mhurhangee/ep-ind-claims huggingface dataset:
Derailleur (111, 112) of a bicycle comprising a chain guide (113, 114) and an electric motor that displaces the chain guide (113, 114), and comprising an electrically controllable device (50, 150, 250, 350, 450, 550, 650, 750) configured to selectively block the rotation of the electric motor and let the electric motor free to rotate, wherein the motor is part of a motor gear (117, 118, 10) further comprising at least one gear (24, 38), and characterised in that the electrically controllable device (50, 150, 250, 350, 450, 550, 650, 750) comprises a first toothed member and a second toothed member (54, 154, 254, 354), the first toothed member being configured to selectively engage the second toothed member (54, 154, 254, 354), the second toothed member (54, 154, 254, 354) being associated with the motor gear (117, 118, 10) so that the rotation thereof is associated with the rotation of a motor shaft of the motor, as well as an electric actuator (56, 456, 556, 656, 756) configured to displace the first toothed member into engagement and out of engagement with the second toothed member (54, 154, 254, 354).
A method for providing a copper seed layer on top of a barrier layer comprising, in this order, the steps of (i) providing a substrate comprising at least on a portion of the outer surface a barrier layer, (ii) contacting said substrate with an aqueous electroless copper plating bath which comprises a. a water-soluble source for Cu ions, b. a reducing agent for Cu ions, c. at least one complexing agent for Cu ions and d. at least one source for hydroxide ions selected from the group consisting of RbOH, CsOH and mixtures thereof. (i) providing a substrate comprising at least on a portion of the outer surface a barrier layer, (ii) contacting said substrate with an aqueous electroless copper plating bath which comprises a. a water-soluble source for Cu ions, b. a reducing agent for Cu ions, c. at least one complexing agent for Cu ions and d. at least one source for hydroxide ions selected from the group consisting of RbOH, CsOH and mixtures thereof. a. a water-soluble source for Cu ions, b. a reducing agent for Cu ions, c. at least one complexing agent for Cu ions and d. at least one source for hydroxide ions selected from the group consisting of RbOH, CsOH and mixtures thereof.
A sealing system for sealing bed and embankment areas of a water body in water-bearing condition, comprising: - a working platform; - a first feed device; - a connecting device; - a lowering ramp having a concrete formwork shell; - a second feed device; and - a moving device; wherein the working platform being arranged above a water area of a water area to be sealed and comprising a working surface; wherein the first feeding device is configured to apply webs of a concrete formwork shell to the working surface, wherein the concrete formwork shell being a web-shaped flexible concrete formwork shell having a plurality of cavities for receiving a concrete material; wherein the connecting device is configured to connect the plurality of webs of the concrete formwork shell to a continuous sealing surface; wherein the lowering ramp is supported at a first end on the working platform and at a second end opposite the first end can be lowered in the direction of the bottom of the watercourse with the concrete formwork shell, wherein the lowering ramp in a first lowered state extends obliquely downwards from the working platform in the direction of the bottom of the watercourse, and wherein the lowering ramp is configured to at least partially support the sealing surface when being introduced into the water and when being deposited on the bottom of the watercourse; the second feeding device being configured to introduce a concrete material into at least a part of the cavities in a central region of the concrete formwork shell located on the lowering ramp for successive lowering of the concrete formwork shell via the lowering ramp up to the support on a surface of the bottom of the watercourse; wherein the moving device is configured to move the working platform along the water body; and wherein the concrete formwork shell having lateral regions which laterally adjoin the central region in the direction of the water and which are rolled up over the lowering ramp during lowering. - a working platform; - a first feed device; - a connecting device; - a lowering ramp having a concrete formwork shell; - a second feed device; and - a moving device;
A method for producing a component by means of an additive manufacturing process, wherein the component is entirely or partly produced from a liquid raw material, wherein the component is entirely or partly produced from a liquid raw material solidifiable by heating, wherein the raw material is dispensed in liquid form into a manufacturing zone and is, as a result of computer-controlled, punctual targeted light irradiation, heated and thereby solidified, by the impact point of a light beam of a light-beam source relative to the manufacturing zone being altered in a continuous and/or in a step-by-step manner, characterized in that the liquid raw material in the raw material dispensing unit is already preheated before dispensing and thus partially solidified by means of a preheating unit.
