mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing a digital printing ink for printing on ceramics, characterised in that it comprises: - a first stage wherein it is mixed: ▪ between 30 and 50% of the total in weight of isoparaffinic aliphatic hydrocarbons, ▪ between 20 and 40% of the total in weight of carboxyl esters comprising propanoic acid esters, and ▪ between 1 and 10%of the total in weight of dispersing agents, in a mixing machine, - in a second stage at least one pigment is introduced, slowly added, in a proportion of between 25 and 50% of the total in weight, leaving a liquid mixture, with said liquid mixture recirculating in a grinding mill, - in a third stage the liquid mixture is passed through a sieve, - in a fourth stage the sieved mixture reaches a hopper where it is directed to a refrigerated tank with high speed cooling, - in a fifth stage the cooled mixture is directed through a cooling coil, and - in a sixth stage the mixture from the fifth stage is passed through a mill of ceramic balls between 0,2 and 0,7 mm until the pigment in said liquid mixture obtains the desired particle size, producing an end ink. - a first stage wherein it is mixed: ▪ between 30 and 50% of the total in weight of isoparaffinic aliphatic hydrocarbons, ▪ between 20 and 40% of the total in weight of carboxyl esters comprising propanoic acid esters, and ▪ between 1 and 10%of the total in weight of dispersing agents, in a mixing machine, ▪ between 30 and 50% of the total in weight of isoparaffinic aliphatic hydrocarbons, ▪ between 20 and 40% of the total in weight of carboxyl esters comprising propanoic acid esters, and ▪ between 1 and 10%of the total in weight of dispersing agents, in a mixing machine, - in a second stage at least one pigment is introduced, slowly added, in a proportion of between 25 and 50% of the total in weight, leaving a liquid mixture, with said liquid mixture recirculating in a grinding mill, - in a third stage the liquid mixture is passed through a sieve, - in a fourth stage the sieved mixture reaches a hopper where it is directed to a refrigerated tank with high speed cooling, - in a fifth stage the cooled mixture is directed through a cooling coil, and - in a sixth stage the mixture from the fifth stage is passed through a mill of ceramic balls between 0,2 and 0,7 mm until the pigment in said liquid mixture obtains the desired particle size, producing an end ink.
Applicator (1, 41) for intraoperative radiotherapy, which has a receptacle (23, 43) for receiving an irradiation probe and an insertion opening (21, 47) for inserting the irradiation probe into the receptacle (23, 43), characterized in that the insertion opening (21, 47) is closed with a seal, and in that there is a first machine-readable information store which is at least partially arranged on the seal in such a manner that removal or destruction of the seal removes the ability to read the information store.
A power supply system for a terminal device, comprising a battery pack, a bypass circuit, a voltage step-down circuit, and a controller, wherein the battery pack comprises at least two batteries; an output end of the battery pack is connected to an input end of the voltage step-down circuit, an output end of the voltage step-down circuit is configured to be connected to a power consumption element of the terminal device, one end of the bypass circuit is connected to the input end of the voltage step-down circuit, and the other end of the bypass circuit is connected to the output end of the voltage step-down circuit; and the controller is configured to: when the batteries in the battery pack need to be switched to a series mode, control the voltage step-down circuit to work and control the bypass circuit to stop working, and is further configured to: when the batteries in the battery pack need to be switched to a parallel mode, control the bypass circuit to work and control the voltage step-down circuit to stop working, characterized in that the controller is further configured to determine, based on an output voltage of the battery pack and temperature of the battery pack by consulting a table, that the batteries in the battery pack need to be switched to the series mode, wherein the controller is configured to select, based on a load current, said table corresponding to the load current such that when the load current is greater than a preset current, a heavy-load table is correspondingly used, and when the load current is less than or equal to the preset current, a light-load table is correspondingly used. an output end of the battery pack is connected to an input end of the voltage step-down circuit, an output end of the voltage step-down circuit is configured to be connected to a power consumption element of the terminal device, one end of the bypass circuit is connected to the input end of the voltage step-down circuit, and the other end of the bypass circuit is connected to the output end of the voltage step-down circuit; and the controller is configured to: when the batteries in the battery pack need to be switched to a series mode, control the voltage step-down circuit to work and control the bypass circuit to stop working, and is further configured to: when the batteries in the battery pack need to be switched to a parallel mode, control the bypass circuit to work and control the voltage step-down circuit to stop working, characterized in that the controller is further configured to determine, based on an output voltage of the battery pack and temperature of the battery pack by consulting a table, that the batteries in the battery pack need to be switched to the series mode, wherein the controller is configured to select, based on a load current, said table corresponding to the load current such that when the load current is greater than a preset current, a heavy-load table is correspondingly used, and when the load current is less than or equal to the preset current, a light-load table is correspondingly used.
