mhurhangee/ep-ind-claims huggingface dataset:
A slurry recycling apparatus in which a molded body obtained by wet molding, in magnetic field, slurry formed of alloy powder for a rare earth sintered magnet and mineral oil and/or synthetic fluid is crushed in mineral oil and/or synthetic fluid to recycle the molded body into slurry, wherein the slurry recycling apparatus including: a) a roughly crushing tank including roughly crushing teeth which roughly crush the molded body, and b) finely crushing tank including finely crushing teeth which finely crush the roughly crushed molded body, wherein a lower portion of the roughly crushing tank and an upper portion of the finely crushing tank are in communication with each other, c) a passage, wherein the finely crushing tank and a portion in the roughly crushing tank which is higher than the roughly crushing teeth are in communication with each other through the passage, and d) a filter portion provided in a halfway portion in the passage, wherein the filter portion includes a first filter and a second filter, wherein fine foreign matters which pass through the first filter are removed by the second filter, and wherein the first filter is a plate-like punching metal in which a plurality of holes are formed, and wherein the second filter is a cylindrical filter in which annular plates are laminated on each other such that a gap is formed between opposed surfaces of the annular plates. a) a roughly crushing tank including roughly crushing teeth which roughly crush the molded body, and b) finely crushing tank including finely crushing teeth which finely crush the roughly crushed molded body, wherein a lower portion of the roughly crushing tank and an upper portion of the finely crushing tank are in communication with each other, c) a passage, wherein the finely crushing tank and a portion in the roughly crushing tank which is higher than the roughly crushing teeth are in communication with each other through the passage, and d) a filter portion provided in a halfway portion in the passage, wherein the filter portion includes a first filter and a second filter, wherein fine foreign matters which pass through the first filter are removed by the second filter, and wherein the first filter is a plate-like punching metal in which a plurality of holes are formed, and wherein the second filter is a cylindrical filter in which annular plates are laminated on each other such that a gap is formed between opposed surfaces of the annular plates. wherein the filter portion includes a first filter and a second filter, wherein fine foreign matters which pass through the first filter are removed by the second filter, and wherein the first filter is a plate-like punching metal in which a plurality of holes are formed, and wherein the second filter is a cylindrical filter in which annular plates are laminated on each other such that a gap is formed between opposed surfaces of the annular plates.
Method for providing subscription profiles (11a, 11b, 11x) to a subscriber identity module by means of a subscription server, wherein the subscription server has knowledge about a first subscription profile installed in the subscriber identity module and having a first profile file structure and first profile data stored in the first profile file structure, wherein the following method steps proceed in the subscription server: - marking at least one part of a second profile file structure of a second subscription profile; and - transmitting the second subscription profile to the subscriber identity module, wherein the marked part of the second subscription profile is transmitted without second profile data, wherein in the transmitting step those first profile data of the first subscription profile which are to be copied are specified in order to be stored as second profile data in the marked part of the second profile file structure of the second subscription profile. - marking at least one part of a second profile file structure of a second subscription profile; and - transmitting the second subscription profile to the subscriber identity module, wherein the marked part of the second subscription profile is transmitted without second profile data, wherein in the transmitting step those first profile data of the first subscription profile which are to be copied are specified in order to be stored as second profile data in the marked part of the second profile file structure of the second subscription profile.
