mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising a main species HER2 antibody that comprises light chain and heavy chain amino acid sequences in SEQ ID NOs. 15 and 16 respectively and binds to domain II of HER2, and acidic variants of that main species antibody, wherein the main species HER2 antibody is the antibody amino acid sequence structure in the composition which is the quantitatively predominant antibody molecule in the composition and the main species HER2 antibody and the acidic variants are all intact antibodies, wherein the acidic variants include a disulfide reduced variant and/or a non-reducible variant.
A method for measuring equol-producing ability of a test subject, wherein a THD-equol converting enzyme gene derived from enteric bacteria of the test subject is detected using three types of primer sets set forth in the following a) to c): a) a primer pair comprising an oligonucleotide having a base sequence represented by SEQ ID NO: 1 and an oligonucleotide having a base sequence represented by SEQ ID NO: 2, or a primer pair comprising complementary sequences corresponding to said base sequences; b) a primer pair comprising an oligonucleotide having a base sequence represented by SEQ ID NO: 3 and an oligonucleotide having a base sequence represented by SEQ ID NO: 4, or a primer pair comprising complementary sequences corresponding to said base sequences; and c) a primer pair comprising an oligonucleotide having a base sequence represented by SEQ ID NO: 5 and an oligonucleotide having a base sequence represented by SEQ ID NO: 6 or 7, or a primer pair comprising complementary sequences corresponding to said base sequences. a) a primer pair comprising an oligonucleotide having a base sequence represented by SEQ ID NO: 1 and an oligonucleotide having a base sequence represented by SEQ ID NO: 2, or a primer pair comprising complementary sequences corresponding to said base sequences; b) a primer pair comprising an oligonucleotide having a base sequence represented by SEQ ID NO: 3 and an oligonucleotide having a base sequence represented by SEQ ID NO: 4, or a primer pair comprising complementary sequences corresponding to said base sequences; and c) a primer pair comprising an oligonucleotide having a base sequence represented by SEQ ID NO: 5 and an oligonucleotide having a base sequence represented by SEQ ID NO: 6 or 7, or a primer pair comprising complementary sequences corresponding to said base sequences.
A computer-implemented method comprising: accessing a record corresponding to a particular traversable map element, the record comprising a computer-executable instruction embedded therein; receiving sensor data from one or more sensors, the sensor data corresponding to map data of the particular traversable map element; and executing, by a processor, the computer-executable instruction, wherein the computer-executable instruction is configured, when executed, to cause analysis of at least a portion of the sensor data for updating the record. accessing a record corresponding to a particular traversable map element, the record comprising a computer-executable instruction embedded therein; receiving sensor data from one or more sensors, the sensor data corresponding to map data of the particular traversable map element; and executing, by a processor, the computer-executable instruction, wherein the computer-executable instruction is configured, when executed, to cause analysis of at least a portion of the sensor data for updating the record.
Method for microcontact embossing of a structure by transfer of an embossing material onto a target surface of a substrate by means of an embossing surface of a structural die, characterized in that the embossing material consists at least predominantly of silane or at least predominantly of at least one silane derivative or is a molecular component that consists at least predominantly of organic molecules and in that the structural die is a soft die, wherein the structural die is formed in the shape of a roller as a hollow shaft, wherein the cavity in the interior of the hollow shaft is used as a reservoir for the embossing material, wherein the structural die has a porous microstructure that consists of pores and that makes possible the passage of the embossing material from the cavity to the surface of structures.
