mhurhangee/ep-ind-claims huggingface dataset:
A valve structure comprising a valve case provided with a suction port into which a fluid flows and a discharge port (4a-4d) from which the fluid flows out, a valve body (5a-5d) provided for opening and closing the discharge port and a drive body provided for driving the valve body, wherein: the valve body (5a-5d) is provided with, at one end thereof, a blocking portion (7a-7d) disposed so as to face the discharge port (4a-4d) for closing the discharge port and at the other end thereof, an elastic member portion (8a-8d, 91) which is supported on an inner wall of the valve case facing the discharge port and generates an elastic force for moving the blocking portion (7a-7d) so as to open or close the discharge port and the valve body (5a-5d) is further provided with a through-hole penetrating the valve body in the direction intersecting the moving direction of the blocking portion (7a-7d) moved by the elastic force; the drive body is formed into a rod-like shape having a convex portion (11a-11d) on its side and is inserted into the through-hole of the valve body (5a-5d); and the convex portion (11a-11d) is pressed onto the valve body (5a-5d) by the rotation of the drive body, thereby moving the blocking portion (7a-7d) in the direction intersecting the drive body to control the opening and closing of the discharge port (4a-4d); characterized in that the valve body (5a-5d) and the drive body are disposed in a path of the fluid which communicates with the suction port and the discharge port (4a-4d). the valve body (5a-5d) is provided with, at one end thereof, a blocking portion (7a-7d) disposed so as to face the discharge port (4a-4d) for closing the discharge port and at the other end thereof, an elastic member portion (8a-8d, 91) which is supported on an inner wall of the valve case facing the discharge port and generates an elastic force for moving the blocking portion (7a-7d) so as to open or close the discharge port and the valve body (5a-5d) is further provided with a through-hole penetrating the valve body in the direction intersecting the moving direction of the blocking portion (7a-7d) moved by the elastic force; the drive body is formed into a rod-like shape having a convex portion (11a-11d) on its side and is inserted into the through-hole of the valve body (5a-5d); and the convex portion (11a-11d) is pressed onto the valve body (5a-5d) by the rotation of the drive body, thereby moving the blocking portion (7a-7d) in the direction intersecting the drive body to control the opening and closing of the discharge port (4a-4d); characterized in that the valve body (5a-5d) and the drive body are disposed in a path of the fluid which communicates with the suction port and the discharge port (4a-4d).
A vertical turbine pump that is elongate along a longitudinal direction, the vertical turbine pump comprising: a motor, and a drive shaft rotatably coupled to the motor such that rotation of the motor causes the drive shaft to rotate; a casing including a mixed flow diffuser; and a mixed flow impeller configured to rotatably fit inside the casing, the mixed flow impeller having an impeller hub, impeller vanes extending from the hub along a direction that includes directional components in both the longitudinal direction and a direction substantially perpendicular to the longitudinal direction, and a front and a back shroud (47,49) connected to opposed ends of the impeller vanes, characterised in that the mixed flow diffuser includes a diffuser hub and mixed flow diffuser vanes that project out from the diffuser hub and are twisted so as to define a surface that is curved in a direction that includes a directional component in both the longitudinal direction and a direction substantially perpendicular to the longitudinal direction; and wherein at least one of the mixed flow impeller and the mixed flow diffuser is made of a non-metallic material that is fiberglass reinforced and is a singular homogenous component. a motor, and a drive shaft rotatably coupled to the motor such that rotation of the motor causes the drive shaft to rotate; a casing including a mixed flow diffuser; and a mixed flow impeller configured to rotatably fit inside the casing, the mixed flow impeller having an impeller hub, impeller vanes extending from the hub along a direction that includes directional components in both the longitudinal direction and a direction substantially perpendicular to the longitudinal direction, and a front and a back shroud (47,49) connected to opposed ends of the impeller vanes, characterised in that the mixed flow diffuser includes a diffuser hub and mixed flow diffuser vanes that project out from the diffuser hub and are twisted so as to define a surface that is curved in a direction that includes a directional component in both the longitudinal direction and a direction substantially perpendicular to the longitudinal direction; and wherein at least one of the mixed flow impeller and the mixed flow diffuser is made of a non-metallic material that is fiberglass reinforced and is a singular homogenous component.
