mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus, comprising: a housing defining a gas chamber ; an energy storage member disposed within the housing, the energy storage member being configured to supply a pressurized gas to the gas chamber of the housing ; and a carrier , the carrier being configured to be movably disposed within the housing , and the carrier being configured to be coupled to a medicament container ; characterized in that , the apparatus comprises an expandable assembly, a side wall of the housing defines an opening configured to selectively place the gas chamber in fluid communication with an exterior volume; a proximal surface of the carrier defines a portion of a boundary of the gas chamber, the expandable assembly includes a first member and a second member , the first member being coupled to an elastomeric member disposed within the medicament container, the second member including a valve portion 1345, 4345), and the expandable assembly is configured to transition from a collapsed configuration to an expanded configuration when the elastomeric member moves within the medicament container via a force from the pressurized gas, the valve portion configured to move relative to the opening when the expandable assembly transitions from the collapsed configuration to the expanded configuration to place the gas chamber in fluid communication with the exterior volume. a housing defining a gas chamber ; an energy storage member disposed within the housing, the energy storage member being configured to supply a pressurized gas to the gas chamber of the housing ; and a carrier , the carrier being configured to be movably disposed within the housing , and the carrier being configured to be coupled to a medicament container ; characterized in that , the apparatus comprises an expandable assembly, a side wall of the housing defines an opening configured to selectively place the gas chamber in fluid communication with an exterior volume; a proximal surface of the carrier defines a portion of a boundary of the gas chamber, the expandable assembly includes a first member and a second member , the first member being coupled to an elastomeric member disposed within the medicament container, the second member including a valve portion 1345, 4345), and the expandable assembly is configured to transition from a collapsed configuration to an expanded configuration when the elastomeric member moves within the medicament container via a force from the pressurized gas, the valve portion configured to move relative to the opening when the expandable assembly transitions from the collapsed configuration to the expanded configuration to place the gas chamber in fluid communication with the exterior volume.
Device (D1, D2) for the certified measurement of electric parameters and customers' flexibility behaviour, and for communicating with a distribution system operator (DSO), characterized in that the device (D1) comprises a SoM (System on Module) , a Certification Module , a Customer Communication Module and a Communication Module , wherein: I. the SoM (System on Module) is configured for elaborating the information coming from a Metering Module or from a DSO's Smart Meter, and is connected to said Certification Module and to said Customer Communication Module ; II. the Certification Module is connected to said SoM , and is configured for generating a "digital footprint" (hash) starting from the values received from the SoM , for signing said digital footprint through the public and the private keys provided of his chip, and for transferring this "signed data packet" to a Communication Module to which the Certification Module is further connected; III. the Customer Communication Module is connected to both said SoM and to a Customer Management System , and is configured to send to the Customer Management System the information received from the SoM , which is exactly the same information received by the Certification Module ; IV. the Communication Module is configured to perform a bidirectional communication with both the DSO's Network Management Platform and a Smart Contract software component. I. the SoM (System on Module) is configured for elaborating the information coming from a Metering Module or from a DSO's Smart Meter, and is connected to said Certification Module and to said Customer Communication Module ; II. the Certification Module is connected to said SoM , and is configured for generating a "digital footprint" (hash) starting from the values received from the SoM , for signing said digital footprint through the public and the private keys provided of his chip, and for transferring this "signed data packet" to a Communication Module to which the Certification Module is further connected; III. the Customer Communication Module is connected to both said SoM and to a Customer Management System , and is configured to send to the Customer Management System the information received from the SoM , which is exactly the same information received by the Certification Module ; IV. the Communication Module is configured to perform a bidirectional communication with both the DSO's Network Management Platform and a Smart Contract software component.
A positioning system for charging a vehicle , which has a camera , a computer unit and a data memory , wherein in the data memory an information, relating to a feature of the vehicle , namely an exterior mirror, a headlight, a front headlight, a fog light, a front tire, a reversing light or a license plate, in particular a length information is stored, characterized in that with the aid of an image recorded by the camera , after at least one feature of the vehicle has been detected, an information is determined on the basis of the detected feature by calculating a length which depends on the detected feature , and with the aid of the information stored for the vehicle , the position of the vehicle is calculated.
