mhurhangee/ep-ind-claims huggingface dataset:
A processor for real-time localization error correction of an autonomous vehicle, being configured to: retrieve (710, 920) a reference landmark around the AV from a map aggregating server, wherein the AV is configured to interact with the MAS for real-time localization; detect (720, 930), in real time, a ground truth landmark corresponding to the reference landmark, according to image data captured by one or more image capture devices installed on the AV; the processor is characterized by being configured to: determine (730, 940) a deviation between the ground truth landmark and the reference landmark as a real-time correction value for the real-time localization of the AV, by projecting the ground truth landmark from an image plane into a real-world plane, and calculating the deviation in the real-world plane; retrieve (910, 1010), from the MAS, a reference correction value associated with a road segment where the AV is travelling; and determine (950, 1060) an average value of the reference correction value and the real-time correction value as a final real-time correction value for the real-time localization. retrieve (710, 920) a reference landmark around the AV from a map aggregating server, wherein the AV is configured to interact with the MAS for real-time localization; detect (720, 930), in real time, a ground truth landmark corresponding to the reference landmark, according to image data captured by one or more image capture devices installed on the AV; the processor is characterized by being configured to: determine (730, 940) a deviation between the ground truth landmark and the reference landmark as a real-time correction value for the real-time localization of the AV, by projecting the ground truth landmark from an image plane into a real-world plane, and calculating the deviation in the real-world plane; retrieve (910, 1010), from the MAS, a reference correction value associated with a road segment where the AV is travelling; and determine (950, 1060) an average value of the reference correction value and the real-time correction value as a final real-time correction value for the real-time localization. determine (730, 940) a deviation between the ground truth landmark and the reference landmark as a real-time correction value for the real-time localization of the AV, by projecting the ground truth landmark from an image plane into a real-world plane, and calculating the deviation in the real-world plane; retrieve (910, 1010), from the MAS, a reference correction value associated with a road segment where the AV is travelling; and determine (950, 1060) an average value of the reference correction value and the real-time correction value as a final real-time correction value for the real-time localization.
An information processing apparatus that communicates with an external apparatus connected thereto via a network, and that receives a request from a web application installed in the external apparatus, and that executes processing in accordance with the request, the information processing apparatus comprising: a display unit for generating a screen corresponding to each of a plurality of web applications, and for displaying in the frontmost side on a display screen a first screen selected from among the screens and corresponding to a first web application that is configured to request execution of a job by the information processing apparatus; a determination unit for determining, upon occurrence of an error during execution of the job instructed through the first web application among the web applications, whether or not the first screen corresponding to the first web application is displayed in the frontmost side on the display screen of the display unit; and a control unit for controlling the display unit so that when the determination unit determines that the first screen is displayed in the frontmost side on the display screen, the display unit displays a first error screen for notification of the error in the frontmost side on the display screen, and when the determination unit determines that the first screen is not displayed in the frontmost side on the display screen, the display unit does not display the first error screen in the frontmost side on the display screen. a display unit for generating a screen corresponding to each of a plurality of web applications, and for displaying in the frontmost side on a display screen a first screen selected from among the screens and corresponding to a first web application that is configured to request execution of a job by the information processing apparatus; a determination unit for determining, upon occurrence of an error during execution of the job instructed through the first web application among the web applications, whether or not the first screen corresponding to the first web application is displayed in the frontmost side on the display screen of the display unit; and a control unit for controlling the display unit so that when the determination unit determines that the first screen is displayed in the frontmost side on the display screen, the display unit displays a first error screen for notification of the error in the frontmost side on the display screen, and when the determination unit determines that the first screen is not displayed in the frontmost side on the display screen, the display unit does not display the first error screen in the frontmost side on the display screen. when the determination unit determines that the first screen is displayed in the frontmost side on the display screen, the display unit displays a first error screen for notification of the error in the frontmost side on the display screen, and when the determination unit determines that the first screen is not displayed in the frontmost side on the display screen, the display unit does not display the first error screen in the frontmost side on the display screen.
