mhurhangee/ep-ind-claims huggingface dataset:
A strengthened antimicrobial glass comprising: greater than or equal to 50.0 mol.% to less than or equal to 65.0 mol.% SiO 2; greater than or equal to 14.0 mol.% to less than or equal to 22.0 mol.% Al 2 O 3; greater than or equal to 14.0 mol.% to less than or equal to 22.0 mol.% R 2 O, wherein R is an alkali metal; and greater than or equal to 4.0 mol.% to less than or equal to 10.0 mol.% P 2 O 5, wherein: the glass comprises a compressive stress layer having a thickness of greater than or equal to 20 μm and having a surface compressive stress of greater than or equal to 700 MPa; and the glass has an antimicrobial activity greater than or equal to 1.0 Log Kill at 23 °C and 40.0% relative humidity. greater than or equal to 50.0 mol.% to less than or equal to 65.0 mol.% SiO 2; greater than or equal to 14.0 mol.% to less than or equal to 22.0 mol.% Al 2 O 3; greater than or equal to 14.0 mol.% to less than or equal to 22.0 mol.% R 2 O, wherein R is an alkali metal; and greater than or equal to 4.0 mol.% to less than or equal to 10.0 mol.% P 2 O 5, wherein: the glass comprises a compressive stress layer having a thickness of greater than or equal to 20 μm and having a surface compressive stress of greater than or equal to 700 MPa; and the glass has an antimicrobial activity greater than or equal to 1.0 Log Kill at 23 °C and 40.0% relative humidity. the glass comprises a compressive stress layer having a thickness of greater than or equal to 20 μm and having a surface compressive stress of greater than or equal to 700 MPa; and the glass has an antimicrobial activity greater than or equal to 1.0 Log Kill at 23 °C and 40.0% relative humidity.
A locking arrangement for axial locking of a bucket to a rotor disk of a turbine, comprising: a depressed portion disposed on a surface formed by a combination of an end portion of a male dovetail extending from the bucket and an outer side of a seating groove of a female dovetail extending from an outer circumferential surface of the rotor disk; and a locking member configured to be placed between the male dovetail and the seating groove of the female dovetail and to engage the depressed portion to prevent the bucket mounted on the rotor disk from being separated in the axial direction, wherein the locking member includes: a center beam configured to be placed between the end portion of the male dovetail and the seating groove of the female dovetail in the axial direction of the rotor disk; and a locking plate disposed on an end of the center beam to be positioned in the depressed portion, wherein the locking plate is positioned in the depressed portion when the center beam is positioned in the seating groove; and wherein a portion of the locking plate is flat such that the flat portion is disposable towards a radially outward direction of the rotor disk before the male dovetail is inserted into the female dovetail such that the male dovetail is insertable into the female dovetail in the axial direction, and is rotatable within the depression portion to be disposed towards a radially inward direction of the rotor disk after the male dovetail is inserted into the female dovetail. a depressed portion disposed on a surface formed by a combination of an end portion of a male dovetail extending from the bucket and an outer side of a seating groove of a female dovetail extending from an outer circumferential surface of the rotor disk; and a locking member configured to be placed between the male dovetail and the seating groove of the female dovetail and to engage the depressed portion to prevent the bucket mounted on the rotor disk from being separated in the axial direction, a center beam configured to be placed between the end portion of the male dovetail and the seating groove of the female dovetail in the axial direction of the rotor disk; and a locking plate disposed on an end of the center beam to be positioned in the depressed portion, wherein the locking plate is positioned in the depressed portion when the center beam is positioned in the seating groove; and wherein a portion of the locking plate is flat such that the flat portion is disposable towards a radially outward direction of the rotor disk before the male dovetail is inserted into the female dovetail such that the male dovetail is insertable into the female dovetail in the axial direction, and is rotatable within the depression portion to be disposed towards a radially inward direction of the rotor disk after the male dovetail is inserted into the female dovetail.
