mhurhangee/ep-ind-claims huggingface dataset:
A system for use with a plurality of prosthetic heart valve leaflets, the system comprising: a storage array (104, 204), the storage array comprising: a plurality of cells (106, 206), each cell configured to contain exactly one of the leaflets; and a plurality of indicators (120, 220), each of the indicators associated with a corresponding one of the cells; and circuitry, in communication with the plurality of indicators, and configured to: receive a group size value, using one or more leaflet-flexibility values that each corresponds to a respective one of the leaflets, designate at least some of the leaflets into leaflet groups, each of the leaflet groups including a number of leaflets equal to the group size value, and for each of the leaflet groups, drive the indicators (120, 220) to indicate which of the cells (106, 206) contain leaflets designated to the leaflet group. a storage array (104, 204), the storage array comprising: a plurality of cells (106, 206), each cell configured to contain exactly one of the leaflets; and a plurality of indicators (120, 220), each of the indicators associated with a corresponding one of the cells; and a plurality of cells (106, 206), each cell configured to contain exactly one of the leaflets; and a plurality of indicators (120, 220), each of the indicators associated with a corresponding one of the cells; and circuitry, in communication with the plurality of indicators, and configured to: receive a group size value, using one or more leaflet-flexibility values that each corresponds to a respective one of the leaflets, designate at least some of the leaflets into leaflet groups, each of the leaflet groups including a number of leaflets equal to the group size value, and for each of the leaflet groups, drive the indicators (120, 220) to indicate which of the cells (106, 206) contain leaflets designated to the leaflet group. receive a group size value, using one or more leaflet-flexibility values that each corresponds to a respective one of the leaflets, designate at least some of the leaflets into leaflet groups, each of the leaflet groups including a number of leaflets equal to the group size value, and for each of the leaflet groups, drive the indicators (120, 220) to indicate which of the cells (106, 206) contain leaflets designated to the leaflet group.
A door handle arrangement for a motor vehicle, comprising a handle for opening a door of the motor vehicle, a carrier which can be fastened to an inner side of the door, a reversing lever which is rotatably mounted on the carrier and by means of which an actuation of the handle can be transferred to a vehicle-side locking arrangement, and a tower which has either a locking cylinder or a cladding dummy that is accessible from the outside of the door, wherein the handle is rotatably mounted on the carrier in the region of its first handle end and is motion-coupled with the reversing lever in the region of its second handle end, wherein a sliding element is arranged on the carrier, which sliding element is movable on the carrier between a locking position locking the tower in the carrier and a mounting position releasing the tower, characterized in that the sliding element is formed such that in the locking position it blocks both a movement of the handle directed in the longitudinal direction of the carrier towards the tower and a movement of the tower directed transversely to the carrier.
Peritoneal dialysis system comprising at least one peritoneal dialysis machine that is transportable when travelling and at least one organization system that is configured to carry the peritoneal dialysis machine and/or one or more functional elements that are connected to the peritoneal dialysis machine or are connectable thereto, wherein the organization system can be folded for purposes of transport or storage and can be set up, starting from the folded state, into its functional state for the purpose of carrying out the peritoneal dialysis treatment, wherein the organization system has a height-adjustable placing surface, onto which the peritoneal dialysis machine can be placed, and one or more one or more carrier elements for carrying the functional elements and wherein the organization system partially or completely surrounds the peritoneal dialysis machine in its functional state and wherein the peritoneal dialysis system has a transport case in which the peritoneal dialysis machine can be received and in which is space for the organization system in its folded state.
Device for labelling containers with in particular stretch label sleeves, comprising spreading units having spreading segments which can be moved apart from an inner position for picking up the label sleeves to an outer position (R3, R4) for spreading the label sleeves for the subsequent labelling operation, and comprising a control device by which different spreading movements can be applied to the spreading segments, particularly in groups (G1 - G3, G1', G2'), simultaneously or in a temporally overlapping manner, wherein the spreading segments are mounted in a radially displaceable manner around a central opening for receiving the container, and wherein the spreading segments can move into at least one non-rotationally-symmetrical position (R2, R3, R4) relative to the central opening.
