mhurhangee/ep-ind-claims huggingface dataset:
Determination procedure of the luminance of traffic signs, while circulating on a road with a vehicle, comprising the following stages: a) Obtaining a sequence of two images of at least one traffic sign with different illumination levels, one with a base illumination, an ambient illumination and an additional illumination, and the other with the base illumination and the ambient illumination, wherein - both the base illumination and the additional illumination are mounted on the vehicle, - the illumination conditions of the additional illumination are known and controlled in terms of form and intensity, and - the time interval between the two images is determined by a synchronism system, so that the capture of the two images occurs at the same point of the wave of the supply voltage from the electric grid; b) Extracting the region where each sign is on each of the images; c) Calculating the luminance values of each sign respectively due to the two illumination levels; d) Obtaining the difference between the luminance values of the sign corresponding to the two illumination levels; so that the differential luminance obtained in step (d) is the luminance corresponding only to the additional illumination. a) Obtaining a sequence of two images of at least one traffic sign with different illumination levels, one with a base illumination, an ambient illumination and an additional illumination, and the other with the base illumination and the ambient illumination, wherein - both the base illumination and the additional illumination are mounted on the vehicle, - the illumination conditions of the additional illumination are known and controlled in terms of form and intensity, and - the time interval between the two images is determined by a synchronism system, so that the capture of the two images occurs at the same point of the wave of the supply voltage from the electric grid; - both the base illumination and the additional illumination are mounted on the vehicle, - the illumination conditions of the additional illumination are known and controlled in terms of form and intensity, and - the time interval between the two images is determined by a synchronism system, so that the capture of the two images occurs at the same point of the wave of the supply voltage from the electric grid; b) Extracting the region where each sign is on each of the images; c) Calculating the luminance values of each sign respectively due to the two illumination levels; d) Obtaining the difference between the luminance values of the sign corresponding to the two illumination levels;
Rotor (1, 1a) of a motor or of a radial flow electromagnetic generator having at least one cylindrical support housing a plurality of single magnets, said at least one support including a cylindrical meshwork having meshes each delimiting a housing for a respective single magnet, said meshwork being made of fibre-reinforced insulating material, each housing having inner dimensions just sufficient to enable an introduction of a single magnet therein, characterised in that a space is left between the housing and the single magnet by being filled by a fibre-reinforced resin, the rotor including a non-conductive composite layer coating the single magnets and the meshwork.
An automated low-temperature storage for storing laboratory samples, said storage comprising a storage zone arranged for storing the samples and being maintained at a first temperature below -20°C, a handling zone arranged above said storage zone and being maintained at a second temperature above said first temperature, an automated transport device being arranged at least partially in said handling zone and adapted and structured to access said samples in said storage zone, said storage being characterized by a plurality of carriers extending from above into said storage zone, wherein each carrier comprises a vertical mounting plate, a plurality of storage racks for receiving said samples, wherein each mounting plate carries several storage racks, with the storage racks being hooked into the mounting plate.
A cubicle shed with a plurality of cubicles which can be filled, and in particular are filled, with litter material, as well as a cubicle monitoring system which is configured to monitor a plurality of cubicles for livestock animals in a livestock pen, and which is provided with - an aircraft which is autonomously movable along the cubicles, in particular a Zeppelin or drone, which is provided with a sensor device for observing the contents of the cubicles, - a control unit, in particular provided on the aircraft, for moving the aircraft at least along a subset of the cubicles, and - a processing device which is operatively connected to the sensor device, and preferably also to the control unit for receiving the observation and for processing the observation in order to generate information about a cubicle content status comprising information about an amount and/or distribution and/or quality of the contents of the cubicles, characterized in that - the processing device furthermore comprises reference information as well as at least one comparison criterion, wherein the processing device is configured to compare the information generated with the reference information, and to trigger an alarm signal if the result of the comparison meets at least one of the one or more comparison criteria, - and furthermore comprising a cubicle treatment vehicle, which is preferably autonomously movable under the control of the control unit, and comprises at least one of: - a litter material cleaning device, - a litter material dispensing device, and - a litter material redistribution device, - wherein the cubicle treatment vehicle is controllable based on the alarm signal. - an aircraft which is autonomously movable along the cubicles, in particular a Zeppelin or drone, which is provided with a sensor device for observing the contents of the cubicles, - a control unit, in particular provided on the aircraft, for moving the aircraft at least along a subset of the cubicles, and - a processing device which is operatively connected to the sensor device, and preferably also to the control unit for receiving the observation and for processing the observation in order to generate information about a cubicle content status comprising information about an amount and/or distribution and/or quality of the contents of the cubicles, characterized in that - the processing device furthermore comprises reference information as well as at least one comparison criterion, wherein the processing device is configured to compare the information generated with the reference information, and to trigger an alarm signal if the result of the comparison meets at least one of the one or more comparison criteria, - and furthermore comprising a cubicle treatment vehicle, which is preferably autonomously movable under the control of the control unit, and comprises at least one of: - a litter material cleaning device, - a litter material dispensing device, and - a litter material redistribution device, - wherein the cubicle treatment vehicle is controllable based on the alarm signal.
