mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting microscopic objects of foreign origin present in a fluid, the microscopic object of foreign origin being not formed of the fluid itself, the method comprising: obtaining prepared image data originating from a hologram digital image frame captured by an image sensor receiving light propagated across a sample volume, containing a fluid possibly comprising microscopic objects of foreign origin, while illuminating the sample volume by coherent light, whereby the possible microscopic objects scatter part of the light, the scattered and non-scattered light interfering so as to form interference fringes behind the microscopic objects, the prepared image data comprising, for a microscopic object, a prepared hologram pattern with prepared spatially alternating intensity formed by the interference fringes; providing filtered image data, comprising automatically filtering the prepared image data by an edge enhancing filter, the filtered image data comprising, for a prepared hologram pattern present in the prepared image data, a filtered hologram pattern, said filtering the prepared image data initially producing, for a prepared hologram pattern, filtered spatially alternating intensity component with positive and negative values, wherein providing the filtered image data further comprises automatically converting the negative values into their absolute values; and automatically detecting, on the basis of the filtered hologram pattern, the presence of the microscopic object associated with the filtered hologram pattern in the sample volume of the fluid. obtaining prepared image data originating from a hologram digital image frame captured by an image sensor receiving light propagated across a sample volume, containing a fluid possibly comprising microscopic objects of foreign origin, while illuminating the sample volume by coherent light, whereby the possible microscopic objects scatter part of the light, the scattered and non-scattered light interfering so as to form interference fringes behind the microscopic objects, the prepared image data comprising, for a microscopic object, a prepared hologram pattern with prepared spatially alternating intensity formed by the interference fringes; providing filtered image data, comprising automatically filtering the prepared image data by an edge enhancing filter, the filtered image data comprising, for a prepared hologram pattern present in the prepared image data, a filtered hologram pattern, said filtering the prepared image data initially producing, for a prepared hologram pattern, filtered spatially alternating intensity component with positive and negative values, wherein providing the filtered image data further comprises automatically converting the negative values into their absolute values; and automatically detecting, on the basis of the filtered hologram pattern, the presence of the microscopic object associated with the filtered hologram pattern in the sample volume of the fluid.
A printing fluid dispersing method for a printing system, the method comprising transferring printing fluid from a supply to an element within the printing system by a pump, wherein, between the supply and the element, a nozzle is provided comprising a plurality holes so that the transferring of printing fluid comprises forcing, by the pump, the printing fluid through the plurality of holes of the nozzle, characterized by the method further comprising determining a clogging state of the nozzle, wherein determining the clogging state of the nozzle comprises measuring a pressure between the pump and the nozzle so that if the pressure exceeds a predetermined threshold, the clogging state is determined.
A system comprising: one or more processors; a memory; and one or more components stored in the memory and executable by the one or more processors to perform operations comprising: receiving, at a web access inter-working function, WxIWF, a request to establish a communication between a user equipment, UE, and a 5th Generation, 5G, core network, wherein the UE is communicatively coupled to a Wi-Fi base station; in response to the request, registering the UE in the 5G core network; establishing, by a user plane function, UPF, a 5G Protocol Data Unit, PDU, session associated with the UE; sending registration information to the UE, the registration information including at least a WebSocket token (306, 410); and establishing a WebSocket between the UE and a webserver gateway, WS GW, the establishing including: receiving a token at the WS GW; sending the token to the WxIWF; and determining that the token corresponds to the WebSocket token sent to the UE. one or more processors; a memory; and one or more components stored in the memory and executable by the one or more processors to perform operations comprising: receiving, at a web access inter-working function, WxIWF, a request to establish a communication between a user equipment, UE, and a 5th Generation, 5G, core network, wherein the UE is communicatively coupled to a Wi-Fi base station; in response to the request, registering the UE in the 5G core network; establishing, by a user plane function, UPF, a 5G Protocol Data Unit, PDU, session associated with the UE; sending registration information to the UE, the registration information including at least a WebSocket token (306, 410); and establishing a WebSocket between the UE and a webserver gateway, WS GW, the establishing including: receiving a token at the WS GW; sending the token to the WxIWF; and determining that the token corresponds to the WebSocket token sent to the UE. receiving, at a web access inter-working function, WxIWF, a request to establish a communication between a user equipment, UE, and a 5th Generation, 5G, core network, wherein the UE is communicatively coupled to a Wi-Fi base station; in response to the request, registering the UE in the 5G core network; establishing, by a user plane function, UPF, a 5G Protocol Data Unit, PDU, session associated with the UE; sending registration information to the UE, the registration information including at least a WebSocket token (306, 410); and establishing a WebSocket between the UE and a webserver gateway, WS GW, the establishing including: receiving a token at the WS GW; sending the token to the WxIWF; and determining that the token corresponds to the WebSocket token sent to the UE. receiving a token at the WS GW; sending the token to the WxIWF; and determining that the token corresponds to the WebSocket token sent to the UE.
