mhurhangee/ep-ind-claims huggingface dataset:
A fluid handling system which can receive one or more labware components, add material to or remove material from the labware component and may perform one or more analytical or chemical operations using materials in, or added to, the labware component, the fluid handling system comprising: a support configured to receive at least one labware components at a labware site on the support, wherein the labware component is configured to receive and retain a fluid; a projector configured to provide an image of the at least one labware component onto the support at the labware site on the support where the at least one labware component is to be placed on the support; a sampling probe configured to aspirate, dispense, aerate, degas, or perform other fluid handling operations on the received fluid in the placed labware component; and a processor electrically coupled to the sampling probe and the image projector and configured to provide a digital image to the projector, wherein the projector receives the digital image from the processor and converts the digital image to the image that is projected in the position above the support at the labware site. a support configured to receive at least one labware components at a labware site on the support, wherein the labware component is configured to receive and retain a fluid; a projector configured to provide an image of the at least one labware component onto the support at the labware site on the support where the at least one labware component is to be placed on the support; a sampling probe configured to aspirate, dispense, aerate, degas, or perform other fluid handling operations on the received fluid in the placed labware component; and a processor electrically coupled to the sampling probe and the image projector and configured to provide a digital image to the projector, wherein the projector receives the digital image from the processor and converts the digital image to the image that is projected in the position above the support at the labware site.
A method for event signaling, wherein the event signaling is based on a multicast technology, the method comprising the steps of: recognizing an event by a sender, wherein the sender is an event publisher; mapping an event and/or an event identifier to a multicast address using a mapping function by the sender, the mapping function commonly shared with related potential event publishers; initiating by the sender an action corresponding to the event via an IP multicast message; putting the multicast message with the corresponding multicast address to an IP data transport network; and sending the multicast message to all the message receivers of the same multicast group by the sender, wherein the message receivers are event-subscribers able to map an event and/or an event identifier to a multicast-address using the mapping function, and which are registered for the event with their respective adjacent router using the corresponding multicast address. recognizing an event by a sender, wherein the sender is an event publisher; mapping an event and/or an event identifier to a multicast address using a mapping function by the sender, the mapping function commonly shared with related potential event publishers; initiating by the sender an action corresponding to the event via an IP multicast message; putting the multicast message with the corresponding multicast address to an IP data transport network; and sending the multicast message to all the message receivers of the same multicast group by the sender, wherein the message receivers are event-subscribers able to map an event and/or an event identifier to a multicast-address using the mapping function, and which are registered for the event with their respective adjacent router using the corresponding multicast address.
A thermoplastic polyester resin composition comprising 0.05 to 10 parts by weight of an epoxy compound and 0.001 to 1 part by weight of a hindered amine compound with respect to 100 parts by weight of a thermoplastic polyester resin having an amount of carboxyl groups, which is determined by dissolving the thermoplastic polyester resin in an o-cresol/chloroform solvent and then titrating the resulting solution with ethanolic potassium hydroxide, of 50 eq/t or less, wherein the thermoplastic polyester resin is at least one resin selected from the group consisting of polyethylene terephthalate, polypropylene terephthalate, polybutylene terephthalate, polypropylene naphthalate, polybutylene naphthalate, polypropylene isophthalate/terephthalate, polybutylene isophthalate/terephthalate, polypropylene terephthalate/naphthalate and polybutylene terephthalate/naphthalate.
