mhurhangee/ep-ind-claims huggingface dataset:
A composite separator comprising: (a) a substrate with a porous structure, and (b) an inorganic layer provided on at least one surface of the substrate, wherein the inorganic layer is an inorganic dielectric layer which is a continuous dense film layer with porosity lower than 10% and contains no binder, the porosity being obtained according to the method described in the description, a thickness of the inorganic layer is 20 nm-1000 nm, and an interfacial peeling force between the inorganic layer and the substrate of the composite separator with a width of 2 cm is no less than 30 N/m, the interfacial peeling force being obtained according to the method described in the description, characterized in that, the inorganic layer is uniformly coated on the surface of the porous substrate and inner walls of at least a part of pores on the surface; and a ratio of a depth of the pores coated with the inorganic layer to a thickness of the porous substrate is 1/1000-1/20. (a) a substrate with a porous structure, and (b) an inorganic layer provided on at least one surface of the substrate, wherein the inorganic layer is an inorganic dielectric layer which is a continuous dense film layer with porosity lower than 10% and contains no binder, the porosity being obtained according to the method described in the description, a thickness of the inorganic layer is 20 nm-1000 nm, and an interfacial peeling force between the inorganic layer and the substrate of the composite separator with a width of 2 cm is no less than 30 N/m, the interfacial peeling force being obtained according to the method described in the description, characterized in that, the inorganic layer is uniformly coated on the surface of the porous substrate and inner walls of at least a part of pores on the surface; and a ratio of a depth of the pores coated with the inorganic layer to a thickness of the porous substrate is 1/1000-1/20. wherein the inorganic layer is an inorganic dielectric layer which is a continuous dense film layer with porosity lower than 10% and contains no binder, the porosity being obtained according to the method described in the description, a thickness of the inorganic layer is 20 nm-1000 nm, and an interfacial peeling force between the inorganic layer and the substrate of the composite separator with a width of 2 cm is no less than 30 N/m, the interfacial peeling force being obtained according to the method described in the description, characterized in that, the inorganic layer is uniformly coated on the surface of the porous substrate and inner walls of at least a part of pores on the surface; and a ratio of a depth of the pores coated with the inorganic layer to a thickness of the porous substrate is 1/1000-1/20.
A video signal processing device comprising: a frame rate conversion unit configured to provide a video signal at a first frame rate from a captured video signal at a second frame rate N times higher than the first frame rate, N being an integer larger than or equal to two; an edge signal detection unit configured to detect, for each frame in the captured video signal, an edge signal corresponding to an edge of a moving subject by filtering each frame in the captured video signal at the second frame rate in horizontal and vertical high pass filter processes; an edge signal generation unit configured to perform an arithmetic process to find a difference absolute value between the detected edge signals of each frame and an adjacent frame, using the detected edge signal of each frame detected with the edge signal detection unit, and generates a first edge signal corresponding to each frame at the first frame rate by summing some or all of the difference absolute values of the detected edge signals of the frames every N frames; and a signal synthesis unit configured to synthesize the first edge signal onto the video signal at the first frame rate to generate a first video signal for a viewfinder display in which the edge of the moving subject is highlighted. a frame rate conversion unit configured to provide a video signal at a first frame rate from a captured video signal at a second frame rate N times higher than the first frame rate, N being an integer larger than or equal to two; an edge signal detection unit configured to detect, for each frame in the captured video signal, an edge signal corresponding to an edge of a moving subject by filtering each frame in the captured video signal at the second frame rate in horizontal and vertical high pass filter processes; an edge signal generation unit configured to perform an arithmetic process to find a difference absolute value between the detected edge signals of each frame and an adjacent frame, using the detected edge signal of each frame detected with the edge signal detection unit, and generates a first edge signal corresponding to each frame at the first frame rate by summing some or all of the difference absolute values of the detected edge signals of the frames every N frames; and a signal synthesis unit configured to synthesize the first edge signal onto the video signal at the first frame rate to generate a first video signal for a viewfinder display in which the edge of the moving subject is highlighted.
