mhurhangee/ep-ind-claims huggingface dataset:
Glazing comprising at least two glass sheets (20, 21) and a viscoelastic plastic interlayer arranged between the glass sheets, the interlayer comprising at least two damping films (30, 31), one of the damping films being made of a material A and the other damping film being made of a material B, so that the material A has, over a temperature range t A, a loss factor tanδ greater than 0.6 and a shear modulus G' less than 2×10 7 Pa, and that the material B has, over a temperature range t B, a loss factor tanδ greater than 0.6 and a shear modulus G' less than 2×10 7 Pa, characterized in that the interlayer provides an optimal improvement to the acoustic comfort obtained by the glazing over at least two distinct temperature ranges t 1 and t 2, the temperature range t 1 being included within the temperature range t A and the temperature range t 2 being included within the temperature range t B, and in that the film A has, at a frequency of 200 Hz and for the temperature range t 1, the highest loss factor tanδ and an equivalent shear modulus G' eq, such that G ′ eq = G ′ e tot e where G' is the shear modulus of the material constituting the film, e is the thickness of the film and e tot the total thickness of the interlayer, which is less than the equivalent shear modulus or moduli of the other film or films for said temperature range t 1 and in that the film B has, at a frequency of 200 Hz and for the temperature range t 2, the highest loss factor tanδ and an equivalent shear modulus G' eq which is less than the equivalent shear modulus or moduli of the other film or films for said temperature range t 2.
An apparatus comprising: a case that comprises a dial and an indicator (132, 134, 136); a mechanism operatively coupled to the indicator (132, 134, 136) and disposed at least in part in the case; an electronic lens that covers at least a portion of the dial, the electronic lens comprises an electronic display; and circuitry that controls opacity of the electronic lens, characterized in that the apparatus includes projection circuitry to project information on to the electronic lens, and wherein the electronic lens is controlled to become a projection screen, wherein the electronic lens can be transitioned to a back projection state and a projector is actuatable to project light onto a surface of the electronic lens where the projected light is visible via an opposing surface of the electronic lens, and wherein the apparatus includes an adjustable optics that provide for near-screen projection and for far-screen projection, such that where the electronic lens is in a back-projection state, the adjustable optics may provide for near-screen projection and where the electronic lens is in a substantially transparent state, the adjustable optics may provide for far-screen projection. a case that comprises a dial and an indicator (132, 134, 136); a mechanism operatively coupled to the indicator (132, 134, 136) and disposed at least in part in the case; an electronic lens that covers at least a portion of the dial, the electronic lens comprises an electronic display; and circuitry that controls opacity of the electronic lens,
A multi-camera endoscope having a dynamic field of view comprising: a. an elongated shaft terminating with a tip section (530, 401, 610), wherein a tilted front camera (402, 620) is located on a frontal tip section of said tip section (530, 409, 610) and provides a field of view of 80 degrees or more b. a maneuvering section (405, 604, 670) connected to the elongated shaft, the maneuvering section (405, 604, 670) being located between the tip section and the shaft and being configured to control the angle of the tip section (530, 401, 610) relative to the shaft, wherein said maneuvering section is operated manually or electrically; c. a second camera (403, 680) located in the tip section and a third camera (406, 690) located behind the maneuvering section (405, 670) on an external surface of the elongated shaft (407, 520), wherein the second and third cameras are placed at 90 degrees to the elongated shaft longitudinal axis facing the same viewing direction, and wherein the second and third cameras each provide a field of view of 80 degrees or more, and d. one or more illuminators located on external surface of the elongated shaft; wherein an overlap of the field of view of the second camera (403, 680) and the field of view of the third camera (406, 690) is changed when the maneuvering section changes the angle of the tip section relative to the shaft so as to provide the dynamic field of view. a. an elongated shaft terminating with a tip section (530, 401, 610), wherein a tilted front camera (402, 620) is located on a frontal tip section of said tip section (530, 409, 610) and provides a field of view of 80 degrees or more b. a maneuvering section (405, 604, 670) connected to the elongated shaft, the maneuvering section (405, 604, 670) being located between the tip section and the shaft and being configured to control the angle of the tip section (530, 401, 610) relative to the shaft, wherein said maneuvering section is operated manually or electrically; c. a second camera (403, 680) located in the tip section and a third camera (406, 690) located behind the maneuvering section (405, 670) on an external surface of the elongated shaft (407, 520), wherein the second and third cameras are placed at 90 degrees to the elongated shaft longitudinal axis facing the same viewing direction, and wherein the second and third cameras each provide a field of view of 80 degrees or more, and d. one or more illuminators located on external surface of the elongated shaft;
A fuel system for introducing liquid fuel into the cylinders of a piston engine, the fuel system comprising a fuel tank for storing the fuel, a pump for pressurizing the fuel, at least one fuel injector for injecting fuel into a cylinder of the engine, a fuel pipe for supplying fuel from the pump to the fuel injector, a source of inert gas, means (14, 21) for introducing inert gas into the fuel pipe for purging the fuel pipe, an outer pipe that is arranged around the fuel pipe for forming a fluid volume between the fuel pipe and the outer pipe, and means (6, 20) for introducing inert gas from the gas source into the fluid volume between the fuel pipe and the outer pipe, characterized in that the system comprises a first discharge valve for discharging fluid from the fuel pipe into the outer pipe and a second discharge valve for discharging fluid from the outer pipe.
