mhurhangee/ep-ind-claims huggingface dataset:
An ejector lever, comprising a lever body and an unlocking mechanism, wherein: the unlocking mechanism comprises an unlocking hook and a safety latch, the unlocking hook is rotatably connected to the lever body by using a first rotating shaft, and the safety latch is rotatably connected to the lever body by using a second rotating shaft; the unlocking hook is provided with a first end and a second end, the first end is opposite to the second end across the first rotating shaft, the first end is provided with a hook, the second end is provided with a first abutting part, the safety latch is provided with a second abutting part, and the first abutting part is in contact with the second abutting part; and the second abutting part is configured to apply first force on the first abutting part when the safety latch rotates around the second rotating shaft, so as to enable the unlocking hook to rotate around the first rotating shaft wherein the unlocking mechanism further comprises a spring, one end of the spring is connected to the lever body, the other end thereof is connected to the second end of the unlocking hook, and the spring is configured to apply, on the second end of the unlocking hook, second force of which a direction is opposite to that of the first force; wherein the lever body is provided with a head and an arm adapted to be pulled by a user, the lever body being configured to rotate about a third rotating shaft at the head of the lever body. the unlocking mechanism comprises an unlocking hook and a safety latch, the unlocking hook is rotatably connected to the lever body by using a first rotating shaft, and the safety latch is rotatably connected to the lever body by using a second rotating shaft; the unlocking hook is provided with a first end and a second end, the first end is opposite to the second end across the first rotating shaft, the first end is provided with a hook, the second end is provided with a first abutting part, the safety latch is provided with a second abutting part, and the first abutting part is in contact with the second abutting part; and the second abutting part is configured to apply first force on the first abutting part when the safety latch rotates around the second rotating shaft, so as to enable the unlocking hook to rotate around the first rotating shaft wherein the unlocking mechanism further comprises a spring, one end of the spring is connected to the lever body, the other end thereof is connected to the second end of the unlocking hook, and the spring is configured to apply, on the second end of the unlocking hook, second force of which a direction is opposite to that of the first force; wherein the lever body is provided with a head and an arm adapted to be pulled by a user, the lever body being configured to rotate about a third rotating shaft at the head of the lever body.
An ophthalmic formulation comprising an effective amount of pilocarpine or a pharmaceutically acceptable salt thereof, phenylephrine or a pharmaceutically acceptable salt thereof, and naphazoline or a pharmaceutically acceptable salt thereof.
A camera system for detection of a barrier, the camera system comprising: a camera configured to be mounted to a vehicle, wherein the camera is a single camera; and a processor configured to: obtain multiple image frames from the camera when the vehicle is in motion on a road; track an image patch between the multiple image frames that include the barrier, wherein, to track the image patch, the processor is configured to: hypothesize that the image patch represents an object that is upright; and identify motion of points along columns in the image patch that move together and scale vertically in the multiple image frames; and recognize the barrier along the road from the multiple image frames based on the identified motion of the points by determining if the patch is upright and part of the barrier or a road patch on the road surface, wherein the patch is upright if all the points along the columns in the image patch that move together scale vertically, and the patch is on the road surface if all points in rows of the patch move together and scale horizontally. a camera configured to be mounted to a vehicle, wherein the camera is a single camera; and a processor configured to: obtain multiple image frames from the camera when the vehicle is in motion on a road; track an image patch between the multiple image frames that include the barrier, wherein, to track the image patch, the processor is configured to: hypothesize that the image patch represents an object that is upright; and identify motion of points along columns in the image patch that move together and scale vertically in the multiple image frames; and obtain multiple image frames from the camera when the vehicle is in motion on a road; track an image patch between the multiple image frames that include the barrier, wherein, to track the image patch, the processor is configured to: hypothesize that the image patch represents an object that is upright; and identify motion of points along columns in the image patch that move together and scale vertically in the multiple image frames; and hypothesize that the image patch represents an object that is upright; and identify motion of points along columns in the image patch that move together and scale vertically in the multiple image frames; and recognize the barrier along the road from the multiple image frames based on the identified motion of the points by determining if the patch is upright and part of the barrier or a road patch on the road surface, wherein the patch is upright if all the points along the columns in the image patch that move together scale vertically, and the patch is on the road surface if all points in rows of the patch move together and scale horizontally.
A process for producing ethylene glycol and propylene glycol from a sorbitol feed comprising: contacting the sorbitol feed with hydrogen in a reactor in the presence of a solvent and a bi-functional catalyst system comprising: 1) a first catalyst comprising a copper compound, a zinc compound, and a lanthanum compound, and 2) a second catalyst comprising sodium carbonate. 1) a first catalyst comprising a copper compound, a zinc compound, and a lanthanum compound, and 2) a second catalyst comprising sodium carbonate.
