mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a damper for an air line of an internal combustion engine, in particular for a charge air line of an internal combustion engine having a turbocharger, comprising the following method steps: - producing and providing a tempered inner part which has passages, - creating a tubular preform of an outer shell from a thermoplastic melt, - applying the tempered inner part onto a blow mandrel of a blow mold which is open, wherein the blow mandrel has air ducts which open into outlet openings of the blow mandrel, and the passages are positioned over the outlet openings, - applying the tempered preform over the inner part, - closing the blow mold and inflating the preform against the walls of the blow mold, by which means an outer shell is obtained and a pressing of the preform and the inner part against each other in some places along connection areas in order to obtain local connections between the inner part and outer shell, and - opening the blow mold and removing the damper, wherein - the preform and the inner part are brought to a temperature of at least 100°C before the blowing and pressing are carried out. - producing and providing a tempered inner part which has passages, - creating a tubular preform of an outer shell from a thermoplastic melt, - applying the tempered inner part onto a blow mandrel of a blow mold which is open, wherein the blow mandrel has air ducts which open into outlet openings of the blow mandrel, and the passages are positioned over the outlet openings, - applying the tempered preform over the inner part, - closing the blow mold and inflating the preform against the walls of the blow mold, by which means an outer shell is obtained and a pressing of the preform and the inner part against each other in some places along connection areas in order to obtain local connections between the inner part and outer shell, and - opening the blow mold and removing the damper, wherein - the preform and the inner part are brought to a temperature of at least 100°C before the blowing and pressing are carried out.
A process for the preparation of a homogeneous spinning solution for the production of acrylic fibers, which comprises: i) a preparation step of an aqueous suspension of homopolymer or copolymer of acrylonitrile through the polymerization of monomers in aqueous suspension, removal of the unreacted monomers, filtration and washing of the aqueous suspension, obtaining a filtration cake, said process also being characterized by the following steps: ii) the filtration cake comprising polymer and water in a ratio ranging from 40/60 to 60/40 by weight, preferably in a weight ratio equal to 1:1, is dispersed in a quantity of dimethyl sulfoxide (DMSO) and possibly water which varies from 2 to 6 times the weight of the cake, said DMSO being at a temperature ranging from 5 to 10°C and with the possible addition of water in a quantity ranging from 0 to 10% by weight with respect to the total weight of DMSO and water; iii) the dispersion of polymer in DMSO and water, obtained in step ii), is subjected to an evaporation step, carried out at a temperature ranging from 40 to 80°C, preferably from 50 to 70°C, for a time ranging from 3 to 60 minutes, preferably from 10 to 40 minutes, at a pressure ranging from 1.3 to 5.5 KPa, preferably from 1.3 to 2.7 KPa. i) a preparation step of an aqueous suspension of homopolymer or copolymer of acrylonitrile through the polymerization of monomers in aqueous suspension, removal of the unreacted monomers, filtration and washing of the aqueous suspension, obtaining a filtration cake, ii) the filtration cake comprising polymer and water in a ratio ranging from 40/60 to 60/40 by weight, preferably in a weight ratio equal to 1:1, is dispersed in a quantity of dimethyl sulfoxide (DMSO) and possibly water which varies from 2 to 6 times the weight of the cake, said DMSO being at a temperature ranging from 5 to 10°C and with the possible addition of water in a quantity ranging from 0 to 10% by weight with respect to the total weight of DMSO and water; iii) the dispersion of polymer in DMSO and water, obtained in step ii), is subjected to an evaporation step, carried out at a temperature ranging from 40 to 80°C, preferably from 50 to 70°C, for a time ranging from 3 to 60 minutes, preferably from 10 to 40 minutes, at a pressure ranging from 1.3 to 5.5 KPa, preferably from 1.3 to 2.7 KPa.
