mhurhangee/ep-ind-claims huggingface dataset:
A vehicle surrounding monitoring device comprising: at least one camera installed in an own vehicle to image a video around the own vehicle; obstacle detection means installed in the own vehicle to detect an obstacle (110,130) in an obstacle detection area; image processing means for converting a camera image imaged by the camera into a view point converted image seen from a virtual view point above the own vehicle; display means for displaying the view point conversion image converted by the image processing means, a warning output unit for outputting a warning sound upon entry of an obstacle (110,130) within an obstacle detection range of the obstacle detection means, wherein the image processing means switches to display a view point converted image with an image (151,152) of the obstacle detection range of the obstacle detection means synthesized to be in contact with an obstacle image (120,140,153) imaged by the camera simultaneously when a warning sound is output by warning output unit. at least one camera installed in an own vehicle to image a video around the own vehicle; obstacle detection means installed in the own vehicle to detect an obstacle (110,130) in an obstacle detection area; image processing means for converting a camera image imaged by the camera into a view point converted image seen from a virtual view point above the own vehicle; display means for displaying the view point conversion image converted by the image processing means, a warning output unit for outputting a warning sound upon entry of an obstacle (110,130) within an obstacle detection range of the obstacle detection means, wherein the image processing means switches to display a view point converted image with an image (151,152) of the obstacle detection range of the obstacle detection means synthesized to be in contact with an obstacle image (120,140,153) imaged by the camera simultaneously when a warning sound is output by warning output unit.
Catalyst composition comprising a) a metal complex with the metal being Zr comprising one guanidate ligand bound to the metal of the following structure: wherein Z2 = NR1 R2 with R1 and R2 independently from each other C1 to C40 hydrocarbon moieties, optionally additionally comprising not directly adjacent to the N-Atom one or more nitrogen, oxygen, and/or silicon atom(s) and further optionally linked with each other or with Z1 and/or Z3; Z1 and Z3 = are independently C1 to C40 hydrocarbon moieties, optionally linked with one or more of each other or with Z2, and further optionally additionally comprising one or more nitrogen, oxygen, and/or silicon atom(s), but not directly adjacent to the N-Atom; and b) an organo aluminium compound or an organo aluminium compound and an organo zinc compound as co-catalyst. a) a metal complex with the metal being Zr comprising one guanidate ligand bound to the metal of the following structure: wherein Z2 = NR1 R2 with R1 and R2 independently from each other C1 to C40 hydrocarbon moieties, optionally additionally comprising not directly adjacent to the N-Atom one or more nitrogen, oxygen, and/or silicon atom(s) and further optionally linked with each other or with Z1 and/or Z3; Z1 and Z3 = are independently C1 to C40 hydrocarbon moieties, optionally linked with one or more of each other or with Z2, and further optionally additionally comprising one or more nitrogen, oxygen, and/or silicon atom(s), but not directly adjacent to the N-Atom; and Z2 = NR1 R2 with R1 and R2 independently from each other C1 to C40 hydrocarbon moieties, optionally additionally comprising not directly adjacent to the N-Atom one or more nitrogen, oxygen, and/or silicon atom(s) and further optionally linked with each other or with Z1 and/or Z3; Z1 and Z3 = are independently C1 to C40 hydrocarbon moieties, optionally linked with one or more of each other or with Z2, and further optionally additionally comprising one or more nitrogen, oxygen, and/or silicon atom(s), but not directly adjacent to the N-Atom; and b) an organo aluminium compound or an organo aluminium compound and an organo zinc compound as co-catalyst.
