mhurhangee/ep-ind-claims huggingface dataset:
A folding device designed to fold two end flaps of material adapted for forming belt loops to be applied on items of clothing or the like, comprising two rotating folding units that act by rotating reciprocally inversely, each of which comprises at least one pair of fork-like pins (13, 14) parallel and rotating for each edge of material of the belt loop to be folded over, said pins being able to be angularly rotated by means of a rotation shaft so as to undergo axial rotations by means of respective independent rotating devices (15, 16), each of said pairs of pins comprising a first pin, which in the rest position is positioned in parallel to and near a second pin and rotates about the axis of the latter in order to be placed from a first position of gripping the end of the belt loop to a position of complete folding of the belt loop, after a rotation according to a predetermined angle, every pair of fork-like pins (13, 14) being associated with a movement unit of which a third pin is part, which is partially shaped and parallel to the first and second pins (14a, 14b), characterised in that the third pin is applied on the edge of an annular bush that can rotate about said shaft which generates a rotation transmitted to the rotating devices (15, 16).
An antenna comprising: a plurality of sub-arrays, wherein a first sub-array of the plurality of sub-arrays is located at a first end of the antenna, and a second sub-array of the plurality of sub-arrays is located at a second end of the antenna, each sub-array including a power divider/combiner network, a first radiating element coupled to a first port of the power divider/combiner network, a second radiating element coupled to a second port of the power divider/combiner network, a transceiver coupled to a third port of the power divider/combiner network, the antenna being characterized by an adjustable power supply having a power compensation mode for increasing absolute power to a transceiver in a non-failed state by adjustment of a microcontroller. a plurality of sub-arrays, wherein a first sub-array of the plurality of sub-arrays is located at a first end of the antenna, and a second sub-array of the plurality of sub-arrays is located at a second end of the antenna, each sub-array including a power divider/combiner network, a first radiating element coupled to a first port of the power divider/combiner network, a second radiating element coupled to a second port of the power divider/combiner network, a transceiver coupled to a third port of the power divider/combiner network, the antenna being characterized by an adjustable power supply having a power compensation mode for increasing absolute power to a transceiver in a non-failed state by adjustment of a microcontroller.
An electrode assembly, comprising a negative electrode plate and a positive electrode plate, the negative electrode plate and the positive electrode plate forming a bending region by winding or folding; the positive electrode plate comprising a plurality of bending portions located in the bending region, the bending portion comprising a positive electrode current collecting layer and a positive active substance layer, and at least one side surface of the positive electrode current collecting layer being provided with the positive active substance layer in a thickness direction of the positive electrode plate; wherein, at least one positive active substance layer of the bending portion is provided with a barrier layer, at least a part of the barrier layer is intercalated in the positive active substance layer provided with the barrier layer, and coats at least a part of particles in the positive active substance layer, to prevent the particles from releasing an ion to the negative electrode plate. the positive electrode plate comprising a plurality of bending portions located in the bending region, the bending portion comprising a positive electrode current collecting layer and a positive active substance layer, and at least one side surface of the positive electrode current collecting layer being provided with the positive active substance layer in a thickness direction of the positive electrode plate; wherein, at least one positive active substance layer of the bending portion is provided with a barrier layer, at least a part of the barrier layer is intercalated in the positive active substance layer provided with the barrier layer, and coats at least a part of particles in the positive active substance layer, to prevent the particles from releasing an ion to the negative electrode plate.
Process of preparation of an ammonium nitrate-sulphate fertilizer from a solution slurry of ammonium nitrate-sulphate, characterized in that the solution slurry of ammonium nitrate-sulphate with crystal nuclei of the double salt with two molecules of ammonium nitrate and one molecule of ammonium sulphate is prepared by continuous dosing of ammonia treated melt of ammonium nitrate and the first part of ammonium sulphate under adding direct steam at a temperature of 60 to 120 °C, maintaining the molar ratio ammonium nitrate: ammonium sulphate in the slurry in the range of 1.8 to 2.2: 1, to the solution slurry neutral solution prepared by decomposition of dolomite with concentrated nitric acid is added in an amount of 3 to 7 % by weight and 0.1 to 0.3 % by weight of heptahydrate of ferrous sulphate, wherein the resulting solution slurry, containing 6.5 to 13.5 % by weight of water, is mixed with the second part of crystalline ammonium sulphate and return recycle at a temperature of the moist granulate of 65 to 110 °C with the molar ratio ammonium nitrate: ammonium sulphate lower than 2; the resulting moist granulate is dried by hot air at a granulate temperature of 50 to 125 °C, while under permanent decrease of water content the residual amount of free ammonium nitrate reacts completely under formation of dry granulate from which the production fraction of ammonium nitrate-sulphate fertilizer as well as undersize and oversize parts are obtained by sorting on a sieve, which portions are then returned after crushing them as a recycle.
