mhurhangee/patent-ind-claim-en huggingface dataset:
A shear wrench tool comprising: an electric motor , an output section having first and second output sleeves and a transmission for transferring torque from the motor to the output section wherein in use the output sleeves are caused to be rotated in opposite directions relative to each another, the first output sleeve configured for mating with a nut and the second output sleeve configured for mating with a tip of a bolt to be sheared; the shear wrench tool further comprising an ejection mechanism characterized in that the ejection mechanism has a first impact part which is both rotationally and axially movable and which has a first active surface , a second impact part which is rotationally restricted but axially movable and which has a second active surface , the ejection mechanism also having biasing means for urging the first active surface into engagement with the second active surface, wherein in use the first impact part receives torque from the electric motor for causing the first impact part to rotate relative to the second impact part whereby during such rotation interaction between the first and second active surfaces causes the first impact part to disengage from the second impact part against force of the biasing means whereby the biasing means subsequently urges the first impact part back into engagement with the second impact part for generating an impulse which is transferred via the second impact part to a sheared bolt tip for urging the sheared bolt tip out of the second output sleeve. an electric motor , an output section having first and second output sleeves and a transmission for transferring torque from the motor to the output section wherein in use the output sleeves are caused to be rotated in opposite directions relative to each another, the first output sleeve configured for mating with a nut and the second output sleeve configured for mating with a tip of a bolt to be sheared; the shear wrench tool further comprising an ejection mechanism characterized in that the ejection mechanism has a first impact part which is both rotationally and axially movable and which has a first active surface , a second impact part which is rotationally restricted but axially movable and which has a second active surface , the ejection mechanism also having biasing means for urging the first active surface into engagement with the second active surface, wherein in use the first impact part receives torque from the electric motor for causing the first impact part to rotate relative to the second impact part whereby during such rotation interaction between the first and second active surfaces causes the first impact part to disengage from the second impact part against force of the biasing means whereby the biasing means subsequently urges the first impact part back into engagement with the second impact part for generating an impulse which is transferred via the second impact part to a sheared bolt tip for urging the sheared bolt tip out of the second output sleeve.
A method of detecting the presence of a slug of one phase in a conduit carrying a multiphase flow characterised in that the method comprises: using a flow meter to provide an output signal representing mass flow rate of the multiphase flow; determining the rate of change of the output signal; and generating an alert in response to comparing the output signal against a predetermined profile of the output signal comprising a pulse having a rising portion (t2-t3) having a rate of increase of a first predetermined value; and a falling portion (t4-t5) having a rate of decrease of a second predetermined value; wherein the alert is generated in response to determining that a rate of increase of the output signal exceeds the first predetermined level, or in response to determining that a rate of decrease of the output signal exceeds the second predetermined value. using a flow meter to provide an output signal representing mass flow rate of the multiphase flow; determining the rate of change of the output signal; and generating an alert in response to comparing the output signal against a predetermined profile of the output signal comprising a pulse having a rising portion (t2-t3) having a rate of increase of a first predetermined value; and a falling portion (t4-t5) having a rate of decrease of a second predetermined value; wherein the alert is generated in response to determining that a rate of increase of the output signal exceeds the first predetermined level, or in response to determining that a rate of decrease of the output signal exceeds the second predetermined value.
