mhurhangee/ep-ind-claims huggingface dataset:
A specimen inspection automation system, comprising: a processing unit (110, 120, 130, 140) which processes a specimen; a conveying line which conveys carriers, and includes a specimen conveying line for conveying specimen carriers and an empty carrier conveying line for conveying empty carriers; a control device which controls the conveying of the carriers; an external connecting module (180a, 180b, 180c) which delivers the carriers to and from an external device (210, 220, 230); and a carrier buffer module which collects and stores the empty carriers from the empty carrier conveying line and supplies the empty carriers to the empty carrier conveying line, based on information from the control device, characterized in that the external connecting module (180a, 180c, 180c) is configured to notify the control device that a specimen carrier or empty carrier has been conveyed out from the specimen inspection automation system to the external device (210, 220, 230) or has been conveyed into the specimen inspection automation system from the external device (210, 220, 230), wherein the control device is configured to control the carrier buffer module so as to keep the number of empty carriers in the specimen inspection automation system within a certain range based on the number of times of convey-in and convey-out of carriers in the external connecting modules (180a, 180b, 180c). a processing unit (110, 120, 130, 140) which processes a specimen; a conveying line which conveys carriers, and includes a specimen conveying line for conveying specimen carriers and an empty carrier conveying line for conveying empty carriers; a control device which controls the conveying of the carriers; an external connecting module (180a, 180b, 180c) which delivers the carriers to and from an external device (210, 220, 230); and a carrier buffer module which collects and stores the empty carriers from the empty carrier conveying line and supplies the empty carriers to the empty carrier conveying line, based on information from the control device, characterized in that the external connecting module (180a, 180c, 180c) is configured to notify the control device that a specimen carrier or empty carrier has been conveyed out from the specimen inspection automation system to the external device (210, 220, 230) or has been conveyed into the specimen inspection automation system from the external device (210, 220, 230), wherein the control device is configured to control the carrier buffer module so as to keep the number of empty carriers in the specimen inspection automation system within a certain range based on the number of times of convey-in and convey-out of carriers in the external connecting modules (180a, 180b, 180c).
A method for demand-based closed-loop control of an electrochemical plant, which comprises modules and an control unit, each module being individually controlled by the control unit and supplied with a module-specific electric operating current, in order for each of the modules to generate a separate product flow, the product flows of the individual modules, which are connected in parallel with regard to their product flows, being merged to form a total product flow of the plant, wherein the following steps are carried out by the control unit when a start condition is satisfied: - recording a current total product flow demand - recording the current efficiency of the modules of the electrochemical plant depending on the ratio of the respective operating current and product flow, - determining the operationally ready modules, - determining module-specific target operating currents for the operationally ready modules to cover the current total product flow demand from a range of permissible module-specific target operating currents (I m) as a function of the efficiency of the modules and the current total product flow demand, wherein to determine the module-specific target operating currents (I m), the respective modules are sorted according to a module-specific life-cycle parameter and are raised or lowered according to that order until the current total product flow demand is met, - setting the operating currents of the operationally ready modules to the determined module-specific target operating currents (I m), characterized in that, the life-cycle parameter is calculated from the current efficiency of the modules and a correction term that takes into account maintenance costs of the electrochemical plant, wherein the correction term generates a deviation from the currently most efficient operating point of the plant, which allows non-uniform aging of the modules in terms of their efficiency. - recording a current total product flow demand - recording the current efficiency of the modules of the electrochemical plant depending on the ratio of the respective operating current and product flow, - determining the operationally ready modules, - determining module-specific target operating currents for the operationally ready modules to cover the current total product flow demand from a range of permissible module-specific target operating currents (I m) as a function of the efficiency of the modules and the current total product flow demand, wherein to determine the module-specific target operating currents (I m), the respective modules are sorted according to a module-specific life-cycle parameter and are raised or lowered according to that order until the current total product flow demand is met, - setting the operating currents of the operationally ready modules to the determined module-specific target operating currents (I m),