Method for moving an instrument arm of a laparoscopy robot in the context of a surgical preparation, wherein the movement of the instrument arm outside the patient takes place such that an instrument attached to the instrument arm is positioned in a predeterminable relative position relative to a trocar placed in the patient, wherein the instrument is arranged in the relative position at a safe distance from the trocar outside the patient and - a spatial marker that can be located from outside the patient is applied to the trocar, - the spatial position of the trocar is detected on the basis of the spatial marker, - the desired position of the instrument arm is established from the spatial position and the relative position, - the actual position of the instrument arm is detected, - the instrument arm is moved into the desired position on the basis of the actual position, the desired position and an error minimisation method. - a spatial marker that can be located from outside the patient is applied to the trocar, - the spatial position of the trocar is detected on the basis of the spatial marker, - the desired position of the instrument arm is established from the spatial position and the relative position, - the actual position of the instrument arm is detected, - the instrument arm is moved into the desired position on the basis of the actual position, the desired position and an error minimisation method.
A transmitter unit for generating a modulated signal in a multi-carrier communication system, comprising: a plurality of encoders, each encoder operative to receive and code a respective channel data stream to generate a corresponding coded data stream; a plurality of scaling elements coupled to the plurality of encoders, each scaling element operative to receive and scale a respective coded data stream with a particular scaling factor to generate a corresponding scaled data stream; a parallel to serial converter configured to receive the scaled data streams from the plurality of scaling elements and configured to multiplex the received scaled coded data streams into a combined data stream; a symbol mapping element coupled to the parallel to serial converter and operative to receive and map data from the combined data stream to generate modulation symbol vectors, wherein each modulation symbol vector includes a plurality of data values used to modulate a plurality of tones to generate an OFDM symbol, wherein the data from each coded data stream is mapped to a respective set of one or more sets of one or more tones; and a modulator coupled to the symbol mapping element and operative to receive and modulate the modulation symbol vectors to provide a modulated signal. a plurality of encoders, each encoder operative to receive and code a respective channel data stream to generate a corresponding coded data stream; a plurality of scaling elements coupled to the plurality of encoders, each scaling element operative to receive and scale a respective coded data stream with a particular scaling factor to generate a corresponding scaled data stream; a parallel to serial converter configured to receive the scaled data streams from the plurality of scaling elements and configured to multiplex the received scaled coded data streams into a combined data stream; a symbol mapping element coupled to the parallel to serial converter and operative to receive and map data from the combined data stream to generate modulation symbol vectors, wherein each modulation symbol vector includes a plurality of data values used to modulate a plurality of tones to generate an OFDM symbol, wherein the data from each coded data stream is mapped to a respective set of one or more sets of one or more tones; and a modulator coupled to the symbol mapping element and operative to receive and modulate the modulation symbol vectors to provide a modulated signal.
A power transmission system comprising a series of two or more offshore converter platforms (2, 2') spaced apart from each other and distributed within an area, each offshore converter platform (2, 2') including: (i) a busbar (4, 4') carrying an ac voltage for the offshore converter platform and connectable to one or more devices, (ii) one or more converter transformers (12 1...12 p, 12' 1...12 p) connected to the busbar (4, 4'), and (iii) a single converter module or a series of two or more converter modules (18 1...18 p, 18' 1...18 p), each converter module having (a) ac terminals connected to a respective one of the converter transformers (12 1...12 p, 12' 1...12 p), and (b) first and second dc terminals; wherein for the first offshore converter platform in the series the first dc terminal of the single converter module or the first converter module (18 1) in the series of two or more converter modules (18 1...18 p, 18' 1...18 p) is connected to a first dc transmission line; wherein for each offshore converter platform apart from the last offshore converter platform in the series the second dc terminal of the single converter module or the last converter module (18 p) in the series of two or more converter modules (18 1...18 p, 18' 1...18 p) is connected to the first dc terminal of the single converter module or the first converter module (18 1) in the series of two or more converter modules (18 1...18 p, 18' 1...18 p) of the next offshore converter platform in the series by means of a dc connection line; and wherein for the last offshore converter platform in the series the second dc terminal of the single converter module or the last converter module (18 p) in the series of two or more converter modules (18 1...18 p, 18' 1...18 p) is connected to a second dc transmission line.
