mhurhangee/ep-ind-claims huggingface dataset:
A drug delivery device, comprising: - an outer needle sleeve; - a cartridge containing a dosage of a medicament and sealed with a sealing element (2.1) that is arranged across an open distal end of the cartridge, - a cartridge carrier adapted to hold the cartridge; - a needle hub adapted to hold a double ended hollow needle; - a removable cap coupled to the inner needle sleeve and adapted to cover and seal the needle; wherein in the initial state the needle is spaced from the cartridge in the distal direction; characterized by - an inner needle sleeve arranged between the needle hub and the cartridge carrier; - a first locking mechanism adapted to lock the inner needle sleeve against axial movement in the proximal direction with respect to the cartridge carrier in an initial state and - a second locking mechanism adapted to lock the cap against axial removal from the outer needle sleeve, wherein the first locking mechanism comprises at least one of a rib (4.1) or recess (3.2) on the cartridge carrier and at least one of a rib (4.1) or a recess (3.2) on the inner needle sleeve, wherein the first locking mechanism is releasable by a rotational movement of the cap with respect to the outer needle sleeve, wherein due to the relative rotational movement of the cap, the at least one rib (4.1) and the at least one recess (3.2) engage into each other such that the needle hub and the inner needle sleeve are allowed to move in the proximal direction with respect to the cartridge carrier and wherein the second locking mechanism is releasable when the first locking mechanism is released. - an outer needle sleeve; - a cartridge containing a dosage of a medicament and sealed with a sealing element (2.1) that is arranged across an open distal end of the cartridge, - a cartridge carrier adapted to hold the cartridge; - a needle hub adapted to hold a double ended hollow needle; - a removable cap coupled to the inner needle sleeve and adapted to cover and seal the needle; - an inner needle sleeve arranged between the needle hub and the cartridge carrier; - a first locking mechanism adapted to lock the inner needle sleeve against axial movement in the proximal direction with respect to the cartridge carrier in an initial state and - a second locking mechanism adapted to lock the cap against axial removal from the outer needle sleeve,
A local area network communication management method, comprising: obtaining, by an access and mobility management function network element, registration area information of a terminal, a local area network identifier, LAN ID, of the terminal, and service area information corresponding to the LAN ID; determining, by the access and mobility management function network element, LAN communication area information of the terminal based on the registration area information and the service area information corresponding to the LAN ID; and sending, by the access and mobility management function network element, LAN information of the terminal to the terminal, wherein the LAN information of the terminal comprises the LAN ID and the LAN communication area information of the terminal. obtaining, by an access and mobility management function network element, registration area information of a terminal, a local area network identifier, LAN ID, of the terminal, and service area information corresponding to the LAN ID; determining, by the access and mobility management function network element, LAN communication area information of the terminal based on the registration area information and the service area information corresponding to the LAN ID; and sending, by the access and mobility management function network element, LAN information of the terminal to the terminal, wherein the LAN information of the terminal comprises the LAN ID and the LAN communication area information of the terminal.
A heat treatment monitoring system, comprising: - a heat treatment machine comprising a heat treatment chamber, a double glass window comprising an inside window and an outside window, and an illumination apparatus for illuminating the inside of the heat treatment chamber, and - a monitoring apparatus mounted to the heat treatment machine and comprising a camera to observe the inside of the heat treatment chamber through the inside window, characterised in that the visible transmittance of the outside window is lower than 80% of the visible transmittance of the inside window to reduce reflections within the double glass window structure and outside illumination effects on image processing of images recorded by the camera, wherein the visible transmittance is the transmittance of light being incident normal to the glass window surface within a visible wavelength range between 380 nm to 780 nm. - a heat treatment machine comprising a heat treatment chamber, a double glass window comprising an inside window and an outside window, and an illumination apparatus for illuminating the inside of the heat treatment chamber, and - a monitoring apparatus mounted to the heat treatment machine and comprising a camera to observe the inside of the heat treatment chamber through the inside window, characterised in that the visible transmittance of the outside window is lower than 80% of the visible transmittance of the inside window to reduce reflections within the double glass window structure and outside illumination effects on image processing of images recorded by the camera, wherein the visible transmittance is the transmittance of light being incident normal to the glass window surface within a visible wavelength range between 380 nm to 780 nm.
