mhurhangee/ep-ind-claims huggingface dataset:
A device adapted to provide evidence of tampering with a container, said device comprising: a sleeve having an interior that defines at least a first ledge; and an insert positioned within said sleeve, said insert comprising a flap that is movable between a closed position and an open position; wherein said sleeve is adapted to be moved relative to said insert when there is an attempt to open the container, and said flap is adapted to move from said closed position to said open position when a position of said sleeve relative to said insert is changed a predetermined amount, such that said first ledge is adapted to engage said flap, wherein said open position of said flap is adapted to indicate tampering. a sleeve having an interior that defines at least a first ledge; and an insert positioned within said sleeve, said insert comprising a flap that is movable between a closed position and an open position; wherein said sleeve is adapted to be moved relative to said insert when there is an attempt to open the container, and said flap is adapted to move from said closed position to said open position when a position of said sleeve relative to said insert is changed a predetermined amount, such that said first ledge is adapted to engage said flap, wherein said open position of said flap is adapted to indicate tampering.
A method for controlling DPF regeneration, comprising: judging whether an engine is running normally, if the engine is running normally, a total-running-time timer starts to time to obtain a total running time; judging whether a circulation fuel injection amount of the engine is lower than a circulation fuel injection amount threshold, and whether an engine speed is lower than a speed threshold, if the circulation fuel injection amount of the engine is lower than the circulation fuel injection amount threshold and the engine speed is lower than the speed threshold, a low-load timer starts to time to obtain a low-load running time; calculating a correction factor in real time by dividing the low-load running time by the total running time of the engine; determining an elapsed time, a fuel amount consumed and a mileage traveled from the last DPF regeneration to the current time, according to the time, fuel consumption and travel mileage at the time of the last DPF regeneration; determining a corrected running time, a corrected fuel consumption and a corrected travel mileage, according to the correction factor, the elapsed time, the fuel amount consumed and the mileage traveled; and judging whether the corrected running time, the corrected fuel consumption and the corrected travel mileage exceed corresponding thresholds, and triggering DPF regeneration if one of them exceeds the corresponding threshold. judging whether an engine is running normally, if the engine is running normally, a total-running-time timer starts to time to obtain a total running time; judging whether a circulation fuel injection amount of the engine is lower than a circulation fuel injection amount threshold, and whether an engine speed is lower than a speed threshold, if the circulation fuel injection amount of the engine is lower than the circulation fuel injection amount threshold and the engine speed is lower than the speed threshold, a low-load timer starts to time to obtain a low-load running time; calculating a correction factor in real time by dividing the low-load running time by the total running time of the engine; determining an elapsed time, a fuel amount consumed and a mileage traveled from the last DPF regeneration to the current time, according to the time, fuel consumption and travel mileage at the time of the last DPF regeneration; determining a corrected running time, a corrected fuel consumption and a corrected travel mileage, according to the correction factor, the elapsed time, the fuel amount consumed and the mileage traveled; and judging whether the corrected running time, the corrected fuel consumption and the corrected travel mileage exceed corresponding thresholds, and triggering DPF regeneration if one of them exceeds the corresponding threshold.
A computer-implemented method, comprising: receiving network topology information about a network segment (100, 300) between a source node (102, 302) and a destination node (104, 304); identifying, based on the network topology information, a significant intermediate node (106d, 306q, 306m) in the network segment (100, 300), wherein the significant intermediate node (106d, 306q, 306m) is included in a plurality of paths between the source node (102, 302) and the destination node (104, 304); determining a first plurality of potential paths from the source node (102, 302) to the significant intermediate node (106d, 306q, 306m); calculating a first probabilistic cover value based on the first plurality of potential paths, wherein the probabilistic cover value refers to how many different groups of traceroute packets should be sent between two nodes so that there is a probability with a defined value that at least one group of traceroute packets will travel across each of the paths between those nodes; causing a first set of traceroute packets to be sent from the source node (102, 302), the first set of traceroute packets being based on the first probabilistic cover value; determining a second plurality of potential paths from the significant intermediate node (106d, 306q, 306m) to a subsequent node; calculating a second probabilistic cover value based on the second plurality of potential paths; and causing a second set of traceroute packets to be sent from the source node (102, 302), the second set of traceroute packets being based on the second probabilistic cover value. receiving network topology information about a network segment (100, 300) between a source node (102, 302) and a destination node (104, 304); identifying, based on the network topology information, a significant intermediate node (106d, 306q, 306m) in the network segment (100, 300), wherein the significant intermediate node (106d, 306q, 306m) is included in a plurality of paths between the source node (102, 302) and the destination node (104, 304); determining a first plurality of potential paths from the source node (102, 302) to the significant intermediate node (106d, 306q, 306m); calculating a first probabilistic cover value based on the first plurality of potential paths, wherein the probabilistic cover value refers to how many different groups of traceroute packets should be sent between two nodes so that there is a probability with a defined value that at least one group of traceroute packets will travel across each of the paths between those nodes; causing a first set of traceroute packets to be sent from the source node (102, 302), the first set of traceroute packets being based on the first probabilistic cover value; determining a second plurality of potential paths from the significant intermediate node (106d, 306q, 306m) to a subsequent node; calculating a second probabilistic cover value based on the second plurality of potential paths; and causing a second set of traceroute packets to be sent from the source node (102, 302), the second set of traceroute packets being based on the second probabilistic cover value.
