mhurhangee/patent-ind-claim-en huggingface dataset:
Build cylinder arrangement for a machine for the layered production of three-dimensional objects by sintering or melting with a high-energy beam , in particular laser beam , of powdered material , having a substantially cylinder-jacket-like base member and a piston which can be moved on an inner side of the base member along a cylinder axis of the base member , wherein the piston has at the upper side thereof a substrate for growing a three-dimensional object , and wherein on the piston a seal which is in abutment with the inner side of the base member is formed for sealing the powdered material , characterised in that the seal for sealing the powdered material is formed as a circumferential fibre metal seal of metal fibres which are pressed together, the fibre metal seal is produced by pressing the metal fibres together thereby partially plastically deforming the metal fibres to form a uniform sealing body that can be managed as a whole, the pressed metal fibres are arranged with resilient compression stress between the piston and the inner side of the base member , the substrate and the seal for sealing the powdered material are constructed on an upper portion of the piston , which is releasably arranged on a remaining portion of the piston , and in that there is constructed in the remaining portion of the piston a heating device by means of which the substrate can be heated to an operating temperature ET, wherein 500°C ≤ ET ≤ 1000°C. the seal for sealing the powdered material is formed as a circumferential fibre metal seal of metal fibres which are pressed together, the fibre metal seal is produced by pressing the metal fibres together thereby partially plastically deforming the metal fibres to form a uniform sealing body that can be managed as a whole, the pressed metal fibres are arranged with resilient compression stress between the piston and the inner side of the base member , the substrate and the seal for sealing the powdered material are constructed on an upper portion of the piston , which is releasably arranged on a remaining portion of the piston , and in that there is constructed in the remaining portion of the piston a heating device by means of which the substrate can be heated to an operating temperature ET, wherein 500°C ≤ ET ≤ 1000°C.
A work vehicle with a crop orientation system , the crop orientation system comprising: a sensor configured to collect first heading values for the work vehicle during a first planting event over a first field; a controller having a processor and a memory coupled to the processor , the controller being in communication with the sensor , the controller configured to determine first heading values for the work vehicle at intervals during the first crop planting event over the first field, to generate a first set of histogram values representing the first heading values for the first vehicle during at least a portion of the first crop planting event over the first field, and generate display signals to render a first histogram display based on the first set of histogram values; and a display device in communication with the controller and configured to render the first histogram display on the work vehicle ; characterized in that the controller is configured to execute stored instructions to generate the first set of histogram values by counting each instance of a respective heading value, and generate the display signals such that the first histogram display is formed by a plurality of vectors in which a direction of each of the vectors represents the respective heading value and a length of each of the vectors represents the count of the respective heading value. a sensor configured to collect first heading values for the work vehicle during a first planting event over a first field; a controller having a processor and a memory coupled to the processor , the controller being in communication with the sensor , the controller configured to determine first heading values for the work vehicle at intervals during the first crop planting event over the first field, to generate a first set of histogram values representing the first heading values for the first vehicle during at least a portion of the first crop planting event over the first field, and generate display signals to render a first histogram display based on the first set of histogram values; and a display device in communication with the controller and configured to render the first histogram display on the work vehicle ; characterized in that the controller is configured to execute stored instructions to generate the first set of histogram values by counting each instance of a respective heading value, and generate the display signals such that the first histogram display is formed by a plurality of vectors in which a direction of each of the vectors represents the respective heading value and a length of each of the vectors represents the count of the respective heading value.
Brake assembly for braking a wheel of a vehicle, comprising: a brake member assembly comprising at least one brake member configured to rotate about a rotational axis (R), at least one braking member arranged on a radial surface side of the at least one brake member with respect to the rotational axis (R), wherein the at least one braking member is axially movable with respect to the rotational axis (R), and an actuator mechanism configured to move the at least one braking member in the axial direction towards the at least one brake member to apply a braking force on the radial surface of the at least one brake member , wherein the at least one brake member provides at least one brake member portion arranged and configured to provide a contact surface on the radial surface side of the at least one brake member for the at least one braking member to form a frictional pairing with the at least one braking member upon contact, and characterised in that , a wear rate of a material of the at least one brake member portion intended for the frictional pairing is higher than a wear rate a material of the at least one braking member intended for the frictional pairing. a brake member assembly comprising at least one brake member configured to rotate about a rotational axis (R), at least one braking member arranged on a radial surface side of the at least one brake member with respect to the rotational axis (R), wherein the at least one braking member is axially movable with respect to the rotational axis (R), and an actuator mechanism configured to move the at least one braking member in the axial direction towards the at least one brake member to apply a braking force on the radial surface of the at least one brake member , wherein the at least one brake member provides at least one brake member portion arranged and configured to provide a contact surface on the radial surface side of the at least one brake member for the at least one braking member to form a frictional pairing with the at least one braking member upon contact, and characterised in that , a wear rate of a material of the at least one brake member portion intended for the frictional pairing is higher than a wear rate a material of the at least one braking member intended for the frictional pairing.
