mhurhangee/patent-ind-claim-en huggingface dataset:
A pipe section for flow measurements including at least one measuring microwave antennas configured to measure predetermined characteristics of fluid inside the pipe section, the pipe section including an input end and an output end 2. having a cross section with a predetermined dimension, the pipe section comprising a section constituting a microwave resonator and having a cross section in a first direction having a dimension A extending beyond the input and output dimension by a predetermined amount and a second cross section in a second direction having an angle, preferably 90 degrees, relative to the first direction and having a second dimension B being less than the dimension A, the first and second directions are chosen so that B<A<2B, obtaining resonance modes reflected by opposing section surfaces each providing a different standing wave and wherein said at least one antenna is mounted in said surfaces and configured to measure at least one resonance frequency indicating said characteristics of the fluid.
A method of improving heat-sealability of a polyester, characterized in that a polyester coating layer containing polylactide (PLA) on a fibrous substrate comprising paper, paperboard or cardboard is subjected to electron beam (EB) radiation, thereby decreasing the melt viscosity of the coating.
A system comprising at least a mobile device and a plurality of gateways whose positions are known, wherein the gateways are operatively arranged to receive each a localization packet from the mobile device, determine for each gateway a received signal strength indicator (RSSI) of the localization packet at the gateway, the system comprising a solver unit operatively arranged to select a subset of gateways, compute the position of the mobile device , based on said received signal strength indicators, wherein the solver unit is arranged to compute a sorted list of the gateways of the subset ordered by received signal strength indicators, compute for each gateway in the subset a weight factor based on the rank of the gateway in the sorted list, whereby those gateways whose signal strength indicator is bigger receive a heavier weight, the system being further arranged to compute the position of the mobile device by a weighted sum of the position of the gateways in the subset using said weight factors, characterized in that the gateways in the subset are sorted by their received signal strength indicators in the descending order and the weighting factors ( w i ) are calculated by: RSSI 0 > RSSI 1 > ... > RSSI N − 1 ; i = 0 , ... N − 1 w i = 1 + RSSI i − RSSI N − 1 ⋅ N − i 2 ; i = 0 , ... N − 1 . wherein N denotes the number of gateways in the subset, and i the rank of the gateway ranging from 0 to N-1.
A bioabsorbable vascular stent, comprising an absorbable component produced by subjecting a prefabricated component made from an iron-based raw material to ion nitriding treatment, the material composition inside the absorbable component changing with the depth from the surface, and wherein the absorbable component comprises at least a first part and a second part, the second part being surrounded by the first part and the hardness of the first part is higher than that of the second part, characterized in that the first part comprises a dispersion layer which is continuously distributed inwardly from its surface, but does not include a corrosion resistant layer formed of γ'-phase and ε-phase nitrides on its surface, the dispersion layer being a solid solution with a nitrogen content of less than 1 wt-% and particles with a nitrogen content of more than 1wt-% being scattered in the solid solution, the second part comprises a solid solution layer surrounded by the dispersion layer , such that the first part includes the whole dispersion layer and the second part includes the whole solid solution layer , wherein the corrosion resistant layer is completely removed from the component, and wherein the dispersion layer and the solid solution layer are respectively positioned on either side of an interface constituted to inhibit cracks generated in the dispersion layer from extending into the solid solution layer .
A liquid dispenser for animals, including: a tank ; a pump provided in the tank to pump liquid through a pipe coupled to the pump ; a plate provided above the tank including a hole that communicates with an outlet of the pipe and an upper surface over which liquid supplied from the pipe flows; and, at least one filter provided in the tank , characterised in that the filter is provided surrounding the pump . a tank ; a pump provided in the tank to pump liquid through a pipe coupled to the pump ; a plate provided above the tank including a hole that communicates with an outlet of the pipe and an upper surface over which liquid supplied from the pipe flows; and, at least one filter provided in the tank , characterised in that the filter is provided surrounding the pump .
An image processing device comprising: a state detection element for detecting a remote operation mode of a working machine by a remote operation device or a moving mode of the working machine; an image prediction element configured to predict whether or not a data amount of a captured image indicating the captured image of the working machine and an environment thereof captured by an actual machine image capturing device is to exceed a threshold, based on the remote operation mode of the working machine by the remote operation device or the moving mode of the working machine detected by the state detection element; and an image compression element configured to eliminate high frequency components exceeding a specified frequency in a second specified image area excluding a first specified image area of the captured image on condition that it is predicted that the data amount of the captured image is to exceed the threshold by the image prediction element. a state detection element for detecting a remote operation mode of a working machine by a remote operation device or a moving mode of the working machine; an image prediction element configured to predict whether or not a data amount of a captured image indicating the captured image of the working machine and an environment thereof captured by an actual machine image capturing device is to exceed a threshold, based on the remote operation mode of the working machine by the remote operation device or the moving mode of the working machine detected by the state detection element; and an image compression element configured to eliminate high frequency components exceeding a specified frequency in a second specified image area excluding a first specified image area of the captured image on condition that it is predicted that the data amount of the captured image is to exceed the threshold by the image prediction element.