A method operating on a wireless user equipment device, said method comprising: receiving a plurality of audio signatures from a head unit (102, 202) via an audio system having a plurality of speaker channels (106A-106D, 204A-204D), wherein said plurality of audio signatures are in an out-of-hearing frequency band of a signal recorded by a microphone of the wireless UE device; and receiving information identifying a model or a type of a vehicle from said head unit via at least one of said plurality of speaker channels; determining a spatial configuration of an interior of the vehicle based on correlating the model or the type to a mapping between models or types and spatial configurations; and processing said plurality of audio signatures, by a processor of said wireless UE device configured to operate in association with one or more subsystems of said wireless UE device, for determining said wireless UE device's location relative to said spatial configuration (101, 201). receiving a plurality of audio signatures from a head unit (102, 202) via an audio system having a plurality of speaker channels (106A-106D, 204A-204D), wherein said plurality of audio signatures are in an out-of-hearing frequency band of a signal recorded by a microphone of the wireless UE device; and receiving information identifying a model or a type of a vehicle from said head unit via at least one of said plurality of speaker channels; determining a spatial configuration of an interior of the vehicle based on correlating the model or the type to a mapping between models or types and spatial configurations; and processing said plurality of audio signatures, by a processor of said wireless UE device configured to operate in association with one or more subsystems of said wireless UE device, for determining said wireless UE device's location relative to said spatial configuration (101, 201).
Sensor device comprising: a. a single optical fiber having a first end to be coupled with a first laser beam called the sensing laser beam, and a second end opposite to the first end, b. a through-fiber fabricated tip attached onto the second end of said optical fiber, said tip forms a patterned cantilever fabricated by photo-polymerization of at least one photo-sensitive monomer and is designed to be set in motion; c. the attached through-fiber fabricated tip configured such that a sensing laser beam injected into the first end of the optical fiber is injected into the attached cantilever; d. a light collector configured to collect a part of the sensing laser beam transmitted or reflected by the free end of the patterned cantilever, to measure motion of the patterned cantilever. a. a single optical fiber having a first end to be coupled with a first laser beam called the sensing laser beam, and a second end opposite to the first end, b. a through-fiber fabricated tip attached onto the second end of said optical fiber, said tip forms a patterned cantilever fabricated by photo-polymerization of at least one photo-sensitive monomer and is designed to be set in motion; c. the attached through-fiber fabricated tip configured such that a sensing laser beam injected into the first end of the optical fiber is injected into the attached cantilever; d. a light collector configured to collect a part of the sensing laser beam transmitted or reflected by the free end of the patterned cantilever, to measure motion of the patterned cantilever.
Method of providing, by a data system (100; 200), access to sensitive data associated to a user, the data system (100; 200) storing an encrypted version of the sensitive data obtained as a result of encrypting the sensitive data using an encryption key associated to the user, the method comprising: receiving, from a user system, a user request requesting the provision of access; retrieving from the received user request a backup version of the encryption key generated and provided to the user in a registration process, instead of from a repository in the data system; retrieving a system key associated to the data system (100; 200); retrieving a user key created by the user from the received user request; obtaining a decrypted version of the encryption key by decrypting the backup version of the encryption key using the system key; obtaining a decrypted version of all or part of the sensitive data by decrypting all or part of the encrypted version of the sensitive data using the decrypted version of the encryption key; encrypting the decrypted version of the encryption key using the user key and the system key, and storing the encryption key once encrypted in the repository for later provisions of access depending on both the user key and the system key; and providing access to the decrypted version of all or part of the sensitive data through a secure communication channel. receiving, from a user system, a user request requesting the provision of access; retrieving from the received user request a backup version of the encryption key generated and provided to the user in a registration process, instead of from a repository in the data system; retrieving a system key associated to the data system (100; 200); retrieving a user key created by the user from the received user request; obtaining a decrypted version of the encryption key by decrypting the backup version of the encryption key using the system key; obtaining a decrypted version of all or part of the sensitive data by decrypting all or part of the encrypted version of the sensitive data using the decrypted version of the encryption key; encrypting the decrypted version of the encryption key using the user key and the system key, and storing the encryption key once encrypted in the repository for later provisions of access depending on both the user key and the system key; and providing access to the decrypted version of all or part of the sensitive data through a secure communication channel.