A process for extracting seed-oil from an oil-containing seed product, comprising: a) providing the seed product to a grinder; b) providing a first liquid comprising a solvent to the grinder, and wherein the solvent is selected from the group consisting of; hexane, methyl alcohol, ethyl alcohol, propyl alcohol, iso-propyl alcohol, petroleum ether, and other solvents in the hexane series such as butane, pentane, and heptane and mixtures of the foregoing; c) grinding the seed product and the liquid to yield a slurry; d) subjecting the slurry to a slurry extraction and slurry separation step to yield a processed seed product and a liquid product, the liquid product comprising seed-oil and the solvent; and e) subjecting at least a first portion of the liquid product to an oil separation step to separate the seed-oil from the solvent to obtain a seed-oil product; wherein step (b) comprises recycling at least a second portion of the liquid product to the grinder; characterized in that step (d) comprises a multi-stage step including at least a first stage and a final stage, wherein in each stage, a stage feed slurry is mixed with a stage feed liquid, the stage feed liquid comprising seed-oil and solvent, to yield a stage secondary slurry, and the stage secondary slurry is processed to yield a stage outlet liquid comprising seed-oil and solvent and a stage outlet slurry comprising ground seed, and at least a portion of the stage outlet slurry of at least one stage is forwarded to a downstream stage and at least a portion of the stage outlet liquid of at least one stage is recycled to an upstream stage; the stage outlet slurry from the final stage is further processed to yield the processed seed product; and at least a portion of the stage outlet liquid from the first stage is removed to provide the liquid product. a) providing the seed product to a grinder; b) providing a first liquid comprising a solvent to the grinder, and wherein the solvent is selected from the group consisting of; hexane, methyl alcohol, ethyl alcohol, propyl alcohol, iso-propyl alcohol, petroleum ether, and other solvents in the hexane series such as butane, pentane, and heptane and mixtures of the foregoing; c) grinding the seed product and the liquid to yield a slurry; d) subjecting the slurry to a slurry extraction and slurry separation step to yield a processed seed product and a liquid product, the liquid product comprising seed-oil and the solvent; and e) subjecting at least a first portion of the liquid product to an oil separation step to separate the seed-oil from the solvent to obtain a seed-oil product;
Use of a composition comprising: 0.001-50 wt. % of at least one detersive surfactant; at least 10 wt. % of a diluent, the diluent including water; and 0.01-40 wt. % of particles comprising at least one of an anionic polyurethane polymer and an anionic polyurethane hybrid polymer, as an aqueous dispersion, the particles having a mean particle size of less than 170 nm (as measured by a Malvern Zetasizer Nano-S90 particle size analyzer with a data analysis by Zetasizer Software 6.12 and NanoTrakTM particle size analyzer), wherein the particles of anionic polyurethane hybrid polymer are prepared from at least one ethylenically unsaturated monomer in the presence of a preformed polyurethane polymer, whereby the particles of anionic polyurethane hybrid polymer include a polymer derived from the at least one ethylenically unsaturated monomer supported within particles of polyurethane polymer as a hard surface cleaner and shine enhancer. 0.001-50 wt. % of at least one detersive surfactant; at least 10 wt. % of a diluent, the diluent including water; and 0.01-40 wt. % of particles comprising at least one of an anionic polyurethane polymer and an anionic polyurethane hybrid polymer, as an aqueous dispersion, the particles having a mean particle size of less than 170 nm (as measured by a Malvern Zetasizer Nano-S90 particle size analyzer with a data analysis by Zetasizer Software 6.12 and NanoTrakTM particle size analyzer), wherein the particles of anionic polyurethane hybrid polymer are prepared from at least one ethylenically unsaturated monomer in the presence of a preformed polyurethane polymer, whereby the particles of anionic polyurethane hybrid polymer include a polymer derived from the at least one ethylenically unsaturated monomer supported within particles of polyurethane polymer as a hard surface cleaner and shine enhancer.
A liquid metal sensor comprising: a host; a metal layer deposited on the host; an oxidized metal layer deposited on the metal layer, the oxidized metal layer comprising a channel; a separating component formed on the metal layer and adapted to divide the channel into a first portion and a second portion, wherein the first portion comprises liquid metal and wherein the second portion comprises gas, and wherein the liquid metal moves within the channel between the first and the second portions (110, 120) in response to an external pressure, and wherein the liquid metal moving within the channel changes electrical characteristics of the liquid metal sensor; a hard mask deposited and formed over at least a portion of the oxidized metal layer thereby masking the second portion, but without fully masking the first portion; and a cap formed over said hard mask, the cap encapsulating the channel and the separating component within. a host; a metal layer deposited on the host; an oxidized metal layer deposited on the metal layer, the oxidized metal layer comprising a channel; a separating component formed on the metal layer and adapted to divide the channel into a first portion and a second portion, wherein the first portion comprises liquid metal and wherein the second portion comprises gas, and wherein the liquid metal moves within the channel between the first and the second portions (110, 120) in response to an external pressure, and wherein the liquid metal moving within the channel changes electrical characteristics of the liquid metal sensor; a hard mask deposited and formed over at least a portion of the oxidized metal layer thereby masking the second portion, but without fully masking the first portion; and a cap formed over said hard mask, the cap encapsulating the channel and the separating component within.
