mhurhangee/ep-ind-claims huggingface dataset:
A variant polypeptide having α-amylase activity wherein: (i) the variant polypeptide has at least one altered characteristic that improves enzyme performance, the variant polypeptide comprising: an amino acid sequence having at least 60% amino acid sequence identity to a parental α-amylase polypeptide selected from AmyS having the sequence of SEQ ID NO: 1 or a truncated variant of AmyS having the sequence of SEQ ID NO: 2, and having at least the following mutation at an amino acid residue corresponding to that of the parental α-amylase polypeptide as determined by aligning the variant polypeptides with the parental polypeptide, wherein the mutation changes the amino acid residue from that of the parental polypeptides, and wherein the mutation is a substitution that introduces one or more of the amino acid residues selected from the group consisting of 193Y and N193Y and wherein the variant exhibits increased viscosity reduction in a starch liquefaction assay compared to the parental polypeptide. (i) the variant polypeptide has at least one altered characteristic that improves enzyme performance, the variant polypeptide comprising: an amino acid sequence having at least 60% amino acid sequence identity to a parental α-amylase polypeptide selected from AmyS having the sequence of SEQ ID NO: 1 or a truncated variant of AmyS having the sequence of SEQ ID NO: 2, and having at least the following mutation at an amino acid residue corresponding to that of the parental α-amylase polypeptide as determined by aligning the variant polypeptides with the parental polypeptide, wherein the mutation changes the amino acid residue from that of the parental polypeptides, and wherein the mutation is a substitution that introduces one or more of the amino acid residues selected from the group consisting of 193Y and N193Y and wherein the variant exhibits increased viscosity reduction in a starch liquefaction assay compared to the parental polypeptide. an amino acid sequence having at least 60% amino acid sequence identity to a parental α-amylase polypeptide selected from AmyS having the sequence of SEQ ID NO: 1 or a truncated variant of AmyS having the sequence of SEQ ID NO: 2, and having at least the following mutation at an amino acid residue corresponding to that of the parental α-amylase polypeptide as determined by aligning the variant polypeptides with the parental polypeptide, wherein the mutation changes the amino acid residue from that of the parental polypeptides, and wherein the mutation is a substitution that introduces one or more of the amino acid residues selected from the group consisting of 193Y and N193Y and wherein the variant exhibits increased viscosity reduction in a starch liquefaction assay compared to the parental polypeptide.
A method for communication capacity negotiation of physical layer chips, which is applied to a network device provided with a first physical layer chip and a second physical layer chip, characterized by said method comprising: the first physical layer chip negotiates (301, 501) communication capacity with an opposite end, and notifies (302, 502) the communication capacity confirmed by negotiation to the second physical layer chip; the second physical layer chip adopts the communication capacity acquired from the first physical layer chip to negotiate communication capacity with an opposite end by a fixed negotiation mode (304, 504). the first physical layer chip negotiates (301, 501) communication capacity with an opposite end, and notifies (302, 502) the communication capacity confirmed by negotiation to the second physical layer chip; the second physical layer chip adopts the communication capacity acquired from the first physical layer chip to negotiate communication capacity with an opposite end by a fixed negotiation mode (304, 504).
Milling cutter having a shank-like basic shape for milling a workpiece, wherein lips are arranged at least on that end face of the milling cutter that faces the workpiece, and at least one coolant duct is arranged within the milling cutter, wherein the coolant duct leads into an outlet region in the region of the end face of the milling cutter, wherein at least one outlet region of a coolant duct is configured such that the outlet direction of a coolant conducted through the coolant duct is directed counter to the rotation direction of the milling cutter, characterized in that the coolant duct extends within the milling cutter in the manner of a contrary spiral or contrary helix with respect to the rotation direction of the milling cutter.