A system comprising: a flat panel detector including, a scintillation layer and a glass layer configured to (i) receive x-rays emitted from an x-ray source and passed through an object, and (ii) the scintillation layer configured to convert the x-rays to light; and the system being characterized in that it further comprises a plurality of microelectromechanical scanners configured to (i) detect corresponding portions of the light, and (ii) generate respective signals, each microelectromechanical scanner including a photodetector mounted on a corresponding movable platform and configured to detect light in a selected spectrum; a scanning control module configured to actuate linear actuators for pivoting each platform about one or two orthogonal axes in each of the plurality of microelectromechanical scanners, wherein each of the signals is generated based on the actuation of the corresponding one of the plurality of microelectromechanical scanners; and a readout electronics module configured to produce an image based on the signals, wherein each of the signals contributes to a corresponding portion of the image. a flat panel detector including, a scintillation layer and a glass layer configured to (i) receive x-rays emitted from an x-ray source and passed through an object, and (ii) the scintillation layer configured to convert the x-rays to light; and the system being characterized in that it further comprises a plurality of microelectromechanical scanners configured to (i) detect corresponding portions of the light, and (ii) generate respective signals, each microelectromechanical scanner including a photodetector mounted on a corresponding movable platform and configured to detect light in a selected spectrum; a scanning control module configured to actuate linear actuators for pivoting each platform about one or two orthogonal axes in each of the plurality of microelectromechanical scanners, wherein each of the signals is generated based on the actuation of the corresponding one of the plurality of microelectromechanical scanners; and a readout electronics module configured to produce an image based on the signals, wherein each of the signals contributes to a corresponding portion of the image.
Eyeglass frame (2, 52) with an eyeglass front (3, 53) for receiving at least one eyeglass lens (4a, 4b; 54a, 54b), and with a left and right temple (7, 8; 57, 58) which are pivotably connected to the eyeglass front (3, 53) via a pivot joint connection (10a, 10b; 60a, 60b) for holding the eyeglass frame (2, 52) on the head of an eyeglass wearer, wherein the eyeglass front (3, 53) forms at least an upper frame section (5, 55), wherein the temples (7, 8; 57, 58) can be pivoted relative to the eyeglass front (3, 53) from a position of use into a closing position, in which the temples (7, 8; 57, 58) are arranged above the upper frame section (5, 55), and vice versa, characterised in that the temples (7, 8; 57, 58) in each case have a first longitudinal temple portion (7.1, 7.1', 7.1", 57.1; 8.1, 8.1', 8.1", 58.1), a second longitudinal temple portion (7.2, 7.2', 7.2", 57.2; 8.2, 8.2', 8.2", 58.2) and a crossing portion (7.3, 7.3', 7.3", 57.3; 8.3, 8.3', 8.3", 58.3), which connects the first and second longitudinal temple portion (7.1, 7.1', 7.1", 57.1; 7.2, 7.2', 7.2", 57.2; 8.1, 8.1', 8.1"; 8.2, 8.2', 8.2", 58.2) with each other, and in their closing position above the upper frame section (5, 55) the temples (7, 8; 57, 58) are arranged in a crossed position relative to each other such that in each case the first longitudinal temple portion of a temple lies underneath the second longitudinal temple portion of the other temple and the second longitudinal temple portion of the temple lies above the first longitudinal temple portion of the other temple.
