mhurhangee/patent-ind-claim-en huggingface dataset:
A process for preparing an ultrafiltered whey protein hydrolysate, said process comprising: a) Subjecting whey protein A to hydrolysis 1 with one or more proteolytic enzymes thereby obtaining a whey protein hydrolysate B , and b) subjecting the whey protein hydrolysate B to membrane ultrafiltration 2 thereby obtaining a permeate C1 and a retentate C2, wherein (i) an emulsifier E is added to the whey protein A prior to or during hydrolysis 1 or wherein an emulsifier and/or a chaotropic agent E is added to the whey protein hydrolysate B prior to the membrane ultrafiltration 2, wherein the ultrafiltered whey protein hydrolysate is in permeate C1, and/or wherein (ii) after step b) c) an emulsifier and/or a chaotropic agent E is added to retentate C2 thereby obtaining a retentate C3, d) subjecting the retentate C3 to membrane ultrafiltration 3 thereby obtaining a permeate D1 and a retentate D2, and e) adding at least part of the permeate D1 to the permeate C1 thereby obtaining permeate D3, wherein the ultrafiltered whey protein hydrolysate is in permeate D3. a) Subjecting whey protein A to hydrolysis 1 with one or more proteolytic enzymes thereby obtaining a whey protein hydrolysate B , and b) subjecting the whey protein hydrolysate B to membrane ultrafiltration 2 thereby obtaining a permeate C1 and a retentate C2, (i) an emulsifier E is added to the whey protein A prior to or during hydrolysis 1 or wherein an emulsifier and/or a chaotropic agent E is added to the whey protein hydrolysate B prior to the membrane ultrafiltration 2, wherein the ultrafiltered whey protein hydrolysate is in permeate C1, and/or wherein (ii) after step b) c) an emulsifier and/or a chaotropic agent E is added to retentate C2 thereby obtaining a retentate C3, d) subjecting the retentate C3 to membrane ultrafiltration 3 thereby obtaining a permeate D1 and a retentate D2, and e) adding at least part of the permeate D1 to the permeate C1 thereby obtaining permeate D3, wherein the ultrafiltered whey protein hydrolysate is in permeate D3. c) an emulsifier and/or a chaotropic agent E is added to retentate C2 thereby obtaining a retentate C3, d) subjecting the retentate C3 to membrane ultrafiltration 3 thereby obtaining a permeate D1 and a retentate D2, and e) adding at least part of the permeate D1 to the permeate C1 thereby obtaining permeate D3,
A method implemented in an access point, in the following also referred to as AP, comprising: participating in joint soundings together with one or more other APs in a joint multi-AP, in the following also referred to as JMAP, configuration to receive joint feedbacks from a plurality of stations, in the following also referred to as STAs, responding to the joint soundings ; and performing transmissions in a coordinated multi-AP, in the following also referred to as CMAP, configuration with the one or more other APs or in a single-AP configuration with no other AP based on the joint feedbacks received while in the JMAP configuration . participating in joint soundings together with one or more other APs in a joint multi-AP, in the following also referred to as JMAP, configuration to receive joint feedbacks from a plurality of stations, in the following also referred to as STAs, responding to the joint soundings ; and performing transmissions in a coordinated multi-AP, in the following also referred to as CMAP, configuration with the one or more other APs or in a single-AP configuration with no other AP based on the joint feedbacks received while in the JMAP configuration .
