mhurhangee/ep-ind-claims huggingface dataset:
A porous membrane manufacturing method comprising: a process of manufacturing a raw material resin mixture; a process of extruding and cooling the raw material resin mixture; a process of stretching the raw material resin mixture extruded in the process; and a process of immersing the raw material resin mixture stretched in the process in an organic solvent, characterized in that the raw material resin mixture contains 10 to 90 parts by weight of a solid-type paraffin wax having a weight-average molecular weight of 100 to 5,000 and 10 to 90 parts by weight of a liquid-type paraffin oil having a weight-average molecular weight of 300 to 1,500 relative to 100 parts by weight of a polyethylene resin having a weight-average molecular weight of no less than 300,000 and less than 500,000; wherein the raw material resin mixture is obtained by mixing the solid-type paraffin wax and the liquid-type paraffin oil into the polyethylene resin in a state in which the solid-type paraffin wax and the liquid-type paraffin oil are previously mixed. a process of manufacturing a raw material resin mixture; a process of extruding and cooling the raw material resin mixture; a process of stretching the raw material resin mixture extruded in the process; and a process of immersing the raw material resin mixture stretched in the process in an organic solvent,
A plug valve comprising: a valve seat; a valve rod mounted on the valve seat; a driving mechanism mounted on the valve seat and connected to the valve rod to drive the valve rod; wherein the plug valve has an automatic fire control mode and a manual fire control mode, wherein in the automatic fire control mode, the driving mechanism is controlled to drive the valve rod to rotate to adjust the firepower; and wherein in the manual fire control mode, the valve rod is manually adjusted and rotated; and characterized in that the plug valve comprising a change-over switch mounted on the valve seat and electrically connected to the driving mechanism, wherein when the valve rod is rotated to trigger the change-over switch, the plug valve is switched to the automatic fire control mode. a valve seat; a valve rod mounted on the valve seat; a driving mechanism mounted on the valve seat and connected to the valve rod to drive the valve rod; wherein the plug valve has an automatic fire control mode and a manual fire control mode, wherein in the automatic fire control mode, the driving mechanism is controlled to drive the valve rod to rotate to adjust the firepower; and wherein in the manual fire control mode, the valve rod is manually adjusted and rotated; and characterized in that the plug valve comprising a change-over switch mounted on the valve seat and electrically connected to the driving mechanism, wherein when the valve rod is rotated to trigger the change-over switch, the plug valve is switched to the automatic fire control mode.
A touch display circuit, comprising a touch unit and a display unit which are connected with each other; a first scan line, a second scan line, a third scan line, a signal control line, a data line (Dn), a first level terminal and a second level terminal, which are connected with the display unit; and the second scan line, the third scan line and a signal collecting line, which are connected with the touch unit; wherein the display unit comprises a driving module and a light-emitting module; the driving module is connected with the first scan line, the second scan line, the signal control line, the data line (Dn), the first level terminal and the touch unit; the light-emitting module is connected with the driving module, the third scan line and the second level terminal; the driving module is configured to provide a first level to the touch unit under control of the first scan line, the second scan line, and the data line (Dn); the touch unit is configured to output a first amplified signal acquired by amplifying the first level to the signal collecting line, or wherein the touch unit is configured to output a second amplified signal to the signal collecting line as touched; the driving module is configured to provide a light-emitting signal to the light-emitting module through the first level terminal and the second level terminal under the control of the first scan line, the second scan line, the signal control line and the data line (Dn); and the third scan line is configured to control the light-emitting signal so as to drive the light-emitting module to emit light; characterized in that the touch unit comprises a first switch transistor and a first capacitor, wherein a gate of the first switch transistor is connected with the second scan line, and a source thereof is connected with the driving module of the display unit, and a first electrode of the first capacitor is connected with a ground terminal, and a second electrode of the first capacitor, as a touch electrode, is connected with the drain of the first switch transistor; the driving module comprises a fifth switch transistor and a sixth switch transistor, wherein a gate of the fifth switch transistor is connected with the first scan line, a source of the fifth switch transistor is connected with the data line (Dn), and a drain of the fifth switch transistor is connected with the source of the first switch transistor, and a gate of the sixth switch transistor is connected with the signal control line, a source of the sixth switch transistor is connected with the first level terminal, and a drain of the sixth switch transistor is connected with the drain of the fifth switch transistor.
