mhurhangee/patent-ind-claim-en huggingface dataset:
A polymer processing system comprising: a) at least one extruder or mixer; b) at least one pelletizer; c) a screen changer; and d) one or more device(s) for processing polymers nested in the screen changer wherein each device comprises: i) an elongated body having a central axis; characterized in that the device additionally comprises: ii) a plurality of inlet ducts parallel to the central axis; iii) a plurality of outlet ducts parallel to the central axis; and iv) a plurality of transition zones comprising one or more passages and one or more acceleration zones; the device being further characterized in that the one or more passages are not parallel to the central axis and provide fluid communication between at least one inlet duct and at least one outlet duct , and wherein the one or more passages comprise a series of projections. a) at least one extruder or mixer; b) at least one pelletizer; c) a screen changer; and d) one or more device(s) for processing polymers nested in the screen changer wherein each device comprises: i) an elongated body having a central axis; characterized in that the device additionally comprises: ii) a plurality of inlet ducts parallel to the central axis; iii) a plurality of outlet ducts parallel to the central axis; and iv) a plurality of transition zones comprising one or more passages and one or more acceleration zones; i) an elongated body having a central axis; ii) a plurality of inlet ducts parallel to the central axis; iii) a plurality of outlet ducts parallel to the central axis; and iv) a plurality of transition zones comprising one or more passages and one or more acceleration zones;
A method comprising: detecting acoustic signals via an acoustic sensor disposed within a cavity of a blade (126A,B,C) of a wind turbine ; receiving, by a processor , information associated with the acoustic signals; and determining, by the processor, whether the blade is damaged based on the information associated with the acoustic signals, characterized in that determining whether the blade is damaged based on the information associated with the acoustic signals comprises: calculating an accumulated corrected absolute energy based on the information associated with the acoustic signals, wherein calculating the accumulated corrected absolute energy includes accumulating a corrected absolute energy over time, the corrected absolute energy being determined by subtracting, from a value based on the acoustic signals representing an absolute energy, a value that represents non-erosive operating conditions; and measuring erosion exposure based on the calculated accumulated corrected absolute energy, the erosion exposure corresponding to a cumulative erosive effect of corrosive forces on the blade over time. detecting acoustic signals via an acoustic sensor disposed within a cavity of a blade (126A,B,C) of a wind turbine ; receiving, by a processor , information associated with the acoustic signals; and determining, by the processor, whether the blade is damaged based on the information associated with the acoustic signals, characterized in that determining whether the blade is damaged based on the information associated with the acoustic signals comprises: calculating an accumulated corrected absolute energy based on the information associated with the acoustic signals, wherein calculating the accumulated corrected absolute energy includes accumulating a corrected absolute energy over time, the corrected absolute energy being determined by subtracting, from a value based on the acoustic signals representing an absolute energy, a value that represents non-erosive operating conditions; and measuring erosion exposure based on the calculated accumulated corrected absolute energy, the erosion exposure corresponding to a cumulative erosive effect of corrosive forces on the blade over time. calculating an accumulated corrected absolute energy based on the information associated with the acoustic signals, wherein calculating the accumulated corrected absolute energy includes accumulating a corrected absolute energy over time, the corrected absolute energy being determined by subtracting, from a value based on the acoustic signals representing an absolute energy, a value that represents non-erosive operating conditions; and measuring erosion exposure based on the calculated accumulated corrected absolute energy, the erosion exposure corresponding to a cumulative erosive effect of corrosive forces on the blade over time.
A washing machine comprising: a first tub configured to store wash water; a first main heater configured to heat wash water stored in the first tub ; a second tub configured to store wash water; and a second heater configured to heat wash water stored in the second tub , characterised in that the washing machine further comprises a first sub heater configured to heat wash water stored in the first tub , wherein a power consumption required to drive the first main heater is greater than a power consumption required to drive the first sub heater , and the washing machine is adapted such that the first main heater is not driven while wash water stored in the first tub and wash water stored in the second tub are simultaneously heated. a first tub configured to store wash water; a first main heater configured to heat wash water stored in the first tub ; a second tub configured to store wash water; and a second heater configured to heat wash water stored in the second tub , characterised in that the washing machine further comprises a first sub heater configured to heat wash water stored in the first tub , wherein a power consumption required to drive the first main heater is greater than a power consumption required to drive the first sub heater , and the washing machine is adapted such that the first main heater is not driven while wash water stored in the first tub and wash water stored in the second tub are simultaneously heated.