A method for performing uplink transmission by a User Equipment, UE, in a wireless communication system, comprising: receiving, from a base station, Sounding Reference Signal, SRS, configuration information related to SRS resources for the UE; determining, among the SRS resources, a plurality of SRS resource set that each comprises a plurality of SRS resources; determining, for each SRS resource set among the plurality of SRS resource sets, information regarding an SRS power control to be applied for all of the plurality of SRS resources within the SRS resource set; determining an SRS to be transmitted to the base station, wherein the SRS is included in a first SRS resource set among the plurality of SRS resource sets; determining a first transmission power for the SRS, based on the information regarding the SRS power control that is associated with the first SRS resource set that includes the SRS; and transmitting the SRS to the base station using the first transmission power, wherein the first transmission power is determined based on at least one index related to a path-loss estimate, and wherein the at least one index is related to the first SRS resource set and Synchronization Signal Block, SSB, used for estimating the path-loss. receiving, from a base station, Sounding Reference Signal, SRS, configuration information related to SRS resources for the UE; determining, among the SRS resources, a plurality of SRS resource set that each comprises a plurality of SRS resources; determining, for each SRS resource set among the plurality of SRS resource sets, information regarding an SRS power control to be applied for all of the plurality of SRS resources within the SRS resource set; determining an SRS to be transmitted to the base station, wherein the SRS is included in a first SRS resource set among the plurality of SRS resource sets; determining a first transmission power for the SRS, based on the information regarding the SRS power control that is associated with the first SRS resource set that includes the SRS; and transmitting the SRS to the base station using the first transmission power, wherein the first transmission power is determined based on at least one index related to a path-loss estimate, and wherein the at least one index is related to the first SRS resource set and Synchronization Signal Block, SSB, used for estimating the path-loss.
A method for blocking user interface, UI, gestures on a computing device, said computing device comprising a display screen, the method comprising: presenting a UI screen upon said display screen to a user, said UI screen associated with an application that the user is running on said computing device; and receiving a first UI gesture (202a, 202b) from said user, characterized in that said first UI gesture starts within an active display area of said display screen, said active display area being associated with said application shown on said UI screen, and crosses a first edge of said display screen; and after said first UI gesture, a UI event associated with a second UI gesture (204a, 204b) is blocked, wherein said second UI gesture starts outside of said active display area of said display screen and crosses an edge of said display screen when moving toward said active display area, and wherein said blocking occurs according to a set of blocking conditions for inadvertent edge-related UI events. presenting a UI screen upon said display screen to a user, said UI screen associated with an application that the user is running on said computing device; and receiving a first UI gesture (202a, 202b) from said user, characterized in that said first UI gesture starts within an active display area of said display screen, said active display area being associated with said application shown on said UI screen, and crosses a first edge of said display screen; and after said first UI gesture, a UI event associated with a second UI gesture (204a, 204b) is blocked, wherein said second UI gesture starts outside of said active display area of said display screen and crosses an edge of said display screen when moving toward said active display area, and wherein said blocking occurs according to a set of blocking conditions for inadvertent edge-related UI events.
A refrigerator installable in a storage space defined by a wall of an object, the refrigerator comprising: a cabinet including an inner case which forms a storage chamber, an outer case which surrounds the inner case, and a cabinet insulation material which is disposed between the inner case and the outer case; a door which is disposed in front of the cabinet, the door to open and close the storage chamber; a supply duct which is installed at the inner case, wherein the supply duct is configured to discharge cool air to the storage chamber; a cool air circulation fan which is installed at one side of the supply duct, wherein the cool air circulation fan is configured to generate circulation of the cool air; and a contact mechanism which is provided at one side of the outer case, characterized in that the contact mechanism includes a lever which is movably provided, a disk which rotates according to a movement of the lever, and a contact member which moves based on rotation of the disk for contact with the wall of the object. a cabinet including an inner case which forms a storage chamber, an outer case which surrounds the inner case, and a cabinet insulation material which is disposed between the inner case and the outer case; a door which is disposed in front of the cabinet, the door to open and close the storage chamber; a supply duct which is installed at the inner case, wherein the supply duct is configured to discharge cool air to the storage chamber; a cool air circulation fan which is installed at one side of the supply duct, wherein the cool air circulation fan is configured to generate circulation of the cool air; and a contact mechanism which is provided at one side of the outer case,
A method, comprising: transmitting a ranging code on a ranging opportunity from a mobile station (SS1, SS2, SS3) in a previous frame for contention-based resource access in a wireless communications system; receiving a first acknowledgement indicating a decoding status of the ranging opportunity from a base station in a subsequent frame; transmitting a request message to the base station after the first acknowledgement is received by the mobile station (SS1, SS2, SS3) and indicated the decoding status of the ranging opportunity is successful; and receiving a second acknowledgement indicating the decoding status of the request message from the base station characterized in that said first acknowledgement comprises a plurality of bits, and wherein each bit indicates a decoding success or failure status of a corresponding ranging opportunity used by a mobile station to transmit a ranging code in the previous frame. transmitting a ranging code on a ranging opportunity from a mobile station (SS1, SS2, SS3) in a previous frame for contention-based resource access in a wireless communications system; receiving a first acknowledgement indicating a decoding status of the ranging opportunity from a base station in a subsequent frame; transmitting a request message to the base station after the first acknowledgement is received by the mobile station (SS1, SS2, SS3) and indicated the decoding status of the ranging opportunity is successful; and receiving a second acknowledgement indicating the decoding status of the request message from the base station
A film, comprising a first portion and a second portion having different hardnesses, wherein the first portion has hardness (H 1 [GPa]) in the range of 0.01 to 3 GPa as determined by a continuous stiffness measurement in accordance with the description, and the ratio (H 2 /H 1) of the hardness (H 2 [GPa]) of the second portion as determined by the continuous stiffness measurement in accordance with the description to the hardness (H 1 [GPa]) of the first portion as determined by the continuous stiffness measurement in accordance with the description is in the range of 1.2 to 30, the first portion forms a first surface region of the film, and the second portion forms a second surface region of the film, each of the first portion and the second portion extends to a depth of 75% or more of the thickness of the film, and in a 1 mm x 1 mm square region disposed on an arbitrary position of the surface of the film, the second surface region accounts for 10% to 80% by area of the square region, and the first surface region and the second surface region account for 50% or more by area of the square region.