A method for creating an enhanced ringtone played on mobile computing devices, comprising the steps of: a. selecting a digital base music ringtone (1010, 1020, 1030); b. performing rhythmic and harmonic analysis on said selected digital_base music ringtone to produce a collection of individual notes; c. computing MIDI synthetic tones at the location of said produced notes in said digital base ringtone taken from said analysis of the digital base music ringtone to match the time-data, amplitude and pitches of the notes determined during said analysis; d. shifting the plurality of said computed MIDI synthetic tones two octaves higher than the determined notes of the digital base music ringtone, e. applying said synthetic tones to determined location of notes in said digital base ringtone according to said analysis, f. combining the digital base music ringtone with the digital sequence of synthetic tones, g. therewith creating an enhanced ringtone. a. selecting a digital base music ringtone (1010, 1020, 1030); b. performing rhythmic and harmonic analysis on said selected digital_base music ringtone to produce a collection of individual notes; c. computing MIDI synthetic tones at the location of said produced notes in said digital base ringtone taken from said analysis of the digital base music ringtone to match the time-data, amplitude and pitches of the notes determined during said analysis; d. shifting the plurality of said computed MIDI synthetic tones two octaves higher than the determined notes of the digital base music ringtone, e. applying said synthetic tones to determined location of notes in said digital base ringtone according to said analysis, f. combining the digital base music ringtone with the digital sequence of synthetic tones, g. therewith creating an enhanced ringtone.
A breathing mask, comprising: a receiving cover, comprising an engagement portion for engaging a patient's mouth portion and/or nose portion, a connection portion for connection to a breathing pipe, and an elastic deformable portion connecting the engagement portion with the connection portion; and a bracket assembly comprising a forehead support with an annular portion, sleeved around the connection portion and a receiving cover fixing frame, fixedly disposed external of the engagement portion; and wherein the forehead support is constructed swingable towards or away from the patient's forehead relative to the receiving cover such that the elastic deformable portion is in a compressed state or an expanded state, characterized in that the elastic deformable portion comprises a flat structure, disposed on a bottom of the receiving cover; and a wrinkle structure, extending downward along both sides from a top of the receiving cover to the flat structure; and the bracket assembly further comprises an elastic member, disposed at a bottom of the receiving cover and connecting the forehead support with the receiving cover fixing frame. a receiving cover, comprising an engagement portion for engaging a patient's mouth portion and/or nose portion, a connection portion for connection to a breathing pipe, and an elastic deformable portion connecting the engagement portion with the connection portion; and a bracket assembly comprising a forehead support with an annular portion, sleeved around the connection portion and a receiving cover fixing frame, fixedly disposed external of the engagement portion; and wherein the forehead support is constructed swingable towards or away from the patient's forehead relative to the receiving cover such that the elastic deformable portion is in a compressed state or an expanded state, characterized in that the elastic deformable portion comprises a flat structure, disposed on a bottom of the receiving cover; and a wrinkle structure, extending downward along both sides from a top of the receiving cover to the flat structure; and the bracket assembly further comprises an elastic member, disposed at a bottom of the receiving cover and connecting the forehead support with the receiving cover fixing frame.