Process for producing an insulation body based on a fine- and open-celled polyurethane/polyisocyanurate foam in a cavity of a mold, comprising a. optionally inserting an optionally pre-molded insert into the cavity of the mold, b. inserting a barrier film into the cavity or, if present, onto or into the insert, c. applying a pressure of 8-30 bar in the cavity, d. injecting a polyurethane reactive mixture containing supercritical CO 2 into the pressurized cavity, e. decompressing to ambient pressure after a time of 1 to 40 s measured after the injection, f. curing the polyurethane reactive mixture, g. applying a vacuum of 0.001 mbar to 0.5 mbar in the cavity, h. sealing any holes in the barrier film i. and finally demolding the resulting insulation body. a. optionally inserting an optionally pre-molded insert into the cavity of the mold, b. inserting a barrier film into the cavity or, if present, onto or into the insert, c. applying a pressure of 8-30 bar in the cavity, d. injecting a polyurethane reactive mixture containing supercritical CO 2 into the pressurized cavity, e. decompressing to ambient pressure after a time of 1 to 40 s measured after the injection, f. curing the polyurethane reactive mixture, g. applying a vacuum of 0.001 mbar to 0.5 mbar in the cavity, h. sealing any holes in the barrier film i. and finally demolding the resulting insulation body.
A current modulator circuit for modulating a drive current through a lighting load, comprising: a current modulating element for modulating the light output of the lighting load based on a data input signal, wherein the current modulating element is adapted to be connected in series with the lighting load; and a feedback system for controlling the current modulating element thereby to implement modulation of the current through the lighting load, wherein the feedback system comprises : - a first feedback control path having as input a voltage across the current modulating element, characterized in that the first feedback control path comprises a comparator arrangement (U1) for comparing the voltage across the current modulating element with a reference voltage and a low-pass filter between an output of the comparator arrangement and a control input of the current modulating element; and wherein the feedback system further comprises - a second feedback control path connected between the low-pass filter and the control input of the current modulating element and having as input the data input signal. a current modulating element for modulating the light output of the lighting load based on a data input signal, wherein the current modulating element is adapted to be connected in series with the lighting load; and a feedback system for controlling the current modulating element thereby to implement modulation of the current through the lighting load, wherein the feedback system comprises : - a first feedback control path having as input a voltage across the current modulating element, - a first feedback control path having as input a voltage across the current modulating element, characterized in that the first feedback control path comprises a comparator arrangement (U1) for comparing the voltage across the current modulating element with a reference voltage and a low-pass filter between an output of the comparator arrangement and a control input of the current modulating element; and wherein the feedback system further comprises - a second feedback control path connected between the low-pass filter and the control input of the current modulating element and having as input the data input signal. - a second feedback control path connected between the low-pass filter and the control input of the current modulating element and having as input the data input signal.
A method of producing a covering, in particular for use in a press section of a machine for producing a fibrous web such as a paper, board or tissue web, comprising the method steps: i) producing a base structure of any width; the base structure having edges with lateral seam loops ii) converting the base structure into rolled material; iii) applying at least one staple fibre layer and needling it to the base structure ; iv) converting the roll material into strips ; v) rotating the strips by 90° so that the edges with lateral seam loops are oriented in a transverse machine direction of the covering; and vi) connecting the strips to form a covering , wherein the connection can be made in particular by means of plug wires.
Driving device for unlocking and locking a lock enabling access to protected areas, comprising a driving assembly comprising a source of current, an electric motor and a gear assembly terminated in a toothed wheel , and arranged in a rotary housing , wherein the lock has a body , in which a control element of the lock is seated rotatably, wherein upon mounting of the driving device to the lock the housing is seated in a bearing in the body of the lock by means of the control element to which the housing is connected in a fixed manner, and the driving device is fitted with a ring with teeth cooperating with the toothed wheel of the driving assembly , the toothed wheel seated in a bearing rotatably with respect to the housing , and the ring is arranged coaxially with the rotary housing and in a fixed manner with respect to the body of the lock , characterized in that the ring is seated in a bearing in the rotary housing .
