mhurhangee/ep-ind-claims huggingface dataset:
A system for treating a process fluid, the system comprising a modular arrangement, the modular arrangement comprising: a first module that reduces the amount of dissolved and entrained hydrogen sulfide gas in the process fluid and monitors the pH of the process fluid, the process fluid comprising dissolved gases, oil and solids; a second module in fluid communication with the first module that stores the process fluid if an amount of hydrogen sulfide gas entrained in the process fluid is above a pre-selected value; a third module in fluid communication with the second module that reduces the amount of oil from the process fluid and flocculates the process fluid; a fourth module in fluid communication with the third module that reduces the amount of solids from the process fluid; a fifth module in fluid communication with the fourth module that measures the amount of oil in the process fluid and stores treated process fluid; a sixth module in fluid communication with at least one of the first module, the second module, the third module, and the fourth module that provides ventilation supply air; a seventh module in fluid communication with the first module and the second module that removes hydrogen sulfide gas from a sour gas; an eighth module in fluid communication with the seventh module that delivers gases to a burner system; a ninth module in communication with the first through eighth modules (211, 331, 441, 551, 661, 1110, 991, 1020) of the system that controls the processes of the system; and a tenth module in communication with the ninth module comprising a work station and system laboratory. a first module that reduces the amount of dissolved and entrained hydrogen sulfide gas in the process fluid and monitors the pH of the process fluid, the process fluid comprising dissolved gases, oil and solids; a second module in fluid communication with the first module that stores the process fluid if an amount of hydrogen sulfide gas entrained in the process fluid is above a pre-selected value; a third module in fluid communication with the second module that reduces the amount of oil from the process fluid and flocculates the process fluid; a fourth module in fluid communication with the third module that reduces the amount of solids from the process fluid; a fifth module in fluid communication with the fourth module that measures the amount of oil in the process fluid and stores treated process fluid; a sixth module in fluid communication with at least one of the first module, the second module, the third module, and the fourth module that provides ventilation supply air; a seventh module in fluid communication with the first module and the second module that removes hydrogen sulfide gas from a sour gas; an eighth module in fluid communication with the seventh module that delivers gases to a burner system; a ninth module in communication with the first through eighth modules (211, 331, 441, 551, 661, 1110, 991, 1020) of the system that controls the processes of the system; and a tenth module in communication with the ninth module comprising a work station and system laboratory.
An abnormality detection system comprising: an optical fiber; a Raman scattered light detection unit connected to the optical fiber and configured to detect Stokes light and anti-Stokes light which are generated in the optical fiber and to output data on an intensity distribution of the Stokes light in the optical fiber in a length direction of the optical fiber and data on an intensity distribution of the anti-Stokes light in the optical fiber in the length direction; and a data processing unit connected to the Raman scattered light detection unit, characterized in that the data processing unit is configured to calculate a product of a value obtained by applying an FIR, i.e. Finite Impulse Response, filter to the intensity distribution of the Stokes light in the optical fiber in the length direction, and a value obtained by applying the FIR filter to the intensity distribution of the anti-Stokes light in the optical fiber in the length direction for each of locations on the optical fiber in the length direction, to compare a value of the product with a set value for each of the locations on the optical fiber in the length direction, and to determine whether or not abnormality is present based on a result of the comparison.
An adjusting device for adjustably securing at least two orthotic components (1, 2) to one another, having a first holder which has a first fastening device for securing a first orthotic component, and a second holder which has a second fastening device for securing to a second orthotic component, wherein the holders (10, 20) are mounted so as to be able to be mutually displaced and mutually fixed in at least two orientations, characterized in that each holder (10, 20) has a main support (11, 21) on which at least one coupling portion (12, 22) is in each case disposed or configured, wherein the coupling portion (12, 22) protrudes from the main support (11, 21).