A door opening system adapted to control an opening of a door module that separates compartments (2a, 2b) of an aircraft and comprises a door panel and a door frame, comprising: a deceleration mechanism that comprises: a strap that connects the door panel with the door frame, a first spool that receives a first end of the strap, is biased to roll up a first portion of the strap, and adapted to perform a first unwinding of the first portion of the strap from the first spool with a first resistive force, characterized in that the deceleration mechanism further comprises a second spool that receives a second end of the strap, is biased to roll up a second portion of the strap, and adapted to perform a second unwinding of the second portion of the strap from the second spool with a second resistive force that is greater than the first resistive force, and wherein the second spool comprises a braking apparatus that is adapted to decelerate the second unwinding when a velocity of the second unwinding is above a predetermined threshold. a strap that connects the door panel with the door frame, a first spool that receives a first end of the strap, is biased to roll up a first portion of the strap, and adapted to perform a first unwinding of the first portion of the strap from the first spool with a first resistive force, characterized in that the deceleration mechanism further comprises a second spool that receives a second end of the strap, is biased to roll up a second portion of the strap, and adapted to perform a second unwinding of the second portion of the strap from the second spool with a second resistive force that is greater than the first resistive force, and wherein the second spool comprises a braking apparatus that is adapted to decelerate the second unwinding when a velocity of the second unwinding is above a predetermined threshold.
A process for the production of structured surfaces on a substrate, where the steps comprise: a) Application of a layer made of moisture-crosslinking reactive hotmelt based on a polyurethane onto at least a portion of a surface of the substrate; b) Use, for embossing of the surface of the layer applied in a preceding step, of an embossing mold which comprises a negative of a three-dimensional structure to be produced on the substrate; and a step c) where a lacquer layer is applied to the substrate covered with reactive hotmelt and where the lacquer layer is applied after step a) and before embossing step b) or both, before and after embossing step b). a) Application of a layer made of moisture-crosslinking reactive hotmelt based on a polyurethane onto at least a portion of a surface of the substrate; b) Use, for embossing of the surface of the layer applied in a preceding step, of an embossing mold which comprises a negative of a three-dimensional structure to be produced on the substrate; and a step c) where a lacquer layer is applied to the substrate covered with reactive hotmelt and where the lacquer layer is applied after step a) and before embossing step b) or both, before and after embossing step b).
Antenna system comprising at least one antenna field and a flat antenna field outer face which is, at least in portions, covered by a flat protective plate or formed by a flat protective plate, the protective plate having a protective plate outer face with a specularly reflecting surface, an upper edge, a lower edge, a right edge and a left edge, characterised in that at least along one edge (18, 20, 22, 24) of the protective plate, a projection (28; 128; 228; 328; 428; 528) is provided at least in portions, which projection protrudes beyond the outer face of the protective plate perpendicularly to the outer face of the protective plate and forms at least one first frame portion (30; 130; 230; 330; 430; 530), the projection (28; 128; 228; 328; 428; 528) consisting at least in portions of a material that has a lower specular reflection than the protective plate outer face, and in that the protective plate consists of a material which is transparent to radar radiation.
