mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-readable storage medium having instructions thereon which, when executed by a computer, cause the computer to implement a method comprising the steps of: projecting a light signal from a catheter into a blood vessel ; receiving the light signal after it interacted with blood and measuring an intensity of at least one wavelength associated with the projected light signal; and based on the measured intensity, detecting blood-vessel wall artifacts due to catheter proximity to a blood-vessel wall , wherein the detecting of blood-vessel wall artifacts includes comparing the measured intensity to a predetermined threshold for the at least one wavelength, characterized by determining catheter proximity to a blood-vessel wall and outputting a visual or audio signal to a clinician that light signal quality is low due to the catheter placement, if the intensity exceeds the predetermined threshold. projecting a light signal from a catheter into a blood vessel ; receiving the light signal after it interacted with blood and measuring an intensity of at least one wavelength associated with the projected light signal; and based on the measured intensity, detecting blood-vessel wall artifacts due to catheter proximity to a blood-vessel wall , wherein the detecting of blood-vessel wall artifacts includes comparing the measured intensity to a predetermined threshold for the at least one wavelength, characterized by determining catheter proximity to a blood-vessel wall and outputting a visual or audio signal to a clinician that light signal quality is low due to the catheter placement, if the intensity exceeds the predetermined threshold.
A method for operating a mobile device, comprising: determining a value of a timer; transmitting a request of an application layer through a first interface; and when not receiving a response corresponding to the request transmitted through the first interface before the timer expires, retransmitting the request of the application layer through a second interface, wherein the request transmitted through the first interface and the request transmitted through the second interface correspond to a single request generated in an application, wherein the value of the timer is determined based on at least one of a purpose of the request, a type of the application, a current state of a service relating to the application, and a channel quality of a network of the first interface, wherein the value of the timer is determined to be smaller as a channel quality of a network accessible through the first interface degrades, and wherein the value of the timer is shorter than a waiting time for declaring timeout of the application. determining a value of a timer; transmitting a request of an application layer through a first interface; and when not receiving a response corresponding to the request transmitted through the first interface before the timer expires, retransmitting the request of the application layer through a second interface, wherein the request transmitted through the first interface and the request transmitted through the second interface correspond to a single request generated in an application, wherein the value of the timer is determined based on at least one of a purpose of the request, a type of the application, a current state of a service relating to the application, and a channel quality of a network of the first interface, wherein the value of the timer is determined to be smaller as a channel quality of a network accessible through the first interface degrades, and wherein the value of the timer is shorter than a waiting time for declaring timeout of the application.
A user equipment, LTE, for use in a wireless communication system, the LTE comprising: a communication module; and a processor configured to control the communication module, wherein the processor is configured to: receive configuration information related to a cyclic period for monitoring an uplink, UL, preemption indicator; receive scheduling information for a physical uplink shared channel, PUSCH, transmission; after a reception of the scheduling information, receive a common physical downlink control channel, PDCCH, including the UL preemption indicator during a monitoring time configured by the cyclic period; and based on the PUSCH transmission being overlapped with at least one resource part indicated by the UL preemption indicator within a reference time-frequency resource, cancel a portion of the PUSCH transmission based on the at least one resource part, wherein a starting time of the reference time-frequency resource is located after the monitoring time, at least by a time interval associated with a PUSCH processing time. a communication module; and a processor configured to control the communication module, wherein the processor is configured to: receive configuration information related to a cyclic period for monitoring an uplink, UL, preemption indicator; receive scheduling information for a physical uplink shared channel, PUSCH, transmission; after a reception of the scheduling information, receive a common physical downlink control channel, PDCCH, including the UL preemption indicator during a monitoring time configured by the cyclic period; and based on the PUSCH transmission being overlapped with at least one resource part indicated by the UL preemption indicator within a reference time-frequency resource, cancel a portion of the PUSCH transmission based on the at least one resource part, wherein a starting time of the reference time-frequency resource is located after the monitoring time, at least by a time interval associated with a PUSCH processing time. receive configuration information related to a cyclic period for monitoring an uplink, UL, preemption indicator; receive scheduling information for a physical uplink shared channel, PUSCH, transmission; after a reception of the scheduling information, receive a common physical downlink control channel, PDCCH, including the UL preemption indicator during a monitoring time configured by the cyclic period; and based on the PUSCH transmission being overlapped with at least one resource part indicated by the UL preemption indicator within a reference time-frequency resource, cancel a portion of the PUSCH transmission based on the at least one resource part, wherein a starting time of the reference time-frequency resource is located after the monitoring time, at least by a time interval associated with a PUSCH processing time.
