mhurhangee/ep-ind-claims huggingface dataset:
A method of cladding or hard-facing an alloyed metal onto a parent metal for minimizing admixture by generating a series of electric arc pulses at high frequency between an advancing electrode comprising said alloyed metal and a workpiece comprising said parent metal, wherein molten metal transfers to the workpiece by a short circuit, said method comprising: (a) increasing an output current level over a first time segment; (b) regulating said output current level to a peak current level over a second time segment; (c) decreasing said output current level from said peak current level toward a background current level to induce a first short of molten metal between said advancing electrode and said workpiece; (d) regulating said output current level to said background current level; (e) determining if said first short occurs; (f) ramping said output current level above said background current level, if said short has been determined to occur, until said short is cleared; (g) pulsing said output current level over a third time segment to prevent a second short from occurring directly after clearing said first short. (h) repeating steps (a) through (d) at a pre-defined pulse repetition rate for said series of pulses characterized in that a sum of said first time segment and said second time segment is less than 20% of a pulse period of said series of pulses. (a) increasing an output current level over a first time segment; (b) regulating said output current level to a peak current level over a second time segment; (c) decreasing said output current level from said peak current level toward a background current level to induce a first short of molten metal between said advancing electrode and said workpiece; (d) regulating said output current level to said background current level; (e) determining if said first short occurs; (f) ramping said output current level above said background current level, if said short has been determined to occur, until said short is cleared; (g) pulsing said output current level over a third time segment to prevent a second short from occurring directly after clearing said first short. (h) repeating steps (a) through (d) at a pre-defined pulse repetition rate for said series of pulses
A biopsy device comprising: (a) a probe including a probe body (606, 602), and a needle extending distally from the probe body (606, 602); (b) a holster including a prong extending from a portion of the holster, the probe being releasably couplable to the holster; and (c) a probe lock including a lock member, the lock member being configured to move laterally relative to a longitudinal axis defined by the needle to both selectively lock the probe to the holster and to provide an affirmative indication of locking of the probe to the holster, characterized in that the probe further comprises a retainer and the probe lock further comprises a flex lock extending from the lock member, the flex lock being configured to engage the retainer to hold the lock member in an unlocked position and release the lock member upon engagement with the prong. (a) a probe including a probe body (606, 602), and a needle extending distally from the probe body (606, 602); (b) a holster including a prong extending from a portion of the holster, the probe being releasably couplable to the holster; and (c) a probe lock including a lock member, the lock member being configured to move laterally relative to a longitudinal axis defined by the needle to both selectively lock the probe to the holster and to provide an affirmative indication of locking of the probe to the holster, characterized in that the probe further comprises a retainer and the probe lock further comprises a flex lock extending from the lock member, the flex lock being configured to engage the retainer to hold the lock member in an unlocked position and release the lock member upon engagement with the prong.
A process for producing biodiesel, wherein said process comprises the following steps: a) After processing and drying a feed of oleaginous seeds, preparing in a reactor an homogeneous suspension of oleaginous seeds and an anhydrous alcohol in an amount of 4:1 to 0.5:1 by part, at ambient temperature, so as to obtain an emulsion, b) Adding an alkaline alkoxide catalyst to the emulsion obtained in a), the amount of catalyst being of from 0.1 to 5 wt% based on the weight of seeds, and allowing the transesterification reaction to occur during 30 to 90 minutes at temperatures between 45 and 55 °C, so as to obtain the desired alkyl esters at 98-100% conversion; c) By filtration, separating the alkyl ester products, obtaining a liquid phase and a solid phase; d) From the liquid phase, withdrawing the alcohol by distillation and decanting the remaining phase, glycerin and the desired alkyl esters; e) From the solid phase, drying and sieving, obtaining carbohydrates for fermentation or cattle feeding and hulls for fertilizer formulation. a) After processing and drying a feed of oleaginous seeds, preparing in a reactor an homogeneous suspension of oleaginous seeds and an anhydrous alcohol in an amount of 4:1 to 0.5:1 by part, at ambient temperature, so as to obtain an emulsion, b) Adding an alkaline alkoxide catalyst to the emulsion obtained in a), the amount of catalyst being of from 0.1 to 5 wt% based on the weight of seeds, and allowing the transesterification reaction to occur during 30 to 90 minutes at temperatures between 45 and 55 °C, so as to obtain the desired alkyl esters at 98-100% conversion; c) By filtration, separating the alkyl ester products, obtaining a liquid phase and a solid phase; d) From the liquid phase, withdrawing the alcohol by distillation and decanting the remaining phase, glycerin and the desired alkyl esters; e) From the solid phase, drying and sieving, obtaining carbohydrates for fermentation or cattle feeding and hulls for fertilizer formulation.