A cutting tool comprising a toolholder , the toolholder having a recess , an anvil (21, 21', 21") mounted in the recess , the anvil (21, 21', 21") comprising an anvil body , and a cutting insert mounted in the recess on top of the anvil (21, 21', 21"), the anvil is comprising a top surface (43, 43"), a bottom surface (49, 49"), a central axis (CA) extending between the top surface (43, 43") and the bottom surface (49, 49"), and a side surface (45, 47, 75, 77; 45', 47', 75', 77'; 45", 47", 75", 77") between the top surface (43, 43") and the bottom surface (49, 49"), the side surface (45, 47, 75, 77; 45', 47', 75', 77'; 45", 47", 75", 77") comprising at least three side surface portions and at least three corner portions (79, 81, 83, 85; 79', 81', 83', 85'; 79", 81", 83", 85"), each corner portion of the at least three corner portions being disposed between respective pairs of side surface portions of the at least three side surface portions, wherein a curved passage (57, 57', 57") extends from an inlet opening (59, 59', 59") in the anvil body to an outlet opening (61, 61', 61a", 61b") in the anvil body , characterized in that at least one corner portion (85, 85") of the at least three corner portions is comprising a surface that extends radially outward from the central axis (CA) of the anvil relative to extensions of a respective pair of side surface portions of the at least three side surface portions such that a limited portion of the top surface (43, 43") of the anvil extends past a bottom surface of the cutting insert to define an exposed area and that the outlet opening is provided in the exposed area facilitating directing fluid toward the cutting edge. a toolholder , the toolholder having a recess , an anvil (21, 21', 21") mounted in the recess , the anvil (21, 21', 21") comprising an anvil body , and a cutting insert mounted in the recess on top of the anvil (21, 21', 21"), the anvil is comprising a top surface (43, 43"), a bottom surface (49, 49"), a central axis (CA) extending between the top surface (43, 43") and the bottom surface (49, 49"), and a side surface (45, 47, 75, 77; 45', 47', 75', 77'; 45", 47", 75", 77") between the top surface (43, 43") and the bottom surface (49, 49"), the side surface (45, 47, 75, 77; 45', 47', 75', 77'; 45", 47", 75", 77") comprising at least three side surface portions and at least three corner portions (79, 81, 83, 85; 79', 81', 83', 85'; 79", 81", 83", 85"), each corner portion of the at least three corner portions being disposed between respective pairs of side surface portions of the at least three side surface portions, wherein a curved passage (57, 57', 57") extends from an inlet opening (59, 59', 59") in the anvil body to an outlet opening (61, 61', 61a", 61b") in the anvil body ,
Assistance system for positioning of a first component to be positioned relative to a second component , with: a sensor arrangement which is set up to detect a current position of a first reference point of the first component in a first measurement setting and a current position of a second reference point of the first component in a second measurement setting; a data processing device connected in communication with the sensor arrangement , which data processing device is set up to control the measurement setting of the sensor arrangement and to determine a current first or second position deviation based on the current position of the first or second reference point (201; 202) detected depending on the measurement setting and a target position of the first or second reference point (201; 202); a display device which is connected in communication with the data processing device and which is set up to output the current first or second position deviation graphically; and a remote controller with a housing having a coupling structure for detachably coupling the remote controller to the first component , a first operating element , and an electronic signal generating circuit housed in the housing and which signal generating circuit is set up in reaction to an operation of the first operating element to generate a confirmation signal and wirelessly transmit to the data processing device ; wherein the data processing device is set up to change the selected measurement setting of the sensor arrangement in reaction to the confirmation signal. a sensor arrangement which is set up to detect a current position of a first reference point of the first component in a first measurement setting and a current position of a second reference point of the first component in a second measurement setting; a data processing device connected in communication with the sensor arrangement , which data processing device is set up to control the measurement setting of the sensor arrangement and to determine a current first or second position deviation based on the current position of the first or second reference point (201; 202) detected depending on the measurement setting and a target position of the first or second reference point (201; 202); a display device which is connected in communication with the data processing device and which is set up to output the current first or second position deviation graphically; and a remote controller with a housing having a coupling structure for detachably coupling the remote controller to the first component , a first operating element , and an electronic signal generating circuit housed in the housing and which signal generating circuit is set up in reaction to an operation of the first operating element to generate a confirmation signal and wirelessly transmit to the data processing device ; wherein the data processing device is set up to change the selected measurement setting of the sensor arrangement in reaction to the confirmation signal.
