mhurhangee/ep-ind-claims huggingface dataset:
A process of detecting at least one microorganism present in a sample placed in a closed container, said method comprising essentially the following steps: a) Place said sample in contact, in the container, with i. at least one culture medium ii a revealing system capable of allowing the detection iii a support capable of capturing the microorganism(s) to be detected, said support being constituted of magnetic particles onto which is fixed at least one specific binding partner of the microorganism(s) to detect, said specific binding partner is taken from the group comprising: antibodies, Fab fragments, Fab' fragments, recombinant or non-recombinant phage proteins, and phages, b) Close the container c) Place the container under conditions capable of allowing the growth of the microorganism(s) d) Apply a magnetic field for the coming together of the magnetic particles e) Detect inside said closed container, using detection means, the presence of the microorganism(s) fixed onto the capture support, the detection is performed on real-time and is demonstrated by the appearance of real-time agglutination of the magnetic particles. a) Place said sample in contact, in the container, with i. at least one culture medium ii a revealing system capable of allowing the detection iii a support capable of capturing the microorganism(s) to be detected, said support being constituted of magnetic particles onto which is fixed at least one specific binding partner of the microorganism(s) to detect, said specific binding partner is taken from the group comprising: antibodies, Fab fragments, Fab' fragments, recombinant or non-recombinant phage proteins, and phages, i. at least one culture medium ii a revealing system capable of allowing the detection iii a support capable of capturing the microorganism(s) to be detected, said support being constituted of magnetic particles onto which is fixed at least one specific binding partner of the microorganism(s) to detect, said specific binding partner is taken from the group comprising: antibodies, Fab fragments, Fab' fragments, recombinant or non-recombinant phage proteins, and phages, b) Close the container c) Place the container under conditions capable of allowing the growth of the microorganism(s) d) Apply a magnetic field for the coming together of the magnetic particles e) Detect inside said closed container, using detection means, the presence of the microorganism(s) fixed onto the capture support, the detection is performed on real-time and is demonstrated by the appearance of real-time agglutination of the magnetic particles.
A fastening device for releasably fastening a front panel to a drawer, in particular to a drawer side wall, comprising: - at least one furniture fitting pre-mounted to the front panel and having a first and a second connecting element for fastening the front panel to the drawer, - at least two catching devices (10, 210) associated with the drawer, wherein the catching devices (10, 210) automatically hold the connecting elements (7, 207) when being pushed in, wherein the one catching device has at least one moveable catching element and the second catching device has at least one moveable holding element, - at least one locking device (20, 220) for the two catching devices (10, 210) which prevent unintentional release of the furniture fitting from the catching devices (10, 210), and - at least one unlocking device for the two catching devices (10, 210), wherein the unlocking device permits joint release of the two connecting elements (7, 207) of the furniture fitting from the catching devices (10, 210), wherein the holding element is moveable for locking the second connecting element in the second catching device independently of the catching element of the first catching device, characterized in that the catching element is mounted pivotably about an axis of rotation and the holding element is mounted pivotably about an axis of rotation, wherein the two pivot axes are separate and are arranged at a distance from each other. - at least one furniture fitting pre-mounted to the front panel and having a first and a second connecting element for fastening the front panel to the drawer, - at least two catching devices (10, 210) associated with the drawer, wherein the catching devices (10, 210) automatically hold the connecting elements (7, 207) when being pushed in, wherein the one catching device has at least one moveable catching element and the second catching device has at least one moveable holding element, - at least one locking device (20, 220) for the two catching devices (10, 210) which prevent unintentional release of the furniture fitting from the catching devices (10, 210), and - at least one unlocking device for the two catching devices (10, 210), wherein the unlocking device permits joint release of the two connecting elements (7, 207) of the furniture fitting from the catching devices (10, 210),
A method for depth camera image transformation at a device, the method comprising: receiving, at a processor of the device, a depth camera image from a depth camera of the device, wherein the depth camera image comprises a plurality of 2D x-y axis co-ordinates; receiving, at the processor of the device, a color image from a color camera of the device; determining, according to the depth camera's physical position relative to the color camera's physical position, a processing order for transforming points of the depth camera image into a depth image at a color camera coordinate system associated with the color camera's physical position, wherein the depth camera and the color camera are situated such that the depth camera is physically offset to one side of the color camera in the device; and transforming the depth camera image into the color camera coordinate system according to the determined processing order and wherein the processing order comprises a horizontal depth camera pixel processing order along the x-axis of the depth camera image in a direction corresponding in physical space to a direction towards the color camera away from the depth camera. receiving, at a processor of the device, a depth camera image from a depth camera of the device, wherein the depth camera image comprises a plurality of 2D x-y axis co-ordinates; receiving, at the processor of the device, a color image from a color camera of the device; determining, according to the depth camera's physical position relative to the color camera's physical position, a processing order for transforming points of the depth camera image into a depth image at a color camera coordinate system associated with the color camera's physical position, wherein the depth camera and the color camera are situated such that the depth camera is physically offset to one side of the color camera in the device; and transforming the depth camera image into the color camera coordinate system according to the determined processing order and wherein the processing order comprises a horizontal depth camera pixel processing order along the x-axis of the depth camera image in a direction corresponding in physical space to a direction towards the color camera away from the depth camera.