An endodontic system comprising: a handpiece that includes a head operable to releasably hold a tool, and a motor operable to rotate the tool while the head holds the tool; and control circuitry operable to: instruct the motor to urge the tool to rotate in a first direction, instruct the motor to quit urging the tool to rotate at a predetermined moment to allow the tool to coast in the first direction, determine a parameter that represents drag experienced by the tool as the tool coasts, if the determined parameter does not exceed a predetermined limit, then instruct the motor to urge the tool to rotate in the first direction, and if the determined parameter does exceed the predetermined limit, then instruct the motor to urge the tool to rotate in another direction opposite the first direction. a handpiece that includes a head operable to releasably hold a tool, and a motor operable to rotate the tool while the head holds the tool; and control circuitry operable to: instruct the motor to urge the tool to rotate in a first direction, instruct the motor to quit urging the tool to rotate at a predetermined moment to allow the tool to coast in the first direction, determine a parameter that represents drag experienced by the tool as the tool coasts, if the determined parameter does not exceed a predetermined limit, then instruct the motor to urge the tool to rotate in the first direction, and if the determined parameter does exceed the predetermined limit, then instruct the motor to urge the tool to rotate in another direction opposite the first direction. instruct the motor to urge the tool to rotate in a first direction, instruct the motor to quit urging the tool to rotate at a predetermined moment to allow the tool to coast in the first direction, determine a parameter that represents drag experienced by the tool as the tool coasts, if the determined parameter does not exceed a predetermined limit, then instruct the motor to urge the tool to rotate in the first direction, and if the determined parameter does exceed the predetermined limit, then instruct the motor to urge the tool to rotate in another direction opposite the first direction.
Silicone-free skin protection agent, in particular cold protection agent, containing the following components: a) 10 to 50 % by weight of at least one oil having a pour point according to DIN ISO 3016 of ≤ -10°C, said oil being selected from hydrocarbons and carbonates, b) 15 to 40 % by weight of at least one polyol, selected from glycerine, propane-1,2-diol, polyethylene glycol, polypropylene glycol, fructose, glucose, saccharose, sorbite and mannitol, c) 1 to 8 % by weight of at least one emulsifier, d) optionally at least one wax, characterized in that the difference in viscosity, in the +4°C to +50°C temperature range, between the highest and the lowest viscosity of the skin protection agent has a value ranging between 0 and ≤ 20,000 mPas. a) 10 to 50 % by weight of at least one oil having a pour point according to DIN ISO 3016 of ≤ -10°C, said oil being selected from hydrocarbons and carbonates, b) 15 to 40 % by weight of at least one polyol, selected from glycerine, propane-1,2-diol, polyethylene glycol, polypropylene glycol, fructose, glucose, saccharose, sorbite and mannitol, c) 1 to 8 % by weight of at least one emulsifier, d) optionally at least one wax,
Tool for screwing helical compression springs to a helical plate spring with a tool body having a passage for receiving a mandrel on which a helical compression spring (29, 30) can be arranged, wherein the passage is arranged concentric with an axis of rotation 7, about which the tool, when screwing the helical compression springs (29, 30), is to rotate in a predetermined direction of rotation, and wherein the tool body has a front surface arranged approximately perpendicular to the rotation axis 7, wherein adjacent to the passage on the front surface a claw for fixing one end of a helical compression spring (29, 30) is formed, characterized in that it has a projection in the direction of rotation.
A laundry cleaning composition comprising: an optional alkalinity source, wherein if the alkalinity source is included is an alkali metal hydroxide, alkali metal carbonate, alkali metal metasilicate, alkali metal silicate, and/or an organic nitrogen base; at least one of a cleaning and/or defoaming surfactant, water conditioning agent, enzyme, oxidizer, and/or optical brightener; and a branched polyamine with the following structure: an optional alkalinity source, wherein if the alkalinity source is included is an alkali metal hydroxide, alkali metal carbonate, alkali metal metasilicate, alkali metal silicate, and/or an organic nitrogen base; at least one of a cleaning and/or defoaming surfactant, water conditioning agent, enzyme, oxidizer, and/or optical brightener; and a branched polyamine with the following structure:
A program comprising instructions which, when the program is executed by a computer, cause the computer to execute a process for adjusting a difference between a first environment map A and a second environment map B; wherein the first environment map A is created based on a feature point of an image in first time-series images captured by a vehicle-mounted camera and positioning information of the vehicle-mounted camera, and the second environment map B is created based on a feature point of an image in second time-series images captured separately from the first time-series images by a vehicle-mounted camera and positioning information of the vehicle-mounted camera, the process comprising: acquiring a feature point of an image in third time-series images captured separately from the first and second time-series images by a vehicle-mounted camera, the program characterized in that the process further comprises: estimating a position and orientation A of the feature point of the image in third time-series images based on the first environment map A, estimating a position and orientation B of the feature point of the image in third time-series images based on the second environment map B, obtaining a positional difference based on comparing the two positions and orientations A and B of the feature point of the image in third time-series images, calculating an adjustment value based on the positional difference for adjusting a position error between the first environment map A and the second environment map B, and correcting the first environment map A or the second environment map B by using the calculated adjustment value. for adjusting a difference between a first environment map A and a second environment map B; wherein the first environment map A is created based on a feature point of an image in first time-series images captured by a vehicle-mounted camera and positioning information of the vehicle-mounted camera, and the second environment map B is created based on a feature point of an image in second time-series images captured separately from the first time-series images by a vehicle-mounted camera and positioning information of the vehicle-mounted camera, the process comprising: acquiring a feature point of an image in third time-series images captured separately from the first and second time-series images by a vehicle-mounted camera, estimating a position and orientation A of the feature point of the image in third time-series images based on the first environment map A, estimating a position and orientation B of the feature point of the image in third time-series images based on the second environment map B, obtaining a positional difference based on comparing the two positions and orientations A and B of the feature point of the image in third time-series images, calculating an adjustment value based on the positional difference for adjusting a position error between the first environment map A and the second environment map B, and correcting the first environment map A or the second environment map B by using the calculated adjustment value.
