mhurhangee/ep-ind-claims huggingface dataset:
A display substrate, having a polygonal encapsulation region with a plurality of edges and a periphery region surrounding the encapsulation region, and the display substrate comprising: a base substrate; and a partition structure, located on a side of the base substrate and within the periphery region, the partition structure comprising a plurality of isolation dams outside the edges of the encapsulation region, wherein the plurality of isolation dams outside a same edge of the encapsulation region are arranged at intervals along a direction away from the encapsulation region; characterized in that, among the plurality of edges, the encapsulation region has a first edge and a second edge, the isolation dams comprises a plurality of first isolation dams and a plurality of second isolation dams which is outside the second edge, each of the first isolation dam surrounds all of the encapsulation region outside edges other than the second edge, each of the first isolation dam extends along edges other than the second edge, the second isolation dams are between two ends of each of the first isolation dam, the first isolation dams are not in connection with the second isolation dams, the display substrate further comprises a fan-out region, and the second edge is an edge proximal to the fan-out region of the display substrate, and a number of the second isolation dams is greater than a number of the first isolation dams. a base substrate; and a partition structure, located on a side of the base substrate and within the periphery region, the partition structure comprising a plurality of isolation dams outside the edges of the encapsulation region, wherein the plurality of isolation dams outside a same edge of the encapsulation region are arranged at intervals along a direction away from the encapsulation region; characterized in that, among the plurality of edges, the encapsulation region has a first edge and a second edge, the isolation dams comprises a plurality of first isolation dams and a plurality of second isolation dams which is outside the second edge, each of the first isolation dam surrounds all of the encapsulation region outside edges other than the second edge, each of the first isolation dam extends along edges other than the second edge, the second isolation dams are between two ends of each of the first isolation dam, the first isolation dams are not in connection with the second isolation dams, the display substrate further comprises a fan-out region, and the second edge is an edge proximal to the fan-out region of the display substrate, and a number of the second isolation dams is greater than a number of the first isolation dams.
A powder module for an apparatus for additive manufacturing of three-dimensional objects, comprising: a powder chamber that delimits a powder room that is fillable with powdered building material, a carrier device that is situated in the powder room and that delimits the powder room at the bottom, and that is supported so as to be movable relative to the powder chamber, and a drive device for generating a force that sets the carrier device in motion relative to the powder chamber, wherein the drive device includes at least two separate actuator units (6a, 6b) that are in particular coupled or coupleable in terms of movement, each having at least one, in particular cylindrical, actuator element (7a, 7b), wherein each actuator element (7a, 7b) is supported so as to be movable, relative to a respective housing element (8a, 8b) of the particular actuator unit (6a, 6b), between a first end position and a second end position, characterized in that each actuator unit (6a, 6b) includes at least one first actuator element that is supported, in particular in a telescoping manner, so as to be movable between a first end position and a second end position, and at least one second actuator element that is supported, in particular in a telescoping manner, so as to be movable between a first end position and a second end position, wherein the actuator elements (7a, 7b) of an actuator unit (6a, 6b) are connected in series. a powder chamber that delimits a powder room that is fillable with powdered building material, a carrier device that is situated in the powder room and that delimits the powder room at the bottom, and that is supported so as to be movable relative to the powder chamber, and a drive device for generating a force that sets the carrier device in motion relative to the powder chamber, wherein the drive device includes at least two separate actuator units (6a, 6b) that are in particular coupled or coupleable in terms of movement, each having at least one, in particular cylindrical, actuator element (7a, 7b), wherein each actuator element (7a, 7b) is supported so as to be movable, relative to a respective housing element (8a, 8b) of the particular actuator unit (6a, 6b), between a first end position and a second end position, characterized in that each actuator unit (6a, 6b) includes at least one first actuator element that is supported, in particular in a telescoping manner, so as to be movable between a first end position and a second end position, and at least one second actuator element that is supported, in particular in a telescoping manner, so as to be movable between a first end position and a second end position, wherein the actuator elements (7a, 7b) of an actuator unit (6a, 6b) are connected in series.
