mhurhangee/ep-ind-claims huggingface dataset:
A device for three-dimensional scanning of an object, said device comprising: - detection means (3,5,7) adapted to obtain orientation information of said device; - optical means adapted to obtain planar information about a position of said device in a first reference plane of said optical means which remains constantly in contact with and tangential to the acquisition surface of said object, said optical means comprising an optical sensor having two orthogonal sensitivity axes, which detects said planar information through the position variations on two dimensions due to sliding of the device on the object surface, by comparing homologous points of two successively acquired frames of the object surface; - processing means adapted to acquire said orientation information and said planar information from said detection means (3,5,7) and from said optical means, respectively, and to process such information in order to obtain an estimate of a position of said device on an axis substantially perpendicular to said first reference plane, to obtain a three-dimensional tracking of the movements of the device and to obtain a three-dimensional representation of said object based on said tracked movements of the device. - detection means (3,5,7) adapted to obtain orientation information of said device; - optical means adapted to obtain planar information about a position of said device in a first reference plane of said optical means which remains constantly in contact with and tangential to the acquisition surface of said object, said optical means comprising an optical sensor having two orthogonal sensitivity axes, which detects said planar information through the position variations on two dimensions due to sliding of the device on the object surface, by comparing homologous points of two successively acquired frames of the object surface; - processing means adapted to acquire said orientation information and said planar information from said detection means (3,5,7) and from said optical means, respectively, and to process such information in order to obtain an estimate of a position of said device on an axis substantially perpendicular to said first reference plane, to obtain a three-dimensional tracking of the movements of the device and to obtain a three-dimensional representation of said object based on said tracked movements of the device.
An air conditioner comprising an indoor unit, an indoor heat exchanger placed in the indoor unit, and an electrical unit, wherein the electrical unit comprises a base, a substrate mounted on the base and having electrical components placed thereon, and a cover for covering the base, wherein the base has a groove portion defined therein so as to extend along an outer periphery thereof, the cover has a protrusion formed therewith so as to be fitted into the groove portion, and characterized in that the electrical unit is placed in the indoor unit at a location delimited by a front face of the indoor heat exchanger, an upper suction opening, and a front suction opening.
An electromagnetic shielding device, comprising: a base for accommodating an electromagnetically transmitting and/or receiving device thereon, and a cover for covering the electromagnetically transmitting and/or receiving device, configured to shield electromagnetic radiation transmitted from or to the electromagnetically transmitting and/or receiving device, wherein the cover and the base are each made from a fabric comprising metal fibers, characterized by a weight increasing member connected to the cover for pressing the cover towards the base from an upper side by gravity, and wherein the cover is folded around the weight increasing member and the weight increasing member is sewn-in in the cover. a base for accommodating an electromagnetically transmitting and/or receiving device thereon, and a cover for covering the electromagnetically transmitting and/or receiving device, configured to shield electromagnetic radiation transmitted from or to the electromagnetically transmitting and/or receiving device, wherein the cover and the base are each made from a fabric comprising metal fibers, characterized by a weight increasing member connected to the cover for pressing the cover towards the base from an upper side by gravity, and wherein the cover is folded around the weight increasing member and the weight increasing member is sewn-in in the cover.
A processing method for mobile communication networks, the method comprising: receiving, on a mobile terminal device, UE, a first data block from a mobile communication network through a first receiving resource of the mobile terminal device, UE, wherein the mobile terminal device, UE, is configured to receive a first radio connection of a first SIM configured to operate in an RRC active mode, while a second SIM is configured to operate in an RRC idle mode; determining by the mobile terminal device, UE, if the first receiving resource of the mobile terminal device, UE, enters a sharing phase during which the first receiving resource is used by the second SIM operating in RRC idle mode to receive paging, to update its location in a tracking area, and/or for Public Land Mobile Network search; transmitting by the mobile terminal device, UE, a first premature Radio Link Control, RLC, status report for reporting successfully in sequence received RLC PDUs to the mobile communication network if the first receiving resource of the mobile terminal device, UE, enters the sharing phase. receiving, on a mobile terminal device, UE, a first data block from a mobile communication network through a first receiving resource of the mobile terminal device, UE, wherein the mobile terminal device, UE, is configured to receive a first radio connection of a first SIM configured to operate in an RRC active mode, while a second SIM is configured to operate in an RRC idle mode; determining by the mobile terminal device, UE, if the first receiving resource of the mobile terminal device, UE, enters a sharing phase during which the first receiving resource is used by the second SIM operating in RRC idle mode to receive paging, to update its location in a tracking area, and/or for Public Land Mobile Network search; transmitting by the mobile terminal device, UE, a first premature Radio Link Control, RLC, status report for reporting successfully in sequence received RLC PDUs to the mobile communication network if the first receiving resource of the mobile terminal device, UE, enters the sharing phase.