Method for monitoring the integrity of reference stations (1.1, 1.2, 1.3, ..., 1.n), having known and fixed coordinates, of a correction service system for a satellite-assisted navigation system in a coordinate system, wherein at least one first group of the reference stations (1.1, 1.2, 1.3, 1, ..., 1.n) is operated in order to receive satellite signals from a plurality of satellites of the signal-assisted navigation system , wherein a) a first reference station (1.2, 3) is selected from the first group , b) at least one first correction value is determined in accordance with the satellite signals respectively received by the other reference stations (1.1, 1.3, ..., 1.n) of the first group and the known coordinates of the respective other reference station (1.1, 1.3, ..., 1.n) of the first group , and wherein c) the monitoring of the integrity is carried out by comparing first coordinates of the first reference station (1.2, 3), which are determined by means of satellite signals received by the first reference station (1.2, 3) and the at least one first correction value , with the known coordinates of the first reference station (1.2, 3), and checking them for at least one first deviation, characterized in that in a step f) a second reference station (1.3, 3'), which is different from the first reference station (1.2, 3) is selected from the first group , and in that if a critical first deviation is not determined , the steps b) and c) are carried out for the second reference station (1.3, 3'), or in that in a step f') the second reference station (1.3, 3') is selected from the first group , and in that when a critical first deviation is determined the steps b) and c) are carried out for the second reference station (1.3, 3') instead of the first reference station (1.2, 3), without taking into account the first reference station (1.2, 3). a) a first reference station (1.2, 3) is selected from the first group , b) at least one first correction value is determined in accordance with the satellite signals respectively received by the other reference stations (1.1, 1.3, ..., 1.n) of the first group and the known coordinates of the respective other reference station (1.1, 1.3, ..., 1.n) of the first group , and wherein c) the monitoring of the integrity is carried out by comparing first coordinates of the first reference station (1.2, 3), which are determined by means of satellite signals received by the first reference station (1.2, 3) and the at least one first correction value , with the known coordinates of the first reference station (1.2, 3), and checking them for at least one first deviation,
A field programmable gate array (FPGA) device , comprising: an application module (310-1); a plurality of protocol stack modules operable to access a plurality of target devices based on different communication protocols via a physical interface (330-1) of the FPGA device; characterized in further comprising a universal access module operable to : receive , from the application module (310-1), first data and a first identity of a first target device of the plurality of target devices, the first target device acting as a destination of the first data, and transmit the first data to a first protocol stack module (320-1) of the plurality of protocol stack modules based on the first identity and first predetermined routing information, the first protocol stack module (320-1) being accessible to the first target device via the physical interface (330-1). an application module (310-1); a plurality of protocol stack modules operable to access a plurality of target devices based on different communication protocols via a physical interface (330-1) of the FPGA device; characterized in further comprising a universal access module operable to : receive , from the application module (310-1), first data and a first identity of a first target device of the plurality of target devices, the first target device acting as a destination of the first data, and transmit the first data to a first protocol stack module (320-1) of the plurality of protocol stack modules based on the first identity and first predetermined routing information, the first protocol stack module (320-1) being accessible to the first target device via the physical interface (330-1). receive , from the application module (310-1), first data and a first identity of a first target device of the plurality of target devices, the first target device acting as a destination of the first data, and transmit the first data to a first protocol stack module (320-1) of the plurality of protocol stack modules based on the first identity and first predetermined routing information, the first protocol stack module (320-1) being accessible to the first target device via the physical interface (330-1).
A unit chair (10 comprising a link unit for adjusting a posture of a headrest , wherein the link unit includes: a) a first link member fixed to a backrest portion of the unit chair ; b) a second link member having one end portion hinged to the first link member by a first hinge pin ; and c) a first ratchet member formed on one surface of at least one of the first link member and the second link member and constraining motion of the second link member so that the second link member is rotatable only in one direction based on a central axis line of the first hinge pin , wherein the first ratchet member includes d) a first ratchet base portion including a plurality of saw teeth formed on one surface, arranged in a ring shape based on the central axis line of the first hinge pin , uplifted in a direction toward the central axis line, and inclined only in one direction, and having an opposite surface fixed to the first link member ; and e) a first ratchet rotating portion including a plurality of saw teeth formed on one surface and at least partially engaged with at least some of the saw teeth of the first ratchet base portion (951 and having an opposite surface fixed to the second link member ; f) wherein the first ratchet member constrains motion of the second link member so that the second link member is rotatable only in one direction based on the central axis line of the first hinge pin as the saw teeth of the first ratchet base portion are engaged with the saw teeth of the first ratchet rotating portion . a) a first link member fixed to a backrest portion of the unit chair ; b) a second link member having one end portion hinged to the first link member by a first hinge pin ; and c) a first ratchet member formed on one surface of at least one of the first link member and the second link member and constraining motion of the second link member so that the second link member is rotatable only in one direction based on a central axis line of the first hinge pin , wherein the first ratchet member includes d) a first ratchet base portion including a plurality of saw teeth formed on one surface, arranged in a ring shape based on the central axis line of the first hinge pin , uplifted in a direction toward the central axis line, and inclined only in one direction, and having an opposite surface fixed to the first link member ; and e) a first ratchet rotating portion including a plurality of saw teeth formed on one surface and at least partially engaged with at least some of the saw teeth of the first ratchet base portion (951 and having an opposite surface fixed to the second link member ; f) wherein the first ratchet member constrains motion of the second link member so that the second link member is rotatable only in one direction based on the central axis line of the first hinge pin as the saw teeth of the first ratchet base portion are engaged with the saw teeth of the first ratchet rotating portion .