A packet tunneling method for a mobile packet network using an OpenFlow protocol, comprising: receiving, by a switching device of the mobile packet network, a tunnel flow table entry delivered by a control device of the mobile packet network, wherein the tunnel flow table entry is used to determine a to-be-tunneled packet and indicate a tunneling operation to be performed on the to-be-tunneled packet, determining, by the switching device according to the tunnel flow table entry, whether the received first packet is the to-be-tunneled packet; and when the first packet is the to-be-tunneled packet, tunneling, by the switching device, the first packet according to the tunnel flow table entry, characterized in that the switching device manages a flow table based on a flow table type pattern, TTP, wherein the flow tables in the switching device are classified according to different types and a forwarding plane of the switching device is used to store flow table entries of different types, namely a Session Table, an Access Control List, ACL, Table, a Route Table, a QoS Table, and the tunnel flow table, respectively. receiving, by a switching device of the mobile packet network, a tunnel flow table entry delivered by a control device of the mobile packet network, wherein the tunnel flow table entry is used to determine a to-be-tunneled packet and indicate a tunneling operation to be performed on the to-be-tunneled packet, determining, by the switching device according to the tunnel flow table entry, whether the received first packet is the to-be-tunneled packet; and when the first packet is the to-be-tunneled packet, tunneling, by the switching device, the first packet according to the tunnel flow table entry, characterized in that the switching device manages a flow table based on a flow table type pattern, TTP, wherein the flow tables in the switching device are classified according to different types and a forwarding plane of the switching device is used to store flow table entries of different types, namely a Session Table, an Access Control List, ACL, Table, a Route Table, a QoS Table, and the tunnel flow table, respectively.
Method for handling a safety critical command (f i (e k)) in a computer network with a safe computer and a non-safe operator terminal, the command concerning a transaction on an element (e k), the method comprising: - transfer of the command (f i (e k)) from the non-safe operator terminal to the safe computer; - generation of a TAN, the TAN identifying the command; the method further characterised by - generation of a first executable code and a second executable code by the safe computer, the second code containing the TAN, the first code being capable of displaying a query on a display device of the non-safe operator terminal and the second code being capable of enabling execution of the transaction; - Encryption of the codes (A, B) by the safe computer; - transmission of the encrypted codes (A, B) to the non-safe operator terminal; - decryption of the codes (A, B) by the non-safe operator terminal; - execution of the first code on the non-safe operator terminal. whereby a query is displayed to the operator with an invitation to confirm whether the critical command shall be executed or aborted; - in case of a confirmation by the operator, the second code is executed and the TAN is transferred to the safe computer. - transfer of the command (f i (e k)) from the non-safe operator terminal to the safe computer; - generation of a TAN, the TAN identifying the command; the method further characterised by - generation of a first executable code and a second executable code by the safe computer, the second code containing the TAN, the first code being capable of displaying a query on a display device of the non-safe operator terminal and the second code being capable of enabling execution of the transaction; - Encryption of the codes (A, B) by the safe computer; - transmission of the encrypted codes (A, B) to the non-safe operator terminal; - decryption of the codes (A, B) by the non-safe operator terminal; - execution of the first code on the non-safe operator terminal. whereby a query is displayed to the operator with an invitation to confirm whether the critical command shall be executed or aborted; - in case of a confirmation by the operator, the second code is executed and the TAN is transferred to the safe computer.
System for aspirating fluids from a human or animal body by means of negative pressure, which system has: a drainage line for removing the fluid from the body, a fluid collection container connected to the drainage line for collecting the aspirated fluid, a pump for generating the negative pressure in the drainage line to aspirate the fluid, and an auxiliary line whose end near the body is in fluidic communication with an end, near the body, of the drainage line, characterized in that, the drainage line and the auxiliary line end in a common catheter or in a common connector piece, that, in the system, an approximately closed circuit is present or can be generated, which interconnects this pump, the auxiliary line, the drainage line and the fluid collection container and through which air or a liquid can be pumped, that the auxiliary line is usable for flushing the drainage hose, and that a pressure sensor is arranged between the pump and the fluid collection container, in order to measure the pressure in the drainage line.
