mhurhangee/ep-ind-claims huggingface dataset:
An X-ray examination apparatus comprising: - radiation modules in the form of an X-ray source and an X-ray detector, - a main curved arm having opposite end sections (S1, S2), - a first auxiliary arm provided at one end section of the main arm, - the first auxiliary arm carrying one radiation module, - a second auxiliary arm provided at said second end section of said main arm, - the second auxiliary arm carrying the other radiation module, - the first auxiliary arm having a shape that complements the curvature of said main curved arm at least at said first end section and being movable with respect to this end section of the main arm at least in a direction away from it, - the second auxiliary arm having a shape that complements the curvature of said main curved arm at least at said second end section and being movable with respect to this end section of the main arm at least in a direction away from said end section. - radiation modules in the form of an X-ray source and an X-ray detector, - a main curved arm having opposite end sections (S1, S2), - a first auxiliary arm provided at one end section of the main arm, - the first auxiliary arm carrying one radiation module, - a second auxiliary arm provided at said second end section of said main arm, - the second auxiliary arm carrying the other radiation module, - the first auxiliary arm having a shape that complements the curvature of said main curved arm at least at said first end section and being movable with respect to this end section of the main arm at least in a direction away from it, - the second auxiliary arm having a shape that complements the curvature of said main curved arm at least at said second end section and being movable with respect to this end section of the main arm at least in a direction away from said end section.
An auto biochemical analyzer, comprising a frame, a horizontal motion system, a vertical motion system, a sampling component, a transfer guide track and a guide track holder block, wherein the horizontal motion system comprises a first stepping motor; the vertical motion system comprises a second stepping motor; the first stepping motor and the second stepping motor are fixedly installed on the frame respectively; the said sampling component comprises a sampling needle holder block and a sampling needle; the second stepping motor and the sampling component are separately arranged; wherein the transfer guide track is horizontally placed and is in rigid connection with the guide track holder block of the vertical motion system; the sampling component is in sliding connection with the transfer guide track and is arranged to be vertically fixed on the transfer guide track; the horizontal motion system is configured to drive the sampling needle to move in the horizontal direction; and the vertical motion system is configured to drive the sampling needle to move in the vertical direction by means of the transfer guide track under the drive of the second stepping motor as the second stepping motor is arranged to vertically drive the guide track holder block. the horizontal motion system comprises a first stepping motor; the vertical motion system comprises a second stepping motor; the first stepping motor and the second stepping motor are fixedly installed on the frame respectively; the said sampling component comprises a sampling needle holder block and a sampling needle; the second stepping motor and the sampling component are separately arranged; wherein the transfer guide track is horizontally placed and is in rigid connection with the guide track holder block of the vertical motion system; the sampling component is in sliding connection with the transfer guide track and is arranged to be vertically fixed on the transfer guide track; the horizontal motion system is configured to drive the sampling needle to move in the horizontal direction; and the vertical motion system is configured to drive the sampling needle to move in the vertical direction by means of the transfer guide track under the drive of the second stepping motor as the second stepping motor is arranged to vertically drive the guide track holder block.
Latch needle (100, 200, 300, 400) for a stitch-forming textile machine, the latch needles (100, 200, 300, 400) having a needle shank (106, 202, 304, 402) and a needle latch (110, 204, 404) with a back, the needle shank (106, 202, 304, 402) having a slot (116, 308, 412) for receiving the needle latch (110, 204, 404) and a first contact section (128, 210, 306) adapted to the back, wherein the needle latch (110, 204, 404) is mounted pivotably on the needle shank (106, 202, 304, 402) between an open position and a closed position about a pivot axis and the back in the open position bears on the first contact section (128, 210, 306), characterised in that the latch needle (100, 200, 300, 400) has a damping spring (112, 206, 304, 406) adapted to the back and/or the first contact section (128, 210, 306), in order to dampen the application of the needle latch (110, 204, 404) with the back on the first contact section (128, 210, 306) in the open position.
A collapsible valve comprising: a cylindrical wall having a center axis and defining an internal air space; a head fixedly attached to the wall; and a first concave cut-away having a first depth and a second concave cut-away having a second depth, the first and second concave cut-aways disposed on opposite sides of the head, wherein a point of maximum depth of the second concave cut-away is axially offset along the center axis from a point of maximum depth of the first concave cut-away, characterising in that the head comprises a diameter of 3.81 mm (0.150 inches) and that the first depth is greater than or equal to thirty percent of the diameter, and the second depth is less than or equal to twenty-five percent of the diameter. a cylindrical wall having a center axis and defining an internal air space; a head fixedly attached to the wall; and a first concave cut-away having a first depth and a second concave cut-away having a second depth, the first and second concave cut-aways disposed on opposite sides of the head, wherein a point of maximum depth of the second concave cut-away is axially offset along the center axis from a point of maximum depth of the first concave cut-away, characterising in that the head comprises a diameter of 3.81 mm (0.150 inches) and that the first depth is greater than or equal to thirty percent of the diameter, and the second depth is less than or equal to twenty-five percent of the diameter.
