mhurhangee/ep-ind-claims huggingface dataset:
A method for automated non-destructive testing of rivet concentricity, the method comprising: installing a rivet within a hole in a structure using an end effector (212 or 213); processing a first image of the hole in the structure and a second image of the rivet in the hole in the structure to identify a number of reference points located in both the first image and the second image; aligning the first image and second image using the number of reference points; analyzing the first image to determine a number of locations of the hole; analyzing the second image to determine a number of locations of the rivet; and automatically determining a rivet concentricity using the number of locations of the hole and the number of locations of the rivet. installing a rivet within a hole in a structure using an end effector (212 or 213); processing a first image of the hole in the structure and a second image of the rivet in the hole in the structure to identify a number of reference points located in both the first image and the second image; aligning the first image and second image using the number of reference points; analyzing the first image to determine a number of locations of the hole; analyzing the second image to determine a number of locations of the rivet; and automatically determining a rivet concentricity using the number of locations of the hole and the number of locations of the rivet.
A nozzle for dispensing a beverage, comprising: a nozzle head, comprising: a base liquid inlet configured to receive a base liquid from a base liquid source, and a flavoring inlet configured to receive a flavoring from a flavoring source; a diffuser assembly in fluid communication with the base liquid inlet, wherein the diffuser assembly comprises at least one diffuser plate (160; 170) having an annular region with a plurality of peripheral openings through which the base liquid flows; a receptacle in fluid communication with the diffuser assembly and the flavoring inlet, comprising: an inner wall, and an outlet through which the base liquid and the flavoring are dispensed, wherein the peripheral openings of the diffuser assembly are arranged so as to direct a flow of the base liquid along the inner wall of the receptacle, and wherein the flavoring inlet directs a flow of the flavoring through the receptacle in a longitudinal direction of the nozzle, characterised by a vent for equalizing pressure within the nozzle, wherein the vent comprises one or more of (a) a vent tube including an upper end arranged within the receptacle and a lower end outside of the receptacle so that the lower end is open to the environment, and (b) vent holes formed around a periphery of the receptacle at an upper end of the receptacle and configured to equalize pressure in the receptacle with an external pressure, wherein flavoring flows through an open central portion of the receptacle. a nozzle head, comprising: a base liquid inlet configured to receive a base liquid from a base liquid source, and a flavoring inlet configured to receive a flavoring from a flavoring source; a base liquid inlet configured to receive a base liquid from a base liquid source, and a flavoring inlet configured to receive a flavoring from a flavoring source; a diffuser assembly in fluid communication with the base liquid inlet, wherein the diffuser assembly comprises at least one diffuser plate (160; 170) having an annular region with a plurality of peripheral openings through which the base liquid flows; a receptacle in fluid communication with the diffuser assembly and the flavoring inlet, comprising: an inner wall, and an outlet through which the base liquid and the flavoring are dispensed, wherein the peripheral openings of the diffuser assembly are arranged so as to direct a flow of the base liquid along the inner wall of the receptacle, and wherein the flavoring inlet directs a flow of the flavoring through the receptacle in a longitudinal direction of the nozzle, characterised by a vent for equalizing pressure within the nozzle, wherein the vent comprises one or more of (a) a vent tube including an upper end arranged within the receptacle and a lower end outside of the receptacle so that the lower end is open to the environment, and (b) vent holes formed around a periphery of the receptacle at an upper end of the receptacle and configured to equalize pressure in the receptacle with an external pressure, wherein flavoring flows through an open central portion of the receptacle.
A transparent conductive film manufacturing method, comprising: a first step of processing one surface of a transparent film with plasma to form a hydrophobic surface with minute nano-metric protrusions and grooves; a second step of patterning a hydrophilic pattern groove on one surface of the transparent film; a third step of dispensing a conductive paste onto the pattern groove of the transparent film; and a fourth step of drying and hardening the conductive paste. a first step of processing one surface of a transparent film with plasma to form a hydrophobic surface with minute nano-metric protrusions and grooves; a second step of patterning a hydrophilic pattern groove on one surface of the transparent film; a third step of dispensing a conductive paste onto the pattern groove of the transparent film; and a fourth step of drying and hardening the conductive paste.
A polymerizable plasticizer containing a hydrocarbon chain, only one end of which bears more than one isocyanate function, said hydrocarbon chain comprising and/or being substituted with an aromatic ring and/or an aliphatic ring and/or said hydrocarbon chain being substituted with at least two hydrocarbon chains that may comprise an unsaturation, and the number of isocyanate functions being strictly greater than 1, preferably greater than 1.2, more preferentially greater than 1.5 and less than or equal to 2.2.