A lighting device (100, 200) comprising: a board having a recess; a pair of lead frames (133, 143) disposed in the recess and comprising a main upper surface and a main lower surface, each of the lead frames comprising a first lead frame protrusion (234, 244, 334, 344) protruding upward from the main upper surface and each of the lead frames comprising a second lead frame protrusion (134, 144, 335, 345) protruding downward from the main lower surface; and a light emitting diode chip disposed on the main upper surface of one of the lead frames, wherein the second lead frame protrusions are protruding toward the inside of the board and the bottom surface of the second lead frame protrusions are spaced from the bottom surface of the board by a predetermined distance. a board having a recess; a pair of lead frames (133, 143) disposed in the recess and comprising a main upper surface and a main lower surface, each of the lead frames comprising a first lead frame protrusion (234, 244, 334, 344) protruding upward from the main upper surface and each of the lead frames comprising a second lead frame protrusion (134, 144, 335, 345) protruding downward from the main lower surface; and a light emitting diode chip disposed on the main upper surface of one of the lead frames, wherein the second lead frame protrusions are protruding toward the inside of the board and the bottom surface of the second lead frame protrusions are spaced from the bottom surface of the board by a predetermined distance.
A hinge for a bonnet of a motor vehicle, with a first flap part and with at least a second flap part which are articulated together and are movable relative to one another between a normal position and a protection position, with a holding device by which the flap parts (14, 16) are held in the normal position, and with at least one actuating device which can cause the flap parts (14, 16) to move out of the normal position into the protection position, characterised in that in the normal position, the two flap parts (14, 16) are mutually fixed and braced against one another by a tensioning element of the holding device under the effect of a holding force between the flap parts (14, 16), it being possible for a clamping length (K L) of the tensioning element to be reduced in order to cancel the holding force of the holding device between the flap parts (14, 16).
A computer-implemented method, comprising: receiving, at a computer processor, a seismic dataset representative of the subsurface volume of interest and an initial earth model; performing, via the computer processor, an image domain full waveform inversion, FWI, including backprojection to generate an updated earth model; and performing, via the computer processor, seismic imaging of the seismic dataset using the updated earth model to generate a seismic image, the method being characterized in that the image domain FWI comprises: performing an initial imaging step to create at least one gather of a model perturbation δ m in an extended model domain; enhancing the at least one gather with an operator E to generate at least one enhanced gather that is more consistent with a correct model; creating a residual (E - 1) δ m by subtracting the at least one gather from the at least one enhanced gather; backprojecting the residual in a tomographic FWI operation to obtain a long wavelength background model parameter gradient; and updating the initial earth model using a nonlinear solver and the long wavelength background model parameter gradient to generate the updated earth model; the method further comprising using the seismic image in hydrocarbon exploration or hydrocarbon production. receiving, at a computer processor, a seismic dataset representative of the subsurface volume of interest and an initial earth model; performing, via the computer processor, an image domain full waveform inversion, FWI, including backprojection to generate an updated earth model; and performing, via the computer processor, seismic imaging of the seismic dataset using the updated earth model to generate a seismic image, the method being characterized in that the image domain FWI comprises: performing an initial imaging step to create at least one gather of a model perturbation δ m in an extended model domain; enhancing the at least one gather with an operator E to generate at least one enhanced gather that is more consistent with a correct model; creating a residual (E - 1) δ m by subtracting the at least one gather from the at least one enhanced gather; backprojecting the residual in a tomographic FWI operation to obtain a long wavelength background model parameter gradient; and updating the initial earth model using a nonlinear solver and the long wavelength background model parameter gradient to generate the updated earth model; the method further comprising using the seismic image in hydrocarbon exploration or hydrocarbon production.
An electronic apparatus cooperated with an operation apparatus, comprising: a display panel; wherein the display panel is an active matrix display panel having row electrodes, column electrodes and pixel electrodes for displaying image, characterized in that information exchange between the electronic apparatus and the operation apparatus is performed by the electronic apparatus being configured to transmit first data through one electrode of the row electrodes and column electrodes to the operation apparatus by electromagnetic coupling. a display panel; wherein the display panel is an active matrix display panel having row electrodes, column electrodes and pixel electrodes for displaying image, characterized in that information exchange between the electronic apparatus and the operation apparatus is performed by the electronic apparatus being configured to transmit first data through one electrode of the row electrodes and column electrodes to the operation apparatus by electromagnetic coupling.
