mhurhangee/ep-ind-claims huggingface dataset:
A communication system comprising a plurality of radio relay stations for relaying a radio communication between a terrestrial base station and a terminal apparatus, wherein the plurality of radio relay stations includes a plurality of first radio relay stations (110, 210) capable of communicating with each other, each of the first radio relay stations (110, 210) being installed in a first floating object (10, 20) controlled so as to be located in a floating airspace with an altitude more than or equal to 11 [km] and less than or equal to 50 [km] by an autonomous control or an external control so that a three-dimensional cell is formed in a predetermined cell-formation target airspace between the first radio relay station (110, 210) and a ground level or a sea level, wherein the plurality of radio relay stations includes a second radio relay station installed in a second floating object for relaying a communication between the plurality of first radio relay stations (110, 210) and the terrestrial base station, the second floating object being located in a floating airspace with an altitude less than or equal to 5 [km] so that a three-dimensional cell is formed in a predetermined cell-formation target airspace between the second radio relay station and the ground level or the sea level, wherein the second floating object is located in an upper airspace above a metropolitan area and is moored on a ground or sea, and wherein the first floating object (10, 20) is controlled to be located in an upper airspace above a suburban area, a rural area or the sea where a density of terminal apparatuses is lower than that in the metropolitan area. wherein the plurality of radio relay stations includes a plurality of first radio relay stations (110, 210) capable of communicating with each other, each of the first radio relay stations (110, 210) being installed in a first floating object (10, 20) controlled so as to be located in a floating airspace with an altitude more than or equal to 11 [km] and less than or equal to 50 [km] by an autonomous control or an external control so that a three-dimensional cell is formed in a predetermined cell-formation target airspace between the first radio relay station (110, 210) and a ground level or a sea level, wherein the plurality of radio relay stations includes a second radio relay station installed in a second floating object for relaying a communication between the plurality of first radio relay stations (110, 210) and the terrestrial base station, the second floating object being located in a floating airspace with an altitude less than or equal to 5 [km] so that a three-dimensional cell is formed in a predetermined cell-formation target airspace between the second radio relay station and the ground level or the sea level, wherein the second floating object is located in an upper airspace above a metropolitan area and is moored on a ground or sea, and wherein the first floating object (10, 20) is controlled to be located in an upper airspace above a suburban area, a rural area or the sea where a density of terminal apparatuses is lower than that in the metropolitan area.
A computer implemented method of identifying and programming one or more devices in an environment, the method comprising the steps of: receiving an image file representative of the environment in which the devices are to be installed, said image file comprising one or more indicia representative of a category of device to be installed in the environment, said indicia further comprising data representative of the requirements of the category of device; parsing the image file to identify the category of device, requirements and location of the device represented by each of the one or more indicia; receiving a user defined data set, said user defined data set defining one or more behaviours and properties associated with one or more categories of devices; for some or all of the one or more indicia present on the image file identifying (S104, S106) a device and associated device configuration data for the identified device including properties defined in the user defined data set, wherein the identified device complies with the requirements indicated by the indicia and furthermore wherein the identified device is selected according to the behaviours defined in the user defined data set corresponding to the identified category of device; writing data (S110, S112) comprising each identified device and associated device configuration data into a format readable by an installation system and programming said installation system with each identified device and associated device configuration data. receiving an image file representative of the environment in which the devices are to be installed, said image file comprising one or more indicia representative of a category of device to be installed in the environment, said indicia further comprising data representative of the requirements of the category of device; parsing the image file to identify the category of device, requirements and location of the device represented by each of the one or more indicia; receiving a user defined data set, said user defined data set defining one or more behaviours and properties associated with one or more categories of devices; for some or all of the one or more indicia present on the image file identifying (S104, S106) a device and associated device configuration data for the identified device including properties defined in the user defined data set, wherein the identified device complies with the requirements indicated by the indicia and furthermore wherein the identified device is selected according to the behaviours defined in the user defined data set corresponding to the identified category of device; writing data (S110, S112) comprising each identified device and associated device configuration data into a format readable by an installation system and programming said installation system with each identified device and associated device configuration data.
