mhurhangee/ep-ind-claims huggingface dataset:
A firearm with slide takedown mechanism comprising: a frame; a barrel supported by the frame and defining a longitudinal axis of the firearm; a trigger movably supported by the frame; a reciprocating slide slidably engaged with the firearm, the slide moveable between a forward position and a rearward removal position; and a takedown lever pivotably mounted to the firearm about a pivot axis orientated parallel to the longitudinal axis of the firearm and engageable with the slide, the lever being pivotable in a lateral direction about the pivot axis between a blocking position in which the slide is not movable from the forward position to the rearward removal position and an unblocking position in which the slide is movable to the rearward removal position; wherein when the slide is in the rearward removal position, the slide is configured to be disengageable from the frame for removal. a frame; a barrel supported by the frame and defining a longitudinal axis of the firearm; a trigger movably supported by the frame; a reciprocating slide slidably engaged with the firearm, the slide moveable between a forward position and a rearward removal position; and a takedown lever pivotably mounted to the firearm about a pivot axis orientated parallel to the longitudinal axis of the firearm and engageable with the slide, the lever being pivotable in a lateral direction about the pivot axis between a blocking position in which the slide is not movable from the forward position to the rearward removal position and an unblocking position in which the slide is movable to the rearward removal position; wherein when the slide is in the rearward removal position, the slide is configured to be disengageable from the frame for removal.
A system for monitoring a sports player, the system comprising: a. a sport ball with at least one motion monitor; b. a multi-sensor monitor for collecting information about the sports player; c. a portable electronic device; d. wherein the at least one motion monitor and the multi-sensor monitor are adapted to transmit collected information to the portable electronic device; and e. wherein the portable device is adapted to store the received information. a. a sport ball with at least one motion monitor; b. a multi-sensor monitor for collecting information about the sports player; c. a portable electronic device; d. wherein the at least one motion monitor and the multi-sensor monitor are adapted to transmit collected information to the portable electronic device; and e. wherein the portable device is adapted to store the received information.
An electric connector in which an actuator pinching or freeing a signal transmission medium is provided so as to be rotatable about a rotation axis extending in a longitudinal direction of the actuator, wherein inclined surface parts (12b1) extending to form an angle with respect to the longitudinal direction of the actuator are provided in outer end faces in a radial direction regarding the rotation axis of the actuator and at both end portions in the longitudinal direction of the actuator, wherein a flat part (12b2) extending in the longitudinal direction of the actuator is provided in a portion between the inclined surface parts (12b1) provided at the both end portions in the longitudinal direction of the actuator, and the inclined surface parts (12b1) are formed so as to smoothly continue from both end parts of the flat part (12b2), wherein rising wall parts (12b3) extending in a flat shape along the radial direction regarding the rotation axis of the actuator are provided at both end edge parts in the longitudinal direction of the actuator, and the inclined surface parts (12b1) are provided so as to continue from outer end edges of the rising wall parts (12b3) in the radial direction regarding the rotation axis of the actuator, characterized in that; each of the inclined surface parts (12b1) is provided with an operation prevention aiding part (12b4) formed of a separate inclined surface adjacently disposed along the inclined surface part (12b1), and the operation prevention aiding part (12b4) extends in the radial direction regarding the rotation axis of the actuator from the inclined surface part (12b1) to an outer end edge of a rising wall part (12b5) extending in a flat shape along the radial direction regarding the rotation axis of the actuator and along the longitudinal direction of the actuator to form an angle with respect to the radial direction regarding the rotation axis of the actuator, wherein an operation support part (12b6,12b7) formed of a concave part or a convex part extending along the longitudinal direction of the actuator are provided at a center portion of a rising wall part (12b5) in the longitudinal direction of the actuator, the rising wall part (12b5) extending in a flat shape along the radial direction regarding the rotation axis of the actuator and along the longitudinal direction of the actuator.