Grip assembly for a closing device for a movable door or similar on a vehicle, with a first module which includes a grip support and is to be arranged on an inner side (11.4) of the door by means of the grip support, and a second module which is to be arranged on an outer side (11.5) of the door and contains a grip element, wherein the grip element is mounted movably relative to the door to enable operation of the grip assembly, wherein the second module has a grip plate which is to be arranged on the outer side (11.5) of the door, and the grip element is mounted movably on the grip plate, characterized in that the first module includes a locking unit which serves to lock the grip element, wherein the locking unit is operable from a locked position into a released position via an operating unit, and the first module has a cylinder lock which is used for manually unlocking an security system, whereby the locking device is operable by means of the grip element and the operating unit covers the cylinder lock facing the outer side (11.5) of the door, wherein the operating unit at least partially releases the cylinder lock upon manual operation.
A process for the preparation of pyrazole compound of Formula I, said process comprising: a. reacting a compound of Formula II with a compound of Formula IV and hydrochloric acid to obtain a compound of Formula III; and b. reacting the compound of Formula III with water to obtain the compound of Formula I R 4 -OH Formula IV R 1 represents an alkyl group having 1 to 6 carbon atoms, a cycloalkyl group having 3 to 6 carbon atoms or an arylalkyl group which is optionally substituted; R 2 represents hydrogen, an alkyl group having 1 to 6 carbon atoms, a cycloalkyl group having 3 to 6 carbon atoms or an arylalkyl group which is optionally substituted or aryl group which is optionally substituted; R 3 represents an alkyl group having 1 to 6 carbon atoms which is substituted by at least one halogen atom; R 4 represents an alkyl group having 1 to 6 carbon atoms; and Halogen atom is fluorine. a. reacting a compound of Formula II with a compound of Formula IV and hydrochloric acid to obtain a compound of Formula III; and b. reacting the compound of Formula III with water to obtain the compound of Formula I R 4 -OH Formula IV R 1 represents an alkyl group having 1 to 6 carbon atoms, a cycloalkyl group having 3 to 6 carbon atoms or an arylalkyl group which is optionally substituted; R 2 represents hydrogen, an alkyl group having 1 to 6 carbon atoms, a cycloalkyl group having 3 to 6 carbon atoms or an arylalkyl group which is optionally substituted or aryl group which is optionally substituted; R 3 represents an alkyl group having 1 to 6 carbon atoms which is substituted by at least one halogen atom; R 4 represents an alkyl group having 1 to 6 carbon atoms; and Halogen atom is fluorine. R 1 represents an alkyl group having 1 to 6 carbon atoms, a cycloalkyl group having 3 to 6 carbon atoms or an arylalkyl group which is optionally substituted; R 2 represents hydrogen, an alkyl group having 1 to 6 carbon atoms, a cycloalkyl group having 3 to 6 carbon atoms or an arylalkyl group which is optionally substituted or aryl group which is optionally substituted; R 3 represents an alkyl group having 1 to 6 carbon atoms which is substituted by at least one halogen atom; R 4 represents an alkyl group having 1 to 6 carbon atoms; and Halogen atom is fluorine.