Method for producing a filter head from plastic, a threaded metal socket insert being at least partly injected into the filter head, the threaded metal socket insert being designed as a cold extruded part, wherein the filter head has radially extending plastic ribs which are formed integrally with the filter head and radiate from the threaded socket insert and open radially outwards into an axial sealing surface of the filter head which is formed integrally with the filter head, in which - the threaded socket insert is inserted into a complementary cylindrical receptacle of a plastic injection mould , - the threaded socket insert is pushed into the receptacle until it is in contact with an axial sealing surface at a receptacle edge , - a mandrel is pushed through the threaded socket insert until it positively engages in a recess on an opposite wall of a slide of the injection mould , a distance remaining between the threaded socket insert and the wall of the slide , - plastic is injected into the plastic injection mould and presses the threaded socket insert with its axial sealing surface against the receiving edge , - after the plastic has hardened, the mandrel is pulled out, the slide is moved and the filter head is removed from the plastic injection mould . - the threaded socket insert is inserted into a complementary cylindrical receptacle of a plastic injection mould , - the threaded socket insert is pushed into the receptacle until it is in contact with an axial sealing surface at a receptacle edge , - a mandrel is pushed through the threaded socket insert until it positively engages in a recess on an opposite wall of a slide of the injection mould , a distance remaining between the threaded socket insert and the wall of the slide , - plastic is injected into the plastic injection mould and presses the threaded socket insert with its axial sealing surface against the receiving edge , - after the plastic has hardened, the mandrel is pulled out, the slide is moved and the filter head is removed from the plastic injection mould .
Method of operating a radio node in a radio access network, the method comprising configuring a user equipment with a Downlink Control Information, DCI, message, the DCI message indicating a parametrisation pertaining to sounding reference signaling, SRS, to be transmitted by the user equipment and to communication signaling on a Physical Downlink Shared Channel, PDSCH, to be received by the user equipment ; wherein the parametrisation indicates frequency resources for the SRS and frequency resources for the communication signaling, wherein the frequency resources for the SRS are distributed to cover a frequency range overlapping and/or coinciding with a frequency range associated to the frequency resources for the communication signaling, and wherein the DCI message for the SRS and the PDSCH is jointly encoded in one message.
Method for operating a metal printing device , with a booth in which the metal printing is carried out, wherein the booth has an inlet and an outlet and wherein a blower is provided with which an atmosphere in the booth can be regenerated, wherein a device is also provided in order to be able to suck off particles, wherein further in a first process step for cleaning the atmosphere in the booth process gas is extracted from the booth and passed through a regeneration device (R) and in a second process step after completion of the printing process excess particles are removed from the booth by means of the device, wherein a suction blower with a suction line connection is provided as the blower, characterized in that a first and a second suction duct are provided starting from the booth , which are brought together in a changeover device connected upstream of the suction blower , in that both the first process step and the second process step are carried out with the suction blower , the operation being switched over between a suction-side connection of the first and/or the second suction channel to the suction blower by the switching device connected upstream of the suction blower .