A method for producing a bearing component , wherein a bearing component blank has an iron-based metal substrate and a conversion layer , wherein the conversion layer , at least in some areas, is formed on the metal substrate and has a starting layer thickness (db), wherein an iron-oxide-based burnishing layer is formed as a conversion layer and is produced by treatment, at least in some areas, of the metal substrate by means of an alkaline treatment bath, characterized in that , so as to obtain the bearing component , the metal substrate of the bearing component blank is hardened and the bearing component blank , at least in one area of the conversion layer , is rolled over by means of a spherical body , so that the conversion layer in this area is compressed and forms a protective layer of the bearing component with an end layer thickness (d e ) and the end layer thickness (d e ) is less than 95% of the starting layer thickness (d b ).
Automatic coffee maker with a beverage outlet and with a cup stand , arranged therebelow, with a drip shelf , onto which a beverage container can be placed, with a control facility which is embodied such that a rinsing process is firstly activated when a desired beverage is prepared, rinse water is output by way of the beverage outlet and this is rinsed and the selected beverage is then output, characterised in that an apparatus is provided, which is embodied such that it routes rinse water into the drip shelf in spite of the beverage container placed on the cup stand below the beverage outlet , characterised in that a cup stand support is supported rotatably about a first axis of rotation and a sink which can be pivoted about a second axis of rotation has a rinse water capture area and a rinse water reservoir which are connected to one another in the manner of a rocker by way of a central area mounted rotatably on the second axis of rotation , wherein the sink is pivoted in a first position with its rinse water capture area below the beverage outlet .
A method of forming an ophthalmic Lens Precursor , the method comprising the steps of: positioning a single substrate with an optical quality area in contact with a volume of reactive mixture ; and transmitting sufficient actinic radiation through the single substrate to polymerize a portion of the volume of reactive mixture and form the ophthalmic Lens Precursor wherein the ophthalmic Lens Precursor comprises a first surface portion along the optical quality area and a second surface portion that is free-formed; wherein the transmission of actinic radiation is controlled by a processor in communication with a spatial light modulator apparatus. positioning a single substrate with an optical quality area in contact with a volume of reactive mixture ; and transmitting sufficient actinic radiation through the single substrate to polymerize a portion of the volume of reactive mixture and form the ophthalmic Lens Precursor wherein the ophthalmic Lens Precursor comprises a first surface portion along the optical quality area and a second surface portion that is free-formed; wherein the transmission of actinic radiation is controlled by a processor in communication with a spatial light modulator apparatus.
A smartphone, comprising: a housing , a touchscreen , a battery, antenna circuits, a wireless charging component, comprising a multilayer coil design comprising: a first coil layer of a printed circuit board (PCB) comprising a first coil trace; a plurality of vias coupled to the surface of the first coil trace; and a second coil layer of the PCB comprising a second coil trace and coupled to the vias , wherein the vias are positioned between the first coil layer and the second coil layer and enable substantially high current and low equivalent series resistance (ESR) for the multilayer PCB coil , and the smartphone further comprising one or more charging circuitry components integrated with the first coil layer and the second coil layer on the PCB , so that the smartphone has a thickness of less than one centimeter. a housing , a touchscreen , a battery, antenna circuits, a wireless charging component, comprising a multilayer coil design comprising: a first coil layer of a printed circuit board (PCB) comprising a first coil trace; a plurality of vias coupled to the surface of the first coil trace; and a second coil layer of the PCB comprising a second coil trace and coupled to the vias , a first coil layer of a printed circuit board (PCB) comprising a first coil trace; a plurality of vias coupled to the surface of the first coil trace; and a second coil layer of the PCB comprising a second coil trace and coupled to the vias , wherein the vias are positioned between the first coil layer and the second coil layer and enable substantially high current and low equivalent series resistance (ESR) for the multilayer PCB coil , and the smartphone further comprising one or more charging circuitry components integrated with the first coil layer and the second coil layer on the PCB , so that the smartphone has a thickness of less than one centimeter.
