mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a fuel cell system comprising: a fuel cell stack; and an accessory group constituted of, at least, a fuel gas supply blower for supplying a fuel gas to the fuel cell stack, an air supply blower for supplying air to the fuel cell stack, a cooling water pump for supplying a cooling water to the fuel cell stack, and a radiator for performing heat exchange with the cooling water, the method characterized by comprising: when a current output current is increased to a target output current, a step of increasing an output current while leaving at least one accessory power of the accessory group in a state lower than accessory power according to the target output current; and a step of thereafter increasing the accessory power in the state lower than the accessory power according to the target output current to the accessory power according to the target output current, wherein a voltage of the fuel cell stack is monitored, and after the step of increasing the output current, the voltage of the fuel cell stack is stabilized, thereafter the accessory power is increased to an accessory power value corresponding to the target output current value. a fuel cell stack; and an accessory group constituted of, at least, a fuel gas supply blower for supplying a fuel gas to the fuel cell stack, an air supply blower for supplying air to the fuel cell stack, a cooling water pump for supplying a cooling water to the fuel cell stack, and a radiator for performing heat exchange with the cooling water, the method characterized by comprising: when a current output current is increased to a target output current, a step of increasing an output current while leaving at least one accessory power of the accessory group in a state lower than accessory power according to the target output current; and a step of thereafter increasing the accessory power in the state lower than the accessory power according to the target output current to the accessory power according to the target output current, wherein a voltage of the fuel cell stack is monitored, and after the step of increasing the output current, the voltage of the fuel cell stack is stabilized, thereafter the accessory power is increased to an accessory power value corresponding to the target output current value. when a current output current is increased to a target output current, a step of increasing an output current while leaving at least one accessory power of the accessory group in a state lower than accessory power according to the target output current; and a step of thereafter increasing the accessory power in the state lower than the accessory power according to the target output current to the accessory power according to the target output current, wherein a voltage of the fuel cell stack is monitored, and after the step of increasing the output current, the voltage of the fuel cell stack is stabilized, thereafter the accessory power is increased to an accessory power value corresponding to the target output current value.
A method for screening an antibody for a desired response comprising the steps of: a) making available an inverted open microwell or an array thereof, where a microchannel having a cross sectional area of micrometer dimensions provides fluid to said microwell or array thereof; b) preparing an antibody secreting cell population; c) preparing microbeads or target cells, wherein microbeads are prepared by binding a target, such as an antigen or protein, or a secondary antibody specific to mouse or human IgG on their surface, and wherein target cells express a specific epitope on their membrane; d) inserting in said microchannel a fluid containing said microbeads or target cells and delivering single particles of said microbeads or target cells to each inverted open microwell; e) inserting in said microchannel a fluid containing ASCs and delivering a single ASC to each inverted open microwell; f) keeping object pairs comprising a single ASC and a microbead or target cell in each microwell at the interface between air and fluid for a time suitable for properly binding the antibody secreted by the ASC to the target; g) flowing filtered air or a mix of air and CO 2 into the channel, removing the fluid from the channel while retaining fluid in the microwell; h) detecting a desired functional response in the deposited target cell or microbead. a) making available an inverted open microwell or an array thereof, where a microchannel having a cross sectional area of micrometer dimensions provides fluid to said microwell or array thereof; b) preparing an antibody secreting cell population; c) preparing microbeads or target cells, wherein microbeads are prepared by binding a target, such as an antigen or protein, or a secondary antibody specific to mouse or human IgG on their surface, and wherein target cells express a specific epitope on their membrane; d) inserting in said microchannel a fluid containing said microbeads or target cells and delivering single particles of said microbeads or target cells to each inverted open microwell; e) inserting in said microchannel a fluid containing ASCs and delivering a single ASC to each inverted open microwell; f) keeping object pairs comprising a single ASC and a microbead or target cell in each microwell at the interface between air and fluid for a time suitable for properly binding the antibody secreted by the ASC to the target; g) flowing filtered air or a mix of air and CO 2 into the channel, removing the fluid from the channel while retaining fluid in the microwell; h) detecting a desired functional response in the deposited target cell or microbead.