A sanitary washing device configured to be installed on a toilet bowl, for washing a human private part, said device comprising: a nozzle device for jetting washing water; a washing water supply passage for supplying the washing water to the nozzle device; and a control part, wherein the washing water supply passage includes: a water pump for supplying the washing water to the nozzle device; a heat exchanger for heating the washing water; and a sub tank, disposed upstream of the heat exchanger, for opening a portion of the washing water supply passage to atmosphere, the sub tank includes: an atmosphere open port disposed on an upper surface of the sub tank; a water inflow tank and a storage tank which are formed separately from each other by a partition wall; a water inflow port disposed in a vicinity of a bottom portion of the water inflow tank; and a water outflow port disposed in a portion of the storage tank, and the washing water flowing into the water inflow tank through the water inflow port overflows an upper end of the partition wall and flows into the storage tank, characterized in that the heat exchanger is disposed upstream of the water pump and the water outflow port is disposed in a vicinity of a bottom portion of the storage tank. a nozzle device for jetting washing water; a washing water supply passage for supplying the washing water to the nozzle device; and a control part, wherein the washing water supply passage includes: a water pump for supplying the washing water to the nozzle device; a heat exchanger for heating the washing water; and a sub tank, disposed upstream of the heat exchanger, for opening a portion of the washing water supply passage to atmosphere, a water pump for supplying the washing water to the nozzle device; a heat exchanger for heating the washing water; and a sub tank, disposed upstream of the heat exchanger, for opening a portion of the washing water supply passage to atmosphere, the sub tank includes: an atmosphere open port disposed on an upper surface of the sub tank; a water inflow tank and a storage tank which are formed separately from each other by a partition wall; a water inflow port disposed in a vicinity of a bottom portion of the water inflow tank; and a water outflow port disposed in a portion of the storage tank, and an atmosphere open port disposed on an upper surface of the sub tank; a water inflow tank and a storage tank which are formed separately from each other by a partition wall; a water inflow port disposed in a vicinity of a bottom portion of the water inflow tank; and a water outflow port disposed in a portion of the storage tank, and the washing water flowing into the water inflow tank through the water inflow port overflows an upper end of the partition wall and flows into the storage tank, characterized in that the heat exchanger is disposed upstream of the water pump and the water outflow port is disposed in a vicinity of a bottom portion of the storage tank.
An oxidative reductive potential water solution, for use in treating periodontal disease and root canal infections; wherein the solution has a pH of 6.4 to 7.8 and is stable for at least two months, wherein the solution comprises 50 ppm to 80 ppm of free chlorine species selected from the group consisting of hypochlorous acid, hypochlorite ions, sodium hypochlorite, chlorite ions, chloride ions, dissolved chlorine gas, and mixtures thereof, and wherein the solution comprises anode water and cathode water.
A medical lead, comprising: a first lead body housing a first filar connected to a first proximal contact on the first lead body, the first lead body having a first braided conductive shield with a first value of a first physical parameter; a second lead body housing a second filar connected to a second proximal contact on the second lead body, the second lead body having a second braided conductive shield with a second value of the first physical parameter that is different than the first value; and a body housing a plurality of electrodes, the body being coupled to the distal end of the first and second lead bodies with a first electrode of the plurality connected to the first filar and a second electrode of the plurality connected to the second filar. a first lead body housing a first filar connected to a first proximal contact on the first lead body, the first lead body having a first braided conductive shield with a first value of a first physical parameter; a second lead body housing a second filar connected to a second proximal contact on the second lead body, the second lead body having a second braided conductive shield with a second value of the first physical parameter that is different than the first value; and a body housing a plurality of electrodes, the body being coupled to the distal end of the first and second lead bodies with a first electrode of the plurality connected to the first filar and a second electrode of the plurality connected to the second filar.
A turbo machine comprising: an impeller that rotates to make gas flow; a driving device that rotationally drives the impeller; a rotary shaft that transmits a rotational driving force of the driving device to the impeller; a bearing that rotatably supports the rotary shaft; and a casing that houses at least the driving device and the rotary shaft, wherein the casing is provided with a grease flow path (7,8) to supply grease to the bearing for lubricating the bearing, the casing includes a casing body that houses at least the driving device and the rotary shaft, and a bearing supporting member (53, 54) that is detachably installed in the casing body and supports the bearing, the casing body is provided with a first flow path (71, 81) that forms a portion of the grease flow path, and characterized in that the bearing supporting member (53, 54) is provided with a second flow path (72, 82) that forms a portion of the grease flow path and communicates with the first flow path (71, 81). an impeller that rotates to make gas flow; a driving device that rotationally drives the impeller; a rotary shaft that transmits a rotational driving force of the driving device to the impeller; a bearing that rotatably supports the rotary shaft; and a casing that houses at least the driving device and the rotary shaft, wherein the casing is provided with a grease flow path (7,8) to supply grease to the bearing for lubricating the bearing, the casing includes a casing body that houses at least the driving device and the rotary shaft, and a bearing supporting member (53, 54) that is detachably installed in the casing body and supports the bearing, the casing body is provided with a first flow path (71, 81) that forms a portion of the grease flow path, and characterized in that the bearing supporting member (53, 54) is provided with a second flow path (72, 82) that forms a portion of the grease flow path and communicates with the first flow path (71, 81).
