starting, by the second VNF according to the IP address of the CP of the first VNF, a link connection establishment process between a CP of the second VNF and the CP of the first VNF. obtaining, by a network functions virtualization orchestrator NFVO, an IP address of a connection point, CP, of a first virtualized network function VNF and identification information of the CP; determining, by the NFVO according to prestored link information between VNFs, identification information of a second VNF corresponding to the identification information of the CP of the first VNF, wherein the link information comprises identification information of CPs of the VNFs, a correspondence between the identification information of the CPs of the VNFs, and a correspondence between the identification information of the CPs and identification information of the VNFs; sending, by the NFVO, the IP address of the CP of the first VNF and the identification information of the CP to the second VNF corresponding to the identification information of the second VNF; and starting, by the second VNF according to the IP address of the CP of the first VNF, a link connection establishment process between a CP of the second VNF and the CP of the first VNF.
Method for operating a train control system for influencing a rail-bound vehicle with an on-board monitoring device, wherein the train control system has a line control center and external signaling with at least one signal (Sig; HSig, VSig) and a first balise group (SigB, HSigB1, VSigB1) upstream of the signal (Sig; HSig, VSig) and a second balise group (SigB2; HSigB2, VSigB2) arranged at the signal (Sig; HSig, VSig), wherein the vehicle is monitored by the line control center, the method comprising: • assignment of the vehicle to the signal (Sig; HSig, VSig), • determination of a current signal aspect of the assigned signal (Sig; HSig, VSig), • issuing of a movement authority to the vehicle by the line control center depending on the determined signal aspect via a radio link, • driving of the vehicle by a driver according to the external signaling, • wherein the monitoring by the line control center takes place in the background, characterized in that ∘ the line control center communicates discontinuously with the vehicle, wherein the movement authority is requested by passing the first balise group (SigB1; HSigB1, VSigB1), ∘ the movement authority is transmitted to the vehicle on the basis of the determined current signal aspect, wherein the movement authority contains linking information, whereby the second balise group (SigB2; HSigB2, VSigB2) is masked and therefore is not evaluated. • assignment of the vehicle to the signal (Sig; HSig, VSig), • determination of a current signal aspect of the assigned signal (Sig; HSig, VSig), • issuing of a movement authority to the vehicle by the line control center depending on the determined signal aspect via a radio link, • driving of the vehicle by a driver according to the external signaling, • wherein the monitoring by the line control center takes place in the background, characterized in that ∘ the line control center communicates discontinuously with the vehicle, wherein the movement authority is requested by passing the first balise group (SigB1; HSigB1, VSigB1), ∘ the movement authority is transmitted to the vehicle on the basis of the determined current signal aspect, wherein the movement authority contains linking information, whereby the second balise group (SigB2; HSigB2, VSigB2) is masked and therefore is not evaluated. ∘ the line control center communicates discontinuously with the vehicle, wherein the movement authority is requested by passing the first balise group (SigB1; HSigB1, VSigB1), ∘ the movement authority is transmitted to the vehicle on the basis of the determined current signal aspect, wherein the movement authority contains linking information, whereby the second balise group (SigB2; HSigB2, VSigB2) is masked and therefore is not evaluated.
A method for updating a three-dimensional model of a patient anatomy, the method comprising: receiving a 3D model of a patient anatomy; calculating one or more poses for an imaging device to image an anatomical feature, based on the 3D model of the patient anatomy; receiving an image from the imaging device at each of the one or more poses to yield an image set for the anatomical feature; and updating a representation of the anatomical feature in the 3D model of the patient anatomy based on at least one image from the image set and the pose corresponding to the at least one image to yield an updated 3D model of the patient anatomy, characterised in that the imaging device is a first imaging device; wherein the image set is a first image set; and wherein the method further includes receiving an image from a second imaging device at one or more poses to yield a second image set for the anatomical feature; and wherein updating the representation of the anatomical feature in the 3D model of the patient anatomy is further based on at least one image from the second image set and the pose corresponding to that image to yield the updated 3D model of the patient anatomy, and wherein the first imaging device is an ultrasound probe and the second imaging device is an optical coherence tomography camera. receiving a 3D model of a patient anatomy; calculating one or more poses for an imaging device to image an anatomical feature, based on the 3D model of the patient anatomy; receiving an image from the imaging device at each of the one or more poses to yield an image set for the anatomical feature; and updating a representation of the anatomical feature in the 3D model of the patient anatomy based on at least one image from the image set and the pose corresponding to the at least one image to yield an updated 3D model of the patient anatomy, characterised in that the imaging device is a first imaging device; wherein the image set is a first image set; and wherein the method further includes receiving an image from a second imaging device at one or more poses to yield a second image set for the anatomical feature; and wherein updating the representation of the anatomical feature in the 3D model of the patient anatomy is further based on at least one image from the second image set and the pose corresponding to that image to yield the updated 3D model of the patient anatomy, and wherein the first imaging device is an ultrasound probe and the second imaging device is an optical coherence tomography camera.