A resin infusion method comprising: (a) providing a curable resin composition in the form of a block of frozen resin ; (b) coupling the block of frozen resin to an inlet port of a heated extruder , which comprises at least one rotating screw housed within a heated barrel ; (c) progressively melting the block of frozen resin at the inlet port and concurrently feeding the melted resin through the heated barrel to produce a liquid resin having a viscosity suitable for resin infusion; (d) continuously feeding the liquid resin exiting from the extruder to a mold, which contains a fibrous preform; and (e) introducing the liquid resin into the fibrous preform, wherein the block of frozen resin provides an amount of resin composition sufficient for infusing the entire fibrous preform. (a) providing a curable resin composition in the form of a block of frozen resin ; (b) coupling the block of frozen resin to an inlet port of a heated extruder , which comprises at least one rotating screw housed within a heated barrel ; (c) progressively melting the block of frozen resin at the inlet port and concurrently feeding the melted resin through the heated barrel to produce a liquid resin having a viscosity suitable for resin infusion; (d) continuously feeding the liquid resin exiting from the extruder to a mold, which contains a fibrous preform; and (e) introducing the liquid resin into the fibrous preform,
Monodispersed lanthanide based upconverting microrods selected from β-NaYF 4 :Yb 3+ , Er 3+ and β-NaYF 4 :Yb 3+ , Tm 3+ , capped with organic ligand consisting of oleic acid, for making security tags and for sensing application, wherein the aspect ratio of said microrods β-NaYF 4 :Yb 3+ , Er 3+ is in the range of 6 to 12 and the aspect ratio of said microrods β-NaYF 4 :Yb 3+ , Tm 3+ is in the range of 3 to 7.
Apparatus for reconstructing a multi-view signal coded into a multi-view data stream, comprising a dependent-view reconstructor configured to derive, for at least one of blocks of a current picture in a dependent view of the multi-view signal, a list of motion vector predictor candidates by determining a disparity vector for the at least one block representing a disparity between the current picture of the dependent view and a current picture of a reference view of the multi-view signal at the at least one block of the current picture of the dependent view , via a depth map explicitly signaled within the multi-view signal in addition to motion and disparity vectors for a picture to which the depth map belongs; determining a block (50 R ) within the current picture of the reference view using the determined disparity vector; adding a motion vector to the list of motion vector predictor candidates which depends on a motion vector (52 R ) associated with the determined block of the current picture of the reference view; and extract, for the at least one block of the current picture of the dependent view , index information specifying one motion vector predictor candidate of the list of motion vector predictor candidates, from the multi-view data stream; and reconstruct the at least one block of the current picture of the dependent view by performing a motion-compensated prediction of the at least one block of the current picture of the dependent view using a motion vector which depends on the specified motion vector candidate, wherein the apparatus further comprises a reference-view reconstructor configured to reconstruct a depth map of the current picture of the reference view of the multi-view signal from a reference view depth-map portion of the multi-view data stream; and a depth estimator configured to estimate a depth map (34d2) of the current picture of the dependent view by warping the depth map of the current picture of the reference view into the dependent view , wherein the dependent-view reconstructor is configured to, in determining the disparity vector for the at least one block, subject the depth data estimate at the at least one block to depth-to-disparity conversion to obtain the determined disparity vector. determining a disparity vector for the at least one block representing a disparity between the current picture of the dependent view and a current picture of a reference view of the multi-view signal at the at least one block of the current picture of the dependent view , via a depth map explicitly signaled within the multi-view signal in addition to motion and disparity vectors for a picture to which the depth map belongs; determining a block (50 R ) within the current picture of the reference view using the determined disparity vector; adding a motion vector to the list of motion vector predictor candidates which depends on a motion vector (52 R ) associated with the determined block of the current picture of the reference view; and
A method for managing content of an electronic device , the method comprising: displaying a first user interface of a first program on a display of the electronic device; detecting a first input and, in response to the first input, displaying at a first position a first content captured from the first user interface and displaying at a second position a first application layer , wherein the first position is different from the second position; detecting a second input and, in response to the second input, moving the first content to the first application layer, wherein the display is a touch display, and the second input is a touch movement from the first position to the second position; after moving the first content to the first application layer, displaying a second user interface of a second program on the display; detecting a third input and, in response to the third input, displaying at a third position a second content captured from the second user interface and displaying at the second position the first application layer; detecting a fourth input and, in response to the fourth input, moving the second content to the first application layer; after moving the second content to the first application layer, displaying the first application layer with the first content and the second content arranged in a first layout; detecting whether a second layout is selected; and displaying the first application layer with the first content and the second content arranged in the second layout when the second layout is selected. displaying a first user interface of a first program on a display of the electronic device; detecting a first input and, in response to the first input, displaying at a first position a first content captured from the first user interface and displaying at a second position a first application layer , wherein the first position is different from the second position; detecting a second input and, in response to the second input, moving the first content to the first application layer, wherein the display is a touch display, and the second input is a touch movement from the first position to the second position; after moving the first content to the first application layer, displaying a second user interface of a second program on the display; detecting a third input and, in response to the third input, displaying at a third position a second content captured from the second user interface and displaying at the second position the first application layer; detecting a fourth input and, in response to the fourth input, moving the second content to the first application layer; after moving the second content to the first application layer, displaying the first application layer with the first content and the second content arranged in a first layout; detecting whether a second layout is selected; and displaying the first application layer with the first content and the second content arranged in the second layout when the second layout is selected.