Method for controlling a powertrain comprising a spark-ignition combustion engine, a friction-controlled clutch, and a gearbox coupled to said combustion engine via said clutch, said method comprising the following actions: - control of progressive closing of the clutch; and concomitantlydetermination of an intake air torque setpoint of the combustion engine and an ignition advance torque setpoint of the combustion engine; characterized in that determination of the intake air torque setpoint of the combustion engine is dynamic during the progressive closing of the clutch and corresponds to at least one torque request from the combustion engine (22, 24) dependent on the closing of the clutch, increased (20'.1, 20'.2) dynamically by an anticipation value of variation of said torque demand of the combustion engine (22, 24). - control of progressive closing of the clutch; and concomitantlydetermination of an intake air torque setpoint of the combustion engine and an ignition advance torque setpoint of the combustion engine; characterized in that determination of the intake air torque setpoint of the combustion engine is dynamic during the progressive closing of the clutch and corresponds to at least one torque request from the combustion engine (22, 24) dependent on the closing of the clutch, increased (20'.1, 20'.2) dynamically by an anticipation value of variation of said torque demand of the combustion engine (22, 24).
Robot joint holding brake, comprising - a brake housing, - a first pawl (7.1) with a first head section (8.1) mounted pivotably in the brake housing, - a toothed wheel mounted rotatably in the brake housing with teeth distributed evenly around the circumference, of which two adjacent teeth define a gap of the toothed wheel respectively, - a first clamping device (9.1) which is designed to pivot the first pawl (7.1) against the toothed wheel such that the first head section (8.1) in a respective assigned engagement rotational position of the toothed wheel dips into one of the gaps in order to arrest the robot joint holding brake, - a first magnet (14.1) which is designed during its activation to hold the first pawl (7.1) against the effect of the first clamping device (9.1) outside the gaps of the toothed wheel, in order to hold the robot joint holding brake in its released state, - a second pawl (7.2) mounted pivotably in the brake housing with a second head section (8.2), - and a second clamping device (9.2) which is designed to pivot the second pawl (7.2) against the toothed wheel such that the second head section (8.2) in a respective assigned engagement rotational position of the toothed wheel dips into one of the gaps in order to arrest the robot joint holding brake, characterised in that the first pawl (7.1) and the second pawl (7.2) are mounted pivotably relative to the toothed wheel in the brake housing such that in an arrested state of the robot joint holding brake only one of the two pawls (7.1, 7.2) dips with its head section (8.1, 8.2) into the gap of the toothed wheel and the head section (8.1, 8.2) of the other pawl (7.1, 7.2) bears on a head surface of a tooth of the toothed wheel. - a brake housing, - a first pawl (7.1) with a first head section (8.1) mounted pivotably in the brake housing, - a toothed wheel mounted rotatably in the brake housing with teeth distributed evenly around the circumference, of which two adjacent teeth define a gap of the toothed wheel respectively, - a first clamping device (9.1) which is designed to pivot the first pawl (7.1) against the toothed wheel such that the first head section (8.1) in a respective assigned engagement rotational position of the toothed wheel dips into one of the gaps in order to arrest the robot joint holding brake, - a first magnet (14.1) which is designed during its activation to hold the first pawl (7.1) against the effect of the first clamping device (9.1) outside the gaps of the toothed wheel, in order to hold the robot joint holding brake in its released state, - a second pawl (7.2) mounted pivotably in the brake housing with a second head section (8.2), - and a second clamping device (9.2) which is designed to pivot the second pawl (7.2) against the toothed wheel such that the second head section (8.2) in a respective assigned engagement rotational position of the toothed wheel dips into one of the gaps in order to arrest the robot joint holding brake,
A method for detecting a target particle dispersed and moving randomly in a sample solution, comprising: (a) a step of preparing a sample solution containing target particles and at least one type of a luminescent probe, each probe of a given type comprising the same type of luminescent substance whereby each probe of a given type binds to the target particles, and of allowing two or more of the luminescent probes of a given type comprising the same type of luminescent substance to bind to a single target particle in the sample solution, (b) a step of determining, in the sample solution prepared in step (a), the number of target particles having two or more of the luminescent probes having the same type of luminescent substance bound thereto, wherein determining the number of target particles having two or more luminescent probes bound thereto is carried out, by using an optical system of a confocal microscope or multi-photon microscope, a step of moving the location of a photodetection region of the optical system in the sample solution, thereby obtaining chronological light intensity data, a step of detecting fluorescence emitted from the target particle in the photodetection region while moving the location of the photodetection region of the optical system in the sample solution, a step of individually detecting target particles by detecting an individual fluorescence light signal emitted from the individual target particle in the detected light, wherein the entry of a single target particle, having the two or more luminescent probes of the same type bound thereto, into the photodetection region, is detected based on the shape of the chronologically detected individual fluorescent light signal, and the step of determining comprises a step of counting the number of target particles individually detected during movement of the location of the photodetection region by counting only those particles to which two or more luminescent