A method of sealing a multi-component bipolar plate, the method comprising: inserting a first seal between a first component and a second component, wherein the first seal is aligned with a first plurality of protrusions formed on a surface of at least one of the first component and the second component; compressing the first component and the second component to cause the penetration of the first plurality of protrusions into the first seal; and plastically deforming the first seal in order to create a first sealing surface between the first component and the second component; the method being characterized by : inserting a spacer between the first component and the second component, wherein the spacer is configured to control a depth of penetration of the first plurality of protrusions into the first seal and determine a gap height between the first component and the second component. inserting a first seal between a first component and a second component, wherein the first seal is aligned with a first plurality of protrusions formed on a surface of at least one of the first component and the second component; compressing the first component and the second component to cause the penetration of the first plurality of protrusions into the first seal; and plastically deforming the first seal in order to create a first sealing surface between the first component and the second component; the method being characterized by : inserting a spacer between the first component and the second component, wherein the spacer is configured to control a depth of penetration of the first plurality of protrusions into the first seal and determine a gap height between the first component and the second component.
Flexible steel ring for a drive belt with a number of transverse elements, that are slidably provided on an endless carrier , which endless carrier encompasses a number of such flexible steel rings that are mutually stacked, which ring is provided with a nitrided surface layer at or near an outer surface thereof, characterized in that a thickness dimension D of the ring , as measured in a radial direction, is tailored to a thickness dimension T of the nitrided surface layer , as likewise measured in the radial direction, and satisfies the equation: D = 6.0 * T.
An isolated vertebrate cell suitable for recombinant expression of a polypeptide of interest, wherein the vertebrate cell is altered to impair the effect of matriptase, wherein the effect of matriptase is impaired because functional expression of the matriptase gene is reduced or eliminated in said cell, and wherein the vertebrate cell comprises at least one heterologous polynucleotide encoding a polypeptide of interest, wherein the vertebrate cell secretes the polypeptide of interest.
A method for assessment and/or monitoring a person's cardiovascular state, the method comprising: using a sound and vibration transducer to acquire a vascular sound signal in order to detect a vascular sound from a cervical, thoracic, abdominal, pelvic, or lower limb region of the person; filtering the vascular sound signal to isolate the vascular sound, said filtering using a filter which attenuates frequencies below a lower cut-off frequency in a range of 100-300 Hz; and analyzing the filtered sound signal in order to determine whether an indication of a dicrotic notch in the vascular sound exceeds a set threshold, wherein analyzing the filtered sound signal comprises: forming an envelope curve of the vascular sound signal; and determining a characteristic in the envelope so as to determine an indication of a dicrotic notch in the vascular sound; characterized in that analyzing the filtered sound signal further comprises: identifying a sequence of wave forms, wherein each single wave form corresponds to a heartbeat and extends from a first local minimum to a second local minimum in the envelope; and selecting wave forms in the sequence of wave forms, wherein the selected wave forms are validated as representing a typical wave form; aligning the selected wave forms, and forming an average wave form of the aligned wave forms. using a sound and vibration transducer to acquire a vascular sound signal in order to detect a vascular sound from a cervical, thoracic, abdominal, pelvic, or lower limb region of the person; filtering the vascular sound signal to isolate the vascular sound, said filtering using a filter which attenuates frequencies below a lower cut-off frequency in a range of 100-300 Hz; and analyzing the filtered sound signal in order to determine whether an indication of a dicrotic notch in the vascular sound exceeds a set threshold, wherein analyzing the filtered sound signal comprises: forming an envelope curve of the vascular sound signal; and determining a characteristic in the envelope so as to determine an indication of a dicrotic notch in the vascular sound; forming an envelope curve of the vascular sound signal; and determining a characteristic in the envelope so as to determine an indication of a dicrotic notch in the vascular sound; characterized in that analyzing the filtered sound signal further comprises: identifying a sequence of wave forms, wherein each single wave form corresponds to a heartbeat and extends from a first local minimum to a second local minimum in the envelope; and selecting wave forms in the sequence of wave forms, wherein the selected wave forms are validated as representing a typical wave form; aligning the selected wave forms, and forming an average wave form of the aligned wave forms. identifying a sequence of wave forms, wherein each single wave form corresponds to a heartbeat and extends from a first local minimum to a second local minimum in the envelope; and selecting wave forms in the sequence of wave forms, wherein the selected wave forms are validated as representing a typical wave form; aligning the selected wave forms, and forming an average wave form of the aligned wave forms.