A method for cell annotation, the method comprising: receiving at least one new cell image for cell detection; extracting cell features from the at least one new cell image; comparing the extracted cell features to a matrix of cell features of each class to predict a closest class, wherein the matrix of cell features has been generated from at least initial training data comprising at least one cell image; detecting cell pixels from the extracted cell features of the at least one new cell image using the predicted closest class to generate a likelihood map; extracting individual cells from the at least one new cell image by segmenting the individual cells from the likelihood map; performing a machine annotation on the extracted individual cells from the at least one new cell image to identify cell and non-cell pixels and cell boundaries; calculating a confidence level for the machine annotation on the extracted individual cells from the at least one new cell image; and modifying the machine annotation if the confidence level is below a predetermined threshold and the new cell image belongs to an unknown class, wherein the machine annotation is modified by manual intervention to correct machine labeled results. receiving at least one new cell image for cell detection; extracting cell features from the at least one new cell image; comparing the extracted cell features to a matrix of cell features of each class to predict a closest class, wherein the matrix of cell features has been generated from at least initial training data comprising at least one cell image; detecting cell pixels from the extracted cell features of the at least one new cell image using the predicted closest class to generate a likelihood map; extracting individual cells from the at least one new cell image by segmenting the individual cells from the likelihood map; performing a machine annotation on the extracted individual cells from the at least one new cell image to identify cell and non-cell pixels and cell boundaries; calculating a confidence level for the machine annotation on the extracted individual cells from the at least one new cell image; and modifying the machine annotation if the confidence level is below a predetermined threshold and the new cell image belongs to an unknown class, wherein the machine annotation is modified by manual intervention to correct machine labeled results.
A method performed by a terminal in a communication system, the method comprising: receiving, from a base station, a semi-persistent scheduling, SPS, configuration including an SPS configuration index; identifying a set of physical downlink shared channels, PDSCHs, including a PDSCH corresponding to the SPS configuration, wherein each PDSCH among the set of the PDSCHs is not overlapped with a symbol indicated as an uplink; in case that at least two PDSCHs among the set of the PDSCHs are overlapped in a slot: performing reception of a PDSCH with a lowest SPS configuration index, and performing exclusion of the received PDSCH and an overlapped PDSCH from the set of the PDSCHs, wherein the overlapped PDSCH is a PDSCH overlapped with the received PDSCH; and until the set of the PDSCHs is empty, performing the reception and performing the exclusion repeatedly. receiving, from a base station, a semi-persistent scheduling, SPS, configuration including an SPS configuration index; identifying a set of physical downlink shared channels, PDSCHs, including a PDSCH corresponding to the SPS configuration, wherein each PDSCH among the set of the PDSCHs is not overlapped with a symbol indicated as an uplink; in case that at least two PDSCHs among the set of the PDSCHs are overlapped in a slot: performing reception of a PDSCH with a lowest SPS configuration index, and performing exclusion of the received PDSCH and an overlapped PDSCH from the set of the PDSCHs, wherein the overlapped PDSCH is a PDSCH overlapped with the received PDSCH; and until the set of the PDSCHs is empty, performing the reception and performing the exclusion repeatedly. performing reception of a PDSCH with a lowest SPS configuration index, and performing exclusion of the received PDSCH and an overlapped PDSCH from the set of the PDSCHs, wherein the overlapped PDSCH is a PDSCH overlapped with the received PDSCH; and until the set of the PDSCHs is empty, performing the reception and performing the exclusion repeatedly.