A system (200, 300) comprising: first and second sources (210, 216; 310, 311) configured to provide power to first and second medium-voltage direct current, MVDC, buses, respectively; the first and second MVDC buses connected to first and second variable-voltage variable-frequency, VVVF, power converters (220, 221; 320, 322), respectively; a rotating electrical machine (202; 302) having first and second primary stator windings (203, 204; 303, 304) and first and second secondary stator windings (305, 306), each primary stator winding (203, 204; 303, 304) electrically connected to one of the first and second MVDC buses via one of the first and second VVVF power converters (220, 221; 320, 322), the rotating electrical machine (202; 302) configured to receive the power from the first and second MVDC buses, each secondary stator winding configured to provide output power to a pulsed load (234; 334, 335); a flywheel energy storage (208; 308) coupled to the rotating electrical machine (202; 302) and configured to store inertial energy; and at least one battery or ultra-capacitor subsystem (228; 328) electrically connected to the rotating electrical machine (202; 302), the at least one battery or ultra-capacitor subsystem (228; 328) configured to receive electrical energy from and provide electrical energy to the rotating electrical machine (202; 302); wherein each VVVF power converter (220, 221; 320, 322) is configured to operate the rotating electrical machine (202; 302) at adjustable speeds and stored energy levels. first and second sources (210, 216; 310, 311) configured to provide power to first and second medium-voltage direct current, MVDC, buses, respectively; the first and second MVDC buses connected to first and second variable-voltage variable-frequency, VVVF, power converters (220, 221; 320, 322), respectively; a rotating electrical machine (202; 302) having first and second primary stator windings (203, 204; 303, 304) and first and second secondary stator windings (305, 306), each primary stator winding (203, 204; 303, 304) electrically connected to one of the first and second MVDC buses via one of the first and second VVVF power converters (220, 221; 320, 322), the rotating electrical machine (202; 302) configured to receive the power from the first and second MVDC buses, each secondary stator winding configured to provide output power to a pulsed load (234; 334, 335); a flywheel energy storage (208; 308) coupled to the rotating electrical machine (202; 302) and configured to store inertial energy; and at least one battery or ultra-capacitor subsystem (228; 328) electrically connected to the rotating electrical machine (202; 302), the at least one battery or ultra-capacitor subsystem (228; 328) configured to receive electrical energy from and provide electrical energy to the rotating electrical machine (202; 302); wherein each VVVF power converter (220, 221; 320, 322) is configured to operate the rotating electrical machine (202; 302) at adjustable speeds and stored energy levels.
Power semiconductor device comprising a substrate and comprising power semiconductor components arranged on the substrate and connected to the substrate, wherein the power semiconductor device has a housing, which has a first housing part having a first cutout and a second housing part, wherein the second housing part is arranged relative to the first housing part in such a way that an opening in the housing forms through the first cutout, wherein the power semiconductor device has an electrically conductive load terminal element for the purpose of making electrical contact with the power semiconductor device, said load terminal element having an external terminal section arranged outside the housing and an internal terminal section arranged within the housing and a feedthrough section pressing through the opening, wherein the feedthrough section has a first outer edge region tapering laterally in the direction of a first outer edge of the feedthrough section and a second outer edge region tapering laterally in the direction of a second outer edge of the feedthrough section wherein the first and second outer edge regions (7, 8) are arranged in a manner facing away from one another and the first outer edge is arranged in the region of the lateral first end of the opening and the second outer edge is arranged in the region of the lateral second end of the opening, wherein a first section of a first sealing element is arranged between the first part and the feedthrough section and a first section of a second sealing element is arranged between the second housing part and the feedthrough section, wherein the first and second sealing elements (3, 6) have a contact with one another laterally from the first and second outer edges (4, 5), wherein the first sealing element seals the feedthrough section with respect to the first housing part and the second sealing element seals the feedthrough section with respect to the second housing part.
Composition for use in a method for preventing and/or treating rumen acidosis in ruminants by oral administration, the composition comprising as active ingredients a viable propionic acid bacterium and a clear culture supernatant of a lactic acid bacterium, wherein the propionic acid bacterium is the Propionibacterium freudenreichii ET-3 strain (FERM BP-8115), and the clear culture supernatant of the lactic acid bacteria is obtained by removing solids from a culture of the Lactobacillus gasseri OLL2716 strain (FERM BP-6999).