Gas purging element for metallurgic applications with the following characteristics when installed: a) a refractory ceramic body (10, 30) with a lower end and an upper end, b) the upper end features an upper face, c) the lower end features a lower face d) a recess extends from the lower face into the lower end of the refractory ceramic body e) the recess features a first segment (16, 16', 16") of a detachable, form fitted connection with a gas connection element, wherein this form fitted connection is designed as a gastight and detachable connection, f) a fluidic connection for a treatment gas exists between the recess and the upper face through at least one gas-permeable part of the refractory ceramic body (10, 30). a) a refractory ceramic body (10, 30) with a lower end and an upper end, b) the upper end features an upper face, c) the lower end features a lower face d) a recess extends from the lower face into the lower end of the refractory ceramic body e) the recess features a first segment (16, 16', 16") of a detachable, form fitted connection with a gas connection element, wherein this form fitted connection is designed as a gastight and detachable connection, f) a fluidic connection for a treatment gas exists between the recess and the upper face through at least one gas-permeable part of the refractory ceramic body (10, 30).
A hardware processor core comprising: a first decode cluster comprising a plurality of decoder circuits (114A, 116A); a second decode cluster comprising a plurality of decoder circuits (111A, 116B); and a toggle point control circuit to toggle between sending instructions requested for decoding between the first decode cluster and the second decode cluster, wherein the toggle point control circuit is to: determine a location in an instruction stream as a candidate toggle point to switch the sending of the instructions requested for decoding between the first decode cluster and the second decode cluster, track a number of times a characteristic of multiple previous decodes of the instruction stream is present for the location, and cause insertion of a toggle point at the location, based on the number of times, to switch the sending of the instructions requested for decoding between the first decode cluster and the second decode cluster, wherein the characteristic includes a number of bytes of the instructions decoded from the instruction stream before the location and after an immediately previous switch of decoding of the instruction stream between the first decode cluster and the second decode cluster. a first decode cluster comprising a plurality of decoder circuits (114A, 116A); a second decode cluster comprising a plurality of decoder circuits (111A, 116B); and a toggle point control circuit to toggle between sending instructions requested for decoding between the first decode cluster and the second decode cluster, wherein the toggle point control circuit is to: determine a location in an instruction stream as a candidate toggle point to switch the sending of the instructions requested for decoding between the first decode cluster and the second decode cluster, track a number of times a characteristic of multiple previous decodes of the instruction stream is present for the location, and cause insertion of a toggle point at the location, based on the number of times, to switch the sending of the instructions requested for decoding between the first decode cluster and the second decode cluster, determine a location in an instruction stream as a candidate toggle point to switch the sending of the instructions requested for decoding between the first decode cluster and the second decode cluster, track a number of times a characteristic of multiple previous decodes of the instruction stream is present for the location, and cause insertion of a toggle point at the location, based on the number of times, to switch the sending of the instructions requested for decoding between the first decode cluster and the second decode cluster, wherein the characteristic includes a number of bytes of the instructions decoded from the instruction stream before the location and after an immediately previous switch of decoding of the instruction stream between the first decode cluster and the second decode cluster.
A process for preparing for compound of formula A; wherein X is an amine protecting group R is a hydroxyl protecting group comprising the steps of: (i) treating the compound of formula F, with nitromethane in the presence of solvent and strong base or catalyst to obtain compound of formula H; (ii) treating the compound of formula H with the reducing agent in the presence of solvent to obtain compound of formula Y; (iii) treating compound of formula Y with amine protecting group to obtain formula Z wherein X is an amine protecting group R is a hydroxyl protecting group, (iv) and then treating with hydroxyl protecting group to obtain compound of formula A. wherein X is an amine protecting group R is a hydroxyl protecting group comprising the steps of: (i) treating the compound of formula F, with nitromethane in the presence of solvent and strong base or catalyst to obtain compound of formula H; (ii) treating the compound of formula H with the reducing agent in the presence of solvent to obtain compound of formula Y; (iii) treating compound of formula Y with amine protecting group to obtain formula Z wherein X is an amine protecting group R is a hydroxyl protecting group, (iv) and then treating with hydroxyl protecting group to obtain compound of formula A. (i) treating the compound of formula F, with nitromethane in the presence of solvent and strong base or catalyst to obtain compound of formula H; (ii) treating the compound of formula H with the reducing agent in the presence of solvent to obtain compound of formula Y; (iii) treating compound of formula Y with amine protecting group to obtain formula Z wherein X is an amine protecting group R is a hydroxyl protecting group, wherein X is an amine protecting group R is a hydroxyl protecting group, (iv) and then treating with hydroxyl protecting group to obtain compound of formula A.