Extrusion body for forming a sleeper shoe for a railroad sleeper, wherein the extrusion body has a substantially constant cross-section along its main direction of extension, wherein the extrusion body comprises in cross-section: a wall portion which extends in cross-section along a wall extension direction, and a bottom portion provided at an end portion of the wall portion, wherein the bottom portion extends in a direction different from the wall extension direction, wherein the extrusion body further comprises an elastic insert, characterized in that the elastic insert projects beyond the bottom portion in the direction in which the bottom portion extends in cross-section. wherein the extrusion body has a substantially constant cross-section along its main direction of extension, wherein the extrusion body comprises in cross-section: a wall portion which extends in cross-section along a wall extension direction, and a bottom portion provided at an end portion of the wall portion, wherein the bottom portion extends in a direction different from the wall extension direction, wherein the extrusion body further comprises an elastic insert, characterized in that the elastic insert projects beyond the bottom portion in the direction in which the bottom portion extends in cross-section. a wall portion which extends in cross-section along a wall extension direction, and a bottom portion provided at an end portion of the wall portion, wherein the bottom portion extends in a direction different from the wall extension direction, wherein the extrusion body further comprises an elastic insert, characterized in that the elastic insert projects beyond the bottom portion in the direction in which the bottom portion extends in cross-section.
A hermetic housing (10a, 10b), for an optoelectronic component or for a MEMS device configured to form an enclosure within which a low pressure or vacuum prevails, said hermetic housing (10a, 10b) comprising: - an optical window transparent for at least one wavelength of interest (λ) of said optoelectronic component or of the MEMS device; and - a layer of a getter material (15a, 15b) configured to capture gases present in said enclosure and deposited on said optical window opposite said enclosure; characterized in that the layer of getter material (15a, 15b) has a thickness (e t) greater than 60 nanometers and a porosity in the range from 10% to 70%; the thickness (e t) and the porosity being configured to satisfy the following relation: 1 − P ∗ e t < λ 2 πk with λ corresponding to said at least one wavelength of interest of the optical window, and k corresponding to the extinction coefficient of the material of the layer of getter material (15a, 15b) for said at least one wavelength of interest of the optical window. - an optical window transparent for at least one wavelength of interest (λ) of said optoelectronic component or of the MEMS device; and - a layer of a getter material (15a, 15b) configured to capture gases present in said enclosure and deposited on said optical window opposite said enclosure;
An azole silane compound represented by the following chemical formula (I-1) or (II-1): (in formula (I-1), X represents a hydrogen atom, -CH 3, -NH 2, -SH, or -SCH 3; Y represents -NH-; R represents -CH 3 or -CH 2 CH 3; and m represents an integer of from 1 to 12); [Chem. 2] A 1 -S-S-A 1 (II-1) (in formula (II-1), A 1 represents Z 1 represents -CO-NH-(CH 2) m -Si 3; R represents -CH 3 or -CH 2 CH 3; and m represents an integer of from 1 to 12). Z 1 represents -CO-NH-(CH 2) m -Si 3; R represents -CH 3 or -CH 2 CH 3; and m represents an integer of from 1 to 12).
An air spring device comprising: an air spring having a gas-filled interior defined by an upper face plate, a lower face plate, and a cylindrical flexible diaphragm body hermetically connecting the respective face plates (1, 2); a support plate arranged at a given distance from one of the upper and lower face plates (1, 2) of the air spring; and an elastic body connecting the support plate and the one of the upper and lower face plates (1, 2), wherein the elastic body is provided with a recessed portion in a center region of a face adjacent to the support plate, the recessed portion being recessed toward the one of the upper and lower face plates (1, 2); the elastic body is surrounded and restrained at a support plate side by an annular body which is provided on the support plate and which projects from the support plate; and the one of the upper and lower face plates (1, 2) is provided with a protruding portion protruding to an interior of the annular body. an air spring having a gas-filled interior defined by an upper face plate, a lower face plate, and a cylindrical flexible diaphragm body hermetically connecting the respective face plates (1, 2); a support plate arranged at a given distance from one of the upper and lower face plates (1, 2) of the air spring; and an elastic body connecting the support plate and the one of the upper and lower face plates (1, 2), wherein the elastic body is provided with a recessed portion in a center region of a face adjacent to the support plate, the recessed portion being recessed toward the one of the upper and lower face plates (1, 2); the elastic body is surrounded and restrained at a support plate side by an annular body which is provided on the support plate and which projects from the support plate; and the one of the upper and lower face plates (1, 2) is provided with a protruding portion protruding to an interior of the annular body.