An overlay-visor adapted to be releasably attached to a shield-visor, comprising a spacer or seal extending along at least a portion of a periphery of a viewing area of the overlay-visor, characterized in that said spacer or seal is an elastomeric spacer or seal injection molded onto the overlay-visor.
A method for providing radio resource management in a wireless communication system, the method comprising: monitoring, by one or more network elements associated with a first cell, for transmission of at least one discovery signal from network elements associated with a second cell; analyzing a discovery signal detected during the monitoring to identify information including discovery signal identity information that includes system information particular to a base station of the second cell or timing offset information for the discovery signal that is utilizable to schedule transmissions on a shared frequency to avoid interference; determining one or more protected resources when the discovery signal is detected; and provisioning the one or more protected resources to avoid an instance of dominant interference by at least one network element associated with the first cell with respect to wireless communications in the second cell based at least in part upon the information associated with the discovery signal detected. monitoring, by one or more network elements associated with a first cell, for transmission of at least one discovery signal from network elements associated with a second cell; analyzing a discovery signal detected during the monitoring to identify information including discovery signal identity information that includes system information particular to a base station of the second cell or timing offset information for the discovery signal that is utilizable to schedule transmissions on a shared frequency to avoid interference; determining one or more protected resources when the discovery signal is detected; and provisioning the one or more protected resources to avoid an instance of dominant interference by at least one network element associated with the first cell with respect to wireless communications in the second cell based at least in part upon the information associated with the discovery signal detected.
A polymer syringe which comprises a syringe barrel and a plunger and which is coated on at least part of its interior surface with a lubricity coating which requires a lower force to maintain movement of the plunger in the syringe barrel than the uncoated surface, wherein the lubricity coating has the atomic ratio Si w O x C y H z wherein w is 1, x is from about 0.5 to about 2.4, y is from about 0.6 to about 3, and z is from about 2 to about 9 and wherein the lubricity coating has been prepared on the substrate surface by a method comprising the steps (a) providing a gaseous reactant comprising an organosilicon precursor which is octamethylcyclotetrasiloxane (OMCTS), and optionally O 2 in the vicinity of the substrate surface; and (b) generating a plasma from the gaseous reactant, thus forming a coating on the substrate surface by plasma enhanced chemical vapor deposition (PECVD). (a) providing a gaseous reactant comprising an organosilicon precursor which is octamethylcyclotetrasiloxane (OMCTS), and optionally O 2 in the vicinity of the substrate surface; and (b) generating a plasma from the gaseous reactant, thus forming a coating on the substrate surface by plasma enhanced chemical vapor deposition (PECVD).
An imaging method characterized in that it comprises: optimizing the instantaneous speed or data acquisition dwell times of a detector head (12, 14) as a function of position along a path of the detector head around a subject (S, S S, S XL), the optimization being respective to an expected radioactive emission profile ( EP ROI) of a region of interest (H, H S, H XL) that is less than the entire subject; traversing the detector head along the path using the optimized instantaneous speed or data acquisition dwell times; during the traversing, acquiring imaging data using the detector head and adjusting the instantaneous speed or data acquisition dwell times based on differences between the acquired imaging data and expected imaging data estimated from the expected radioactive emission profile (EPROI) of the region of interest (H, HS, HXL) of the subject (S, SS, SXL).; and reconstructing the acquired imaging data to generate a reconstructed image of at least the region of interest, and characterised in that the optimization is iterative and is terminated when the expected count of radioactive events, emanating from the region of interest, for each angular interval or data acquisition dwell time is uniform to within a specified measure. optimizing the instantaneous speed or data acquisition dwell times of a detector head (12, 14) as a function of position along a path of the detector head around a subject (S, S S, S XL), the optimization being respective to an expected radioactive emission profile ( EP ROI) of a region of interest (H, H S, H XL) that is less than the entire subject; traversing the detector head along the path using the optimized instantaneous speed or data acquisition dwell times; during the traversing, acquiring imaging data using the detector head and adjusting the instantaneous speed or data acquisition dwell times based on differences between the acquired imaging data and expected imaging data estimated from the expected radioactive emission profile (EPROI) of the region of interest (H, HS, HXL) of the subject (S, SS, SXL).; and reconstructing the acquired imaging data to generate a reconstructed image of at least the region of interest, and characterised in that the optimization is iterative and is terminated when the expected count of radioactive events, emanating from the region of interest, for each angular interval or data acquisition dwell time is uniform to within a specified measure.