A cleaner for performing autonomous traveling, the cleaner comprising: a main body; a driving unit configured to move the main body; a suction unit installed on a front surface of the main body; a sensor disposed on a surface of the main body in a traveling direction of the main body to sense an external physical force; and a control unit configured to control the driving unit to move the main body based on a preset traveling pattern, wherein the control unit is configured to control, when one surface of the main body is brought into contact with a first point of a wall existing in a traveling direction of the main body while the main body moves along the preset traveling pattern, the driving unit such that the one surface of the main body is spaced apart from the wall and then brought into contact with a second point of the wall; wherein the control unit is configured to determine whether the main body is brought into contact with the wall, based on a sensing result of the sensor; and wherein the control unit is configured to control the driving unit to move the main body backward from the wall by a preset first distance when the main body is brought into contact with the wall. a main body; a driving unit configured to move the main body; a suction unit installed on a front surface of the main body; a sensor disposed on a surface of the main body in a traveling direction of the main body to sense an external physical force; and a control unit configured to control the driving unit to move the main body based on a preset traveling pattern, wherein the control unit is configured to control, when one surface of the main body is brought into contact with a first point of a wall existing in a traveling direction of the main body while the main body moves along the preset traveling pattern, the driving unit such that the one surface of the main body is spaced apart from the wall and then brought into contact with a second point of the wall; wherein the control unit is configured to determine whether the main body is brought into contact with the wall, based on a sensing result of the sensor; and wherein the control unit is configured to control the driving unit to move the main body backward from the wall by a preset first distance when the main body is brought into contact with the wall.
A well system subassembly, comprising: a casing joint coupled to a casing string and defining a lowside therein, the casing joint being made of a first material that is softer than that of the casing string; and a whipstock assembly arranged within the casing joint and having an uphole tip and a deflector surface operable to direct a drilling assembly into a sidewall of the casing joint to create a casing exit, characterised by a wear bushing couplable to the drilling assembly, and removable from the drilling assembly, upon engaging a stationary wellbore object, the wear bushing being configured to protect the lowside of the casing joint from damaging wear caused by the drilling assembly. a casing joint coupled to a casing string and defining a lowside therein, the casing joint being made of a first material that is softer than that of the casing string; and a whipstock assembly arranged within the casing joint and having an uphole tip and a deflector surface operable to direct a drilling assembly into a sidewall of the casing joint to create a casing exit, characterised by a wear bushing couplable to the drilling assembly, and removable from the drilling assembly, upon engaging a stationary wellbore object, the wear bushing being configured to protect the lowside of the casing joint from damaging wear caused by the drilling assembly.