A motor control unit, comprising: - a motor unit having a motor and - an inverter unit including: - a control board erected perpendicularly on a support board; - a casing that houses the support board; - a first connector unit that penetrates the casing and that connects a power source and the control board, and - a plate-shaped board mount portion erected on the support board and provided apart from the casing, wherein: - the control board is supported by the casing using the first connector unit, - the control board is installed in the board mount portion, and - the control board and the motor are arranged on the same surface side of the support board. - a motor unit having a motor and - an inverter unit including: - a control board erected perpendicularly on a support board; - a casing that houses the support board; - a first connector unit that penetrates the casing and that connects a power source and the control board, and - a plate-shaped board mount portion erected on the support board and provided apart from the casing, - a control board erected perpendicularly on a support board; - a casing that houses the support board; - a first connector unit that penetrates the casing and that connects a power source and the control board, and - a plate-shaped board mount portion erected on the support board and provided apart from the casing, - the control board is supported by the casing using the first connector unit, - the control board is installed in the board mount portion, and - the control board and the motor are arranged on the same surface side of the support board.
A ground run-up enclosure for a propeller aircraft comprising: a test chamber capable of receiving a portion of an aircraft therein, wherein the test chamber includes a prop ring, the prop ring being configured to focus airflow towards propellers of an aircraft engine and to prevent exhausted airflow from said engine from recirculating into the test chamber when at least a portion of said prop ring is positioned rearward of the propellers, the prop ring comprising a ceiling wall, two side walls (84,86), and two floor walls (88,90); an air inlet structure adapted to receive ambient air and direct it into said test chamber, wherein at least a portion of said air inlet structure is positioned forward of said test chamber; an acoustic enclosure configured to receive airflow from said test chamber and which substantially surrounds the airflow exhausted from said test chamber wherein at least a portion of said acoustic enclosure is positioned rearward of and adjacent said test chamber; and a main enclosure door positioned at the rear of said acoustic enclosure, wherein said main enclosure door comprises a front surface facing said test chamber adapted to redirect air currents upward and out of the ground run-up enclosure, and wherein said main enclosure door is moveable between a closed position and an open position for allowing at least a portion of an aircraft to enter the test chamber. a test chamber capable of receiving a portion of an aircraft therein, wherein the test chamber includes a prop ring, the prop ring being configured to focus airflow towards propellers of an aircraft engine and to prevent exhausted airflow from said engine from recirculating into the test chamber when at least a portion of said prop ring is positioned rearward of the propellers, the prop ring comprising a ceiling wall, two side walls (84,86), and two floor walls (88,90); an air inlet structure adapted to receive ambient air and direct it into said test chamber, wherein at least a portion of said air inlet structure is positioned forward of said test chamber; an acoustic enclosure configured to receive airflow from said test chamber and which substantially surrounds the airflow exhausted from said test chamber wherein at least a portion of said acoustic enclosure is positioned rearward of and adjacent said test chamber; and a main enclosure door positioned at the rear of said acoustic enclosure, wherein said main enclosure door comprises a front surface facing said test chamber adapted to redirect air currents upward and out of the ground run-up enclosure, and wherein said main enclosure door is moveable between a closed position and an open position for allowing at least a portion of an aircraft to enter the test chamber.
