mhurhangee/ep-ind-claims huggingface dataset:
A method of forming a layer over a substrate, the method comprising: receiving data identifying a desired thickness of the layer; using a processor to generate instructions for a printing mechanism to deposit droplets of ink onto the substrate according to the data, the ink carrying material to form the layer; wherein using the processor comprises identifying a density of ink to be applied to a unit area of the substrate which will produce blanket coverage of the unit area with the ink, identifying a resultant layer thickness produced by said density of ink following hardening of the ink to form the layer, scaling said density of ink according to desired thickness relative to the resultant layer thickness, and selecting a droplet pattern for the ink dependent on said scaled density; printing the ink according to said scaled density on to the substrate; and processing the printed ink to harden the material and thereby form the layer. receiving data identifying a desired thickness of the layer; using a processor to generate instructions for a printing mechanism to deposit droplets of ink onto the substrate according to the data, the ink carrying material to form the layer; wherein using the processor comprises identifying a density of ink to be applied to a unit area of the substrate which will produce blanket coverage of the unit area with the ink, identifying a resultant layer thickness produced by said density of ink following hardening of the ink to form the layer, scaling said density of ink according to desired thickness relative to the resultant layer thickness, and selecting a droplet pattern for the ink dependent on said scaled density; printing the ink according to said scaled density on to the substrate; and processing the printed ink to harden the material and thereby form the layer.
Burner assembly for a gas turbine plant, the burner assembly (9; 39; 59; 79; 109) extending along a longitudinal axis and comprising: a main burner configured to supply an air-fuel mixture and to define a main combustion zone; an auxiliary burner (11; 41; 61; 81; 111) configured to cause a flameless combustion process in an auxiliary combustion zone (19; 47; 69; 100; 127) and to supply the main combustion zone with fumes produced by the flameless combustion process in the auxiliary combustion zone (19; 47; 69; 100; 127); wherein the auxiliary combustion zone (19; 47; 69; 100; 127) is arranged upstream the main combustion zone along an air supplying direction; the burner assembly being characterized by the fact that the auxiliary burner (11; 41; 61; 81; 111) comprises a flow guiding device (23; 45; 65; 85; 115) configured to cause at least a recirculation area (30, 31; 54; 70; 101; 128) of the fumes produced by the flameless combustion process in the auxiliary combustion zone (19; 47; 69; 100; 127). a main burner configured to supply an air-fuel mixture and to define a main combustion zone; an auxiliary burner (11; 41; 61; 81; 111) configured to cause a flameless combustion process in an auxiliary combustion zone (19; 47; 69; 100; 127) and to supply the main combustion zone with fumes produced by the flameless combustion process in the auxiliary combustion zone (19; 47; 69; 100; 127); wherein the auxiliary combustion zone (19; 47; 69; 100; 127) is arranged upstream the main combustion zone along an air supplying direction; the burner assembly being characterized by the fact that the auxiliary burner (11; 41; 61; 81; 111) comprises a flow guiding device (23; 45; 65; 85; 115) configured to cause at least a recirculation area (30, 31; 54; 70; 101; 128) of the fumes produced by the flameless combustion process in the auxiliary combustion zone (19; 47; 69; 100; 127).
A routing selection method, comprising: receiving, by an access network device from a serving core network device, a route reassignment message to reroute communication from an initial core network device to the serving core network device, wherein the route reassignment message comprises: an access and mobility management function, AMF, name of the initial core network device; a context identifier assigned for a terminal by the access network device; a context identifier assigned for the terminal at the serving core network device; and an allowed Network Slice Selection Assistance Information, NSSAI; and updating, by the access network device, routing information of the terminal according to the route reassignment message. an access and mobility management function, AMF, name of the initial core network device; a context identifier assigned for a terminal by the access network device; a context identifier assigned for the terminal at the serving core network device; and an allowed Network Slice Selection Assistance Information, NSSAI; and updating, by the access network device, routing information of the terminal according to the route reassignment message.