probes are bound by using as an indicator thereof the strength of the fluorescence light signal of the individually detected particles. (a) a step of preparing a sample solution containing target particles and at least one type of a luminescent probe, each probe of a given type comprising the same type of luminescent substance whereby each probe of a given type binds to the target particles, and of allowing two or more of the luminescent probes of a given type comprising the same type of luminescent substance to bind to a single target particle in the sample solution, (b) a step of determining, in the sample solution prepared in step (a), the number of target particles having two or more of the luminescent probes having the same type of luminescent substance bound thereto, wherein determining the number of target particles having two or more luminescent probes bound thereto is carried out, by using an optical system of a confocal microscope or multi-photon microscope,
An air conditioner comprising: a setting unit for setting a predetermined function to be embodied with lighting; a storing unit for storing at least one illumination pattern information; a control unit for connecting the function inputted with the setting unit to an illumination pattern stored in the storing unit; and a lighting unit to be lighted according to the illumination pattern information connected by the control unit, characterized in that the illumination pattern information includes information on a therapy illumination pattern formed based on an influence of a color to a human body, wherein the storing unit stores at least one of a first illumination pattern information on a blood circulation acceleration illumination pattern for making the lighting unit to light circulation of an orange color, a yellow color, and colors between the orange color and the yellow color in a visible light spectrum, and a second illumination pattern information on a relaxation illumination pattern for making the lighting unit to light circulation of a green color, a blue color, and colors between the green color and the blue color in the visible light spectrum. a setting unit for setting a predetermined function to be embodied with lighting; a storing unit for storing at least one illumination pattern information; a control unit for connecting the function inputted with the setting unit to an illumination pattern stored in the storing unit; and a lighting unit to be lighted according to the illumination pattern information connected by the control unit, characterized in that the illumination pattern information includes information on a therapy illumination pattern formed based on an influence of a color to a human body, wherein the storing unit stores at least one of a first illumination pattern information on a blood circulation acceleration illumination pattern for making the lighting unit to light circulation of an orange color, a yellow color, and colors between the orange color and the yellow color in a visible light spectrum, and a second illumination pattern information on a relaxation illumination pattern for making the lighting unit to light circulation of a green color, a blue color, and colors between the green color and the blue color in the visible light spectrum.
A method of replacing a replaceable component of a braking system, comprising the steps of: (a) providing a first code to a controller connected to the braking system, the first code being associated with a replacement component of the braking system; causing the controller to: compare the first code with a second code, the second code being associated with a replaceable component of the braking system; such that, in the case that the first code is determined by the controller to be correctly associated with the second code, the controller activates a replacement actuator of the braking system to permit replacement of the replaceable component from the braking system; and (b) replacing the replaceable component with the replacement component. (a) providing a first code to a controller connected to the braking system, the first code being associated with a replacement component of the braking system; causing the controller to: compare the first code with a second code, the second code being associated with a replaceable component of the braking system; such that, in the case that the first code is determined by the controller to be correctly associated with the second code, the controller activates a replacement actuator of the braking system to permit replacement of the replaceable component from the braking system; and compare the first code with a second code, the second code being associated with a replaceable component of the braking system; such that, in the case that the first code is determined by the controller to be correctly associated with the second code, the controller activates a replacement actuator of the braking system to permit replacement of the replaceable component from the braking system; and (b) replacing the replaceable component with the replacement component.
Timepiece designed to indicate the position of a celestial body, characterized in that it comprises: - a circuit for determining a current time, - a circuit for determining a geographical position of the timepiece, - a means designed to determine the position of the celestial body as a function of the current time and of the geographical position of the timepiece, - a display system comprising a first hand, a second hand and a means designed to drive the rotation of the said hands in a main plane (X M, Y M) of the timepiece and to display the determined position of the celestial body, each hand being driven to display a coordinate of the determined position of the celestial body. - a circuit for determining a current time, - a circuit for determining a geographical position of the timepiece, - a means designed to determine the position of the celestial body as a function of the current time and of the geographical position of the timepiece, - a display system comprising a first hand, a second hand and a means designed to drive the rotation of the said hands in a main plane (X M, Y M) of the timepiece and to display the determined position of the celestial body, each hand being driven to display a coordinate of the determined position of the celestial body.