An articulate support assembly for robotic surgery comprising: an orienting platform; a plurality of set-up joint arms (38,40,42,44), each of the arms coupleable to the orienting platform through a rotatable hub (82,84,86,88), each of the plurality of arms (38,40,42,44) comprising a plurality of releasably fixable linkages (52,58,62) and joints (48,50,62,64) comprising: a first linkage structure for moving a portion of the arm in a vertical direction, the first linkage structure extending from the corresponding rotatable hub in a horizontal direction away from the hub, the first linkage structure comprising a parallelogram linkage structure comprising a link, a proximal bracket, and a distal bracket; a manipulator base rotatably coupled to the first linkage structure; a manipulator coupled to the manipulator base, the manipulator comprising a remote center manipulator; and characterized in that it further comprises: a platform linkage, the orienting platform coupled to the platform linkage through a rotatable hub. an orienting platform; a plurality of set-up joint arms (38,40,42,44), each of the arms coupleable to the orienting platform through a rotatable hub (82,84,86,88), each of the plurality of arms (38,40,42,44) comprising a plurality of releasably fixable linkages (52,58,62) and joints (48,50,62,64) comprising: a first linkage structure for moving a portion of the arm in a vertical direction, the first linkage structure extending from the corresponding rotatable hub in a horizontal direction away from the hub, the first linkage structure comprising a parallelogram linkage structure comprising a link, a proximal bracket, and a distal bracket; a manipulator base rotatably coupled to the first linkage structure; a manipulator coupled to the manipulator base, the manipulator comprising a remote center manipulator; and a first linkage structure for moving a portion of the arm in a vertical direction, the first linkage structure extending from the corresponding rotatable hub in a horizontal direction away from the hub, the first linkage structure comprising a parallelogram linkage structure comprising a link, a proximal bracket, and a distal bracket; a manipulator base rotatably coupled to the first linkage structure; a manipulator coupled to the manipulator base, the manipulator comprising a remote center manipulator; and characterized in that it further comprises: a platform linkage, the orienting platform coupled to the platform linkage through a rotatable hub. a platform linkage, the orienting platform coupled to the platform linkage through a rotatable hub.
Method for estimating the weight of a motor vehicle comprising a front wheel assembly and a rear wheel assembly, using a smart communication device, after the loading of the vehicle, the method comprising the steps of: (i) identifying the vehicle in the smart communication device; (ii) using a camera of the smart communication device to capture and process a photograph of at least one wheel of the vehicle with at least one point of the vehicle that is pushed inward together with the vehicle wheel suspension when the vehicle is loaded, after loading, to determine the clearance of the wheel assembly of the photographed wheel as a function of the identified vehicle; (iii) determining the clearance of the wheel assembly opposite the wheel photographed in step (ii), either by measuring the angle of inclination of the vehicle after loading, using at least one accelerometer or inclinometer of the smart communication device, or by capturing and processing a photograph of at least one wheel of the wheel assembly opposite the wheel assembly of the wheel photographed in step (ii) with at least one point of the vehicle that is pushed inward together with the vehicle wheel suspension when the vehicle is loaded, using the camera of the smart communication device; (iv) using a calculation unit of the smart communication device to calculate the load value on the wheel assembly of the photographed wheel and the load value on the opposite wheel assembly as a function of the respective clearances of these wheel assemblies, to determine the total load value of the vehicle; (v) using the smart communication device to inform the user of the load state of the vehicle. (i) identifying the vehicle in the smart communication device; (ii) using a camera of the smart communication device to capture and process a photograph of at least one wheel of the vehicle with at least one point of the vehicle that is pushed inward together with the vehicle wheel suspension when the vehicle is loaded, after loading, to determine the clearance of the wheel assembly of the photographed wheel as a function of the identified vehicle; (iii) determining the clearance of the wheel assembly opposite the wheel photographed in step (ii), either by measuring the angle of inclination of the vehicle after loading, using at least one accelerometer or inclinometer of the smart communication device, or by capturing and processing a photograph of at least one wheel of the wheel assembly opposite the wheel assembly of the wheel photographed in step (ii) with at least one point of the vehicle that is pushed inward together with the vehicle wheel suspension when the vehicle is loaded, using the camera of the smart communication device; (iv) using a calculation unit of the smart communication device to calculate the load value on the wheel assembly of the photographed wheel and the load value on the opposite wheel assembly as a function of the respective clearances of these wheel assemblies, to determine the total load value of the vehicle; (v) using the smart communication device to inform the user of the load state of the vehicle.