A computer-implemented method of dispensing fluid into a fluid container, the method comprising: receiving container size information from a user interface (2772, 2774); receiving an indication that proper placement of a first fluid container is detected by a container sensor, wherein the proper placement includes interfacing a first mating plate of a nozzle of a valve and a second mating plate positioned on a bottom of the fluid container; opening, by an actuator assembly, a fluid flow path between the valve and the first fluid container, wherein the fluid flows from the nozzle to the first fluid container through an opening at the bottom of the first fluid container; determining a volume of the fluid dispensed into the fluid container based on an indication of a number of rotations of a turbine in the valve as detected by a fluid sensor within an amount of time; and closing, by the actuator assembly, the fluid flow path to stop the fluid from flowing into the first fluid container based on the volume of fluid dispensed being within a predetermined threshold of the container size information. receiving container size information from a user interface (2772, 2774); receiving an indication that proper placement of a first fluid container is detected by a container sensor, wherein the proper placement includes interfacing a first mating plate of a nozzle of a valve and a second mating plate positioned on a bottom of the fluid container; opening, by an actuator assembly, a fluid flow path between the valve and the first fluid container, wherein the fluid flows from the nozzle to the first fluid container through an opening at the bottom of the first fluid container; determining a volume of the fluid dispensed into the fluid container based on an indication of a number of rotations of a turbine in the valve as detected by a fluid sensor within an amount of time; and closing, by the actuator assembly, the fluid flow path to stop the fluid from flowing into the first fluid container based on the volume of fluid dispensed being within a predetermined threshold of the container size information.
A lens substrate comprising: a substrate including a through-hole; a lens portion disposed inside the through-hole of the substrate; and a light-shielding film disposed on a side wall of the through-hole, characterized by further comprising: a notched portion at a light-emitting end of the sidewall of the through-hole, wherein the light-shielding film is disposed on a portion of the through-hole other than the notched portion of the sidewall of the through-hole. a substrate including a through-hole; a lens portion disposed inside the through-hole of the substrate; and a light-shielding film disposed on a side wall of the through-hole, characterized by further comprising: a notched portion at a light-emitting end of the sidewall of the through-hole, wherein the light-shielding film is disposed on a portion of the through-hole other than the notched portion of the sidewall of the through-hole.
A dry powder inhaler comprising: an elongate body comprising a proximal end, a distal end and an air inlet disposed therebetween; a reservoir comprising a reservoir cavity; an airway assembly at least partially housed within the body, the airway assembly comprising a first airway, the airway assembly comprises an inner airway element and an outer airway element, the outer airway element at least partially surrounding the inner airway element, wherein the inner airway element comprises at least one curved fin that protrudes into the outer element airway; a mouthpiece comprising a mouthpiece airway that is connected to the first airway; an airway head attached to the airway assembly that extends into the reservoir cavity; and at least one airway assembly opening in the airway assembly connecting the reservoir cavity to the first airway. an elongate body comprising a proximal end, a distal end and an air inlet disposed therebetween; a reservoir comprising a reservoir cavity; an airway assembly at least partially housed within the body, the airway assembly comprising a first airway, the airway assembly comprises an inner airway element and an outer airway element, the outer airway element at least partially surrounding the inner airway element, wherein the inner airway element comprises at least one curved fin that protrudes into the outer element airway; a mouthpiece comprising a mouthpiece airway that is connected to the first airway; an airway head attached to the airway assembly that extends into the reservoir cavity; and at least one airway assembly opening in the airway assembly connecting the reservoir cavity to the first airway.
A brake roller assembly, comprising: a shaft; a first roller bearing coupled to the shaft shaft and disposed at a first axial end of the shaft a second roller bearing coupled to the shaft and disposed at a second axial end of the shaft; a roller cylinder disposed radially outward of the first roller bearing and the second roller bearing; characterised by a braking arrangement, including a plurality of electrodes, and a plurality of rotor disks coupled to the roller cylinder, each rotor disk in the plurality of rotor disks disposed between an anode in the plurality of electrodes and a cathode in the plurality of electrodes. a shaft; a first roller bearing coupled to the shaft shaft and disposed at a first axial end of the shaft a second roller bearing coupled to the shaft and disposed at a second axial end of the shaft; a roller cylinder disposed radially outward of the first roller bearing and the second roller bearing; characterised by a braking arrangement, including a plurality of electrodes, and a plurality of rotor disks coupled to the roller cylinder, each rotor disk in the plurality of rotor disks disposed between an anode in the plurality of electrodes and a cathode in the plurality of electrodes. a plurality of electrodes, and a plurality of rotor disks coupled to the roller cylinder, each rotor disk in the plurality of rotor disks disposed between an anode in the plurality of electrodes and a cathode in the plurality of electrodes.