A bioreactor (102; 200) comprising: - a disposable container for housing biomaterials for processing, the disposable container including at least one input port, at least one exhaust port; - at least one harvest port; - a structure (101; 802) for supporting the disposable container; - one or more sensors (108; 206) for sensing one or more parameters of the biomaterials in the container; - a heater for heating the contents of the container, the heater having a thermostat; and - mixing means arranged with the bioreactor such that biomaterials contained in the disposable container are mixed; characterized in that the bioreactor (102; 200) further comprises a fitting comprising a porous surface associated with the input port and configured for allowing the passage of an inlet gas stream and controlling gas bubble size and distribution prior to addition of the inlet gas stream to the interior of the disposable container, wherein the pore size of the porous surface is chosen from macro, micron, submicron, nano, and combinations thereof; and in that the mixing means comprises an impeller on a wall of a lower portion of the container, the impeller being magnetically driven by a motor (110, 112; 306) external to the container and not directly connected to the impeller. - a disposable container for housing biomaterials for processing, the disposable container including at least one input port, at least one exhaust port; - at least one harvest port; - a structure (101; 802) for supporting the disposable container; - one or more sensors (108; 206) for sensing one or more parameters of the biomaterials in the container; - a heater for heating the contents of the container, the heater having a thermostat; and - mixing means arranged with the bioreactor such that biomaterials contained in the disposable container are mixed;
Process for applying a pulverulent material to a surface of a metallic melt in a metallurgical vessel, said process having the following process steps, which are carried out by a robot: - pushing a shovel into a cone of the pulverulent material, wherein the shovel takes up a quantity of the pulverulent material; - metering the pulverulent material located on the shovel wherein a proportion of the pulverulent material is stripped from the shovel in a metered manner by moving the shovel relative to a stripping edge; then - transporting the shovel and the pulverulent material present therein to the metallurgical vessel; and then - emptying the shovel above the metallurgical vessel so that the pulverulent material is applied to the surface of the melt. - pushing a shovel into a cone of the pulverulent material, wherein the shovel takes up a quantity of the pulverulent material; - metering the pulverulent material located on the shovel wherein a proportion of the pulverulent material is stripped from the shovel in a metered manner by moving the shovel relative to a stripping edge; then - transporting the shovel and the pulverulent material present therein to the metallurgical vessel; and then - emptying the shovel above the metallurgical vessel so that the pulverulent material is applied to the surface of the melt.
Method for stabilizing a stack of pre-packed compressible units, comprising discrete stacked products selected from disposable absorbent articles such as diapers, comprising the steps of wrapping said stack in a first wrapping material and wrapping said stack in a second wrapping material, wherein said second wrapping material comprises different physical properties from said first wrapping material, whereby said first wrapping material is a film comprising poly-ethylene, and wherein the second wrapping material comprises paper, wherein said wrapping is performed without significantly deforming the units, whereby the stack is wrapped in said first material by x turns and said stack is wrapped in said second wrapping material by y turns, and wherein x is at least two and wherein y is at least one and wherein said first and second wrapping material is provided as a banderole and wherein the banderole of said first wrapping material comprises a width that is less than the width of the banderole of said second wrapping material.