Arrangement comprising a running gear support and a travel wheel block detachably fastened thereto, the travel wheel block comprising a housing having at least one mating surface and comprising a travel wheel which is mounted in the housing and which projects out of the housing, and the travel wheel block being aligned relative to the running gear support, there being arranged in the mating surface of the travel wheel block a machined groove in which a machined plate is held in positive interengagement, characterised in that an alignment of the travel wheel block relative to the running gear support which has been carried out is fixed by connecting the plate solidly to the running gear support once the alignment of the travel wheel block relative to the running gear support has been carried out.
A reinforced structure, comprising: a panel support extending along a panel, the panel support being relatively rigid in comparison to the panel; and an expandable support, including a body portion mounted on the panel support, the body portion formed of an expandable material such that the body portion is configured to engage the panel upon expansion, thereby providing an expanded support acting between the panel and the panel support after expansion, wherein the expandable support is formed of a material configured to expand to an expanded material having a compression Young's modulus less than 300 MPa, characterised in thatJthe panel support defines at least one pair of interlocking features configured to selectively retain the expandable support, the interlocking features define a minimum width (d 1) smaller than a maximum width (d 3) of the expandable support. a panel support extending along a panel, the panel support being relatively rigid in comparison to the panel; and an expandable support, including a body portion mounted on the panel support, the body portion formed of an expandable material such that the body portion is configured to engage the panel upon expansion, thereby providing an expanded support acting between the panel and the panel support after expansion, wherein the expandable support is formed of a material configured to expand to an expanded material having a compression Young's modulus less than 300 MPa, characterised in thatJthe panel support defines at least one pair of interlocking features configured to selectively retain the expandable support, the interlocking features define a minimum width (d 1) smaller than a maximum width (d 3) of the expandable support.
A method for processing dual input from a single finger on a handheld electronic device having a touch panel, the method comprising: passively establishing, from a touch by the finger on the touch panel to unlock the device, dimensions of a touch of a particular user; determining, based on the dimensions of the touch, a touch baseline for dimensions of a standard tap of the particular user; detecting another touch, by the finger, on the touch panel; determining a touch pattern of the other touch; identifying the touch pattern as a standard tap from a first portion of the finger when the touch pattern corresponds to the touch baseline for the particular user; identifying the touch pattern as a full tap from a second portion of the finger when the touch pattern is of a surface area larger than the touch baseline for the particular user; generating a command signal based on the identifying the touch pattern as one of the standard tap or the full tap; and performing an action based on the command signal. passively establishing, from a touch by the finger on the touch panel to unlock the device, dimensions of a touch of a particular user; determining, based on the dimensions of the touch, a touch baseline for dimensions of a standard tap of the particular user; detecting another touch, by the finger, on the touch panel; determining a touch pattern of the other touch; identifying the touch pattern as a standard tap from a first portion of the finger when the touch pattern corresponds to the touch baseline for the particular user; identifying the touch pattern as a full tap from a second portion of the finger when the touch pattern is of a surface area larger than the touch baseline for the particular user; generating a command signal based on the identifying the touch pattern as one of the standard tap or the full tap; and performing an action based on the command signal.