Lift and slide door - having at least one horizontally movable leaf, - and having a frame with at least one running rail arranged beneath the movable leaf, - wherein the leaf of the lift and slide door has means for raising the leaf into a horizontally movable, first position and for lowering the leaf into a horizontally fixed, second position, - wherein the movable leaf has at least one carriage with at least one running roller, - wherein, at least in the raised, horizontally movable position of the leaf, at least one running roller rests on the running rail of the frame, - and also having means which, when the leaf is lowered, cause the leaf to be fixed in a direction perpendicular to the leaf plane, characterized in that the means for fixing the leaf in a direction perpendicular to the leaf plane - are configured in the form of a separate component, - are arranged - between two carriages and/or - alongside the carriage or carriages and/or - on that vertical end side of the movable leaf which is directed away from the gear mechanism, and - are connected rigidly to the leaf. - having at least one horizontally movable leaf, - and having a frame with at least one running rail arranged beneath the movable leaf, - wherein the leaf of the lift and slide door has means for raising the leaf into a horizontally movable, first position and for lowering the leaf into a horizontally fixed, second position, - wherein the movable leaf has at least one carriage with at least one running roller, - wherein, at least in the raised, horizontally movable position of the leaf, at least one running roller rests on the running rail of the frame, - and also having means which, when the leaf is lowered, cause the leaf to be fixed in a direction perpendicular to the leaf plane, characterized in that the means for fixing the leaf in a direction perpendicular to the leaf plane - are configured in the form of a separate component, - are arranged - between two carriages and/or - alongside the carriage or carriages and/or - on that vertical end side of the movable leaf which is directed away from the gear mechanism, and - between two carriages and/or - alongside the carriage or carriages and/or - on that vertical end side of the movable leaf which is directed away from the gear mechanism, and - are connected rigidly to the leaf.
An inspecting method for a product including a transparent substrate and a part placed at a predetermined position within a front surface of the transparent substrate, the method comprising: an imaging step of taking an image (P, P10) of the front surface by an imaging device with the front surface being illuminated by an illuminating device; and an evaluating step of evaluating a degree of matching between an image (R1 to R12) which is derived from the image (P, P10) taken by the imaging device and represents a position corresponding to the predetermined position and its vicinity, and a template (T1, T2, T3), the imaging step including arranging the illuminating device and the imaging device to allow the imaging device to receive light which is part of light from the illuminating device and specularly reflected from the front surface, and the template (T1, T2, T3) being indicative of a positional relationship between a real image and a virtual image, of the part in a case where the part is placed at the predetermined position correctly. an imaging step of taking an image (P, P10) of the front surface by an imaging device with the front surface being illuminated by an illuminating device; and an evaluating step of evaluating a degree of matching between an image (R1 to R12) which is derived from the image (P, P10) taken by the imaging device and represents a position corresponding to the predetermined position and its vicinity, and a template (T1, T2, T3), the imaging step including arranging the illuminating device and the imaging device to allow the imaging device to receive light which is part of light from the illuminating device and specularly reflected from the front surface, and the template (T1, T2, T3) being indicative of a positional relationship between a real image and a virtual image, of the part in a case where the part is placed at the predetermined position correctly.
Fuel lance (25, 31) for a gas turbine plant having sequential combustion, in which hot gas is produced in a first combustion chamber and is expanded in a downstream turbine and then flows through a downstream second combustion chamber in which fuel is injected into the hot gas, which fuel lance (25, 31) for injecting fuel into the hot gas is arranged in the second combustion chamber, wherein the fuel lance (25, 31) has a lance part which extends in the direction of flow of the hot gas and comprises at least one outer tube arranged concentrically to a lance axis and an intermediate tube arranged concentrically in the outer tube, in which tubes the fuel is guided to a lance tip and is injected into the hot gas through first injection openings in the region of the lance tip, wherein the first injection openings are arranged directly at the lance tip and the first injection openings are oriented such that the fuel jets emerging therefrom together with the lance axis enclose an acute angle and the lance tip is rounded, and the first injection openings are arranged in the region of the rounding, characterized in that the intermediate tube ends at a distance from the lance tip and at the end has an opening which corresponds to the width of the tube.