A metal melting furnace vortex chamber body with a vortex chamber capable of communicating with a storage space of a furnace body having the storage space storing molten metal, the metal melting furnace vortex chamber body comprising: a drop weir part which switches a communication state and an interruption state between the storage space and the vortex chamber, wherein the drop weir part includes a blind drop weir and an opening type drop weir which are formed as separate members, wherein at least the blind drop weir is movable up and down with respect to the vortex chamber body and is selectively positioned at an upward movement position and a downward movement position so as to switch the communication state and the interruption state, wherein the opening type drop weir includes outlet and inlet opening notches (8B, 8C) which are formed in a plate-like weir body with a predetermined distance there between in the width direction, said outlet and inlet opening notches (8B, 8C) communicate the vortex chamber and the storage space with each other in the communication state, and wherein the blind drop weir is disposed at the side of the furnace body and the opening type drop weir is disposed at the opposite side to the furnace body. a drop weir part which switches a communication state and an interruption state between the storage space and the vortex chamber, wherein the drop weir part includes a blind drop weir and an opening type drop weir which are formed as separate members, wherein at least the blind drop weir is movable up and down with respect to the vortex chamber body and is selectively positioned at an upward movement position and a downward movement position so as to switch the communication state and the interruption state, wherein the opening type drop weir includes outlet and inlet opening notches (8B, 8C) which are formed in a plate-like weir body with a predetermined distance there between in the width direction, said outlet and inlet opening notches (8B, 8C) communicate the vortex chamber and the storage space with each other in the communication state, and wherein the blind drop weir is disposed at the side of the furnace body and the opening type drop weir is disposed at the opposite side to the furnace body.
Belt-type traction means, which comprises a herringbone toothed belt, which has at least a tooth part and a support structure supporting the tooth part, which support structure comprises a plurality of reinforcement means in the longitudinal direction of the toothed belt, wherein in the transverse direction of the toothed belt the toothed belt comprises two edge parts side by side and a center part between the edge parts and connecting the edge parts, characterized in that the spring constant of which center part in the transverse direction of the toothed belt is smaller than the corresponding spring constant of the edge parts.
Method for loading an unmanned transport device, docked on a receiving container, with a payload container for a consignment, having a loading device for loading the transport device with the payload container, wherein the payload container has at its first end a bearing means, the transport device has on its underside a loading opening for receiving the payload container, and the loading opening has at its front end a mating contour corresponding to the bearing means, and the method comprises the steps: pivoting of the payload container disposed on the loading device in relation to the horizontal by the loading device such that the first end is elevated in relation to a second, opposite end of the payload container, raising of the loading device until the payload container ends up, at least with its first end, within and/or beneath the loading opening, and pivoting of the payload container into the horizontal by the loading device for introduction into the loading opening such that firstly the bearing means enters into engagement with the mating contour, and subsequently the second end of the payload container enters into engagement with a rear end of the loading opening. pivoting of the payload container disposed on the loading device in relation to the horizontal by the loading device such that the first end is elevated in relation to a second, opposite end of the payload container, raising of the loading device until the payload container ends up, at least with its first end, within and/or beneath the loading opening, and pivoting of the payload container into the horizontal by the loading device for introduction into the loading opening such that firstly the bearing means enters into engagement with the mating contour, and subsequently the second end of the payload container enters into engagement with a rear end of the loading opening.