A vacuum pump mechanism, comprising: a housing including a pump chamber and a suction port; a rotor that is rotatable about a position being eccentric with a center of the pump chamber and is rotated with a drive force of an engine; a vane that divides the pump chamber into a plurality of spaces as being rotated with the rotor; a lubricating oil supply passage (44, 44a, 44b, 45, 45a, 45b) that supplies lubricating oil to the pump chamber; and an oil regulating unit (60, 65, 70) the vacuum pump mechanism being characterized in that the suction port is connected to a brake booster and that the oil regulating unit (60, 65, 70) is capable of adjusting a quantity of lubricating oil flowing through the lubricating oil supply passage (44, 44a, 44b, 45, 45a, 45b) to a reduced quantity or zero when the brake booster reaches a predetermined negative pressure. a housing including a pump chamber and a suction port; a rotor that is rotatable about a position being eccentric with a center of the pump chamber and is rotated with a drive force of an engine; a vane that divides the pump chamber into a plurality of spaces as being rotated with the rotor; a lubricating oil supply passage (44, 44a, 44b, 45, 45a, 45b) that supplies lubricating oil to the pump chamber; and an oil regulating unit (60, 65, 70) the vacuum pump mechanism being characterized in that the suction port is connected to a brake booster and that the oil regulating unit (60, 65, 70) is capable of adjusting a quantity of lubricating oil flowing through the lubricating oil supply passage (44, 44a, 44b, 45, 45a, 45b) to a reduced quantity or zero when the brake booster reaches a predetermined negative pressure.
A lead anchor (400; 600; 1300; 1400; 1500; 1600) comprising: a body (401; 601; 1301; 1401) having an outer surface, a top end, a front side, a first end, and a second end opposite to the first end, the body defining a lead slot configured and arranged to receive a lead, the lead slot defining an elongated opening extending along the front side of the body from the first end to the second end, and a transverse lumen extending from the top end of the body and intersecting the lead slot; an exterior member (410; 610; 1310) disposed around at least a portion of the body (401; 601; 1301; 1401), the exterior member being formed of a biocompatible material; and a fastener disposed in the transverse lumen, the fastener configured and arranged for fastening the received lead to the lead anchor by deforming a portion of the lead. a body (401; 601; 1301; 1401) having an outer surface, a top end, a front side, a first end, and a second end opposite to the first end, the body defining a lead slot configured and arranged to receive a lead, the lead slot defining an elongated opening extending along the front side of the body from the first end to the second end, and a transverse lumen extending from the top end of the body and intersecting the lead slot; a lead slot configured and arranged to receive a lead, the lead slot defining an elongated opening extending along the front side of the body from the first end to the second end, and a transverse lumen extending from the top end of the body and intersecting the lead slot; an exterior member (410; 610; 1310) disposed around at least a portion of the body (401; 601; 1301; 1401), the exterior member being formed of a biocompatible material; and a fastener disposed in the transverse lumen, the fastener configured and arranged for fastening the received lead to the lead anchor by deforming a portion of the lead.
A method for minimizing interference of an RFID reader built in a mobile terminal, the method comprising the steps of: a) detecting an identity number of the mobile terminal and a mobile communication network signal for synchronizing the mobile terminal with a base station; b) allocating sequential identification numbers (0, 1, 2,..., N-1) to basic information units constituting a cycle of the mobile communication network signal, the basic information units arranged in time order; c) dividing the identity number of the mobile terminal by the number of basic information units constituting the cycle of the mobile communication network signal; d) assigning an operating time of the RFID reader to a particular basic information unit of the mobile communication network signal allocated the identification number identical to a remainder of the identity number of the mobile terminal, the identity number divided by the number of the basic information units; and e) outputting an electromagnetic wave from the RFID reader for detecting a specific tag for the assigned operating time. a) detecting an identity number of the mobile terminal and a mobile communication network signal for synchronizing the mobile terminal with a base station; b) allocating sequential identification numbers (0, 1, 2,..., N-1) to basic information units constituting a cycle of the mobile communication network signal, the basic information units arranged in time order; c) dividing the identity number of the mobile terminal by the number of basic information units constituting the cycle of the mobile communication network signal; d) assigning an operating time of the RFID reader to a particular basic information unit of the mobile communication network signal allocated the identification number identical to a remainder of the identity number of the mobile terminal, the identity number divided by the number of the basic information units; and e) outputting an electromagnetic wave from the RFID reader for detecting a specific tag for the assigned operating time.