An optical sensing apparatus comprising: a substrate formed using a first material; an absorption region formed using a second material different from the first material, the absorption region configured to receive an optical signal and generate photo-carriers in response to receiving the optical signal; an amplification region formed in the substrate configured to collect at least a portion of the photo-carriers from the absorption region and to amplify the portion of the photo-carriers; a buried-dopant region formed in the substrate and separated from the absorption region, wherein the buried-dopant region is configured to collect at least a portion of the amplified portion of the photo-carriers from the amplification region; and characterised by a buffer layer formed between the buried-dopant region and the absorption region, wherein the buffer layer is intrinsic and has a thickness not less than 150 nm. a substrate formed using a first material; an absorption region formed using a second material different from the first material, the absorption region configured to receive an optical signal and generate photo-carriers in response to receiving the optical signal; an amplification region formed in the substrate configured to collect at least a portion of the photo-carriers from the absorption region and to amplify the portion of the photo-carriers; a buried-dopant region formed in the substrate and separated from the absorption region, wherein the buried-dopant region is configured to collect at least a portion of the amplified portion of the photo-carriers from the amplification region; and characterised by a buffer layer formed between the buried-dopant region and the absorption region, wherein the buffer layer is intrinsic and has a thickness not less than 150 nm.
A method for structurally reinforcing a vehicle body stamping comprising: providing a vehicle body stamping including an area on the stamping requiring structural reinforcement; forming a tacky expandable structural adhesive material including at least 1% by weight of components having a low enough molecular weight to be a liquid at about 23° C; locating a mesh material onto the expandable material wherein the mesh adheres to the expandable material due to the tacky nature of the expandable material and wherein the mesh is located in direct planar contact with the expandable material; cutting the expandable material and mesh material to a size and shape that conforms with the area on the stamping requiring structural reinforcement; contacting the expandable material with the area of the stamping requiring reinforcement, wherein the expandable material lies in between the area on the stamping requiring structural reinforcement and the mesh material and wherein the expandable material is in direct planar contact with the area on the stamping requiring structural reinforcement; wherein the expandable material is adapted to expand upon exposure to a predetermined temperature to expand in an amount that is from 100% of its original volume to 300% of its original volume; wherein the method is free of any separate fastening step for connecting the expandable material to the body stamping. providing a vehicle body stamping including an area on the stamping requiring structural reinforcement; forming a tacky expandable structural adhesive material including at least 1% by weight of components having a low enough molecular weight to be a liquid at about 23° C; locating a mesh material onto the expandable material wherein the mesh adheres to the expandable material due to the tacky nature of the expandable material and wherein the mesh is located in direct planar contact with the expandable material; cutting the expandable material and mesh material to a size and shape that conforms with the area on the stamping requiring structural reinforcement; contacting the expandable material with the area of the stamping requiring reinforcement, wherein the expandable material lies in between the area on the stamping requiring structural reinforcement and the mesh material and wherein the expandable material is in direct planar contact with the area on the stamping requiring structural reinforcement; wherein the expandable material is adapted to expand upon exposure to a predetermined temperature to expand in an amount that is from 100% of its original volume to 300% of its original volume; wherein the method is free of any separate fastening step for connecting the expandable material to the body stamping.
A communication method performed by a terminal apparatus, the method comprising: receiving, from a base station apparatus, system information block 1, SIB1, including scheduling information of a system information, SI, message, wherein the scheduling information includes first information indicating a time when said SI message appears said method being characterized in that: the scheduling information additionally includes second information indicating whether the SI message is broadcasted or not, wherein in a case that the SI message is indicated by the second information as broadcasting, receiving the SI message from the base station apparatus according to the scheduling information, and in a case that the SI message is indicated by the second information as not broadcasting, transmitting a SI request message to the base station apparatus, and receiving the SI message from the base station apparatus according to the scheduling information. receiving, from a base station apparatus, system information block 1, SIB1, including scheduling information of a system information, SI, message, wherein the scheduling information includes first information indicating a time when said SI message appears said method being characterized in that: the scheduling information additionally includes second information indicating whether the SI message is broadcasted or not, wherein in a case that the SI message is indicated by the second information as broadcasting, receiving the SI message from the base station apparatus according to the scheduling information, and in a case that the SI message is indicated by the second information as not broadcasting, transmitting a SI request message to the base station apparatus, and receiving the SI message from the base station apparatus according to the scheduling information. the scheduling information additionally includes second information indicating whether the SI message is broadcasted or not, wherein in a case that the SI message is indicated by the second information as broadcasting, receiving the SI message from the base station apparatus according to the scheduling information, and in a case that the SI message is indicated by the second information as not broadcasting, transmitting a SI request message to the base station apparatus, and receiving the SI message from the base station apparatus according to the scheduling information. transmitting a SI request message to the base station apparatus, and receiving the SI message from the base station apparatus according to the scheduling information.