An imaging device, comprising: a lens unit supported rotatably in both of a yawing direction and a pitching direction within a casing; a first rotation detecting section that detects rotation applied to the casing; a second rotation detecting section that detects rotation occurring on the lens unit within the casing; a shake correction calculating section that generates a shake correction driving signal by using a difference value between detection information by the first rotation detecting section and detection information by the second rotation detecting section; and a driving section that drives the lens unit in at least one of the yawing direction or the pitching direction on a basis of the shake correction driving signal. a lens unit supported rotatably in both of a yawing direction and a pitching direction within a casing; a first rotation detecting section that detects rotation applied to the casing; a second rotation detecting section that detects rotation occurring on the lens unit within the casing; a shake correction calculating section that generates a shake correction driving signal by using a difference value between detection information by the first rotation detecting section and detection information by the second rotation detecting section; and a driving section that drives the lens unit in at least one of the yawing direction or the pitching direction on a basis of the shake correction driving signal.
A stifle stabilization system, comprising: a femoral component having an interconnected coupling member protruding therefrom; an articular sliding insert component defining a cylindrical channel corresponding in size and shape to at least part of the coupling member; and a tibial component defining a slot, the slot (50, 150) being of corresponding and complementary shape to sidewalls of the articular sliding insert component to receive the articular sliding insert component therein in a pressure fit engagement, wherein, when the channel receives the at least part of the coupling member and the articular sliding insert component is received in the slot of the tibial component, the tibial component is interlocked with the femoral component with translational and rotational movement therebetween. a femoral component having an interconnected coupling member protruding therefrom; an articular sliding insert component defining a cylindrical channel corresponding in size and shape to at least part of the coupling member; and a tibial component defining a slot, the slot (50, 150) being of corresponding and complementary shape to sidewalls of the articular sliding insert component to receive the articular sliding insert component therein in a pressure fit engagement, wherein, when the channel receives the at least part of the coupling member and the articular sliding insert component is received in the slot of the tibial component, the tibial component is interlocked with the femoral component with translational and rotational movement therebetween.
An intershaft bearing for a gas turbine engine, comprising: an outer stubshaft including outer and inner diameter surface portions (66, 68) disposed concentrically with respect to one another; wherein the outer diameter surface portion is rotatably connected to a body of the engine and the inner diameter surface portion is rotatably connected to an inner stubshaft of the engine, so as to provide a stacked configuration of the inner stubshaft, the outer stubshaft, and the body along a radial direction that is orthogonal to a longitudinal axis of the engine, characterized in that the inner stubshaft is a high pressure bearing stubshaft attached to a high pressure shaft, and/or the outer stubshaft is an intermediate pressure bearing stubshaft attached to an intermediate pressure shaft. an outer stubshaft including outer and inner diameter surface portions (66, 68) disposed concentrically with respect to one another; wherein the outer diameter surface portion is rotatably connected to a body of the engine and the inner diameter surface portion is rotatably connected to an inner stubshaft of the engine, so as to provide a stacked configuration of the inner stubshaft, the outer stubshaft, and the body along a radial direction that is orthogonal to a longitudinal axis of the engine, characterized in that the inner stubshaft is a high pressure bearing stubshaft attached to a high pressure shaft, and/or the outer stubshaft is an intermediate pressure bearing stubshaft attached to an intermediate pressure shaft.
A method of preparing albumin from a solution comprising albumin comprising: adjusting the protein concentration of the solution to less than 5 wt%; adjusting pH of the solution to pH 5 or less; adding caprylic acid (octanoic acid) or sodium caprylate; raising the solution temperature to 27-30°C; and incubating the solution for 30 min to 120 min. adjusting the protein concentration of the solution to less than 5 wt%; adjusting pH of the solution to pH 5 or less; adding caprylic acid (octanoic acid) or sodium caprylate; raising the solution temperature to 27-30°C; and incubating the solution for 30 min to 120 min.
A coated paper or paperboard, comprising: a base paper having a first major surface; a multilayer coating over the first major surface having a total dry coat weight of 10 g/m 2 or less, where the multilayer coating includes: a first water vapor barrier layer formed with a latex; a biopolymer barrier layer on the first water vapor barrier layer, the biopolymer barrier layer having a total dry coat weight of 4 g/m 2 or less; and a second water vapor barrier layer on the biopolymer barrier layer, where the second water vapor barrier layer is formed with a latex. a base paper having a first major surface; a multilayer coating over the first major surface having a total dry coat weight of 10 g/m 2 or less, where the multilayer coating includes: a first water vapor barrier layer formed with a latex; a biopolymer barrier layer on the first water vapor barrier layer, the biopolymer barrier layer having a total dry coat weight of 4 g/m 2 or less; and a second water vapor barrier layer on the biopolymer barrier layer, where the second water vapor barrier layer is formed with a latex. a first water vapor barrier layer formed with a latex; a biopolymer barrier layer on the first water vapor barrier layer, the biopolymer barrier layer having a total dry coat weight of 4 g/m 2 or less; and a second water vapor barrier layer on the biopolymer barrier layer, where the second water vapor barrier layer is formed with a latex.
