mhurhangee/ep-ind-claims huggingface dataset:
An antigen chimera, comprising: a fusion protein of an antigen and a mucosal immune adjuvant protein monomer capable of forming a multimer; and the mucosal immune adjuvant protein monomer capable of forming the multimer; wherein the mucosal immune adjuvant protein monomer capable of forming the multimer is cholera toxin B subunit, the multimer is a pentamer, and in the chimera the molar ratio between the fusion protein and the mucosal immune adjuvant protein monomer capable of forming the multimer is 1: 4, wherein the antigen is one selected from Helicobacter pylori urease B subunit (UreB), Helicobacter pylori cytotoxin associated gene A (CagA) and Helicobacter pylori neutrophil activating protein, and wherein the pH in which the chimeric antigen is stable such that protein bands of smaller molecular weight than that of the chimeric protein do not appear in SDS-PAGE electrophoresis is greater than 7.0, preferably pH 8.0, wherein the fusion protein comprises a three-G4S linker located between the antigen and the mucosal immune adjuvant protein monomer, and wherein the fusion protein and the mucosal immune adjuvant protein monomer have been expressed respectively through prokaryotic expression vectors. a fusion protein of an antigen and a mucosal immune adjuvant protein monomer capable of forming a multimer; and the mucosal immune adjuvant protein monomer capable of forming the multimer; wherein the mucosal immune adjuvant protein monomer capable of forming the multimer is cholera toxin B subunit, the multimer is a pentamer, and in the chimera the molar ratio between the fusion protein and the mucosal immune adjuvant protein monomer capable of forming the multimer is 1: 4, wherein the antigen is one selected from Helicobacter pylori urease B subunit (UreB), Helicobacter pylori cytotoxin associated gene A (CagA) and Helicobacter pylori neutrophil activating protein, and wherein the pH in which the chimeric antigen is stable such that protein bands of smaller molecular weight than that of the chimeric protein do not appear in SDS-PAGE electrophoresis is greater than 7.0, preferably pH 8.0, wherein the fusion protein comprises a three-G4S linker located between the antigen and the mucosal immune adjuvant protein monomer, and wherein the fusion protein and the mucosal immune adjuvant protein monomer have been expressed respectively through prokaryotic expression vectors.
System having a vehicle headlamp for illuminating an environment of a motor vehicle and having a control device connected with the vehicle headlamp, wherein the vehicle headlamp has at least one semiconductor light source per predetermined horizontal angle range for generating a driving light and the control device is configured to be able to switch-on/dim-up and switch-off/dim-down individually semiconductor light sources for realising at least one light function of the driving light, wherein the control device is furthermore configured to use parameter sets, assigned to different drive profiles, having parameters for at least the procedure of the switching-on/dimming-up and switching-off/dimming-down of semiconductor sources for realising at least one light function, characterised in that in the control device are stored several different drive profiles which are assigned to different vehicle set-ups, and a vehicle set-up is selectable by the vehicle operator by means of an operator action in a vehicle set-up assistance system.
A method for manufacturing an aluminum alloy member using an aluminum alloy casting material that contains 2.0 to 5.5 mass% of Cu, and 4.0 to 7.0 mass% of Si, wherein a content of Mg is 0.5 mass% or less, a content of Zn is 1.0 mass% or less, a content of Fe is 1.0 mass% or less, a content of Mn is 0.5 mass% or less, and the balance is made of Al and inevitable impurities, and the method for manufacturing an aluminum alloy member comprising: a heating and holding step of heating and holding the aluminum alloy casting material within a solid-liquid coexisting temperature region (T S to T L); and a quenching step of rapidly cooling the aluminum ally casting material after performing the heating and holding step, wherein in a quenching preparation step between the heating and holding step and the quenching step, the aluminum alloy casting material is rapidly cooled at a cooling rate of 3°C/min or higher from the solid-liquid coexisting temperature region (T S to T L) to a predetermined temperature (T S -ΔT) lower than a liquid phase appearance temperature (T S), wherein in the heating and holding step and the quenching preparation step, the aluminum alloy casting material is placed inside a pressurized furnace so as to be under a pressurized environment of 0.6 MPa or higher, and in the quenching step the aluminum alloy casting material is cooled to a normal temperature T R after the pressure inside the pressurized furnace where the aluminum alloy casting material is placed is removed to reach the normal pressure (atmospheric pressure). a heating and holding step of heating and holding the aluminum alloy casting material within a solid-liquid coexisting temperature region (T S to T L); and a quenching step of rapidly cooling the aluminum ally casting material after performing the heating and holding step, wherein in a quenching preparation step between the heating and holding step and the quenching step, the aluminum alloy casting material is rapidly cooled at a cooling rate of 3°C/min or higher from the solid-liquid coexisting temperature region (T S to T L) to a predetermined temperature (T S -ΔT) lower than a liquid phase appearance temperature (T S), wherein in the heating and holding step and the quenching preparation step, the aluminum alloy casting material is placed inside a pressurized furnace so as to be under a pressurized environment of 0.6 MPa or higher, and in the quenching step the aluminum alloy casting material is cooled to a normal temperature T R after the pressure inside the pressurized furnace where the aluminum alloy casting material is placed is removed to reach the normal pressure (atmospheric pressure).