An inkjet printing method comprising: selectively depositing by inkjet printing, layer by layer, a first composition and a second composition onto a receiving media from different dispensers to form polymerizable deposited layers, wherein the first composition comprises one or more free-radical polymerizable compounds and a cationic photoinitiator and is devoid of compounds able to undergo cationic photopolymerization within the first composition, and the second composition comprises one or more cationic polymerizable compounds and is devoid of cationic photoinitiators, and at least one of the first and the second compositions comprises a radical photoinitiator; and exposing the deposited layers to actinic radiation to initiate polymerization of the one or more free-radical polymerizable compounds and the one or more cationic polymerizable compounds within the deposited layers. selectively depositing by inkjet printing, layer by layer, a first composition and a second composition onto a receiving media from different dispensers to form polymerizable deposited layers, wherein the first composition comprises one or more free-radical polymerizable compounds and a cationic photoinitiator and is devoid of compounds able to undergo cationic photopolymerization within the first composition, and the second composition comprises one or more cationic polymerizable compounds and is devoid of cationic photoinitiators, and at least one of the first and the second compositions comprises a radical photoinitiator; and exposing the deposited layers to actinic radiation to initiate polymerization of the one or more free-radical polymerizable compounds and the one or more cationic polymerizable compounds within the deposited layers.
A method for controlling a wireless power transmitter that transmits charging power to a wireless power receiver, the method comprising: entering latch fault mode in response to latch fault mode entry conditions; after entering the latch fault mode, periodically applying first power having a first power value at a first interval to a resonant circuit, wherein the first power is for detecting a change in impedance of the wireless power transmitter caused by removal of the wireless power receiver; in response to detecting the change in the impedance of the wireless power transmitter while applying the first power, identifying that the wireless power receiver is removed; and after identifying that the wireless power receiver is removed, entering a power saving mode in which second power is periodically applied to the resonant circuit at a second interval for a first duration and third power is periodically applied to the resonant circuit at a third interval for a second duration, wherein the second duration is longer than the first duration, wherein the third interval is longer than the second interval, and wherein the second power is applied at least once in between two consecutive applications of the third power. entering latch fault mode in response to latch fault mode entry conditions; after entering the latch fault mode, periodically applying first power having a first power value at a first interval to a resonant circuit, wherein the first power is for detecting a change in impedance of the wireless power transmitter caused by removal of the wireless power receiver; in response to detecting the change in the impedance of the wireless power transmitter while applying the first power, identifying that the wireless power receiver is removed; and after identifying that the wireless power receiver is removed, entering a power saving mode in which second power is periodically applied to the resonant circuit at a second interval for a first duration and third power is periodically applied to the resonant circuit at a third interval for a second duration, wherein the second duration is longer than the first duration, wherein the third interval is longer than the second interval, and wherein the second power is applied at least once in between two consecutive applications of the third power.
A control device suited to control a working fluid with low freezing point circulating in a closed loop operating on a Rankine cycle, said loop comprising a compression/circulation pump for the fluid in liquid form, a heat exchanger swept by a hot source for evaporation of said fluid, expansion means for the fluid in vapour form, a cooling exchanger swept by a cold source for condensation of the working fluid, a working fluid tank and working fluid circulation lines (52, 54, 56, 58, 60, 62), wherein the control device comprises a vacuum pump for creating a depression in said working fluid tank and the closed loop comprises a circulation line carrying controlled throttling means for connecting condenser outlet to the tank inlet and a circulation line carrying controlled throttling means for connecting outlet of tank to the inlet of pump.
Pharmaceutical composition comprising at least one compound of formula wherein the radicals denote: R 1 is hydrogen, C 1 -C 8 -alkyl, C 3 -C 8 -cycloalkyl, C 6 -C 14 -aryl, carboxy or thiocarb; in particular hydrogen or C 1 -C 3 -alkyl, R 2 is hydrogen, C 1 -C 8 -alkyl, C 3 -C 8 -cycloalkyl, C 6 -C 14 -aryl, carboxy or thiocarb; in particular hydrogen or C 1 -C 3 -alkyl, R 3 is hydrogen or C 1 -C 8 -alkyl, in particular methyl, R 4 is OH or O-C 1 -C 8 -alkyl, in particular OH; R 5 is hydrogen or C 1 -C 8 -alkyl, in particular hydrogen; and/or a pharmaceutically acceptable salt thereof, and/or a stereoisomeric form thereof, and at least one pharmaceutically acceptable cyclodextrin derivative and optionally further components. R 1 is hydrogen, C 1 -C 8 -alkyl, C 3 -C 8 -cycloalkyl, C 6 -C 14 -aryl, carboxy or thiocarb; in particular hydrogen or C 1 -C 3 -alkyl, R 2 is hydrogen, C 1 -C 8 -alkyl, C 3 -C 8 -cycloalkyl, C 6 -C 14 -aryl, carboxy or thiocarb; in particular hydrogen or C 1 -C 3 -alkyl, R 3 is hydrogen or C 1 -C 8 -alkyl, in particular methyl, R 4 is OH or O-C 1 -C 8 -alkyl, in particular OH; R 5 is hydrogen or C 1 -C 8 -alkyl, in particular hydrogen; and/or a pharmaceutically acceptable salt thereof, and/or a stereoisomeric form thereof, and at least one pharmaceutically acceptable cyclodextrin derivative and optionally further components.