A safety mechanism for a Huber needle assembly having a tubing (2,105) and a needle (4,103) extending from a distal end of the tubing, the safety mechanism comprising: a main body defining a channel (6,111) to at least partially encompass the tubing and having a distal end, a proximal end, opposing side walls, and a securement door coupled at the distal end of the main body, the securement door being pivotable between a closed position for docking the main body to the needle and an open position enabling the main body to be de-docked from the needle and slid along the tubing away from the needle, the main body further having a first hinge mechanism (3,106) near the distal end of the main body and a first latching mechanism toward the proximal end of the main body; and a movable cover having a needle receptacle, a second hinge mechanism connected with the first hinge mechanism of the main body by a cam lock axle, and a biasing member (16,121) for pivoting the movable cover about the first and second hinge mechanisms relative to the main body, the movable cover further having a second latching mechanism to latch with the first latching mechanism to allow retraction of the movable cover into a closed position to engage with a bottom side of the main body, the movable cover further having a release mechanism (9,114) to release the latching between the first and second latching mechanisms to allow the pivoting of the movable cover about the first and second hinge mechanisms such that the needle receptacle of the movable cover at least partially receives the needle of the Huber needle assembly when in an open position. a main body defining a channel (6,111) to at least partially encompass the tubing and having a distal end, a proximal end, opposing side walls, and a securement door coupled at the distal end of the main body, the securement door being pivotable between a closed position for docking the main body to the needle and an open position enabling the main body to be de-docked from the needle and slid along the tubing away from the needle, the main body further having a first hinge mechanism (3,106) near the distal end of the main body and a first latching mechanism toward the proximal end of the main body; and a movable cover having a needle receptacle, a second hinge mechanism connected with the first hinge mechanism of the main body by a cam lock axle, and a biasing member (16,121) for pivoting the movable cover about the first and second hinge mechanisms relative to the main body, the movable cover further having a second latching mechanism to latch with the first latching mechanism to allow retraction of the movable cover into a closed position to engage with a bottom side of the main body, the movable cover further having a release mechanism (9,114) to release the latching between the first and second latching mechanisms to allow the pivoting of the movable cover about the first and second hinge mechanisms such that the needle receptacle of the movable cover at least partially receives the needle of the Huber needle assembly when in an open position.
A lateral pipe adaptor comprising: a tubular elastomeric body having a longitudinal axis, the body having at one axial outer end a socket adapted for receiving a lateral pipe, and, at the other axial inner end, a tail adapted for insertion into a hole provided in a main pipe; an internal support sleeve adapted for insertion into the tail so as to press the external surface of the tail into sealing engagement with the hole; and an external support collar operable to fit between the socket and the outer wall of the pipe and thereby prevent the tail projecting into the bore of the main pipe; wherein the internal support sleeve is provided with a circumferential flange at an axial outer end of the tail in an assembled state of the adaptor; and characterised in that the internal support sleeve comprises a lateral pipe shear support sleeve projecting axially outwards from the flange in an assembled state of the adaptor.