Dual module for a dual chip card, comprising a supporting film supporting on an outer surface a plurality of electrical contact pads (C1-C8) including two series of electrical contact pads extending in a given direction for their entire length along two edges of this supporting film which are parallel to this direction and, on an inner surface, two internal connection zones designed to be connected to an antenna of said dual chip card and a microcircuit, this microcircuit having connection terminals connected by wires respectively to the internal connection zones or to certain of the electrical contact pads by means of holes passing through this supporting film while being coated, together with these wires, by a coating resin mass, characterized in that the series of electrical contact pads of the outer surface have only three pads (C1-C3, C5-C7) and in that each of the two internal connection zones is shaped as a comb (20, 30) comprising a body extending under each of the pads of one of the two series of contact pads separated from the coating mass, and teeth, including two end teeth starting at the ends of the body and at least one intermediate tooth (20A-D, 30A-D), which extend independently of one another from said body, transversely to the given direction, as far as the ends covered by the coating mass, one of the ends of one tooth of each comb being connected by one of said wires to one of said connection terminals of the microcircuit.
A Coriolis flowmeter comprising: a conduit configured to convey a fluid through the flowmeter; a driver configured to oscillate the conduit; a first sensor configured to generate a first sensor signal indicative of movement of the conduit at a first location; a second sensor configured to generate a second sensor signal indicative of movement of the conduit at a second location, the first and second locations being arranged so a phase difference between the first and second signals when the conduit is oscillated by the driver is related to a mass flow rate of the fluid through the flowmeter; a digital signal processor configured to detect the phase difference and determine the mass flow rate of the fluid using the detected phase difference and output a signal indicative of the determined mass flow rate, wherein the digital signal processor comprises a plurality of detectors tuned to a set of different frequencies, the detectors being configured to analyze at least one of the sensor signals in parallel and generate an output indicative of how closely an actual frequency of said at least one of the sensor signals matches the frequency to which the respective detector is tuned. a conduit configured to convey a fluid through the flowmeter; a driver configured to oscillate the conduit; a first sensor configured to generate a first sensor signal indicative of movement of the conduit at a first location; a second sensor configured to generate a second sensor signal indicative of movement of the conduit at a second location, the first and second locations being arranged so a phase difference between the first and second signals when the conduit is oscillated by the driver is related to a mass flow rate of the fluid through the flowmeter; a digital signal processor configured to detect the phase difference and determine the mass flow rate of the fluid using the detected phase difference and output a signal indicative of the determined mass flow rate, wherein the digital signal processor comprises a plurality of detectors tuned to a set of different frequencies, the detectors being configured to analyze at least one of the sensor signals in parallel and generate an output indicative of how closely an actual frequency of said at least one of the sensor signals matches the frequency to which the respective detector is tuned.
A method for producing hypromellose phthalate, the method comprising: an esterification step of reacting hypromellose with an esterification agent in the presence of a catalyst to obtain a reaction solution containing crude hypromellose phthalate; a precipitation step of mixing the reaction solution with water to precipitate the crude hypromellose phthalate, thereby obtaining a hypromellose phthalate suspension; a liquid removal step of removing a liquid from the hypromellose phthalate suspension with a centrifugal decanter to obtain liquid-removed hypromellose phthalate; and a drying step of drying the liquid-removed hypromellose phthalate. an esterification step of reacting hypromellose with an esterification agent in the presence of a catalyst to obtain a reaction solution containing crude hypromellose phthalate; a precipitation step of mixing the reaction solution with water to precipitate the crude hypromellose phthalate, thereby obtaining a hypromellose phthalate suspension; a liquid removal step of removing a liquid from the hypromellose phthalate suspension with a centrifugal decanter to obtain liquid-removed hypromellose phthalate; and a drying step of drying the liquid-removed hypromellose phthalate.
Swivelling lever arrangement for securing a housing arrangement consisting of at least one first and one second housing part (11,12), which housing parts (11,12) can be brought together along a connecting movement, wherein the swivelling lever arrangement comprises at least one swivelling lever and a guiding pin, wherein the swivelling lever is couplable in a swivelling manner to the first housing part, and the guiding pin is attachable to the second housing part, wherein the swivelling lever has a lever portion with a proximal end and a distal head portion, wherein the head portion has a receptacle, wherein the swivelling lever and the guiding pin are attachable on the housing parts (11,12) in such a manner that, when the swivelling lever swivels from a release position into a locking position when the housing parts (11,12) are substantially brought together, the guiding pin is receivable in the receptacle, characterized in that at least one cam is arranged in the receptacle, which cam is arranged and designed in such a manner that, when the swivelling lever swivels from said release position into said locking position, the guiding pin is guided into a depth of the receptacle and, in the process, is guided via the cam in such a manner that part of the head portion is deflected by the cam. at least one cam is arranged in the receptacle, which cam is arranged and designed in such a manner that, when the swivelling lever swivels from said release position into said locking position, the guiding pin is guided into a depth of the receptacle and, in the process, is guided via the cam in such a manner that part of the head portion is deflected by the cam.