A computer-readable medium comprising computer executable instructions for implementing a template-based supervisory process control and manufacturing information application development facility, comprising: an application object template library storing a set of previously defined application object templates; and a configuration utility facilitating specifying instances of the set of previously defined application object templates to be included in a supervisory process control an manufacturing information application, and wherein application objects are instantiated from selected ones of the set of previously defined application object templates characterized in that the instantiated application objects are thereafter hosted in a runtime environment by an application engine object and that the set of application templates includes a device integration application object template for creating device integration application object instances (PLC1Network, PLC1, PLC2Network, PLC2), which are hosted thereafter in the runtime environment by an application engine object, for communicating with process control system components. an application object template library storing a set of previously defined application object templates; and a configuration utility facilitating specifying instances of the set of previously defined application object templates to be included in a supervisory process control an manufacturing information application, and wherein application objects are instantiated from selected ones of the set of previously defined application object templates characterized in that the instantiated application objects are thereafter hosted in a runtime environment by an application engine object and that the set of application templates includes a device integration application object template for creating device integration application object instances (PLC1Network, PLC1, PLC2Network, PLC2), which are hosted thereafter in the runtime environment by an application engine object, for communicating with process control system components.
A reagent solution comprising: a buffer, 5,5'-Dithiobis(2-nitrobenzoic acid) (DTNB), and a humectant selected from glycerol, xylitol, sorbitol, or propylene glycol, wherein the DTNB is present at a concentration of 10 mg/L to 150 mg/L, or at a concentration of 80 mg/L to 120 mg/L, or at a concentration of 100 mg/L.
A body-wall-contact-type water tank comprising: a water tank main part configured to be placed in contact with a surface of a body wall for retaining a fluid to be fed into a body cavity; and a flange section formed of a flexible material capable of following the surface of the body wall, and configured to be brought into close contact with the surface of the body wall, to thereby fluid-tightly connect the water tank main part to the body wall, characterized in that a through hole is formed in a bottom surface of the water tank main part for directing the fluid retained in the water tank main part to flow into the body cavity via an incision that has been made on the body wall, and the flange section is outwardly extended from the bottom surface of the water tank main part. a water tank main part configured to be placed in contact with a surface of a body wall for retaining a fluid to be fed into a body cavity; and a flange section formed of a flexible material capable of following the surface of the body wall, and configured to be brought into close contact with the surface of the body wall, to thereby fluid-tightly connect the water tank main part to the body wall, characterized in that a through hole is formed in a bottom surface of the water tank main part for directing the fluid retained in the water tank main part to flow into the body cavity via an incision that has been made on the body wall, and the flange section is outwardly extended from the bottom surface of the water tank main part.
A method for forming an asphalt fraction, comprising: selecting a high temperature performance grade for an asphalt fraction; receiving a blend of a plurality of crude fractions, the blend of the plurality of crude fractions comprising 20 wt% to 70 wt% of a Napo crude fraction, the blend of crude fractions having a predicted low temperature performance grade using a linear average prediction model at the selected high temperature performance grade that is at least 2.5°C greater than the actual low temperature performance grade for the Napo crude oil at the selected high temperature performance grade; and separating the blend of crude fractions to form an asphalt fraction having a high temperature performance grade that differs from the selected high temperature performance grade by 0.1°C or less, the actual low temperature performance grade of the blended asphalt being lower than the predicted low temperature performance grade by at least 0.5°C. selecting a high temperature performance grade for an asphalt fraction; receiving a blend of a plurality of crude fractions, the blend of the plurality of crude fractions comprising 20 wt% to 70 wt% of a Napo crude fraction, the blend of crude fractions having a predicted low temperature performance grade using a linear average prediction model at the selected high temperature performance grade that is at least 2.5°C greater than the actual low temperature performance grade for the Napo crude oil at the selected high temperature performance grade; and separating the blend of crude fractions to form an asphalt fraction having a high temperature performance grade that differs from the selected high temperature performance grade by 0.1°C or less, the actual low temperature performance grade of the blended asphalt being lower than the predicted low temperature performance grade by at least 0.5°C.