A service processing method, wherein the method is applied to a cluster storage system, and the cluster storage system comprises a controller and multiple Ethernet interface hard disks; wherein each of the Ethernet interface hard disks has an extended service capability beside data storage capability, wherein the extended service capability of the Ethernet interface hard disk includes a basic hard disk capability and an advanced service capability, where the basic hard disk capability includes a hardware capability of the Ethernet interface hard disk, and the advanced service capability has an extended service capability that is provided by the Ethernet interface hard disk based on a computing capability of a processor embedded in the Ethernet interface hard disk, the advanced service capability includes at least one of the following capabilities: a compression capability, a decompression capability, an antivirus capability, a check capability, an encryption capability, a decryption capability, and the method comprises: receiving, by the controller, a service request; determining, by the controller, an extended service capability required by the service request; acquiring, by the controller, information about an extended service capability provided by at least one of the Ethernet interface hard disks; and instructing, by the controller according to the information about the extended service capability provided by the at least one of the Ethernet interface hard disks, an Ethernet interface hard disk to process the service request, wherein the Ethernet interface hard disk has the extended service capability required by the service request. receiving, by the controller, a service request; determining, by the controller, an extended service capability required by the service request; acquiring, by the controller, information about an extended service capability provided by at least one of the Ethernet interface hard disks; and instructing, by the controller according to the information about the extended service capability provided by the at least one of the Ethernet interface hard disks, an Ethernet interface hard disk to process the service request, wherein the Ethernet interface hard disk has the extended service capability required by the service request.
Apparatus for removing a sheath from a pre-filled syringe having a barrel and a needle, the sheath providing a sterile cover for the needle, the apparatus comprising: - a housing for at least partially enclosing the syringe barrel and defining an injection end with an aperture sized to allow the sheath of an enclosed syringe to protrude therethrough; - a syringe barrel mount for retaining the syringe in the housing and being slidable axially within the housing between positions towards and away from the injection end of the housing; - biasing means for biasing the mount away from the injection end of the housing; and characterised by a - latching means (18,21) for latching said mount in a latched position to prevent sliding of the mount away from the injection end of the housing, the latching means being releasable from the latched position by sliding of the mount towards the injection end. - a housing for at least partially enclosing the syringe barrel and defining an injection end with an aperture sized to allow the sheath of an enclosed syringe to protrude therethrough; - a syringe barrel mount for retaining the syringe in the housing and being slidable axially within the housing between positions towards and away from the injection end of the housing; - biasing means for biasing the mount away from the injection end of the housing; and characterised by a - latching means (18,21) for latching said mount in a latched position to prevent sliding of the mount away from the injection end of the housing, the latching means being releasable from the latched position by sliding of the mount towards the injection end.
Cooling system (30; 30a; 30b) for at least one component (12, 50), equipped with a heat exchanger (34; 52), of a fuel cell system, comprising a refrigerating plant (38; 38a; 38b); a thermofluid circuit (32; 32; 32b), which on the one hand is connected to a thermofluid inlet (35; 53) and a thermofluid outlet (36; 54) of the heat exchanger (34; 52) of the respective component (12; 50) of the fuel cell system and on the other hand is connected to a heat exchanger (39; 39a; 39b) of the refrigerating plant (38; 38a; 38b); a pump (40; 40a; 40b) in the thermofluid circuit (32; 32a; 32) for transporting a thermofluid through the heat exchanger (34; 52) of the respective component (12; 50) of the fuel cell system and through the heat exchanger (39; 39a; 39b) of the refrigerating plant (38; 38a; 38b); and a controller (42; 42a; 42b) for activating the pump (40; 40a; 40b) of the thermofluid circuit (32; 32a; 32b), wherein the controller (42; 42a; 42b) is configured to vary a thermal power dissipation of the pump (40; 40a; 40b) in order when there is a need for an increased temperature level of the respective component (12; 50) of the fuel cell system to increase the temperature of the thermofluid by increasing the thermal power dissipation of the pump (40; 40a; 40b). a refrigerating plant (38; 38a; 38b); a thermofluid circuit (32; 32; 32b), which on the one hand is connected to a thermofluid inlet (35; 53) and a thermofluid outlet (36; 54) of the heat exchanger (34; 52) of the respective component (12; 50) of the fuel cell system and on the other hand is connected to a heat exchanger (39; 39a; 39b) of the refrigerating plant (38; 38a; 38b); a pump (40; 40a; 40b) in the thermofluid circuit (32; 32a; 32) for transporting a thermofluid through the heat exchanger (34; 52) of the respective component (12; 50) of the fuel cell system and through the heat exchanger (39; 39a; 39b) of the refrigerating plant (38; 38a; 38b); and a controller (42; 42a; 42b) for activating the pump (40; 40a; 40b) of the thermofluid circuit (32; 32a; 32b), wherein the controller (42; 42a; 42b) is configured to vary a thermal power dissipation of the pump (40; 40a; 40b) in order when there is a need for an increased temperature level of the respective component (12; 50) of the fuel cell system to increase the temperature of the thermofluid by increasing the thermal power dissipation of the pump (40; 40a; 40b).