A method for monitoring performance of Virtualized Network Functions, VNF, in a virtual machine, wherein the virtual machine is assigned with one or more CPU cores, each CPU core supporting concurrent running of more than one VNF, the method comprising steps of: a. obtaining latency-related data of a VNF to be monitored; and b. evaluating performance of the VNF based on the latency-related data; wherein the latency-related data include external interrupt latency or timer latency, the external interrupt latency referring to an interval between the time when an external interrupt signal corresponding to the VNF to be monitored is sent and the time when the VNF to be monitored starts running, and the timer latency referring to an interval between the time when a timer expires and the time when a timer event handler corresponding to the VNF to be monitored begins working, wherein the external interrupt signal is sent by a peripheral component interconnect express, PCIe, device. a. obtaining latency-related data of a VNF to be monitored; and b. evaluating performance of the VNF based on the latency-related data; wherein the latency-related data include external interrupt latency or timer latency, the external interrupt latency referring to an interval between the time when an external interrupt signal corresponding to the VNF to be monitored is sent and the time when the VNF to be monitored starts running, and the timer latency referring to an interval between the time when a timer expires and the time when a timer event handler corresponding to the VNF to be monitored begins working, wherein the external interrupt signal is sent by a peripheral component interconnect express, PCIe, device.
A gas replacement apparatus comprising: a side holding unit that holds a side portion of a bag; a mouth holding unit that holds a mouth portion of the bag; a gas nozzle having an ejection port to eject a replacement gas; a side holding drive unit that moves the side holding unit; a mouth holding drive unit that moves the mouth holding unit; a gas nozzle drive unit that moves the gas nozzle; and a sealing unit that seals the mouth portion, wherein the side holding drive unit and the mouth holding drive unit move the side holding unit and the mouth holding unit from a first processing position to a second processing position while maintaining a state where the side holding unit holds the side portion and the mouth holding unit holds the mouth portion, and the gas nozzle drive unit moves the gas nozzle from the first processing position to the second processing position while maintaining a state where the ejection port is arranged inside the bag. a side holding unit that holds a side portion of a bag; a mouth holding unit that holds a mouth portion of the bag; a gas nozzle having an ejection port to eject a replacement gas; a side holding drive unit that moves the side holding unit; a mouth holding drive unit that moves the mouth holding unit; a gas nozzle drive unit that moves the gas nozzle; and a sealing unit that seals the mouth portion, wherein the side holding drive unit and the mouth holding drive unit move the side holding unit and the mouth holding unit from a first processing position to a second processing position while maintaining a state where the side holding unit holds the side portion and the mouth holding unit holds the mouth portion, and the gas nozzle drive unit moves the gas nozzle from the first processing position to the second processing position while maintaining a state where the ejection port is arranged inside the bag.
A food packaging film having sufficient flexibility so that it can be supplied in the form of a long continuous sheet rolled up on itself and then unwound from the roll for wrapping food items by hand, the food packing film comprising a flexible film substrate made from a material exhibiting a better resistance to penetration by oxygen and water vapor than paper, selected from the group consisting of synthetic resins, metal foils and naturally occurring film-forming resins which are at least one of degradable, biodegradable and compostable, the flexible film substrate having a pair of opposed major faces, and characterized by comprising a printed image on at least one major face, and a barrier coating covering the printed image, the barrier coating comprising a water vapor-impermeable, organic-origin, food compatible film forming material having a resistance to permeation by water vapor at room temperature which is at least 50% of that of refined bleached shellac; and an oxygen impermeability of at least 50% of that of refined bleached shellac.
Apparatus for the additive manufacture of three-dimensional objects by successive, layer-by-layer selective exposure and thus successive, layer-by-layer selective solidification of construction material layers of a construction material that can be solidified by means of an energy beam, comprising a filter device, which is adapted to filter a process gas arising in the course of executing additive construction processes in a process chamber of the apparatus, in particular containing impurities arising due to the process, characterised in that the filter device comprises several filter modules each with a filter module housing, wherein each filter module housing comprises a filter body receiving space of a geometrically defined configuration, which space is adapted to receive a defined number of filter bodies of a geometrically defined configuration, wherein each filter module comprises connection interfaces (19, 20) on the filter module via which it can be or is connected if required to defined connection areas (21, 22) on the apparatus of a pipe structure through which the process gas can flow or flows, wherein the filter body receiving spaces of the respective filter module housings differ in their respective filter body receiving volumes, so that in each filter body receiving space only a defined number of filter bodies of a geometrically defined configuration can be received.
