mhurhangee/ep-ind-claims huggingface dataset:
An asphalt mixing plant, comprising a first drying drum for drying and heating a first aggregate to a first aggregate temperature, the first drying drum comprising a first burner; a first controller configured to control by a first control loop the first aggregate temperature of the first aggregate by controlling the burner load of the first burner; and a second controller configured to control by a second control loop a first raw gas temperature of a first raw gas exiting the first drying drum; wherein the first drying drum is configured to rotate at a first rotational speed; the second controller is configured to control the first raw gas temperature of the first raw gas exiting the first drying drum by controlling the first rotational speed of the first drying drum; and the first controller and the second controller are configured to operate independently from each other. a first drying drum for drying and heating a first aggregate to a first aggregate temperature, the first drying drum comprising a first burner; a first controller configured to control by a first control loop the first aggregate temperature of the first aggregate by controlling the burner load of the first burner; and a second controller configured to control by a second control loop a first raw gas temperature of a first raw gas exiting the first drying drum; wherein the first drying drum is configured to rotate at a first rotational speed; the second controller is configured to control the first raw gas temperature of the first raw gas exiting the first drying drum by controlling the first rotational speed of the first drying drum; and the first controller and the second controller are configured to operate independently from each other. the first drying drum is configured to rotate at a first rotational speed; the second controller is configured to control the first raw gas temperature of the first raw gas exiting the first drying drum by controlling the first rotational speed of the first drying drum; and the first controller and the second controller are configured to operate independently from each other.
A computer-implemented method, comprising: receiving, by a computing device, a command to generate a decoupled name for a data object, wherein the command includes a new name to bind to the data object; generating a hash for the data object based on the data object's content, wherein the hash is not generated based on a name for the data object; obtaining a private key for signing the data object; generating the decoupled name for the data object by encrypting the data object's hash and the new name using the private key, wherein the decoupled name binds the new name to the data object; and responsive to receiving a request to access the data object via a network, returning the data object's content and the decoupled name as separate objects accessed via separate network names. receiving, by a computing device, a command to generate a decoupled name for a data object, wherein the command includes a new name to bind to the data object; generating a hash for the data object based on the data object's content, wherein the hash is not generated based on a name for the data object; obtaining a private key for signing the data object; generating the decoupled name for the data object by encrypting the data object's hash and the new name using the private key, wherein the decoupled name binds the new name to the data object; and responsive to receiving a request to access the data object via a network, returning the data object's content and the decoupled name as separate objects accessed via separate network names.
A pipe joint that is joined to a pipe member, the pipe joint comprising: a first member in which a housing space for housing the pipe member is formed; a cylindrical member that has an annular protrusion formed on its inner peripheral surface and that is interposed between the outer peripheral surface of the pipe member and an inner peripheral surface of the first member forming the housing space, the inner peripheral surface of the first member constituting a housing surface; and a pushing member that is configured to apply an axial force to the cylindrical member; wherein the pipe joint is configured to generate radially inward force by the axial force applied to the cylindrical member by the pushing member; the first member is formed with a force concentrating portion that concentrates the radially inward force on a part of an outer peripheral surface of the cylindrical member; the annular protrusion is configured to bite into the outer peripheral surface of the pipe member due to the force which is made to be concentrated on the part of the outer peripheral surface of the cylindrical member by the force concentrating portion; characterised in that the force concentrating portion is a part of the housing surface and is a bulging surface that bulges radially inward. a first member in which a housing space for housing the pipe member is formed; a cylindrical member that has an annular protrusion formed on its inner peripheral surface and that is interposed between the outer peripheral surface of the pipe member and an inner peripheral surface of the first member forming the housing space, the inner peripheral surface of the first member constituting a housing surface; and a pushing member that is configured to apply an axial force to the cylindrical member; wherein the pipe joint is configured to generate radially inward force by the axial force applied to the cylindrical member by the pushing member; the first member is formed with a force concentrating portion that concentrates the radially inward force on a part of an outer peripheral surface of the cylindrical member; the annular protrusion is configured to bite into the outer peripheral surface of the pipe member due to the force which is made to be concentrated on the part of the outer peripheral surface of the cylindrical member by the force concentrating portion; characterised in that the force concentrating portion is a part of the housing surface and is a bulging surface that bulges radially inward.