A system for determining a minimum amount of fuel required by a vehicle for a series of time frames in a sortie, the system comprising: one or more sensors; a data storage device comprising: a sensor log for storing sensor information in association with a corresponding time frame N, wherein a time frame is a block of time and N represents a current time frame in a series of time frames, and a fuel-use log for storing a record of fuel used by the vehicle during a sortie, and category information; a controller; a categorization module for configuring the controller to obtain the sensor information stored in the sensor log for a time frame and, based on the sensor information, categorize the fuel used in that time frame into one of a plurality of categories, wherein the categories include a number of categories that identify different wasteful uses of fuel and at least one category corresponding to non-wasteful uses of fuel; and a determination module for configuring the controller to determine: a cumulative amount of fuel wasted during the sortie by totaling the fuel categorized as wasted in the time frames 0 to N, a cumulative fuel used during the sortie, and a minimum amount of fuel required during the sortie by subtracting the cumulative amount of fuel wasted from the cumulative fuel used during the sortie. one or more sensors; a data storage device comprising: a sensor log for storing sensor information in association with a corresponding time frame N, wherein a time frame is a block of time and N represents a current time frame in a series of time frames, and a fuel-use log for storing a record of fuel used by the vehicle during a sortie, and category information; a sensor log for storing sensor information in association with a corresponding time frame N, wherein a time frame is a block of time and N represents a current time frame in a series of time frames, and a fuel-use log for storing a record of fuel used by the vehicle during a sortie, and category information; a controller; a categorization module for configuring the controller to obtain the sensor information stored in the sensor log for a time frame and, based on the sensor information, categorize the fuel used in that time frame into one of a plurality of categories, wherein the categories include a number of categories that identify different wasteful uses of fuel and at least one category corresponding to non-wasteful uses of fuel; and a determination module for configuring the controller to determine: a cumulative amount of fuel wasted during the sortie by totaling the fuel categorized as wasted in the time frames 0 to N, a cumulative fuel used during the sortie, and a minimum amount of fuel required during the sortie by subtracting the cumulative amount of fuel wasted from the cumulative fuel used during the sortie. a cumulative amount of fuel wasted during the sortie by totaling the fuel categorized as wasted in the time frames 0 to N, a cumulative fuel used during the sortie, and a minimum amount of fuel required during the sortie by subtracting the cumulative amount of fuel wasted from the cumulative fuel used during the sortie.
A system for delivery of ammonia to an ammonia consuming unit wherein the system comprises a storage/discharge chamber for delivery of ammonia, said storage/discharge chamber comprising a compacted ammonia absorbing/desorbing solid material, means for heating the storage/discharge_chamber, and means for conveying the delivered ammonia from the storage/discharge chamber to one or more ammonia consuming units, wherein compacted ammonia absorbing/desorbing solid material is a chemical complex in the form of an ionic salt of the general formula: M a (NH 3) n X z wherein M is one or more cations selected from alkali metals such as Li, Na, K or Cs, alkaline earth metals such as Mg, Ca or Sr, aluminium and transition metals such as V, Cr, Mn, Fe, Co, Ni, Cu or Zn or combinations thereof such as NaAl, KAl, K 2 Zn, CsCu or K 2 Fe, X is one or more anions selected from fluoride, chloride, bromide, iodide, nitrate, thiocyanate, sulphate, molybdate and phosphate ions, a is the number of cations per salt molecule, z is the number of anions per salt molecule, and n is the coordination number of 2 to 12, wherein said storage and delivery material which is saturated completely or not completely has an ammonia content of 20-60 wt%, wherein said storage and delivery material is compacted to a density above 75% of the theoretical skeleton density defined as the density of an ideal single crystal with no internal voids and is in the form of a block or tablet or a pellet of a desired shape.
An ultrasonic-frequency hybrid pulse GMAW welding power source device, comprising a constant voltage source for providing a constant voltage to a BUCK-type main circuit, the BUCK-type main circuit, a constant current source for providing a constant current to an ultrasonic-frequency pulse current switching circuit, and the ultrasonic-frequency pulse current switching circuit, wherein the constant voltage source is connected to the BUCK-type main circuit; the constant current source is connected to the ultrasonic-frequency pulse current switching circuit; the BUCK-type main circuit is in parallel connection to the ultrasonic-frequency pulse current switching circuit; the BUCK-type main circuit is used for providing a first output current (I A) for welding, which is in the form of a direct current or pulses; the ultrasonic-frequency pulse current switching circuit is used for providing a second output current (Ic) for welding, which is an ultrasonic-frequency pulse current, wherein the BUCK-type main circuit is configured to output pulses as the first output current; and the ultrasonic-frequency pulse current switching circuit is configured to provide the second output current (I C) so that the ultrasonic-frequency pulse current is superposed with both a background current (I b) and a peak current (I p) of the first output current (I A). the BUCK-type main circuit is used for providing a first output current (I A) for welding, which is in the form of a direct current or pulses; the ultrasonic-frequency pulse current switching circuit is used for providing a second output current (Ic) for welding, which is an ultrasonic-frequency pulse current, wherein the BUCK-type main circuit is configured to output pulses as the first output current; and the ultrasonic-frequency pulse current switching circuit is configured to provide the second output current (I C) so that the ultrasonic-frequency pulse current is superposed with both a background current (I b) and a peak current (I p) of the first output current (I A).