An overcurrent fault detector using a High Electron Mobility Transistor, HEMT, operated by a gate driver , the overcurrent fault detector comprising: a band-pass filter configured to: receive gate-to-source voltage (VGS) signals of the HEMT , wherein the HEMT generates an oscillation in the VGS signals at a characteristic frequency in response to a thermal overload at HEMT during an overcurrent fault condition; and filter the VGS signals to generate a band-limited version of the VGS signals that suppresses signals outside of the characteristic frequency; and a control circuit configured to: measure a value of the band-limited version of the VGS signals ; determine if the value is greater than a threshold value ; and generate a fault signal that disables the gate driver and terminates the overcurrent fault condition in response to determining that the value is greater than the threshold value . a band-pass filter configured to: receive gate-to-source voltage (VGS) signals of the HEMT , wherein the HEMT generates an oscillation in the VGS signals at a characteristic frequency in response to a thermal overload at HEMT during an overcurrent fault condition; and filter the VGS signals to generate a band-limited version of the VGS signals that suppresses signals outside of the characteristic frequency; and receive gate-to-source voltage (VGS) signals of the HEMT , wherein the HEMT generates an oscillation in the VGS signals at a characteristic frequency in response to a thermal overload at HEMT during an overcurrent fault condition; and filter the VGS signals to generate a band-limited version of the VGS signals that suppresses signals outside of the characteristic frequency; and a control circuit configured to: measure a value of the band-limited version of the VGS signals ; determine if the value is greater than a threshold value ; and generate a fault signal that disables the gate driver and terminates the overcurrent fault condition in response to determining that the value is greater than the threshold value . measure a value of the band-limited version of the VGS signals ; determine if the value is greater than a threshold value ; and generate a fault signal that disables the gate driver and terminates the overcurrent fault condition in response to determining that the value is greater than the threshold value .
A method comprising the steps of: establishing , at a first network device , a first port channel that forms part of a joint port channel in coordination with a second network device , the first and second network devices having distributed control planes, wherein the joint port channel combines a plurality of links of the first port channel with a plurality of links of a second port channel of the second network device , wherein each of the links of the joint port channel are communicatively coupled with ports of a third network device ; at the first network device , in cooperation with the second network device , assigning a priority to each link in the first port channel such that a set of highest priority links will be about evenly distributed between the first port channel and the second port channel ; determining which links of the joint port channel are to be given active status, the determination based at least in part on the priorities assigned to each link of the joint port channel ; and communicating , from the first network device to the third network device , the priority of each link of the first port channel ; and utilizing, by the first network device in cooperation with the second and third network devices, the joint port channel for data communication. establishing , at a first network device , a first port channel that forms part of a joint port channel in coordination with a second network device , the first and second network devices having distributed control planes, wherein the joint port channel combines a plurality of links of the first port channel with a plurality of links of a second port channel of the second network device , wherein each of the links of the joint port channel are communicatively coupled with ports of a third network device ; at the first network device , in cooperation with the second network device , assigning a priority to each link in the first port channel such that a set of highest priority links will be about evenly distributed between the first port channel and the second port channel ; determining which links of the joint port channel are to be given active status, the determination based at least in part on the priorities assigned to each link of the joint port channel ; and communicating , from the first network device to the third network device , the priority of each link of the first port channel ; and utilizing, by the first network device in cooperation with the second and third network devices, the joint port channel for data communication.
An in vitro method of synthesising a double-stranded polynucleotide having a predefined sequence, the method comprising performing cycles of synthesis wherein each cycle comprises cleaving a double-stranded scaffold polynucleotide and extending the cleaved double-stranded scaffold polynucleotide by incorporating a nucleotide pair, wherein a terminal end of a first strand of the cleaved double-stranded scaffold polynucleotide is extended by the addition of a nucleotide of the predefined sequence and a terminal end of the second strand of the cleaved double-stranded scaffold polynucleotide which is hybridized to the first strand is extended by the addition of a partner nucleotide thereby forming a nucleotide pair with the incorporated nucleotide of the first strand, wherein in each cycle the nucleotides are incorporated into the cleaved scaffold polynucleotide, and wherein each cycle comprises ligating a ligation polynucleotide to the cleaved scaffold polynucleotide, the ligation polynucleotide comprising a partner nucleotide for the nucleotide of the predefined sequence, wherein upon ligation the nucleotide of the predefined sequence pairs with the partner nucleotide.