A method to be performed by a control device for an engine configured to burn an air-fuel mixture formed in a combustion chamber by supplying fuel containing gasoline into the combustion chamber, the method comprising: a knock information obtaining step of detecting or estimating pressure in the combustion chamber after a start of the combustion; a knock intensity determination step of comparing the pressure with a preset reference value and determining whether or not the pressure exceeds the reference value during a course of the combustion; a step of predicting that a knock with a predetermined intensity or higher occurs before an end of the combustion, when the pressure exceeds the reference value; and a knock suppression step of injecting a fluid into the combustion chamber before the end of the combustion, when the pressure exceeds the reference value, wherein the engine includes an injector configured to inject the fuel into the combustion chamber, and the fluid in the knock suppression step is the fuel additionally injected from the injector after a compression top dead center and before 20° CA, and mass of the fuel additionally injected is set to about 10% or less of total mass of the fuel injected in a combustion cycle in which the fuel is additionally injected, characterized in that the fuel is injected into the combustion chamber at a pressure of 30 MPa or more. a knock information obtaining step of detecting or estimating pressure in the combustion chamber after a start of the combustion; a knock intensity determination step of comparing the pressure with a preset reference value and determining whether or not the pressure exceeds the reference value during a course of the combustion; a step of predicting that a knock with a predetermined intensity or higher occurs before an end of the combustion, when the pressure exceeds the reference value; and a knock suppression step of injecting a fluid into the combustion chamber before the end of the combustion, when the pressure exceeds the reference value, wherein the engine includes an injector configured to inject the fuel into the combustion chamber, and the fluid in the knock suppression step is the fuel additionally injected from the injector after a compression top dead center and before 20° CA, and mass of the fuel additionally injected is set to about 10% or less of total mass of the fuel injected in a combustion cycle in which the fuel is additionally injected, characterized in that the fuel is injected into the combustion chamber at a pressure of 30 MPa or more.
A method for network-wide congestion control performed by a network element functioning as a controller in a split architecture network, the network comprising a set of switches and a set of links with each of the links connecting to two of the switches, wherein each of the switches forwards flows and collects flow statistics as directed by the controller, and wherein the flows traverse across the network via their respective paths formed by the links, the method comprising the step of: receiving by the controller flow statistics from the switches for each of a set of entities that communicate via the network, wherein each of the entities is identified as one or more of the flows that traverse a same path in the network; and characterised by: choosing a most congested link as a bottleneck link of the network based on a packet loss rate that is derived from the flow statistics and estimated for each of the entities on each of the links; identifying one of the paths as a target path, which passes through the bottleneck link and carries the most traffic; calculating a throttling probability for each of a set of sharing entities, based on a capacity of the bottleneck link, a capacity of an ingress link that is a first link of the target path, bandwidth consumption and the packet loss rate of each of the sharing entities, wherein the sharing entities are the entities that share the target path; and transmitting the throttling probability of each of the sharing entities to the ingress switch of the target path to thereby drop packets and to reduce the congestion on the bottleneck link in the network. receiving by the controller flow statistics from the switches for each of a set of entities that communicate via the network, wherein each of the entities is identified as one or more of the flows that traverse a same path in the network; and characterised by: choosing a most congested link as a bottleneck link of the network based on a packet loss rate that is derived from the flow statistics and estimated for each of the entities on each of the links; identifying one of the paths as a target path, which passes through the bottleneck link and carries the most traffic; calculating a throttling probability for each of a set of sharing entities, based on a capacity of the bottleneck link, a capacity of an ingress link that is a first link of the target path, bandwidth consumption and the packet loss rate of each of the sharing entities, wherein the sharing entities are the entities that share the target path; and transmitting the throttling probability of each of the sharing entities to the ingress switch of the target path to thereby drop packets and to reduce the congestion on the bottleneck link in the network.
Multiple sprocket arrangement on a rear wheel of a bicycle having a conical support structure which is manufactured from a single piece with a centre axis which corresponds to the rotational axis of the multiple sprocket arrangement, in which tubular sections and disc-shaped sections are arranged in a row in an alternating manner and have a step-shaped cross section in a sectional profile through the centre axis, teeth for the engagement of a roller chain and a tooth base ring being arranged on the outer periphery of the disc-shaped section and forming a single sprocket together with the disc-shaped section; and a tubular section and an adjacent disc-shaped section producing a connecting section, in which openings are machined, characterized in that openings are machined in the connecting sections, in which there is a great wall thickness, and in that at least one connecting section of the conical support structure has a small wall thickness.
Sports glove, in particular a goalkeeper glove, which has finger elements, a palm element and a back-of-hand element as well as a directly adjoining end element which covers the wrist and can extend as far as the forearm, and the end element is formed from at least two layers of material (10, 11), wherein an outer material layer of the end element is provided with at least one slit, characterized in that the end element is provided with one slit on the side of the palm element and with two slits on the side of the back of the hand element.