A system for ventricular circulatory support, wherein the system comprises the following: - a device for applying a magnetic field to a magnetized bodily fluid, in particular blood, in a segment of a vessel, particularly a blood vessel; and - a control device designed to actuate the device for applying a magnetic field such that a magnetically-induced force acts on the magnetized bodily fluid in the segment of the vessel in the longitudinal direction of said vessel, wherein the control device is further designed to temporally vary the strength and/or direction of the magnetic field applied to the magnetized bodily fluid such that the bodily fluid preferably selectively moves continuously or pulsatively in the longitudinal direction of the vessel, and wherein the system further comprises a magnetizing means for magnetizing a bodily fluid, in particular blood. - a device for applying a magnetic field to a magnetized bodily fluid, in particular blood, in a segment of a vessel, particularly a blood vessel; and - a control device designed to actuate the device for applying a magnetic field such that a magnetically-induced force acts on the magnetized bodily fluid in the segment of the vessel in the longitudinal direction of said vessel,
A method of controlling a Digital Subscriber Line, DSL, connection between a first and second DSL transceiver unit (111, 121) by a Dynamic Line Management, DLM, system, the method comprising the steps of: the DLM system applying a first line profile to a DSL transceiver unit (111, 121), the first line profile specifying a first virtual noise template for the DSL connection, wherein the first virtual noise template specifies a first set of frequency dependent virtual noise levels for the DSL connection; configuring a parameter for the DSL connection based on the first set of frequency dependent virtual noise levels; the DLM system applying a second line profile to the DSL transceiver unit (111, 121), the second line profile specifying a second virtual noise template for the DSL connection, wherein the second virtual noise template specifies a second set of frequency dependent virtual noise levels for the DSL connection; and reconfiguring the parameter for the DSL connection based on the second set of frequency dependent virtual noise levels, characterised in that the DLM system is external, and the second set of frequency dependent virtual noise levels are distinct to the first set of frequency dependent virtual noise levels. the DLM system applying a first line profile to a DSL transceiver unit (111, 121), the first line profile specifying a first virtual noise template for the DSL connection, wherein the first virtual noise template specifies a first set of frequency dependent virtual noise levels for the DSL connection; configuring a parameter for the DSL connection based on the first set of frequency dependent virtual noise levels; the DLM system applying a second line profile to the DSL transceiver unit (111, 121), the second line profile specifying a second virtual noise template for the DSL connection, wherein the second virtual noise template specifies a second set of frequency dependent virtual noise levels for the DSL connection; and reconfiguring the parameter for the DSL connection based on the second set of frequency dependent virtual noise levels, characterised in that the DLM system is external, and the second set of frequency dependent virtual noise levels are distinct to the first set of frequency dependent virtual noise levels.