A method of power loss reduction in a power distribution system having a plurality of reactive power resources (104, 124,120, 106, 122) including capacitor banks and distributed energy resources connected to branches of the power distribution system the capacitor banks having discrete switch states and the distributed energy resources operating at continuous set points, the method is characterised in that, that the method is comprising: simultaneously determining discrete switch states for the capacitor banks and continuous set points for the distributed energy resources so that the reactive power provided by the reactive power resources reduces power loss in the power distribution system when the capacitor banks are set in accordance with the respective discrete switch states and the distributed energy resources are operated at the respective continuous set points; constraining a range of values for the continuous set points based on maximum and minimum reactive power limits for each distributed energy resource under consideration; and controlling operation of the capacitor banks and the distributed energy resources based on the simultaneously determined discrete switch states for the capacitor banks and continuous set points for the distributed energy resources. simultaneously determining discrete switch states for the capacitor banks and continuous set points for the distributed energy resources so that the reactive power provided by the reactive power resources reduces power loss in the power distribution system when the capacitor banks are set in accordance with the respective discrete switch states and the distributed energy resources are operated at the respective continuous set points; constraining a range of values for the continuous set points based on maximum and minimum reactive power limits for each distributed energy resource under consideration; and controlling operation of the capacitor banks and the distributed energy resources based on the simultaneously determined discrete switch states for the capacitor banks and continuous set points for the distributed energy resources.
A finishing plate for an electrical accessory, the finishing plate comprising a frame that defines a central opening and that presents a rear face from which snap-fastener tabs (110; 210; 410) extend perpendicularly thereto, each snap-fastener tab (110; 210; 410) comprising: - a flexible tongue (111; 211; 411) that extends along a reference mid-plane and that presents a face (111A; 211A; 411A) that is parallel to said reference mid-plane; and - at least one notch (112; 212; 412) that extends, lengthwise, along the width of said flexible tongue (111; 211; 411) and that presents a catch surface that faces towards a mean plane of said rear face and that projects from said face (111A; 211A; 411A) so as to catch said notch (112; 212; 412) on an internal element of said electrical accessory; the finishing plate being characterized in that at least one of said snap-fastener tabs (110; 210; 410) presents a slot (113; 213; 413) that separates it in its height direction into two portions, so that each of said two portions carries a portion of each notch (112; 212; 412), and so that the two portions are mainly suitable for deforming elastically by flexing in a single direction relative to said reference mid-plane. - a flexible tongue (111; 211; 411) that extends along a reference mid-plane and that presents a face (111A; 211A; 411A) that is parallel to said reference mid-plane; and - at least one notch (112; 212; 412) that extends, lengthwise, along the width of said flexible tongue (111; 211; 411) and that presents a catch surface that faces towards a mean plane of said rear face and that projects from said face (111A; 211A; 411A) so as to catch said notch (112; 212; 412) on an internal element of said electrical accessory;
An apparatus for generating a digital value, the apparatus comprising: a generator, wherein the generator: generates a digital value based on process variation in the semiconductor manufacturing process; characterized by further comprising: a freezing unit connected to the generator, wherein the freezing unit: is fixed to one of a first irreversible state and a second irreversible state based on the generated digital value; and comprises a control unit configured to freeze the digital value. a generator, wherein the generator: generates a digital value based on process variation in the semiconductor manufacturing process; generates a digital value based on process variation in the semiconductor manufacturing process; a freezing unit connected to the generator, wherein the freezing unit: is fixed to one of a first irreversible state and a second irreversible state based on the generated digital value; and comprises a control unit configured to freeze the digital value. is fixed to one of a first irreversible state and a second irreversible state based on the generated digital value; and comprises a control unit configured to freeze the digital value.
Compound according to formula wherein • X and Y, are either both -CH 2 -, or one of X and Y is -CH 2 - and the other one is - O-; and • R 1 is a methyl group or an ethyl group; and • A is either carbon or oxygen; and • one of Z 1 and Z 2 represents a hydroxyl group and the other one is a hydrogen atom; and • R 2 and R 3, independently of each other, represent a hydrogen atom, a methyl group, an ethyl group, or a CF 3 group or R 2 and R 3, together with the carbon they are bound to form a cyclopropyl group; and • wherein the dotted/ solid lines ( ------) represent either a single carbon-carbon bond or a double carbon-carbon bond, with the proviso that, if two of said bonds are double bonds, these bonds are conjugated; and • one of R 6 and R 7 represents a hydrogen atom and the other one represents a radical R 8, wherein R 4 represents a hydrogen atom, a methyl group, an ethyl group, a propyl group, a (CH 2) n OR 9 group where n is 1, 2, 3 or 4; and R 5 represents a hydrogen atom, a methyl group, an ethyl group, a propyl group, or a (CH 2) n OR 10 group where n is 1, 2 or 3, wherein R 9 and R 10, independently of each other, represent a hydrogen atom, a methyl group, or an ethyl group. • X and Y, are either both -CH 2 -, or one of X and Y is -CH 2 - and the other one is - O-; and • R 1 is a methyl group or an ethyl group; and • A is either carbon or oxygen; and • one of Z 1 and Z 2 represents a hydroxyl group and the other one is a hydrogen atom; and • R 2 and R 3, independently of each other, represent a hydrogen atom, a methyl group, an ethyl group, or a CF 3 group or R 2 and R 3, together with the carbon they are bound to form a cyclopropyl group; and • wherein the dotted/ solid lines ( ------) represent either a single carbon-carbon bond or a double carbon-carbon bond, with the proviso that, if two of said bonds are double bonds, these bonds are conjugated; and • one of R 6 and R 7 represents a hydrogen atom and the other one represents a radical R 8, wherein R 4 represents a hydrogen atom, a methyl group, an ethyl group, a propyl group, a (CH 2) n OR 9 group where n is 1, 2, 3 or 4; and R 5 represents a hydrogen atom, a methyl group, an ethyl group, a propyl group, or a (CH 2) n OR 10 group where n is 1, 2 or 3, wherein R 9 and R 10, independently of each other, represent a hydrogen atom, a methyl group, or an ethyl group.
