mhurhangee/ep-ind-claims huggingface dataset:
A movable contact part, comprising: a movable contact which is in contact with or spaced apart from a fixed contact, an upper yoke which is located on one side of the movable contact, surrounds a portion of the movable contact and forms a magnetic force; and a lower yoke which is located on the other side of the movable contact, supports the movable contact and forms a magnetic force, wherein the upper yoke comprises: a cover part which is formed in a plate shape having a predetermined thickness and surrounds one side of the movable contact; and an arm part which is continuous with the cover part, surrounds the other side of the movable contact characterized in that the arm part is formed to have a thickness smaller than the thickness of the cover part. a movable contact which is in contact with or spaced apart from a fixed contact, an upper yoke which is located on one side of the movable contact, surrounds a portion of the movable contact and forms a magnetic force; and a lower yoke which is located on the other side of the movable contact, supports the movable contact and forms a magnetic force, wherein the upper yoke comprises: a cover part which is formed in a plate shape having a predetermined thickness and surrounds one side of the movable contact; and an arm part which is continuous with the cover part, surrounds the other side of the movable contact characterized in that the arm part is formed to have a thickness smaller than the thickness of the cover part. a cover part which is formed in a plate shape having a predetermined thickness and surrounds one side of the movable contact; and an arm part which is continuous with the cover part, surrounds the other side of the movable contact characterized in that the arm part is formed to have a thickness smaller than the thickness of the cover part.
A method of producing an information code by an information code producing apparatus, cells being arranged inside a predetermined code region of a medium, each of the cells functioning as a unit of information, characterized in that: the method comprising: arranging, in the code region, i) a specification pattern region in which predetermined-shape specification patterns are arranged, the specification patterns including patterns indicating a position of the code area, and ii) a data recording region in which data to be decoded are recorded using a plurality of types of the cells; arranging, inside the code region, a canvas area at a position located outside both the specification pattern region and the data recording region, the canvas area having a size larger in area than a single cell of the cells, the canvas area having no data being interpreted based on the cells, configuring, in the canvas area which is present in the code region, an image region to which a predetermined image recognition process is applied by an image information code reader, the image region being indicated by identification indication located in the canvas area; and recording, into the data recording region, identification information showing, at least, presence of the image region in the canvas area, the image region being recognized as an image by the information code reader. arranging, in the code region, i) a specification pattern region in which predetermined-shape specification patterns are arranged, the specification patterns including patterns indicating a position of the code area, and ii) a data recording region in which data to be decoded are recorded using a plurality of types of the cells; arranging, inside the code region, a canvas area at a position located outside both the specification pattern region and the data recording region, the canvas area having a size larger in area than a single cell of the cells, the canvas area having no data being interpreted based on the cells, configuring, in the canvas area which is present in the code region, an image region to which a predetermined image recognition process is applied by an image information code reader, the image region being indicated by identification indication located in the canvas area; and recording, into the data recording region, identification information showing, at least, presence of the image region in the canvas area, the image region being recognized as an image by the information code reader.
A monitoring device for monitoring a status of fruits, the monitoring device comprising: a flexible strip configured to be introduced into a cluster of fruits allowing the flexible strip being embedded in the cluster, the flexible strip comprising a plurality of spatially separated sensing nodes, wherein each of the plurality of sensing nodes comprises a sensing node light source configured to emit light and a sensing node light detector configured to detect light, a read out circuitry configured to read out data pertaining to the detected light detected at each of the plurality of sensing nodes, a body comprising a wireless communication module configured to transmit the data pertaining to the detected light, wherein the flexible strip is attached to the body. a flexible strip configured to be introduced into a cluster of fruits allowing the flexible strip being embedded in the cluster, the flexible strip comprising a plurality of spatially separated sensing nodes, wherein each of the plurality of sensing nodes comprises a sensing node light source configured to emit light and a sensing node light detector configured to detect light, a read out circuitry configured to read out data pertaining to the detected light detected at each of the plurality of sensing nodes, a body comprising a wireless communication module configured to transmit the data pertaining to the detected light, wherein the flexible strip is attached to the body.