A filter medium for an air filter, comprising: a main collection layer, having: a filing rate of 5% to 15%; a thickness of 0.35 mm to 0.70 mm, measured according to the method described in the description; and a peak at less than 1.0 μm, and a peak at 1.0 μm or greater in a fiber diameter distribution, the main collection layer, including: fibers having a small fiber diameter of less than 1.0 μm, with an average fiber diameter of 0.1 μm to less than 0.8 μm; and fibers having a large fiber diameter of 1.0 μm or greater, with an average fiber diameter of 1.2 μm to less than 3.0 μm, with a volume ratio of the fibers having the small fiber diameter to the fibers having the large fiber diameter, that is, the fibers having the small fiber diameter: the fibers having the large fiber diameter, being from 30:70 to 80:20, and the filter medium for an air filter having a tensile elongation of 10% or greater, measured according to the method described in the description. a main collection layer, having: a filing rate of 5% to 15%; a thickness of 0.35 mm to 0.70 mm, measured according to the method described in the description; and a peak at less than 1.0 μm, and a peak at 1.0 μm or greater in a fiber diameter distribution, a filing rate of 5% to 15%; a thickness of 0.35 mm to 0.70 mm, measured according to the method described in the description; and a peak at less than 1.0 μm, and a peak at 1.0 μm or greater in a fiber diameter distribution, the main collection layer, including: fibers having a small fiber diameter of less than 1.0 μm, with an average fiber diameter of 0.1 μm to less than 0.8 μm; and fibers having a large fiber diameter of 1.0 μm or greater, with an average fiber diameter of 1.2 μm to less than 3.0 μm, fibers having a small fiber diameter of less than 1.0 μm, with an average fiber diameter of 0.1 μm to less than 0.8 μm; and fibers having a large fiber diameter of 1.0 μm or greater, with an average fiber diameter of 1.2 μm to less than 3.0 μm, with a volume ratio of the fibers having the small fiber diameter to the fibers having the large fiber diameter, that is, the fibers having the small fiber diameter: the fibers having the large fiber diameter, being from 30:70 to 80:20, and the filter medium for an air filter having a tensile elongation of 10% or greater, measured according to the method described in the description.
Supporting structure for a parabolic-linear solar plant of the concentration type, suitable to support mirrors with a curved surface, which intercept the sun's rays and direct them towards a receiver member to produce energy, such as a receiver tube in which a heat exchange fluid flows and/or concentration-type photovoltaic cells, the receiver member being disposed along a first axis of substantial alignment of the focuses of said mirrors, said supporting structure comprising a supporting shaft that develops parallel to a second rotation axis parallel to said first axis, supporting centrings for supporting the mirrors being assembled along said supporting shaft, disposed transverse on opposite sides with respect to said supporting shaft in a manner coordinated with the position of said mirrors, each of said supporting centrings having pivoting ends coupled with said supporting shaft, characterized in that said supporting structure also comprises first positioning blocks disposed along the supporting shaft in a manner coordinated with the disposition of the centrings, which, on opposite sides with respect to said supporting shaft, have first supporting faces, facing during use towards the centrings, and in that said pivoting ends of the centrings carry second positioning blocks that have second supporting faces facing during use towards the supporting shaft and able to cooperate abutting with said first supporting faces, said first supporting faces and said second supporting faces having combined worked surfaces to define reciprocally coordinated shapes, so as to guarantee the precise positioning of the centrings with respect to the supporting shaft, so that the mirrors supported by the centrings are correctly oriented with their focuses aligned along said first axis.
A method for pushing a picture, comprising: acquiring, via a camera of a terminal, a first image containing a facial expression of a user, when a screen is lit; acquiring, via a processor of the terminal, a set of face images of the user; sending, via the processor, a part of the set of face images to a server to cause the server to mark each of face images with an emotion type; receiving, from the server the marked face images in the terminal; learning, via the processor, the remaining part of the set of face images according to the marked face images and a preset machine learning scheme to obtain a user emotion model; wherein the user emotion model comprises a set of face images of the user each of them marked with an emotion type; comparing, via the processor, the first image with the user emotion model to determine a face image from the user emotion model, wherein a matching rate between the image and the face image is larger than a preset threshold; determining, via the processor, the emotion type associated with the face image as an emotion type of the user; and pushing, via the processor, a target picture according to the emotion type of the user on a display screen to the user. acquiring, via a camera of a terminal, a first image containing a facial expression of a user, when a screen is lit; acquiring, via a processor of the terminal, a set of face images of the user; sending, via the processor, a part of the set of face images to a server to cause the server to mark each of face images with an emotion type; receiving, from the server the marked face images in the terminal; learning, via the processor, the remaining part of the set of face images according to the marked face images and a preset machine learning scheme to obtain a user emotion model; wherein the user emotion model comprises a set of face images of the user each of them marked with an emotion type; comparing, via the processor, the first image with the user emotion model to determine a face image from the user emotion model, wherein a matching rate between the image and the face image is larger than a preset threshold; determining, via the processor, the emotion type associated with the face image as an emotion type of the user; and pushing, via the processor, a target picture according to the emotion type of the user on a display screen to the user.