A hermetic sealing device for packages containing food products, comprising a unit for gripping and/or feeding a piece (Sp) of thin flexible material forming a film used to cover and at least partly seal a food product on the package; characterized in that it comprises a sealing element comprising a rheostat having an annular body and two terminals extending from the annular body and connectable to a voltage generator capable of generating and maintaining an electrical potential difference at the ends of the two terminals in such a way as to cause the flow along the rheostat of an electric current capable of heating the annular body to a predetermined sealing temperature; each terminal has at the point of its connection to the annular body of the rheostat a cross section whose surface area (S') is the smallest compared to the cross sections at all other points of the terminal; the annular body of the rheostat is intended to come into contact with the piece (Sp) of film positioned in contact with a predetermined portion of the package for a predetermined length of time long enough to seal the piece (Sp) of film along the package in such a way as to hermetically seal the product between the package and the piece (Sp) of film, wherein the hermetic sealing device comprises a supporting sleeve and the terminals have a straight stretch for mechanical connection to the supporting sleeve and for electrical connection to the voltage generator, the rheostat being attached to the sleeve.
A hydraulic power generating apparatus to perform power generation for installation in a waterway having flow, comprising: a housing which includes a water inflow opening located at the upstream side of the waterway, a water outflow opening located at the downstream side thereof, and a flow path providing communication from the water inflow opening to the water outflow opening; a water collecting plate which is disposed to an opening edge of the water inflow opening of the housing and which is adapted to collect water into the water inflow opening while intercepting and accumulating water flowing through the waterway; a vertical axis turbine which is rotatably supported in the flow path of the housing and which has rotor blades with top ends; a generator adapted to generate power as receiving rotational force of the vertical axis turbine; characterized by a movable sector gate adapted to adjust a water level of accumulated water at the upstream side of the waterway by changing a flow cross-sectional area of a water flow acting to the top ends of the rotor blades and flowing in from the water inflow opening, wherein the movable sector gate is configured to change the flow cross-sectional area by being opened and closed along an outer circumference of the rotor blades, the moveable sector gate being attached to a rotating shaft of the vertical axis turbine. a housing which includes a water inflow opening located at the upstream side of the waterway, a water outflow opening located at the downstream side thereof, and a flow path providing communication from the water inflow opening to the water outflow opening; a water collecting plate which is disposed to an opening edge of the water inflow opening of the housing and which is adapted to collect water into the water inflow opening while intercepting and accumulating water flowing through the waterway; a vertical axis turbine which is rotatably supported in the flow path of the housing and which has rotor blades with top ends; a generator adapted to generate power as receiving rotational force of the vertical axis turbine; characterized by a movable sector gate adapted to adjust a water level of accumulated water at the upstream side of the waterway by changing a flow cross-sectional area of a water flow acting to the top ends of the rotor blades and flowing in from the water inflow opening, wherein the movable sector gate is configured to change the flow cross-sectional area by being opened and closed along an outer circumference of the rotor blades, the moveable sector gate being attached to a rotating shaft of the vertical axis turbine.
A module for an ionizing radiation detector having at least two detection segments arranged side by side on a row carrier with clearance up to 30 μm for creating a continuous detection surface; the row carrier is formed by a longitudinal profile having a cross-sectional square or rectangular shape; on at least part of the surface of the upper base of the row carrier there are arranged exchangeable holders of the detection segments; the detection section includes an elementary pixel detector consisting of a sensor layer arranged on the upper surface of the read-out chip; the read-out chip is fixed to the holder by at least a part of its lower surface and the rest of the lower surface of the chip forms an overlap extending beyond the upper base of the row carrier; the elementary pixel detector has at least two electrical conductors leading out from the side of the read-out chip on the upper base of the carrier for connecting the power supply and transmitting communication signals to the read-out electronics, characterized in that on the unoccupied area of the upper base of the row carrier there is arranged at least one printed circuit board for connecting the output conductors and further, to the row carrier in the area below the level of the upper base of the carrier at the vertical wall of the carrier, there is arranged at least one means for power supply stabilization of the elementary pixel detector; the means for power supply stabilization is connected to the printed circuit board and simultaneously the means for power supply stabilization is connected to at least one connector of the read-out electronics, which is spatially arranged below the row carrier, wherein at least one thermal bridge is formed between the row carrier and the holders and the means for power supply stabilization for eliminating temperature differences.