Plant container comprising a pot and a saucer made of plastics material, the saucer being intended to be non-detachably connected to the pot by coupling devices having hooks which become engaged as a result of a rotational movement, and each coupling device being arranged in a central base region having conically tapering guide surfaces (9, 16), characterised in that the underside of the pot is provided with holes and the saucer is in the form of a water dish which is closed at the bottom, and in that the guide surfaces (9, 16) are formed on the pot and the saucer on tapered domes (8, 14) having end faces (10, 25), the dome of the saucer protecting upwards and comprising the hooks on the top of the end face thereof, while holes in the wall are formed in the end face of the dome of the pot, into which holes the hooks reach and engage in a coupling manner when the pot and the saucer rotate relative to one another.
Apparatus for measuring objects, comprising: a mobile base for moving the apparatus through a spatial region, a kinematic unit attached to the mobile base, a measuring head attached to the kinematic unit, wherein the kinematic unit is configured to move the measuring head relative to the mobile base, wherein the measuring head comprises a sensor for measuring objects (20, 21), a controller, and a first sensor of a first type and a second sensor of a second type that differs from the first type, wherein the controller is configured to determine a pose of the measuring head (25; 30) on the basis of a combination of data of the first sensor and of the second sensor and control the kinematic unit on the basis of data of the first sensor and the second sensor for the purposes of moving the measuring head (25; 30) along the object (20, 21), wherein the first sensor comprises a 2D camera or a 3D camera. a mobile base for moving the apparatus through a spatial region, a kinematic unit attached to the mobile base, a measuring head attached to the kinematic unit, wherein the kinematic unit is configured to move the measuring head relative to the mobile base, wherein the measuring head comprises a sensor for measuring objects (20, 21), a controller, and a first sensor of a first type and a second sensor of a second type that differs from the first type, wherein the controller is configured to determine a pose of the measuring head (25; 30) on the basis of a combination of data of the first sensor and of the second sensor and control the kinematic unit on the basis of data of the first sensor and the second sensor for the purposes of moving the measuring head (25; 30) along the object (20, 21), wherein the first sensor comprises a 2D camera or a 3D camera.
System for automatically docking a mobile machine, in particular a container stacker crane, to a movable supply, the system comprising: a docking device with a transverse advancer unit and an extendable extension arm, wherein an end portion of the extension arm can be advanced transversely to the movable supply and the end portion is designed or equipped for connecting to the movable supply; characterized by an energy guiding chain serving as a movable supply and including an entrainment member; a mechanical coupling including a coupling piece on the end portion of the extension arm and a coupling counterpart on the entrainment member of the energy guiding chain cooperating for position fixing; and by a plug connector on said end portion and a cooperating socket on the entrainment member which can be coupled for supplying said machine, in particular with energy. a docking device with a transverse advancer unit and an extendable extension arm, wherein an end portion of the extension arm can be advanced transversely to the movable supply and the end portion is designed or equipped for connecting to the movable supply; characterized by an energy guiding chain serving as a movable supply and including an entrainment member; a mechanical coupling including a coupling piece on the end portion of the extension arm and a coupling counterpart on the entrainment member of the energy guiding chain cooperating for position fixing; and by a plug connector on said end portion and a cooperating socket on the entrainment member which can be coupled for supplying said machine, in particular with energy.
