mhurhangee/ep-ind-claims huggingface dataset:
A header for an agricultural harvester including a drive system, the header comprising: a chassis having first and second lateral ends (126,128); a power takeoff member (172a,172b) having a first end operatively connected to the agricultural harvester drive system and a second end; and a drive assembly that includes: a gearbox (174a,174b) operably connected to the second end of the power takeoff member (172a,172b); and a drive shaft (176a,176b) extending from the gearbox (174a,174b) to a secondary gearbox (178a,178b) disposed between the first and second lateral ends (126,128) of the chassis and operably connected to a rotating line shaft (156,160), wherein the drive shaft (176a,176b) is disposed at an acute angle with respect to the rotating line shaft (156,160); and characterized in that the secondary gearbox (178a,178b) is located proximate a midpoint of the rotating line shaft (156,160). a chassis having first and second lateral ends (126,128); a power takeoff member (172a,172b) having a first end operatively connected to the agricultural harvester drive system and a second end; and a drive assembly that includes: a gearbox (174a,174b) operably connected to the second end of the power takeoff member (172a,172b); and a drive shaft (176a,176b) extending from the gearbox (174a,174b) to a secondary gearbox (178a,178b) disposed between the first and second lateral ends (126,128) of the chassis and operably connected to a rotating line shaft (156,160), wherein the drive shaft (176a,176b) is disposed at an acute angle with respect to the rotating line shaft (156,160); and characterized in that the secondary gearbox (178a,178b) is located proximate a midpoint of the rotating line shaft (156,160). a gearbox (174a,174b) operably connected to the second end of the power takeoff member (172a,172b); and a drive shaft (176a,176b) extending from the gearbox (174a,174b) to a secondary gearbox (178a,178b) disposed between the first and second lateral ends (126,128) of the chassis and operably connected to a rotating line shaft (156,160), wherein the drive shaft (176a,176b) is disposed at an acute angle with respect to the rotating line shaft (156,160); and characterized in that the secondary gearbox (178a,178b) is located proximate a midpoint of the rotating line shaft (156,160).
A mold comprising alumina having a microscopic pattern, in which distances between adjacent recesses or salients are not longer than wavelength of visible light, formed by anodic oxidation on a surface of an alminum pre-mold without a rolling mark, wherein height or depth of a crystal grain boundary of the aluminum beneath the alumina is 300 nm or less, and a standard deviation of respective barycentric distances between an arbitrary recess and 6 recesses adjacent thereto in the microscopic pattern is 6.0 to 12.0.
A data processing device comprising: a first processing unit; a second processing unit; a page table of a memory shared by the first and second processing units; a first translation look-aside buffer hierarchy configured to store selected address translations of the page table for use by the first processing unit; a second TLB hierarchy configured to store selected address translations of the page table for use by the second processing unit; characterised by the processing device configured to probe the second TLB hierarchy for an address translation requested by the first processing unit upon a condition that the requested address translation was not found in the first TLB hierarchy; and the processing device configured to probe the first TLB hierarchy for an address translation requested by the second processing unit upon a condition that the address translation requested by the second processing unit was not found in the second TLB hierarchy. a first processing unit; a second processing unit; a page table of a memory shared by the first and second processing units; a first translation look-aside buffer hierarchy configured to store selected address translations of the page table for use by the first processing unit; a second TLB hierarchy configured to store selected address translations of the page table for use by the second processing unit; characterised by the processing device configured to probe the second TLB hierarchy for an address translation requested by the first processing unit upon a condition that the requested address translation was not found in the first TLB hierarchy; and the processing device configured to probe the first TLB hierarchy for an address translation requested by the second processing unit upon a condition that the address translation requested by the second processing unit was not found in the second TLB hierarchy.
A display processing method, comprising: performing a processing for adjusting positions of voxel data for an object and data of a geometric model for the object; calculating, for each voxel included in a range defined by a cross section among a plurality of voxels that are included in the voxel data, a voxel value of the voxel from physical values in elements of the geometric model, which are included in a predetermined range of the voxel, based on a relation between the cross section and first vectors, wherein a first vector of the first vectors is set for one element of a plurality of elements included in the geometric model, the first vectors represent a direction of an inner structure of the object, and the cross section is set for the voxel data and the geometric model data; and rendering an image by using the voxel value calculated for each voxel. performing a processing for adjusting positions of voxel data for an object and data of a geometric model for the object; calculating, for each voxel included in a range defined by a cross section among a plurality of voxels that are included in the voxel data, a voxel value of the voxel from physical values in elements of the geometric model, which are included in a predetermined range of the voxel, based on a relation between the cross section and first vectors, wherein a first vector of the first vectors is set for one element of a plurality of elements included in the geometric model, the first vectors represent a direction of an inner structure of the object, and the cross section is set for the voxel data and the geometric model data; and rendering an image by using the voxel value calculated for each voxel.