Method for determining the temperature of a fluid in a hydraulic assembly for a motor vehicle, the hydraulic assembly having, for the automated actuation and cooling of a friction clutch, an actuator pump which is driven by means of a drive motor in the form of an electric motor and a cooling pump which is driven by means of a drive motor, the driven cooling pump of the hydraulic assembly being configured to provide a volumetric flow for cooling at least one component (14; 16) of the motor vehicle, the temperature of the fluid being determined on the basis of a relationship (72; 74) between at least two state variables (n K, PWM; I) of the drive motor of the cooling pump and the temperature of the fluid, which relationship (72; 74) is specific for the hydraulic assembly.
A method for handling of integrity check failures of packet data convergence protocol, PDCP, protocol data units, PDUs, by a user equipment, UE, in a wireless communication system, the method comprising: performing an integrity check at a PDCP layer on at least one radio bearer based on a message authentication code-integrity, MAC-I, of the PDCP PDU; determining whether the integrity check of the PDCP PDU received on the at least one radio bearer is successful or failed in case that the LTE is simultaneously connected to a master node, MN, and a secondary node, SN, for dual connectivity mode; discarding the PDCP PDU for which integrity check is failed; and indicating a radio resource control, RRC, layer about the integrity check failure on the at least one radio bearer in response to determining a trigger condition, characterized in that: - a PDCP termination point of each of the at least one radio bearer is determined in the MN in case that a security key for handling integrity protection and encryption of each of the at least one radio bearer is associated with an MN security key, and - a PDCP termination point of each of the at least one radio bearer is determined in the SN in case that the security key for handling integrity protection and encryption of each of the at least one radio bearer is associated with an SN security key. performing an integrity check at a PDCP layer on at least one radio bearer based on a message authentication code-integrity, MAC-I, of the PDCP PDU; determining whether the integrity check of the PDCP PDU received on the at least one radio bearer is successful or failed in case that the LTE is simultaneously connected to a master node, MN, and a secondary node, SN, for dual connectivity mode; discarding the PDCP PDU for which integrity check is failed; and indicating a radio resource control, RRC, layer about the integrity check failure on the at least one radio bearer in response to determining a trigger condition, characterized in that: - a PDCP termination point of each of the at least one radio bearer is determined in the MN in case that a security key for handling integrity protection and encryption of each of the at least one radio bearer is associated with an MN security key, and - a PDCP termination point of each of the at least one radio bearer is determined in the SN in case that the security key for handling integrity protection and encryption of each of the at least one radio bearer is associated with an SN security key. a PDCP termination point of each of the at least one radio bearer is determined in the MN in case that a security key for handling integrity protection and encryption of each of the at least one radio bearer is associated with an MN security key, and - a PDCP termination point of each of the at least one radio bearer is determined in the SN in case that the security key for handling integrity protection and encryption of each of the at least one radio bearer is associated with an SN security key.
A method for triggering a Machine Type Communication, MTC, device, comprising: Sending, by a Machine Type Communication, MTC, server, a Bootstrapping Server Function entity, BSF, a request message that comprises information on a GBA-PUSH Information, GPI, request and information on a triggering request; generating, by the BSF, GPI, and adding, by the BSF, parametric information of a triggering instruction in the GPI according to the information on the triggering request through a GPI request processing flow with a Home Subscriber System, HSS; and sending, by the BSF, the GPI that comprises the parametric information of the triggering instruction to the MTC server; sending, by the MTC server, the GPI that comprises the parametric information of the triggering instruction to an MTC device to be triggered; and triggering the MTC device according to the parametric information of the triggering instruction in the received GPI. Sending, by a Machine Type Communication, MTC, server, a Bootstrapping Server Function entity, BSF, a request message that comprises information on a GBA-PUSH Information, GPI, request and information on a triggering request; generating, by the BSF, GPI, and adding, by the BSF, parametric information of a triggering instruction in the GPI according to the information on the triggering request through a GPI request processing flow with a Home Subscriber System, HSS; and sending, by the BSF, the GPI that comprises the parametric information of the triggering instruction to the MTC server; sending, by the MTC server, the GPI that comprises the parametric information of the triggering instruction to an MTC device to be triggered; and triggering the MTC device according to the parametric information of the triggering instruction in the received GPI.