A percussive pulsed air device , comprising: an airflow generator controlling an amplitude of the percussive pulsed air; a pulse frequency control module controlling a frequency of the percussive pulsed air, the pulse frequency control module comprising a rotatable fan blade having at least one cutout portion , the cutout portion allowing air to pass through the rotatable fan blade; and one or more ports for flowably coupling to a patient device, wherein the fan blade further comprises at least one dado channel arranged on one face of the blade to redirect airflow from the airflow generator, wherein the at least one dado channel is not a cutout portion allowing air to pass through the rotatable fan blade. an airflow generator controlling an amplitude of the percussive pulsed air; a pulse frequency control module controlling a frequency of the percussive pulsed air, the pulse frequency control module comprising a rotatable fan blade having at least one cutout portion , the cutout portion allowing air to pass through the rotatable fan blade; and one or more ports for flowably coupling to a patient device, wherein the fan blade further comprises at least one dado channel arranged on one face of the blade to redirect airflow from the airflow generator, wherein the at least one dado channel is not a cutout portion allowing air to pass through the rotatable fan blade.
A water reuse system comprising: a controller; a reservoir tank ; a sensor for monitoring the quality of water in the reservoir tank , wherein the sensor communicates the water quality of the water in the reservoir tank to the controller; a reservoir water transfer pump for transferring rinse water to the reservoir tank ; a reservoir tank fresh-water filling system used to add fresh water into the reservoir tank ; a drain water diverter valve ; and a drain water pump for returning the rinse water to a wash tank of a wash machine ; characterized in the drain water diverter valve is located upstream of the drain water pump and downstream of an outlet valve of the wash machine for directing water from the outlet valve through the drain water pump into the reservoir tank and the drain water diverter valve is controlled by the controller; one or more level sensors, wherein the level sensor communicates the water level of the reservoir tank to the controller; wherein the water reuse system is in fluid communication with the wash tank of the wash machine , and wherein the wash machine comprises the wash tank , a dispenser , a hot water fill valve, a cold water fill valve, and the outlet valve . a controller; a reservoir tank ; a sensor for monitoring the quality of water in the reservoir tank , wherein the sensor communicates the water quality of the water in the reservoir tank to the controller; a reservoir water transfer pump for transferring rinse water to the reservoir tank ; a reservoir tank fresh-water filling system used to add fresh water into the reservoir tank ; a drain water diverter valve ; and a drain water pump for returning the rinse water to a wash tank of a wash machine ; characterized in the drain water diverter valve is located upstream of the drain water pump and downstream of an outlet valve of the wash machine for directing water from the outlet valve through the drain water pump into the reservoir tank and the drain water diverter valve is controlled by the controller; one or more level sensors, wherein the level sensor communicates the water level of the reservoir tank to the controller; wherein the water reuse system is in fluid communication with the wash tank of the wash machine , and wherein the wash machine comprises the wash tank , a dispenser , a hot water fill valve, a cold water fill valve, and the outlet valve .
Method for operating a flowmeter for performing a plurality of time-limited measuring operations, wherein the flowmeter has at least one diagnostic unit , a counter unit and a memory unit with at least one memory , wherein the counter unit determines at least the total volume of a fluid passing through the flowmeter during a measuring operation, so that by means of the specification of the total volume, each point in time of the measuring process can be determined precisely and a chronological mapping to the measuring process is possible on the basis of the total volume, and wherein the counter unit is operated for the duration of a time-limited measuring process, comprising the following method steps: determining at least one faulty or fault-free state of the flowmeter by the diagnostic unit , wherein the diagnostic unit generates at least one status message based on the state, and wherein the status message is transmitted to the memory unit and stored in the memory of the memory unit , wherein, if several status messages are transmitted, these are stored cumulatively in the memory of the memory unit at least for the duration of the measuring process, characterized in that the memory unit continuously makes the accumulated status messages available via an interface during a time-limited measuring process. determining at least one faulty or fault-free state of the flowmeter by the diagnostic unit , wherein the diagnostic unit generates at least one status message based on the state, and wherein the status message is transmitted to the memory unit and stored in the memory of the memory unit , wherein, if several status messages are transmitted, these are stored cumulatively in the memory of the memory unit at least for the duration of the measuring process, characterized in that the memory unit continuously makes the accumulated status messages available via an interface during a time-limited measuring process.