Drinking straw for a package being filled with a pourable food product; the drinking straw being configured to be at least partially inserted into a package main body of the package ; the drinking straw comprises: - a tubular main body including a coupling portion extending along a central axis (B); the drinking straw further comprises a sleeve fitted on and surrounding at least the coupling portion of the tubular main body ;wherein the sleeve comprises an engagement portion fitted to and surrounding the coupling portion , wherein the engagement portion has a hollow cylindrical shape, wherein the sleeve comprises an abutment portion configured to abut onto an inner surface of the package main body after a partial insertion of the drinking straw into the package main body and during a movement of the drinking straw out of the package main body for impeding and/or hindering and/or blocking a removal and a separation of the drinking straw out of and from the package main body ; wherein the sleeve comprises an end portion having an inlet opening configured to allow for the introduction of the pourable food product into the drinking straw , wherein the tubular main body comprises a first end having an outlet opening configured to allow for the outflow of the pourable food product from the drinking straw and a second end opposite to the first end; characterised in that the abutment portion has a frustoconical shape, and wherein the second end is interposed between the abutment portion and the inlet opening . the drinking straw being configured to be at least partially inserted into a package main body of the package ; the drinking straw comprises: - a tubular main body including a coupling portion extending along a central axis (B); - a tubular main body including a coupling portion extending along a central axis (B); the drinking straw further comprises a sleeve fitted on and surrounding at least the coupling portion of the tubular main body ;wherein the sleeve comprises an engagement portion fitted to and surrounding the coupling portion , wherein the engagement portion has a hollow cylindrical shape, wherein the sleeve comprises an abutment portion configured to abut onto an inner surface of the package main body after a partial insertion of the drinking straw into the package main body and during a movement of the drinking straw out of the package main body for impeding and/or hindering and/or blocking a removal and a separation of the drinking straw out of and from the package main body ; wherein the sleeve comprises an end portion having an inlet opening configured to allow for the introduction of the pourable food product into the drinking straw , wherein the tubular main body comprises a first end having an outlet opening configured to allow for the outflow of the pourable food product from the drinking straw and a second end opposite to the first end; characterised in that the abutment portion has a frustoconical shape, and wherein the second end is interposed between the abutment portion and the inlet opening .
An automatic uploading method, comprising the steps of: sending a wake-up signal (S1) from a first relay station by broadcast; receiving the wake-up signal (S1) by a low-power-consumption wireless transmission module of a portable information capturing device ; actuating a high-power-consumption wireless transmission module of the portable information capturing device according to the wake-up signal (S1); creating a connection between the high-power-consumption wireless transmission module and the first relay station after the high-power-consumption wireless transmission module has been actuated; shutting down the low-power-consumption wireless transmission module after the connection has been created; and transmitting, via the connection, an upload data (D1) of the portable information capturing device to a second relay station , wherein the second relay station is connected to the first relay station ; wherein the wake-up signal (S1) includes a service identifier of the second relay station , and the high-power-consumption wireless transmission module creates the connection to the second relay station according to the service identifier, so as for the upload data (D1) to be transmitted to the second relay station . sending a wake-up signal (S1) from a first relay station by broadcast; receiving the wake-up signal (S1) by a low-power-consumption wireless transmission module of a portable information capturing device ; actuating a high-power-consumption wireless transmission module of the portable information capturing device according to the wake-up signal (S1); creating a connection between the high-power-consumption wireless transmission module and the first relay station after the high-power-consumption wireless transmission module has been actuated; shutting down the low-power-consumption wireless transmission module after the connection has been created; and transmitting, via the connection, an upload data (D1) of the portable information capturing device to a second relay station , wherein the second relay station is connected to the first relay station ; wherein the wake-up signal (S1) includes a service identifier of the second relay station , and the high-power-consumption wireless transmission module creates the connection to the second relay station according to the service identifier, so as for the upload data (D1) to be transmitted to the second relay station .
An air gasper for a vehicle, comprising: an air inlet ; a first housing disposable through a panel in the vehicle, the first housing being connected to the air inlet ; a second housing disposed within the first housing ; an air outlet disposed within the second housing , downstream of the air inlet ; and a first mechanism connected between the first housing and the second housing, wherein the first mechanism permits the second housing to be stowed within the first housing in a stowed position and also permits the second housing to extend outwardly from the first housing in a deployed position, characterized in that , when the second housing is in the deployed position, the air outlet is permitted to acquire an opened position for permitting air to exit the air outlet and a closed position for preventing air from exiting the air outlet . an air inlet ; a first housing disposable through a panel in the vehicle, the first housing being connected to the air inlet ; a second housing disposed within the first housing ; an air outlet disposed within the second housing , downstream of the air inlet ; and a first mechanism connected between the first housing and the second housing, wherein the first mechanism permits the second housing to be stowed within the first housing in a stowed position and also permits the second housing to extend outwardly from the first housing in a deployed position, characterized in that , when the second housing is in the deployed position, the air outlet is permitted to acquire an opened position for permitting air to exit the air outlet and a closed position for preventing air from exiting the air outlet .