A screw-threaded dental implant for implanting within the human jawbone by screwing, the jawbone having lingual and buccal sides, the implant comprising: a generally cylindrical longitudinal body having an outer surface, an apical end and a coronal end having an inner conical shape; an abutment having a lower portion with an outer conical shape for connection with the inner conical shape of the coronal end of said body; said body having a bone engaging surface defined between said ends; and said coronal end being contoured such that when positioned within the jawbone said bone engaging surface is longest/greatest on the generally lingual side, wherein said body also has a non-bone engaging surface extending coronally from said bone engaging surface whereby said non-bone engaging surface when combined with said bone engaging surface is longest/greatest on the lingual side, wherein said body has a diameter and includes at least one size of grooves around said diameter on at least a portion of said body, wherein said grooves are parallel with said contour. a generally cylindrical longitudinal body having an outer surface, an apical end and a coronal end having an inner conical shape; an abutment having a lower portion with an outer conical shape for connection with the inner conical shape of the coronal end of said body; said body having a bone engaging surface defined between said ends; and said coronal end being contoured such that when positioned within the jawbone said bone engaging surface is longest/greatest on the generally lingual side, wherein said body also has a non-bone engaging surface extending coronally from said bone engaging surface whereby said non-bone engaging surface when combined with said bone engaging surface is longest/greatest on the lingual side, wherein said body has a diameter and includes at least one size of grooves around said diameter on at least a portion of said body, wherein said grooves are parallel with said contour.
A flexible device (100, 900) comprising a touch panel configured to sense at least one contact region (910, 920) with respect to at least a part of the flexible device; at least one bending detecting sensor; and a processor configured to determine bending information of the flexible device obtained through the at least one bending detection sensor of the flexible device, determine attributes of each of at least one contact region, determine a bending direction based on the bending information and further based on at least one change of the attributes of the at least one contact region, wherein, while the bending information is obtained through the at least one bending detection sensor, the at least one change of the attributes comprises a shape change of a shape of the at least one contact region and perform a function of the flexible device based on the determined bending information and the bending direction. at least one bending detecting sensor; and a processor configured to determine bending information of the flexible device obtained through the at least one bending detection sensor of the flexible device, determine attributes of each of at least one contact region, determine a bending direction based on the bending information and further based on at least one change of the attributes of the at least one contact region, wherein, while the bending information is obtained through the at least one bending detection sensor, the at least one change of the attributes comprises a shape change of a shape of the at least one contact region and perform a function of the flexible device based on the determined bending information and the bending direction.
A method comprising: receiving, from a first client device, a first request for a font; determining whether the first request specifies a set of glyphs that includes less than all glyphs defined for the font; and in response to determining that the specified set of glyphs includes less than all of the glyphs defined for the font: generating a reduced glyph font file that includes only the specified set of glyphs; and caching, at a font server different from the first client device, the reduced glyph font file in association with an identifier of a network document corresponding to the first request; receiving, from a second client device, a second request for the font, wherein the second request specifies the set of glyphs including less than all of the glyphs defined for the font and includes the identifier of the network document; and in response to the second request, retrieving the stored reduced glyph font file. receiving, from a first client device, a first request for a font; determining whether the first request specifies a set of glyphs that includes less than all glyphs defined for the font; and in response to determining that the specified set of glyphs includes less than all of the glyphs defined for the font: generating a reduced glyph font file that includes only the specified set of glyphs; and caching, at a font server different from the first client device, the reduced glyph font file in association with an identifier of a network document corresponding to the first request; generating a reduced glyph font file that includes only the specified set of glyphs; and caching, at a font server different from the first client device, the reduced glyph font file in association with an identifier of a network document corresponding to the first request; receiving, from a second client device, a second request for the font, wherein the second request specifies the set of glyphs including less than all of the glyphs defined for the font and includes the identifier of the network document; and in response to the second request, retrieving the stored reduced glyph font file.
A catalyst comprising a cyclic imide compound represented by following Formula: wherein R x is a hydrocarbon group having five or more carbon atoms; and n denotes an integer of from 1 to 4, where the groups -C(=O)-OR x may be the same or different when n is equal to or more than 2.