A communications method, wherein a terminal device is a device-to-device, D2D, device, the terminal device belongs to multiple communications groups, each communications group corresponding to at least one logical channel group, and the method comprises the following steps: determining, by the terminal device, identification information of at least two currently-enabled communications groups; generating, by the terminal device, information about an amount of to-be-transmitted data, wherein the information about an amount of to-be-transmitted data comprises identification information of each of the currently-enabled communications groups, and a buffer status report of a logical channel group corresponding to the currently-enabled communications groups, and the amount of the to-be-transmitted data is an amount of data to be transmitted between the terminal device and another D2D device in the currently-enabled communications groups; sending, by the terminal device, the information about the amount of the to-be-transmitted data to a base station; wherein the identification information of the communications groups is a proximity service, ProSe, group index. determining, by the terminal device, identification information of at least two currently-enabled communications groups; generating, by the terminal device, information about an amount of to-be-transmitted data, wherein the information about an amount of to-be-transmitted data comprises identification information of each of the currently-enabled communications groups, and a buffer status report of a logical channel group corresponding to the currently-enabled communications groups, and the amount of the to-be-transmitted data is an amount of data to be transmitted between the terminal device and another D2D device in the currently-enabled communications groups; sending, by the terminal device, the information about the amount of the to-be-transmitted data to a base station; wherein the identification information of the communications groups is a proximity service, ProSe, group index.
Vehicle structure front portion, the front portion comprising: a support; and a junction comprising: a first zone fixed to the support, a second zone intended to maintain a vehicle front wing, and a first branch connecting the first zone to the second zone; the support being adapted to be deformed at the level of the first zone at the time of a front impact against the vehicle; said junction further comprising a second branch connecting the first zone to the second zone, and which is offset from the first branch inside the first zone, said front portion being characterised in that the junction comprises a scallop separating the branches and extending beyond the support. a support; and a junction comprising: a first zone fixed to the support, a second zone intended to maintain a vehicle front wing, and a first branch connecting the first zone to the second zone; the support being adapted to be deformed at the level of the first zone at the time of a front impact against the vehicle; said junction further comprising a second branch connecting the first zone to the second zone, and which is offset from the first branch inside the first zone, said front portion being characterised in that the junction comprises a scallop separating the branches and extending beyond the support. a first zone fixed to the support, a second zone intended to maintain a vehicle front wing, and a first branch connecting the first zone to the second zone; the support being adapted to be deformed at the level of the first zone at the time of a front impact against the vehicle; said junction further comprising a second branch connecting the first zone to the second zone, and which is offset from the first branch inside the first zone, said front portion being characterised in that the junction comprises a scallop separating the branches and extending beyond the support.
An obscured feature detector comprising: a plurality of sensor plates, each having a capacitance that varies based on: (a) the proximity of the sensor plate to one or more surrounding objects, and (b) the dielectric constant(s) of the surrounding object(s); a sensing circuit coupled to the sensor plates, the sensing circuit being configured to measure the capacitances of the sensor plates; a controller coupled to the sensing circuit, the controller being configured to analyze the capacitances measured by the sensing circuit; and a plurality of indicators coupled to the controller, each indicator capable of toggling between a deactivated state and an activated state, characterized in that the controller is configured to activate one or more of the indicators to identify a location of an obscured feature such that indicators that are in front of an obscured feature are activated while indicators that are not in front of an obscured feature are not activated. a plurality of sensor plates, each having a capacitance that varies based on: (a) the proximity of the sensor plate to one or more surrounding objects, and (b) the dielectric constant(s) of the surrounding object(s); a sensing circuit coupled to the sensor plates, the sensing circuit being configured to measure the capacitances of the sensor plates; a controller coupled to the sensing circuit, the controller being configured to analyze the capacitances measured by the sensing circuit; and a plurality of indicators coupled to the controller, each indicator capable of toggling between a deactivated state and an activated state, characterized in that the controller is configured to activate one or more of the indicators to identify a location of an obscured feature such that indicators that are in front of an obscured feature are activated while indicators that are not in front of an obscured feature are not activated.