A method for controlling a terminal to acquire a multimedia data stream from a target camera device, wherein the terminal comprises a processing component connected to a communication component and a multimedia component including a touch screen, the method comprising the steps of: acquiring a list of smart devices when an application for managing smart devices is started; determining triggering of a preset triggering event if the target camera device exists in the list of smart devices and the target camera device is indicated to be in an on-line state; establishing a socket connection to the target camera device, using the communication component, when the preset trigger event is triggered; sending a command to the target camera device to transfer the multimedia data stream through the socket connection if an event of starting preview is detected, by the multimedia component, in response to user selection; receiving the multimedia data stream transferred from the target camera device at the terminal and displaying the multimedia data stream in a specified preview interface; keeping the socket connection before an application for managing smart devices is closed; and disconnecting the socket connection from the target camera device when the application for managing smart devices is closed.
Apparatus (100, 200, 300) for identifying dust particles and water particles comprising a scattering region in fluid communication with ambient air of the apparatus, light emitting means (101, 201, 301) having a first optical axis (105, 206, 304) at least one first light detecting means (110, 210, 310) having a second optical axis (115, 214, 314), and a measuring and computing means, wherein said light emitting means (101, 201, 301) is adapted to emit light into said scattering region, and said at least one light detecting means (110, 210, 310) is designed to transmit detection signals generated by scattered light incidence to the measuring and computing device, wherein the light emission device (101, 201, 301) comprises at least one first light source (102, 202, 302) which is designed to emit linearly polarized light with a first plane of polarization, and wherein the measuring and computing device is designed to calculate a value of an intensity quotient from the detection signals, to compare the value with stored values and to output an identification signal depending on the comparison, characterized in that the first optical axis (105, 206, 304) and the second optical axis (115, 214, 314) enclose an angle of 35° ± 3° in the direction of the backscattered light, the measuring and computing device is designed to calculate from the detection signals by means of the determination of the intensities Is and Ip the value of an intensity quotient in the form of a degree of depolarization σ Depol for the identification of dust particles or in the form of a polarization measure σ Po l for the identification of water particles, to compare the value with stored values and to output an identification signal depending on the comparison, wherein the polarization measure σ Pol is calculated according to σ Pol = (Is-Ip)/(Is+Ip), and wherein the degree of depolarization σ Depol is calculated according to σ Depol = I s /I p or σ Depol =Ip/Is, where Is is the intensity of light which is linearly polarized and has a plane of polarization which includes an angle of 90° ± 5° with the plane spanned by the first (105, 206, 304) and second optical axes (115, 214, 314) and where Ip is the intensity of the light which is linearly polarized and has a plane of polarization which includes an angle of 0° ± 5° with the plane spanned by the first (105, 206, 304) and second optical axes (115, 214, 314), and wherein the first plane of polarization of the light emitted by the first light source (102, 202, 302) is oriented perpendicular or parallel to the plane spanned by the first optical axis (105, 206, 304) and second optical axis (115, 214, 314).
A method of determining infrastructure risk zones, comprising: receiving from a radiofrequency radiation sensor, a first scan of an area at a first polarization, the first scan including first radiofrequency reflections from the area at a first resolution, the sensor being located at least 50 meters above the area, wherein the area at least partially comprises infrastructure; receiving additional data; filtering electromagnetic noise from the first scan using the additional data; receiving infrastructure location in the area; determining an examination zone around the infrastructure; characterized in that the method further comprises estimating an amount of clay in soil included in the examination zone, from the filtered first scan; scan, calculating soil moisture content at locations in the examination zone, from the filtered first scan; and determining at least one location at risk having soil moisture content above a predetermined threshold, wherein the threshold is determined based on the estimated clay amount. receiving from a radiofrequency radiation sensor, a first scan of an area at a first polarization, the first scan including first radiofrequency reflections from the area at a first resolution, the sensor being located at least 50 meters above the area, wherein the area at least partially comprises infrastructure; receiving additional data; filtering electromagnetic noise from the first scan using the additional data; receiving infrastructure location in the area; determining an examination zone around the infrastructure; characterized in that the method further comprises estimating an amount of clay in soil included in the examination zone, from the filtered first scan; scan, calculating soil moisture content at locations in the examination zone, from the filtered first scan; and determining at least one location at risk having soil moisture content above a predetermined threshold, wherein the threshold is determined based on the estimated clay amount.