Actuation device for a DC-decoupled DC-DC converter having a transformer and a synchronous rectifier, having: a signal-generating device which is designed to generate control signals for switching devices (3a, 3b) of the synchronous rectifier and a reference current signal; a first comparator device which is coupled to the signal-generating device and which is designed to detect the secondary-side output current (Jo) of the synchronous rectifier, to compare said secondary-side output current with the reference current signal and to generate a current control signal on the basis of the comparison; and a pulse-width-modulation device, which is coupled to the signal-generating device and to the first comparator device and which is designed to generate pulse-width-modulated actuation signals for the switching devices (3a, 3b) of the synchronous rectifier on the basis of the control signals and the current control signal, wherein the pulse-width modulation occurs at a duty cycle in which a safety interval is present during which the magnetic flux in the transformer can be reduced, and wherein the signal-generating device is also designed to reduce the reference current signal to a predetermined reference current threshold value within a first predetermined time period. a signal-generating device which is designed to generate control signals for switching devices (3a, 3b) of the synchronous rectifier and a reference current signal; a first comparator device which is coupled to the signal-generating device and which is designed to detect the secondary-side output current (Jo) of the synchronous rectifier, to compare said secondary-side output current with the reference current signal and to generate a current control signal on the basis of the comparison; and a pulse-width-modulation device, which is coupled to the signal-generating device and to the first comparator device and which is designed to generate pulse-width-modulated actuation signals for the switching devices (3a, 3b) of the synchronous rectifier on the basis of the control signals and the current control signal, wherein the pulse-width modulation occurs at a duty cycle in which a safety interval is present during which the magnetic flux in the transformer can be reduced, and wherein the signal-generating device is also designed to reduce the reference current signal to a predetermined reference current threshold value within a first predetermined time period.
A method of performing a handover of user equipment from a serving base station to a target base station within a network including a plurality of base stations (142, 144), the method comprising: registering, at the user equipment, the target base station as a home femto base station; receiving, at the serving base station, a request for a signal for detecting a base station searching signal, BS-SS, from the target base station, wherein the target base station is one of the plurality of base stations (142, 144); transmitting the signal for detecting the BS-SS from the serving base station to the target base station; transmitting, from the serving base station, the signal for detecting the BS-SS and an identifier of the target base station to the user equipment, if the user equipment receives the identifier of the target base station, then the user equipment selects a time for transmitting the BS-SS; and then broadcasting, from the user equipment, the BS-SS to the target base station at the selected time; receiving, at the serving base station, a BS-SS receipt signal from the target base station; identifying (S220, S222), at the serving base station, the user equipment, which had broadcasted the BS-SS based on the BS-SS receipt signal; and performing a handover of the user equipment from the serving base station to the target base station based on a confirmation of the serving base station. registering, at the user equipment, the target base station as a home femto base station; receiving, at the serving base station, a request for a signal for detecting a base station searching signal, BS-SS, from the target base station, wherein the target base station is one of the plurality of base stations (142, 144); transmitting the signal for detecting the BS-SS from the serving base station to the target base station; transmitting, from the serving base station, the signal for detecting the BS-SS and an identifier of the target base station to the user equipment, if the user equipment receives the identifier of the target base station, then the user equipment selects a time for transmitting the BS-SS; and then broadcasting, from the user equipment, the BS-SS to the target base station at the selected time; receiving, at the serving base station, a BS-SS receipt signal from the target base station; identifying (S220, S222), at the serving base station, the user equipment, which had broadcasted the BS-SS based on the BS-SS receipt signal; and performing a handover of the user equipment from the serving base station to the target base station based on a confirmation of the serving base station.