A mobile device for detecting light from a light source external to the mobile device having a housing which houses: an audio jack socket configured to receive an audio output component for providing an audio signal generated in the mobile device to a user through an audio jack plug inserted in the audio jack socket; a photo detector arranged in the audio jack socket to detect light when the audio jack socket is not connected to an audio jack plug, whereby the audio jack socket acts to collimate received light from the external light source to be sensed by the photo detector; and a processor arranged to process a signal received from the photo detector and to generate therefrom a function control signal for controlling a function in dependence on the received light. an audio jack socket configured to receive an audio output component for providing an audio signal generated in the mobile device to a user through an audio jack plug inserted in the audio jack socket; a photo detector arranged in the audio jack socket to detect light when the audio jack socket is not connected to an audio jack plug, whereby the audio jack socket acts to collimate received light from the external light source to be sensed by the photo detector; and a processor arranged to process a signal received from the photo detector and to generate therefrom a function control signal for controlling a function in dependence on the received light.
A peripheral device configured to implement a PCI or PCI-derivative protocol, the peripheral device comprising: an emulation component; a bus interface core including a set of native configuration registers, wherein the native configuration registers are non-emulated; memory storing an emulated configuration space; and a configuration management component coupled to the bus interface core, the configuration management component configured to: receive a configuration access request from the bus interface core; request the emulation component to retrieve an emulated configuration from the emulated configuration space; and service the configuration access request using the emulated configuration. an emulation component; a bus interface core including a set of native configuration registers, wherein the native configuration registers are non-emulated; memory storing an emulated configuration space; and a configuration management component coupled to the bus interface core, the configuration management component configured to: receive a configuration access request from the bus interface core; request the emulation component to retrieve an emulated configuration from the emulated configuration space; and service the configuration access request using the emulated configuration. receive a configuration access request from the bus interface core; request the emulation component to retrieve an emulated configuration from the emulated configuration space; and service the configuration access request using the emulated configuration.
Coated abrasive disc (10a, 10b, 10c, 10d) having a flexible support, having a plurality of holes (12a, 12b, 12c, 12d) which are arranged in a hole pattern (14a, 14b, 14c, 14d), wherein a hole density decreases from an inner region (18a, 18b, 18c, 18d) of the hole pattern (14a, 14b, 14c, 14d) to an outer region (20a, 20b, 20c, 20d) of the hole pattern (14a, 14b, 14c, 14d), characterized in that at least one hole (12a, 12b, 12c, 12d) in the hole pattern (14a, 14b, 14c, 14d) is shaped as an elongate hole (38a, 38b, 38c, 38d), wherein the hole pattern (14a, 14b, 14c, 14d) describes at least one spiral line, preferably a plurality of spiral lines, along which holes (12a, 12b, 12c, 12d) of the hole pattern (14a, 14b, 14c, 14d) are arranged, wherein at least one respective elongate hole (38a, 38b, 38c, 38d), preferably at least two respective elongate holes (38a, 38b, 38c, 38d), particularly preferably at least three respective elongate holes (38a, 38b, 38c, 38d), are arranged along a spiral line.
Adapter for mounting a capsule-type ultrasonic measurement cell, having a measurement channel equipped with ultrasonic sensors, intended to be mounted on a tank having an inlet pipe and an outlet pipe of aligned type, wherein the rectilinear and aligned inlet pipe and outlet pipe lead directly into the interior of the tank, this additional adapter connecting said inlet pipe to the inlet of said measurement channel and said outlet pipe to the outlet of said measurement channel, and having: a first bent tubular channel intended to be connected to the mouth of one of said pipes and to the inlet of said measurement channel, and a second bent tubular channel intended to be connected to the mouth of the other of said pipes and to the outlet of said measurement channel. a first bent tubular channel intended to be connected to the mouth of one of said pipes and to the inlet of said measurement channel, and a second bent tubular channel intended to be connected to the mouth of the other of said pipes and to the outlet of said measurement channel.