Cooking appliance comprising respectively bottom and top subassemblies, hinged together and respectively comprising: - a bottom structure and at least one bottom heating plate which is removable therefrom and which includes a handle, - a top structure and a top heating plate, - a cooking chamber for the food defined between the top and bottom heating plates, - a releaseable locking device that makes it possible to reversibly immobilize the heating plate on the bottom structure, characterized in that it comprises a device for ejecting the or at least one of the bottom heating plates, adapted to separate this heating plate from the bottom structure, when the locking device is released, the bottom heating plate having, towards the opposite of the handle, at least one snug which engages in at least one slot of the bottom structure and which produces a hinge effect when the ejection device separates this heating plate from the bottom structure, the plate then being positioned at a slant. - a bottom structure and at least one bottom heating plate which is removable therefrom and which includes a handle, - a top structure and a top heating plate, - a cooking chamber for the food defined between the top and bottom heating plates, - a releaseable locking device that makes it possible to reversibly immobilize the heating plate on the bottom structure,
A process for preparing a pharmaceutical formulation comprising Asp B28 human insulin, protamine, Zn ++, a buffer, an isotonicity agent, a phenolic compound, and salt, wherein the weight ratio of dissolved to crystalline Asp B28 human insulin is 30:70, wherein said process comprises the following steps: • Preparing Solution I by dissolving 2.50 g disodium phosphate dihydrate and 0.88 g sodium chloride in water for injection, then 1.24 g phenol, 8 g glycerol and 4.6 g sodium hydroxide 2N is added during mixing and water is added to 450 ml. • Solution II is prepared by dissolving 0.88 g sodium chloride, 1.24 g phenol and 4 g glycerol in water, then 0.64 g protamine sulphate in solution is added to the solution while mixing and 7.5 g of AspB 28 human insulin dissolved in water by adding to it 3.4 g 2 N hydrochloric acid and 1.04 g zinc chloride solution (4 mg/ml) was added to the solution while mixing, and finally water ad 500 ml is added. • The Solutions I and II are mixed and the pH of the suspension is, if necessary, readjusted to approx. 7.2 by adding sodium hydroxide or hydrochloric acid, and finally water ad 1000 ml is added. • The resulting suspension is now allowed to crystallise. • Solution III is prepared by dissolving 0.62 g phenol, 3.54 g of metacresol and 16 g of glycerol, and water is added to 900 ml. • Solution III and the crystallization mixture are mixed and the pH of the suspension is, if necessary, readjusted to 7.2 by adding sodium hydroxide or hydrochloric acid, and finally water ad 2000 ml was added. • Preparing Solution I by dissolving 2.50 g disodium phosphate dihydrate and 0.88 g sodium chloride in water for injection, then 1.24 g phenol, 8 g glycerol and 4.6 g sodium hydroxide 2N is added during mixing and water is added to 450 ml. • Solution II is prepared by dissolving 0.88 g sodium chloride, 1.24 g phenol and 4 g glycerol in water, then 0.64 g protamine sulphate in solution is added to the solution while mixing and 7.5 g of AspB 28 human insulin dissolved in water by adding to it 3.4 g 2 N hydrochloric acid and 1.04 g zinc chloride solution (4 mg/ml) was added to the solution while mixing, and finally water ad 500 ml is added. • The Solutions I and II are mixed and the pH of the suspension is, if necessary, readjusted to approx. 7.2 by adding sodium hydroxide or hydrochloric acid, and finally water ad 1000 ml is added. • The resulting suspension is now allowed to crystallise. • Solution III is prepared by dissolving 0.62 g phenol, 3.54 g of metacresol and 16 g of glycerol, and water is added to 900 ml. • Solution III and the crystallization mixture are mixed and the pH of the suspension is, if necessary, readjusted to 7.2 by adding sodium hydroxide or hydrochloric acid, and finally water ad 2000 ml was added.
A bolt with a head configured as a force applying member and a shaft portion, on which a thread is formed, wherein said bolt is configured as an injection-moulded part, especially a plastic injection-moulded part, and has a coil in the region of its leading end, which has a radially outer profile that is configured for tapping a thread, wherein said coil is encapsulated by the material of the shaft of said bolt in such a way that the radially outer profile protrudes at least in some portions radially beyond said shaft portion and is disposed on an imaginary periodical continuation of said thread. wherein said bolt is configured as an injection-moulded part, especially a plastic injection-moulded part, and has a coil in the region of its leading end, which has a radially outer profile that is configured for tapping a thread, wherein said coil is encapsulated by the material of the shaft of said bolt in such a way that the radially outer profile protrudes at least in some portions radially beyond said shaft portion and is disposed on an imaginary periodical continuation of said thread.
Process for preparing 2,2-difluoroethylamine, comprising the following steps: (i) mixing 2,2-difluoro-1-chloroethane and gaseous, liquid or supercritical ammonia in a pressure-stable, closed reaction vessel under a pressure in the range from 10 to 180 bar; (ii) reacting the reaction mixture at a reaction temperature in the range from 80°C to 200°C; (iii) letting down the reaction mixture and isolating 2,2-difluoroethylamine, no solvent being used in the process. (i) mixing 2,2-difluoro-1-chloroethane and gaseous, liquid or supercritical ammonia in a pressure-stable, closed reaction vessel under a pressure in the range from 10 to 180 bar; (ii) reacting the reaction mixture at a reaction temperature in the range from 80°C to 200°C; (iii) letting down the reaction mixture and isolating 2,2-difluoroethylamine, no solvent being used in the process.