A method for producing encapsulated natively-paired scFv amplicons, the method comprising: a. encapsulating single B-cells in droplets, wherein the droplets further contain reagents for amplifying and linking native pairings of heavy and light chain variable domain amplicons from single encapsulated B-cells; b. lysing the single encapsulated B-cells; and c. generating the encapsulated natively-paired scFv amplicons, wherein each scFv amplicon comprises a native pairing of heavy and light chain variable domain amplicons linked together by a linker, wherein the linker has a length of 10-20 amino acids. a. encapsulating single B-cells in droplets, wherein the droplets further contain reagents for amplifying and linking native pairings of heavy and light chain variable domain amplicons from single encapsulated B-cells; b. lysing the single encapsulated B-cells; and c. generating the encapsulated natively-paired scFv amplicons, wherein each scFv amplicon comprises a native pairing of heavy and light chain variable domain amplicons linked together by a linker, wherein the linker has a length of 10-20 amino acids.
A method for preparing a gelling agent, said method comprises the following consecutive steps: a) mixing propyleneglycol laurate and propyleneglycol isostearate, providing a first mixture, b) adding ethylcellulose to the first mixture under stirring, thereby providing a second mixture, c) continuously stirring the second mixture until a substantially homogeneous gelling agent is formed, and wherein step a), b) and c) are performed at a temperature between about 90°C and about 110°C, and wherein the amount of ethylcellulose added in step b) is between 4.5 wt% and 5.5 wt% based on the total weight of the gelling agent, and wherein the amount of propyleneglycol laurate added in step a) is at least 70 wt% and not more than 90 wt%, based on the total weight of the gelling agent, and the amount of propyleneglycol isostearate added in step a), is at least 5 wt% and not more than 25 wt%, based on the total weight of the gelling agent. a) mixing propyleneglycol laurate and propyleneglycol isostearate, providing a first mixture, b) adding ethylcellulose to the first mixture under stirring, thereby providing a second mixture, c) continuously stirring the second mixture until a substantially homogeneous gelling agent is formed, and wherein step a), b) and c) are performed at a temperature between about 90°C and about 110°C, and wherein the amount of ethylcellulose added in step b) is between 4.5 wt% and 5.5 wt% based on the total weight of the gelling agent, and wherein the amount of propyleneglycol laurate added in step a) is at least 70 wt% and not more than 90 wt%, based on the total weight of the gelling agent, and the amount of propyleneglycol isostearate added in step a), is at least 5 wt% and not more than 25 wt%, based on the total weight of the gelling agent.
A delivery conduit for supplying a flow of gases from a gases supply means to a patient, the delivery conduit comprising a part of an electrical circuit , characterized in that the part of an electrical circuit includes a heater wire to heat the gases flowing through the delivery conduit ; and a diode and a thermistor which are in parallel with one another and which are placed in series with the heater wire at a point in the heater wire at or near the end of the delivery conduit nearest the patient; wherein the diode and the thermistor are overmoulded with plastic for sealing and mounted in the gases stream through the delivery conduit , and the thermistor is adapted to be used to provide measurements of a temperature of the gases. characterized in that the part of an electrical circuit includes a heater wire to heat the gases flowing through the delivery conduit ; and a diode and a thermistor which are in parallel with one another and which are placed in series with the heater wire at a point in the heater wire at or near the end of the delivery conduit nearest the patient; wherein the diode and the thermistor are overmoulded with plastic for sealing and mounted in the gases stream through the delivery conduit , and the thermistor is adapted to be used to provide measurements of a temperature of the gases.
A method for performing wireless communication by a first device, the method comprising: transmitting (S1310), to a second device through a physical sidelink control channel, PSCCH, first sidelink control information, SCI, for scheduling of a physical sidelink shared channel, PSSCH; and transmitting (S1320), to the second device through the PSSCH, assistance information used for sidelink resource selection of the second device, wherein the assistance information includes (i) a first combination of a first time resource indicator value, TRIV, and a first frequency resource indicator value, FRIV, (ii) a second combination of a second TRIV and a second FRIV, and (iii) reference time location information representing a first direct frame number, DFN, index and a first slot index. transmitting (S1310), to a second device through a physical sidelink control channel, PSCCH, first sidelink control information, SCI, for scheduling of a physical sidelink shared channel, PSSCH; and transmitting (S1320), to the second device through the PSSCH, assistance information used for sidelink resource selection of the second device, wherein the assistance information includes (i) a first combination of a first time resource indicator value, TRIV, and a first frequency resource indicator value, FRIV, (ii) a second combination of a second TRIV and a second FRIV, and (iii) reference time location information representing a first direct frame number, DFN, index and a first slot index.
