mhurhangee/patent-ind-claim-en huggingface dataset:
A method for the preparation of an eggshell catalyst comprising the steps of; i) immersing pellets or extrudates of an oxidic support with a cross-section that is lobed or fluted and having a width of ≥ 0.5 mm and a length from 0.5 mm to 50 mm in a solution of cobalt ammine carbonate, ii) heating the solution containing the pellets or extrudates to a temperature between 60 and 120°C to precipitate cobalt compounds onto their surface, iii) recovering a catalyst precursor comprising supported cobalt compounds from the solution once substantially all the cobalt in the solution has been precipitated, iv) drying the supported cobalt compounds to form a dried catalyst precursor, and v) sieving the dried catalyst precursor to remove unsupported cobalt compounds. i) immersing pellets or extrudates of an oxidic support with a cross-section that is lobed or fluted and having a width of ≥ 0.5 mm and a length from 0.5 mm to 50 mm in a solution of cobalt ammine carbonate, ii) heating the solution containing the pellets or extrudates to a temperature between 60 and 120°C to precipitate cobalt compounds onto their surface, iii) recovering a catalyst precursor comprising supported cobalt compounds from the solution once substantially all the cobalt in the solution has been precipitated, iv) drying the supported cobalt compounds to form a dried catalyst precursor, and v) sieving the dried catalyst precursor to remove unsupported cobalt compounds.
A composite pane element having light transmission properties which are electrically controllable in regions, comprising: a first pane element and a second pane element , wherein there is a gap between the first pane element and the second pane element ; and a functional element arranged in the gap which comprises at least two functional zones (7, 7', 7" 7′′′), the light transmission properties of which are individually changeable when an electrical voltage is applied to the functional zone (7, 7', 7", 7′′′, and each functional zone (7, 7', 7", 7′′′) comprises a contact point (8, 8', 8", 8′′′); characterised in that the composite pane element further comprises a conductor carrier which comprises at least a number of contact regions (12, 12', 12", 12′′′) which corresponds to the number of functional zones (7, 7', 7", 7′′′) and for each contact region (12, 12', 12", 12′′′) a line element (11, 11', 11", 11′′′) associated with this contact region (12, 12', 12", 12′′′), each contact point (8, 8', 8", 8′′′) of the functional element being contacted by a contact region (12, 12', 12", 12′′′) of the conductor carrier . a first pane element and a second pane element , wherein there is a gap between the first pane element and the second pane element ; and a functional element arranged in the gap which comprises at least two functional zones (7, 7', 7" 7′′′), the light transmission properties of which are individually changeable when an electrical voltage is applied to the functional zone (7, 7', 7", 7′′′, and each functional zone (7, 7', 7", 7′′′) comprises a contact point (8, 8', 8", 8′′′);
A computer-implemented method for detecting sleep-disturbing events from a signal indicative of a peripheral arterial tone of an individual, the signal being affected by a venoarteriolar reflex, the method comprises: - determining a vasoconstriction event (310, 110_1 - 110_n) from changes in the signal ; - deriving a reference amplitude value and a baseline amplitude value for the vasoconstriction event (310, 110_1 - 110_n), the reference amplitude value being different from the baseline amplitude value; - relating the reference amplitude value for the vasoconstriction event to the baseline amplitude value for the vasoconstriction event, thereby obtaining a magnitude measure for the vasoconstriction event; and - detecting , therefrom, a sleep-disturbing event. - determining a vasoconstriction event (310, 110_1 - 110_n) from changes in the signal ; - deriving a reference amplitude value and a baseline amplitude value for the vasoconstriction event (310, 110_1 - 110_n), the reference amplitude value being different from the baseline amplitude value; - relating the reference amplitude value for the vasoconstriction event to the baseline amplitude value for the vasoconstriction event, thereby obtaining a magnitude measure for the vasoconstriction event; and - detecting , therefrom, a sleep-disturbing event.
A method for preparing a lithium iron phosphate nanopowder, comprising the steps of: (a) preparing a mixture solution by adding a lithium precursor, an iron precursor and a phosphorus precursor in a butanediol reaction solvent; and (b) putting the mixture solution into a reactor and heating to prepare the lithium iron phosphate nanopowder under pressure conditions of 1 to 10 bar, wherein the reaction solvent is a non-aqueous solvent, and step (b) is performed at a temperature range of 150 to 235°C and for 1 to 72 hours. (a) preparing a mixture solution by adding a lithium precursor, an iron precursor and a phosphorus precursor in a butanediol reaction solvent; and (b) putting the mixture solution into a reactor and heating to prepare the lithium iron phosphate nanopowder under pressure conditions of 1 to 10 bar,
A filter element for filtering a fluid, in particular air, having a filter body with a zigzag-folded filter medium , the folds of which extend in a folding direction and which is provided with a front end edge bonding for sealing its fold ends, which is designed discontinuously in the area of at least one recess of the outer contour of the filter body and features at least one first bonding segment arranged on the outside, and comprises a second bonding segment arranged on the inside in the folding direction , wherein the second bonding segment is disposed apart from the first bonding segment in transverse direction to the folding direction, and wherein the two bonding segments bond at least one common fold .