A method for identifying malicious encrypted network traffic associated with a malware software component communicating via a network, the method comprising: defining, for the malware, a portion of network traffic including a plurality of contiguous bytes occurring at a predefined offset in a network communication of the malware; extracting the defined portion of network traffic for each of a plurality of disparate network connections for the malware; evaluating a metric for each byte in each extracted portion; representing each extracted portion in a matrix data structure as an image of pixels wherein each pixel corresponds to the value of the evaluated metric for a byte of the extracted portion; training a neural network based on the images for the extracted portions such that subsequent network traffic can be classified by the neural network to identify malicious network traffic associated with the malware based on an image generated to represent the defined portion of the subsequent network traffic, wherein the metric is a measure of entropy as a measure of a degree of indeterminacy of bytes, and wherein the defined portion of network traffic is a subset of the network traffic subsequent to a transport protocol handshake and up to a predetermined endpoint. defining, for the malware, a portion of network traffic including a plurality of contiguous bytes occurring at a predefined offset in a network communication of the malware; extracting the defined portion of network traffic for each of a plurality of disparate network connections for the malware; evaluating a metric for each byte in each extracted portion; representing each extracted portion in a matrix data structure as an image of pixels wherein each pixel corresponds to the value of the evaluated metric for a byte of the extracted portion; training a neural network based on the images for the extracted portions such that subsequent network traffic can be classified by the neural network to identify malicious network traffic associated with the malware based on an image generated to represent the defined portion of the subsequent network traffic, wherein the metric is a measure of entropy as a measure of a degree of indeterminacy of bytes, and wherein the defined portion of network traffic is a subset of the network traffic subsequent to a transport protocol handshake and up to a predetermined endpoint.
A method of treating recyclable raw materials containing valuable metals, the method comprising the steps of: feeding recyclable raw materials containing valuable metals into a rotary kiln furnace in which a refractory product having an Al 2 O 3 -Cr 2 O 3 content of 70% or greater is used for an inner wall; feeding combustible shredder residue into the rotary kiln furnace; feeding an additive containing SiO 2 as a major component into the rotary kiln furnace so as to increase a viscosity of a slag flowing along the inner wall, thereby the recyclable raw materials are attached on the slag having a high viscosity such that at least part of the recyclable raw materials is exposed to the inside of the rotary kiln furnace; and burning/melting the recyclable raw materials attached on the slag in the rotary kiln furnace, wherein a ratio of the weight of the additive to the sum of the weight of the recyclable raw materials, the weight of the shredder residue, and the weight of the additive which are charged into the rotary kiln furnace is 0.0035 or higher and 0.5 or lower. feeding recyclable raw materials containing valuable metals into a rotary kiln furnace in which a refractory product having an Al 2 O 3 -Cr 2 O 3 content of 70% or greater is used for an inner wall; feeding combustible shredder residue into the rotary kiln furnace; feeding an additive containing SiO 2 as a major component into the rotary kiln furnace so as to increase a viscosity of a slag flowing along the inner wall, thereby the recyclable raw materials are attached on the slag having a high viscosity such that at least part of the recyclable raw materials is exposed to the inside of the rotary kiln furnace; and burning/melting the recyclable raw materials attached on the slag in the rotary kiln furnace,
A method for preparing a hydroxypiperidine derivative, comprising a step of: reacting a piperidylidene acetic acid derivative represented by the formula: wherein R 1 is an arylmethyl group which may have a substituent group, and R 2 is an alkyl group, with 4-hydroxypiperidine in the presence of base, to obtain a hydroxypiperidine derivative represented by the formula or the formula: wherein R 1 is an arylmethyl group which may have a substituent group. reacting a piperidylidene acetic acid derivative represented by the formula: wherein R 1 is an arylmethyl group which may have a substituent group, and R 2 is an alkyl group, with 4-hydroxypiperidine in the presence of base, to obtain a hydroxypiperidine derivative represented by the formula or the formula: wherein R 1 is an arylmethyl group which may have a substituent group.