Construction composition comprising wood and a cement additive comprising three different types of aluminosilicates, wherein one of the aluminosilicates comprises - based on dry weight - 20-30 wt.% Na 2 O; 30-40 wt.% Al 2 O 3; and 30-40 wt.% SiO 2, which aluminosilicate has a tapped density of at least 400 g/l; an average particle size of 1.2-2.2 μm; has a calcium-binding capacity of at least 100 mg CaO/g on a 100% basis (anhydrous aluminosilicate); has a pH above 6; has an ignition loss (1 hour; 800 °C) of 15-30 %; and contains ≤50 ppm water soluble Fe and ≤ 500 ppm total Fe; ≤ 1 ppm water soluble Ni; ≤ 2 ppm water-soluble Cr; and ≤ 7 ppm water-soluble Ti; wherein the second of the aluminosilicates is a small particle size aluminosilicate and comprises - on a dry basis - 15-35 wt% Na 2 O; 25-40 wt.% Al 2 O 3; and 20-45 wt.% SiO 2; has a pH in the range of 7-12 and preferably in the range of 9-12; has an average particle size (determined by sedimentation analysis using a SediGraph 5100 marketed by Micromeritics) of 0.7-2.4, and preferably from 0.9-1.5 μm; has a bulk density of 400-600 g/l; and contains less than 50 ppm iron and less than 5 ppm Ti; and wherein the third of the aluminosilicates comprises 10-30 wt.% Na 2 O; 20-40 wt.% Al 2 O 3 and 10-50 wt.% SiO 2, which aluminosilicate has a tapped density of 300-600 g/l; has an average particle size of 1-5 μm; wherein less than 0.1 wt% of the particles have a size of less than 0.1 μm; has a pH above 6, and has an ignition loss of 16-24%.
A coil device comprising: a first helical coil having a first conductive wire forming a helical shape around an axis; and a second helical coil having a second conductive wire forming a helical shape around the axis, wherein the first helical coil is electrically connected in parallel to the second helical coil, and the first conductive wire is adjacent to the second conductive wire in a direction of the axis, the coil device further comprising a magnetic member including a main surface intersecting the axis, wherein the first conductive wire is disposed in a first coil layer, the second conductive wire is disposed in a second coil layer apart from the first coil layer in the direction of the axis, and on the magnetic member, the first coil layer and the second coil layer are stacked in this order, characterized in that a first inductance of the first helical coil is smaller or larger than a second inductance of the second helical coil when the presence of the magnetic member is not considered. a first helical coil having a first conductive wire forming a helical shape around an axis; and a second helical coil having a second conductive wire forming a helical shape around the axis, wherein the first helical coil is electrically connected in parallel to the second helical coil, and the first conductive wire is adjacent to the second conductive wire in a direction of the axis, the coil device further comprising a magnetic member including a main surface intersecting the axis, wherein the first conductive wire is disposed in a first coil layer, the second conductive wire is disposed in a second coil layer apart from the first coil layer in the direction of the axis, and on the magnetic member, the first coil layer and the second coil layer are stacked in this order, characterized in that a first inductance of the first helical coil is smaller or larger than a second inductance of the second helical coil when the presence of the magnetic member is not considered.