A pre-filled, terminally sterilized syringe for intravitreal injection, the syringe comprising a body forming a barrel, a stopper and a plunger, the body comprising an outlet at an outlet end and the stopper being arranged within the body such that a front surface of the stopper and the body define a variable volume chamber from which a fluid can be expelled through the outlet, the plunger comprising a plunger contact surface at a first end and a rod extending between the plunger contact surface and a rear portion, the plunger contact surface arranged to contact the stopper, such that the plunger can be used to force the stopper towards the outlet end of the body, reducing the volume of the variable volume chamber, wherein the fluid is an ophthalmic solution which comprises ranibizumab, characterized in that (a) the syringe has a nominal maximum fill volume of between about 0.5 ml and about 1 ml, (b) the syringe is filled with a dosage volume of between about 0.03ml and about 0.05ml of the ophthalmic solution, (c) the syringe barrel comprises less than about 100 μg silicone oil, (d) the ophthalmic solution comprises no more than 2 particles ≥ 50μm in diameter per ml, (e) the syringe has a stopper break loose force of less than 5N measured using a filled syringe, at a stopper travelling speed of 190 mm/min over a travel length of 10.9 mm with a 30G x 12.7mm (30G x 0.5 inch) needle attached to the syringe, and (f) the rod comprises at least one rod shoulder directed away from the outlet end and the syringe includes a backstop shoulder directed towards the outlet end to cooperate with the rod shoulder to prevent movement of the rod away from the outlet end when the backstop shoulder and rod shoulder are in contact. (a) the syringe has a nominal maximum fill volume of between about 0.5 ml and about 1 ml, (b) the syringe is filled with a dosage volume of between about 0.03ml and about 0.05ml of the ophthalmic solution, (c) the syringe barrel comprises less than about 100 μg silicone oil, (d) the ophthalmic solution comprises no more than 2 particles ≥ 50μm in diameter per ml, (e) the syringe has a stopper break loose force of less than 5N measured using a filled syringe, at a stopper travelling speed of 190 mm/min over a travel length of 10.9 mm with a 30G x 12.7mm (30G x 0.5 inch) needle attached to the syringe, and (f) the rod comprises at least one rod shoulder directed away from the outlet end and the syringe includes a backstop shoulder directed towards the outlet end to cooperate with the rod shoulder to prevent movement of the rod away from the outlet end when the backstop shoulder and rod shoulder are in contact.
A thermoplastic composition comprising: from 60 percent to 90 percent by weight of one or more thermoplastic polymers; and from 10 percent to 40 percent by weight of an additive, wherein the additive is a crosslinked methyl methacrylate polymer, wherein the crosslinked methyl methacrylate polymer comprises greater than 99.9 percent by weight derived from methyl methacrylate units, and from greater than zero to less than 0.1 percent by weight derived from one or more multifunctional crosslinking monomers; wherein the crosslinked methyl methacrylate polymer has a volume average particle size, as measured according to a method defined in the description, in the range of from 150 to 600 nm; and wherein the crosslinked methyl methacrylate polymer is free of chain transfer agents; and wherein the crosslinked methyl methacrylate polymer has a Tg from 90°C to 125°C (measured by DSC, second heat), and wherein an article produced from the thermoplastic composition has a hardness of greater than F. from 60 percent to 90 percent by weight of one or more thermoplastic polymers; and from 10 percent to 40 percent by weight of an additive, wherein the additive is a crosslinked methyl methacrylate polymer, wherein the crosslinked methyl methacrylate polymer comprises greater than 99.9 percent by weight derived from methyl methacrylate units, and from greater than zero to less than 0.1 percent by weight derived from one or more multifunctional crosslinking monomers; wherein the crosslinked methyl methacrylate polymer has a volume average particle size, as measured according to a method defined in the description, in the range of from 150 to 600 nm; and wherein the crosslinked methyl methacrylate polymer is free of chain transfer agents; and wherein the crosslinked methyl methacrylate polymer has a Tg from 90°C to 125°C (measured by DSC, second heat), and wherein an article produced from the thermoplastic composition has a hardness of greater than F.