Method for commissioning goods provided on article palettes in a palette warehouse in stackable piece goods containers, in which goods on a target palette are combined to form the stackable piece goods containers, and the piece goods containers are provided with a lower abutment region that can be raised by a support means of an automatic device for de-palletising the piece goods containers from an underlay and a side wall, characterised by the steps of: - causing a detachable engagement of a holding device of the device for de-palletising with a recess of the side wall of the piece goods container - raising the piece goods container by means of the holding device for separating the abutment region of the piece goods container at least along a partial region from the underlay for causing an intermediary chamber between the abutment region and the underlay - introducing the support means into the intermediary chamber - separating the raised piece goods container from the underlay by means of the support means introduced into the intermediary chamber - delivering the separated piece goods container from the support means to a conveying device - transporting the separated piece goods container by means of the conveying device to an automatic device for palletising the piece goods container in the form of a separated piece goods container or a piece goods container stack having at least two piece goods containers - positioning the separated piece goods container and/or the piece goods container stack on the target palette by means of the automatic device for palletising the piece goods container as a piece goods container or piece goods container stack. - causing a detachable engagement of a holding device of the device for de-palletising with a recess of the side wall of the piece goods container - raising the piece goods container by means of the holding device for separating the abutment region of the piece goods container at least along a partial region from the underlay for causing an intermediary chamber between the abutment region and the underlay - introducing the support means into the intermediary chamber - separating the raised piece goods container from the underlay by means of the support means introduced into the intermediary chamber - delivering the separated piece goods container from the support means to a conveying device - transporting the separated piece goods container by means of the conveying device to an automatic device for palletising the piece goods container in the form of a separated piece goods container or a piece goods container stack having at least two piece goods containers - positioning the separated piece goods container and/or the piece goods container stack on the target palette by means of the automatic device for palletising the piece goods container as a piece goods container or piece goods container stack.
A diagnostic imaging system, comprising: a gantry having a housing defining an interior that contains imaging components; an airflow cooling system that directs a flow of air through the interior of the housing of the gantry and includes an air intake opening and an air exhaust opening that are positioned near the ground, characterized in that a gimbal supports the gantry and attaches to the gantry a two opposed ends of the gantry to provide fluid communication between an air duct system and the interior of the housing of the gantry, and that the system comprises a scan drive mechanism that drives a translation of the gantry and the gimbal relative to a base and a main drive mechanism that drives the entire system in a transport mode. a gantry having a housing defining an interior that contains imaging components; an airflow cooling system that directs a flow of air through the interior of the housing of the gantry and includes an air intake opening and an air exhaust opening that are positioned near the ground, characterized in that a gimbal supports the gantry and attaches to the gantry a two opposed ends of the gantry to provide fluid communication between an air duct system and the interior of the housing of the gantry, and that the system comprises a scan drive mechanism that drives a translation of the gantry and the gimbal relative to a base and a main drive mechanism that drives the entire system in a transport mode.
A mulcher head, comprising a shaft parallel to a ground surface, and equipped with a series of flexible, spaced apart threads, wherein said threads are wound on said shaft and covered by a cylindrical housing bearing coaxially on said shaft, wherein the respective ends of said thread extend through radial bores and sleeves on said housing to the outside, and take on a radial position due to centrifugal force, and further comprising a protective cover, characterized in that said cylindrical housing is a pipe pivotally mounted on said shaft via a freewheeling mechanism, and in that said freewheeling mechanism for winding said threads onto said shaft within said pipe being releasable or switchable such that said protective cover is provided externally to the shaft equipped with said thread with said coaxially covering pipe, wherein for changing the exit or impact geometry of said threads and their effective area on the crops the protective cover is adjustable, such that substantially vertically the distance from the pipe and substantially horizontally the distance between the pipe and the trailing edge of said protective cover can be changed, and/or such that said protective cove being pivotally supported in relation to the rotational axis of said shaft equipped with said thread, so that the position of the trailing edge of said protective cover can be changed for positioning said threads and in relation to the ground surface.
A bacterial inoculating formulation based on a microorganism consortium of genus calothrix sp. to increase yield and quality of vegetable crops, wherein such formulation comprises: a) A microorganism consortium of genus calothrix sp. at a concentration ranging from 0.05% to 10% by weight, wherein the genus calothrix sp. is of the Calothrix castelli species; b) a substrate or immobilizing vehicle to immobilize the microorganism at a concentration ranging from 2% to 80% by weight, wherein the substrate or immobilizing vehicle is selected from the group consisting of leonardite mineral, polymeric material, peat, coconut ash, alginates, agar, wheat and/or corn flour, and mixtures thereof; c) a soil pH buffer at a concentration ranging from 0% to 3% by weight, wherein soil pH buffer is selected from the group consisting of monopotassium phosphate, monosodium phosphate, calcium carbonate, bicarbonate, disodium phosphate, and/or mixtures thereof, and d) water at a concentration ranging from 7% to 97.95% by weight. a) A microorganism consortium of genus calothrix sp. at a concentration ranging from 0.05% to 10% by weight, wherein the genus calothrix sp. is of the Calothrix castelli species; b) a substrate or immobilizing vehicle to immobilize the microorganism at a concentration ranging from 2% to 80% by weight, wherein the substrate or immobilizing vehicle is selected from the group consisting of leonardite mineral, polymeric material, peat, coconut ash, alginates, agar, wheat and/or corn flour, and mixtures thereof; c) a soil pH buffer at a concentration ranging from 0% to 3% by weight, wherein soil pH buffer is selected from the group consisting of monopotassium phosphate, monosodium phosphate, calcium carbonate, bicarbonate, disodium phosphate, and/or mixtures thereof, and d) water at a concentration ranging from 7% to 97.95% by weight.
