mhurhangee/ep-ind-claims huggingface dataset:
An exhaust back pressure sensing system, comprising: an absolute pressure sensor exposable to an exhaust gas, wherein said absolute pressure sensor comprises at least one pressure sense die and a hermetically sealed cover located above a diaphragm configured from said at least one pressure sense die, wherein said sealed cover and said diaphragm form a reference pressure cavity therebetween; a housing in which said absolute pressure sensor is located in association with a carrier for maintaining said absolute pressure sensor and a folded circuit board populated with a plurality of surface mounted components for electrical connection to said absolute pressure sensor; a connector coupled to the housing, the connector having a plurality of terminals; and a pressure inlet formed from said carrier, wherein said pressure inlet is filled with a gel for protecting said diaphragm and at least one adhesive thereof, thereby preventing said exhaust gas, including acids and hazardous chemicals thereof from damaging said at least one pressure sense die and electrically sensitive portions thereof, wherein said folded circuit board comprises a flexible Printed Circuit Board having two stiffened lobes, one stiffened lobe coupled to the carrier and the other stiffened lobe connected to the plurality of terminals. an absolute pressure sensor exposable to an exhaust gas, wherein said absolute pressure sensor comprises at least one pressure sense die and a hermetically sealed cover located above a diaphragm configured from said at least one pressure sense die, wherein said sealed cover and said diaphragm form a reference pressure cavity therebetween; a housing in which said absolute pressure sensor is located in association with a carrier for maintaining said absolute pressure sensor and a folded circuit board populated with a plurality of surface mounted components for electrical connection to said absolute pressure sensor; a connector coupled to the housing, the connector having a plurality of terminals; and a pressure inlet formed from said carrier, wherein said pressure inlet is filled with a gel for protecting said diaphragm and at least one adhesive thereof, thereby preventing said exhaust gas, including acids and hazardous chemicals thereof from damaging said at least one pressure sense die and electrically sensitive portions thereof, wherein said folded circuit board comprises a flexible Printed Circuit Board having two stiffened lobes, one stiffened lobe coupled to the carrier and the other stiffened lobe connected to the plurality of terminals.
Apparatus for coordinating two vehicles, comprising a monitoring device for monitoring transloading from the first on to the second vehicle and a control unit which is adapted to control a speed differential between the two vehicles (1, 15) and to establish a target position for the impact location of a load material flow ejected by a transloading device of the first vehicle at the second vehicle, characterised in that the control unit is further adapted by means of the monitoring device to detect the position of an impact location of a load material flow ejected by the transloading device of the first vehicle at the second vehicle and in the event of a deviation in the detected position of the impact location from the target position to set the speed differential to different from zero until the detected position coincides with the target position.
A method for detecting a position of a barrier, the method being performed in a status monitor device and comprising the steps of: detecting a barrier position of the barrier using a first sensor, the barrier position indicating a degree of opening of the barrier; detecting when the barrier is in a closed position using a second sensor; and calibrating the first sensor to indicate a closed position every time the barrier is detected to be in the closed position. detecting a barrier position of the barrier using a first sensor, the barrier position indicating a degree of opening of the barrier; detecting when the barrier is in a closed position using a second sensor; and calibrating the first sensor to indicate a closed position every time the barrier is detected to be in the closed position.
An architectural window covering, comprising: a shade; a roller defining a bore coupled to the shade; and at least two motors (200, 202) axially aligned and electrically coupled in parallel and positioned at least partially in said bore and rotatably coupled to the roller; characterised by: an elongated motor housing defining a cavity; and wherein said at least two motors (200, 202) are positioned at least partially in said cavity of said motor housing, which is positioned at least partially in said bore and being rotatable relative to said roller. a shade; a roller defining a bore coupled to the shade; and at least two motors (200, 202) axially aligned and electrically coupled in parallel and positioned at least partially in said bore and rotatably coupled to the roller; characterised by: an elongated motor housing defining a cavity; and wherein said at least two motors (200, 202) are positioned at least partially in said cavity of said motor housing, which is positioned at least partially in said bore and being rotatable relative to said roller.