A mobile relay system for supporting communications between a fixed station (BS, BS, Fixed RS) and mobile stations comprising: a plurality of mobile relay stations (MRS1, MRS2, MRS3, MRS4, MRS5) that are associated with each other and provided on a moving platform, wherein each of the plurality of mobile relay stations (MRS1, MRS2, MRS3, MRS4, MRS5) is arranged to facilitate communications with mobile stations within communication range, at least one of the plurality of mobile relay stations (MRS1, MRS2, MRS3, MRS4, MRS5) is arranged to facilitate communications with a fixed station (BS, BS1, Fixed RS) within communication range of the at least one of the plurality of mobile relay stations (MRS1, MRS2, MRS3, MRS4, MRS5), and wherein a mobile relay station of the plurality of mobile relay stations (MRS1, MRS2, MRS3, MRS4, MRS5) is arranged to receive a neighbourhood profile from a mobile station connected to the mobile relay station, wherein the neighbourhood profile reports a further mobile relay station detected by the mobile station. a plurality of mobile relay stations (MRS1, MRS2, MRS3, MRS4, MRS5) that are associated with each other and provided on a moving platform, wherein each of the plurality of mobile relay stations (MRS1, MRS2, MRS3, MRS4, MRS5) is arranged to facilitate communications with mobile stations within communication range, at least one of the plurality of mobile relay stations (MRS1, MRS2, MRS3, MRS4, MRS5) is arranged to facilitate communications with a fixed station (BS, BS1, Fixed RS) within communication range of the at least one of the plurality of mobile relay stations (MRS1, MRS2, MRS3, MRS4, MRS5), and wherein a mobile relay station of the plurality of mobile relay stations (MRS1, MRS2, MRS3, MRS4, MRS5) is arranged to receive a neighbourhood profile from a mobile station connected to the mobile relay station, wherein the neighbourhood profile reports a further mobile relay station detected by the mobile station.
Arrangement equipped with a counter pendulum device for ringing a bell suspended on a bell axis, the counter pendulum device comprising at least one counter pendulum (16, 17) which can be driven by at least one linear motor (12, 13; 42) comprising a stator and a rotor (10, 11; 40, 43 and 14, 15; 41, 44), characterized in that the at least one counter pendulum (16, 17) is mounted on the bell axis in a freely swinging manner.
A method for charging electric vehicles (EV1, EV2,... EVj) by a charging station having a plurality of electric vehicle supply equipment (EVSE1, EVSE2,... EVSEk) for charging, characterized by the steps of a) Determining charging information of the electric vehicles (EV1, EV2,... EVj), b) Determining charging power information of the charging station, c) Determining charging power information of each electric vehicle supply equipment (EVSE1, EVSE2,... EVSEk), d) Calculating a plurality of future charging profiles for the charging station based on the determined charging power information of step b) and step c) and the determined charging information of step a), e) Selecting one calculated future charging profile according to at least one optimization parameter, f) Determining a sequence of electric vehicles (EV1, EV2,... EVj) for at least one electric vehicle supply equipment (EVSE1, EVSE2,... EVSEk), wherein the sequence based on the selected future charging profile, g) Assigning the electric vehicles (EV1, EV2,... EVj) according to the corresponding determined sequence to the corresponding electric vehicle supply equipment (EVSE1, EVSE2,... EVSEk) and h) Charging the electric vehicles (EV1, EV2,... EVj) by the assigned electric vehicle supply equipment (EVSE1, EVSE2,... EVSEk) according to the determined charging information of the electric vehicles (EV1, EV2,... EVj) and the determined charging power information of the assigned electric vehicle supply equipment (EVSE1, EVSE2,... EVSEk). a) Determining charging information of the electric vehicles (EV1, EV2,... EVj), b) Determining charging power information of the charging station, c) Determining charging power information of each electric vehicle supply equipment (EVSE1, EVSE2,... EVSEk), d) Calculating a plurality of future charging profiles for the charging station based on the determined charging power information of step b) and step c) and the determined charging information of step a), e) Selecting one calculated future charging profile according to at least one optimization parameter, f) Determining a sequence of electric vehicles (EV1, EV2,... EVj) for at least one electric vehicle supply equipment (EVSE1, EVSE2,... EVSEk), wherein the sequence based on the selected future charging profile, g) Assigning the electric vehicles (EV1, EV2,... EVj) according to the corresponding determined sequence to the corresponding electric vehicle supply equipment (EVSE1, EVSE2,... EVSEk) and h) Charging the electric vehicles (EV1, EV2,... EVj) by the assigned electric vehicle supply equipment (EVSE1, EVSE2,... EVSEk) according to the determined charging information of the electric vehicles (EV1, EV2,... EVj) and the determined charging power information of the assigned electric vehicle supply equipment (EVSE1, EVSE2,... EVSEk).