A vehicle for loading objects, comprising: - at least one sensing device mounted on the vehicle and being configured to capture measurement data to monitor the entire area, or a part of the area surrounding the vehicle, the at least one sensing device is configured to generate at least one measurement data signal including said captured measurement data, - a processing unit configured to receive said measurement data signal and to determine a real time overview image, i.e. an image from above, of the area surrounding the vehicle based upon said measurement data, and further to generate a real time image signal to be applied to a display unit configured to show said real time overview image, characterized in that the processor unit is further configured to generate a target image, comprising a target marker, to be shown on said display unit superimposed on a shown real time overview image of the area surrounding the vehicle to guide the operator to an optimal position for the vehicle in relation to an object, wherein said target image is superimposed such that the vehicle is in an optimal position for loading objects in relation to a predetermined object when the target marker overlays a real time image of the predetermined object. - at least one sensing device mounted on the vehicle and being configured to capture measurement data to monitor the entire area, or a part of the area surrounding the vehicle, the at least one sensing device is configured to generate at least one measurement data signal including said captured measurement data, - a processing unit configured to receive said measurement data signal and to determine a real time overview image, i.e. an image from above, of the area surrounding the vehicle based upon said measurement data, and further to generate a real time image signal to be applied to a display unit configured to show said real time overview image,
A method for controlling a target system on the basis of operational data (DAT1,..., DATN) of a plurality of source systems (S1,..., SN), comprising: a) receiving operational data (DAT1,..., DATN) of the source systems (S1,..., SN), the operational data being distinguished by source system specific identifiers (ID1,..., IDN), b) training by means of a neural network a neural model on the basis of the received operational data (DAT1,..., DATN) of the source systems (S1,..., SN) taking into account the source system specific identifiers (ID1,..., IDN), where a first neural model component is trained on properties shared by the source systems (S1,..., SN) and a second neural model component is trained on properties varying between the source systems (S1,..., SN), c) receiving operational data of the target system, d) further training the trained neural model on the basis of the operational data of the target system, where a further training of the second neural model component is given preference over a further training of the first neural model component, and e) controlling the target system by means of the further trained neural network. a) receiving operational data (DAT1,..., DATN) of the source systems (S1,..., SN), the operational data being distinguished by source system specific identifiers (ID1,..., IDN), b) training by means of a neural network a neural model on the basis of the received operational data (DAT1,..., DATN) of the source systems (S1,..., SN) taking into account the source system specific identifiers (ID1,..., IDN), where a first neural model component is trained on properties shared by the source systems (S1,..., SN) and a second neural model component is trained on properties varying between the source systems (S1,..., SN), c) receiving operational data of the target system, d) further training the trained neural model on the basis of the operational data of the target system, where a further training of the second neural model component is given preference over a further training of the first neural model component, and e) controlling the target system by means of the further trained neural network.
A microgrid control system for controlling operations of a plurality of electric power facilities, comprising: a power supply machine activating and stopping planning portion; and an economical load distributing portion for determining command values associated with allocations of a load to the power supply facilities; wherein said power supply machine activating and stopping planning portion has an output load forecasting function for forecasting output amounts of the power supply facilities and amounts of load on the load facilities, output load predictive error forecasting function for forecasting errors of the forecasted outputs and the forecasted amounts of load, a power supply activation amount determining function for determining a total amount of output of power supply facilities to be activated, based on results of the predictions made by the output load forecasting function and the output load predictive error forecasting function, and a power supply facility selecting function for selecting power supply facilities to be activated, based on the determined total amount of output and on characteristic information about the power supply facilities, characterized in that solar panels and diesel generators are provided as said power supply facilities, wherein said power supply selecting function calculates load factors being load ratios of the diesel generators and limits output from the solar panels of the power supply facilities by reducing the number of the solar panels which link with the microgrid if the load factors are below a given threshold value. a power supply machine activating and stopping planning portion; and an economical load distributing portion for determining command values associated with allocations of a load to the power supply facilities; wherein said power supply machine activating and stopping planning portion has an output load forecasting function for forecasting output amounts of the power supply facilities and amounts of load on the load facilities, output load predictive error forecasting function for forecasting errors of the forecasted outputs and the forecasted amounts of load, a power supply activation amount determining function for determining a total amount of output of power supply facilities to be activated, based on results of the predictions made by the output load forecasting function and the output load predictive error forecasting function, and a power supply facility selecting function for selecting power supply facilities to be activated, based on the determined total amount of output and on characteristic information about the power supply facilities,
A method for manufacturing high cleanliness molten steel by including a molten steel supply device and a molten steel refining device configured to accommodate and refine molten steel poured from the molten steel supply device, comprising: pouring molten steel from the molten steel supply device into the molten steel refining device; forming the poured-in molten steel into droplets in the molten steel refining device; having the molten steel pass through slag by having the molten steel fall; and removing inclusions remaining in the molten steel formed into droplets while the molten steel passes through the slag, wherein the method further comprises: after the molten steel pouring step, temporarily storing the molten steel for droplets before forming the molten steel into droplets, and moving the stored molten steel to the droplet forming step, wherein the molten steel, overflowing from a molten steel accommodating portion, is transferred to a droplet forming portion. pouring molten steel from the molten steel supply device into the molten steel refining device; forming the poured-in molten steel into droplets in the molten steel refining device; having the molten steel pass through slag by having the molten steel fall; and removing inclusions remaining in the molten steel formed into droplets while the molten steel passes through the slag, wherein the method further comprises: after the molten steel pouring step, temporarily storing the molten steel for droplets before forming the molten steel into droplets, and moving the stored molten steel to the droplet forming step, wherein the molten steel, overflowing from a molten steel accommodating portion, is transferred to a droplet forming portion.