Method for determining the topography of the cornea of the eye, based on the detection and assignment of a pattern, produced by a keratometric measurement arrangement, with respect to a reference pattern and on a subsequent mathematical ascertainment of the topography, wherein in a reflective measurement a plurality of reflection images are recorded successively, all the elements of the pattern produced are detected in all the reflection images and the coordinates of said elements are determined, characterized in that a reference image is selected from all the reflection images, in that a global displacement of the pattern of all the reflection images with respect to the reference image is ascertained and compensated, in that a data structure containing the coordinates of all the detected elements and a counter with the counter reading 1 is produced and stored for the reference image, in that an attempt is made to assign the detected elements of at least some of the reflection images to the coordinates of the reference image that correspond to the detected elements, in that , for elements that could be assigned, the counter of the data structure of the reference image is increased by 1 in said data structure, in that elements from the reflection images that were not assigned are included as new coordinates in the data structure of the reference image with a counter reading 1, in that the coordinates assigned to an element in the data structure of the reference image are appropriately averaged, and in that the data structure of the reference image produced from all the reflection images is used for the assignment to the reference pattern.
Self-propelled, preferably single-axle, manually steerable and controllable working machine for moving and driving mounted implements or attached vehicles, comprising a drive motor mounted on a chassis and connected to a hydrostatic drive unit intended for moving the working machine , said drive unit having at least one controllable hydraulic pump that can be coupled to the drive motor and hydraulic motors line-connected thereto associated with wheels secured to either end of an axle extending transversely to the direction of movement, and said drive motor being designed with an auxiliary output shaft for driving an implement mounted at the front of the chassis , characterised in that respective clutches that can be engaged and disengaged independently of one another are disposed upstream of the at least one hydraulic pump of the hydrostatic drive unit arranged in a driveline connecting the drive motor , the hydrostatic drive unit and the output shaft by means of a drive shaft and of the output shaft .
Vacuum cleaner suction head comprising a soleplate , which comprises at least one suction duct that is open towards the ground and which converges from an outer rim of the soleplate towards a suction orifice in aeraulic connection with a vacuum cleaner, characterised in that the soleplate comprises a removable flap for access to a motorised brush that comprises the suction orifice and at least one suction duct that is open towards the ground and arranged opposite said at least one suction duct of the soleplate .
Robotized handling assembly for making a package starting from a piece of flattened cardboard, comprising an automated handling head having: - a jaw unit provided with two opposite handling jaws , each jaw comprising a support body ; - at least one lever associated with said support body of at least one of the two jaws , said lever being configured to rotate for shaping said package ; - at least one suction gripping member cooperating with said at least one lever for picking up and holding said piece of flattened cardboard while said at least one lever , by rotating, shapes said package ; - movement means configured to move each support body , with the purpose of moving the support bodies with respect to each other in a direction of movement, so as to adjust the reciprocal distance of the respective handling jaws in order to adapt it to the shape and/or size of the piece of flattened cardboard; wherein said at least one suction gripping member is associated with the support body of at least one of the two jaws so as to be moved by said movement means , and wherein said assembly also comprises an attachment mandrel that has a proximal end able to be connected to a robotized arm of an automated operator and a distal end connected in a stable and selectively removable manner to said automated handling head . - a jaw unit provided with two opposite handling jaws , each jaw comprising a support body ; - at least one lever associated with said support body of at least one of the two jaws , said lever being configured to rotate for shaping said package ; - at least one suction gripping member cooperating with said at least one lever for picking up and holding said piece of flattened cardboard while said at least one lever , by rotating, shapes said package ; - movement means configured to move each support body , with the purpose of moving the support bodies with respect to each other in a direction of movement, so as to adjust the reciprocal distance of the respective handling jaws in order to adapt it to the shape and/or size of the piece of flattened cardboard;
A network entity for providing an aggregated bit rate packet stream in a network element under supervision in a software defined network, SDN, the network entity being destined to be connected to a first network element , the network entity comprising: a packet stream generator configured to - generate a stream of packets having a generating bit rate, - send the stream of packets to the first network element , a software network controller configured to, - configure the first network element to iteratively pass the stream of packets to a second network element, the second network element being configured to loop back the stream of packets to the first network element , until a packet of the stream of packets has been looped a determined number N of times from the first network element to the second network element . a packet stream generator configured to - generate a stream of packets having a generating bit rate, - send the stream of packets to the first network element , - generate a stream of packets having a generating bit rate, - send the stream of packets to the first network element , a software network controller configured to, - configure the first network element to iteratively pass the stream of packets to a second network element, the second network element being configured to loop back the stream of packets to the first network element , until a packet of the stream of packets has been looped a determined number N of times from the first network element to the second network element . - configure the first network element to iteratively pass the stream of packets to a second network element, the second network element being configured to loop back the stream of packets to the first network element , until a packet of the stream of packets has been looped a determined number N of times from the first network element to the second network element .