Lamp with a plurality of LEDs which are arranged one behind the other in the lamp's longitudinal direction and each in LED spacing by means of an LED carrier, whereby each LED emits light in a certain solid angle area around a beam centre direction, which solid angle area is directed toward a lamp reflector for indirect light emission of the lamp, characterised in that the number of LEDs and the LED spacing is selected in such a way that the solid angle areas of all LEDs overlap at least partially after the reflection at the lamp reflector at an illumination surface distance from an underside of the lamp of at least 0.2 to 2.5 times the distance between the LEDs that are spaced the farthest from each other, wherein the lamp reflector runs in a straight line in the lamp's longitudinal direction and is put together in the direction transverse to the lamp from a number of essentially flat or curved reflector surfaces (12, 13, 14) connected to one another, wherein the reflector surfaces (12, 13, 14) are tilted relative to one another for establishing an illumination angle common to all LEDs, and wherein the LED carrier (5, 18) is arranged outside the reflected solid angle area of each LED.
A heat treatment device comprising: a heat treatment chamber which accommodates an object to be treated; a cooling gas supply unit which supplies a hydrogen gas as a cooling gas into the heat treatment chamber; and a cooling gas circulation unit which circulates the cooling gas in the heat treatment chamber; characterised in that: the cooling gas circulation unit includes a motor which is provided outside the heat treatment chamber, the motor including a gas introduction part and a gas exhaust part which are provided at a housing of the motor, and the heat treatment device further comprises a gas purge unit which supplies an inert gas to the gas introduction part, and gas-purges, with the inert gas, inside the housing of the motor. a heat treatment chamber which accommodates an object to be treated; a cooling gas supply unit which supplies a hydrogen gas as a cooling gas into the heat treatment chamber; and a cooling gas circulation unit which circulates the cooling gas in the heat treatment chamber; characterised in that: the cooling gas circulation unit includes a motor which is provided outside the heat treatment chamber, the motor including a gas introduction part and a gas exhaust part which are provided at a housing of the motor, and the heat treatment device further comprises a gas purge unit which supplies an inert gas to the gas introduction part, and gas-purges, with the inert gas, inside the housing of the motor. the cooling gas circulation unit includes a motor which is provided outside the heat treatment chamber, the motor including a gas introduction part and a gas exhaust part which are provided at a housing of the motor, and the heat treatment device further comprises a gas purge unit which supplies an inert gas to the gas introduction part, and gas-purges, with the inert gas, inside the housing of the motor.
A method for pretreating an unfired honeycomb formed article of a raw material composition containing a ceramic raw material, water, and a binder and having a plurality of cells separated by partition walls and functioning as fluid passages before firing, wherein the method has a first step, for removing water in the honeycomb formed article to dry the honeycomb formed article, of passing superheated steam having a temperature of 100 to 150°C through the cells to raise temperature of the honeycomb formed article and then maintaining the temperature of the superheated steam at the temperature of the superheated steam passed through the cells or more and 200°C or less; and wherein, after the first step, the method further has a second step, for removing the binder in the honeycomb formed article having a higher boiling point than that of water, where the honeycomb formed article is maintained in an atmosphere of superheated steam at a temperature greater than the temperature in the first step and 600°C or less to remove binder from the honeycomb formed article. wherein the method has a first step, for removing water in the honeycomb formed article to dry the honeycomb formed article, of passing superheated steam having a temperature of 100 to 150°C through the cells to raise temperature of the honeycomb formed article and then maintaining the temperature of the superheated steam at the temperature of the superheated steam passed through the cells or more and 200°C or less; and wherein, after the first step, the method further has a second step, for removing the binder in the honeycomb formed article having a higher boiling point than that of water, where the honeycomb formed article is maintained in an atmosphere of superheated steam at a temperature greater than the temperature in the first step and 600°C or less to remove binder from the honeycomb formed article.