Method for encapsulation of at least one microelectronic component of MEMS and/or NEMS type, comprising at least the implementation of the following steps: - making of at least one portion of sacrificial material (110, 114) on a front face of a first substrate in which the microelectronic component is intended to be made, then - making of at least one cover encapsulating at least the portion of sacrificial material (110, 114), then - making of the microelectronic component by etching the first substrate from a back face of the first substrate, such that at least part of the microelectronic component is arranged to face the portion of sacrificial material (110, 114) and such that the portion of sacrificial material (110, 114) is accessible from a back face of the microelectronic component, then - elimination of the portion of sacrificial material (110, 114) by etching from the back face of the microelectronic component, then - securing of the back face of the microelectronic component to a second substrate. - making of at least one portion of sacrificial material (110, 114) on a front face of a first substrate in which the microelectronic component is intended to be made, then - making of at least one cover encapsulating at least the portion of sacrificial material (110, 114), then - making of the microelectronic component by etching the first substrate from a back face of the first substrate, such that at least part of the microelectronic component is arranged to face the portion of sacrificial material (110, 114) and such that the portion of sacrificial material (110, 114) is accessible from a back face of the microelectronic component, then - elimination of the portion of sacrificial material (110, 114) by etching from the back face of the microelectronic component, then - securing of the back face of the microelectronic component to a second substrate.
A backup pin state checking system of a component mounting machine installed with a function for automatically exchanging a backup pin configured to support, from below, a circuit board on which components are mounted, the backup pin state checking system comprising: a camera configured to capture an image of the backup pin from above, and an image processing device configured to process the image captured by the camera; characterized in that wherein a protrusion is provided at each of three or more positions at a predetermined dimension below the upper end of the outer periphery of the backup pin; and the image processing device configured to process the image captured from above, the image including the backup pin and the three or more protrusions so as to be made to fall within the camera's field of view, to recognize, within the image, information regarding a length of a portion of each protrusion that is not hidden by the upper end of the backup pin, and to determine whether the backup pin is tilted by a predetermined angle or more based on the image recognition result. a camera configured to capture an image of the backup pin from above, and an image processing device configured to process the image captured by the camera; characterized in that wherein a protrusion is provided at each of three or more positions at a predetermined dimension below the upper end of the outer periphery of the backup pin; and the image processing device configured to process the image captured from above, the image including the backup pin and the three or more protrusions so as to be made to fall within the camera's field of view, to recognize, within the image, information regarding a length of a portion of each protrusion that is not hidden by the upper end of the backup pin, and to determine whether the backup pin is tilted by a predetermined angle or more based on the image recognition result.
A method of aligning a virtual model of an upper jaw and a virtual model of a lower jaw in a bite position and for designing a prosthesis using the aligned virtual models, the method using only three sets of scanned impression data, wherein the three sets of scanned impression data correspond to an impression of at least a portion of the lower jaw, an impression of a least a portion of the upper jaw, and a side impression comprising facial surfaces of a portion of an upper jaw and facial surfaces of a portion of a lower jaw, the method comprising matching first facial surfaces of a virtual model of the side impression with facial surfaces of the virtual model of the upper jaw, at least a portion of the first facial surfaces of the virtual model of the side impression being the same as the facial surfaces of the virtual model of the upper jaw, and matching second facial surfaces of the virtual model of the side impression with facial surfaces of the virtual model of the lower jaw, at least a portion of the second facial surfaces of the virtual model of the side impression being the same as the facial surfaces of the virtual model of the lower jaw, characterized in that the virtual model of the side impression comprises a model of a site prepared to receive a prosthesis and adjacent teeth, the method comprising the further step of designing the prosthesis using the aligned virtual models.