A fusion protein comprising: (i) a first domain that comprises an antibody to PD-L1, wherein the antibody comprises (a) a heavy chain CDR-1H comprising SEQ ID NO:121; a heavy chain CDR-2H comprising SEQ ID NO:123; a heavy chain CDR-3H comprising SEQ ID NO:125; a light chain CDR-1L comprising SEQ ID NO:127; a light chain CDR-2L comprising SEQ ID NO:128; and a light chain CDR-3L comprising SEQ ID NO:129; (b) a heavy chain CDR-1H comprising SEQ ID NO: 241, a CDR-2H comprising SEQ ID NO: 243, and a CDR-3H comprising SEQ ID NO: 245; and a light chain CDR-1L comprising SEQ ID NO:247, a CDR-2L comprising SEQ ID NO:248, and a CDR-3L comprising SEQ ID NO:249; or (c) a heavy chain CDR-1H comprising SEQ ID NO: 266, a CDR-2H comprising SEQ ID NO: 243, and a CDR-3H comprising SEQ ID NO: 245; and a light chain CDR-1L comprising SEQ ID NO:247, a CDR-2L comprising SEQ ID NO:248, and a CDR-3L comprising SEQ ID NO:249; and wherein the antibody binds to PD-L1 and blocks its interaction with PD-1, (ii) a second domain that binds to IL-15 receptor ("IL-15R"), wherein the second domain comprises IL-15 or an IL-15R-binding fragment thereof, and (iii) an IL-15 receptor alpha sushi domain. (i) a first domain that comprises an antibody to PD-L1, wherein the antibody comprises (a) a heavy chain CDR-1H comprising SEQ ID NO:121; a heavy chain CDR-2H comprising SEQ ID NO:123; a heavy chain CDR-3H comprising SEQ ID NO:125; a light chain CDR-1L comprising SEQ ID NO:127; a light chain CDR-2L comprising SEQ ID NO:128; and a light chain CDR-3L comprising SEQ ID NO:129; (b) a heavy chain CDR-1H comprising SEQ ID NO: 241, a CDR-2H comprising SEQ ID NO: 243, and a CDR-3H comprising SEQ ID NO: 245; and a light chain CDR-1L comprising SEQ ID NO:247, a CDR-2L comprising SEQ ID NO:248, and a CDR-3L comprising SEQ ID NO:249; or (c) a heavy chain CDR-1H comprising SEQ ID NO: 266, a CDR-2H comprising SEQ ID NO: 243, and a CDR-3H comprising SEQ ID NO: 245; and a light chain CDR-1L comprising SEQ ID NO:247, a CDR-2L comprising SEQ ID NO:248, and a CDR-3L comprising SEQ ID NO:249; and wherein the antibody binds to PD-L1 and blocks its interaction with PD-1, (a) a heavy chain CDR-1H comprising SEQ ID NO:121; a heavy chain CDR-2H comprising SEQ ID NO:123; a heavy chain CDR-3H comprising SEQ ID NO:125; a light chain CDR-1L comprising SEQ ID NO:127; a light chain CDR-2L comprising SEQ ID NO:128; and a light chain CDR-3L comprising SEQ ID NO:129; (b) a heavy chain CDR-1H comprising SEQ ID NO: 241, a CDR-2H comprising SEQ ID NO: 243, and a CDR-3H comprising SEQ ID NO: 245; and a light chain CDR-1L comprising SEQ ID NO:247, a CDR-2L comprising SEQ ID NO:248, and a CDR-3L comprising SEQ ID NO:249; or (c) a heavy chain CDR-1H comprising SEQ ID NO: 266, a CDR-2H comprising SEQ ID NO: 243, and a CDR-3H comprising SEQ ID NO: 245; and a light chain CDR-1L comprising SEQ ID NO:247, a CDR-2L comprising SEQ ID NO:248, and a CDR-3L comprising SEQ ID NO:249; (ii) a second domain that binds to IL-15 receptor ("IL-15R"), wherein the second domain comprises IL-15 or an IL-15R-binding fragment thereof, and (iii) an IL-15 receptor alpha sushi domain.