A method for washing a treatment tool stand of an endoscope, using a stand washing tool having a handle having a distal end, a proximal end, and a longitudinal axis, a head provided on a distal end side of the handle, a first washing member erected on the head in a direction intersecting a reference plane including the longitudinal axis, and a second washing member erected in a direction intersecting the reference plane on the head closer to the handle than the first washing member and provided so as to be parallel to or coincide with the first washing member in a case where the second washing member is projected on a plane perpendicular to the longitudinal axis, wherein the first washing member has a first end opposite to one end on the head side, wherein the second washing member has a second end opposite to one end on the head side, wherein a height position of the first end in a direction orthogonal to the reference plane from the reference plane is a first height position, wherein a height position of the second end in the direction orthogonal to the reference plane from the reference plane is a second height position lower than the first height position, the washing method comprising: a first washing member inserting step of inserting the first washing member into a gap between the stand storage wall section of the endoscope and the treatment tool stand; a second washing member abutting step of making the second washing member abut against a treatment tool guide surface of the treatment tool stand; and a stand washing tool moving step of moving the stand washing tool along the treatment tool guide surface in a state where the first washing member is inserted into the gap and the second washing member is made to abut against the treatment tool guide surface. a first washing member inserting step of inserting the first washing member into a gap between the stand storage wall section of the endoscope and the treatment tool stand; a second washing member abutting step of making the second washing member abut against a treatment tool guide surface of the treatment tool stand; and a stand washing tool moving step of moving the stand washing tool along the treatment tool guide surface in a state where the first washing member is inserted into the gap and the second washing member is made to abut against the treatment tool guide surface.
A mechanical friction device including a central layer which is sandwiched between two outer, friction layers (18.1; 18.2), the central layer having a porosity level higher than that of the two friction layers (18.1; 182.), the outer layers being in the form of discs (18.1; 18.2) which define a ventilation channel between them, characterised in that the central layer is in the form of an annular core made from a wire-frame structure (30; 40) located in the ventilation channel to act as heat transfer means to transfer heat away from the friction surfaces (20.1; 20.2) of the outer, friction layers (18.1; 18.2).
A bone anchoring device comprising: a receiving part (5, 5') for coupling a rod to a bone anchoring element, the receiving part (5,5') comprising a first end, a second end, a central axis extending between the first end and the second end, a recess for receiving a rod, wherein by the recess two open legs (53a, 53b) are formed and wherein the legs are configured to cooperate with a fixation element, and a head receiving portion (54, 54') at the second end for pivotably holding a head of a bone anchoring element, the head receiving portion (54, 54') being at least partially flexible and having an opening at the second end for inserting the head; and a locking ring mounted at least partially around the head receiving portion (54, 54'), wherein a rotational movement of the locking ring around the central axis provides a force which causes the head receiving portion (54, 54') to be compressed, wherein the locking ring comprises a first end that faces towards the first end of the receiving part (5, 5') when the locking ring is mounted, an opposite second end and a third engagement structure that is configured to be engaged by a tool for rotating the locking ring and wherein the third engagement structure comprises at least one notch that is open towards the first end of the locking ring and that extends towards the second end in an inclined manner relative to the central axis. a receiving part (5, 5') for coupling a rod to a bone anchoring element, the receiving part (5,5') comprising a first end, a second end, a central axis extending between the first end and the second end, a recess for receiving a rod, wherein by the recess two open legs (53a, 53b) are formed and wherein the legs are configured to cooperate with a fixation element, and a head receiving portion (54, 54') at the second end for pivotably holding a head of a bone anchoring element, the head receiving portion (54, 54') being at least partially flexible and having an opening at the second end for inserting the head; and a locking ring mounted at least partially around the head receiving portion (54, 54'), wherein a rotational movement of the locking ring around the central axis provides a force which causes the head receiving portion (54, 54') to be compressed, wherein the locking ring comprises a first end that faces towards the first end of the receiving part (5, 5') when the locking ring is mounted, an opposite second end and a third engagement structure that is configured to be engaged by a tool for rotating the locking ring and wherein the third engagement structure comprises at least one notch that is open towards the first end of the locking ring and that extends towards the second end in an inclined manner relative to the central axis.