Method for checking a license for using at least one performance feature in an Internet-of-Things (IoT) device on the basis of a license identifier (LK), comprising - stipulating (S1) at least one license condition for using the performance feature of the IoT device by means of at least one attribute contained in the license identifier (LK), - transmitting and storing (S2) the license identifier (LK) on the IoT device , - checking (S3) the license conditions by a) generating (S31) pseudo-access assigned to the performance feature of the IoT device by means of a pseudo-holder unit formed on the IoT device , and b) checking (S32) an authorization for the pseudo-access by checking the attributes of the license identifier (LK) by means of a verification unit formed on the IoT device , and - activating (S4) the at least one performance feature if the pseudo-access is confirmed as permitted by a positive checking result for the license identifier (LK), wherein the license identifier (LK), the pseudo-holder unit and the verification unit are designed on the basis of a specification for verifiable credentials of a World Wide Web Consortium (W3C for short), and the license identifier (LK) is based on a structure of the verifiable credentials, the verification unit corresponds to a modified verifier and the pseudo-holder unit corresponds to a modified holder which is designed as a local unit on the IoT device and provides the verification unit with the license identifier (LK) . - stipulating (S1) at least one license condition for using the performance feature of the IoT device by means of at least one attribute contained in the license identifier (LK), - transmitting and storing (S2) the license identifier (LK) on the IoT device , - checking (S3) the license conditions by a) generating (S31) pseudo-access assigned to the performance feature of the IoT device by means of a pseudo-holder unit formed on the IoT device , and b) checking (S32) an authorization for the pseudo-access by checking the attributes of the license identifier (LK) by means of a verification unit formed on the IoT device , and a) generating (S31) pseudo-access assigned to the performance feature of the IoT device by means of a pseudo-holder unit formed on the IoT device , and b) checking (S32) an authorization for the pseudo-access by checking the attributes of the license identifier (LK) by means of a verification unit formed on the IoT device , and - activating (S4) the at least one performance feature if the pseudo-access is confirmed as permitted by a positive checking result for the license identifier (LK),
A method for determining a filling level of a storage container, comprising: generating a magnetic excitation field, wherein the magnetic excitation field is configured to excite a content of the storage container to develop a magnetic response field, and wherein generating the magnetic excitation field comprises varying a frequency of the magnetic excitation field; determining a plurality of measurement values for the magnetic response field for different frequencies of the magnetic excitation field; and determining the filling level of the storage container based on a position of the storage container and a comparison of the plurality of measurement values to reference measurement values, wherein a filling level of the storage container is associated with each of the reference measurement values, and wherein determining the filling level of the storage container comprises: determining a phase response and/or an amplitude response of the plurality of measurement values across the different frequencies of the magnetic excitation field; and determining a similarity of the phase response and/or the amplitude response of the plurality of measurement values to a phase response and/or an amplitude response of at least a part of the reference measurement values over the different frequencies of the magnetic excitation field. generating a magnetic excitation field, wherein the magnetic excitation field is configured to excite a content of the storage container to develop a magnetic response field, and wherein generating the magnetic excitation field comprises varying a frequency of the magnetic excitation field; determining a plurality of measurement values for the magnetic response field for different frequencies of the magnetic excitation field; and determining the filling level of the storage container based on a position of the storage container and a comparison of the plurality of measurement values to reference measurement values, wherein a filling level of the storage container is associated with each of the reference measurement values, and wherein determining the filling level of the storage container comprises: determining a phase response and/or an amplitude response of the plurality of measurement values across the different frequencies of the magnetic excitation field; and determining a similarity of the phase response and/or the amplitude response of the plurality of measurement values to a phase response and/or an amplitude response of at least a part of the reference measurement values over the different frequencies of the magnetic excitation field. determining a phase response and/or an amplitude response of the plurality of measurement values across the different frequencies of the magnetic excitation field; and determining a similarity of the phase response and/or the amplitude response of the plurality of measurement values to a phase response and/or an amplitude response of at least a part of the reference measurement values over the different frequencies of the magnetic excitation field.