A mobile terminal, wherein the mobile terminal comprises: a frame body comprising a middle frame; a touch screen provided on a front surface of the frame body and attached onto the middle frame; a touch integrated circuit connected with the touch screen; and a processor connected with the touch integrated circuit; characterized in that at least one exposure opening for additional electronic devices is provided in the touch screen, the at least one exposure opening being in nonintersection with an edge of the touch screen; and wherein: the touch screen covers the whole of the front surface of the frame body and the at least one exposure opening includes non-through holes with light permeability or sound permeability. a frame body comprising a middle frame; a touch screen provided on a front surface of the frame body and attached onto the middle frame; a touch integrated circuit connected with the touch screen; and a processor connected with the touch integrated circuit; characterized in that at least one exposure opening for additional electronic devices is provided in the touch screen, the at least one exposure opening being in nonintersection with an edge of the touch screen; and wherein: the touch screen covers the whole of the front surface of the frame body and the at least one exposure opening includes non-through holes with light permeability or sound permeability.
A composition for use in tendon repair, or in alleviating inflammation in a joint of a subject, said composition comprising a suspension of micronized particles, said particles comprising a dehydrated amnion layer and a dehydrated chorion layer, wherein the composition is formulated into a liquid or gel, and wherein the epithelium layer of the dehydrated amnion layer has been substantially removed.
A fuel cell (10, 20) comprising; an anode, a cathode (14, 14') including a perovskite type oxide, the perovskite type oxide being expressed by the general formula ABO 3 and including at least one of La and Sr at the A site, and a solid electrolyte layer being disposed between the anode and the cathode (14, 14'), the cathode (14, 14') including a solid electrolyte layer-side region within 3 micrometers from a surface near to the solid electrolyte layer, the solid electrolyte layer-side region including a main phase comprising the perovskite type oxide, and a secondary phase comprising (Co,Fe) 3 O 4, characterized in that an occupied area ratio of the secondary phase in a cross section of the solid electrolyte layer-side region being no more than 9.5%, wherein. the occupied area ratio of the secondary phase in the cross section of the solid electrolyte layer-side region is the proportion of the total surface area of the secondary phase relative to the total surface area of the cross section of the solid electrolyte layer-side region. an anode, a cathode (14, 14') including a perovskite type oxide, the perovskite type oxide being expressed by the general formula ABO 3 and including at least one of La and Sr at the A site, and a solid electrolyte layer being disposed between the anode and the cathode (14, 14'), the cathode (14, 14') including a solid electrolyte layer-side region within 3 micrometers from a surface near to the solid electrolyte layer, the solid electrolyte layer-side region including a main phase comprising the perovskite type oxide, and a secondary phase comprising (Co,Fe) 3 O 4, characterized in that an occupied area ratio of the secondary phase in a cross section of the solid electrolyte layer-side region being no more than 9.5%, wherein. the occupied area ratio of the secondary phase in the cross section of the solid electrolyte layer-side region is the proportion of the total surface area of the secondary phase relative to the total surface area of the cross section of the solid electrolyte layer-side region.
An apparatus for acquiring an access point name for an Internet protocol application employing a local Internet protocol local breakout service, comprising: a user management subsystem configured to initiate the Internet protocol application; a local breakout service monitoring subsystem configured to monitor availability of the local Internet protocol local breakout service and to obtain the access point name from said local Internet protocol local breakout service when said local Internet protocol local breakout service is available; and an access point name selection control subsystem configured to bind said access point name to said Internet protocol application. a user management subsystem configured to initiate the Internet protocol application; a local breakout service monitoring subsystem configured to monitor availability of the local Internet protocol local breakout service and to obtain the access point name from said local Internet protocol local breakout service when said local Internet protocol local breakout service is available; and an access point name selection control subsystem configured to bind said access point name to said Internet protocol application.
A method of estimating the mass of material in a stockpile, the method including: obtaining an upper surface profile of said stockpile; the method being characterised by: defining a plurality of layers in the stockpile based on the upper surface profile, wherein each layer is defined to extend parallel to the upper surface profile, and estimating the volume of each defined layer; obtaining density characteristics of the stockpile material; estimating the density of each defined layer according to the density characteristics of the stockpile material; and calculating, using the estimated volume and estimated density of each defined layer, the mass of the stockpile. obtaining an upper surface profile of said stockpile; the method being characterised by: defining a plurality of layers in the stockpile based on the upper surface profile, wherein each layer is defined to extend parallel to the upper surface profile, and estimating the volume of each defined layer; obtaining density characteristics of the stockpile material; estimating the density of each defined layer according to the density characteristics of the stockpile material; and calculating, using the estimated volume and estimated density of each defined layer, the mass of the stockpile. defining a plurality of layers in the stockpile based on the upper surface profile, wherein each layer is defined to extend parallel to the upper surface profile, and estimating the volume of each defined layer; obtaining density characteristics of the stockpile material; estimating the density of each defined layer according to the density characteristics of the stockpile material; and calculating, using the estimated volume and estimated density of each defined layer, the mass of the stockpile.