A method of determining the identity of a petroleum coke sample characterised by : obtaining a nuclear magnetic resonance (NMR) measurement of the sample saturated with an NMR active fluid, determining a relaxation decay value of the fluid in the sample from the NMR measurement, comparing the relaxation decay value to relaxation decay values of known petroleum coke materials in a reference group to determine whether the petroleum coke sample comprises one of the known petroleum coke materials. obtaining a nuclear magnetic resonance (NMR) measurement of the sample saturated with an NMR active fluid, determining a relaxation decay value of the fluid in the sample from the NMR measurement, comparing the relaxation decay value to relaxation decay values of known petroleum coke materials in a reference group to determine whether the petroleum coke sample comprises one of the known petroleum coke materials.
A method for controlling uplink transmission power in a wireless communication system, the method performed by a wireless device and the method comprising: receiving (S410) transmit power command, TPC, monitoring information to adjust an uplink transmission power for a first physical uplink control channel, PUCCH, cell and a second PUCCH cell, the TPC monitoring information including a first TPC index assigned to the first PUCCH cell and a second TPC index assigned to the second PUCCH cell; receiving (S42) a TPC payload on a downlink control channel, the TPC payload including a plurality of TPCs, acquiring a first TPC for the first PUCCH cell and a second TPC for the second PUCCH cell from the plurality of TPCs based on the first TPC index and the second TPC index; and applying (S430) the first TPC and the second TPC to PUCCH transmissions on the first PUCCH cell and the second PUCCH cell, wherein the wireless device is configured with a first set of serving cells and a second set of serving cells, wherein the first PUCCH cell is a cell which is capable of receiving a first PUCCH in the first set of serving cells, and wherein the second PUCCH cell is a cell which is capable of receiving a second PUCCH in the second set of serving cells. receiving (S410) transmit power command, TPC, monitoring information to adjust an uplink transmission power for a first physical uplink control channel, PUCCH, cell and a second PUCCH cell, the TPC monitoring information including a first TPC index assigned to the first PUCCH cell and a second TPC index assigned to the second PUCCH cell; receiving (S42) a TPC payload on a downlink control channel, the TPC payload including a plurality of TPCs, acquiring a first TPC for the first PUCCH cell and a second TPC for the second PUCCH cell from the plurality of TPCs based on the first TPC index and the second TPC index; and applying (S430) the first TPC and the second TPC to PUCCH transmissions on the first PUCCH cell and the second PUCCH cell, wherein the wireless device is configured with a first set of serving cells and a second set of serving cells, wherein the first PUCCH cell is a cell which is capable of receiving a first PUCCH in the first set of serving cells, and wherein the second PUCCH cell is a cell which is capable of receiving a second PUCCH in the second set of serving cells.