A method for casting aluminum on rotor, comprising: installing casting equipment on a casting workbench and storing molten aluminum in the casting equipment, wherein the casting equipment comprises a heat preserving furnace configured to store molten aluminum and an electromagnetic pump arranged at a side of the heat preserving furnace, characterized in that the method further comprises: assembling a plurality of rotor iron cores with a plurality of dies respectively and preheating outside the casting workbench, the preheating being performed by induction heating, resistance heating, direct contact direct current resistance heating or gas heating; installing the plurality of preheated dies on a plurality of liquid outlet gates at a top end of the electromagnetic pump, wherein each liquid outlet gate is matched with a liquid inlet gate of the dies; heating and keeping the installed die in a multi-stage heating mode by sheathing a four-section heating coil outside the die, and setting heating temperatures of the top-down arranged four-section heating coil to 400°C, 450°C, 500°C and 550°C; wherein the heating coil of adjacent sections are arranged in close proximity, and the height of the die is matched with the height of the four-section heating coil; controlling the pressurizing pressure of the electromagnetic pump in a time period when the electromagnetic pump is used for casting; and after completing casting, moving the plurality of dies out of the casting workbench to be cooled. assembling a plurality of rotor iron cores with a plurality of dies respectively and preheating outside the casting workbench, the preheating being performed by induction heating, resistance heating, direct contact direct current resistance heating or gas heating; installing the plurality of preheated dies on a plurality of liquid outlet gates at a top end of the electromagnetic pump, wherein each liquid outlet gate is matched with a liquid inlet gate of the dies; heating and keeping the installed die in a multi-stage heating mode by sheathing a four-section heating coil outside the die, and setting heating temperatures of the top-down arranged four-section heating coil to 400°C, 450°C, 500°C and 550°C; wherein the heating coil of adjacent sections are arranged in close proximity, and the height of the die is matched with the height of the four-section heating coil; controlling the pressurizing pressure of the electromagnetic pump in a time period when the electromagnetic pump is used for casting; and after completing casting, moving the plurality of dies out of the casting workbench to be cooled.
A method for producing recombinant adenovirus serotype 26, the method comprising: a) culturing PER.C6 cells in suspension with a perfusion system; b) infecting said cells at a density of between 10x10 6 viable cells/mL and 16x10 6 viable cells/mL with rAd26; c) further culturing the infected cells with a perfusion system to propagate said rAd26; and d) harvesting said rAd26. a) culturing PER.C6 cells in suspension with a perfusion system; b) infecting said cells at a density of between 10x10 6 viable cells/mL and 16x10 6 viable cells/mL with rAd26; c) further culturing the infected cells with a perfusion system to propagate said rAd26; and d) harvesting said rAd26.
A shroud for a gas turbine having a rotor blade, comprising a base member, a metal abradable layer arranged on the base member, and a ceramic abradable layer arranged on the metal abradable layer to have a hot-gas passing surface to be arranged to face to the rotor blade, wherein the hot-gas passing surface has slits and a slide surface between the slits so that the rotor blade is slidable on the slide surface, characterized in that the ceramic abradable layer is left at the bottom of said slits.
Method for producing a steering shaft bearing unit for the mounting of a steering shaft of a motor vehicle, which steering shaft is led through the steering shaft bearing unit, so as to be rotatable about a longitudinal axis, wherein the steering shaft bearing unit comprises a first casing part and at least one second casing part, and the second casing part, guided in at least one slide bearing of the first casing part, is mounted in the first casing part so as to be displaceable along the longitudinal axis, characterized in that the slide bearing comprises at least two slide bearing parts (6, 7) and, during the assembly of the steering shaft bearing unit, in a first method step, the second casing part is inserted between the slide bearing parts (6, 7); subsequently, in a second method step, the slide bearing parts (6, 7) are, in a relative movement toward one another, pressed against the second casing part; and subsequently, in a third method step, the slide bearing parts (6, 7) are fixed in the first casing part in the position attained by way of the relative movement.
An in-vivo information acquisition system comprising an in-vivo information acquisition apparatus provided with a configuration capable of transmitting a wireless signal which includes in-vivo information about an inside of a subject acquired by an in-vivo information acquisition section (2, 3) to an outside of the subject, and a terminal apparatus provided with a configuration capable of receiving the wireless signal transmitted from the in-vivo information acquisition apparatus outside the subject, wherein the terminal apparatus comprises a reception confirmation signal transmission section (12, 15) generating a reception confirmation signal and transmitting the reception confirmation signal to the in-vivo information acquisition apparatus when the wireless signal which includes the in-vivo information about the subject can be received; and the in-vivo information acquisition apparatus comprises a storage section, and a control section causing the in-vivo information about the subject to be stored into the storage section at least during a period during which the reception confirmation signal transmitted from the terminal apparatus cannot be received, characterized in that the control section is adapted to cause at the same time the wireless signal, which includes the same in-vivo information about the subject as being stored in the storage section, to be transmitted to the outside of the subject at least during the period during which the reception confirmation signal transmitted from the terminal apparatus cannot be received.