A system comprising: a graphics core; memory; and a hardware processor comprising: a plurality of processor cores; a cache coupled to the plurality of processor cores, wherein the cache is shared by the plurality of processor cores and the graphics core; and a controller circuit to: initialize a portion of the cache as static memory for hardware initialization code usage before beginning execution of the hardware initialization code after a power on of the hardware processor; cause initialization of a display device to be performed using the portion of the cache, the initialization of the display device performed independently of initialization of dynamic memory of the hardware processor; and transfer control of execution of the system from the hardware initialization code to operating system code executing on the system. a graphics core; memory; and a hardware processor comprising: a plurality of processor cores; a cache coupled to the plurality of processor cores, wherein the cache is shared by the plurality of processor cores and the graphics core; and a controller circuit to: initialize a portion of the cache as static memory for hardware initialization code usage before beginning execution of the hardware initialization code after a power on of the hardware processor; cause initialization of a display device to be performed using the portion of the cache, the initialization of the display device performed independently of initialization of dynamic memory of the hardware processor; and transfer control of execution of the system from the hardware initialization code to operating system code executing on the system. a plurality of processor cores; a cache coupled to the plurality of processor cores, wherein the cache is shared by the plurality of processor cores and the graphics core; and a controller circuit to: initialize a portion of the cache as static memory for hardware initialization code usage before beginning execution of the hardware initialization code after a power on of the hardware processor; cause initialization of a display device to be performed using the portion of the cache, the initialization of the display device performed independently of initialization of dynamic memory of the hardware processor; and transfer control of execution of the system from the hardware initialization code to operating system code executing on the system. initialize a portion of the cache as static memory for hardware initialization code usage before beginning execution of the hardware initialization code after a power on of the hardware processor; cause initialization of a display device to be performed using the portion of the cache, the initialization of the display device performed independently of initialization of dynamic memory of the hardware processor; and transfer control of execution of the system from the hardware initialization code to operating system code executing on the system.
A compound represented by formula, formula, or a salt thereof, wherein R 4 and R 5 represent C 1-6 alkyl; R 12 and R 13 are each independently a hydrogen atom or C 1-6 alkyl; m is an integer of 0 to 6; n is an integer of 1 to 5; and J is the following group provided that 5 ≤ m + n ≤ 7.
A system for automatically coordinating the direction of travel with the position of a turret rotatably mounted on the undercarriage of a hydraulic machine, comprising at least a hydraulic transmission circuit for connecting at least a main pump to at least a bi-directional hydraulic travel motor, said circuit including at least a travel control distributor able to vary the driving direction of the motor, the system being characterized in that it comprises at least a second hydraulic circuit, intended to be disposed downstream of a pilot pump providing a pilot pressure, the second circuit including: command valve means (21, 22) for controlling the direction of travel, activatable by the operator and able to switch said control distributor by sending different command signals (S1, S2); and at least a reversing valve (23, 31), interposed between said command means (21, 22) and said control distributor, having a maintenance position, in which it maintains said command signals (S1, S2) unchanged, and a reverse position, in which it reverses the command signals (S1, S2); the system further comprising coordination means (24, 25, 26, 27, 30, 31, 32, 33) able to switch or maintain said reversing valve according to the position of the turret and to said command signals (S1, S2), and wherein the operation of said coordination means (24, 25, 26, 27) is exclusively hydraulic. command valve means (21, 22) for controlling the direction of travel, activatable by the operator and able to switch said control distributor by sending different command signals (S1, S2); and at least a reversing valve (23, 31), interposed between said command means (21, 22) and said control distributor, having a maintenance position, in which it maintains said command signals (S1, S2) unchanged, and a reverse position, in which it reverses the command signals (S1, S2); the system further comprising coordination means (24, 25, 26, 27, 30, 31, 32, 33) able to switch or maintain said reversing valve according to the position of the turret and to said command signals (S1, S2), and wherein the operation of said coordination means (24, 25, 26, 27) is exclusively hydraulic.