A plasma processing system comprising, a plasma chamber; a power generator comprising an output adapted to supply a power signal to the plasma chamber; a feedback component comprising, at least one input, each of the at least one inputs adapted to receive at least one first signal having a first signal level dependent upon the power signal, and an output adapted to emit a second signal having a second signal level indicative of an amount of power supplied to the plasma chamber; and a controller adapted to, receive the second signal, and supply a third signal to the power generator, the third signal is a control signal to control the amount of power supplied to the plasma chamber by the power generator dependent upon the second signal level, and configured to control the power generator to, supply the power signal at a power level comprising a first power level and a first voltage level for a particular processing application, one of reduce and remove the power from the plasma processing chamber, characterised in that the controller is configured to controllably increase, responsive to the second signal, subsequent to the power being one of reduced and removed, and before the plasma is ignited, the voltage level to a voltage level that is greater than the first voltage level until the power level is within a threshold level that ignites the plasma, and decrease, subsequent to the threshold level being reached, the voltage until the voltage level returns to the first voltage level. at least one input, each of the at least one inputs adapted to receive at least one first signal having a first signal level dependent upon the power signal, and an output adapted to emit a second signal having a second signal level indicative of an amount of power supplied to the plasma chamber; and receive the second signal, and supply a third signal to the power generator, the third signal is a control signal to control the amount of power supplied to the plasma chamber by the power generator dependent upon the second signal level, and configured to control the power generator to, supply the power signal at a power level comprising a first power level and a first voltage level for a particular processing application, one of reduce and remove the power from the plasma processing chamber, characterised in that the controller is configured to controllably increase, responsive to the second signal, subsequent to the power being one of reduced and removed, and before the plasma is ignited, the voltage level to a voltage level that is greater than the first voltage level until the power level is within a threshold level that ignites the plasma, and decrease, subsequent to the threshold level being reached, the voltage until the voltage level returns to the first voltage level.
A furnace assembly comprising: a first section including first and seconds ends, a first joint disposed at the first end, a conical portion at a second end, a first filter disposed between the first and second ends, and a lumen extending through the first section in fluid communication with the first filter; and a second section including first and second ends, a second joint disposed at the first end, an opening disposed at the second end and to receive the conical portion of the first section, a second filter disposed between the first and second ends, and a lumen extending through the second section in fluid communication with the second filter; when engaged, the first and second sections forming a chamber between the first and second filters, the chamber being in fluid communication with the respective first ends of the first and second sections. a first section including first and seconds ends, a first joint disposed at the first end, a conical portion at a second end, a first filter disposed between the first and second ends, and a lumen extending through the first section in fluid communication with the first filter; and a second section including first and second ends, a second joint disposed at the first end, an opening disposed at the second end and to receive the conical portion of the first section, a second filter disposed between the first and second ends, and a lumen extending through the second section in fluid communication with the second filter; when engaged, the first and second sections forming a chamber between the first and second filters, the chamber being in fluid communication with the respective first ends of the first and second sections.
A connection means system for providing an end of a connection means with a seal, the system comprising a seal, which includes a cured sealing compound and a mould embedded in the sealing compound, wherein the mould comprises a mesh, and the mould has a plurality of holes (8, 8', 9; 28, 29) and an opening (7; 27), and the mould may be placed via its opening over the end of a connection means, and a circumferential rib (4, 26) surrounds a further hole (10, 30) closing off the mould towards the upper end, characterised in that the mould is embedded fully in the sealing compound.