A method, performed by a sensor, of controlling access to sensor data, the method including the steps of: generating sensor data, and protecting the sensor data to generate protected sensor data; and transmitting the protected sensor data to a device for storage; characterized in that: the method further comprises: receiving, from the device an authorization token including access control data defining one or more operations which the device is permitted to execute on the protected sensor data; determining, based on the access control data, an operation which the device is permitted to execute on the protected sensor data; providing, to the device, one or more keys usable by the device to execute the operation on the protected sensor data. generating sensor data, and protecting the sensor data to generate protected sensor data; and transmitting the protected sensor data to a device for storage; characterized in that: the method further comprises: receiving, from the device an authorization token including access control data defining one or more operations which the device is permitted to execute on the protected sensor data; determining, based on the access control data, an operation which the device is permitted to execute on the protected sensor data; providing, to the device, one or more keys usable by the device to execute the operation on the protected sensor data. receiving, from the device an authorization token including access control data defining one or more operations which the device is permitted to execute on the protected sensor data; determining, based on the access control data, an operation which the device is permitted to execute on the protected sensor data; providing, to the device, one or more keys usable by the device to execute the operation on the protected sensor data.
Joint for an orthopedic device, comprising a first articulated arm having a recess, a second articulated arm, which protrudes into the recess and is connected therein to the first articulated arm so as to be pivotable about a pivot axis, and at least one spacer element, which is arranged between the first articulated arm and the second articulated arm within the recess and through which the pivot axis extends, wherein the at least one spacer element is accessible from the outside, in particular protrudes out of the recess, characterized in that at least one of the spacer elements has a stop that abuts an edge of the recess and that prevents the spacer element from being able to be fully received between the first articulated arm and the second articulated arm in the recess,. protrudes into the recess and is connected therein to the first articulated arm so as to be pivotable about a pivot axis, and is arranged between the first articulated arm and the second articulated arm within the recess and through which the pivot axis extends,
A method of calibrating load sensors of a wind turbine, the wind turbine comprising a rotor, a plurality of rotor blades (20a, 20b, 20c), and a plurality of load sensors associated with the rotor blades (20a, 20b, 20c), the method comprising, while the rotor is rotating: moving at least one of the rotor blades (20a, 20b, 20c) from a first calibration position to a second calibration position through a series of calibration positions by altering a pitch angle of the at least one rotor blade in steps; wherein the number of said at least one rotor blades being moved is at least one fewer than the number of said plurality of rotor blades; and at each calibration position of the series of calibration positions, waiting for the rotor to perform a predefined number of rotations and measuring load values from the load sensors. moving at least one of the rotor blades (20a, 20b, 20c) from a first calibration position to a second calibration position through a series of calibration positions by altering a pitch angle of the at least one rotor blade in steps; wherein the number of said at least one rotor blades being moved is at least one fewer than the number of said plurality of rotor blades; and at each calibration position of the series of calibration positions, waiting for the rotor to perform a predefined number of rotations and measuring load values from the load sensors.
A zipper assembly for a reclosable package, including: a first profile with a first flange and a first interlocking element; and, a second profile with a second flange and a second interlocking element, the first flange including a first portion extending from the first interlocking element, a second portion, a third portion, a first fold formed between the first and second portions (34,36), and a second fold formed between the second and third portions (36,38), characterised in that the zipper assembly further includes: a separable connection formed between the first portion and a central area of the second flange, wherein the separable connection is more resistant to a shear force than to a peeling force; and a seal formed between the second portion and an area of the first portion between the separable connection and the first interlocking element. a first profile with a first flange and a first interlocking element; and, a second profile with a second flange and a second interlocking element, the first flange including a first portion extending from the first interlocking element, a second portion, a third portion, a first fold formed between the first and second portions (34,36), and a second fold formed between the second and third portions (36,38), characterised in that the zipper assembly further includes: a separable connection formed between the first portion and a central area of the second flange, wherein the separable connection is more resistant to a shear force than to a peeling force; and a seal formed between the second portion and an area of the first portion between the separable connection and the first interlocking element. a separable connection formed between the first portion and a central area of the second flange, wherein the separable connection is more resistant to a shear force than to a peeling force; and a seal formed between the second portion and an area of the first portion between the separable connection and the first interlocking element.