A solar cell element, comprising: a semiconductor substrate which includes a first conductivity type first semiconductor region positioned on a first main surface, and a second conductivity type second semiconductor region which is different from the first conductivity type in a surface layer portion of a second main surface positioned on an opposite side to the first main surface; and an electrode in line shape which is disposed on the second main surface of the semiconductor substrate, characterized in that, the second semiconductor region includes a first concentration region which exists at a position separated from the electrode by a predetermined distance in plan view, and a second concentration region which includes a high concentration region where a dopant concentration is higher than that in the first concentration region and exists along a longitudinal direction of the electrode, and wherein the solar cell element includes a part in which a minimum place which has a minimum value of a dopant concentration difference that is obtained by subtracting a dopant concentration value of the first concentration region at a place which is close to a one place from a dopant concentration value of the second concentration region at the one place and a maximum place which has a maximum value of the dopant concentration difference alternately and repeatedly exist along the longitudinal direction of the electrode, and in which a minimum place interval between one end portions of the adjacent minimum places in the longitudinal direction of the electrode varies. a semiconductor substrate which includes a first conductivity type first semiconductor region positioned on a first main surface, and a second conductivity type second semiconductor region which is different from the first conductivity type in a surface layer portion of a second main surface positioned on an opposite side to the first main surface; and an electrode in line shape which is disposed on the second main surface of the semiconductor substrate, characterized in that, the second semiconductor region includes a first concentration region which exists at a position separated from the electrode by a predetermined distance in plan view, and a second concentration region which includes a high concentration region where a dopant concentration is higher than that in the first concentration region and exists along a longitudinal direction of the electrode, and wherein the solar cell element includes a part in which a minimum place which has a minimum value of a dopant concentration difference that is obtained by subtracting a dopant concentration value of the first concentration region at a place which is close to a one place from a dopant concentration value of the second concentration region at the one place and a maximum place which has a maximum value of the dopant concentration difference alternately and repeatedly exist along the longitudinal direction of the electrode, and in which a minimum place interval between one end portions of the adjacent minimum places in the longitudinal direction of the electrode varies.
A method for preventing calender blackening of a calendered printing paper product, wherein the method comprises: - feeding cellulose based material comprising mechanical pulp to a system, - feeding and admixing calcium hydroxide and carbon dioxide to the cellulose based fibres for precipitating calcium carbonate in a rhombohedral crystal form, and - leading the mechanical pulp comprising the precipitated calcium carbonate in the rhombohedral crystal form to a paper machine, characterized by - continuously precipitating calcium carbonate in the rhombohedral crystal form from calcium hydroxide onto the surfaces of mechanically pulped natural fibres and/or particles before the particles are led to a paper machine, and - manufacturing a calendered printing paper product comprising at least said cellulose based material and precipitated calcium carbonate in a rhombohedral crystal form, the amount of the precipitated calcium carbonate being at least 5 dry w-% calculated of the total amount of inorganic fillers in the printing paper product. - feeding cellulose based material comprising mechanical pulp to a system, - feeding and admixing calcium hydroxide and carbon dioxide to the cellulose based fibres for precipitating calcium carbonate in a rhombohedral crystal form, and - leading the mechanical pulp comprising the precipitated calcium carbonate in the rhombohedral crystal form to a paper machine, characterized by - continuously precipitating calcium carbonate in the rhombohedral crystal form from calcium hydroxide onto the surfaces of mechanically pulped natural fibres and/or particles before the particles are led to a paper machine, and - manufacturing a calendered printing paper product comprising at least said cellulose based material and precipitated calcium carbonate in a rhombohedral crystal form, the amount of the precipitated calcium carbonate being at least 5 dry w-% calculated of the total amount of inorganic fillers in the printing paper product. - continuously precipitating calcium carbonate in the rhombohedral crystal form from calcium hydroxide onto the surfaces of mechanically pulped natural fibres and/or particles before the particles are led to a paper machine, and - manufacturing a calendered printing paper product comprising at least said cellulose based material and precipitated calcium carbonate in a rhombohedral crystal form, the amount of the precipitated calcium carbonate being at least 5 dry w-% calculated of the total amount of inorganic fillers in the printing paper product.
A method of purifying recombinant arylsulfatase A protein, the method comprising purifying recombinant arylsulfatase A protein from an impure preparation by conducting one or more chromatography steps; pooling eluate from the one or more chromatography steps; adjusting the pH of the pooled eluate to pH of 5.8-7.0; and subjecting the pH-adjusted eluate after the one or more chromatography steps to a single step of (i) ultrafiltration, (ii) diafiltration, or (iii) combined ultrafiltration/diafiltration thereby exchanging the recombinant ASA protein directly into final formulation buffer.