A cooling fan comprising: a rotary shaft rotatably supported by a fan housing; a rotor fixed to the rotary shaft; a stator fixed to the fan housing and arranged at a predetermined gap from a rotor, the stator comprising a stator core including an inner surface portion which is configured in the form of a ring and which is fixed to the fan housing, a coil winding portion formed at regular intervals in the circumferential direction from the outer surface of the inner surface portion on which a coil is wound, and an outer surface portion formed on a radially outer end of the coil winding portion and disposed to face a magnet of the rotor; an impeller connected to the rotor; a printed circuit board installed under the stator to control the cooling fan; and a grounding portion installed on the stator core and electrically connected to a ground pattern of the PCB to expand a ground area, the grounding portion comprising a connection hole portion formed in the stator core, and a joint pin which is inserted into the connection hole portion and electrically connected to the PCB, wherein the connection hole portion is formed in the ring shape on the inner surface portion, and formed in a position that does not interfere with the coil wound on the coil winding portion. a rotary shaft rotatably supported by a fan housing; a rotor fixed to the rotary shaft; a stator fixed to the fan housing and arranged at a predetermined gap from a rotor, the stator comprising a stator core including an inner surface portion which is configured in the form of a ring and which is fixed to the fan housing, a coil winding portion formed at regular intervals in the circumferential direction from the outer surface of the inner surface portion on which a coil is wound, and an outer surface portion formed on a radially outer end of the coil winding portion and disposed to face a magnet of the rotor; an impeller connected to the rotor; a printed circuit board installed under the stator to control the cooling fan; and a grounding portion installed on the stator core and electrically connected to a ground pattern of the PCB to expand a ground area, the grounding portion comprising a connection hole portion formed in the stator core, and a joint pin which is inserted into the connection hole portion and electrically connected to the PCB, wherein the connection hole portion is formed in the ring shape on the inner surface portion, and formed in a position that does not interfere with the coil wound on the coil winding portion.
An air-power tool gun with quick-changing structure, including: a gun-body suitable for air-flow passing and a changeable gun-nozzle connector, wherein the gun-body has a device for controlling the air-flow and an air-guiding pipeline inside, and the gun-body is set with a gun-nozzle connector connecting structure, and the center of the changeable gun-nozzle connector has a pipe connected with the air-guiding pipeline, wherein the gun-body is also set with a quick-changing structure, and the changeable gun-nozzle connector is connected detachably with the gun-body by the quick-changing structure, characterized in that the changeable gun-nozzle connector is set with a convex shoulder, and the gun-nozzle connecting structure is set with a second groove corresponding to the convex shoulder, so as to prevent rotation between the changeable gun-nozzle connector and the gun-body, and in that, said quick-changing structure includes: a guide groove, a position-limiting piece installed slideably in said guide groove, a position-limiting piece connecting structure set on said changeable gun-nozzle connector, a transmission structure; said transmission structure being set with a position-limiting piece moving structure (4, 9), and one end of said position-limiting piece being connected slideably with said position-limiting piece moving structure (4,9), and the other end of said position-limiting piece being in locking connection with the position-limiting piece connecting structure of said changeable gun-nozzle connector, wherein when said transmission structure moves, it drives the position-limiting piece to move with it, so as to separate from the locking connection with the position-limiting piece connecting structure set on said changeable gun-nozzle connector. a gun-body suitable for air-flow passing and a changeable gun-nozzle connector,
Electric switch, in particular electric circuit breaker, - having a tripping device, which trips in the event of a fault and disconnects a current flowing through the switch, - having an actuating lever, which can assume an on position, an off position and a tripped position, wherein the switch is switched on in the on position of the actuating lever and is switched off in the off position of the actuating lever and wherein the actuating lever moves from the on position to the tripped position when the tripping device trips, - having a motor drive that is mounted on a switch housing of the switch, said motor drive being able to switch the switch on and off, wherein the motor drive visually covers the actuating lever, and - having a control device, which signals a position of the power switch, characterized by - at least one position sensor (80, 210, 220), which detects at least one position of the covered actuating lever and generates a position signal that indicates the position of the covered actuating lever, wherein - the control device is configured in such a way that it switches a light source on or off depending on the position signal (ST, STE, STA) of the at least one position sensor (80, 210, 220), the light of said light source being visible from the outside, - and specifically in such a way that said control device switches