A toroidal transformer assembly of an electronic component module assembly, comprising: a transformer mounting plate receptive of the toroidal transformer, the transformer mounting plate including: a base; a center boss extending from a first side of the base; an outer ring extending from the first side of the base, and spaced apart from the center boss, the center boss and the outer ring defining a mounting location for a toroidal transformer therebetween; a plurality of fins (42, 44) to conduct thermal energy from the toroidal transformer to the base; a toroidal transformer mounted at the mounting location; characterized in that a mounting base plate is protruding from a second side of the base opposite the first side. a base; a center boss extending from a first side of the base; an outer ring extending from the first side of the base, and spaced apart from the center boss, the center boss and the outer ring defining a mounting location for a toroidal transformer therebetween; a plurality of fins (42, 44) to conduct thermal energy from the toroidal transformer to the base; a toroidal transformer mounted at the mounting location; characterized in that a mounting base plate is protruding from a second side of the base opposite the first side.
A system, comprising: a welding power supply that provides a welding output to an advancing wire electrode to produce an arc between the electrode and a workpiece; a waveform generator configured to provide a welding waveform to the welding power supply, the welding power supply modulates the welding output in accordance with the welding waveform (200, 300, 400, 500); and a controller configured to modify the welding waveform (200, 300, 400, 500) to: increase the welding output from a background level to a first target during a first stage; and increase the welding output from the first target to a second target during a second stage; wherein the welding output is increased during the first stage according to a first rate of change and the welding output is increased during the second stage according to a second rate of change; characterized in that the second rate of change is greater than the first rate of change. a waveform generator configured to provide a welding waveform to the welding power supply, the welding power supply modulates the welding output in accordance with the welding waveform (200, 300, 400, 500); and a controller configured to modify the welding waveform (200, 300, 400, 500) to: increase the welding output from a background level to a first target during a first stage; and increase the welding output from the first target to a second target during a second stage; wherein the welding output is increased during the first stage according to a first rate of change and the welding output is increased during the second stage according to a second rate of change; characterized in that the second rate of change is greater than the first rate of change.
A method for analyzing waveform capture data in a power system, the method comprising: measuring electrical signals in the power system using a plurality of intelligent electronic devices, IEDs; detecting at least one electrical event in the power system based on the measured electrical signals from the plurality of IEDs; in response to detecting the at least one electrical event, generating at least two waveform captures on the plurality of IEDs as a result of the at least one electrical event; analyzing the at least two waveform captures on at least one controller coupled to the plurality of IEDs to identify at least one associated characteristic/trait from the at least two waveform captures; classifying the at least one associated characteristic/trait from the at least two waveform captures based on at least one of the analysis of the at least two waveform captures and the at least one associated characteristic/trait; determining at least one potential relevancy of at least one of the at least one associated characteristic/trait and the classification(s) of the at least one associated characteristic/trait to the power system; and taking one or more actions based on the determined at least one potential relevancy, wherein the at least one associated characteristic/trait identified from the at least two waveform captures includes at least one of similarity(ies) and dissimilarity(ies) associated with, or derived from, the at least two waveform captures. measuring electrical signals in the power system using a plurality of intelligent electronic devices, IEDs; detecting at least one electrical event in the power system based on the measured electrical signals from the plurality of IEDs; in response to detecting the at least one electrical event, generating at least two waveform captures on the plurality of IEDs as a result of the at least one electrical event; analyzing the at least two waveform captures on at least one controller coupled to the plurality of IEDs to identify at least one associated characteristic/trait from the at least two waveform captures; classifying the at least one associated characteristic/trait from the at least two waveform captures based on at least one of the analysis of the at least two waveform captures and the at least one associated characteristic/trait; determining at least one potential relevancy of at least one of the at least one associated characteristic/trait and the classification(s) of the at least one associated characteristic/trait to the power system; and taking one or more actions based on the determined at least one potential relevancy, wherein the at least one associated characteristic/trait identified from the at least two waveform captures includes at least one of similarity(ies) and dissimilarity(ies) associated with, or derived from, the at least two waveform captures.