Elastic coupling (1, 101) comprising a metallic outer ring (3, 103) and a hub-like metallic inner ring (2, 102) wherein an elastic torque transmission means (5, 105) with tooth-like radial protrusions (6, 106) concentrically arranged on the inner ring (2, 102) engages in inner pockets (7, 107) of the outer ring (3, 103, wherein the tooth-like radial protrusions are enclosed by the end walls (8, 108) of the inner pockets (7, 107) of the outer ring (3, 103) coming into contact on their flanks, characterised in that the inner ring is designed as an impeller hub ring (2, 102) with at least two entrainment bars (9, 109) which are at a distance from one another in the circumferential direction and divide the elastic torque transmission means (5, 105) into segments (5a, b, c, d, 105a, b, c, d) and project into entrainment pockets (10, 110) which are provided with a greater chamber dimension (12, 112) in the circumferential direction compared to the inner pockets (7, 107) of the tooth-like radial protrusions (6, 106) and when there is no load on the coupling (1, 101) take up a position away from the end walls (11a, 11b, 114a, 114b) of the entrainment bar pockets (10, 110), wherein assigned to the entrainment bars (9, 109) are elastic hub-like buffer means (13, 113) acting in the rotational end positions.
A fire protection cabinet, in particular safety cabinet, preferably hazardous material cabinet, with a body (1, 2, 3, 4) and with at least one door connected to the body (1, 2, 3, 4), wherein for the most part, the body (1, 2, 3, 4) has a sandwich structure with at least one inwardly facing wooden composite layer and one outwardly facing fire protection layer, and wherein the fire protection layer is designed as one or more mineral-based thermal insulation boards, characterized in that the body (1, 2, 3, 4) is lined on the outside with a sheet steel shell and is constructed completely and finally from the sandwich structure and the sheet steel shell without further layers and without any spacing, that is, implemented, as viewed from the inside to the outside, are the wooden composite layer, the thermal insulation board(s) and finally the sheet steel shell.
A method for detecting a shaft event in a gas turbine engine, the method comprising: determining a detection threshold as a set of threshold values for a spool speed of a first spool of the engine and a load transfer through a shaft of a second spool of the engine different from the first spool, the set of threshold values varying throughout a flight envelope, the detection threshold defining, for each spool speed value, at least one load transfer value beyond which a shaft event is detected; obtaining operation values of the spool speed and the load transfer during operation of the engine; comparing the operation values to the detection threshold; and detecting the shaft event when the operation values are beyond the detection threshold. determining a detection threshold as a set of threshold values for a spool speed of a first spool of the engine and a load transfer through a shaft of a second spool of the engine different from the first spool, the set of threshold values varying throughout a flight envelope, the detection threshold defining, for each spool speed value, at least one load transfer value beyond which a shaft event is detected; obtaining operation values of the spool speed and the load transfer during operation of the engine; comparing the operation values to the detection threshold; and detecting the shaft event when the operation values are beyond the detection threshold.
Sealing mat for the sealed feedthrough of electric cables in a plug-in connector structure, the sealing mat comprising a first outer side; a second outer side, which is opposite from the first outer side, a cable bushing, which connects the first outer side to the second outer side; the cable bushing comprising a first end region, which adjoins the first outer side of the sealing mat; the cable bushing comprising a second end region, which adjoins the second outer side of the sealing mat; a protective skin being arranged on the cable bushing; the protective skin in an intact state sealing the first outer side from the second outer side; the protective skin being arranged in the first end region or in the second end region of the cable bushing, characterized in that the protective skin is arranged in a plane that is formed by the first outer side or is arranged in a plane that is formed by the second outer side.
Arrangement for electrically coupling an electrical power supply unit, in particular for electrical devices which are to be supplied with power independently of the mains, in particular handheld power tools, comprising a charging device, wherein the electrical power supply unit is arranged in a housing in which at least one rechargeable battery, which can be charged by the charging device, is arranged, and the electrical power supply unit and the charging device each have at least one first and one second contact element (41, 42, 45), wherein the first and the second contact element of the electrical power supply unit interact with the first and the second contact element (41, 42) of the charging device in such a way that the charging process takes place only in a defined end position of the electrical power supply unit in the charging device, characterized in that at least one first contact element of the charging device is arranged such that it protrudes in relation to a second contact element of the charging device or at least one first contact element of the electrical power supply unit is arranged such that it protrudes in relation to a second contact element of the electrical power supply unit, wherein at least the one first contact element of the charging device or of the power supply device which is arranged such that it protrudes in relation to the second contact element of the charging device or of the power supply device has a spring arrangement which is designed such that the respectively second contact elements of the power supply unit and the charging device make contact with one another only in the end position.
A tool for attaching screw connectors to electrical cables, wherein the tool consists of a grip-piece and a reduction gear mechanism, wherein this reduction gear mechanism is actuated by means of a hand crank via the input shaft to apply a torque to the head of the screws of a screw connector at the end of the output shaft by means of an interchangeable socket wrench or insert, said torque being greater than the torque acting on the hand crank (3, 3b), characterized in that the grip-piece, on its side facing towards the screw connector, is provided with at least one prong, advantageously with two prongs which are arranged parallel to the axis of the grip-piece and are spaced apart from one another by more than the largest external diameter of the screw connector and/or by more than the largest diameter of the cables (5, 5a) to be connected, and in that the reduction gear mechanism is provided in the interior of the grip-piece in a manner secured against rotation.