Exhaust valve for an internal combustion engine with an actuator a valve rod which is movable via the actuator , and a valve body which is fastened to the valve rod a valve seat onto which the valve body can be lowered and from which the valve body can be lifted off a guide bushing , which is arranged in a housing and via which the valve rod is beared in the housing , sealing means for sealing a gap between the guide bushing and the valve rod , wherein at least one fiber ring pressed in the assembled state surrounding the valve rod as sealing means and being arranged axially between the valve body and the guide bushing wherein a shielding sleeve is fastened to the guide bushing and the at least one fiber ring is radially surrounded by the shielding sleeve and the shielding sleeve has a radially inwardly extending section against which the at least one fiber ring axially abuts, wherein the at least one fiber ring in the compressed state has an outer diameter which corresponds to the outer diameter of the axial section of the guide bushing surrounded by the shielding sleeve , and the shielding sleeve abuts radially against this section of the guide bushing and the at least one pressed fiber ring , wherein the at least one fiber ring is pressed in between the radially extending section of the shielding sleeve and the axial end of the axial section of the guide bushing directed towards the valve body , which has the same outer diameter as the at least one fiber ring . an actuator a valve rod which is movable via the actuator , and a valve body which is fastened to the valve rod a valve seat onto which the valve body can be lowered and from which the valve body can be lifted off a guide bushing , which is arranged in a housing and via which the valve rod is beared in the housing , sealing means for sealing a gap between the guide bushing and the valve rod , wherein at least one fiber ring pressed in the assembled state surrounding the valve rod as sealing means and being arranged axially between the valve body and the guide bushing wherein a shielding sleeve is fastened to the guide bushing and the at least one fiber ring is radially surrounded by the shielding sleeve and the shielding sleeve has a radially inwardly extending section against which the at least one fiber ring axially abuts, wherein the at least one fiber ring in the compressed state has an outer diameter which corresponds to the outer diameter of the axial section of the guide bushing surrounded by the shielding sleeve , and the shielding sleeve abuts radially against this section of the guide bushing and the at least one pressed fiber ring , wherein the at least one fiber ring is pressed in between the radially extending section of the shielding sleeve and the axial end of the axial section of the guide bushing directed towards the valve body , which has the same outer diameter as the at least one fiber ring .
A power conversion device, comprising: an inverter , which includes a plurality of semiconductor switching elements, and is configured to invert a DC voltage output from a DC power supply into three-phase AC voltages by the respective semiconductor switching elements being switched on and off, to output the three-phase AC voltages; a capacitor provided in parallel between the DC power supply and the inverter ; and a controller configured to calculate voltage command values, which are command values for the three-phase AC voltages to be output from the inverter , based on an input control command value, and to output on/off signals for switching on and off the respective semiconductor switching elements of the inverter in accordance with the calculated voltage command values, wherein the controller is configured to output the on/off signals so that, out of a plurality of voltage vectors defined so as to correspond to patterns of the on/off signals, a second closest voltage vector and a third closest voltage vector in phase to a current vector that is based on currents supplied as a result of output of the three-phase AC voltages are formed. an inverter , which includes a plurality of semiconductor switching elements, and is configured to invert a DC voltage output from a DC power supply into three-phase AC voltages by the respective semiconductor switching elements being switched on and off, to output the three-phase AC voltages; a capacitor provided in parallel between the DC power supply and the inverter ; and a controller configured to calculate voltage command values, which are command values for the three-phase AC voltages to be output from the inverter , based on an input control command value, and to output on/off signals for switching on and off the respective semiconductor switching elements of the inverter in accordance with the calculated voltage command values, wherein the controller is configured to output the on/off signals so that, out of a plurality of voltage vectors defined so as to correspond to patterns of the on/off signals, a second closest voltage vector and a third closest voltage vector in phase to a current vector that is based on currents supplied as a result of output of the three-phase AC voltages are formed.
A measuring wheel apparatus which is applicable in a harvester head , comprising at least: - a frame , - a measuring wheel which is mounted on the frame in a rotatable manner and configured to be placed against a tree trunk when the apparatus is mounted on the harvester head and the tree trunk is fed through the harvester head; - a frame joint , via which the frame is configured to be mounted on the harvester head in a swinging manner; and - a power device configured to swivel the measuring wheel apparatus and to keep the measuring wheel pressed against the tree trunk when the measuring wheel apparatus is mounted on a harvester head ; - when the measuring wheel apparatus is mounted on a harvester head , the measuring wheel is configured to further comprise a supporting position which supports the tree trunk by providing a supporting force that does not let the trunk fall against a frame structure of the harvester head ; characterized in that : - the measuring wheel apparatus comprises a stopping member configured to stop the swinging motion of the measuring wheel apparatus when the measuring wheel assumes the supporting position; and - the measuring wheel is also equipped with devices for debarking the tree trunk. - a frame , - a measuring wheel which is mounted on the frame in a rotatable manner and configured to be placed against a tree trunk when the apparatus is mounted on the harvester head and the tree trunk is fed through the harvester head; - a frame joint , via which the frame is configured to be mounted on the harvester head in a swinging manner; and - a power device configured to swivel the measuring wheel apparatus and to keep the measuring wheel pressed against the tree trunk when the measuring wheel apparatus is mounted on a harvester head ; - when the measuring wheel apparatus is mounted on a harvester head , the measuring wheel is configured to further comprise a supporting position which supports the tree trunk by providing a supporting force that does not let the trunk fall against a frame structure of the harvester head ; - the measuring wheel apparatus comprises a stopping member configured to stop the swinging motion of the measuring wheel apparatus when the measuring wheel assumes the supporting position; and - the measuring wheel is also equipped with devices for debarking the tree trunk.