Two-component protective coating for a mineral substrate, comprising plateletlike inorganic pigments, fillers, additives, epoxy-siloxane binder component and aminic hardener, the coating consisting initially of separate components A and B, where component A comprises x wt.% of inorganic pigments, where x = 30 to 70, 10 to 50 wt.% of at least one epoxy-siloxane, 0 to 40 wt.% of an organic solvent and component B comprises at least one aminic hardener and optionally at least one organic solvent, characterized in that the additives comprise hydrophobizing additives, where one component comprises organosilicon-based adjuvants and the other component comprises isocyanate-based adjuvants, and specifically component B comprises the organosilicon-based additives and component A comprises the isocyanate-based adjuvants. plateletlike inorganic pigments, fillers, additives, epoxy-siloxane binder component and aminic hardener, the coating consisting initially of separate components A and B, where component A comprises x wt.% of inorganic pigments, where x = 30 to 70, 10 to 50 wt.% of at least one epoxy-siloxane, 0 to 40 wt.% of an organic solvent and x wt.% of inorganic pigments, where x = 30 to 70, 10 to 50 wt.% of at least one epoxy-siloxane, 0 to 40 wt.% of an organic solvent and component B comprises at least one aminic hardener and optionally at least one organic solvent, characterized in that the additives comprise hydrophobizing additives, where one component comprises organosilicon-based adjuvants and the other component comprises isocyanate-based adjuvants, and specifically component B comprises the organosilicon-based additives and component A comprises the isocyanate-based adjuvants. at least one aminic hardener and optionally at least one organic solvent, characterized in that the additives comprise hydrophobizing additives, where one component comprises organosilicon-based adjuvants and the other component comprises isocyanate-based adjuvants, and specifically component B comprises the organosilicon-based additives and component A comprises the isocyanate-based adjuvants.
A compatibilizer composition comprising (percent by weight): A) 35-65% of a semi-crystalline polypropylene component (Component A) having a monomodal molecular weight distribution selected from the group consisting of a propylene homopolymer, a random copolymer of propylene containing up to 8% of ethylene, a random copolymer of propylene containing up to 8% of at least one C 4 -C 10 α-olefin, and any combination thereof, wherein component is characterized by a melt flow rate of 1-500 g/10 min.; and B) 35-65% of a bipolymer component (Component B) of propylene and at least one comonomer selected from ethylene and/or C 4 -C 10 α-olefins, the bipolymer comprising 50-75% of propylene and 30 wt% to 45 wt% ethylene moieties, wherein the bipolymer is soluble in xylene at room temperature, has an intrinsic viscosity [η] of 4-7 dl/g (in decalin) and is characterized by a melt flow rate of less than 0.15 g/10 min, and wherein the melt flow rate of the compatibilizer composition is 0.35-1 g/10 min, measured according to ASTM method 1238, condition L. A) 35-65% of a semi-crystalline polypropylene component (Component A) having a monomodal molecular weight distribution selected from the group consisting of a propylene homopolymer, a random copolymer of propylene containing up to 8% of ethylene, a random copolymer of propylene containing up to 8% of at least one C 4 -C 10 α-olefin, and any combination thereof, wherein component is characterized by a melt flow rate of 1-500 g/10 min.; and B) 35-65% of a bipolymer component (Component B) of propylene and at least one comonomer selected from ethylene and/or C 4 -C 10 α-olefins, the bipolymer comprising 50-75% of propylene and 30 wt% to 45 wt% ethylene moieties, wherein the bipolymer is soluble in xylene at room temperature, has an intrinsic viscosity [η] of 4-7 dl/g (in decalin) and is characterized by a melt flow rate of less than 0.15 g/10 min,
A system, comprising: - an additive manufacturing tool configured to receive a metallic anchoring material and to supply a plurality of droplets to a part, wherein each droplet of the plurality of droplets comprises the metallic anchoring material; - a controller configured to independently control the formation and application of each droplet of the plurality of droplets to the part, wherein the plurality of droplets is configured to build up the part, characterized by - a mechanical oscillation system configured to mechanically oscillate a structural component of the additive manufacturing tool toward and away from the part; - at least one sensor for detecting a position of the structural component; - a power source configured to supply power to the additive manufacturing tool, wherein the controller is configured to regulate operation of the power source based on the position of the structural component detected by the at least one sensor. - an additive manufacturing tool configured to receive a metallic anchoring material and to supply a plurality of droplets to a part, wherein each droplet of the plurality of droplets comprises the metallic anchoring material; - a controller configured to independently control the formation and application of each droplet of the plurality of droplets to the part, wherein the plurality of droplets is configured to build up the part, - a mechanical oscillation system configured to mechanically oscillate a structural component of the additive manufacturing tool toward and away from the part; - at least one sensor for detecting a position of the structural component; - a power source configured to supply power to the additive manufacturing tool, wherein the controller is configured to regulate operation of the power source based on the position of the structural component detected by the at least one sensor.