Fixation system for a bone comprising: - a bone screw having a screw head with an essentially spherical seat on which a head thread is built and - a bone plate for fixed-angle polyaxial blocking of the bone screw comprising: a topside of the plate with a screw inlet opening for inserting the bone screw , an underside of the plate provided for bone contact with a screw outlet opening , a through hole extending between the screw inlet opening and the screw outlet opening , a blocking section comprising at least one formable protrusion , formable by screwing in the bone screw for stable blocking of the bone screw at different angles to the hole axis , characterized in that the through hole comprises a guide section which tapers from the screw inlet opening in the direction of the screw outlet opening , so that the essentially spherical seat of the screw head slides along a guide surface of the guide section when the bone screw is screwing into the bone, displacing the bone plate , and is guided into the blocking section . - a bone screw having a screw head with an essentially spherical seat on which a head thread is built and - a bone plate for fixed-angle polyaxial blocking of the bone screw comprising: a topside of the plate with a screw inlet opening for inserting the bone screw , an underside of the plate provided for bone contact with a screw outlet opening , a through hole extending between the screw inlet opening and the screw outlet opening , a blocking section comprising at least one formable protrusion , formable by screwing in the bone screw for stable blocking of the bone screw at different angles to the hole axis , characterized in that the through hole comprises a guide section which tapers from the screw inlet opening in the direction of the screw outlet opening , so that the essentially spherical seat of the screw head slides along a guide surface of the guide section when the bone screw is screwing into the bone, displacing the bone plate , and is guided into the blocking section . a topside of the plate with a screw inlet opening for inserting the bone screw , an underside of the plate provided for bone contact with a screw outlet opening , a through hole extending between the screw inlet opening and the screw outlet opening , a blocking section comprising at least one formable protrusion , formable by screwing in the bone screw for stable blocking of the bone screw at different angles to the hole axis , characterized in that the through hole comprises a guide section which tapers from the screw inlet opening in the direction of the screw outlet opening , so that the essentially spherical seat of the screw head slides along a guide surface of the guide section when the bone screw is screwing into the bone, displacing the bone plate , and is guided into the blocking section .
A support arm for a medical device support system , comprising: a proximal hub (720; 1020) and a distal hub (722; 1022); an intermediate beam (724; 1024) between the proximal hub and the distal hub, the intermediate beam having a cavity (736; 1036); and characterized by at least one tension member (750, 752, 754, 756; 1050, 1052, 1054, 1056) extending through the cavity of the intermediate beam and secured at opposite ends to the proximal hub and the distal hub, the tension member securing the proximal hub, the distal hub, and the intermediate beam together. a proximal hub (720; 1020) and a distal hub (722; 1022); an intermediate beam (724; 1024) between the proximal hub and the distal hub, the intermediate beam having a cavity (736; 1036); and characterized by at least one tension member (750, 752, 754, 756; 1050, 1052, 1054, 1056) extending through the cavity of the intermediate beam and secured at opposite ends to the proximal hub and the distal hub, the tension member securing the proximal hub, the distal hub, and the intermediate beam together.
A surface coated member comprising a base member and a hard coating formed on a surface thereof, the hard coating being constituted of one or more layers formed by CVD, at least one layer among the layers being a layer including hard particles, the hard particles including a multilayer structure having first unit layers and second unit layers being layered alternately, the first unit layer including a first compound, the first compound being made of TiN having a fcc crystal structure, the second unit layer including a second compound, the second compound being made of AlN having a fcc crystal structure, the first unit layer and the second unit layer form a region represented by Ti x Al y N, in which the atomic ratio x of Ti decreases continuously from 1 to 0 and the atomic ratio y of Al continuously increases from 0 to 1 from the first unit layer to the second unit layer, the region having the atomic ratio x/y of Ti and Al greater than or equal to 1 is the first unit layer, and the region having the atomic ratio x/y of less than 1 is the second unit layer, and a thickness of the layer cycle representing a distance from one first unit layer to other adjacent first unit layer across the second unit layer being greater than or equal to 0.5 nm and less than or equal to 20 nm.