Box body for a commercial vehicle, in particular a heavy goods vehicle, trailer or semi-trailer, having an end wall delimiting a loading space at the front and having at least one side wall (4, 5) laterally delimiting the loading space, wherein a transport refrigerator is provided on the end wall to cool the loading space, wherein the transport refrigerator has at least one inlet opening for air to be cooled and at least one outlet opening for blowing out cool air, wherein a circulation wall spaced apart from the end wall in the direction of the loading space and defining an approach plane is provided, wherein between the end wall and the approach plane is formed at least one central air conducting channel extending at least predominately in the vertical direction (Rv) for conducting the air to be cooled from the loading space to the at least one inlet opening and wherein between the end wall and the approach plane as well as between the at least one side wall (4, 5) and at least one boundary extending at least predominately in the vertical direction (Rv) is formed at least one lateral air channel (22, 23) extending at least predominately in the vertical direction (Rv), characterised in that the cross-section of the at least one lateral air channel (22, 23) is sealed at least predominately by at least one short-circuit locking device.
A method of forming a biofilm, wherein the biofilm comprises a population of at least one bacterial strain attached to particles, the method comprising: (a) obtaining a population comprising at least one strain of bacteria; (b) inoculating a growth medium containing particles with the population comprising at least one strain of bacteria; (c) incubating the particles with the population of at least one bacterial strain for a time sufficient for the population of at least one strain of bacteria to attach to the particles; and (d) culturing the population of at least one strain of bacteria attached to the particles in a growth medium, for a time sufficient to form a biofilm, wherein the population of at least one strain of bacteria attached to the particles is cultured under anaerobic conditions, and wherein said biofilm is configured to colonize a gut of a subject in need thereof for at least five days, when ingested by the subject. (a) obtaining a population comprising at least one strain of bacteria; (b) inoculating a growth medium containing particles with the population comprising at least one strain of bacteria; (c) incubating the particles with the population of at least one bacterial strain for a time sufficient for the population of at least one strain of bacteria to attach to the particles; and (d) culturing the population of at least one strain of bacteria attached to the particles in a growth medium, for a time sufficient to form a biofilm, wherein the population of at least one strain of bacteria attached to the particles is cultured under anaerobic conditions, and wherein said biofilm is configured to colonize a gut of a subject in need thereof for at least five days, when ingested by the subject. wherein the population of at least one strain of bacteria attached to the particles is cultured under anaerobic conditions, and wherein said biofilm is configured to colonize a gut of a subject in need thereof for at least five days, when ingested by the subject.
An apparatus for denoising an image, the apparatus having a processor and an imaging device having an image sensor, the image sensor capturing an input image, the processor being configured to: • receive the input image, • implement a trained artificial intelligence model to form an estimate of a first noise pattern in the input image and form an output image by subtracting the estimate of the first noise pattern from the input image, the model being configured to: ∘ form estimates of noise patterns in the input image, wherein each noise pattern among the noise patterns in the input image is characteristic to a different type of image sensor among a plurality of types of image sensors, the plurality of types of image sensors comprising a specific image sensor type, and ∘ form the estimate of the first noise pattern characteristic to the specific image sensor type by means of a projection onto a trained noise manifold; and the apparatus is further configured to: • receive an indication of the specific image sensor type of the image sensor that captured the input image, and • provide that indication as an input to the model, and the model is configured to generate the estimate of the first noise pattern in dependence on the indication. • receive the input image, • implement a trained artificial intelligence model to form an estimate of a first noise pattern in the input image and form an output image by subtracting the estimate of the first noise pattern from the input image, the model being configured to: ∘ form estimates of noise patterns in the input image, wherein each noise pattern among the noise patterns in the input image is characteristic to a different type of image sensor among a plurality of types of image sensors, the plurality of types of image sensors comprising a specific image sensor type, and ∘ form the estimate of the first noise pattern characteristic to the specific image sensor type by means of a projection onto a trained noise manifold; and ∘ form estimates of noise patterns in the input image, wherein each noise pattern among the noise patterns in the input image is characteristic to a different type of image sensor among a plurality of types of image sensors, the plurality of types of image sensors comprising a specific image sensor type, and ∘ form the estimate of the first noise pattern characteristic to the specific image sensor type by means of a projection onto a trained noise manifold; and • receive an indication of the specific image sensor type of the image sensor that captured the input image, and • provide that indication as an input to the model, and the model is configured to generate the estimate of the first noise pattern in dependence on the indication.