Method for monitoring the functionality of electrolysis cells of an electrolysis facility, in particular a membrane electrolysis facility, preferably of multiple electrolysis cells operated simultaneously in production, characterized in that the current/voltage curve of an AC voltage overlaid on the electrolysis voltage is measured and compared to the predefined characteristic values of a functional electrolysis cell and the comparison value is detected and in that the harmonic wave AC voltage of the rectifier is used as the AC voltage for the generation of the electrolysis voltage.
A wireless communication system comprising a plurality of wireless communication apparatus (M, S) connected by a dedicated line; each wireless communication apparatus comprising: a receiver (M1, S1) for receiving a radio signal; a transmitter (M2, S2) for transmitting a radio signal; an input portion (M3, S3) for reception of a limit signal from the dedicated line; an output portion (M4, S4) for output of a limit signal from a controller (M5, S5); a controller (M5, S5) for controlling power supply to the respective transmitter (M2, S2), and adapted to determine that the respective transmitter (M2, S2) has entered a radio signal transmission state, wherein upon determining that the respective transmitter (M2, S2) has entered a radio signal transmission state, the controller is configured to transmit a continuous limit signal to each other communication apparatus connected by the dedicated line whilst the transmitter is in a transmission state, wherein the controller (M5, S5) is configured to stop power supply to the respective receiver (M1, S1) whilst the receiver is receiving the continuous limit signal at the input portion (M3, S3). a receiver (M1, S1) for receiving a radio signal; a transmitter (M2, S2) for transmitting a radio signal; an input portion (M3, S3) for reception of a limit signal from the dedicated line; an output portion (M4, S4) for output of a limit signal from a controller (M5, S5); a controller (M5, S5) for controlling power supply to the respective transmitter (M2, S2), and adapted to determine that the respective transmitter (M2, S2) has entered a radio signal transmission state, wherein upon determining that the respective transmitter (M2, S2) has entered a radio signal transmission state, the controller is configured to transmit a continuous limit signal to each other communication apparatus connected by the dedicated line whilst the transmitter is in a transmission state, wherein the controller (M5, S5) is configured to stop power supply to the respective receiver (M1, S1) whilst the receiver is receiving the continuous limit signal at the input portion (M3, S3).
Method for adjusting an on-board network of a vehicle, said method comprising steps consisting in: - detecting a command to charge one or more batteries; - detecting a command to discharge said one or more batteries; - adapting (113, 115) a voltage adjustment setpoint (v c) for a generator so as to charge said one or more batteries if a charge command is detected; - adapting (123, 125) said voltage adjustment setpoint (v c) for the generator so as to discharge said one or more batteries if a discharge command is detected; - maintaining a state of charge of said one or more batteries in the absence of a charge command and of a discharge command, characterized in that, so as to charge said one or more batteries, it comprises a step consisting in increasing said voltage adjustment setpoint (v c) as long as a measured current value (ib) of said one or more batteries is less than a maximum charge current value (i max). - detecting a command to charge one or more batteries; - detecting a command to discharge said one or more batteries; - adapting (113, 115) a voltage adjustment setpoint (v c) for a generator so as to charge said one or more batteries if a charge command is detected; - adapting (123, 125) said voltage adjustment setpoint (v c) for the generator so as to discharge said one or more batteries if a discharge command is detected; - maintaining a state of charge of said one or more batteries in the absence of a charge command and of a discharge command,
A modular medical device catheter system comprising: a parent module (200; 201) and an adapter module (10; 360; 103), the adapter module (10; 360; 103) being configured to engage an inner lumen of a distal end of the parent module (200; 201) to couple the adapter module (10; 360; 103) with the parent module (200; 201) via an interference fit, wherein the adapter module (10; 360; 103) comprises a wire (168; 125) or fiber extending proximally from a distal portion (20; 170; 173) of the adapter module (10; 360; 103) along an outer surface of the parent module (200; 201) when the parent module (200; 201) is coupled to the adapter module (10; 360; 103). a parent module (200; 201) and an adapter module (10; 360; 103), the adapter module (10; 360; 103) being configured to engage an inner lumen of a distal end of the parent module (200; 201) to couple the adapter module (10; 360; 103) with the parent module (200; 201) via an interference fit, wherein the adapter module (10; 360; 103) comprises a wire (168; 125) or fiber extending proximally from a distal portion (20; 170; 173) of the adapter module (10; 360; 103) along an outer surface of the parent module (200; 201) when the parent module (200; 201) is coupled to the adapter module (10; 360; 103).