A struvite crystallization system for recovering phosphate in wastewater, comprising three main elements: a crystallizer comprises two cylindrical bodies (4A, 4B) which have different diameters, the smaller cylindrical body is located at the bottom of the crystallizer and the larger cylindrical body is located at the top of the crystallizer and are coupled in series, a weir located at the top of the crystallizer and a feed pump; a settler with a perimeter weir at the top of the settler and a distribution system located in the center of the settler and a recirculation pump located between the settler and the crystallizer; and a magnesium hydroxide adding unit; characterized by - the crystallizer further comprises a purge valve situated in the bottom of the crystallizer for purging granules and an endless screw located downstream of the purge valve; - the feed pump feeds the wastewater through an inlet in the lower cylindrical body of the crystallizer flowing upwardly, wherein such wastewater before entering the lower cylindrical body is mixed with the recycle stream from the settler; - the distribution system is formed by two concentric cylinders (9A, 9B) and a hopper having a conical shape and a slope of between 30° and 60° connected to the inner concentric cylinder, and the hopper is provided with a hole on its bottom which has a diameter between 20 and 50 mm; and - the weir is connected to the inner concentric cylinder of the distribution system such that treated wastewater and small struvite crystals and fines can leave the crystallizer via the weir and enter by gravity the settler. a crystallizer comprises two cylindrical bodies (4A, 4B) which have different diameters, the smaller cylindrical body is located at the bottom of the crystallizer and the larger cylindrical body is located at the top of the crystallizer and are coupled in series, a weir located at the top of the crystallizer and a feed pump; a settler with a perimeter weir at the top of the settler and a distribution system located in the center of the settler and a recirculation pump located between the settler and the crystallizer; and a magnesium hydroxide adding unit; - the crystallizer further comprises a purge valve situated in the bottom of the crystallizer for purging granules and an endless screw located downstream of the purge valve; - the feed pump feeds the wastewater through an inlet in the lower cylindrical body of the crystallizer flowing upwardly, wherein such wastewater before entering the lower cylindrical body is mixed with the recycle stream from the settler; - the distribution system is formed by two concentric cylinders (9A, 9B) and a hopper having a conical shape and a slope of between 30° and 60° connected to the inner concentric cylinder, and the hopper is provided with a hole on its bottom which has a diameter between 20 and 50 mm; and - the weir is connected to the inner concentric cylinder of the distribution system such that treated wastewater and small struvite crystals and fines can leave the crystallizer via the weir and enter by gravity the settler.
An intraocular lens (60, 80, 100) configured for implantation in a capsular sac following extraction of a natural lens, the intraocular lens accommodating in response to movement of the capsular sac, the intraocular lens comprising: an optic portion (61, 81, 101) including a lens element (63, 83, 103) and an actuator (64, 84, 104); a first haptic (68, 88, 108) and a second haptic (69, 89, 109) each having an interior volume coupled in fluid communication with the actuator, the first and second haptics having a toroidal shape, and an oval cross sectional configuration wherein the dimension in the anterior-to-posterior direction is greater than the dimension in the radial direction; a fluid disposed in the actuator and the interior volume of the first and second haptics; and a secondary deflection mechanism coupled to the lens element, wherein the lens element is configured to deform in response to movement of the fluid between the first and second haptics and the actuator; and wherein the secondary deflection mechanism is configured to further deform the lens element to an aspheric shape in response to deformation of the lens element by the actuator. an optic portion (61, 81, 101) including a lens element (63, 83, 103) and an actuator (64, 84, 104); a first haptic (68, 88, 108) and a second haptic (69, 89, 109) each having an interior volume coupled in fluid communication with the actuator, the first and second haptics having a toroidal shape, and an oval cross sectional configuration wherein the dimension in the anterior-to-posterior direction is greater than the dimension in the radial direction; a fluid disposed in the actuator and the interior volume of the first and second haptics; and a secondary deflection mechanism coupled to the lens element,
An impeller comprising: a disk section comprising a tube section having a tube shape, into which a rotary shaft rotated around an axis is inserted, and a disk main body section extending from the tube section toward the outside in the radial direction of the rotary shaft, and a blade section protruding from the disk main body section in an axial direction, wherein the disk section comprises a hoop stress suppression section being formed so as to extend the tube section toward one side in the axial direction relative to the disk main body section, wherein the hoop stress suppression section is formed so that the thickness in the radial direction is thicker than the thickness of the tube section located closer to the other side in the axial direction than the disk main body section, characterized in that from the disk main body section toward the one side in the axial direction, the thickness of the hoop stress suppression section gradually decreases from the outside in the radial direction of the disk section toward the inside therein, and wherein the hoop stress suppression section is a portion formed closer to the one side in the axial direction than a position (C-C) of the disk main body section which is closest to the one side in the axial direction; and wherein the hoop stress suppression section comprises a side surface in the axial direction, the side surface having a curved surface with a concave shape. a disk section comprising a tube section having a tube shape, into which a rotary shaft rotated around an axis is inserted, and a disk main body section extending from the tube section toward the outside in the radial direction of the rotary shaft, and a blade section protruding from the disk main body section in an axial direction, wherein the disk section comprises a hoop stress suppression section being formed so as to extend the tube section toward one side in the axial direction relative to the disk main body section, wherein the hoop stress suppression section is formed so that the thickness in the radial direction is thicker than the thickness of the tube section located closer to the other side in the axial direction than the disk main body section, characterized in that from the disk main body section toward the one side in the axial direction, the thickness of the hoop stress suppression section gradually decreases from the outside in the radial direction of the disk section toward the inside therein, and wherein the hoop stress suppression section is a portion formed closer to the one side in the axial direction than a position (C-C) of the disk main body section which is closest to the one side in the axial direction; and wherein the hoop stress suppression section comprises a side surface in the axial direction, the side surface having a curved surface with a concave shape.