Aerosol-generating device comprising: a cavity for receiving an aerosol-generating article comprising aerosol-forming substrate, a heating element, wherein the heating element is arranged at least partly surrounding the cavity, and a stopper, wherein the stopper has a circular cross-section in a plane parallel to a longitudinal axis of the cavity and perpendicular to a longitudinal axis of the stopper, wherein the stopper is arranged at a distal portion of the cavity, wherein the stopper is configured to stop the aerosol-generating article, when the aerosol-generating article contacts the stopper, wherein the stopper is arranged transversally spanning the distal portion of the cavity, and wherein the stopper is arranged such that air can flow from distal of the stopper around the stopper into the cavity, wherein the terms 'proximal' and 'distal' describe the relative positions of components, or portions of components, of the aerosol-generating device in relation to the direction in which the components of the device are oriented relative to a user during use of the device with a component oriented towards a user, being a proximal component and a component at the opposite end of the device being a distal component. a cavity for receiving an aerosol-generating article comprising aerosol-forming substrate, a heating element, wherein the heating element is arranged at least partly surrounding the cavity, and a stopper, wherein the stopper has a circular cross-section in a plane parallel to a longitudinal axis of the cavity and perpendicular to a longitudinal axis of the stopper, wherein the stopper is arranged at a distal portion of the cavity, wherein the stopper is configured to stop the aerosol-generating article, when the aerosol-generating article contacts the stopper, wherein the stopper is arranged transversally spanning the distal portion of the cavity, and wherein the stopper is arranged such that air can flow from distal of the stopper around the stopper into the cavity, wherein the terms 'proximal' and 'distal' describe the relative positions of components, or portions of components, of the aerosol-generating device in relation to the direction in which the components of the device are oriented relative to a user during use of the device with a component oriented towards a user, being a proximal component and a component at the opposite end of the device being a distal component.
A method for analyzing a color reproduction workflow including a proofer process, a formulation process and a printer process, the method comprising: a) identifying the proofer process, the formulation process and the printer process, and b) characterizing each of the one or more color reproduction processes, c) wherein the characterizing includes determining, for each of the proofer process, the formulation process and the printer process, a statistical probability density function describing a probability of color reproduction random variations with respect to reproducing one or more colors for the respective one of the proofer process, the formulation process and the printer process; and d) calculating a statistical error stack describing a color variance of color reproduction random variations by adding the variance of color reproduction random variations of the proofer process, the variance of color reproduction random variations of the process and the variance of color reproduction random variations of the printer process. a) identifying the proofer process, the formulation process and the printer process, and b) characterizing each of the one or more color reproduction processes, c) wherein the characterizing includes determining, for each of the proofer process, the formulation process and the printer process, a statistical probability density function describing a probability of color reproduction random variations with respect to reproducing one or more colors for the respective one of the proofer process, the formulation process and the printer process; and d) calculating a statistical error stack describing a color variance of color reproduction random variations by adding the variance of color reproduction random variations of the proofer process, the variance of color reproduction random variations of the process and the variance of color reproduction random variations of the printer process.
A method for resource reconfiguration, comprising: at a controller for a cloud radio access network, RAN, for managing a baseband unit, BU, pool, for a cloud RAN, determining system status and a resource usage condition of the BU pool; identifying, by the controller, a resource to be reconfigured based on the system status and the resource usage condition, the resource being selected from a virtual machine running on a server in the BU pool or from a processing module in an accelerator in the BU pool; determining, by the controller, an address of a target device using the resource, the target device being selected from the server or the accelerator in the BU pool; and sending, by the controller, an indication of reconfiguration of the resource to the target device, wherein the indication of reconfiguration comprises a target device type for indicating whether the target device is a server or an accelerator. at a controller for a cloud radio access network, RAN, for managing a baseband unit, BU, pool, for a cloud RAN, determining system status and a resource usage condition of the BU pool; identifying, by the controller, a resource to be reconfigured based on the system status and the resource usage condition, the resource being selected from a virtual machine running on a server in the BU pool or from a processing module in an accelerator in the BU pool; determining, by the controller, an address of a target device using the resource, the target device being selected from the server or the accelerator in the BU pool; and sending, by the controller, an indication of reconfiguration of the resource to the target device, wherein the indication of reconfiguration comprises a target device type for indicating whether the target device is a server or an accelerator.