Compression and expansion machine comprising a body with at least one chamber of revolution about an axis of symmetry, and pistons (14a, 14b, 14c, 14d) rotating about the axis of symmetry and dividing the chamber into cells (15a, 15b, 15c, 15d) rotating with the pistons, said machine furthermore comprising a device for coordinating the movement of said pistons, the coordination device being configured so that, during one rotation cycle, each cell (15a, 15b, 15c, 15d) performs at least one first expansion/contraction cycle corresponding to a stage of compressing a first stream of gas passing through this cell, and at least one second expansion/contraction cycle corresponding to a stage of expanding a second stream of gas passing through this cell, characterized in that said machine comprises, in the body, gas inlet (16, 18) and outlet openings (17, 19) for each cycle of expansion/contraction of the cells (15a, 15b, 15c, 15d), wherein the passage cross-section of the gas inlet opening is larger than the passage cross-section of the outlet opening on the first cycle (s), and the passage cross-section of the gas inlet opening is smaller than the passage cross-section of the outlet opening on the second cycle (s).
A method of predicting and reducing noise in a sensor signal in a vibratory meter, the method comprising: determining an output signal from a non-linear model of a sensor assembly of the vibratory meter, the output signal being in response to an input signal having two or more components; and adjusting a filter to attenuate one or more components in the output signal; and employing the filter in meter electronics of the vibratory meter. determining an output signal from a non-linear model of a sensor assembly of the vibratory meter, the output signal being in response to an input signal having two or more components; and adjusting a filter to attenuate one or more components in the output signal; and employing the filter in meter electronics of the vibratory meter.
A process for constructing a battery brick for a vehicle, the process comprising: selecting a plurality of battery cells having a maximum charge temperature and having a maximum discharge temperature greater than the maximum charge temperature; selecting a phase change material having a melting temperature lower than the maximum charge temperature of the plurality of cells; and disposing each battery cell of the plurality of battery cells at least in part in the phase change material, the phase change material being selected for dissipating at least a portion of heat generated upon activation of at least a portion of the plurality of battery cells. selecting a plurality of battery cells having a maximum charge temperature and having a maximum discharge temperature greater than the maximum charge temperature; selecting a phase change material having a melting temperature lower than the maximum charge temperature of the plurality of cells; and disposing each battery cell of the plurality of battery cells at least in part in the phase change material, the phase change material being selected for dissipating at least a portion of heat generated upon activation of at least a portion of the plurality of battery cells.
A heat not burn device (101, 201) including a controller (108, 208) having a cyclic operating routine, wherein the controller (108, 208) is configured to, during each cycle of the cyclic operating routine, perform at least one function of the device (101, 201); and characterised in that a period of the cyclic operating routine is between 150 milliseconds and 500 milliseconds.
Arrangement for positioning a wheel of a rail vehicle - having a wheel, having a swing arm (SCHW) and having a frame of a bogie of the rail vehicle, - wherein the wheel is carried by a wheel shaft, - wherein the swing arm (SCHW) has a first end (SCHWE1) which is connected in a rotatably supported manner to the frame of the bogie, - wherein the swing arm (SCHW) has a second end (SCHWE2) which is connected to the wheel shaft, characterized - in that the swing arm (SCHW) has between the first end (SCHWE1) and the second end (SCHWE2) a fixed but releasable connection (VERB) which enables the swing arm (SCHW) to be mechanically divided in two (SCHWT1, SCHWT2). - having a wheel, having a swing arm (SCHW) and having a frame of a bogie of the rail vehicle, - wherein the wheel is carried by a wheel shaft, - wherein the swing arm (SCHW) has a first end (SCHWE1) which is connected in a rotatably supported manner to the frame of the bogie, - wherein the swing arm (SCHW) has a second end (SCHWE2) which is connected to the wheel shaft, characterized - in that the swing arm (SCHW) has between the first end (SCHWE1) and the second end (SCHWE2) a fixed but releasable connection (VERB) which enables the swing arm (SCHW) to be mechanically divided in two (SCHWT1, SCHWT2).