A process for manufacturing a semiconductor device, the process comprising the following steps of: covering an active surface of a semiconductor chip having electrodes with an insulating layer having perforations at positions directly above the electrodes; forming rewiring circuits on the insulating layer so that each rewiring circuit provides electrical connection between an electrode of the semiconductor chip in the bottom of a said perforation and an outer bump; forming a conductive pad formed as a part of each rewiring circuit at a peripheral portion of each rewiring circuit; attaching an insulating film to the rewiring circuit and a surface of the insulating layer at a peripheral portion of the rewiring circuit, the insulating film having through holes so that the conductive pads are exposed in the through holes; and superimposing the outer bump on the conductive pad in a respective through hole so as to project to an outside opposite to the semiconductor chip, wherein the semiconductor chip electrodes are arranged at a small pitch and wherein the outer bumps are arranged at a large pitch in a matrix manner. covering an active surface of a semiconductor chip having electrodes with an insulating layer having perforations at positions directly above the electrodes; forming rewiring circuits on the insulating layer so that each rewiring circuit provides electrical connection between an electrode of the semiconductor chip in the bottom of a said perforation and an outer bump; forming a conductive pad formed as a part of each rewiring circuit at a peripheral portion of each rewiring circuit; attaching an insulating film to the rewiring circuit and a surface of the insulating layer at a peripheral portion of the rewiring circuit, the insulating film having through holes so that the conductive pads are exposed in the through holes; and superimposing the outer bump on the conductive pad in a respective through hole so as to project to an outside opposite to the semiconductor chip, wherein the semiconductor chip electrodes are arranged at a small pitch and wherein the outer bumps are arranged at a large pitch in a matrix manner.
A behind-the-ear sound processor module for use in a device (10, 12) for neural stimulation of a patient's hearing, comprising: a BTE-housing to be worn behind an ear of the patient; an adjustable microphone module attached to the BTE-housing for capturing input audio signals from ambient sound; a sound processor unit for generating, from the input audio signals, a neural hearing stimulation signal to be supplied to an implantable neural stimulation arrangement, wherein the microphone module comprises a plurality of microphones (20A-20E; 20F) and a support element for carrying the microphones, wherein the support element is movable between a beamformer position enabling the plurality of microphones to act as a directional microphone array in a beamformer audio signal processing mode of the sound processor unit and a T-Mic position enabling at least one (20A, 20B; 20F) of the microphones to act as an external microphone placed within the concha near the entrance of the ear canal in a T-Mic audio signal processing mode of the sound processor unit at a position closer to the entrance of the ear canal than in the beamformer position. a BTE-housing to be worn behind an ear of the patient; an adjustable microphone module attached to the BTE-housing for capturing input audio signals from ambient sound; a sound processor unit for generating, from the input audio signals, a neural hearing stimulation signal to be supplied to an implantable neural stimulation arrangement, wherein the microphone module comprises a plurality of microphones (20A-20E; 20F) and a support element for carrying the microphones, wherein the support element is movable between a beamformer position enabling the plurality of microphones to act as a directional microphone array in a beamformer audio signal processing mode of the sound processor unit and a T-Mic position enabling at least one (20A, 20B; 20F) of the microphones to act as an external microphone placed within the concha near the entrance of the ear canal in a T-Mic audio signal processing mode of the sound processor unit at a position closer to the entrance of the ear canal than in the beamformer position.
Apparatus for producing sterile receptacles, comprising: an aseptical stretch-blowing forming unit having a plurality of forming stations in each of which two half-moulds (6a, 6b) are arranged that can be moved towards one another to define at least one housing cavity for housing a parison made of thermoplastic material, characterised in that it comprises: a moulding unit for moulding parisons starting from granules of thermoplastic material, said moulding unit being placed upstream of said forming unit; a plurality of organs (14, 15) for picking the parisons to handle them inside said units (3, 13) and to transfer them from said moulding unit to said forming unit, said picking organs (14, 15) being operatively active solely on the exterior of said parisons in order to avoid their internal contamination; a plurality of sterilisation devices, each of which is situated in one of said forming stations so as to sterilise the parisons that arrive in the corresponding housing cavities. a moulding unit for moulding parisons starting from granules of thermoplastic material, said moulding unit being placed upstream of said forming unit; a plurality of organs (14, 15) for picking the parisons to handle them inside said units (3, 13) and to transfer them from said moulding unit to said forming unit, said picking organs (14, 15) being operatively active solely on the exterior of said parisons in order to avoid their internal contamination; a plurality of sterilisation devices, each of which is situated in one of said forming stations so as to sterilise the parisons that arrive in the corresponding housing cavities.