A method comprising: providing (202, 902) a microfluidic chip, the microfluidic chip comprising a microfluidic channel with one or more electric-field-generating structures located therein, including a first electric-field-generating structure, wherein the one or more electric-field-generating structures is configured to selectively polarize or manipulate cells or particles flowing within the microfluidic channel; and measuring (204, 904), via an on-chip impedance sensing element, impedance spectra for at least one internal capacitive structure of the first electric-field-generating structure and characteristic of the cells or particles, wherein the measured impedance spectra is used to determine an available voltage fraction and corresponding cut-off frequency for i) control of the polarization or manipulation of the cells or particles when flowing through the microfluidic channel and ii) geometric or functional quantification of the at least one internal capacitive structure or of the microfluidic chip. providing (202, 902) a microfluidic chip, the microfluidic chip comprising a microfluidic channel with one or more electric-field-generating structures located therein, including a first electric-field-generating structure, wherein the one or more electric-field-generating structures is configured to selectively polarize or manipulate cells or particles flowing within the microfluidic channel; and measuring (204, 904), via an on-chip impedance sensing element, impedance spectra for at least one internal capacitive structure of the first electric-field-generating structure and characteristic of the cells or particles, wherein the measured impedance spectra is used to determine an available voltage fraction and corresponding cut-off frequency for i) control of the polarization or manipulation of the cells or particles when flowing through the microfluidic channel and ii) geometric or functional quantification of the at least one internal capacitive structure or of the microfluidic chip.
A conductive material comprising: a conductive nonwoven web comprising a first fiber combined with a second fiber, the first fiber comprising conductive fibers, the conductive fibers comprising carbon fibers, the second fiber comprising pulp fibers, synthetic fibers, or mixtures thereof, the conductive fibers being present in the nonwoven web in an amount from about 5% by weight to about 50% by weight; characterised in that the conductive nonwoven web includes conductive zones (260, 262, 264) and non-conductive zones (266, 268), the non-conductive zones (266, 268) comprising ultrasonically treated areas, and wherein the conductive zones (260, 262, 264) and the non-conductive zones (266, 268) form an electric circuit in the web. a conductive nonwoven web comprising a first fiber combined with a second fiber, the first fiber comprising conductive fibers, the conductive fibers comprising carbon fibers, the second fiber comprising pulp fibers, synthetic fibers, or mixtures thereof, the conductive fibers being present in the nonwoven web in an amount from about 5% by weight to about 50% by weight; characterised in that the conductive nonwoven web includes conductive zones (260, 262, 264) and non-conductive zones (266, 268), the non-conductive zones (266, 268) comprising ultrasonically treated areas, and wherein the conductive zones (260, 262, 264) and the non-conductive zones (266, 268) form an electric circuit in the web.
A user equipment, UE, operable to communicate in a device to device, D2D, network, having computer circuitry configured to: - communicate, to an evolved packet core, EPC, (318, 406, 506, 606, 706), a proximity detection request (414, 514, 614, 714), wherein the proximity detection request includes: - a window parameter, wherein the window parameter includes a date window parameter and/or a location window parameter; - an identification information of a second UE, and - a proximity detection signal indicating whether the proximity detection request (414, 514, 614, 714) is for proximity detection of the second UE or for establishing a D2D connection with the second UE; and - receive, from the EPC (318, 406, 506, 606, 706), a proximity alert message (422, 522) at a selected date and/or location based on the window parameter. - communicate, to an evolved packet core, EPC, (318, 406, 506, 606, 706), a proximity detection request (414, 514, 614, 714), wherein the proximity detection request includes: - a window parameter, wherein the window parameter includes a date window parameter and/or a location window parameter; - an identification information of a second UE, and - a proximity detection signal indicating whether the proximity detection request (414, 514, 614, 714) is for proximity detection of the second UE or for establishing a D2D connection with the second UE; and - a window parameter, wherein the window parameter includes a date window parameter and/or a location window parameter; - an identification information of a second UE, and - a proximity detection signal indicating whether the proximity detection request (414, 514, 614, 714) is for proximity detection of the second UE or for establishing a D2D connection with the second UE; and - receive, from the EPC (318, 406, 506, 606, 706), a proximity alert message (422, 522) at a selected date and/or location based on the window parameter.