Granular composition with controlled release of mesalazine comprising: a) a central core consisting of an inert substrate; b) an intermediate layer comprising mesalazine, at least one plasticizer, at least one suspending agent and/or gliding agent and at least one film-forming agent; c) a gastro-resistant coating selected from among methacrylic and acrylic acid polymers and copolymers, polyvinyl acetate phthalate or a mixture thereof, wherein said inert substrate is a diluent selected from among microcrystalline cellulose, corn starch or a mixture thereof, wherein said at least one plasticizer is selected from among polyalkylene glycols, glycols, preferably polyethylene glycol 400, polyethylene glycol 6000, propylene glycol or a mixture thereof, and wherein said at least one suspending agent and/or gliding agent is selected from among colloidal silicon dioxide, talc or a mixture thereof, and wherein said at least one film-forming agent is selected from among hydroxyalkylcellulose, polyvinyl alcohol, povidone, preferably from among hydroxypropylmethylcellulose, hydroxypropylcellulose, povidone or a mixture thereof. a) a central core consisting of an inert substrate; b) an intermediate layer comprising mesalazine, at least one plasticizer, at least one suspending agent and/or gliding agent and at least one film-forming agent; c) a gastro-resistant coating selected from among methacrylic and acrylic acid polymers and copolymers, polyvinyl acetate phthalate or a mixture thereof, wherein said inert substrate is a diluent selected from among microcrystalline cellulose, corn starch or a mixture thereof,
Continuous infusion device comprising a housing, in which an infusion appliance seat is provided for receiving an infusion appliance with at least one container which can be pressed empty by means of a ram, which infusion appliance seat extends along a main axis of extent from a ram-side end to an outlet-side end, and with an actuator for automatically emptying the infusion appliance, a drive for moving a ram abutment/actuation element of the actuator, and a control arrangement, by means of which a speed of advance of the actuator is adjustable, characterised in that the main axis of extent of the infusion appliance seat exhibits a predetermined relief angle in relation to a support plane of the housing, and here the outlet-side end is arranged above the ram-side end infusion appliance seat.
A method for delivering diffused light to an inner canopy of a plant and thereby modifying growth and development of the plant, the method comprising the steps of: collecting and concentrating light source energy from a light source above and outside of an inner canopy of the plant using a light harvester/collector comprising a light reflector; conducting said concentrated light source energy through an outer canopy of the plant to the inner canopy of the plant with a light transmitter comprising an internally reflective light pipe in optical communication with the light harvester/collector; and receiving said concentrated light source energy from the light transmitter via a light diffuser configured for placement within the plant's inner canopy in optical communication with the light transmitter, and diffusing, dispersing and re-radiating said concentrated light source energy into a portion of the plant's inner canopy, thereby stimulating and modifying the growth and development of the plant. collecting and concentrating light source energy from a light source above and outside of an inner canopy of the plant using a light harvester/collector comprising a light reflector; conducting said concentrated light source energy through an outer canopy of the plant to the inner canopy of the plant with a light transmitter comprising an internally reflective light pipe in optical communication with the light harvester/collector; and receiving said concentrated light source energy from the light transmitter via a light diffuser configured for placement within the plant's inner canopy in optical communication with the light transmitter, and diffusing, dispersing and re-radiating said concentrated light source energy into a portion of the plant's inner canopy, thereby stimulating and modifying the growth and development of the plant.