Bearing assembly for the rotatable connection of a rotary element , preferably designed as a soil roller , to a support frame associated with the rotary element , via at least one bearing journal and via at least one bearing unit comprising a bearing housing , the bearing unit being arranged on the rotary element or on the support frame by means of the bearing housing and the bearing journal being accordingly arranged on the support frame or on the rotary element , and the bearing unit being designed to compensate for an angular offset (α) between the longitudinal axes of the bearing housing and the bearing journal , the bearing unit comprising a sealing arrangement , that the sealing arrangement is designed to preferably at least approximately liquid-tightly and/or dust-tightly seal off a circumferential gap between bearing journal and bearing housing , characterized in that the bearing housing is designed to be at least approximately oil-tight and/or dust-tight by means of both the sealing arrangement , which seals the circumferential gap between the bearing journal and bearing housing and interacts with the bearing journal , and a detachable bearing cap , which has a circumferential sealing lip , in that the sealing arrangement comprises at least one rotating face , at least one bearing race and at least one first and one second bearing ring , in that the rotating face and the bearing race are formed from a preferably identical and highly alloyed metal material, in that the rotating face and the bearing race each have at least one lapped, preferably polished, raceway , preferably on the surfaces which face one another.
A method of sterilizing a cartridge , said cartridge having a side wall and a medicant therein, the method comprising: placing said cartridge within an outer sleeve ; sealing said sleeve to said side wall of said cartridge with a wiper seal to form a hermetic microbial barrier; providing a breathable microbial membrane over one end of said sleeve ; subjecting said cartridge and said outer sleeve to a gas sterilization; providing a gas passageway between said breathable microbial membrane and said wiper seal to permit sterilizing gas to pass from said breathable microbial membrane to said wiper seal ; passing the sterilising gas through the porous membrane, and removing any sterilizing gas remaining after sterilization. placing said cartridge within an outer sleeve ; sealing said sleeve to said side wall of said cartridge with a wiper seal to form a hermetic microbial barrier; providing a breathable microbial membrane over one end of said sleeve ; subjecting said cartridge and said outer sleeve to a gas sterilization; providing a gas passageway between said breathable microbial membrane and said wiper seal to permit sterilizing gas to pass from said breathable microbial membrane to said wiper seal ; passing the sterilising gas through the porous membrane, and removing any sterilizing gas remaining after sterilization.
A determination apparatus comprising: a first acquisition unit configured to acquire a facial photograph image , included in a medium holding the facial photograph image , as a first facial image; a second acquisition unit configured to acquire a captured image obtained by capturing an image of an imaging area (Ai), in which a face of a driver of a moveable body is assumed to be located, at a start of driving and/or during driving; and a controller configured to extract an image of the face of the driver as a second facial image from the captured image acquired from the second acquisition unit , compare the first facial image and the second facial image, and determine during driving whether the driver is a person in the facial photograph image held by the medium , wherein the controller is configured to measure a driving time of the driver and issue a warning when the driving time of the driver exceeds a predetermined time. a first acquisition unit configured to acquire a facial photograph image , included in a medium holding the facial photograph image , as a first facial image; a second acquisition unit configured to acquire a captured image obtained by capturing an image of an imaging area (Ai), in which a face of a driver of a moveable body is assumed to be located, at a start of driving and/or during driving; and a controller configured to extract an image of the face of the driver as a second facial image from the captured image acquired from the second acquisition unit , compare the first facial image and the second facial image, and determine during driving whether the driver is a person in the facial photograph image held by the medium , wherein the controller is configured to measure a driving time of the driver and issue a warning when the driving time of the driver exceeds a predetermined time.