A battery system comprising: a motor serving as a driving source configured to drive a vehicle; a high capacity type of assembled battery and a high power type of assembled battery each capable of supplying a power to the motor; and a controller controlling charge and discharge of each of the high capacity type of assembled battery and the high power type of assembled battery, wherein the high capacity type of assembled battery has an energy capacity relatively larger than that of the high power type of assembled battery, and the high power type of assembled battery can achieve charge and discharge with a current relatively larger than that of the high capacity type of assembled battery, characterized in that the controller causes the high capacity type of assembled battery to be discharged continuously, and controls charge and discharge of the high power type of assembled battery such that an SOC of the high power type of assembled battery is matched with a predetermined value while the high capacity type of assembled battery is discharged continuously, and when an SOC of the high capacity type of assembled battery reaches an SOC to stop the charge and discharge of the high capacity type of assembled battery by controlling the continuous discharge of the high capacity type of assembled battery, the controller stops the charge and discharge of the high capacity type of assembled battery and cancels the control of charge and discharge of the high power type of assembled battery based on the predetermined value, and causes the high power type of assembled battery to be discharged continuously such that the SOC of the high power type of assembled battery becomes lower than the predetermined value. a motor serving as a driving source configured to drive a vehicle; a high capacity type of assembled battery and a high power type of assembled battery each capable of supplying a power to the motor; and a controller controlling charge and discharge of each of the high capacity type of assembled battery and the high power type of assembled battery,
A method for ray tracing, comprising: fetching an instruction, using a shader processor of a graphics processing unit; in response to determining that the instruction is a ray-box intersection test instruction, sending intersection test information to texture pipeline hardware of the graphics processing unit, wherein the texture pipeline hardware is a programmable pipeline of fixed-function hardware units, including fixed-function dot-product hardware units configured to calculate dot products for performing texturing operations; using the texture pipeline hardware of a graphics processing unit to perform ray-box intersection testing for a first ray and a first shape, including calculating a plurality of dot products with the fixed-function dot-product hardware units of the texture pipeline hardware, and determining whether the first ray intersects the first shape based on the plurality of dot products; and providing, to the shader processor, information based on the determination whether the first ray intersects the first shape. fetching an instruction, using a shader processor of a graphics processing unit; in response to determining that the instruction is a ray-box intersection test instruction, sending intersection test information to texture pipeline hardware of the graphics processing unit, wherein the texture pipeline hardware is a programmable pipeline of fixed-function hardware units, including fixed-function dot-product hardware units configured to calculate dot products for performing texturing operations; using the texture pipeline hardware of a graphics processing unit to perform ray-box intersection testing for a first ray and a first shape, including calculating a plurality of dot products with the fixed-function dot-product hardware units of the texture pipeline hardware, and determining whether the first ray intersects the first shape based on the plurality of dot products; and providing, to the shader processor, information based on the determination whether the first ray intersects the first shape.
A thermoform packaging machine with a forming station comprising at least one forming tool lower part, the forming tool lower part being movable transversely to an operating direction of the thermoform packaging machine, wherein the forming tool lower part comprises at least one reception unit (11a, 11b) with one or a plurality of troughs for receiving therein a respective cardboard element, wherein, for forming-in a first film web into the forming tool lower part, the reception unit (11a, 11b) with the cardboard elements is at a forming position, and wherein the forming tool lower part comprises two reception units (11a, 11b), characterized in that one reception unit (11a, 11b) is positionable at an infeed position laterally beside a machine frame of the thermoform packaging machine, while the other reception unit (11a, 11b) is at the forming position.
A method of transmitting data using a sidelink, SL, radio communication between a first radio device (100; 1100) and a second radio device (200; 1200), the method comprising the steps of: broadcasting a scheduling assignment, SA, by the first radio device announcing a transmission of the data for the second radio device (200; 1200); transmitting the data according to the SA from the first radio device (100; 1100) in a unicast mode to the second radio device (200; 1200); and receiving, responsive to the data transmission, a control feedback from the second radio device (200; 1200) in a unicast mode at the first radio device (100; 1100), wherein the control feedback is received on a feedback radio resource determined by at least one of the first radio device (100; 1100) and the second radio device (200; 1200), wherein at least one of - the SA and the control feedback, and - the data and the control feedback are transmitted in the same transmission time interval, TTI. broadcasting a scheduling assignment, SA, by the first radio device announcing a transmission of the data for the second radio device (200; 1200); transmitting the data according to the SA from the first radio device (100; 1100) in a unicast mode to the second radio device (200; 1200); and receiving, responsive to the data transmission, a control feedback from the second radio device (200; 1200) in a unicast mode at the first radio device (100; 1100), wherein the control feedback is received on a feedback radio resource determined by at least one of the first radio device (100; 1100) and the second radio device (200; 1200), wherein at least one of - the SA and the control feedback, and - the data and the control feedback are transmitted in the same transmission time interval, TTI. - the SA and the control feedback, and - the data and the control feedback
A machine tool in which a splashguard, which surrounds a machining part for machining a workpiece with a tool, defines a machining chamber, the machine tool comprising: a window provided in the splashguard and through which the interior of the machining chamber can be viewed; a display device attached in the vicinity of the window; and a storage device storing either a video actually captured in advance and showing a machining operation of the machine tool, or a computer-generated simulation video of an operation of the machine tool; a display control device for displaying the actually captured video or the computer-generated simulation video on a screen of the display device in synchronization with a current operation of the machine tool. a window provided in the splashguard and through which the interior of the machining chamber can be viewed; a display device attached in the vicinity of the window; and a storage device storing either a video actually captured in advance and showing a machining operation of the machine tool, or a computer-generated simulation video of an operation of the machine tool; a display control device for displaying the actually captured video or the computer-generated simulation video on a screen of the display device in synchronization with a current operation of the machine tool.