An active noise control system comprising: a seat (108-111, 405, 605) with a backrest (404, 604), the backrest (404, 604) enclosing a hollow volume; at least one loudspeaker (401, 502, 601, 701) having a main radiation axis and disposed within the hollow volume of the backrest (404, 604); and an automatic noise controller (304, 305, 307, 310 311, 313) connected upstream of the at least one loudspeaker (401, 502, 601, 701) and configured to generate via the at least one loudspeaker (401, 502, 601, 701) anti-noise that is configured to reduce or cancel noise occurring at the seat (108-111, 405, 605), characterized in that the at least one loudspeaker (401, 502, 601, 701) is disposed within at least one enclosure (402, 502) and is positioned so that the main radiation axis of the at least one loudspeaker (401, 502, 601, 701) is upward bound or between forward bound and upward bound, wherein the enclosure (402, 502) is disposed within the hollow volume of the backrest (404, 604) wherein the system comprises a first active noise control sub-system (310, 311, 313) and a second active noise control sub-system (304, 305, 307); wherein the first active noise control sub-system has a higher robustness than the second active noise control sub-system; and at least one additional loudspeaker is disposed outside the backrest (404, 604), wherein the second active noise control sub-system (304, 305, 307) comprises a second automatic noise sub-controller (304, 305, 307) and is connected upstream of the at least one additional loudspeaker disposed outside the backrest (404, 604). a seat (108-111, 405, 605) with a backrest (404, 604), the backrest (404, 604) enclosing a hollow volume; at least one loudspeaker (401, 502, 601, 701) having a main radiation axis and disposed within the hollow volume of the backrest (404, 604); and an automatic noise controller (304, 305, 307, 310 311, 313) connected upstream of the at least one loudspeaker (401, 502, 601, 701) and configured to generate via the at least one loudspeaker (401, 502, 601, 701) anti-noise that is configured to reduce or cancel noise occurring at the seat (108-111, 405, 605), characterized in that the at least one loudspeaker (401, 502, 601, 701) is disposed within at least one enclosure (402, 502) and is positioned so that the main radiation axis of the at least one loudspeaker (401, 502, 601, 701) is upward bound or between forward bound and upward bound, wherein the enclosure (402, 502) is disposed within the hollow volume of the backrest (404, 604) wherein the system comprises a first active noise control sub-system (310, 311, 313) and a second active noise control sub-system (304, 305, 307); wherein the first active noise control sub-system has a higher robustness than the second active noise control sub-system; and at least one additional loudspeaker is disposed outside the backrest (404, 604), wherein the second active noise control sub-system (304, 305, 307) comprises a second automatic noise sub-controller (304, 305, 307) and is connected upstream of the at least one additional loudspeaker disposed outside the backrest (404, 604).