Method for triggering an obstacle avoidance system for a motor vehicle running on a road, comprising steps of: - detecting at least one object (C1, C2) situated in the environment of the motor vehicle and acquiring data relating to each detected object (C1, C2), - determining, for said at least one object (C1, C2), a parameter relating to the time remaining before the motor vehicle can strike said object (C1, C2), as a function of the acquired data, - determining at least one path deviation (E left, E right) to be performed to avoid said at least one object (C1, C2), and - activating the obstacle avoidance system to avoid said at least one object (C1, C2) according to the values of said parameter and of each path deviation (E left, E right), wherein said step of determination of at least one path deviation (E left, E right) comprises: - calculating a relative lateral speed (VRelRoute Lat) as a function of the deviation between, on the one hand, the lateral speed (Vy Ego/LineEgo) of the motor vehicle with respect to the road in a first reference frame (X LineEgo, Y LineEgo) oriented according to a tangent to the road at the motor vehicle, and, on the other hand, the lateral speed (Vy Obj/LineObj) of the object (C1, C2) with respect to the road in a second reference frame (X LineObj, Y LineObj) oriented according to a tangent to the road at said object (C1, C2), and - determining each path deviation (E left, E right) as a function of the relative lateral speed (VRelRoute Lat). - detecting at least one object (C1, C2) situated in the environment of the motor vehicle and acquiring data relating to each detected object (C1, C2), - determining, for said at least one object (C1, C2), a parameter relating to the time remaining before the motor vehicle can strike said object (C1, C2), as a function of the acquired data, - determining at least one path deviation (E left, E right) to be performed to avoid said at least one object (C1, C2), and - activating the obstacle avoidance system to avoid said at least one object (C1, C2) according to the values of said parameter and of each path deviation (E left, E right), - calculating a relative lateral speed (VRelRoute Lat) as a function of the deviation between, on the one hand, the lateral speed (Vy Ego/LineEgo) of the motor vehicle with respect to the road in a first reference frame (X LineEgo, Y LineEgo) oriented according to a tangent to the road at the motor vehicle, and, on the other hand, the lateral speed (Vy Obj/LineObj) of the object (C1, C2) with respect to the road in a second reference frame (X LineObj, Y LineObj) oriented according to a tangent to the road at said object (C1, C2), and - determining each path deviation (E left, E right) as a function of the relative lateral speed (VRelRoute Lat).
An implantable graft, comprising: a main section having walls formed with a woven fabric, the main section having a main lumen extending therethrough; and a bifurcated section having walls formed with the woven fabric, wherein the bifurcated section extends from main section, wherein the bifurcated section includes a first branch and a second branch, and wherein the first branch and the second branch each include a branch lumen (116,118) in fluid communication with the main lumen, wherein at least one branch of the bifurcated section includes a branch taper (124,126) formed by a seam connecting a first woven layer and a second woven layer, and wherein a seam extension (136, 138) extends outwardly along the seam of the branch taper, the seam extension being a single-layer woven structure wherein warp ends and weft threads in both the first woven layer and the second woven layer are incorporated into the woven structure of the seam extension such that the seam extension has a higher thread density than both the first woven layer and the second woven layer in the at least one branch. a main section having walls formed with a woven fabric, the main section having a main lumen extending therethrough; and a bifurcated section having walls formed with the woven fabric, wherein the bifurcated section extends from main section, wherein the bifurcated section includes a first branch and a second branch, and wherein the first branch and the second branch each include a branch lumen (116,118) in fluid communication with the main lumen, wherein at least one branch of the bifurcated section includes a branch taper (124,126) formed by a seam connecting a first woven layer and a second woven layer, and wherein a seam extension (136, 138) extends outwardly along the seam of the branch taper, the seam extension being a single-layer woven structure wherein warp ends and weft threads in both the first woven layer and the second woven layer are incorporated into the woven structure of the seam extension such that the seam extension has a higher thread density than both the first woven layer and the second woven layer in the at least one branch.
A device for connecting in parallel multiple battery cells arranged in parallel to one another with respect to a joining axis with a contact plate having individual passages, characterized in that each passage is designed for the jacket-side enclosure of the battery cells and comprises at least one contact tongue, which has on the passage side a contact body protruding from the contact tongue into the passage in the form of a cut ovoid.
A cycle seat comprising two seat bases (2a, 2b) and a seat frame to attach the seat bases (2a, 2b) to the cycle, wherein each seat base (2a, 2b) has an elongated seating surface (4a, 4b) with a mainly horizontal proximal seating surface (4a1, 4b1) and a distal seating surface (4a2, 4b2) part of which curves upward, and wherein one end of each distal seating surface (4a2, 4b2) is at least 4 cm and preferably at least 6 cm higher than the corresponding proximal seating surface (4a1, 4b1), characterized in that each seating surface (4a, 4b) is 2-10 cm in width, and in that a part of each distal seating surface (4a2, 4b2) curves forward.