A degassing apparatus of a secondary battery, the degassing apparatus comprising: a drive motor; and a jig arm configured to pressurize a first surface of a gas pocket of the battery cell and a second surface of the gas pocket opposite to the first surface by controlling a space within the jig arm by the drive motor, wherein an inside of the jig arm comprises: a piercing unit including a through member configured to form a through hole in the gas pocket; a sealing unit configured to seal a periphery of the through hole formed by the through member ; and a pad unit surrounding the sealing unit , the pad unit being configured to block an inflow of external gas and moisture into the through hole when in contact with the gas pocket; and a vacuum forming unit configured to suck air inside an area enclosed by the pad unit when in contact with the gas pocket, characterized in that the jig arm includes a pair of arms extending from the drive motor, the arms being arranged to face each other, and wherein the sealing unit and the pad unit are respectively formed in a shape corresponding to each other on the pair of arms. a drive motor; and a jig arm configured to pressurize a first surface of a gas pocket of the battery cell and a second surface of the gas pocket opposite to the first surface by controlling a space within the jig arm by the drive motor, wherein an inside of the jig arm comprises: a piercing unit including a through member configured to form a through hole in the gas pocket; a sealing unit configured to seal a periphery of the through hole formed by the through member ; and a pad unit surrounding the sealing unit , the pad unit being configured to block an inflow of external gas and moisture into the through hole when in contact with the gas pocket; and a vacuum forming unit configured to suck air inside an area enclosed by the pad unit when in contact with the gas pocket, characterized in that the jig arm includes a pair of arms extending from the drive motor, the arms being arranged to face each other, and wherein the sealing unit and the pad unit are respectively formed in a shape corresponding to each other on the pair of arms. a piercing unit including a through member configured to form a through hole in the gas pocket; a sealing unit configured to seal a periphery of the through hole formed by the through member ; and a pad unit surrounding the sealing unit , the pad unit being configured to block an inflow of external gas and moisture into the through hole when in contact with the gas pocket; and a vacuum forming unit configured to suck air inside an area enclosed by the pad unit when in contact with the gas pocket, characterized in that the jig arm includes a pair of arms extending from the drive motor, the arms being arranged to face each other, and wherein the sealing unit and the pad unit are respectively formed in a shape corresponding to each other on the pair of arms.
Method for optimizing a yarn production process in which foreign materials are monitored in a textile fiber formation , e.g., a fiber flock stream or a yarn, wherein the textile fiber formation is irradiated with electromagnetic radiation from at least two different subranges of the electromagnetic spectrum, the electromagnetic radiation interacts with the foreign materials , and foreign materials are detected based on their interaction with the electromagnetic radiation, characterized in that a color class (411-414) of foreign materials is assigned to each of at least two different subranges of the electromagnetic spectrum depending on the interaction of the electromagnetic radiation in the respective subrange of the electromagnetic spectrum with the foreign materials , the detected foreign materials are automatically classified in the at least two color classes (411-414) depending on their interaction with the electromagnetic radiation in the relevant subrange of the electromagnetic spectrum, when a sample having a plurality of classified foreign materials is available, a frequency distribution (511-514) of the foreign materials is automatically determined for the color classes (411-414), the determined frequency distribution (511-514) is automatically compared with a reference frequency distribution, and in case of a deviation of the determined frequency distribution (511-514) from the reference frequency distribution, at least one of a set of several optimization actions is performed automatically. the electromagnetic radiation interacts with the foreign materials , and foreign materials are detected based on their interaction with the electromagnetic radiation, characterized in that a color class (411-414) of foreign materials is assigned to each of at least two different subranges of the electromagnetic spectrum depending on the interaction of the electromagnetic radiation in the respective subrange of the electromagnetic spectrum with the foreign materials , the detected foreign materials are automatically classified in the at least two color classes (411-414) depending on their interaction with the electromagnetic radiation in the relevant subrange of the electromagnetic spectrum, when a sample having a plurality of classified foreign materials is available, a frequency distribution (511-514) of the foreign materials is automatically determined for the color classes (411-414), the determined frequency distribution (511-514) is automatically compared with a reference frequency distribution, and in case of a deviation of the determined frequency distribution (511-514) from the reference frequency distribution, at least one of a set of several optimization actions is performed automatically.
A composition of matter comprising an antibody and an alkylglycoside having a CMC value of 1.0 mM or greater in water at 25°C, wherein the alkylglycoside is present in the composition of matter at a concentration that is lower than the CMC value of the alkylglycoside in water at 25°C.
Process for building tyres, including: arranging a carcass sleeve including at least one carcass ply and a pair of annular anchoring structures ; arranging a toroidal forming drum in a first radially contracted operational condition; arranging said carcass sleeve in a position radially external to said forming drum ; toroidally shaping said at least one carcass sleeve against at least one radially inner surface of an annular contrast element , while said forming drum is positioned inside the carcass sleeve ; expanding said forming drum up to a second radially expanded operational condition; coupling the toroidally shaped carcass sleeve to the forming drum in said second operational condition; wherein during the shaping, the annular contrast element exerts a radial containment action on the carcass sleeve , whereby adapting the shaping thereof for subsequent coupling with the forming drum , arranging said forming drum , coupled to said carcass sleeve in the proximity of at least one application device of additional components externally on said carcass sleeve . arranging a carcass sleeve including at least one carcass ply and a pair of annular anchoring structures ; arranging a toroidal forming drum in a first radially contracted operational condition; arranging said carcass sleeve in a position radially external to said forming drum ; toroidally shaping said at least one carcass sleeve against at least one radially inner surface of an annular contrast element , while said forming drum is positioned inside the carcass sleeve ; expanding said forming drum up to a second radially expanded operational condition; coupling the toroidally shaped carcass sleeve to the forming drum in said second operational condition; wherein during the shaping, the annular contrast element exerts a radial containment action on the carcass sleeve , whereby adapting the shaping thereof for subsequent coupling with the forming drum , arranging said forming drum , coupled to said carcass sleeve in the proximity of at least one application device of additional components externally on said carcass sleeve .