A computer-implemented method for seeding a formulation engine making use of a computer system that comprises one or more processors and one or more computer-readable media having stored thereon executable instructions that when executed by the one or more processors configure the computer system to perform the method, the method comprising: receiving, by the computer system, spectrometric data related to a target coating; processing the spectrometric data, by the one or more processors, through a probabilistic colorant analysis, wherein the probabilistic colorant analysis generates a set of potential colorants, each potential colorant within the set of potential colorants being associated with a calculated probability that an associated potential colorant is present within the target coating; adding, by the one or more processors, at least a portion of the potential colorants within the set of potential colorants to a formulation engine, wherein the portion of the potential colorants are added to the formulation engine in an order of decreasing calculated probability of the potential colorant being present in the target coating; and generating, by the one or more processors, through the formulation engine, a coating formulation that is calculated to match the target coating within a predetermined qualitative or quantitative threshold, wherein adding at least a portion of the potential colorants within the set of potential colorants to a formulation engine comprises: iteratively adding, by the one or more processors, potential colorants selected from the set of potential colorants to the formulation engine in an order of decreasing calculated probability of the potential colorant being present in the target coating until the predetermined qualitative or quantitative threshold is met. receiving, by the computer system, spectrometric data related to a target coating; processing the spectrometric data, by the one or more processors, through a probabilistic colorant analysis, wherein the probabilistic colorant analysis generates a set of potential colorants, each potential colorant within the set of potential colorants being associated with a calculated probability that an associated potential colorant is present within the target coating; adding, by the one or more processors, at least a portion of the potential colorants within the set of potential colorants to a formulation engine, wherein the portion of the potential colorants are added to the formulation engine in an order of decreasing calculated probability of the potential colorant being present in the target coating; and generating, by the one or more processors, through the formulation engine, a coating formulation that is calculated to match the target coating within a predetermined qualitative or quantitative threshold,
A bearing assembly, comprising: a support ring; and a total bearing surface configured to engage a bearing surface of a second bearing assembly; a plurality of first superhard bearing elements mounted to the support ring, the plurality of first superhard bearing elements being distributed about an axis, each of the plurality of first superhard bearing elements having a superhard material including a first superhard bearing surface, the plurality of first superhard bearing elements defining an unreinforced portion of the total bearing surface having a first span angle about the axis; and characterized in that: a plurality of second superhard bearing elements mounted to the support ring, the plurality of second superhard bearing elements being distributed about the axis, each of the plurality of second superhard bearing elements having a superhard material including a second superhard bearing surface, the plurality of second superhard bearing elements defining a reinforced portion of the total bearing surface, the reinforced portion has a second span angle about the axis, the second span angle having the same magnitude as the first span angle, and the reinforced portion having a bearing surface density greater than the unreinforced portion. a support ring; and a total bearing surface configured to engage a bearing surface of a second bearing assembly; a plurality of first superhard bearing elements mounted to the support ring, the plurality of first superhard bearing elements being distributed about an axis, each of the plurality of first superhard bearing elements having a superhard material including a first superhard bearing surface, the plurality of first superhard bearing elements defining an unreinforced portion of the total bearing surface having a first span angle about the axis; and characterized in that: a plurality of second superhard bearing elements mounted to the support ring, the plurality of second superhard bearing elements being distributed about the axis, each of the plurality of second superhard bearing elements having a superhard material including a second superhard bearing surface, the plurality of second superhard bearing elements defining a reinforced portion of the total bearing surface, the reinforced portion has a second span angle about the axis, the second span angle having the same magnitude as the first span angle, and the reinforced portion having a bearing surface density greater than the unreinforced portion.
A graphene electronic device comprising: a first conductive layer (12, 42, 52, 62) formed on a first region of an intermediate layer (11, 41,51, 61) and a semiconductor layer (13, 43, 53, 63) formed over the first conductive layer; a second conductive layer (14, 44, 54, 64) formed on a second region spaced from the first region of the intermediate layer; a graphene layer (15, 45, 55, 65) formed on the intermediate layer, the semiconductor layer and the second conductive layer, so that the semiconductor layer (13, 43, 53, 63) is between the first conductive layer (12, 42, 52, 62) and the graphene layer (15, 45, 55, 65); and a first gate structure and a second gate structure formed on the graphene layer, so that the graphene layer is between the gate structures and the intermediate layer, wherein the first gate structure is formed in a space that corresponds to the first region of the intermediate layer (11, 41), wherein the second gate structure is formed in the space between the first region and the second region of the intermediate layer (11, 41, 51, 61), and wherein there is no gate structure in the second region of the intermediate layer (11, 41, 51, 61). a first conductive layer (12, 42, 52, 62) formed on a first region of an intermediate layer (11, 41,51, 61) and a semiconductor layer (13, 43, 53, 63) formed over the first conductive layer; a second conductive layer (14, 44, 54, 64) formed on a second region spaced from the first region of the intermediate layer; a graphene layer (15, 45, 55, 65) formed on the intermediate layer, the semiconductor layer and the second conductive layer, so that the semiconductor layer (13, 43, 53, 63) is between the first conductive layer (12, 42, 52, 62) and the graphene layer (15, 45, 55, 65); and a first gate structure and a second gate structure formed on the graphene layer, so that the graphene layer is between the gate structures and the intermediate layer, wherein the first gate structure is formed in a space that corresponds to the first region of the intermediate layer (11, 41), wherein the second gate structure is formed in the space between the first region and the second region of the intermediate layer (11, 41, 51, 61), and wherein there is no gate structure in the second region of the intermediate layer (11, 41, 51, 61).