A pedal operation amount detecting device (10, 60) that is provided in an operating pedal apparatus (8, 90) including a transmitting member having a pedal arm of an operating pedal that is arranged so as to be pivotable about a support axis and that is depressed, and an output member to which a depression force is transmitted from the transmitting member and to which a reaction force corresponding to the depression force is applied, the pedal operation amount detecting device (10, 60) including a sensor member that is arranged on a load transmission path and that is deformed by the depression force and the reaction force, and the pedal operation amount detecting device (10, 60) electrically detecting a deformation of the sensor member, wherein the sensor member is arranged on the transmitting member via a pair of support pins (32, 34) which are parallel to the support axis, respectively, and an operation input portion through which the depression force is applied to the sensor member and a reaction force applied portion through which the reaction force is applied to the sensor member are set at positions that overlap with each other in a direction substantially parallel to the support axis, characterized in that the sensor member is arranged at a position offset from the transmitting member in a direction parallel to the support axis, and a coupling pin is arranged to penetrate the sensor member and relatively rotatable around an axis parallel to the support pins (32, 34), such that the depression force is applied to the sensor member from one of the transmitting member and the coupling pin, and the reaction force is applied to the sensor member from the other one. the sensor member is arranged on the transmitting member via a pair of support pins (32, 34) which are parallel to the support axis, respectively, and an operation input portion through which the depression force is applied to the sensor member and a reaction force applied portion through which the reaction force is applied to the sensor member are set at positions that overlap with each other in a direction substantially parallel to the support axis, characterized in that the sensor member is arranged at a position offset from the transmitting member in a direction parallel to the support axis, and a coupling pin is arranged to penetrate the sensor member and relatively rotatable around an axis parallel to the support pins (32, 34), such that the depression force is applied to the sensor member from one of the transmitting member and the coupling pin, and the reaction force is applied to the sensor member from the other one.
A constant voltage dimming power supply for a lighting device, being configured to adjust the output voltage after being regulated by a dimmer to realize constant voltage PWM output, includes: a rectifying circuit, configured to rectify and filter an output voltage regulated by dimmer; a constant voltage circuit, configured to be electrically connected to an output end of the rectifying circuit; a constant current load circuit, electrically connected to an output end of the rectifying circuit; a frequency conversion and protection sampling circuit, configured to be electrically connected to the output end of the constant current load circuit and the output end of the constant voltage circuit; and a switching circuit for controlling illumination output of the lighting device; wherein the frequency conversion and protection sampling circuit converts an output signal of the constant current load circuit into a duty cycle signal suitable for controlling the switching circuit, and detects an output abnormality of the constant voltage circuit in real time, so as to control the on-off of the switching circuit; characterized in that the frequency conversion and protection sampling circuit includes a frequency conversion circuit that receives pulse signals having a duty cycle output from the constant current load circuit and provides frequency conversion to output the duty cycle signal at a different frequency but having the same duty cycle, and a short circuit protection sampling circuit being configured to collect signals output from the constant voltage circuit and transmit them to the frequency conversion circuit for detecting the output abnormality. a rectifying circuit, configured to rectify and filter an output voltage regulated by dimmer; a constant voltage circuit, configured to be electrically connected to an output end of the rectifying circuit; a constant current load circuit, electrically connected to an output end of the rectifying circuit; a frequency conversion and protection sampling circuit, configured to be electrically connected to the output end of the constant current load circuit and the output end of the constant voltage circuit; and a switching circuit for controlling illumination output of the lighting device; wherein the frequency conversion and protection sampling circuit converts an output signal of the constant current load circuit into a duty cycle signal suitable for controlling the switching circuit, and detects an output abnormality of the constant voltage circuit in real time, so as to control the on-off of the switching circuit; characterized in that the frequency conversion and protection sampling circuit includes a frequency conversion circuit that receives pulse signals having a duty cycle output from the constant current load circuit and provides frequency conversion to output the duty cycle signal at a different frequency but having the same duty cycle, and a short circuit protection sampling circuit being configured to collect signals output from the constant voltage circuit and transmit them to the frequency conversion circuit for detecting the output abnormality.
An apparatus (100, 300, 400, 500) for manufacture of at least two solar cell arrangements, comprising: a separation device (110, 310, 530) configured for separating a first solar cell into two or more first solar cell pieces; and at least one positioning device (120, 220, 320, 420, 455, 540) configured for positioning at least one first solar cell piece of the two or more first solar cell pieces on a support device (130, 330, 430, 550) for forming a first solar cell arrangement of the at least two solar cell arrangements and for positioning at least one other first solar cell piece of the two or more first solar cell pieces on the support device for forming a second solar cell arrangement of the at least two solar cell arrangements, wherein the at least one positioning device comprises one or more grippers, wherein each gripper of the one or more grippers comprises two or more gripper elements and is configured for simultaneously holding and moving two or more solar cell pieces (11, 12). a separation device (110, 310, 530) configured for separating a first solar cell into two or more first solar cell pieces; and at least one positioning device (120, 220, 320, 420, 455, 540) configured for positioning at least one first solar cell piece of the two or more first solar cell pieces on a support device (130, 330, 430, 550) for forming a first solar cell arrangement of the at least two solar cell arrangements and for positioning at least one other first solar cell piece of the two or more first solar cell pieces on the support device for forming a second solar cell arrangement of the at least two solar cell arrangements, wherein the at least one positioning device comprises one or more grippers, wherein each gripper of the one or more grippers comprises two or more gripper elements and is configured for simultaneously holding and moving two or more solar cell pieces (11, 12).