A thermal transfer printer for printing a color picture after dividing the color picture into pieces with a prescribed size, the thermal transfer printer comprising: a joint processing unit adapted for correcting gradation data in the overlapping portion according to correction coefficients that are set in advance for each line in the sub-scanning direction; characterized by a data dividing unit adapted for dividing an input image into a first piece and a second piece, removing an area with a predetermined length (OL/2) from both ends of the input image in a sub-scanning transfer direction, so as to form an overlapping portion of the first piece and the second piece; wherein the overlapping portion is between a record end line position of the first piece and a record start line position of the second piece; a joint shifting unit adapted for shifting a joint of each color (YD1, MD1, CD1) of the first piece from the record end line position of the first piece respectively, and shifting a joint of each color (YD2, MD2, CD2) of the second piece from the record start line position of the second piece respectively, so that joints of individual colors are not aligned with each other in a sub-scanning transfer direction. a joint processing unit adapted for correcting gradation data in the overlapping portion according to correction coefficients that are set in advance for each line in the sub-scanning direction; characterized by a data dividing unit adapted for dividing an input image into a first piece and a second piece, removing an area with a predetermined length (OL/2) from both ends of the input image in a sub-scanning transfer direction, so as to form an overlapping portion of the first piece and the second piece; wherein the overlapping portion is between a record end line position of the first piece and a record start line position of the second piece; a joint shifting unit adapted for shifting a joint of each color (YD1, MD1, CD1) of the first piece from the record end line position of the first piece respectively, and shifting a joint of each color (YD2, MD2, CD2) of the second piece from the record start line position of the second piece respectively, so that joints of individual colors are not aligned with each other in a sub-scanning transfer direction.
A use of at least two devices for coupling building elements together, the devices comprising an extending element having a first leg in a first direction and a second leg oriented at an angle of substantially 90° with respect to the first leg wherein at least one of the two legs comprises a receiver adapted to receive a leg of a similar device, in an assembly formed from building elements, characterized in that a first leg of a second device is received in the receiver of the second leg of the first device and which assembly comprises at least three rows of building elements, wherein a first leg of a first device is placed in a joint between a first and a second building element and the second leg thereof extends to the height of a joint between the second and a third building element, and wherein the first leg of a second device extends into the joint between the second and third building element and the second leg of the second device extends to the height of a joint between the third and a fourth building element.
An electric power substation (100, 300), comprising: one or more primary relay panels located at the substation site and susceptible to damage caused by radiated or coupled electromagnetic energy; and one or more backup relay panels (122a,b) capable of assuming operation of the one or more primary relay panels, characterized in that: the substation (100, 300) further comprises an electromagnetic pulse mitigation module located at the substation site and comprising a continuous conductive enclosure that is impervious to the radiated or coupled electromagnetic energy, and in that the one or more backup relay panels (122a,b) are housed within the electromagnetic pulse mitigation module and the one or more primary relay panels are not housed within the electromagnetic pulse mitigation module. one or more primary relay panels located at the substation site and susceptible to damage caused by radiated or coupled electromagnetic energy; and one or more backup relay panels (122a,b) capable of assuming operation of the one or more primary relay panels, characterized in that: the substation (100, 300) further comprises an electromagnetic pulse mitigation module located at the substation site and comprising a continuous conductive enclosure that is impervious to the radiated or coupled electromagnetic energy, and in that the one or more backup relay panels (122a,b) are housed within the electromagnetic pulse mitigation module and the one or more primary relay panels are not housed within the electromagnetic pulse mitigation module. the substation (100, 300) further comprises an electromagnetic pulse mitigation module located at the substation site and comprising a continuous conductive enclosure that is impervious to the radiated or coupled electromagnetic energy, and in that the one or more backup relay panels (122a,b) are housed within the electromagnetic pulse mitigation module and the one or more primary relay panels are not housed within the electromagnetic pulse mitigation module.
Method of extruding sleeves of collagen or a collagen comprising mixture for encasing sausages, comprising the successive method steps: A) feeding a collagen fluid (7, 22) to an extrusion head; B) guiding the collagen fluid (7, 22) through the extrusion head; C) discharging the collagen fluid (7, 22) from the extrusion head; wherein during processing step B) the collagen fluid (7, 22) is transported between two rotatable and co-operating jackets (2, 3, 11, 12) which co-operating jackets (2, 3, 11, 12) are rotated in opposite directions, characterised in that the counter rotating jackets (2, 3, 11, 12) are rotated each with a rotation speed of 150 - 300 rpm. A) feeding a collagen fluid (7, 22) to an extrusion head; B) guiding the collagen fluid (7, 22) through the extrusion head; C) discharging the collagen fluid (7, 22) from the extrusion head;