A process for producing a fuel from a shredder residue containing feedstock, said process comprising: preparing a slurry from the feedstock by reducing the size of a raw feed to a size suitable for pumping using pulping and other grinding technologies; depolymerizing the slurry at a temperature in the range of 365°C (690°F) to 420°C (785°F) such that organic in the solid shredder residue is reduced to liquid to form a composition comprising at least one solid material in a liquid mixture; mechanically separating said at least one solid material from the liquid mixture; hydrolyzing the liquid mixture by heating at a pressure greater than the vapor pressure of water in the liquid mixture to produce a reacted feed, wherein said hydrolyzing takes place at a temperature in a range of 220oC (430°F) to 265oC (510°F); and subjecting the reacted feed to a thermal and mechanical separation to form an organic liquor; and processing the organic liquor into: (i) a fuel-gas, carbon solids or oil by coking the organic liquor either on-site or at a refinery; or (ii) a hydrocarbon oil with similar constituents as a #4 diesel with minimal on-site processing. preparing a slurry from the feedstock by reducing the size of a raw feed to a size suitable for pumping using pulping and other grinding technologies; depolymerizing the slurry at a temperature in the range of 365°C (690°F) to 420°C (785°F) such that organic in the solid shredder residue is reduced to liquid to form a composition comprising at least one solid material in a liquid mixture; mechanically separating said at least one solid material from the liquid mixture; hydrolyzing the liquid mixture by heating at a pressure greater than the vapor pressure of water in the liquid mixture to produce a reacted feed, wherein said hydrolyzing takes place at a temperature in a range of 220oC (430°F) to 265oC (510°F); and subjecting the reacted feed to a thermal and mechanical separation to form an organic liquor; and processing the organic liquor into: (i) a fuel-gas, carbon solids or oil by coking the organic liquor either on-site or at a refinery; or (ii) a hydrocarbon oil with similar constituents as a #4 diesel with minimal on-site processing. (i) a fuel-gas, carbon solids or oil by coking the organic liquor either on-site or at a refinery; or (ii) a hydrocarbon oil with similar constituents as a #4 diesel with minimal on-site processing.
Gas hob having a cover plate, a hob trough and a connecting system for connecting the cover plate to the hob trough, wherein the connecting system comprises a connecting tab which is able to be fastened to the cover plate and a connecting pin which is able to be fastened to the hob trough and which, for connecting the cover plate to the hob trough, is designed to engage in the connecting tab, wherein the connecting pin has a grip portion which, for fastening the connecting pin to the hob trough, is designed to engage at least partially positively behind a through-hole provided in the hob trough, characterised in that the grip portion of the connecting pin is mushroom-shaped, wherein the through-hole has a circular arc-shaped insertion portion and a circular arc-shaped locking portion, wherein the locking portion has a smaller diameter than the insertion portion, wherein the connecting pin is displaceable horizontally relative to the hob trough in the through-hole between an unlocked state in which the connecting pin is detachable from the hob trough and a locked state in which the connecting pin is connected to the hob trough, and wherein for fastening the connecting pin to the hob trough the connecting pin is able to be inserted vertically relative to the hob trough into the through-hole and displaced horizontally relative to the hob trough in order to lock the connecting pin.