A process for making a soap bar composition comprising 75-97% of total bar volume of a matrix comprising long-chain soap and 3 to 25% of total bar volume of regions interspersed in said matrix, the regions comprising short chain soaps: wherein long chain soap means soap molecules having chain length of C 14 or greater and 75% or greater of the soap molecules in the matrix are long chain soaps; wherein short chain soap means soap molecules having a chain length C 12 and below and 75% or greater of the soap molecules in the regions are short chain soaps; wherein said process comprises: a) saponifying fat material in which 75% or greater of said material has chain length C 14 or greater; b) saponifying fat material in which 75% or greater of said material has chain length C 12 or less; c) combining soaps formed from stream (a) with soaps formed from stream (b) at temperatures of 30° to 50°C; and d) extruding combined soap mixture to form bar. wherein long chain soap means soap molecules having chain length of C 14 or greater and 75% or greater of the soap molecules in the matrix are long chain soaps; wherein short chain soap means soap molecules having a chain length C 12 and below and 75% or greater of the soap molecules in the regions are short chain soaps; wherein said process comprises: a) saponifying fat material in which 75% or greater of said material has chain length C 14 or greater; b) saponifying fat material in which 75% or greater of said material has chain length C 12 or less; c) combining soaps formed from stream (a) with soaps formed from stream (b) at temperatures of 30° to 50°C; and d) extruding combined soap mixture to form bar. a) saponifying fat material in which 75% or greater of said material has chain length C 14 or greater; b) saponifying fat material in which 75% or greater of said material has chain length C 12 or less; c) combining soaps formed from stream (a) with soaps formed from stream (b) at temperatures of 30° to 50°C; and d) extruding combined soap mixture to form bar.
A liquid dispenser, comprising: a container configured to store liquid and having a bottom (221, 223) and an upper opening; a base to support the container; a pump provided at the bottom (221, 223) of the container, the pump having an inlet to suction liquid stored in the container and an outlet to discharge the liquid; a lid (300, 400) seated on the container to close the upper opening; a channel (433, 192b) configured to transfer liquid discharged from the outlet of the pump to an upper surface of the lid (300, 400); characterised by: a cover provided over the pump to cover the pump and at least a portion of the bottom (221, 223) of the container, the cover having a hole through which the channel (433, 192b) or the pump outlet is inserted, wherein the cover comprises a flat disc having a hole provided in a center and a cap having a sidewall that extends from an inner edge of the hole, wherein the flat disc of the cover is seated on the bottom (221, 223) of the container. a container configured to store liquid and having a bottom (221, 223) and an upper opening; a base to support the container; a pump provided at the bottom (221, 223) of the container, the pump having an inlet to suction liquid stored in the container and an outlet to discharge the liquid; a lid (300, 400) seated on the container to close the upper opening; a channel (433, 192b) configured to transfer liquid discharged from the outlet of the pump to an upper surface of the lid (300, 400); characterised by: a cover provided over the pump to cover the pump and at least a portion of the bottom (221, 223) of the container, the cover having a hole through which the channel (433, 192b) or the pump outlet is inserted, wherein the cover comprises a flat disc having a hole provided in a center and a cap having a sidewall that extends from an inner edge of the hole, wherein the flat disc of the cover is seated on the bottom (221, 223) of the container. a cover provided over the pump to cover the pump and at least a portion of the bottom (221, 223) of the container, the cover having a hole through which the channel (433, 192b) or the pump outlet is inserted, wherein the cover comprises a flat disc having a hole provided in a center and a cap having a sidewall that extends from an inner edge of the hole, wherein the flat disc of the cover is seated on the bottom (221, 223) of the container.