A method of analyzing patching among a first port of a first panel and ports of one or more other panels, characterized by comprising: obtaining with respect to the first port of the first panel an indication of multiple concurrent patchings between the first port and each of two or more different ports of other panels, the two or more different ports including at least a second port and a third port; injecting a scan signal between the first port and the second port and sensing for a corresponding returned signal between the second and the third ports; determining that an indication of a patching between the first port and the second port is false when a returned signal corresponding to the scan signal is detected between the second and the third ports. obtaining with respect to the first port of the first panel an indication of multiple concurrent patchings between the first port and each of two or more different ports of other panels, the two or more different ports including at least a second port and a third port; injecting a scan signal between the first port and the second port and sensing for a corresponding returned signal between the second and the third ports; determining that an indication of a patching between the first port and the second port is false when a returned signal corresponding to the scan signal is detected between the second and the third ports.
A hybrid unified communications, UC, cloud system comprising: a plurality of regional UC virtual data centers, each operating independently and comprising: a regional system manager to manage a set of regional UC resources implemented in a respective multi-tenant regional cloud having associated endpoint devices being registered to operate in the respective multi- tenant regional cloud and to employ corresponding regional UC resources thereof, operating in at least one service cluster of the respective multi-tenant regional cloud, to communicate real-time media traffic with respect to the associated endpoint devices, wherein the regional system manager is programmed with a regional policy corresponding to the regional system manager to control actions executed with respect to management of its resources in response to notifications received from a global UC virtual data centre, and a regional resource manager to monitor utilization of regional UC resources and provide status information to the regional system manager based on the utilization of resources, the regional system manager to control scaling of the set of regional UC resources responsive to the status information; and the global UC virtual data center that includes a global system manager to manage each of the regional UC virtual data centers and to coordinate orchestration of UC resources between and/or among the regional UC virtual data centers. a regional system manager to manage a set of regional UC resources implemented in a respective multi-tenant regional cloud having associated endpoint devices being registered to operate in the respective multi- tenant regional cloud and to employ corresponding regional UC resources thereof, operating in at least one service cluster of the respective multi-tenant regional cloud, to communicate real-time media traffic with respect to the associated endpoint devices, wherein the regional system manager is programmed with a regional policy corresponding to the regional system manager to control actions executed with respect to management of its resources in response to notifications received from a global UC virtual data centre, and a regional resource manager to monitor utilization of regional UC resources and provide status information to the regional system manager based on the utilization of resources, the regional system manager to control scaling of the set of regional UC resources responsive to the status information; and the global UC virtual data center that includes a global system manager to manage each of the regional UC virtual data centers and to coordinate orchestration of UC resources between and/or among the regional UC virtual data centers.
A laser processing head comprising focusing optics for focusing a laser beam in the direction of a processing zone of a workpiece and a cross-jet nozzle for generating a transverse flow which passes through the focused laser beam transversely, in particular perpendicularly, to the beam axis of the focused laser beam, and which is designed such that the distance from the cross jet nozzle to the workpiece during processing of the workpiece is less than 20 mm, in particular between 8 mm and 12 mm, characterized in that a nozzle body having a bottom opening open toward the workpiece, out of which a protective gas flows, is provided laterally next to the focused laser beam, and in that the bottom opening is arranged below the cross-jet nozzle in order to entrain the protective gas located between the nozzle body and the workpiece by the transverse flow of the cross-jet nozzle in the transverse direction at least to such an extent that it flows over the processing zone.