A computer program comprising instructions which, when the program is executed by a computer, cause the computer to carry out the following steps: a step of causing an image capture means to capture a video of a subject; a step of generating plural avatars based on plural images constituting the video captured by the image capture means, the plural images corresponding respectively to different image capture timings, and each of the plural avatars representing a subject shown in one of the plural images; and a step of causing a display means to display the generated plural avatars, wherein the step of generating each of the plural avatars further comprises: a step of identifying a feature of each of parts of a subject in an image constituting the video captured by the image capture means, the image corresponding to a predetermined image capture timing; a step of selecting, for each of the parts of a subject, a part image according to the identified feature from among plural part images prepared for each of the parts; and a step of combining the selected part images of the parts to generate an avatar. a step of causing an image capture means to capture a video of a subject; a step of generating plural avatars based on plural images constituting the video captured by the image capture means, the plural images corresponding respectively to different image capture timings, and each of the plural avatars representing a subject shown in one of the plural images; and a step of causing a display means to display the generated plural avatars, wherein the step of generating each of the plural avatars further comprises: a step of identifying a feature of each of parts of a subject in an image constituting the video captured by the image capture means, the image corresponding to a predetermined image capture timing; a step of selecting, for each of the parts of a subject, a part image according to the identified feature from among plural part images prepared for each of the parts; and a step of combining the selected part images of the parts to generate an avatar. a step of identifying a feature of each of parts of a subject in an image constituting the video captured by the image capture means, the image corresponding to a predetermined image capture timing; a step of selecting, for each of the parts of a subject, a part image according to the identified feature from among plural part images prepared for each of the parts; and a step of combining the selected part images of the parts to generate an avatar.
A composite material comprising: an apatite crystal in the form of a tube having a tube-hole inner diameter of at least 0.5 μm; and a functional component accommodated in the apatite crystal tube and constituted by a material of physical properties different from those of the apatite crystal, characterized in that the functional component is constituted by a material of higher rigidity than that of the apatite crystal, wherein the material of higher rigidity is titanium, aluminum, or an alloy thereof. an apatite crystal in the form of a tube having a tube-hole inner diameter of at least 0.5 μm; and a functional component accommodated in the apatite crystal tube and constituted by a material of physical properties different from those of the apatite crystal, characterized in that the functional component is constituted by a material of higher rigidity than that of the apatite crystal, wherein the material of higher rigidity is titanium, aluminum, or an alloy thereof.
A method for processing 360° video, the method comprising: receiving video data for a planar image and metadata for processing the video data, wherein the planar image includes a plurality of regions, the planar image is generated based on projecting an omnidirectional image to a cube, and each of the faces of the cube corresponds to one of the plurality of regions; and rendering an omnidirectional image based on the video data and the metadata, characterized in that the metadata comprises a guard margin indicator indicating for each boundary of the plurality of regions whether a guard margin is applied, and information specifying an area to which the guard margin is applied, and wherein if the guard margin is applied to a boundary of the plurality of regions, the guard margin extends the boundary of the plurality of regions for avoiding visual artifacts. receiving video data for a planar image and metadata for processing the video data, wherein the planar image includes a plurality of regions, the planar image is generated based on projecting an omnidirectional image to a cube, and each of the faces of the cube corresponds to one of the plurality of regions; and rendering an omnidirectional image based on the video data and the metadata, characterized in that the metadata comprises a guard margin indicator indicating for each boundary of the plurality of regions whether a guard margin is applied, and information specifying an area to which the guard margin is applied, and wherein if the guard margin is applied to a boundary of the plurality of regions, the guard margin extends the boundary of the plurality of regions for avoiding visual artifacts.