A medical product, comprising: a pocket (10, 20); an implantable medical device positioned in said pocket, characterized in that the pocket is a remodelable material pocket, wherein said remodelable material comprises a collagenous extracellular matrix material and is effective to promote cellular invasion and ingrowth into the remodelable material such that the implantable medical device will become at least partially surrounded by remodeled patient tissue following implantation; and one or more therapeutic agents in a void space in the remodelable material pocket and/or in the remodelable material. a pocket (10, 20); an implantable medical device positioned in said pocket, characterized in that the pocket is a remodelable material pocket, wherein said remodelable material comprises a collagenous extracellular matrix material and is effective to promote cellular invasion and ingrowth into the remodelable material such that the implantable medical device will become at least partially surrounded by remodeled patient tissue following implantation; and one or more therapeutic agents in a void space in the remodelable material pocket and/or in the remodelable material.
A drum conveyor comprising an elongate drum that is hollow and a plurality of fingers, wherein the plurality of fingers are supported at one end within the elongate drum and extend outward through apertures in a wall of the elongate drum and wherein a finger support supporting a finger comprises a base plate mounted on a surface of the elongate drum; a cover plate fixed to the base plate; and a swivel member disposed between the base plate and the cover plate; wherein the swivel member is constrained by the base plate and the cover plate to rotate with respect to the base plate and the cover plate about an axis, characterized in that the finger support is fixed to a conical end portion (128, 130) of the elongate drum, that the finger support supports a finger of the plurality of fingers that is disposed at an angle with respect to a rotational axis of the elongate drum and that the angle is acute throughout an entire rotation of the elongate drum and varies continuously between two angular limits as the elongate drum rotates.
A mobile communication unit comprising a means adapted to capture image data of a human identification characteristic; a display; a memory and a library of human identification characteristics data is stored in the memory, whereby, in use, a recognition unit compares the captured image data with the data stored in the memory, and is operative to indicate when a match, or closest match, is found.
A method for cutting a food product, particularly an elongated food product, into portions, in particular into strips or cubes, comprising the following steps: (a) the food product is advanced onto a cutting device by means of a feed device, (b) successive portions of the food product are cut off from an end of the food product closest to the cutting device by means of at least one cutting element, wherein the cutting element is guided by means of a disc-shaped cutting element carrier on which the cutting element is disposed, wherein the cutting element carrier is rotated about a drive axis which is aligned at least substantially parallel to a feed direction of the feed device, (c) a multiplicity of strip-like portions is created in the course of a single guided movement of the cutting element past the end of the food product, characterized by the following method step: (d) the portions being created are cut to length by means of at least one device for cutting to length after cutting by means of the at least one cutting element. (a) the food product is advanced onto a cutting device by means of a feed device, (b) successive portions of the food product are cut off from an end of the food product closest to the cutting device by means of at least one cutting element, wherein the cutting element is guided by means of a disc-shaped cutting element carrier on which the cutting element is disposed, wherein the cutting element carrier is rotated about a drive axis which is aligned at least substantially parallel to a feed direction of the feed device, (c) a multiplicity of strip-like portions is created in the course of a single guided movement of the cutting element past the end of the food product,
A method of optimising a shaped charge liner design for use in an oil/gas well perforator in order to form a desired hole shape in a rock formation, the method comprising comparing the desired hole shape to a library of known liner designs, the library comprising data relating to the hole shape formed by each liner design within the library; selecting the liner design that produces the closest hole shape to the desired hole shape; varying at least one parameter of the selected liner design to form a modified liner design; modelling the hole shape that the modified liner design produces; repeating the varying and modelling steps until the hole shape of the modified liner design converges towards the desired hole shape.
Overflow module for disposition at an overflow opening in a basin wall of a basin, comprising a cover frame with a water inlet opening and at least one cover element, by means of which the water inlet opening of the cover frame can be at least partially covered, wherein the cover frame comprises at least one frame-side retaining element, which in the installed state of the overflow module projects in the direction of the cover element, and wherein the cover element comprises at least one element-side retaining element, which in the installed state of the overflow module projects in the direction of the cover frame and which in the installed state of the overflow module co-operates in such a way with the frame-side retaining element that the cover element is held detachably on the cover frame, characterised in that the cover element, which is held on the cover frame, is pivotable relative to the cover frame from a covering position into a removal position by exerting a pressure upon an end region of the cover element.