An isolated antibody that binds to human HLA-G, wherein the antibody comprises A) (a) HVR-H1 comprising the amino acid sequence of SEQ ID NO:1; (b) HVR-H2 comprising the amino acid sequence of SEQ ID NO:2; (c) HVR-H3 comprising the amino acid sequence of SEQ ID NO:3; (d) HVR-L1 comprising the amino acid sequence of SEQ ID NO:4; (e) HVR-L2 comprising the amino acid sequence of SEQ ID NO:5; and (f) HVR-L3 comprising the amino acid sequence of SEQ ID NO:6; or B) (a) HVR-H1 comprising the amino acid sequence of SEQ ID NO:9; (b) HVR-H2 comprising the amino acid sequence of SEQ ID NO:10; (c) HVR-H3 comprising the amino acid sequence of SEQ ID NO:11; (d) HVR-L1 comprising the amino acid sequence of SEQ ID NO:12; (e) HVR-L2 comprising the amino acid sequence of SEQ ID NO:13; and (f) HVR-L3 comprising the amino acid sequence of SEQ ID NO:14. A) (a) HVR-H1 comprising the amino acid sequence of SEQ ID NO:1; (b) HVR-H2 comprising the amino acid sequence of SEQ ID NO:2; (c) HVR-H3 comprising the amino acid sequence of SEQ ID NO:3; (d) HVR-L1 comprising the amino acid sequence of SEQ ID NO:4; (e) HVR-L2 comprising the amino acid sequence of SEQ ID NO:5; and (f) HVR-L3 comprising the amino acid sequence of SEQ ID NO:6; or B) (a) HVR-H1 comprising the amino acid sequence of SEQ ID NO:9; (b) HVR-H2 comprising the amino acid sequence of SEQ ID NO:10; (c) HVR-H3 comprising the amino acid sequence of SEQ ID NO:11; (d) HVR-L1 comprising the amino acid sequence of SEQ ID NO:12; (e) HVR-L2 comprising the amino acid sequence of SEQ ID NO:13; and (f) HVR-L3 comprising the amino acid sequence of SEQ ID NO:14.
An indoor unit of an air conditioner comprising: a housing (250, 1010) provided with a suction port (250a, 1020) and a discharge port (250b, 1021); a main fan (220, 1040) configured to draw air through the suction port (250a, 1020) and discharge air through the discharge port (250b, 1021); a first auxiliary fan configured to draw, through a first inlet (260a, 1071) provided near the discharge port (250b, 1021), at least a portion of air discharged through the discharge port (250b, 1021) by the main fan (220, 1040); a second auxiliary fan configured to draw, through a second inlet (260a, 1071) provided near the discharge port (250b, 1021), at least a portion of air discharged through the discharge port (250b, 1021) by the main fan (220, 1040); and a controller (291, 1050, 1094) configured to control a rotation speed of the first auxiliary fan and a rotation speed of the second auxiliary fan so that a direction in which the first auxiliary fan adjusts airflow discharged through the discharge port (250b, 1021) by drawing the at least a portion of air through the first inlet (260a, 1071), is different from a direction in which the second auxiliary fan adjusts airflow discharged through the discharge port (250b, 1021) by drawing the at least a portion of air through the second inlet (260a, 1071). a housing (250, 1010) provided with a suction port (250a, 1020) and a discharge port (250b, 1021); a main fan (220, 1040) configured to draw air through the suction port (250a, 1020) and discharge air through the discharge port (250b, 1021); a first auxiliary fan configured to draw, through a first inlet (260a, 1071) provided near the discharge port (250b, 1021), at least a portion of air discharged through the discharge port (250b, 1021) by the main fan (220, 1040); a second auxiliary fan configured to draw, through a second inlet (260a, 1071) provided near the discharge port (250b, 1021), at least a portion of air discharged through the discharge port (250b, 1021) by the main fan (220, 1040); and a controller (291, 1050, 1094) configured to control a rotation speed of the first auxiliary fan and a rotation speed of the second auxiliary fan so that a direction in which the first auxiliary fan adjusts airflow discharged through the discharge port (250b, 1021) by drawing the at least a portion of air through the first inlet (260a, 1071), is different from a direction in which the second auxiliary fan adjusts airflow discharged through the discharge port (250b, 1021) by drawing the at least a portion of air through the second inlet (260a, 1071).