A container for packaging products, comprising a container body with a product space for accommodating a product and a receiving space at least for receiving liquid, preferably liquid from the product, wherein the container body comprises partition means that separate the product space and the receiving space from each other, which partition means comprise at least one outlet opening configured to at least discharge liquid from the product space to the receiving space, wherein the container is provided with at least one resistance element extending into the receiving space, which resistance element surrounds the outlet opening in such a manner that the resistance element prevents the transport of liquid from the receiving space to the product space, characterised in that the container body and the partition means form an integral unit.
Bearing cage for retaining rolling elements of a rolling element bearing, said bearing cage having at least one first ring structure (18, 34) to which at least one first cage bar is connected, said at least one first cage bar comprises a side surface that is arranged to extend along an outer surface of a rolling element when said bearing cage is in use, whereby said side surface comprises a radially outer edge and a radially inner edge and whereby the distance between the radially outer edges of two adjacent cage bars between which a rolling element is located when said bearing cage is in use is greater than the distance between two adjacent radially inner edges of said two adjacent cage bars, said at least one first cage bar is constructed so that the diameter of said bearing cage is largest at a point/region along the length of said at least one first cage bar so as to improve lubricant flow towards the rotational centre of rolling elements when the bearing cage is in use, characterized in that said bearing cage comprises a second ring structure to which at least one second cage bar is connected, whereby said at least one second ring structure is arranged to be located radially inwards of the at least one first ring structure (18, 34).
Use of an adhesive sheet to fix a work during laser dicing wherein said adhesive sheet comprises: a base material which is a cured product obtainable by irradiating energy beam to a mixture including an energy beam curable urethane acrylate oligomer and an energy beam curable monomer; and an adhesive layer formed on one face thereof. a base material which is a cured product obtainable by irradiating energy beam to a mixture including an energy beam curable urethane acrylate oligomer and an energy beam curable monomer; and an adhesive layer formed on one face thereof.
An additive manufacturing apparatus for an additive manufacturing process, the additive manufacturing apparatus comprising: a build chamber comprising a build plate to support one or more parts built with a powder, during a build operation; a laser assembly operable to deliver a melting laser beam, to melt and fuse the powder used to build the one or more parts; and a part detachment assembly, separate from the laser assembly and operable for a cutting operation, the part detachment assembly comprising: one or more laser beam delivery apparatuses, each operable to deliver a cutting laser beam; characterized in that the part detachment assembly further comprises a part holder apparatus coupled to the one or more laser beam delivery apparatuses, wherein the part detachment assembly is operable to move, after the build operation, so that the part holder apparatus and the one or more laser beam delivery apparatuses are at a position adjacent to the one or more parts, wherein the part detachment assembly is configured such that, during the cutting operation, the part holder apparatus holds the one or more parts, and each of the one or more laser beam delivery apparatuses delivers the cutting laser beam, to detach the one or more parts from the build plate within the additive manufacturing apparatus. a build chamber comprising a build plate to support one or more parts built with a powder, during a build operation; a laser assembly operable to deliver a melting laser beam, to melt and fuse the powder used to build the one or more parts; and a part detachment assembly, separate from the laser assembly and operable for a cutting operation, the part detachment assembly comprising: one or more laser beam delivery apparatuses, each operable to deliver a cutting laser beam; characterized in that the part detachment assembly further comprises a part holder apparatus coupled to the one or more laser beam delivery apparatuses, wherein the part detachment assembly is operable to move, after the build operation, so that the part holder apparatus and the one or more laser beam delivery apparatuses are at a position adjacent to the one or more parts, wherein the part detachment assembly is configured such that, during the cutting operation, the part holder apparatus holds the one or more parts, and each of the one or more laser beam delivery apparatuses delivers the cutting laser beam, to detach the one or more parts from the build plate within the additive manufacturing apparatus.
Emergency aid material unit, an emergency aid material unit comprising a compilation of a plurality of emergency aid materials which are assembled together, the unit comprising at least one accommodating compartment (31, 33) for accommodating emergency aid material, each accommodating compartment (31, 33) having a closed, openable accommodating space which is formed between two layers connected along a closed circumferential seam, characterized in that at least two accommodating compartments (31, 33) are provided, each of the accommodating compartments (31, 33) having at least one handle element and the at least one handle element being bow-shaped.