A method, performed by a network node , for handling of specific power reduction for a User Equipment, UE, , wherein the method comprises: - receiving , from the UE , a message comprising an identification of a specific type of the UE , wherein the identification is based on an International Mobile station Equipment Identity Software Version, IMEISV; - obtaining a reduced power applied by the UE corresponding to the received identification, and wherein the obtaining comprises: ∘ receiving , from the UE , a report comprising information regarding the available power headroom for an allocation of the UE and a maximum power for the allocation, wherein the report is received in an extended Power Headroom Report, ePHR, ∘ determining the reduced power applied by the UE based on the received available power headroom and the maximum power for the allocation, wherein the obtaining further comprises: ∘ storing , the information about the reduced power for the UE type indicated by the identification and for the corresponding allocation, and when a power reduction information is available to the network node for the received UE identification and a current UE allocation: ∘ retrieving the information about the reduced power for the current allocation of the UE , wherein the method further comprises: - selecting an allocation for transmissions from the UE , based on the obtained reduced power applied by the UE corresponding to the received identification. - receiving , from the UE , a message comprising an identification of a specific type of the UE , wherein the identification is based on an International Mobile station Equipment Identity Software Version, IMEISV; - obtaining a reduced power applied by the UE corresponding to the received identification, and wherein the obtaining comprises: ∘ receiving , from the UE , a report comprising information regarding the available power headroom for an allocation of the UE and a maximum power for the allocation, wherein the report is received in an extended Power Headroom Report, ePHR, ∘ determining the reduced power applied by the UE based on the received available power headroom and the maximum power for the allocation, wherein the obtaining further comprises: ∘ storing , the information about the reduced power for the UE type indicated by the identification and for the corresponding allocation, and when a power reduction information is available to the network node for the received UE identification and a current UE allocation: ∘ retrieving the information about the reduced power for the current allocation of the UE , ∘ receiving , from the UE , a report comprising information regarding the available power headroom for an allocation of the UE and a maximum power for the allocation, wherein the report is received in an extended Power Headroom Report, ePHR, ∘ determining the reduced power applied by the UE based on the received available power headroom and the maximum power for the allocation, - selecting an allocation for transmissions from the UE , based on the obtained reduced power applied by the UE corresponding to the received identification.
A use of a rescue operation load distribution element for supporting pressure-generating rescue devices on a vehicle involved in an accident, wherein the load distribution element comprises at least one load receiving surface for the introduction of a support load of a rescue device and at least one load transfer surface for transferring the support load to an external object , characterized in that at least the load transfer surface is formed by a partial section of a deformable boundary envelope , and that the boundary envelope delimits at least one chamber at least in some sections, which chamber is at least partially filled with a flowable or shape-flexible filling material . at least one load transfer surface for transferring the support load to an external object , characterized in that at least the load transfer surface is formed by a partial section of a deformable boundary envelope , and that the boundary envelope delimits at least one chamber at least in some sections, which chamber is at least partially filled with a flowable or shape-flexible filling material .
A method for smoltification in Salmonidae, characterized in that the method comprises the steps of: - providing a fish feed comprising protein, fat, carbohydrates, vitamins, and minerals, and Na + from 3.934- 39.340 g/kg by weight, Mg 2+ from 0.026-25.530 g/kg by weight, Ca 2+ from 0.036-36.330 g/kg by weight and further comprising polyvalent cation receptor modulator (PVCR) from 1-10 g/kg by weight, wherein the PVCR modulator is in the form of free amino acid(s); - administering the fish feed, in fresh water, to a population of parr, until the fish achieve a status of smoltification; and - transferring the fish that has achieved a status of smoltification to seawater; wherein the feed is administered in the absence of adding additional ions to the freshwater, said ions consisting of Mg 2+ and Ca 2+ and further in the absence of photo manipulation, said photo manipulation being of the type that comprises subjecting a fish population to artificial winter signals comprising an artificial schedule of light and darkness for the purpose of inducing smoltification. - providing a fish feed comprising protein, fat, carbohydrates, vitamins, and minerals, and Na + from 3.934- 39.340 g/kg by weight, Mg 2+ from 0.026-25.530 g/kg by weight, Ca 2+ from 0.036-36.330 g/kg by weight and further comprising polyvalent cation receptor modulator (PVCR) from 1-10 g/kg by weight, wherein the PVCR modulator is in the form of free amino acid(s); - administering the fish feed, in fresh water, to a population of parr, until the fish achieve a status of smoltification; and - transferring the fish that has achieved a status of smoltification to seawater;