the light source on when the actuating lever assumes the tripped position and switches the light source off when the actuating lever is not in the tripped position. - having a tripping device, which trips in the event of a fault and disconnects a current flowing through the switch, - having an actuating lever, which can assume an on position, an off position and a tripped position, wherein the switch is switched on in the on position of the actuating lever and is switched off in the off position of the actuating lever and wherein the actuating lever moves from the on position to the tripped position when the tripping device trips, - having a motor drive that is mounted on a switch housing of the switch, said motor drive being able to switch the switch on and off, wherein the motor drive visually covers the actuating lever, and - having a control device, which signals a position of the power switch, - at least one position sensor (80, 210, 220), which detects at least one position of the covered actuating lever and generates a position signal that indicates the position of the covered actuating lever, wherein - the control device is configured in such a way that it switches a light source on or off depending on the position signal (ST, STE, STA) of the at least one position sensor (80, 210, 220), the light of said light source being visible from the outside, - and specifically in such a way that said control device switches the light source on when the actuating lever assumes the tripped position and switches the light source off when the actuating lever is not in the tripped position.
A fume extraction and/or filtration hood, in particular for household kitchens, comprising: - a chimney having a hollow interior and comprising lateral walls, a back wall and a front wall; - an inlet section through which fumes flow into said chimney; - a motor fan accommodated in said chimney opposite to said inlet section; - an extraction volume placed between said lateral walls and said motor fan; - a partition element having a wedge shape, with a substantially triangular section and placed between the motor fan and the inlet section, said partition element comprising a base facing toward the motor fan and an apex oriented toward said inlet section, and - a plane of symmetry dividing the hood into two substantially equally parts, said hood being characterized in that said apex has an angle of less than 40°, preferably less than 15°, and more preferably less than 7°, said lateral walls comprise at least: - a first segment positioned in proximity to said inlet section and inclined toward said plane of symmetry; - a second segment inclined in a opposite direction with respect to said plane of symmetry, said first and second segments being formed with radiused surfaces, each having a first length ranging from 70 mm to 110 mm. - a chimney having a hollow interior and comprising lateral walls, a back wall and a front wall; - an inlet section through which fumes flow into said chimney; - a motor fan accommodated in said chimney opposite to said inlet section; - an extraction volume placed between said lateral walls and said motor fan; - a partition element having a wedge shape, with a substantially triangular section and placed between the motor fan and the inlet section, said partition element comprising a base facing toward the motor fan and an apex oriented toward said inlet section, and - a plane of symmetry dividing the hood into two substantially equally parts, - a first segment positioned in proximity to said inlet section and inclined toward said plane of symmetry; - a second segment inclined in a opposite direction with respect to said plane of symmetry,
Method for packaging products, comprising: conveying a base film in a clocked manner using a conveying device along a direction of transport to a forming station, onward to a loading path, further onward to a sealing station and still further onward to a cutting station; forming packaging troughs into the base film in the forming station by thermoforming; forming centering holes into the base film in a defined relative position to the packaging troughs; filling the packaging troughs in the loading path with products; sealing the filled packaging troughs in the sealing station by sealingly connecting a top film to the base film; cutting out the filled packaging troughs from the film composite in the cutting station; and aligning the base film by engagement of at least one centering pin into the centering holes, characterized in that the base film is released by the conveying device upstream of the at least one centering pin in terms the direction of transport so that the base film has play for alignment by the centering pin. conveying a base film in a clocked manner using a conveying device along a direction of transport to a forming station, onward to a loading path, further onward to a sealing station and still further onward to a cutting station; forming packaging troughs into the base film in the forming station by thermoforming; forming centering holes into the base film in a defined relative position to the packaging troughs; filling the packaging troughs in the loading path with products; sealing the filled packaging troughs in the sealing station by sealingly connecting a top film to the base film; cutting out the filled packaging troughs from the film composite in the cutting station; and aligning the base film by engagement of at least one centering pin into the centering holes, characterized in that the base film is released by the conveying device upstream of the at least one centering pin in terms the direction of transport so that the base film has play for alignment by the centering pin.