A display apparatus comprising: a display unit configured to display a picture comprising a plurality of objects that have been generated in a given order; an obtaining unit configured to obtain coordinates on a display region of the display unit; an object display unit configured to display an object in the display region of the display unit at a position of the coordinates obtained by the obtaining unit; and a generating unit configured to generate object data of the object, the object data including order information that is data representing the order position in said given order at which the object has been generated, characterized by a script transmitting unit configured to transmit, to a client, a script for obtaining the object data, wherein the script is configured to generate a request requesting the object data from the display apparatus when executed; a receiving unit configured to receive order information transmitted by the client; and a data transmitting unit configured to transmit the object data generated by the generating unit to the client, wherein the data transmitting unit is configured to transmit, to the client, items of object data that correspond to all those objects that range from the object that has been generated first to the object that has been generated at the order position represented by the order information received by the receiving unit. a display unit configured to display a picture comprising a plurality of objects that have been generated in a given order; an obtaining unit configured to obtain coordinates on a display region of the display unit; an object display unit configured to display an object in the display region of the display unit at a position of the coordinates obtained by the obtaining unit; and a generating unit configured to generate object data of the object, the object data including order information that is data representing the order position in said given order at which the object has been generated, characterized by a script transmitting unit configured to transmit, to a client, a script for obtaining the object data, wherein the script is configured to generate a request requesting the object data from the display apparatus when executed; a receiving unit configured to receive order information transmitted by the client; and a data transmitting unit configured to transmit the object data generated by the generating unit to the client, wherein the data transmitting unit is configured to transmit, to the client, items of object data that correspond to all those objects that range from the object that has been generated first to the object that has been generated at the order position represented by the order information received by the receiving unit.
Electric control device provided with operating means and a support, the operating means being movable relative to this support, the operating means being intended to be displaced relative to the support by a person, the electric control device comprising a first measuring system which carries out a first measurement of a current position of the operating means relative to a neutral position, the electric control device comprising a second measuring system, the first measuring system and the second measuring system being independent and dissimilar, the electric control device comprising a processing unit, characterised in that the second measuring system carries out a second measuring of the current position, and in that the processing unit compares the first measurement and the second measurement to generate a control signal depending on said current position, the processing unit considering that the operating means is in said neutral position when the first measurement and the second measurement do not correspond to a same position of the operating means.
A cosmetic and/or pharmaceutical formulation comprising 0.1 to 80% by weight of a linear hydrocarbon selected from the group consisting of C15, C17 and C19 hydrocarbons or mixtures thereof, where said hydrocarbons account for more than 95% by weight, based on the sum total of the hydrocarbons comprising in the formulation.
A smart wearable device, wherein the smart wearable device comprises a detection apparatus (209, 210) and a case, the detection apparatus (209, 210) specifically comprises one set of measuring parts and a plurality of sets of light emitting parts (305, 306, 307); the one set of measuring parts and the plurality of sets of light emitting parts (305, 306, 307) are inlaid into the case and arranged into a polygon, wherein each of the plurality of sets of light emitting parts (305, 306, 307) and the one set of measuring parts each occupies one of a plurality of angles of the polygon, and a central position of the polygon is at a specified distance to each angle of the polygon, wherein the plurality of sets of light emitting parts comprise a first set of light emitting parts and a second set of light emitting parts, the first set of light emitting parts and the second set of light emitting parts are adjacent to the one set of measuring parts, the first set of light emitting parts and the second set of light emitting parts are configured to send light for detecting heart rate, characterized in that the smart wearable device comprises in addition a third set of light emitting parts, the third set of light emitting parts are opposite to the one set of measuring parts, and the third set of light emitting parts are adjacent to the first set of light emitting parts and the second set of light emitting parts; the first set of light emitting parts and the second set of light emitting parts are configured to send green light; and the third set of light emitting parts is configured to send red light and/or infrared light for detecting blood oxygen. wherein the plurality of sets of light emitting parts comprise a first set of light emitting parts and a second set of light emitting parts, the first set of light emitting parts and the second set of light emitting parts are adjacent to the one set of measuring parts, the first set of light emitting parts and the second set of light emitting parts are configured to send light for detecting heart rate, characterized in that the smart wearable device comprises in addition a third set of light emitting parts, the third set of light emitting parts are opposite to the one set of measuring parts, and the third set of light emitting parts are adjacent to the first set of light emitting parts and the second set of light emitting parts; the first set of light emitting parts and the second set of light emitting parts are configured to send green light; and the third set of light emitting parts is configured to send red light and/or infrared light for detecting blood oxygen.
Seat post for a bicycle, comprising a first end which can be connected to a bicycle frame and a second end which can be connected to a saddle, wherein the seat post has at least two longitudinal portions (164, 165), which mesh with one another and can be moved along their longitudinal extension in relation to one another, wherein the seat post also has a securing device, by means of which the two longitudinal portions (164, 165) can be fixed at a predeterminable relative position to one another, characterized in that the securing device can be influenced by a radio signal.