A climate controlled seating assembly comprising: a thermal module (14, 114) comprising: at least one inlet channel; at least one outlet channel; a thermoelectric device positioned upstream of the at least one outlet channel, the thermoelectric device being configured to selectively heat or cool a fluid passing through an interior of the thermal module; and a fluid transfer device configured to transfer a fluid from the at least one inlet channel to the at least one outlet channel; and a sensor configured to detect a relative humidity of air being delivered through the climate controlled seating assembly, the sensor positioned along the thermal module near the thermoelectric device, wherein the thermal module and the sensor are coupled to a controller (650, 750) configured to regulate a voltage supplied to the thermoelectric device based on the sensor detecting a relative humidity of air. a thermal module (14, 114) comprising: at least one inlet channel; at least one outlet channel; a thermoelectric device positioned upstream of the at least one outlet channel, the thermoelectric device being configured to selectively heat or cool a fluid passing through an interior of the thermal module; and a fluid transfer device configured to transfer a fluid from the at least one inlet channel to the at least one outlet channel; and at least one inlet channel; at least one outlet channel; a thermoelectric device positioned upstream of the at least one outlet channel, the thermoelectric device being configured to selectively heat or cool a fluid passing through an interior of the thermal module; and a fluid transfer device configured to transfer a fluid from the at least one inlet channel to the at least one outlet channel; and a sensor configured to detect a relative humidity of air being delivered through the climate controlled seating assembly, the sensor positioned along the thermal module near the thermoelectric device, wherein the thermal module and the sensor are coupled to a controller (650, 750) configured to regulate a voltage supplied to the thermoelectric device based on the sensor detecting a relative humidity of air.
A method for controlling fermentation of a fermenting substance, in which a fermentation process is monitored and the temperature and sugar breakdown rate of the fermenting substance are determined, wherein the fermentation process is controlled by influencing the temperature of the fermenting substance, wherein a fermentation temperature regulation is performed, characterized in that a temperature correction value T 2 - T 1 from the equation Q 10 = R Z − Soll R Z − Ist 10 ⁢ K T 2 − T 1 is calculated and from this, a value for the target temperature T2 is determined and set, wherein R Z-Ist is the current sugar breakdown rate at the determined temperature (actual temperature) T1, and R Z-Soll is the desired sugar breakdown rate at the target temperature T2, and Q10 is the factor by which the sugar breakdown rate concretely rises when the temperature is increased by 10 K. is calculated and from this, a value for the target temperature T2 is determined and set, wherein R Z-Ist is the current sugar breakdown rate at the determined temperature (actual temperature) T1, and R Z-Soll is the desired sugar breakdown rate at the target temperature T2, and Q10 is the factor by which the sugar breakdown rate concretely rises when the temperature is increased by 10 K.
A method of forming a microdevice comprising a plurality of nanowires on a biocompatible surface, comprising: a) depositing onto a surface of a first planar biocompatible polymeric layer a second planar biocompatible polymeric layer, wherein the melting temperature of the first biocompatible polymeric layer is higher than the melting temperature of the second biocompatible polymeric layer; b) contacting a surface of the second planar biocompatible polymeric layer with a nanoporous membrane; c) forming the second planar biocompatible polymeric layer into a plurality of nanowires using the nanoporous membrane as a template; and d) dissolving the nanoporous membrane, wherein the nanowires are present on only one surface of the microdevice. a) depositing onto a surface of a first planar biocompatible polymeric layer a second planar biocompatible polymeric layer, wherein the melting temperature of the first biocompatible polymeric layer is higher than the melting temperature of the second biocompatible polymeric layer; b) contacting a surface of the second planar biocompatible polymeric layer with a nanoporous membrane; c) forming the second planar biocompatible polymeric layer into a plurality of nanowires using the nanoporous membrane as a template; and d) dissolving the nanoporous membrane,
An electronic device, comprising a first body, a second body, a middle cover, and a flexible printed circuit; wherein the flexible printed circuit comprises a through-shaft section, a reinforcing plate is provided on a surface of the through-shaft section, and the reinforcing plate comprises a support sheet and a flexible region; and the flexible region is provided on the support sheet or divides the support sheet into a plurality of sheet bodies, and the support sheet is stacked on and fastened to a surface of the through-shaft section; and the first body and the second body are rotatably connected to two opposite sides of the middle cover, respectively, and the electronic device comprises a gap connecting the first body, the second body, and the middle cover; and the flexible printed circuit is located in the gap and extends from the first body to the second body to connect the first body and the second body, the reinforcing plate is located in the middle cover, and the support sheet is fastened to the middle cover. the flexible printed circuit comprises a through-shaft section, a reinforcing plate is provided on a surface of the through-shaft section, and the reinforcing plate comprises a support sheet and a flexible region; and the flexible region is provided on the support sheet or divides the support sheet into a plurality of sheet bodies, and the support sheet is stacked on and fastened to a surface of the through-shaft section; and the first body and the second body are rotatably connected to two opposite sides of the middle cover, respectively, and the electronic device comprises a gap connecting the first body, the second body, and the middle cover; and the flexible printed circuit is located in the gap and extends from the first body to the second body to connect the first body and the second body, the reinforcing plate is located in the middle cover, and the support sheet is fastened to the middle cover.