A device for lifting loads, which is attached or can be attached to a piece of equipment, having a frame, a first and a second load lifting element (14, 16), whereby the load lifting elements (14, 16) are guided on the frame so as to move along a rectilinear guide direction, a first and a second drive unit (24, 26) that are installed on the frame and arranged one above the other, whereby each drive unit (24, 26) has a drive element (28, 29) and is configured to move the drive elements (28, 29) relative to the frame independently of each other, simultaneously or consecutively in two opposing directions or in the same direction parallel to a rectilinear guide direction, whereby it is also possible for only one drive element to be moved, while the other one is standing still, whereby at least a first pair of deflection means is stationary installed on the drive element of the first drive unit, and whereby at least a second pair of deflection means is stationary installed on the drive element of the first drive unit, and whereby the two deflection means (33, 33') of each pair of deflection means (32, 34) are at a distance from each other in the guide direction, characterized in that, for each of the deflection means (33, 33') of a pair of deflection means (32, 34), there is a force transmission means (35, 35') that has a first attachment section and a second attachment section, whereby each force transmission means (35, 35') of the first pair of deflection means and of the second pair of deflection means is attached via the first attachment section to a prescribed area of the frame, whereby each force transmission means (35, 35') of the first pair of deflection means is attached via the second attachment section to the first load lifting element, whereby each force transmission means (35, 35') of the second pair of deflection means is attached via the second attachment section to the second load lifting element, and whereby each deflection means (33, 33') of a pair of deflection means (32, 34) is engaged between the first attachment section and the second attachment section to the appertaining force transmission means (35, 35'), and whereby a movement of the drive element of the first drive unit brought about by the activation of the first drive unit can be converted via the deflection means (33, 33') of the first pair of deflection means and via the force transmission means (35, 35') provided for the first pair of deflection means into a movement of the first load lifting element in the same direction, and whereby a movement of the drive element of the second drive unit brought about by the activation of the second drive unit can be converted via the deflection means (33, 33') of the second pair of deflection means and via the force transmission means (35, 35') provided for the second pair of deflection means into a movement of the second load lifting element in the same direction.
An image processing apparatus comprising: first obtaining means for obtaining examination information; readout means for reading out learning result data selected based on the examination information from storage means for storing at least one piece of learning result data that has been obtained by machine learning in advance; second obtaining means for obtaining a medical image obtained based on the examination information obtained by the first obtaining means; and processing means for processing the medical image obtained by the second obtaining means using learning result data read out by the readout means. first obtaining means for obtaining examination information; readout means for reading out learning result data selected based on the examination information from storage means for storing at least one piece of learning result data that has been obtained by machine learning in advance; second obtaining means for obtaining a medical image obtained based on the examination information obtained by the first obtaining means; and processing means for processing the medical image obtained by the second obtaining means using learning result data read out by the readout means.
An assaying kit for testing pre-transfusion blood group matching between two blood samples, said kit comprising at least two assemblies (101,201) corresponding to a first and a second blood sample, each assembly comprising at least two test units, each test unit comprising: - a reagent containing an antibody able to bind to an antigen present on erythrocytes, and - a membrane (2,102,202) permeable to free erythrocytes and impermeable to hemagglutinated erythrocytes, wherein the antibody contained in the first test unit for both the first assembly and the second assembly is corresponding to a first blood group and the antibody contained in the second test units for both the first assembly and the second assembly is corresponding to a second blood group characterized in that each test unit comprises a first cavity (9, 109a, 109b, 209a,209b) for receiving the reagent and the biological sample and a second cavity (10,110a,110b, 210a,210b) for receiving the filtrate (6 or 8), the first and second cavity being separated by the membrane (2, 102,202), the first assembly corresponding to a donor and the second assembly corresponding to a recipient comprises means to avoid any confusion between them, each assembly comprising means for receiving a blood sample and distributing said blood sample between the test units of each assembly and the means for receiving the blood sample of the assembly corresponding to the first blood sample further comprises means for taking a blood sample from a blood bag, said means being not adapted to receive a sample directly sampled from an individual. - a reagent containing an antibody able to bind to an antigen present on erythrocytes, and - a membrane (2,102,202) permeable to free erythrocytes and impermeable to hemagglutinated erythrocytes,
A photosensitive resin composition comprising hydrophobic polymers obtained from at least two or more water dispersion latexes, a photopolymerizable compound, a photopolymerization initiator, and a hydrophilic polymer, wherein said two or more hydrophobic polymers each is present in a fine particle state, and wherein the particle diameter distribution of the fine particles as the component has two or more peaks and the ratio of respective particle diameters at the peaks is 2 times or more, and wherein at least one hydrophobic polymer out of the component and the hydrophilic polymer as the component have a common skeleton structure.