A display apparatus, comprising: a position sensor to sense a pupil position of an eye of a user; a controller to set a virtual viewing window corresponding to the sensed pupil position of the eye of the user, wherein a size of the viewing window is set in correspondence with a maximum diameter of a human pupil; a light generator to generate a directional light based on a control signal from the controller, comprising: a backlight to generate a non-directional light; a variable slit to convert, based on the control signal, the non-directional light to a plurality of point light sources, each having a different position; and a lens comprising a plurality of micro-lenses, each micro-lens being configured to generate, for a respective point light source, a respective directional light toward the virtual viewing window by refracting light from said respective point light source; and a light modulator to modulate an intensity of the directional lights based on a control signal from the controller; wherein the lens is arranged in between the light modulator and the variable slit; wherein the display apparatus is configured to generate a light field image only in the virtual viewing window by having the variable slit configured to independently generate each of the plurality of point light sources. a position sensor to sense a pupil position of an eye of a user; a controller to set a virtual viewing window corresponding to the sensed pupil position of the eye of the user, wherein a size of the viewing window is set in correspondence with a maximum diameter of a human pupil; a light generator to generate a directional light based on a control signal from the controller, comprising: a backlight to generate a non-directional light; a variable slit to convert, based on the control signal, the non-directional light to a plurality of point light sources, each having a different position; and a lens comprising a plurality of micro-lenses, each micro-lens being configured to generate, for a respective point light source, a respective directional light toward the virtual viewing window by refracting light from said respective point light source; and a backlight to generate a non-directional light; a variable slit to convert, based on the control signal, the non-directional light to a plurality of point light sources, each having a different position; and a lens comprising a plurality of micro-lenses, each micro-lens being configured to generate, for a respective point light source, a respective directional light toward the virtual viewing window by refracting light from said respective point light source; and a light modulator to modulate an intensity of the directional lights based on a control signal from the controller; wherein the lens is arranged in between the light modulator and the variable slit; wherein the display apparatus is configured to generate a light field image only in the virtual viewing window by having the variable slit configured to independently generate each of the plurality of point light sources.
A connecting rod comprising: a small end having a piston pin bore disposed therein, the piston pin bore defined by a piston pin bore surface, characterized in: that the piston pin bore surface has a first portion and a second portion forming an entire circumference of the piston pin bore; that the connecting rod comprises a large end having a crankshaft pin bore disposed therein, the crankshaft pin bore defined by a crankshaft surface, the crankshaft pin bore being larger than the piston pin bore; and a thermal spray coating applied to the first portion of the pin bore surface such that the second portion of the pin bore surface is uncoated; and that the first portion of the pin bore surface corresponds to a high load area of the pin bore surface. a small end having a piston pin bore disposed therein, the piston pin bore defined by a piston pin bore surface, characterized in: that the piston pin bore surface has a first portion and a second portion forming an entire circumference of the piston pin bore; that the connecting rod comprises a large end having a crankshaft pin bore disposed therein, the crankshaft pin bore defined by a crankshaft surface, the crankshaft pin bore being larger than the piston pin bore; and a thermal spray coating applied to the first portion of the pin bore surface such that the second portion of the pin bore surface is uncoated; and that the piston pin bore surface has a first portion and a second portion forming an entire circumference of the piston pin bore; that the connecting rod comprises a large end having a crankshaft pin bore disposed therein, the crankshaft pin bore defined by a crankshaft surface, the crankshaft pin bore being larger than the piston pin bore; and a thermal spray coating applied to the first portion of the pin bore surface such that the second portion of the pin bore surface is uncoated; and that the first portion of the pin bore surface corresponds to a high load area of the pin bore surface.
Interfused nanocrystals, comprising a core of a first material, a shell of a second material and a diffusion interlayer comprising an alloy of the first and the second material formed at an interface between the first and the second material, wherein each of the first and the second materials constituting the nanocrystals is, independently, selected from Group II-VI semiconductor compounds, Group III-V semiconductor compounds, and mixtures thereof, wherein the interfused nanocrystals emit light having a wavelength ranging from 350 nm to 700 nm and wherein the actual size of the core for light emission has decreased compared to the size of the light emitting particle before the formation of the shell.