A device, comprising: a substrate (101; 201; 301); a sacrificial material layer (102; 202; 302) over the substrate (101; 201; 301), the sacrificial material layer (102; 202; 302) having an airgap (105; 205; 305); a first solid-state material layer (103; 203; 303) over the sacrificial material layer (102; 202; 302), the first solid-state material layer (103; 203; 303) comprising a structure over the airgap (105; 205; 305) and separated from a bulk portion (109; 309) of the first solid-state material layer (103; 203; 303) by trenches (108; 208; 308), the trenches (108; 208; 308) extending to the airgap (105; 205; 305); a dielectric layer (106; 206, 206b; 306) over the first solid-state material layer (103; 203; 303); a second solid-state material layer over the dielectric layer (106; 206a, 206b; 306) such that the second solid-state material layer covers the trenches (108, 208, 308). a substrate (101; 201; 301); a sacrificial material layer (102; 202; 302) over the substrate (101; 201; 301), the sacrificial material layer (102; 202; 302) having an airgap (105; 205; 305); a first solid-state material layer (103; 203; 303) over the sacrificial material layer (102; 202; 302), the first solid-state material layer (103; 203; 303) comprising a structure over the airgap (105; 205; 305) and separated from a bulk portion (109; 309) of the first solid-state material layer (103; 203; 303) by trenches (108; 208; 308), the trenches (108; 208; 308) extending to the airgap (105; 205; 305); a dielectric layer (106; 206, 206b; 306) over the first solid-state material layer (103; 203; 303); a second solid-state material layer over the dielectric layer (106; 206a, 206b; 306) such that the second solid-state material layer covers the trenches (108, 208, 308).
Illumination system comprising: - an LED module having at least one LED or OLED, - a first light sensor, and - a control circuit configured to control the current flowing through the LED module as a function of a sensing signal of the first light sensor; wherein the first light sensor is configured such that it has a sensitivity peak set that is at a higher wavelength than the spectrum emitted by the LED module, whereby the sensitivity peak set constitutes only those wavelengths which the light sensor can sense or identify, and ∘ the first light sensor substantially measures only ambient light, ambient light being light other than light emitted by the led module; characterized in that the illumination system comprises at least a second light sensor that has its sensitivity peak set that is at a lower wavelength than the spectrum emitted by the LED module, and wherein the control circuit is also configured to be supplied with a sensing signal of the second light sensor. - an LED module having at least one LED or OLED, - a first light sensor, and - a control circuit configured to control the current flowing through the LED module as a function of a sensing signal of the first light sensor; wherein the first light sensor is configured such that it has a sensitivity peak set that is at a higher wavelength than the spectrum emitted by the LED module, whereby the sensitivity peak set constitutes only those wavelengths which the light sensor can sense or identify, and ∘ the first light sensor substantially measures only ambient light, ambient light being light other than light emitted by the led module; characterized in that the illumination system comprises at least a second light sensor that has its sensitivity peak set that is at a lower wavelength than the spectrum emitted by the LED module, and wherein the control circuit is also configured to be supplied with a sensing signal of the second light sensor.
A method for preparing an all-trans retinoic acid liposome formulation, wherein the all-trans retinoic acid liposome formulation comprises all-trans retinoic acid and a liposome vector, a molar ratio of the all-trans retinoic acid to the liposome vector is in a range of 1:, a raw material of the liposome comprises a phospholipid, a cholesterol, and a pegylated phospholipid, a molar ratio between the phospholipid, the cholesterol and the pegylated phospholipid in the raw material of the liposome is in a range of: (0.1-40): (0.1-30); the method comprises the following steps: taking all raw materials for preparing a liposome according to a ratio, and dissolving with ethanol to obtain an ethanol mixture; adding an aqueous solution of calcium acetate having a pH of 7.0 to 11.0 to the ethanol mixture in step to obtain a liposome vesicle, a concentration of calcium acetate in the aqueous solution of calcium acetate is 120 mM to 360 mM; sequentially extruding the liposome vesicle obtained in step through polycarbonate membranes having different pore diameters to obtain a blank liposome having a uniform particle diameter; placing the blank liposome prepared in step into an isotonic liquid having a pH of 6.0 to 7.0, to obtain a blank liposome having a calcium acetate gradient between an inner aqueous phase and an outer aqueous phase; adding an all-trans retinoic acid suspension to the blank liposome having the calcium acetate gradient between the inner aqueous phase and the outer aqueous phase obtained in step, incubating, and removing free all-trans retinoic acid, to obtain the all-trans retinoic acid liposome formulation. taking all raw materials for preparing a liposome according to a ratio, and dissolving with ethanol to obtain an ethanol mixture; adding an aqueous solution of calcium acetate having a pH of 7.0 to 11.0 to the ethanol mixture in step to obtain a liposome vesicle, a concentration of calcium acetate in the aqueous solution of calcium acetate is 120 mM to 360 mM; sequentially extruding the liposome vesicle obtained in step through polycarbonate membranes having different pore diameters to obtain a blank liposome having a uniform particle diameter; placing the blank liposome prepared in step into an isotonic liquid having a pH of 6.0 to 7.0, to obtain a blank liposome having a calcium acetate gradient between an inner aqueous phase and an outer aqueous phase; adding an all-trans retinoic acid suspension to the blank liposome having the calcium acetate gradient between the inner aqueous phase and the outer aqueous phase obtained in step, incubating, and removing free all-trans retinoic acid, to obtain the all-trans retinoic acid liposome formulation.