A pharmaceutical composition comprising amorphous sitagliptin, wherein the amorphous sitagliptin has been prepared from a solution comprising sitagliptin and a crystallization inhibitor, wherein the sitagliptin is sitagliptin hydrochloride and the crystallization inhibitor is polyvinylpyrrolidone, and wherein the composition further comprises a pharmaceutically acceptable excipient which is microcrystalline cellulose.
A vessel, comprising: a shell defining an internal volume; a sleeve mounted on the shell and defining a passage having a diameter that is large enough to facilitate the passage of a human therethrough; and a cover that covers the passage and is connected to the sleeve by a weld, characterized in that the vessel further comprises a skirt mounted on the cover and surrounding at least a portion of the sleeve, and the weld is located along an inner circumference of a bottom of the sleeve and the skirt surrounds the bottom of the sleeve. a shell defining an internal volume; a sleeve mounted on the shell and defining a passage having a diameter that is large enough to facilitate the passage of a human therethrough; and a cover that covers the passage and is connected to the sleeve by a weld, characterized in that the vessel further comprises a skirt mounted on the cover and surrounding at least a portion of the sleeve, and the weld is located along an inner circumference of a bottom of the sleeve and the skirt surrounds the bottom of the sleeve.
A recording medium comprising: a substrate; and an ink-receiving layer, wherein the ink-receiving layer comprises a second ink-receiving layer containing inorganic particles having an average primary particle size of 50 nm or less and a first ink-receiving layer in this order from the substrate, wherein the first ink-receiving layer contains an amorphous silica having an average secondary particle size of 1.0 μ m or more and an alumina hydrate having an average primary particle size of 50 nm or less, and wherein the content of the amorphous silica in the first ink-receiving layer is 30 mass% or more and 95 mass% or less based on the total content of all inorganic particles in the first ink-receiving layer. a substrate; and an ink-receiving layer, wherein the ink-receiving layer comprises a second ink-receiving layer containing inorganic particles having an average primary particle size of 50 nm or less and a first ink-receiving layer in this order from the substrate, wherein the first ink-receiving layer contains an amorphous silica having an average secondary particle size of 1.0 μ m or more and an alumina hydrate having an average primary particle size of 50 nm or less, and wherein the content of the amorphous silica in the first ink-receiving layer is 30 mass% or more and 95 mass% or less based on the total content of all inorganic particles in the first ink-receiving layer.
A monitor device for a medical visualisation system comprising a visualisation device having an image sensor configured to generate image data indicative of a view from the visualisation device, the monitor device being operable to receive the image data as the image data is being generated by the image sensor, the monitor device comprising a display, a graphical user interface and a power unit for powering the monitor device, the power unit comprising a rechargeable battery and a power connection for being connected to an external power supply, the monitor device displays the graphical user interface with the display, wherein the monitor device displays a live representation of the image data within a first portion of the graphical user interface, and the monitor device displays a battery indicator indicative of a remaining charge of the rechargeable battery, wherein the battery indicator indicates an expected remaining battery time, wherein: - in accordance with the visualisation device not being connected to the monitor device, the expected remaining battery time is based on expected power consumption with the visualisation device being connected, and - in accordance with the visualisation device being connected to the monitor device, the expected remaining battery time is based on a measured power consumption. the monitor device being operable to receive the image data as the image data is being generated by the image sensor, the monitor device comprising a display, a graphical user interface and a power unit for powering the monitor device, the power unit comprising a rechargeable battery and a power connection for being connected to an external power supply, the monitor device displays the graphical user interface with the display, wherein the monitor device displays a live representation of the image data within a first portion of the graphical user interface, and the monitor device displays a battery indicator indicative of a remaining charge of the rechargeable battery, wherein the battery indicator indicates an expected remaining battery time, wherein: - in accordance with the visualisation device not being connected to the monitor device, the expected remaining battery time is based on expected power consumption with the visualisation device being connected, and - in accordance with the visualisation device being connected to the monitor device, the expected remaining battery time is based on a measured power consumption. - in accordance with the visualisation device not being connected to the monitor device, the expected remaining battery time is based on expected power consumption with the visualisation device being connected, and - in accordance with the visualisation device being connected to the monitor device, the expected remaining battery time is based on a measured power consumption.