An infrared detector assembly (300, 500) configured for particle screen testing, the assembly comprising: a dewar chamber (102, 502) comprising an aperture (108, 510) and an infrared radiation detector (106, 514); and a mirror (304, 400, 410, 504) disposed adjacent to and in front of the aperture of the dewar chamber, the mirror having a reflective surface (306, 604) and an emitting region (305, 402, 412, 606) facing the aperture; wherein the infrared radiation detector is configured to detect first radiation and second radiation, the first radiation originating from at least one relatively cold surface in the dewar chamber and reflecting off the reflective surface of the mirror back into a cavity of the dewar chamber, the second radiation originating from at least one relatively warm surface at or behind the emitting region, whereby a particle in the cavity of the dewar chamber will block a portion of the second radiation to cause an artifact (322, 406, 408, 416, 418, 712, 722, 802) in an image at the infrared radiation detector. a dewar chamber (102, 502) comprising an aperture (108, 510) and an infrared radiation detector (106, 514); and a mirror (304, 400, 410, 504) disposed adjacent to and in front of the aperture of the dewar chamber, the mirror having a reflective surface (306, 604) and an emitting region (305, 402, 412, 606) facing the aperture; wherein the infrared radiation detector is configured to detect first radiation and second radiation, the first radiation originating from at least one relatively cold surface in the dewar chamber and reflecting off the reflective surface of the mirror back into a cavity of the dewar chamber, the second radiation originating from at least one relatively warm surface at or behind the emitting region, whereby a particle in the cavity of the dewar chamber will block a portion of the second radiation to cause an artifact (322, 406, 408, 416, 418, 712, 722, 802) in an image at the infrared radiation detector.
An apparatus for fabricating a composite structure of wound tubular braiding, the apparatus comprising: a winding tool defining an outer surface; a device to wind the tubular braiding around the outer surface of the winding tool to create a wound tubular braiding; a forming machine to consolidate the wound tubular braiding; and a controller in electronic communication with the device and the forming machine, wherein the controller executes instructions to: guide the device to wind the tubular braiding around the outer surface of the winding tool; and to operate the forming machine to consolidate the wound tubular braiding. a winding tool defining an outer surface; a device to wind the tubular braiding around the outer surface of the winding tool to create a wound tubular braiding; a forming machine to consolidate the wound tubular braiding; and a controller in electronic communication with the device and the forming machine, wherein the controller executes instructions to: guide the device to wind the tubular braiding around the outer surface of the winding tool; and to operate the forming machine to consolidate the wound tubular braiding. guide the device to wind the tubular braiding around the outer surface of the winding tool; and to operate the forming machine to consolidate the wound tubular braiding.
A syringe for medical use comprising: a one-piece barrel comprising a fluid chamber and a laterally offset needle retraction cavity that are integrally molded, the syringe being further characterized in comprising at least one substantially flat display surface disposed proximally to the fluid chamber on an outer wall of the barrel, wherein at least a portion of the at least one substantially flat display surface overlies at least part of the needle retraction cavity.
A plastic glazing for a tailgate of a vehicle, the tailgate having a first molded light assembly, the plastic glazing comprising: a first translucent component forming a rear window for the vehicle; a second translucent component molded onto the first translucent component, charactherized in that the second translucent component comprises a color and wherein an overlapping portion of the first component and the second component forms a colored portion, and in that the plastic glazing further comprises a non-translucent component forming a blackout region adjacent to the colored portion, wherein the first translucent component, the second translucent component and the non-translucent component are formed of a thermoplastic polymer, wherein the plastic glazing is of one-piece molded plastic construction, wherein the colored portion forms a lens for said first molded light assembly. a first translucent component forming a rear window for the vehicle; a second translucent component molded onto the first translucent component, charactherized in that the second translucent component comprises a color and wherein an overlapping portion of the first component and the second component forms a colored portion, and in that the plastic glazing further comprises a non-translucent component forming a blackout region adjacent to the colored portion, wherein the first translucent component, the second translucent component and the non-translucent component are formed of a thermoplastic polymer, wherein the plastic glazing is of one-piece molded plastic construction, wherein the colored portion forms a lens for said first molded light assembly.
A method of modeling drilling equipment to represent vibrational performance of the drilling equipment, the method comprising: constructing at least one surrogate representing at least a portion of a bottom hole assembly disposed in a well; utilizing a frequency domain model to calculate a sideforce at least at one contact point between the bottom hole assembly and the well, characterized in calculating the sideforce as a function of rotational speed for each surrogate; determining at least one sideforce slope index as a function of rotational speed for the at least one contact point; and displaying the calculated sideforce slope index as a function of rotational speed. constructing at least one surrogate representing at least a portion of a bottom hole assembly disposed in a well; utilizing a frequency domain model to calculate a sideforce at least at one contact point between the bottom hole assembly and the well, characterized in calculating the sideforce as a function of rotational speed for each surrogate; determining at least one sideforce slope index as a function of rotational speed for the at least one contact point; and displaying the calculated sideforce slope index as a function of rotational speed.