A full-face diving mask , comprising: a lens housing and a fitting mask sealed together at an interface; wherein the lens housing includes a lens that is at least partially transparent; a cavity formed by the lens housing and the fitting mask, the fitting mask including a face opening for the placement of a portion of a user's face therethrough and into the cavity, wherein the face opening is configured to seal against the portion of the user's face and prevent water from entering the cavity when the full-face diving mask is worn; a first partition plate dividing the cavity between an upper air compartment located adjacent to the user's eyes and a lower air compartment located adjacent to the user's nose and mouth when the full-face diving mask is worn; at least one valve located on the first partition plate permitting the transfer of air from the upper air compartment to the lower air compartment and preventing the transfer of air from the lower air compartment to the upper air compartment; a second partition plate dividing the lower air compartment into a front lower air compartment located between the second partition plate and the lens housing and rear lower air compartment located between the second partition plate and the face opening; and at least one additional valve located on the second partition plate permitting the transfer of air from the rear lower air compartment to the front lower air compartment and preventing the transfer of air from the front lower air compartment to the rear lower air compartment. a lens housing and a fitting mask sealed together at an interface; wherein the lens housing includes a lens that is at least partially transparent; a cavity formed by the lens housing and the fitting mask, the fitting mask including a face opening for the placement of a portion of a user's face therethrough and into the cavity, wherein the face opening is configured to seal against the portion of the user's face and prevent water from entering the cavity when the full-face diving mask is worn; a first partition plate dividing the cavity between an upper air compartment located adjacent to the user's eyes and a lower air compartment located adjacent to the user's nose and mouth when the full-face diving mask is worn; at least one valve located on the first partition plate permitting the transfer of air from the upper air compartment to the lower air compartment and preventing the transfer of air from the lower air compartment to the upper air compartment; a second partition plate dividing the lower air compartment into a front lower air compartment located between the second partition plate and the lens housing and rear lower air compartment located between the second partition plate and the face opening; and at least one additional valve located on the second partition plate permitting the transfer of air from the rear lower air compartment to the front lower air compartment and preventing the transfer of air from the front lower air compartment to the rear lower air compartment.
An epoxy resin mixture comprising at least one epoxy resin mixed with 0.2 to 5 parts by weight, per 100 parts by weight of the at least one epoxy resin, of one or more alkoxylated hydrophobes that include a poly(alkylene oxide) chain of at least 5 oxyalkylene units having a terminal hydroxyl group, provided that at least 50% of the hydroxyl groups provided by the one or more alkoxylated hydrophobes are secondary hydroxyl groups, the poly(alkylene oxide) chain being bonded at one end through a linking group to a hydrophobe, wherein the hydrophobe is a straight-chain alkyl group having 10 to 24 carbon atoms; a straight-chain mono-, di- or tri-alkene having 10 to 24 carbon atoms; or an alkyl- or alkenyl-substituted phenyl in which the alkyl or alkenyl group is a straight-chain group having 10 to 24, carbon atoms; and wherein the at least one epoxy resin contains no more than 1% by weight of monohydrolyzed resin species, wherein monohydrolyzed resin species are α-glycol compounds formed by the addition of a molecule of water to an epoxide group.
A method of managing heat exchange between a first stream and a second stream over a broad range of conditions, wherein the first stream comprises an upstream portion (P533, P637) and a downstream portion (P651) and wherein the second stream also comprises an upstream portion (P639 / P636) and a downstream portion (P643), the method comprising: exchanging heat between a first stream and a second stream; first adding material temporarily to either the upstream portion of the first stream or the upstream portion of the second stream, when the other of the two streams is experiencing a change in conditions, to thereby manage heat transfer between the first stream and the second stream while the other of the streams is experiencing the change in conditions; and then removing material temporarily from the upstream portion of the stream to which material has been added, when the other of the two streams is experiencing an opposite change in conditions, to thereby manage heat transfer between the first stream and the second stream while the other of the streams is experiencing the opposite change in conditions; wherein material in the first stream is supplied from a first primary source and material in the second stream is supplied from a second primary source, wherein adding material to and removing material from either the upstream portion of the first stream or the upstream portion of the second stream comprises adding material from a reservoir that is separate from the first primary source and the second primary source, and removing material to the reservoir. exchanging heat between a first stream and a second stream; first adding material temporarily to either the upstream portion of the first stream or the upstream portion of the second stream, when the other of the two streams is experiencing a change in conditions, to thereby manage heat transfer between the first stream and the second stream while the other of the streams is experiencing the change in conditions; and then removing material temporarily from the upstream portion of the stream to which material has been added, when the other of the two streams is experiencing an opposite change in conditions, to thereby manage heat transfer between the first stream and the second stream while the other of the streams is experiencing the opposite change in conditions; wherein material in the first stream is supplied from a first primary source and material in the second stream is supplied from a second primary source, wherein adding material to and removing material from either the upstream portion of the first stream or the upstream portion of the second stream comprises adding material from a reservoir that is separate from the first primary source and the second primary source, and removing material to the reservoir.