A method for testing the strength of a bond line (110; 403, 404; 604), the method comprising: directing a beam of coherent light (134; 314; 522) to an absorber surface (202; 406; 506) of a transducer structure (124; 300; 500), wherein a compression wave (214; 418, 420; 606, 608) is generated within the transducer structure (124; 300; 500); reflecting the compression wave (214; 418, 420; 606, 608) on a reflecting surface (204; 410; 510) of the transducer structure (124; 300; 500) to form a tension wave (106; 400; 608; 424, 430; 610, 612); and directing the tension wave (106; 400; 608; 424, 430; 610, 612) through a test object (104; 304; 504) in a desired direction (222; 426, 432; 532, 534, 536, 538) using a configuration of the reflecting surface (204; 410; 510) relative to the test object (104; 304; 504); wherein: the test object (104; 304; 504) is a composite object comprised of a first composite structure (106; 400; 600) and a second composite structure (108; 402; 602) bonded to each other at the bond line (110; 404; 604); the desired direction (222; 426, 432; 532, 534, 536, 538) for the tension wave (208; 424, 430; 610, 612) is through the bond line (110; 404; 604); and the tension wave (208; 424, 430; 610, 612) has a strength configured to test a strength of the bond line (110; 404; 604); and wherein the method further comprises: determining whether an inconsistency is present in the bond line (110; 404; 604) after the tension wave (208; 424, 430; 610, 612) passes through the bond line (110; 404; 604). directing a beam of coherent light (134; 314; 522) to an absorber surface (202; 406; 506) of a transducer structure (124; 300; 500), wherein a compression wave (214; 418, 420; 606, 608) is generated within the transducer structure (124; 300; 500); reflecting the compression wave (214; 418, 420; 606, 608) on a reflecting surface (204; 410; 510) of the transducer structure (124; 300; 500) to form a tension wave (106; 400; 608; 424, 430; 610, 612); and directing the tension wave (106; 400; 608; 424, 430; 610, 612) through a test object (104; 304; 504) in a desired direction (222; 426, 432; 532, 534, 536, 538) using a configuration of the reflecting surface (204; 410; 510) relative to the test object (104; 304; 504); the test object (104; 304; 504) is a composite object comprised of a first composite structure (106; 400; 600) and a second composite structure (108; 402; 602) bonded to each other at the bond line (110; 404; 604); the desired direction (222; 426, 432; 532, 534, 536, 538) for the tension wave (208; 424, 430; 610, 612) is through the bond line (110; 404; 604); and the tension wave (208; 424, 430; 610, 612) has a strength configured to test a strength of the bond line (110; 404; 604); and wherein the method further comprises: determining whether an inconsistency is present in the bond line (110; 404; 604) after the tension wave (208; 424, 430; 610, 612) passes through the bond line (110; 404; 604). determining whether an inconsistency is present in the bond line (110; 404; 604) after the tension wave (208; 424, 430; 610, 612) passes through the bond line (110; 404; 604).
The compound 4-hydroxy-5-methoxy-N,1-dimethyl-2-oxo-N-[4-(trifluoromethyl)phenyl]-1,2-dihydroquinoline-3-carboxamide (tasquinimod) or a pharmaceutically acceptable salt thereof, for use in the treatment of leukemia selected from acute lymphoblastic leukemia and acute myeloid leukemia.
An applicator for applying a bail handle to a container, the applicator comprising: a pickup mandrel for picking up the bail handle to be applied to a container; a stationary mandrel for receiving the bail handle from the pickup mandrel; and an applicator mandrel for receiving the bail handle from the pickup mandrel; wherein the stationary mandrel having an engaging surface which has a diameter larger than an inner diameter of the bail handle when picked up by the pickup mandrel, the applicator mandrel having an engaging surface which has a diameter equal to or smaller than the stationary mandrel, and characterized in that the applicator further comprising: a lower pressing collar movably disposed on the stationary mandrel that is configured to move vertically upward and downward to push the bail handle off of the stationary mandrel; and an upper pressing collar movably disposed on the applicator mandrel and configured to move vertically upward and downward to push the bail handle off of the applicator mandrel. a pickup mandrel for picking up the bail handle to be applied to a container; a stationary mandrel for receiving the bail handle from the pickup mandrel; and an applicator mandrel for receiving the bail handle from the pickup mandrel; a lower pressing collar movably disposed on the stationary mandrel that is configured to move vertically upward and downward to push the bail handle off of the stationary mandrel; and an upper pressing collar movably disposed on the applicator mandrel and configured to move vertically upward and downward to push the bail handle off of the applicator mandrel.