Communication system , the communication system comprises: - a window , - a transparent open container comprising a back side and at least two opposite lateral sides; each of the back side and the lateral sides comprises a same metallic-based material , - a transparent antenna system radiating at a defined range of wavelengths, - an installation interface panel ; the communication system further comprises a fixing means configured to attach the antenna system and the installation interface panel inside the transparent open container and configured to attach the antenna system and the interface layer in front of the window, wherein the antenna system is placed between the back side and the installation interface panel at a defined distance, Daw wherein Daw > 0, from the window, the installation interface panel is placed a defined distance, Diw wherein Diw ≥ 0, from the window, wherein the metallic-based material of the back side and the lateral sides is a continuous metallic-based sheet, preferably a single continuous metallic-based sheet; wherein the metallic-based sheet is a metallic meshed structure and wherein the metallic meshed structure is a woven metallic mesh - a window , - a transparent open container comprising a back side and at least two opposite lateral sides; each of the back side and the lateral sides comprises a same metallic-based material , - a transparent antenna system radiating at a defined range of wavelengths, - an installation interface panel ; the communication system further comprises a fixing means configured to attach the antenna system and the installation interface panel inside the transparent open container and configured to attach the antenna system and the interface layer in front of the window, wherein the antenna system is placed between the back side and the installation interface panel at a defined distance, Daw wherein Daw > 0, from the window, the installation interface panel is placed a defined distance, Diw wherein Diw ≥ 0, from the window, wherein the metallic-based material of the back side and the lateral sides is a continuous metallic-based sheet, preferably a single continuous metallic-based sheet; wherein the metallic-based sheet is a metallic meshed structure and wherein the metallic meshed structure is a woven metallic mesh
Inverter for an electric machine , comprising - an input terminal connectable to a DC voltage, - a DC link connected to the input terminal , a first line of the DC link being at a high potential of the DC link and a second line of the DC link being at a low potential of the DC link , - an output terminal connectable to stator windings of the electric machine , - a controller configured to provide in a pulsing mode pulsing signals causing the inverter to convert the DC voltage into a multiphase AC output voltage at the output terminal , - a plurality of switching elements being interconnected to a half bridge for each phase of the AC output voltage and - at least one interrupt device being arranged in one of the lines of the DC link , wherein a current measurement device is arranged in one of the lines of the DC link and configured to measure a current flowing through the line , wherein the controller is configured - to transfer the inverter from the pulsing mode into an active short circuit mode and - to control the switching elements to adopt a switching configuration, in which switching elements connected to the high potential of the DC link are in a conducting switching state and switching elements connected to the low potential of the DC link are in a blocking switching state or vice versa, for transferring the inverter to the active short circuit mode characterized in that the controller is configured to control the at least one interrupt device to interrupt a current flow along the line transmitting a power from the output terminal to the input terminal if the inverter is transferred from the pulsing mode into the active short circuit mode and the measured current reaches and/or exceeds a predefined threshold value. - an input terminal connectable to a DC voltage, - a DC link connected to the input terminal , a first line of the DC link being at a high potential of the DC link and a second line of the DC link being at a low potential of the DC link , - an output terminal connectable to stator windings of the electric machine , - a controller configured to provide in a pulsing mode pulsing signals causing the inverter to convert the DC voltage into a multiphase AC output voltage at the output terminal , - a plurality of switching elements being interconnected to a half bridge for each phase of the AC output voltage and - at least one interrupt device being arranged in one of the lines of the DC link , wherein a current measurement device is arranged in one of the lines of the DC link and configured to measure a current flowing through the line , wherein the controller is configured - to transfer the inverter from the pulsing mode into an active short circuit mode and - to control the switching elements to adopt a switching configuration, in which switching elements connected to the high potential of the DC link are in a conducting switching state and switching elements connected to the low potential of the DC link are in a blocking switching state or vice versa, for transferring the inverter to the active short circuit mode