Separation system for a suction device; wherein the separation system comprises - a cylindrical housing with a housing wall; - an air filter which is arranged around a central longitudinal axis of the housing; - a screen component which is arranged in the housing; wherein the screen component comprises a screen cylinder which is arranged around the longitudinal axis and with a screen surface which encloses the air filter; - a collection region for impurities, which is arranged between the screen cylinder and the housing wall; wherein the collection region is defined by a boundary which has a surface; wherein the screen component comprises an additional screen part (403, 503, 603, 803) with an additional screen surface which covers a further part of the surface of the collection region in addition to the screen cylinder, so that at least 40% of the surface of the collection region is covered by the screen surface of the screen component; and - an inlet channel which is configured to conduct an air flow with impurities from outside the housing into the collection region; wherein the separation system is configured to conduct the air flow, starting from the collection region, initially through the screen component and then through the air filter. - a cylindrical housing with a housing wall; - an air filter which is arranged around a central longitudinal axis of the housing; - a screen component which is arranged in the housing; wherein the screen component comprises a screen cylinder which is arranged around the longitudinal axis and with a screen surface which encloses the air filter; - a collection region for impurities, which is arranged between the screen cylinder and the housing wall; wherein the collection region is defined by a boundary which has a surface; wherein the screen component comprises an additional screen part (403, 503, 603, 803) with an additional screen surface which covers a further part of the surface of the collection region in addition to the screen cylinder, so that at least 40% of the surface of the collection region is covered by the screen surface of the screen component; and - an inlet channel which is configured to conduct an air flow with impurities from outside the housing into the collection region; wherein the separation system is configured to conduct the air flow, starting from the collection region, initially through the screen component and then through the air filter.
A lay-shaft assembly for use in a vehicle transmission, comprising: - a lay-shaft which is rotatable around a central axis; - a first gearwheel rotatable around the lay-shaft and the central axis; - a second gearwheel fixedly connected to the lay-shaft and rotatable with the lay-shaft around the central axis; and - a clutching assembly rotatable around the lay-shaft and the central axis, the clutching assembly comprising a driven gearwheel and a clutching mechanism for selectively coupling the rotation of the driven gearwheel to either the first gearwheel or the second gearwheel, wherein the clutching assembly has a first axial end and a second axial end opposite the first axial end, wherein the first gearwheel and the second gearwheel are arranged on a part of the lay-shaft extending from the first axial end of the clutching assembly, characterized in that the driven gearwheel extends around the clutching mechanism and is positioned between the first and the second axial end (24, 26) of the clutching assembly, - a lay-shaft which is rotatable around a central axis; - a first gearwheel rotatable around the lay-shaft and the central axis; - a second gearwheel fixedly connected to the lay-shaft and rotatable with the lay-shaft around the central axis; and - a clutching assembly rotatable around the lay-shaft and the central axis, the clutching assembly comprising a driven gearwheel and a clutching mechanism for selectively coupling the rotation of the driven gearwheel to either the first gearwheel or the second gearwheel, wherein the clutching assembly has a first axial end and a second axial end opposite the first axial end, wherein the first gearwheel and the second gearwheel are arranged on a part of the lay-shaft extending from the first axial end of the clutching assembly, characterized in that the driven gearwheel extends around the clutching mechanism and is positioned between the first and the second axial end (24, 26) of the clutching assembly,
A device for delivering a soft tissue repair prosthetic, comprising: an expandable device configured to be removably connected with a soft tissue repair prosthetic, the expandable device having a first axis and a second axis, the first axis being substantially perpendicular to the second axis, the expandable device having a length measurable in a direction of the first axis and a width measurable in a direction of the second axis, wherein the second axis defines a maximum width of the expandable device, and the expandable device is configured to be manipulated about the first axis into a reduced configuration for insertion into a body; the expandable device including a first outer expandable segment, a second outer expandable segment, and an intermediate expandable segment extending therebetween, wherein the first and second outer expandable segments and the intermediate expandable segment extends substantially in the direction of the first axis, wherein each of the first and second outer expandable segments bow away from the intermediate expandable segment and form respective openings therebetween, and wherein no expandable segment connects either of the first and second outer expandable segments with the intermediate expandable segment along the second axis. an expandable device configured to be removably connected with a soft tissue repair prosthetic, the expandable device having a first axis and a second axis, the first axis being substantially perpendicular to the second axis, the expandable device having a length measurable in a direction of the first axis and a width measurable in a direction of the second axis, wherein the second axis defines a maximum width of the expandable device, and the expandable device is configured to be manipulated about the first axis into a reduced configuration for insertion into a body; the expandable device including a first outer expandable segment, a second outer expandable segment, and an intermediate expandable segment extending therebetween, wherein the first and second outer expandable segments and the intermediate expandable segment extends substantially in the direction of the first axis, wherein each of the first and second outer expandable segments bow away from the intermediate expandable segment and form respective openings therebetween, and wherein no expandable segment connects either of the first and second outer expandable segments with the intermediate expandable segment along the second axis.