A guidance module suitable for being installed in a tank comprising: i. a section known as the stabilization section, comprising a guiding member demarcating a volume known as the internal volume, inside the cross-section of said section; ii. a pulling line (230, 771, 772, 773, 774) extending inside the internal volume; iii. fitting means, comprising: - a plate known as the lifting plate, comprising means to fasten the first end of the pulling line; - a guide roller pivotally connected to said lifting plate comprising a profile that is complementary to the guiding member and suitable for rolling on said member when the plate is displaced in relation to the stabilization section. iv. maneuvering means (130, 430) for applying pulling force on the second end of the pulling line (230, 771, 772, 773, 774). i. a section known as the stabilization section, comprising a guiding member demarcating a volume known as the internal volume, inside the cross-section of said section; ii. a pulling line (230, 771, 772, 773, 774) extending inside the internal volume; iii. fitting means, comprising: - a plate known as the lifting plate, comprising means to fasten the first end of the pulling line; - a guide roller pivotally connected to said lifting plate comprising a profile that is complementary to the guiding member and suitable for rolling on said member when the plate is displaced in relation to the stabilization section. - a plate known as the lifting plate, comprising means to fasten the first end of the pulling line; - a guide roller pivotally connected to said lifting plate comprising a profile that is complementary to the guiding member and suitable for rolling on said member when the plate is displaced in relation to the stabilization section. iv. maneuvering means (130, 430) for applying pulling force on the second end of the pulling line (230, 771, 772, 773, 774).
A lactate measuring device, comprising: a substrate; a microneedle unit comprising at least a first microneedle set used as a working electrode and a second microneedle set used as a reference electrode, each of the microneedle sets comprising at least a microneedle; a signal processing unit arranged on the substrate and electrically connecting to the first microneedle set and the second microneedle set; a comparator for comparing a lactate concentration value from the signal processing unit and a predetermined value; and a power supply unit providing working power to the lactate measuring device; characterized in that the first microneedle set comprises at least a plurality of sheets (222, 224, 226, 228) stacked with each other, each of the sheets (222, 224, 226, 228) having, at least one through hole (2222, 2242, 2262, 2282) defined thereon and a barbule (2224, 2244, 2264, 2284) arranged at the peripheral of the through hole (2222, 2242, 2262, 2282), wherein the through hole on one sheet is penetrated by the barbules (2244, 2264, 2284) of other sheets (224, 226, 228) and the barbules (2224, 2244, 2264, 2284) being disposed separately. a substrate; a microneedle unit comprising at least a first microneedle set used as a working electrode and a second microneedle set used as a reference electrode, each of the microneedle sets comprising at least a microneedle; a signal processing unit arranged on the substrate and electrically connecting to the first microneedle set and the second microneedle set; a comparator for comparing a lactate concentration value from the signal processing unit and a predetermined value; and a power supply unit providing working power to the lactate measuring device; characterized in that the first microneedle set comprises at least a plurality of sheets (222, 224, 226, 228) stacked with each other, each of the sheets (222, 224, 226, 228) having, at least one through hole (2222, 2242, 2262, 2282) defined thereon and a barbule (2224, 2244, 2264, 2284) arranged at the peripheral of the through hole (2222, 2242, 2262, 2282), wherein the through hole on one sheet is penetrated by the barbules (2244, 2264, 2284) of other sheets (224, 226, 228) and the barbules (2224, 2244, 2264, 2284) being disposed separately.
A system installed in a cross-border area between a provider network of a provider and a customer network of a customer, the system comprises at least: - a smart optical network termination device, NT, that sits on a site of the customer and is adapted to implement a demarcation point between the customer network and the provider network, wherein the smart optical NT is independent of a data rate passing through it and an optical interface connected to it, - a monitoring unit, MU, located at a point of presence, PoP, of the provider network, characterized in that the smart optical NT is configured to monitor a coupling of optical power by the customer into the provider network and to interact with the monitoring unit via at least one traffic analysis point, TAP, (31, 32) for connectivity validation from the PoP to the demarcation point. - a smart optical network termination device, NT, that sits on a site of the customer and is adapted to implement a demarcation point between the customer network and the provider network, wherein the smart optical NT is independent of a data rate passing through it and an optical interface connected to it, - a monitoring unit, MU, located at a point of presence, PoP, of the provider network,