A rail vehicle comprising a chassis having a longitudinal axis X extending between first and second side walls and comprising at least a first group of low maintenance equipment modules and at least a second group of high maintenance equipment modules, the rail vehicle comprising at least one gangway having a longitudinal axis in the direction X; characterised in that the first group of equipment modules extends along at least part of the first side wall or the second side wall, the gangway extends along at least part of the first side wall or the second side wall and the second group of equipment modules extends between the first group of equipment modules and the gangway, against said first group of equipment modules.
An LED beacon comprising: a housing having a lens mounting portion formed on one side surface thereof; an LED module mounted inside the housing so as to collect the light emitted therefrom and output the collected light toward the upper side of the housing; a reflection part located over the LED module so as to reflect the light emitted from the LED module in such a manner as to allow the path of the light to be changed to a horizontal direction of the housing; a light-collecting lens mounted on the lens mounting portion of the housing so as to collect the light reflected from the reflection part in such a manner as to form a given light distribution pattern; a motor disposed at the interior of the housing so as to provide a driving force in such a manner as to allow the housing, the reflection part, and the light-collecting lens to rotate in a given direction; and a rotation support part located under the housing so as to support the rotation of the motor. a housing having a lens mounting portion formed on one side surface thereof; an LED module mounted inside the housing so as to collect the light emitted therefrom and output the collected light toward the upper side of the housing; a reflection part located over the LED module so as to reflect the light emitted from the LED module in such a manner as to allow the path of the light to be changed to a horizontal direction of the housing; a light-collecting lens mounted on the lens mounting portion of the housing so as to collect the light reflected from the reflection part in such a manner as to form a given light distribution pattern; a motor disposed at the interior of the housing so as to provide a driving force in such a manner as to allow the housing, the reflection part, and the light-collecting lens to rotate in a given direction; and a rotation support part located under the housing so as to support the rotation of the motor.
A method for a handover of a user equipment "UE" from a serving base station to a target base station, the method performed by the target base station applying dynamic beam steering and comprising: receiving a measurement report generating, based at least in part on the measurement report, a first message comprising access parameters for each of a plurality of dynamic directional wireless communication links between the UE and the target base station; and transmitting the first message to the UE via the serving base station. receiving a measurement report generating, based at least in part on the measurement report, a first message comprising access parameters for each of a plurality of dynamic directional wireless communication links between the UE and the target base station; and transmitting the first message to the UE via the serving base station.
A solar panel with a non-powered cooling panel comprising: a vertical cell panel provided with solar cells for converting sunlight into electric energy; and a cooling panel installed to be in direct or indirect contact with a back surface of the cell panel, for transfer of heat, the cooling panel being provided with cooling air channels formed in the cooling panel, to be vertically elongated, while communicating with ambient air at upper and lower ends of the cooling air channel, and the cooling panel is provided with a first refrigerant receiving chamber and a second refrigerant receiving chamber, which are partitioned from the cooling air channel while receiving refrigerant; wherein the first and second refrigerant receiving chambers (131, 132) are disposed at opposite sides of the cooling panel, the first refrigerant chamber is directed to the cell panel, and the cooling air channels are interposed between the first and second refrigerant receiving chambers (131, 132), the first refrigerant receiving chamber and the second refrigerant receiving chamber are connected via a first tube for movement of evaporated refrigerant and a second tube for movement of condensed refrigerant such that heat of a high temperature region in the cooling panel is transferred to a low temperature region in the cooling panel in accordance with circulation and phase change of the refrigerant between the first refrigerant receiving chamber and the second refrigerant receiving chamber. a vertical cell panel provided with solar cells for converting sunlight into electric energy; and a cooling panel installed to be in direct or indirect contact with a back surface of the cell panel, for transfer of heat, the cooling panel being provided with cooling air channels formed in the cooling panel, to be vertically elongated, while communicating with ambient air at upper and lower ends of the cooling air channel, and