A system for providing three dimensional printing production quality prediction, comprising: logic to: scan a region of interest associated with a layer of a plurality of parts during printing to obtain an input for the region of interest, wherein the input for the region of interest is captured using images from sensors; compute an input metric associated with the layer based on the input; and in response to a production print job, predict a likelihood of a part of the plurality of parts to satisfy a quality specification by inputting the input metric to at least one machine learning function comprising at least one output, wherein the at least one output is determined in response to an initial set of print jobs by mechanically testing at least a portion of the plurality of parts, wherein the at least one machine learning function is trained during the initial set of print jobs. scan a region of interest associated with a layer of a plurality of parts during printing to obtain an input for the region of interest, wherein the input for the region of interest is captured using images from sensors; compute an input metric associated with the layer based on the input; and in response to a production print job, predict a likelihood of a part of the plurality of parts to satisfy a quality specification by inputting the input metric to at least one machine learning function comprising at least one output, wherein the at least one output is determined in response to an initial set of print jobs by mechanically testing at least a portion of the plurality of parts, wherein the at least one machine learning function is trained during the initial set of print jobs.
An aerosol generating device comprising: an accommodation portion configured to accommodate at least a portion of a cigarette; and a heater arranged in the accommodation portion to heat the cigarette, wherein the heater comprises: a first heating portion arranged along the inside of the accommodation portion; a second heating portion arranged in a lower portion of the accommodation portion; and a third heating portion extending in a lengthwise direction of the cigarette from the lower portion of the accommodation portion, and the first heating portion, the second heating portion, and the third heating portion are thermally connected to one another, characterized in that: the first heating portion is configured to be heated to a first temperature, the second heating portion is configured to be heated to a second temperature lower than the first temperature, and the third heating portion is configured to be heated to a third temperature lower than the second temperature. an accommodation portion configured to accommodate at least a portion of a cigarette; and a heater arranged in the accommodation portion to heat the cigarette, wherein the heater comprises: a first heating portion arranged along the inside of the accommodation portion; a second heating portion arranged in a lower portion of the accommodation portion; and a third heating portion extending in a lengthwise direction of the cigarette from the lower portion of the accommodation portion, and the first heating portion, the second heating portion, and the third heating portion are thermally connected to one another, a first heating portion arranged along the inside of the accommodation portion; a second heating portion arranged in a lower portion of the accommodation portion; and a third heating portion extending in a lengthwise direction of the cigarette from the lower portion of the accommodation portion, and the first heating portion, the second heating portion, and the third heating portion are thermally connected to one another, the first heating portion is configured to be heated to a first temperature, the second heating portion is configured to be heated to a second temperature lower than the first temperature, and the third heating portion is configured to be heated to a third temperature lower than the second temperature.
An electronic device comprising: a housing; a communication circuit positioned inside the housing, and including a first port for a first frequency band and a second port for a second frequency band; a first antenna positioned inside the housing or forming a part of the housing; a second antenna positioned inside the housing or forming a part of the housing; a test port positioned inside the housing or at least partially exposed through the housing; and a switching circuit configured to selectively connect one or more of the first port or the second port to one or more of the first antenna, the second antenna, or the test port, the switching circuit being further configured to selectively connect the test port to the first antenna or the second antenna; wherein the switching circuit includes an opened terminal, and wherein the switching circuit is configured to: connect the test port to the first antenna or the second antenna through a path extending from the opened terminal. a housing; a communication circuit positioned inside the housing, and including a first port for a first frequency band and a second port for a second frequency band; a first antenna positioned inside the housing or forming a part of the housing; a second antenna positioned inside the housing or forming a part of the housing; a test port positioned inside the housing or at least partially exposed through the housing; and a switching circuit configured to selectively connect one or more of the first port or the second port to one or more of the first antenna, the second antenna, or the test port, the switching circuit being further configured to selectively connect the test port to the first antenna or the second antenna; wherein the switching circuit includes an opened terminal, and wherein the switching circuit is configured to: connect the test port to the first antenna or the second antenna through a path extending from the opened terminal.