Composite pane with a sensor assembly on both sides, comprising a first substrate layer and a second substrate layer, a first patterned electrically conductive layer and a second patterned electrically conductive layer, as well as an insulating layer, wherein a first capacitive sensing element with a first supply line structure is formed in the first electrically conductive layer and a second capacitive sensing element with a second supply line structure is formed in the second electrically conductive layer, - wherein the first patterned electrically conductive layer and the second patterned electrically conductive layer are separated from one another at least by the insulating layer, - wherein the assembly composed of the first patterned electrically conductive layer, the second patterned electrically conductive layer, and the insulating layer is arranged between the first substrate layer and the second substrate layer, - wherein the first capacitive sensing element is arranged offset relative to the second capacitive sensing element such that at least parts of the first patterned electrically conductive layer form a shielding for the second capacitive sensing element and at least parts of the second patterned electrically conductive layer form a shielding for the first capacitive sensing element, characterized in that an overlap of elements of the first capacitive sensitive element and of the first supply line structure makes up an area less than or equal to 10% of the surface area of the second capacitive sensitive element. - wherein the first patterned electrically conductive layer and the second patterned electrically conductive layer are separated from one another at least by the insulating layer, - wherein the assembly composed of the first patterned electrically conductive layer, the second patterned electrically conductive layer, and the insulating layer is arranged between the first substrate layer and the second substrate layer, - wherein the first capacitive sensing element is arranged offset relative to the second capacitive sensing element such that at least parts of the first patterned electrically conductive layer form a shielding for the second capacitive sensing element and at least parts of the second patterned electrically conductive layer form a shielding for the first capacitive sensing element,
A pivoting piston machine, comprising a housing in which a first piston (14, 18) and a second piston (16, 20) are arranged, which are pivotable away from one another and toward one another about a pivot axis, wherein the first piston (14, 18) has a first end surface (26, 30) and the second piston (16, 20) has a second end surface (28, 32), wherein a working chamber (34, 36) for a working medium is arranged between the first end surface (26, 30) and the second end surface (28, 32), which working chamber increases and decreases in size in alternating fashion during the pivoting of the first piston (14, 18) and of the second piston (16, 20), wherein an inlet (76, 80) for the admission of working medium into the working chamber (34, 36), and an outlet (78, 82) for the discharge of working medium out of the working chamber (34, 36), open into the working chamber (34, 36), and further comprising a closing element (92, 94, 96, 98) for closing and opening up at least the inlet (76, 80) or at least the outlet (78, 82), wherein the closing element (92, 94, 96, 98) has a valve disk (100, 134, 138) which interacts with a valve seat (132, 136), characterized in that a mouth (84, 86, 88, 90) at least of the inlet (76, 80) or at least of the outlet (78, 82) is arranged in the working chamber (34, 36) between the first end surface (26, 30) and the second end surface (28, 32), and in that the valve seat (132, 136) and the valve disk (100, 134, 138) are arranged at the mouth (84, 86, 88, 90).
Peritoneal dialysis machine having a machine housing, a weighing device at which a receiving bag is arranged for receiving the draining dialyzate and having a hose set (L11-L15) which is connected to the receiving bag, wherein the receiving bag is not in fluid communication with a waste bag in which the drained dialyzate is collected, but rather itself forms the waste bag, wherein the weighing device comprises a weighing pan and the receiving bag is arranged in the weighing pan, wherein the weighing pan is connected via a holding apparatus to a weighing cell of the peritoneal dialysis machine, the holding apparatus comprises a rod assembly which extends from a rear side of the weighing pan upwards to a lower side of the machine housing, the weighing pan has a base and side walls extending upwardly from the base, wherein the side walls are configured to securely hold the receiving bag in the pan, and characterized in that it is provided the side walls can be removed from the base or can be pivoted relative to the base, so that the receiving bag can be easily inserted and removed.
An electronics heat exchanger comprising: a fluid flow body having a first panel, a second panel, and at least one fluid flow guide connecting the first panel and the second panel; a plurality of pedestals extending from the second panel, the plurality of pedestals including at least a first pedestal having a first height and a second pedestal having a second height, distinct from the first height; characterized by a plurality of pins, each pin in the plurality of pins protruding through a corresponding through hole in the second panel and into a corresponding partial opening in a pedestal in the plurality of pedestals. a fluid flow body having a first panel, a second panel, and at least one fluid flow guide connecting the first panel and the second panel; a plurality of pedestals extending from the second panel, the plurality of pedestals including at least a first pedestal having a first height and a second pedestal having a second height, distinct from the first height; characterized by a plurality of pins, each pin in the plurality of pins protruding through a corresponding through hole in the second panel and into a corresponding partial opening in a pedestal in the plurality of pedestals.
A method in a network node for enabling DL scheduling of an UE configured with Discontinuous reception, DRX, including preconfigured recurring On-duration periods, to enable the DL scheduling in periods outside the On-duration periods, the UE further being configured with an UL semipersistent scheduling, SPS, granting the UE UL transmission in recurring Transmission Time Intervals, TTIs, short TTIs, slots or sub-slots said method comprising the steps of: - monitoring a receipt of a transmission from the UE in any of the recurring TTIs, short TTI, slots or sub-slots of the SPS configuration; and responsive to the receipt of an UL transmission, - transmitting, according to a synchronous HARQ process, a HARQ response to the UL transmission and at the same occasion transmitting a dynamic UL grant or a DL assignment to the UE, wherein the transmitted of the UL grant and the DL assignment triggers the UE to stay in DRX active mode for a period, and, - sending a scheduling assignment to the UE during the period of the UE staying in DRX active mode. - monitoring a receipt of a transmission from the UE in any of the recurring TTIs, short TTI, slots or sub-slots of the SPS configuration; and responsive to the receipt of an UL transmission, - transmitting, according to a synchronous HARQ process, a HARQ response to the UL transmission and at the same occasion transmitting a dynamic UL grant or a DL assignment to the UE, wherein the transmitted of the UL grant and the DL assignment triggers the UE to stay in DRX active mode for a period, and, - sending a scheduling assignment to the UE during the period of the UE staying in DRX active mode.