Watch case comprising: - a back, - a middle, - a bezel, and - an assembly device (12, 18, 22, 25) assembling a first element out of the back, the middle and the bezel, and a second element out of the back, the middle and the bezel, the assembly device comprising, at each of two opposite sides of the watch case: - at least one first horn on the first element, - at least one second horn on the second element, and - a tube held in at least one hole in the at least one first horn and in at least one hole in the at least one second horn, this tube being able to receive a pin for fixing a wristlet to the watch case. - a back, - a middle, - a bezel, and - an assembly device (12, 18, 22, 25) assembling a first element out of the back, the middle and the bezel, and a second element out of the back, the middle and the bezel, - at least one first horn on the first element, - at least one second horn on the second element, and - a tube held in at least one hole in the at least one first horn and in at least one hole in the at least one second horn, this tube being able to receive a pin for fixing a wristlet to the watch case.
Modular gripping finger for arrangement on a movable gripper jaw of a gripping device, having at least two rigidly interconnected finger modules (12a, 12b, 14, 14a, 14b), the finger modules (12a, 12b, 14, 14a, 14b) comprising one or more base modules (12a, 12b) for forming a geometric shape of the gripping finger and comprising an end module (14, 14a, 14b) having a gripping surface, the end module (14, 14a, 14b) comprising an electrical end module interface and at least one sensor which is or can be connected to the end module interface, each base module (12a, 12b) comprising a front electrical interface nearer the gripper jaw and a rear electrical interface further away from the gripper jaw, the at least one base module (12a, 12b) being connectable via its rear electrical interface to the electrical end module interface, one or more connecting lines for transmitting energy and data being provided within each base module (12a, 12b) between the front electrical interface and the rear electrical interface in each case, the connecting lines interconnected via the electrical interfaces (16b, 18b) forming a through line such that energy for operating the sensor and/or sensor data generated by the sensor can be transmitted between the electrical jaw interface and the electrical end module interface, and characterized in that the front electrical interface and the electrical end module interface are identical in each case.
A plate fin heat exchanger comprising: a plurality of finned cold layers configured to conduct a first fluid; and a plurality of finned warm layers configured to conduct a second fluid, the finned warm layers having an inlet side, an outlet side, a first portion of fins at the inlet side, and a second portion of fins at the outlet side, wherein the fins of the first portion of fins have a thickness greater than a thickness of the fins of the second portion of fins; characterised by a slot formed in a leading edge of at least one fin of the first portion of fins. a plurality of finned cold layers configured to conduct a first fluid; and a plurality of finned warm layers configured to conduct a second fluid, the finned warm layers having an inlet side, an outlet side, a first portion of fins at the inlet side, and a second portion of fins at the outlet side, wherein the fins of the first portion of fins have a thickness greater than a thickness of the fins of the second portion of fins; characterised by a slot formed in a leading edge of at least one fin of the first portion of fins.