A substance that promotes the conversion from coproporphyrinogen III to protoporphyrin IX for use in treating bacterial infection in a subject via ALA-PDT, wherein said substance is selected from the group consisting of ethylenediaminetetraacetic acid (EDTA), N-(2-hydroxyethyl)iminodiacetic acid, diethylenetriaminepentaacetic acid (DTPA), triethylenetetramine-N,N,N',N",N"',N"'-hexaacetic acid, deferoxamine, malic acid, and citric acid.
A system for authenticating an active smart device for unlocking an electronic lock, the system comprising an active smart device, a computing device, an electronic lock, and an encrypted key server, wherein the system is adapted to send an encrypted key to the computing device from the encrypted key server in response to a request form the computing device, use the active smart device for receiving the encrypted key from the computing device, generate an encrypted key limitation by the computing device, wherein the encrypted key limitation is adapted to limit the circumstances under which the active smart device may transmit the encrypted key, transmit the encrypted key limitation from the computing device to the active smart device, send the encrypted key to the electronic lock by the active smart device, if the encrypted key limitation is met, direct the electronic lock to transition from a locked state to an unlocked state based on a result of a comparison of the encrypted key received by the door lock, wherein the key limitation comprises at least one gesture performed with the active smart device, wherein the active smart device is configured to not transmit the encrypted key in response to a determination by the active smart device that the at least one key limitation is not met. send an encrypted key to the computing device from the encrypted key server in response to a request form the computing device, use the active smart device for receiving the encrypted key from the computing device, generate an encrypted key limitation by the computing device, wherein the encrypted key limitation is adapted to limit the circumstances under which the active smart device may transmit the encrypted key, transmit the encrypted key limitation from the computing device to the active smart device, send the encrypted key to the electronic lock by the active smart device, if the encrypted key limitation is met, direct the electronic lock to transition from a locked state to an unlocked state based on a result of a comparison of the encrypted key received by the door lock, wherein the key limitation comprises at least one gesture performed with the active smart device, wherein the active smart device is configured to not transmit the encrypted key in response to a determination by the active smart device that the at least one key limitation is not met.
A method for placing a client in a computer network system, the method comprising: collecting a plurality of resource utilization metrics for each candidate device from a group of candidate devices in the computer network system that can support the client; and assigning continuously variable weights to the resource utilization metrics for each candidate device, wherein each of the resource utilization metrics is assigned one of the continuously variable weights, wherein each of the continuously variable weights is a continuous function which changes continuously as a function of the corresponding resource utilization metric, wherein assigning the continuously variable weights uses at least one non-linear convex function and wherein the assigning the continuously variable weights includes assigning the continuously variable weights using at least two different functions for two different continuously variable weights; computing the selection score using the resource utilization metrics with the continuously variable weights for each candidate device, wherein the selection score is computed by summing products of each one of the resource utilization metrics with the continuously variable weights assigned to that resource utilization metric; and selecting the target candidate device from the group of candidate devices for placement of the client based on the selection score of the target candidate device, to perform resource utilization balancing in the computer network system. collecting a plurality of resource utilization metrics for each candidate device from a group of candidate devices in the computer network system that can support the client; and assigning continuously variable weights to the resource utilization metrics for each candidate device, wherein each of the resource utilization metrics is assigned one of the continuously variable weights, wherein each of the continuously variable weights is a continuous function which changes continuously as a function of the corresponding resource utilization metric, wherein assigning the continuously variable weights uses at least one non-linear convex function and wherein the assigning the continuously variable weights includes assigning the continuously variable weights using at least two different functions for two different continuously variable weights; computing the selection score using the resource utilization metrics with the continuously variable weights for each candidate device, wherein the selection score is computed by summing products of each one of the resource utilization metrics with the continuously variable weights assigned to that resource utilization metric; and selecting the target candidate device from the group of candidate devices for placement of the client based on the selection score of the target candidate device, to perform resource utilization balancing in the computer network system.