A sample support device for cryo-EM, the device comprising: a circular grid (100, 200, 240, 290) having a first surface, a second surface, a grid thickness, an inner portion, and an outer portion, the inner portion comprising a plurality of grid bars (250, 280) oriented to form a plurality of holes through the first and second surfaces in between the grid bars (250, 280), the grid bars (250, 280) including a first grid bar (250, 280) having a first thickness and a second grid bar (250, 280) having a second thickness distinct from the first thickness, and the plurality of holes having a first diameter; a solid region (130, 220) accessible for imaging in an electron microscope and including an array of surface marks that form a pattern or a code used to uniquely identify the grid (100, 200, 240, 290); a sample support film in contact with the first surface of the grid (100, 200, 240, 290) and having a film thickness, wherein the film thickness is less than the grid thickness; and a plurality of apertures of a second diameter formed through the sample support film; wherein the second diameter is smaller than the first diameter. a circular grid (100, 200, 240, 290) having a first surface, a second surface, a grid thickness, an inner portion, and an outer portion, the inner portion comprising a plurality of grid bars (250, 280) oriented to form a plurality of holes through the first and second surfaces in between the grid bars (250, 280), the grid bars (250, 280) including a first grid bar (250, 280) having a first thickness and a second grid bar (250, 280) having a second thickness distinct from the first thickness, and the plurality of holes having a first diameter; a solid region (130, 220) accessible for imaging in an electron microscope and including an array of surface marks that form a pattern or a code used to uniquely identify the grid (100, 200, 240, 290); a sample support film in contact with the first surface of the grid (100, 200, 240, 290) and having a film thickness, wherein the film thickness is less than the grid thickness; and a plurality of apertures of a second diameter formed through the sample support film; wherein the second diameter is smaller than the first diameter.
A method for identifying a first colony of malignant cancer cells having necrosis activity against a second colony of malignant cancer cells comprising: plating on a culture plate in a growth medium a colony of first malignant cancer cells and a colony of second malignant cancer cells on directly opposite sides of a midline adjacent one another, wherein the colony of first malignant cancer cells and the colony of second malignant cancer cells are of different cancer types; culturing the colony of first malignant cancer cells and the colony of second malignant cancer cells under conditions sufficient to promote growth of the cancer cells and permit the colony of first malignant cancer cells to expand into the area of the colony of second malignant cancer cells to and results in the necrosis of the colony of second malignant cancer cells in an area equal to the expansion of the colony of second malignant cancer cells; and quantifying the area of expansion of the colony of first malignant cancer cells across the midline into the area of the colony of second malignant cancer cells that results in necrosis of the second colony of malignant cancer cells from the midline commensurate with the area of expansion of the first colony of malignant cancer cells. plating on a culture plate in a growth medium a colony of first malignant cancer cells and a colony of second malignant cancer cells on directly opposite sides of a midline adjacent one another, wherein the colony of first malignant cancer cells and the colony of second malignant cancer cells are of different cancer types; culturing the colony of first malignant cancer cells and the colony of second malignant cancer cells under conditions sufficient to promote growth of the cancer cells and permit the colony of first malignant cancer cells to expand into the area of the colony of second malignant cancer cells to and results in the necrosis of the colony of second malignant cancer cells in an area equal to the expansion of the colony of second malignant cancer cells; and quantifying the area of expansion of the colony of first malignant cancer cells across the midline into the area of the colony of second malignant cancer cells that results in necrosis of the second colony of malignant cancer cells from the midline commensurate with the area of expansion of the first colony of malignant cancer cells.