A method of preparing a metal oxide-silica composite aerogel, the method comprising steps of: adding a metal ion solution to a first water glass solution and performing a primary reaction to prepare a metal oxide-silica composite agglomerate; adding a second water glass solution and a second acid catalyst to the agglomerate and performing a secondary reaction to prepare a metal oxide-silica composite wet gel; and drying the metal oxide-silica composite wet gel, wherein the metal ion solution of step comprises a first acid catalyst, and the second water glass solution of step is added in an amount of 5 vol% to 500 vol% based on 100 vol% of the first water glass solution, wherein the drying of step is performed by atmospheric pressure drying. adding a metal ion solution to a first water glass solution and performing a primary reaction to prepare a metal oxide-silica composite agglomerate; adding a second water glass solution and a second acid catalyst to the agglomerate and performing a secondary reaction to prepare a metal oxide-silica composite wet gel; and drying the metal oxide-silica composite wet gel,
A coin handling apparatus comprising: a plurality of storing units (16aa-16ad, 16ba-16bd), each of which comprising an inclining disk that is rotatable about an axis that is inclined by a predetermined angle with respect to a horizontal direction; a withdrawal transport unit that is formed of a transport belt and that is configured to transport coins fed from the plurality of storing units (16aa-16ad, 16ba-16bd); and a controller configured to control the storing units (16aa-16ad, 16ba-16bd) and the withdrawal transport unit during a withdrawal process, wherein the plurality of storing units (16aa-16ad, 16ba-16bd) are disposed to form a plurality of rows along the withdrawal transport unit, and each of the plurality of rows comprises two or more storing units, and the plurality of the storing units are disposed so that surfaces of the inclining disks adjacent to each other in each of the plurality of rows face each other, and the controller is configured to cause the withdrawal transport unit to stop operating and to allow one of the rows of the storing units (16aa-16ad, 16ba-16bd) to feed a predetermined number of coins, and after the predetermined number of coins are fed from the one of the rows of the storing units (16aa-16ad, 16ba-16bd), the controller is configured to cause the withdrawal transport unit to move, to cause the withdrawal transport unit to stop operating again, and to allow another one of the rows of the storing units (16aa-16ad, 16ba-16bd) to feed a predetermined number of coins. a plurality of storing units (16aa-16ad, 16ba-16bd), each of which comprising an inclining disk that is rotatable about an axis that is inclined by a predetermined angle with respect to a horizontal direction; a withdrawal transport unit that is formed of a transport belt and that is configured to transport coins fed from the plurality of storing units (16aa-16ad, 16ba-16bd); and a controller configured to control the storing units (16aa-16ad, 16ba-16bd) and the withdrawal transport unit during a withdrawal process, wherein the plurality of storing units (16aa-16ad, 16ba-16bd) are disposed to form a plurality of rows along the withdrawal transport unit, and each of the plurality of rows comprises two or more storing units, and the plurality of the storing units are disposed so that surfaces of the inclining disks adjacent to each other in each of the plurality of rows face each other, and the controller is configured to cause the withdrawal transport unit to stop operating and to allow one of the rows of the storing units (16aa-16ad, 16ba-16bd) to feed a predetermined number of coins, and after the predetermined number of coins are fed from the one of the rows of the storing units (16aa-16ad, 16ba-16bd), the controller is configured to cause the withdrawal transport unit to move, to cause the withdrawal transport unit to stop operating again, and to allow another one of the rows of the storing units (16aa-16ad, 16ba-16bd) to feed a predetermined number of coins.
Apparatus for performing a harmonicity-dependent controlling of a harmonic filter tool of an audio codec, comprising a pitch estimator configured to determine a pitch of an audio signal to be processed by the audio codec; a harmonicity measurer configured to determine a measure of harmonicity of the audio signal using the pitch; a temporal structure analyzer configured to determine, depending on the pitch, at least one temporal structure measure measuring a characteristic of a temporal structure of the audio signal; a controller configured to control the harmonic filter tool depending on the temporal structure measure and the measure of harmonicity, wherein the pitch estimator, the harmonicity measurer and the temporal structure analyzer perform its determination based on different versions of the audio signal including the original audio signal and some pre-modified version thereof.
A humanized anti-CD19 monoclonal antibody (MAb) or fragment thereof that binds a CD19 antigen, wherein said antibody comprises the hA19Vk having an amino acid sequence of and the hA19VH having an amino acid sequence of