Device for wetting at least one sample by means of an aerosol, wherein the device comprises: side walls (4a, 4b, 4c, 4d), a bottom portion bounded by the side walls (4a, 4b, 4c, 4d), the bottom portion being adapted to receive or cooperate with a positioning device for positioning the sample, a cover portion arranged vertically opposite to the bottom portion and bounded by the side walls (4a, 4b, 4c, 4d), the device forming an exposure chamber, an aerosolization device for producing an aerosol which is arranged in the vicinity of the cover portion, wherein the aerosolization device is arranged above the bottom portion such that the aerosolization device at least partially covers the bottom portion in a vertical plan view, wherein the device and/or the aerosolization device are configured to form a cloud, and wherein the cloud has aerosol particle volumes of at least 10 -4 %, the device being characterized in that the device is arranged to operate without external air flow into or out of the device. side walls (4a, 4b, 4c, 4d), a bottom portion bounded by the side walls (4a, 4b, 4c, 4d), the bottom portion being adapted to receive or cooperate with a positioning device for positioning the sample, a cover portion arranged vertically opposite to the bottom portion and bounded by the side walls (4a, 4b, 4c, 4d), the device forming an exposure chamber, an aerosolization device for producing an aerosol which is arranged in the vicinity of the cover portion, wherein the aerosolization device is arranged above the bottom portion such that the aerosolization device at least partially covers the bottom portion in a vertical plan view, wherein the device and/or the aerosolization device are configured to form a cloud, and wherein the cloud has aerosol particle volumes of at least 10 -4 %, the device being characterized in that the device is arranged to operate without external air flow into or out of the device.
Post intended to be driven, at least partially, into the ground, whereby the post has an H-shaped cross-section which is formed by two parallel flanges (7,8) that are connected together by means of a transverse web, characterised in that the post has the H-shaped cross-section over its entire length, except for a part (3,5) of its ends (4,6), where at a first end the post has a point that is formed by the flanges (7,8) of the post at that end having a bevel towards the web and where at the other end the post has a closed head whereby a head plate is provided at that end between the flanges (7,8), transversely to an end of the web.
A method for storing energy and generating electric power comprising the steps of: - feeding non-potable water to a water treatment device, - converting in the water treatment device the non-potable water into distillate and concentrate, - storing at least part of the distillate from the water treatment device in a distillate storage tank, - storing the concentrate from the water treatment device in a concentrate storage tank, - feeding the distillate from the distillate storage tank and the concentrate from the concentrate storage tank to a salient gradient power device to generate electric power, characterized in that the method also comprises the steps of: - using a solar power system to generate electric power and to heat distillate from the water treatment device, - using the heated distillate in the water treatment device to convert the non-potable water into distillate and concentrate, - feeding at least part of the distillate in the water treatment device to the solar power system, - using a part of the electric power generated by the solar power system and the salient gradient power device as a sole source of electric power to operate the water treatment device and the salient gradient power device, - feeding at least part of the electric power generated by the solar power system and the salient gradient power device to an electric power grid. - feeding non-potable water to a water treatment device, - converting in the water treatment device the non-potable water into distillate and concentrate, - storing at least part of the distillate from the water treatment device in a distillate storage tank, - storing the concentrate from the water treatment device in a concentrate storage tank, - feeding the distillate from the distillate storage tank and the concentrate from the concentrate storage tank to a salient gradient power device to generate electric power, - using a solar power system to generate electric power and to heat distillate from the water treatment device, - using the heated distillate in the water treatment device to convert the non-potable water into distillate and concentrate, - feeding at least part of the distillate in the water treatment device to the solar power system, - using a part of the electric power generated by the solar power system and the salient gradient power device as a sole source of electric power to operate the water treatment device and the salient gradient power device, - feeding at least part of the electric power generated by the solar power system and the salient gradient power device to an electric power grid.
Fluidic network for parallel performance of a multiplicity of analyses of biological samples, comprising a flow array having a multiplicity of reaction spaces, wherein the reaction spaces each have a first channel connection and a second channel connection, wherein the first channel connections are connected to a first supply channel and the second channel connections are connected to a second supply channel, wherein the first supply channel and the second supply channel are connected to one another by means of a circulation line, wherein the circulation line has connected thereto at least one component (3, 4, 5, 7) by means of which test reagents are introducible into the reaction spaces of the flow array.