Method for producing a lamp (10, 100) for vehicles, in which a housing (20, 200), a light guide (40, 400) and a cover lens (60, 600) are produced from plastic as a unit in a 3-component injection-moulding method, wherein the light guide (40, 400) has at least one light input position (42, 420) at one end, the refractive index of the plastic of the cover lens (60, 600) is selected to be different from the refractive index of the plastic of the light guide (40, 400), the interface between the cover lens (60, 600) and the light guide (40, 400) next to it is configured with optics (44, 62), and, by means of the difference between the two refractive indices and the optics (44, 62), for predetermined light entry at least one light input position (42, 420) at one end of the light guide (40, 400), light output positions (48, 480) out of the lamp (10, 100) are defined along the extent of the light guide (40, 400), wherein that surface of the light guide (40, 400) which adjoins the lower face of the cover lens (60, 600) is provided with optics, by means of which total reflection positions (46, 460) and output positions (48, 480) for the light which enters the light guide (40, 400) at each light input position (42, 420) are provided by not only the cover lens (60, 600) being configured with corresponding optics on its face lying opposite the optics of the light guide (40, 400), but also the refractive indices of the plastic of the cover lens (60, 600) and of the light guide (40, 400) being different in such a way that, only at the output positions (48, 480), total reflection does not take place.
A magnetoresistive switch sensor comprising: an internal reference voltage circuit, a multiplexer (88, 188), a magnetoresistive, MR, bridge circuit, a comparator circuit (61, 161, 261), a power regulator circuit (83, 383), a digital control circuit (92, 192), a digital output stage circuit (93, 94, 95, 193, 194, 195); said internal reference voltage circuit being connected to ground and to the output of said power regulator circuit, said internal reference voltage circuit having a plurality of reference voltage outputs; said comparator circuit comprising one or more comparators (61, 161, 261), being connected to said power regulator circuit and to ground, said comparator circuit having one or more inputs, and one or more comparator circuit outputs, said one or more comparator circuit outputs being electrically connected to one of the inputs of said digital control circuit; said MR bridge circuit being electrically connected to said power regulator circuit and to ground, said MR bridge circuit output is connected to one input of said comparator circuit; said multiplexer being controlled by said digital control circuit, said multiplexer determining which of the outputs of said internal reference voltage circuit are electrically connected to one of said comparator circuit inputs of the or each comparator; said digital control circuit being configured to electrically control the multiplexer in correspondence with outputs (V A) of the comparator circuit to select reference voltage outputs to supply to the comparator circuit, and having electrical connections to said multiplexer and said digital output stage circuit, characterized in that the digital control system is configured to produce a magnetic field-dependent output selectable between operation as a bipolar switch, unipolar switch, and an omnipolar switch, wherein in operation as an omnipolar switch the digital control system is configured to switch operation of a first comparator of the comparator circuit into a power saving standby mode by disconnecting a respective current source when the magnetoresistive switch sensor is subject to a magnetic field beneath an upper threshold magnetic field, and to switch operation of a second comparator of the comparator circuit in a power saving standby mode by disconnecting a respective current source when the magnetoresistive switch sensor is subject to a magnetic field above a lower threshold magnetic field. an internal reference voltage circuit, a multiplexer (88, 188), a magnetoresistive, MR, bridge circuit, a comparator circuit (61, 161, 261), a power regulator circuit (83, 383), a digital control circuit (92, 192), a digital output stage circuit (93, 94, 95, 193, 194, 195);
A device for retrieval of an occlusion in biological vessel comprising an a plurality of extensions arranged around a distal portion of an elongated body, said plurality of extensions each including an array of surface-mounted projections characterized by said projections being configured as hooks and said array having a circular shape, wherein said projections are spaced 0.01-500 μm (microns) apart.