Method for preparing an apparatus for use in a process for concentrating a mineral acid by evaporation of water, wherein the apparatus comprises a device which is resistant to the mineral acid, wherein the device has coatings selected from the group consisting of the materials steel enamel, silicon carbide, glass, tantalum, niobium, perfluorinated polymers and a composite of two or more of these materials, or wherein the device is made of one of these materials, comprising a step of flushing of the device with an aqueous alkali metal hydroxide solution having a concentration by mass of alkali metal hydroxide in the range from 1% to 30% at a temperature in the range from 40°C to 90°C for a time of from 2 hours to 7 days. wherein the device has coatings selected from the group consisting of the materials steel enamel, silicon carbide, glass, tantalum, niobium, perfluorinated polymers and a composite of two or more of these materials, or wherein the device is made of one of these materials, comprising a step of flushing of the device with an aqueous alkali metal hydroxide solution having a concentration by mass of alkali metal hydroxide in the range from 1% to 30% at a temperature in the range from 40°C to 90°C for a time of from 2 hours to 7 days.
Catalyst for removing nitrogen protoxide from gas mixtures which contain it, comprising mixed oxides of cobalt, manganese and rare earth metals having composition expressed as percentage by weight of CoO, MnO and rare earth metal oxide in the lowest state of valence as follows: MnO 38-56°!0, CoO 22-30%, rare earth metal oxide 22-32%.
Dryer, particularly for drying clean-room garments and accessories, comprising: - a dryer body, - a drying chamber, - a system for circulating air between an air inlet and said drying chamber, with this system comprising - a device for aspirating air conferring a direction of flow to the air from the air inlet to said drying chamber, - a device for heating aspirated air placed upstream of said drying chamber, and - an absolute filter placed upstream of said drying chamber, said dryer being characterised in that it further comprises, upstream of said absolute filter, a connector arranged to be connected to a device for pulsing air loaded with a predetermined quantity of droplets of an aerosol and in that it comprises an access to a space located downstream of said absolute filter and upstream of said drying chamber, said access to a space being arranged to be able to receive a measuring device. - a dryer body, - a drying chamber, - a system for circulating air between an air inlet and said drying chamber, with this system comprising - a device for aspirating air conferring a direction of flow to the air from the air inlet to said drying chamber, - a device for heating aspirated air placed upstream of said drying chamber, and - an absolute filter placed upstream of said drying chamber,
Retaining cam, in particular for a rapid closure system, with a cam element having an opening along a longitudinal axis (l) and having a guide contour at least in some areas on its outer side and an inner contour for connection to a closure pin on its inner side, and an at least approximately sleeve-shaped housing which has on its outer side, at least in some areas, a fastening contour (9, 10, 11) for anchoring in a bore of a component and on its inner side, at least in some areas, a guide contour for the cam element, wherein the fastening contour (9, 10, 11) is non-rotationally symmetrical and is formed with at least one radial projection (9, 10), wherein the guide contours of the cam element and of the housing are non-rotationally symmetrical and are formed and adapted to one another in such a manner, that the cam element is guided within the housing so as to be movable to a limited extent in the direction of the longitudinal axis (l) and perpendicular thereto, and wherein a spring which surrounds the cam element is provided between the housing and the cam element, characterized in that the spring has a block height less than or equal to the height of the cam element.
A wound dressing, comprising a first layer including a sheet material that exerts a water pressure resistant function at an initial stage comprising one selected from a non-woven fabric made of a hydrophobic material a microporous film made of a hydrophobic material and a non-woven fabric made of a hydrophilic material that has been processed to be water-repellent, a second layer including an absorptive material, and a third layer including a sheet impermeable to liquid, wherein the sheet material of the first layer has an air permeability measured according to JIS L 1096 of 20 to 2000 cm 3 /cm 2 · s and a water repellency score measured according to JIS L 1092 of 3 points or more in order to have a function of withstanding the pressure from the exudate to prevent the exudate from passing therethrough at the initial stage when the exudate starts exuding from the wound, and to have a function of allowing the exudate to pass therethrough when the pressure from the exudate exceeds a predetermined value.