A system comprising: a mass spectrometer, the mass spectrometer configured to provide ion current measurement for a plurality of mass to charge channels over a period of time; a controller coupled to the mass spectrometer; and a liquid handler coupled to the controller and the mass spectrometer; wherein the controller is configured to: identify a base average ion current of each mass to charge interval, the mass to charge interval comprising at least one mass to charge channel; calculate a relative change between a current ion current measurement for a mass to charge interval to the base average for the mass to charge interval; calculate a sum of the relative changes for each mass to charge interval in a scan, a scan being a cycle of ion current measurements across all mass to charge channels; compare the sum of relative changes to a threshold; and in response to determining that the sum of relative changes exceeds the threshold, start fraction collection using the liquid handler. a mass spectrometer, the mass spectrometer configured to provide ion current measurement for a plurality of mass to charge channels over a period of time; a controller coupled to the mass spectrometer; and a liquid handler coupled to the controller and the mass spectrometer; wherein the controller is configured to: identify a base average ion current of each mass to charge interval, the mass to charge interval comprising at least one mass to charge channel; calculate a relative change between a current ion current measurement for a mass to charge interval to the base average for the mass to charge interval; calculate a sum of the relative changes for each mass to charge interval in a scan, a scan being a cycle of ion current measurements across all mass to charge channels; compare the sum of relative changes to a threshold; and in response to determining that the sum of relative changes exceeds the threshold, start fraction collection using the liquid handler. identify a base average ion current of each mass to charge interval, the mass to charge interval comprising at least one mass to charge channel; calculate a relative change between a current ion current measurement for a mass to charge interval to the base average for the mass to charge interval; calculate a sum of the relative changes for each mass to charge interval in a scan, a scan being a cycle of ion current measurements across all mass to charge channels; compare the sum of relative changes to a threshold; and in response to determining that the sum of relative changes exceeds the threshold, start fraction collection using the liquid handler.
A method for preparing graphene reinforced polyethylene terephthalate, comprising: obtaining graphene nanoplatelets initially having a surface area between 15 m 2 /g and 750 m 2 /g; adding the graphene nanoplatelets to a solvent suitable for producing PET; sonicating the solvent and graphene nanoplatelets so as to cause a homogeneous dispersion of the graphene nanoplatelets within the solvent; centrifuging the solvent and graphene nanoplatelets to remove larger graphene nanoplatelets that are not suitably dispersed within the solvent; decanting a supernatant solution of graphene nanoplatelets dispersed in the solvent; and using the supernatant solution for in-situ polymerization of the graphene reinforced PET, comprising: performing an ester interchange reaction to produce a polyethylene terephthalate monomer, followed by performing a polycondensation reaction so as to produce a polyethylene terephthalate polymer chain; and the ester interchange reaction comprising charging the solution of graphene nanoplatelets dispersed in the solvent and powdered dimethyl terephthalate into a reactor under nitrogen at a molar ratio of 2.3:1 with an excess of ethylene glycol, to provide a graphene reinforced PET comprising a continuous matrix comprising polyethylene terephthalate and a dispersed reinforcement phase comprising graphene nanoplatelets in the form of a minimal number of layers of two-dimensional mono-atomic carbon sheets, wherein the number of layers ranges between 1 layer and 7 layers. obtaining graphene nanoplatelets initially having a surface area between 15 m 2 /g and 750 m 2 /g; adding the graphene nanoplatelets to a solvent suitable for producing PET; sonicating the solvent and graphene nanoplatelets so as to cause a homogeneous dispersion of the graphene nanoplatelets within the solvent; centrifuging the solvent and graphene nanoplatelets to remove larger graphene nanoplatelets that are not suitably dispersed within the solvent; decanting a supernatant solution of graphene nanoplatelets dispersed in the solvent; and using the supernatant solution for in-situ polymerization of the graphene reinforced PET, comprising: performing an ester interchange reaction to produce a polyethylene terephthalate monomer, followed by performing a polycondensation reaction so as to produce a polyethylene terephthalate polymer chain; and the ester interchange reaction comprising charging the solution of graphene nanoplatelets dispersed in the solvent and powdered dimethyl terephthalate into a reactor under nitrogen at a molar ratio of 2.3:1 with an excess of ethylene glycol, to provide a graphene reinforced PET comprising a continuous matrix comprising polyethylene terephthalate and a dispersed reinforcement phase comprising graphene nanoplatelets in the form of a minimal number of layers of two-dimensional mono-atomic carbon sheets, wherein the number of layers ranges between 1 layer and 7 layers.