Sensor system, comprising a sensor providing a sensor signal (u(t), RH sensor) representative of a measure other than temperature, dynamic components of the sensor signal (u(t), RH sensor) being dependent on temperature, a temperature sensor for providing a temperature signal, a compensation filter receiving the sensor signal (u(t), RH sensor) and the temperature signal, characterised in that the compensation filter is designed for adjusting the dynamic components in the sensor signal (u(t), RH sensor) subject to the temperature signal, and for providing a compensated sensor signal (y(t), RH compensated) wherein the compensation filter is modelled based on an inverse of a transfer function (G(s)) of a model of the sensor, and temperature dependent terms are applied to the compensation filter.
An electrolysis cell, particularly for the production of aluminum, which comprises a cathode, a layer of liquid aluminum arranged on the upper side of the cathode, a melt layer thereon and an anode on the top of the melt layer, wherein the cathode is composed of at least two cathode blocks (10, 10A-E(',","')), wherein at least one of the at least two cathode blocks (10, 10A-E(',",'")) differs from at least one of the other cathode block(s) (10, 10A-E(',",'")) with regard to at least one of the average compressive strength by at least 25 % and the apparent density by at least 2%.
A method for calibrating agricultural measurements comprising: obtaining aerial data representing relative measurements of an agricultural metric in a geographic area, the relative measurements having an unknown bias; obtaining ground-based data representing absolute measurements of the agricultural metric within the geographic area; and, using the absolute measurements to calibrate the relative measurements, thereby synthesizing absolute measurements of the agricultural metric in parts of the geographic area; characterised by said synthesizing absolute measurements including using a plant growth model (620; 640) to propagate ground-based data (605, 610; 625, 635) forward or backward in time as needed to compare it with non-contemporaneous aerial data (614; 628). obtaining aerial data representing relative measurements of an agricultural metric in a geographic area, the relative measurements having an unknown bias; obtaining ground-based data representing absolute measurements of the agricultural metric within the geographic area; and, using the absolute measurements to calibrate the relative measurements, thereby synthesizing absolute measurements of the agricultural metric in parts of the geographic area; characterised by said synthesizing absolute measurements including using a plant growth model (620; 640) to propagate ground-based data (605, 610; 625, 635) forward or backward in time as needed to compare it with non-contemporaneous aerial data (614; 628).
An oral care implement, comprising: a head having a surface from which a cleaning element extends, the cleaning element having a distal end furthest from the surface of the head; and a handle comprising a body connected to the head and a grip structure connected to the body and forming at least a portion of an exterior surface of the handle; wherein the grip structure is rotatable relative to the head and the body about an axis that passes through the cleaning element at a point on the cleaning element between the surface of the head and the distal end of the cleaning element, characterised in that the grip structure comprises a first piece constructed of resilient material and a second piece constructed of hard or rigid material, and wherein the grip structure is connected to the body by way of the second piece of the grip structure being connected to the body, the first piece of the grip structure not being directly connected to the body. a head having a surface from which a cleaning element extends, the cleaning element having a distal end furthest from the surface of the head; and a handle comprising a body connected to the head and a grip structure connected to the body and forming at least a portion of an exterior surface of the handle; wherein the grip structure is rotatable relative to the head and the body about an axis that passes through the cleaning element at a point on the cleaning element between the surface of the head and the distal end of the cleaning element, characterised in that the grip structure comprises a first piece constructed of resilient material and a second piece constructed of hard or rigid material, and wherein the grip structure is connected to the body by way of the second piece of the grip structure being connected to the body, the first piece of the grip structure not being directly connected to the body. a handle comprising a body connected to the head and a grip structure connected to the body and forming at least a portion of an exterior surface of the handle; wherein the grip structure is rotatable relative to the head and the body about an axis that passes through the cleaning element at a point on the cleaning element between the surface of the head and the distal end of the cleaning element, characterised in that the grip structure comprises a first piece constructed of resilient material and a second piece constructed of hard or rigid material, and wherein the grip structure is connected to the body by way of the second piece of the grip structure being connected to the body, the first piece of the grip structure not being directly connected to the body.