A method of generating a fastener and securing at least one product to at least one packaging comprising the steps of: stocking an apparatus with a filament and a plurality of T-bar elements, wherein the apparatus comprises an applicator module and a needle; penetrating the packaging with the needle at a first position; deploying a first T-bar element through the needle; and engaging the first T-bar element to the filament at the first position. stocking an apparatus with a filament and a plurality of T-bar elements, wherein the apparatus comprises an applicator module and a needle; penetrating the packaging with the needle at a first position; deploying a first T-bar element through the needle; and engaging the first T-bar element to the filament at the first position.
Method of managing refuse collection receptacles, each receptacle comprising means for data storage and means for reading the information contained in the storage means, the method comprising a step of reading data contained in the storage means relating to the receptacle, the data relating to the receptacle entered in the storage means defining a geographical area, a step of determining the position of the receptacle and a test step to check whether the position of the receptacle lies within the geographical area, the method being characterised in that it comprises a step of determining the conformity of an address of the receptacle comprising a step of determining the distance between the position of the receptacle and the geographical area and a step of comparing the distance measured with a reference distance, then a last step of storing data in the storage means of a receptacle, said data being for example a storage date, a reason for non collection of the receptacle, an overbilling amount, a distance from the receptacle to the geographical area.
A method for controlling the acceleration of a vehicle, said method being carried out by at least one computer embedded in said vehicle and comprising the following steps: - determination of a target acceleration value at a current time for an adaptive speed control system said vehicle, said target acceleration value being determined from data representative of a moving object at a specified distance in front of said vehicle, said data being received from at least one object detection sensor embedded in said vehicle; - comparison of said target acceleration value with a first acceleration setpoint provided to said adaptive speed control system at a time preceding said current time; - determination of a second acceleration setpoint for said current time based on a result of said comparison, said second acceleration setpoint being a function of a comparison result between, on the one hand, said target acceleration value and, on the other hand, the first acceleration instruction modified according to a variation in acceleration, known as the shaking value, said shaking value being a function of information representative of a level of dangerousness of a situation in which said vehicle finds itself in relation to said moving object; the method further comprising a step for controlling said adaptive speed control system based on the second acceleration setpoint. - determination of a target acceleration value at a current time for an adaptive speed control system said vehicle, said target acceleration value being determined from data representative of a moving object at a specified distance in front of said vehicle, said data being received from at least one object detection sensor embedded in said vehicle; - comparison of said target acceleration value with a first acceleration setpoint provided to said adaptive speed control system at a time preceding said current time; - determination of a second acceleration setpoint for said current time based on a result of said comparison, said second acceleration setpoint being a function of a comparison result between, on the one hand, said target acceleration value and, on the other hand, the first acceleration instruction modified according to a variation in acceleration, known as the shaking value, said shaking value being a function of information representative of a level of dangerousness of a situation in which said vehicle finds itself in relation to said moving object;
An optical interconnect comprising: an optical fiber; a interconnect body, the optical fiber terminating in the interconnect body; a micro lens which collimates light exiting the optical fiber to produce a collimated beam; a first personality module which is configured to operate on the collimated beam; the first personality module being an interchangeable element that is aligned with and detachably connected to the interconnect body wherein the first personality module comprising an optical element configured to optically manipulate the collimated light beam in which the optical interconnect is configured to be inserted into a socket in an optical backplane, the first personality module being further configured to operate on the light passing between the optical backplane and the optical interconnect. an optical fiber; a interconnect body, the optical fiber terminating in the interconnect body; a micro lens which collimates light exiting the optical fiber to produce a collimated beam; a first personality module which is configured to operate on the collimated beam; the first personality module being an interchangeable element that is aligned with and detachably connected to the interconnect body wherein the first personality module comprising an optical element configured to optically manipulate the collimated light beam in which the optical interconnect is configured to be inserted into a socket in an optical backplane, the first personality module being further configured to operate on the light passing between the optical backplane and the optical interconnect.