An image display device, comprising: an image forming unit (111, 211); and an optical unit configured to input and output light that is output from the image forming unit; wherein the image forming unit includes a light source including a semiconductor laser element, a temperature measuring unit configured to measure a temperature change of the light source; and a control unit configured to control an operation of the light source based on a result of a temperature measurement by the temperature measuring unit, wherein the temperature measuring unit is configured to measure a temperature change of the semiconductor laser element, and the control unit is configured to control an output position of the light from the image forming unit based on the result of the temperature measurement by the temperature measuring unit, wherein the optical unit includes: a light guide plate configured to output light after input light is propagated inside the light guide plate by total reflection, a first deflection unit including one of a reflecting mirror and a semi-transmissive mirror and configured to deflect at least part of the light input to the light guide plate, to totally reflect the light input to the light guide plate inside the light guide plate, and a second deflection unit including a diffraction grating member and configured to deflect the light propagated inside the light guide plate by total reflection, to output, from the light guide plate, the light propagated inside the light guide plate by total reflection. an image forming unit (111, 211); and an optical unit configured to input and output light that is output from the image forming unit; wherein the image forming unit includes a light source including a semiconductor laser element, a temperature measuring unit configured to measure a temperature change of the light source; and a light guide plate configured to output light after input light is propagated inside the light guide plate by total reflection, a first deflection unit including one of a reflecting mirror and a semi-transmissive mirror and configured to deflect at least part of the light input to the light guide plate, to totally reflect the light input to the light guide plate inside the light guide plate, and a second deflection unit including a diffraction grating member and configured to deflect the light propagated inside the light guide plate by total reflection, to output, from the light guide plate, the light propagated inside the light guide plate by total reflection.
Weaving reed for a rapier weaving machine, comprising several reed dents, each of which comprises a recess and/or a projection, wherein the recesses of these reed dents form a guide passage and/or the projections of these reed dents form a guide rib, wherein the guide passage and/or the guide rib are provided for guiding a rapier of the rapier weaving machine, and wherein at least some of said reed dents are arranged in a centring zone which is situated between an end of the weaving reed and a transfer point of the weaving reed, which is situated at a different point of the weaving reed than where said end of the weaving reed is situated, characterized in that in this centring zone, a dimension of the recess for guiding the rapier viewed in a direction at right angles to the direction of movement of the rapier decreases with successive reed dents towards the transfer point of the weaving reed and/or a dimension of the projection for guiding the rapier viewed in a direction at right angles to the direction of movement of the rapier increases with successive reed dents towards the transfer point.
A charged particle detector arrangement, comprising a detection element, wherein the detection element detects signal charged particles emitted from a specimen to produce a signal charged particle signal and releases tertiary charged particles upon impact of the signal charged particles; and a collector electrode configured to collect the tertiary charged particles released from the detection element upon impact of the signal charged particles, such as to reduce contamination of the detection element.
A light detection device, comprising: thermally independent reaction regions, wherein the reaction regions are capable of receiving one or more samples, and wherein the device is configured to independently control temperatures of the reaction regions; light source units (10; 701-704) configured to irradiate the reaction regions with light, wherein the light source units comprise two or more light source units configured to radiate lights having different wavelengths, wherein each of the light source units is configured to irradiate an area (41, 42; 711-714) of predetermined size with light, and wherein the light source units are configured to be movable; one or more controllers configured to control the temperatures of the reaction regions independently and control movement of the light source units; and detectors (60; 721-724) configured to detect light emitted from the reaction regions, characterized in that the light source units are arranged around a rotational axis, wherein as the light source units are rotated around the rotational axis, areas irradiated with the light by the light source units are changed. thermally independent reaction regions, wherein the reaction regions are capable of receiving one or more samples, and wherein the device is configured to independently control temperatures of the reaction regions; light source units (10; 701-704) configured to irradiate the reaction regions with light, wherein the light source units comprise two or more light source units configured to radiate lights having different wavelengths, wherein each of the light source units is configured to irradiate an area (41, 42; 711-714) of predetermined size with light, and wherein the light source units are configured to be movable; one or more controllers configured to control the temperatures of the reaction regions independently and control movement of the light source units; and detectors (60; 721-724) configured to detect light emitted from the reaction regions, characterized in that the light source units are arranged around a rotational axis, wherein as the light source units are rotated around the rotational axis, areas irradiated with the light by the light source units are changed.