A beaded component, comprising an expandable body and at least two shaping assemblies, each shaping assembly comprises a first part and a second part; wherein the first part has a columnar inner cavity, and a partial section of the expandable body is bundled within the columnar inner cavity to form a shrinkage section of the beaded component; or the first part has a columnar outer surface, and an inner surface of the partial section of the expandable body is fixedly connected to the columnar outer surface to form a shrinkage section of the beaded component; the second part is a tubular part, and the shrinkage section is sheathed in the second part; and an expansion section of the beaded component is formed between two adjacent shrinkage sections. the first part has a columnar inner cavity, and a partial section of the expandable body is bundled within the columnar inner cavity to form a shrinkage section of the beaded component; or the first part has a columnar outer surface, and an inner surface of the partial section of the expandable body is fixedly connected to the columnar outer surface to form a shrinkage section of the beaded component; the second part is a tubular part, and the shrinkage section is sheathed in the second part; and an expansion section of the beaded component is formed between two adjacent shrinkage sections.
An analyte testing device, comprising: a housing that removably holds (a) a first cartridge having a plurality of lancets, and (b) a second cartridge having a plurality of removable test strips; conversion electronics that receives a signal from individual ones of the plurality of test strips and converts the signal into readable data; and an actuator configured to (i) cock a lancing device, (ii) expose individual ones of the plurality of test strips for use; and (iii) advance the lancet cartridge. a housing that removably holds (a) a first cartridge having a plurality of lancets, and (b) a second cartridge having a plurality of removable test strips; conversion electronics that receives a signal from individual ones of the plurality of test strips and converts the signal into readable data; and an actuator configured to (i) cock a lancing device, (ii) expose individual ones of the plurality of test strips for use; and (iii) advance the lancet cartridge.
Device for processing keg barrels having a keg flange with a valve, said device comprising an upward-projecting processing head for over-head processing, e.g. filling, of the keg barrel, wherein an adapter (20, 20a, 50, 60) with a guide cone (24, 58) for the keg flange is arranged at the upper end of the processing head, characterised in that the guide cone (24, 58) is mounted on the processing head or on the adapter (20, 20a, 50, 60) such that it can rotate.
Current collector foil (2, 3) coated with an active electrode material for batteries or accumulators, comprising a carrier material and at least one electrically conductive layer made from a metal, wherein the at least one electrically conductive layer is produced at least partially by electrodeposition of aluminium and has a texture, wherein the carrier material is an aluminium foil that is made from aluminium or an aluminium alloy and the current collector foil is intended for the cathode, characterised in that the order of magnitude of the texture of the least one electrically conductive layer is adapted to the particle size of the active electrode material in such a way, that the texture has a surface structure, surface waviness or surface roughness, which is of the same order of magnitude as the particle size of the active electrode material and the crystallite size of the deposited aluminium amounts to 1 nm to 500 nm.
A device (1; 10; 100) for coating one or more yarns by a vapor deposition method, the device comprising at least: - a treatment chamber (4; 40) defining at least a first treatment zone (4a; 40a) and a second treatment zone (4b; 40b) in which at least one yarn is to be coated by performing a vapor deposition method, the first and second zones being separated by a wall (5; 50) and the first zone surrounding the second zone, or being superposed on the second zone; - a conveyor system (6; 60) configured to transport said at least one yarn through the first and second zones (4a; 4b; 40a; 40b); - a first injector device configured to inject a first treatment gas phase into the first zone (4a; 40a) and a first removal device configured to remove the residual first gas phase from the first zone (4a; 40a); and - a second injector device configured to inject a second treatment gas phase into the second zone (4b; 40b), and a second removal device configured to remove the residual second gas phase from the second zone (4b; 40b). - a treatment chamber (4; 40) defining at least a first treatment zone (4a; 40a) and a second treatment zone (4b; 40b) in which at least one yarn is to be coated by performing a vapor deposition method, the first and second zones being separated by a wall (5; 50) and the first zone surrounding the second zone, or being superposed on the second zone; - a conveyor system (6; 60) configured to transport said at least one yarn through the first and second zones (4a; 4b; 40a; 40b); - a first injector device configured to inject a first treatment gas phase into the first zone (4a; 40a) and a first removal device configured to remove the residual first gas phase from the first zone (4a; 40a); and - a second injector device configured to inject a second treatment gas phase into the second zone (4b; 40b), and a second removal device configured to remove the residual second gas phase from the second zone (4b; 40b).