A probe head of an air data probe comprising: an insert including: a tip portion making up a tip of the air data probe; an end portion ; and a body portion extending between the tip portion and the end portion , the body portion including a groove ; a portion of a heater within the groove ; an outer shell surrounding the body portion of the insert and the portion of the heater , wherein the tip portion of the insert extends past a first end of the outer shell and the end portion of the insert extends past a second end of the outer shell ; a tip weld seal between the tip portion of the insert and the first end of the outer shell ; and a braze seal being located adjacent to the second end of the outer shell and between the end portion of the insert and the second end of the outer shell , the braze seal connecting the end portion of the insert and the second end of the outer shell ; wherein the portion of the heater is hermetically sealed between the insert and the outer shell . an insert including: a tip portion making up a tip of the air data probe; an end portion ; and a body portion extending between the tip portion and the end portion , the body portion including a groove ; a tip portion making up a tip of the air data probe; an end portion ; and a body portion extending between the tip portion and the end portion , the body portion including a groove ; a portion of a heater within the groove ; an outer shell surrounding the body portion of the insert and the portion of the heater , wherein the tip portion of the insert extends past a first end of the outer shell and the end portion of the insert extends past a second end of the outer shell ; a tip weld seal between the tip portion of the insert and the first end of the outer shell ; and a braze seal being located adjacent to the second end of the outer shell and between the end portion of the insert and the second end of the outer shell , the braze seal connecting the end portion of the insert and the second end of the outer shell ; wherein the portion of the heater is hermetically sealed between the insert and the outer shell .
An apparatus for laterally acting upon at least one dough sheet placed on a conveying device , comprising at least one pushing member for acting upon at least one edge of the dough sheet , the at least one pushing member being guided movably relative to the at least one edge by at least one drive means , characterized in that the at least one pushing member can be driven for displacing movement when the edge of the dough sheet is acted upon superimposed on the movement guided against the edge in the conveying direction of the dough sheet .
An in vitro method of screening for an agent effective in inhibiting cytotoxicity of a fragment of Tau protein comprising at least 70 amino acids in the amino acid sequence of dGAE95 (SEQ ID NO:4) or a sequence with at least 85% identity thereto to a neuronal cell comprising the steps of: (a) culturing the neuronal cell in the presence of the agent and subsequently culturing the neuronal cell with the fragment of Tau protein in the absence of heparin; or (b) culturing the neuronal cell with the fragment of Tau protein in the absence of heparin and subsequently culturing the neuronal cell in the presence of the agent; and (c) determining the cytotoxicity of the fragment of Tau protein to the neuronal cell after performing step (a) or step (b). (a) culturing the neuronal cell in the presence of the agent and subsequently culturing the neuronal cell with the fragment of Tau protein in the absence of heparin; or (b) culturing the neuronal cell with the fragment of Tau protein in the absence of heparin and subsequently culturing the neuronal cell in the presence of the agent; and (c) determining the cytotoxicity of the fragment of Tau protein to the neuronal cell after performing step (a) or step (b).
Arrangement comprising a kinematics package and a spring lever for a bogie having at least two wheel sets , each with two wheels connected by an axle , wherein a first end region of the spring lever can be connected to a spring component of the primary suspension of the bogie , and a second end region of the spring lever is configured to act on an axle bearing of one of the wheel sets of the bogie by means of the kinematics package , wherein the kinematics package comprises at least one damping element , characterized in that the kinematics package additionally comprises at least one friction lining and a joint bearing and is arranged in some sections in the internal volume of at least one hollow chamber of the spring lever configured as a hollow chamber profile.
A user equipment comprising means for: receiving a first parameter configuring a first subcarrier spacing for a first array of downlink slots corresponding to a first bandwidth part, and a second parameter configuring a second subcarrier spacing for a second array of uplink slots corresponding to a second bandwidth part; receiving information indicating a number of slots k; receiving a Physical Downlink Shared Channel, PDSCH, in a first slot within the first array of downlink slots; and transmitting Hybrid Automatic Repeat Request Acknowledgement, HARQ-ACK, information corresponding to the PDSCH, in a Physical Uplink Control Channel, PUCCH, transmission in a second slot within the second array of uplink slots, wherein a starting position, for counting the number of slots k until the second slot, corresponds to a last uplink slot, of the second array of uplink slots, that overlaps with reception of the PDSCH. receiving a first parameter configuring a first subcarrier spacing for a first array of downlink slots corresponding to a first bandwidth part, and a second parameter configuring a second subcarrier spacing for a second array of uplink slots corresponding to a second bandwidth part; receiving information indicating a number of slots k; receiving a Physical Downlink Shared Channel, PDSCH, in a first slot within the first array of downlink slots; and transmitting Hybrid Automatic Repeat Request Acknowledgement, HARQ-ACK, information corresponding to the PDSCH, in a Physical Uplink Control Channel, PUCCH, transmission in a second slot within the second array of uplink slots, wherein a starting position, for counting the number of slots k until the second slot, corresponds to a last uplink slot, of the second array of uplink slots, that overlaps with reception of the PDSCH.