A glass article, comprising: a glass sheet with a front face having a width and a height, a back face opposite the front face, and a thickness between the front face and back face, forming four edges around the front and back faces, wherein the glass sheet comprises: greater than 74 mol % SiO 2, between 3 mol% to 6 mol% Al 2 O 3, between 0 mol% to 3.5 mol% B 2 O 3, between 4 mol% to 7 mol% R 2 O, wherein R is any one or more of Li, Na, K, Rb, Cs, wherein Al 2 O 3 - R 2 O is between -2 and 0.5, and wherein R 2 O/RO is between 0.38 to 0.53, wherein R is any one of Mg, Ca, Sr or Ba. a glass sheet with a front face having a width and a height, a back face opposite the front face, and a thickness between the front face and back face, forming four edges around the front and back faces, wherein the glass sheet comprises: greater than 74 mol % SiO 2, between 3 mol% to 6 mol% Al 2 O 3, between 0 mol% to 3.5 mol% B 2 O 3, between 4 mol% to 7 mol% R 2 O, wherein R is any one or more of Li, Na, K, Rb, Cs, wherein Al 2 O 3 - R 2 O is between -2 and 0.5, and wherein R 2 O/RO is between 0.38 to 0.53, wherein R is any one of Mg, Ca, Sr or Ba. greater than 74 mol % SiO 2, between 3 mol% to 6 mol% Al 2 O 3, between 0 mol% to 3.5 mol% B 2 O 3, between 4 mol% to 7 mol% R 2 O, wherein R is any one or more of Li, Na, K, Rb, Cs, wherein Al 2 O 3 - R 2 O is between -2 and 0.5, and wherein R 2 O/RO is between 0.38 to 0.53, wherein R is any one of Mg, Ca, Sr or Ba.
A single focal length lens system, in order from an object side to an image side, comprising: a first unit (L1 - L3) an aperture diaphragm and a second unit (L4, L5), wherein the first unit, in order from the object side to the image side, includes a first lens element that is a negative meniscus glass lens with a convex surface facing the object side, a second lens element having a negative optical power, and a third lens element having a positive optical power, and the second unit includes a cemented lens having positive optical power, and a joint surface of the cemented lens is an aspheric surface, and the following conditions,,, are satisfied: dn / dt 1 MAX ≤ 2.67 × 10 − 5 2 ω DIA ≥ 150 2.0 < f CEM / f < 4.0 dn / dt 2 MAX ≥ 9.00 × 10 − 5 where |dn/dt1| MAX is a maximum value of absolute values of relative refractive index temperature coefficients in an atmosphere at 0 to 20°C with respect to light having a wavelength range of 580 to 640 nm, which is calculated for each of lens elements (L4, L5) constituting the cemented lens, 2ω DIA is a diagonal angle of view (°), f CEM is a focal length at d-line of the cemented lens, f is a focal length at d-line of the entire system, and |dn/dt2| MAX is a maximum value of absolute values of relative refractive index temperature coefficients in an atmosphere at 0 to 20°C with respect to light having a wavelength range of 580 to 640 nm, which is calculated for each of the lens elements (L1, L2) having negative optical power and the lens element having positive optical power, which constitute the first unit. |dn/dt1| MAX is a maximum value of absolute values of relative refractive index temperature coefficients in an atmosphere at 0 to 20°C with respect to light having a wavelength range of 580 to 640 nm, which is calculated for each of lens elements (L4, L5) constituting the cemented lens, 2ω DIA is a diagonal angle of view (°), f CEM is a focal length at d-line of the cemented lens, f is a focal length at d-line of the entire system, and |dn/dt2| MAX is a maximum value of absolute values of relative refractive index temperature coefficients in an atmosphere at 0 to 20°C with respect to light having a wavelength range of 580 to 640 nm, which is calculated for each of the lens elements (L1, L2) having negative optical power and the lens element having positive optical power, which constitute the first unit.
Method for computer-aided optimisation of numerically controlled machining of a workpiece by means of a tool, the method including the following computer-aided method steps: - ascertaining interaction data prior to commencement of the machining, which interaction data describes a geometric interaction of the tool with the workpiece in a section (A1, A2,..., AN) of a toolpath; - determining a relationship between a force to be expected during the machining and at least one machining configuration parameter based on the interaction data; - calculating the force during the machining based on the relationship and a current value of the at least one configuration parameter during the machining; - adjusting the machining as a function of the calculated force, characterised in that - the adjustment of the machining comprises a correction of the toolpath, and - the toolpath is corrected as a function of one or more stiffness values of a machine tool for performing the machining. - ascertaining interaction data prior to commencement of the machining, which interaction data describes a geometric interaction of the tool with the workpiece in a section (A1, A2,..., AN) of a toolpath; - determining a relationship between a force to be expected during the machining and at least one machining configuration parameter based on the interaction data; - calculating the force during the machining based on the relationship and a current value of the at least one configuration parameter during the machining; - adjusting the machining as a function of the calculated force, - the adjustment of the machining comprises a correction of the toolpath, and - the toolpath is corrected as a function of one or more stiffness values of a machine tool for performing the machining.
A non-chocolate flavored water soluble composition comprising sucralose, an edible acid in an amount of at least 18 % w/w, a cocoa extract and a carrier.