Push-button switch assembly having means for indicating a switching state, comprising: - an actuation head for actuating the push-button switch assembly , having a disc-shaped upper part and a tubular lower part , - a sleeve-shaped push-button guide which is coupled to the actuation head such that, in relation to a longitudinal axis (L) of the push-button switch assembly , the upper part is arranged above the push-button guide and the lower part surrounds the push-button guide , and - a light guide for guiding light, which is coupled to the actuation head such that, in relation to the longitudinal axis (L), at least portions of the light guide are arranged within the actuation head and within the push-button guide , characterized in that the light guide extends through the actuation head with a top end in a predetermined position, such that the push-button switch assembly can be illuminated in a predetermined manner by means of a light beam which, in relation to the longitudinal axis (L), can be coupled into the light guide at a bottom end opposite the top end , wherein the light guide is also designed in two parts and has a rod-shaped element which, in relation to the longitudinal axis (L), is connected to a funnel-shaped element , and a disc-shaped element which is coupled to the upper part of the actuation head and which, in interaction with the rod-shaped element and the funnel-shaped element , delimits a hollow space and forms a predetermined light guide function. - an actuation head for actuating the push-button switch assembly , having a disc-shaped upper part and a tubular lower part , - a sleeve-shaped push-button guide which is coupled to the actuation head such that, in relation to a longitudinal axis (L) of the push-button switch assembly , the upper part is arranged above the push-button guide and the lower part surrounds the push-button guide , and - a light guide for guiding light, which is coupled to the actuation head such that, in relation to the longitudinal axis (L), at least portions of the light guide are arranged within the actuation head and within the push-button guide , characterized in that the light guide extends through the actuation head with a top end in a predetermined position, such that the push-button switch assembly can be illuminated in a predetermined manner by means of a light beam which, in relation to the longitudinal axis (L), can be coupled into the light guide at a bottom end opposite the top end , wherein the light guide is also designed in two parts and has a rod-shaped element which, in relation to the longitudinal axis (L), is connected to a funnel-shaped element , and a disc-shaped element which is coupled to the upper part of the actuation head and which, in interaction with the rod-shaped element and the funnel-shaped element , delimits a hollow space and forms a predetermined light guide function.
Aluminum alloy sheet for battery lid use for forming an integrated circular explosion-proof valve having a component composition containing Fe: 1.05 to 1.50 mass%, Mn: 0.30 to 0.70 mass%, Ti: 0.002 to 0.08 mass%, and B: less than 0.04 mass%, having a balance of Al and impurities, having an Fe/Mn ratio restricted to 1.8 to 3.5, restricting, as impurities, Si to less than 0.20 mass%, Cu to less than 0.03 mass%, Mg to less than 0.05 mass%, and V to less than 0.03 mass%, having a conductivity of 53.0% IACS or more, having a 0.2% yield strength of 40 MPa or more, having a value of elongation of 40% or more, having a recrystallized structure, and having both a value of elongation after cold rolling by a rolling reduction of 80% and a value of elongation after cold rolling by a rolling reduction of 90% of 5.0% or more.
An electrode catalyst for a solid polymer electrolyte fuel cell comprising a catalyst metal particle and a spacer supported on a catalyst support , characterized in that a ratio (d sp /d cat ) of an average diameter of the spacer (d sp ) with respect to an average diameter of the catalyst metal particle (d cat ) is from 3.7 to 6.0, and the number of the catalyst metal particles supported on the surface of the spacer , in a state of being in contact with the spacer only, without contacting the catalyst support , is 30% or less with respect to the total number of the catalyst metal particles .
A computer-implemented method, of determining oxygen level saturation, comprising receiving a photoplethysmographic (PPG) signal, the PPG signal including a red PPG signal and an infrared PPG signal ; generating an input feature matrix by performing time-frequency transform of the PPG signal, wherein generating the input feature matrix further comprises generating a real value vector and an imaginary value vector across a time-frequency plane; training a neural network using the input feature matrix , an oxygen saturation level input signal and the real value vector and the imaginary value vector across a time-frequency plane; and generating an oxygen saturation level output signal using the trained neural network. receiving a photoplethysmographic (PPG) signal, the PPG signal including a red PPG signal and an infrared PPG signal ; generating an input feature matrix by performing time-frequency transform of the PPG signal, wherein generating the input feature matrix further comprises generating a real value vector and an imaginary value vector across a time-frequency plane; training a neural network using the input feature matrix , an oxygen saturation level input signal and the real value vector and the imaginary value vector across a time-frequency plane; and generating an oxygen saturation level output signal using the trained neural network.