A system for correcting a vehicle light comprising a light lens including a base panel made of a transparent plastic material, an outer paint layer disposed on an outer surface of the base panel, and an inner paint layer disposed on an inner surface of the base panel and having a light-transmitting hole formed therein; and a light source installed to be spaced apart from the light lens, the system comprising: a light source controller configured to control the light source of the vehicle light; a memory configured to store target color coordinates which are color coordinates of light to be implemented through the vehicle light; a measurement unit disposed outside the vehicle light and configured to measure color coordinates of light emitted through the vehicle light; a correction controller configured to control the vehicle light to generate light having the target color coordinates through the light source controller, to measure color coordinates of the vehicle light through the measurement unit, and to cause the light source controller to perform color coordinate correction control of the light source as much as a difference value between the target color coordinates and the measured color coordinates of the vehicle light; and a diagnosis unit configured to measure a paint thickness of the outer paint layer, wherein the correction controller is configured to calculate an amount of additional correction through a difference between the paint thickness measured by the diagnosis unit and a reference thickness, and to cause the light source controller to perform the color coordinate correction control of the light source so as to reflect the amount of additional correction. a light source controller configured to control the light source of the vehicle light; a memory configured to store target color coordinates which are color coordinates of light to be implemented through the vehicle light; a measurement unit disposed outside the vehicle light and configured to measure color coordinates of light emitted through the vehicle light; a correction controller configured to control the vehicle light to generate light having the target color coordinates through the light source controller, to measure color coordinates of the vehicle light through the measurement unit, and to cause the light source controller to perform color coordinate correction control of the light source as much as a difference value between the target color coordinates and the measured color coordinates of the vehicle light; and a diagnosis unit configured to measure a paint thickness of the outer paint layer, wherein the correction controller is configured to calculate an amount of additional correction through a difference between the paint thickness measured by the diagnosis unit and a reference thickness, and to cause the light source controller to perform the color coordinate correction control of the light source so as to reflect the amount of additional correction.
A method for mass spectrometric analysis using a device for mass spectrometric analysis of substances present in liquid and gaseous samples, comprising the steps of: a) introducing at least one substance from a liquid sample into a first flow element of a device by volatilizing the at least one substance from the liquid sample at a liquid-impermeable and gas-permeable membrane and introducing at least one substance of a gaseous sample into a second flow element of the device, wherein the first flow element is different from the second flow element, so that after introducing the at least one substance into the first and second flow elements (19, 21) the at least one substance is present gaseously in the respective flow element, and b) mass spectrometric analysis of the at least one substance present gaseously in step a) from the liquid sample and of the at least one substance present gaseously in step a) from the gaseous sample. a) introducing at least one substance from a liquid sample into a first flow element of a device by volatilizing the at least one substance from the liquid sample at a liquid-impermeable and gas-permeable membrane and introducing at least one substance of a gaseous sample into a second flow element of the device, wherein the first flow element is different from the second flow element, so that after introducing the at least one substance into the first and second flow elements (19, 21) the at least one substance is present gaseously in the respective flow element, and b) mass spectrometric analysis of the at least one substance present gaseously in step a) from the liquid sample and of the at least one substance present gaseously in step a) from the gaseous sample.
Sensor arrangement for determining a time-of-flight of electromagnetic radiation comprising - an emitter configured to periodically emit pulses of electromagnetic radiation depending on a first clock signal; - a photonic demodulator configured to - detect electromagnetic radiation during detection intervals, wherein a timing of the detection intervals is defined by a second clock signal having a phase difference with respect to the first clock signal and each of the detection intervals comprises a first interval and a second interval following the first interval; - generate a first demodulator signal depending on energy of the radiation detected during at least one of the first intervals; and - generate a second demodulator signal depending on energy of the radiation detected during at least one of the second intervals; and - a processing circuit configured to adapt the phase difference based on the first and the second demodulator signal (DS1, DS2) and to generate an output signal being indicative of the time-of-flight based on the phase difference. - an emitter configured to periodically emit pulses of electromagnetic radiation depending on a first clock signal; - a photonic demodulator configured to - detect electromagnetic radiation during detection intervals, wherein a timing of the detection intervals is defined by a second clock signal having a phase difference with respect to the first clock signal and each of the detection intervals comprises a first interval and a second interval following the first interval; - generate a first demodulator signal depending on energy of the radiation detected during at least one of the first intervals; and - generate a second demodulator signal depending on energy of the radiation detected during at least one of the second intervals; and - detect electromagnetic radiation during detection intervals, wherein a timing of the detection intervals is defined by a second clock signal having a phase difference with respect to the first clock signal and each of the detection intervals comprises a first interval and a second interval following the first interval; - generate a first demodulator signal depending on energy of the radiation detected during at least one of the first intervals; and - generate a second demodulator signal depending on energy of the radiation detected during at least one of the second intervals; and - a processing circuit configured to adapt the phase difference based on the first and the second demodulator signal (DS1, DS2) and to generate an output signal being indicative of the time-of-flight based on the phase difference.