Method for producing a vehicle plastic pane with a heating function, which comprises at least - a one- or two-component, semi-transparent polymeric pane base body, - at least a single-layer hardcoat or double-layer hardcoat with a basecoat, - at least a first and at least a second busbar having opposing electrical charge, which are arranged substantially or exactly parallel to one another at a certain distance from one another, and - are electrically connected to one another using at least two conducting paths as heating wires, such that upon application of a voltage, a heating current flows from the at least one first busbar to the at least one second busbar, as well as - on and/or in each busbar, at least one connection element for the electrical connection of the at least one first and the at least one second busbar to, in each case, a pole of a voltage source, using the following process steps in the order: Providing a one- or two-component, semi-transparent, polymeric pane base body, Coating the pane base body with at least one single-layer hardcoat or at least one double-layer hardcoat with a basecoat, Embedding the heating wires in such a way that they can be in direct electrical contact with the busbars, Depositing the busbars in direct electrical contact with the heating wires, as well as Mounting at least one connection element on and/or in the at least one first and the at least one second busbar or, alternatively, in the order,,, and, wherein the connection elements remain exposed, characterized in that the heating wires are embedded along their entire length, that the heating wires are partially exposed, at least in the region of the at least one first and the at least one second busbar, such that they are in direct electrical contact with the busbars, and that the process step is performed using the fine powder coating plasma process at atmospheric pressure. - a one- or two-component, semi-transparent polymeric pane base body, - at least a single-layer hardcoat or double-layer hardcoat with a basecoat, - at least a first and at least a second busbar having opposing electrical charge, which are arranged substantially or exactly parallel to one another at a certain distance from one another, and - are electrically connected to one another using at least two conducting paths as heating wires, such that upon application of a voltage, a heating current flows from the at least one first busbar to the at least one second busbar, as well as - on and/or in each busbar, at least one connection element for the electrical connection of the at least one first and the at least one second busbar to, in each case, a pole of a voltage source, Providing a one- or two-component, semi-transparent, polymeric pane base body, Coating the pane base body with at least one single-layer hardcoat or at least one double-layer hardcoat with a basecoat, Embedding the heating wires in such a way that they can be in direct electrical contact with the busbars, Depositing the busbars in direct electrical contact with the heating wires, as well as Mounting at least one connection element on and/or in the at least one first and the at least one second busbar
A triac circuit comprising: a triac having first and second main terminals (MT1,MT2) and a gate terminal; and a thyristor connected between one of the main terminals (MT1,MT2) and a control terminal of the triac circuit; wherein the thyristor is adapted such that it will be turned on by its own thermally generated leakage current when raised to a desired temperature; and wherein a gate terminal of the thyristor is open circuit. a triac having first and second main terminals (MT1,MT2) and a gate terminal; and a thyristor connected between one of the main terminals (MT1,MT2) and a control terminal of the triac circuit; wherein the thyristor is adapted such that it will be turned on by its own thermally generated leakage current when raised to a desired temperature; and wherein a gate terminal of the thyristor is open circuit.
A spray dispenser for dispensing liquid, the dispenser comprising: a container for holding the liquid to be dispensed; and a dispensing assembly for extracting liquid from the container, the dispensing assembly comprising: a pressure means for creating a pressure differential for dispensing the liquid and a filter located within a filter housing; characterized in that the dispensing assembly comprises a pressure-relief valve constructed to release excessive pressure in the container, wherein the pressure-relief valve is selected from the group consisting of a swing valve, a ball check valve, and a duckbill valve, the pressure-relief valve being closed in the absence of excessive pressure in the container to prevent air and contaminants from entering the container; wherein: the filter is in a gas flow path between the interior of the container and the pressure-relief valve, or the pressure-relief valve is in a gas flow path between the interior of the container and the filter. a container for holding the liquid to be dispensed; and a dispensing assembly for extracting liquid from the container, the dispensing assembly comprising: a pressure means for creating a pressure differential for dispensing the liquid and a filter located within a filter housing; characterized in that the dispensing assembly comprises a pressure-relief valve constructed to release excessive pressure in the container, wherein the pressure-relief valve is selected from the group consisting of a swing valve, a ball check valve, and a duckbill valve, the pressure-relief valve being closed in the absence of excessive pressure in the container to prevent air and contaminants from entering the container; wherein: the filter is in a gas flow path between the interior of the container and the pressure-relief valve, or the pressure-relief valve is in a gas flow path between the interior of the container and the filter. a pressure means for creating a pressure differential for dispensing the liquid and a filter located within a filter housing; characterized in that the dispensing assembly comprises a pressure-relief valve constructed to release excessive pressure in the container, wherein the pressure-relief valve is selected from the group consisting of a swing valve, a ball check valve, and a duckbill valve, the pressure-relief valve being closed in the absence of excessive pressure in the container to prevent air and contaminants from entering the container; wherein: the filter is in a gas flow path between the interior of the container and the pressure-relief valve, or the pressure-relief valve is in a gas flow path between the interior of the container and the filter. the filter is in a gas flow path between the interior of the container and the pressure-relief valve, or the pressure-relief valve is in a gas flow path between the interior of the container and the filter.