A method for mobile network testing by using at least one testing device configured to be connected to a mobile network, comprising the following steps: - Running a predefined set of test procedures on the at least one testing device, wherein the test procedures running on the at least one testing device simulate the behavior of participants of the mobile network, - Obtaining test results assigned to at least one test parameter by means of a processing unit, wherein the at least one test parameter corresponds to at least one network key performance indicator, - Evaluating the test results of the test procedures via a machine learning model by means of the processing unit, and - Training the machine learning model to predict output parameters assigned to the quality of a service based on the test results obtained by means of the processing unit, wherein the service relates to an application requiring data from the mobile network, wherein the training of the machine learning model is based on the at least one test parameter together with the resulting output parameters assigned to the quality of the respective service, and wherein the at least one test parameter as well as the resulting output parameters correspond to a pair consisting of a certain input parameter as well as a desired output parameter. - Running a predefined set of test procedures on the at least one testing device, wherein the test procedures running on the at least one testing device simulate the behavior of participants of the mobile network, - Obtaining test results assigned to at least one test parameter by means of a processing unit, wherein the at least one test parameter corresponds to at least one network key performance indicator, - Evaluating the test results of the test procedures via a machine learning model by means of the processing unit, and - Training the machine learning model to predict output parameters assigned to the quality of a service based on the test results obtained by means of the processing unit, wherein the service relates to an application requiring data from the mobile network, wherein the training of the machine learning model is based on the at least one test parameter together with the resulting output parameters assigned to the quality of the respective service, and wherein the at least one test parameter as well as the resulting output parameters correspond to a pair consisting of a certain input parameter as well as a desired output parameter.
A method for the continuous biological methanation of dihydrogen H 2 and a gas selected from carbon dioxide CO 2 and carbon monoxide CO, for the production of biomethane CH 4 or biogas rich in methane CH 4, in an anaerobic bioreactor comprising a reaction medium, containing at least one liquid substrate with organic matter to be degraded, and a microbial flora, comprising at least hydrogenotrophic methanogenic microorganisms, capable of catalyzing the conversion of H 2 and CO 2 or H 2 and CO into CH 4, said process being characterized in that it comprises, at least, the following steps: a) Said anaerobic bioreactor is continuously supplied with the liquid substrate; b) Said reaction medium is continuously filtered through a filtration membrane with a cut-off threshold of between 0.01 μm and 0.2 μm, capable of retaining part of the reaction medium containing the microbial flora and macromolecules having a size greater than said cut-off threshold, and a digestate is discharged; c) At least one first gas consisting of dihydrogen H 2 or syngas, the latter comprising at least carbon monoxide CO and dihydrogen H 2, and, optionally, a second gas selected from carbon monoxide CO, carbon dioxide CO 2 and biogas, is continuously injected into said reaction medium contained in said anaerobic bioreactor, said at least one gas being injected into said reaction medium through a membrane contactor comprising a hydrophobic microporous membrane, the injection of said at least one gas into said reaction medium being carried out at a pressure P1 higher than the limit pressure Pl for bubble formation of said at least one gas in a liquid; d) Biomethane CH 4, or biogas rich in methane CH 4, produced within said anaerobic bioreactor is recovered. a) Said anaerobic bioreactor is continuously supplied with the liquid substrate; b) Said reaction medium is continuously filtered through a filtration membrane with a cut-off threshold of between 0.01 μm and 0.2 μm, capable of retaining part of the reaction medium containing the microbial flora and macromolecules having a size greater than said cut-off threshold, and a digestate is discharged; c) At least one first gas consisting of dihydrogen H 2 or syngas, the latter comprising at least carbon monoxide CO and dihydrogen H 2, and, optionally, a second gas selected from carbon monoxide CO, carbon dioxide CO 2 and biogas, is continuously injected into said reaction medium contained in said anaerobic bioreactor, said at least one gas being injected into said reaction medium through a membrane contactor comprising a hydrophobic microporous membrane, the injection of said at least one gas into said reaction medium being carried out at a pressure P1 higher than the limit pressure Pl for bubble formation of said at least one gas in a liquid; d) Biomethane CH 4, or biogas rich in methane CH 4, produced within said anaerobic bioreactor is recovered.