Apparatus for partially automated cleaning of tube bundle heat exchangers having a plurality of tubes (2, 2.1, 2.2) comprising a blasting device having a connection for a gaseous and/or liquid blasting medium and a blasting agent, having a blasting adapter designed for front contact with a tube (2.1) of the tube bundle heat exchanger to be cleaned, having a deflection body for the blasting agent and/or blasting medium that can be inserted into the tube (2.1) to be cleaned, having a robust retention cable, which retains the deflection body and is also suitable for the use of abrasive blasting agents, and having a feed module for the retention cable, characterised in that - the apparatus further has a guide rail which is longitudinally extended in a transverse direction and a carriage that can be moved along the guide rail in the transverse direction, - the blasting device is fitted with a controllable pressure module, which is associated with the blasting adapter in such a way that the blasting adapter can be pressed against the tube (2.1) to be cleaned by means of the pressure module, wherein in any case the blasting adapter and/or the deflection body of the blasting device can be moved with the carriage in the transverse direction, - the apparatus comprises an attachment device for attaching the guide rail to the tube bundle heat exchanger. - the apparatus further has a guide rail which is longitudinally extended in a transverse direction and a carriage that can be moved along the guide rail in the transverse direction, - the blasting device is fitted with a controllable pressure module, which is associated with the blasting adapter in such a way that the blasting adapter can be pressed against the tube (2.1) to be cleaned by means of the pressure module, wherein in any case the blasting adapter and/or the deflection body of the blasting device can be moved with the carriage in the transverse direction, - the apparatus comprises an attachment device for attaching the guide rail to the tube bundle heat exchanger.
An airfoil (12,112) for a gas turbine engine, the airfoil comprising an interior layer (28,128) of ceramic matrix composite material having an exterior surface (48,148) that faces away from a core (30,130) of the airfoil and an interior surface (50,150) that faces the core of the airfoil, the interior layer (28,128) including a ceramic-containing matrix material (61,161) and a single preform tube of ceramic-containing reinforcing fibers (62,162) that are woven, braided, knitted or knotted together and suspended in the ceramic-containing matrix material, and an exterior wrap (26,126) of ceramic matrix composite material bonded to the exterior surface (48,148) of the interior layer (28,128), the exterior wrap including at least one sheet (36,38,136,138) containing a ceramic-containing matrix material and ceramic-containing reinforcing fibers suspended in the ceramic-containing matrix material, wherein the core (30,130) of the airfoil is surrounded by the interior layer (28,128) and extends along an axis (18,118) wherein the airfoil (12,112) has a leading edge (22,122) and a trailing edge (24,124) and the exterior wrap (26,126) forms a seam (46,146) at the trailing edge of the airfoil that extends parallel to the axis (18,118), wherein the exterior wrap (26,126) and the interior layer (28,128) coupled to the exterior wrap (26,126) and including the tube of ceramic-containing reinforcing fibers (62,162) extend all the way around the axis (18,118) without forming a seam (46,146) that extends along the axis, and fully wrap around the axis (18,118) such that the exterior wrap (26,126) defines a suction side of the airfoil (12,112) and a pressure side of the airfoil (12,112) and wherein the tube of ceramic-containing reinforcing fibers (62,162) extends along an entire length of the interior layer (28,128) and the interior layer (28,128) defines a surface of the core (30,130) of the airfoil (12,112).
A method of wireless communication in a heterogenous network at a user equipment, UE, comprising: camping on a strongest cell while in idle mode; performing interference cancellation, upon receiving a page, to detect all cells in the neighborhood including weaker cells; detecting whether there are any suitable weaker cells for connecting to; and connecting to a selected one of the weaker cells to establish a call associated with the page. camping on a strongest cell while in idle mode; performing interference cancellation, upon receiving a page, to detect all cells in the neighborhood including weaker cells; detecting whether there are any suitable weaker cells for connecting to; and connecting to a selected one of the weaker cells to establish a call associated with the page.