mhurhangee/ep-ind-claims huggingface dataset:
A rice gel production system for producing rice gel in the form of gel, the system comprising: a cooking unit that cooks or steams raw-material rice, to obtain cooked rice; a cooked rice conveyance unit that conveys the cooked rice; and a pulverizing unit that takes over the cooked rice from the cooked rice conveyance unit and pulverizes the cooked rice, to obtain the rice gel, the pulverizing unit including a first pulverizing unit that pulverizes the cooked rice, to obtain first pulverized rice (Ra), and a second pulverizing unit that pulverizes the first pulverized rice (Ra) discharged from the first pulverizing unit, the pulverization being performed more finely as compared with the pulverization performed by the first pulverizing unit, to obtain the rice gel, wherein the second pulverizing unit is constituted by a millstone-type friction grinding apparatus that includes an upper mill part and a lower mill part and that pulverizes the first pulverized rice (Ra) by causing a pulverization object to pass through a gap between the upper and lower mill parts (107. 108) rotating relative to each other. a cooking unit that cooks or steams raw-material rice, to obtain cooked rice; a cooked rice conveyance unit that conveys the cooked rice; and a pulverizing unit that takes over the cooked rice from the cooked rice conveyance unit and pulverizes the cooked rice, to obtain the rice gel, the pulverizing unit including a first pulverizing unit that pulverizes the cooked rice, to obtain first pulverized rice (Ra), and a second pulverizing unit that pulverizes the first pulverized rice (Ra) discharged from the first pulverizing unit, the pulverization being performed more finely as compared with the pulverization performed by the first pulverizing unit, to obtain the rice gel, wherein the second pulverizing unit is constituted by a millstone-type friction grinding apparatus that includes an upper mill part and a lower mill part and that pulverizes the first pulverized rice (Ra) by causing a pulverization object to pass through a gap between the upper and lower mill parts (107. 108) rotating relative to each other. a first pulverizing unit that pulverizes the cooked rice, to obtain first pulverized rice (Ra), and a second pulverizing unit that pulverizes the first pulverized rice (Ra) discharged from the first pulverizing unit, the pulverization being performed more finely as compared with the pulverization performed by the first pulverizing unit, to obtain the rice gel, wherein the second pulverizing unit is constituted by a millstone-type friction grinding apparatus that includes an upper mill part and a lower mill part and that pulverizes the first pulverized rice (Ra) by causing a pulverization object to pass through a gap between the upper and lower mill parts (107. 108) rotating relative to each other.
Ventilator for the automated ventilation of a patient, having - an expiratory port and an inspiratory port for the attachment of a ventilation tube directed towards the patient and supplying a breathing gas, - a breathing gas delivery unit, - at least one volume flow sensor for capturing a volume flow of the breathing gas, - at least one breathing gas sensor for capturing a carbon dioxide concentration of the breathing gas, - at least one pressure sensor for capturing a pressure of the breathing gas, - and at least one computer, wherein the computer is configured to actuate the breathing gas delivery unit as a function of the captured pressure and of a preset desired pressure value (Pinsp, ΔP), characterized in that the computer is moreover configured - to effect an adaptation of the desired pressure value (Pinsp, ΔP) as a function of the captured volume flow and as a function of the captured carbon dioxide concentration - and further to effect an adaptation of a ventilation rate (RR, RRmin) as a function of the captured volume flow and as a function of the captured carbon dioxide concentration. - an expiratory port and an inspiratory port for the attachment of a ventilation tube directed towards the patient and supplying a breathing gas, - a breathing gas delivery unit, - at least one volume flow sensor for capturing a volume flow of the breathing gas, - at least one breathing gas sensor for capturing a carbon dioxide concentration of the breathing gas, - at least one pressure sensor for capturing a pressure of the breathing gas, - and at least one computer, - to effect an adaptation of the desired pressure value (Pinsp, ΔP) as a function of the captured volume flow and as a function of the captured carbon dioxide concentration - and further to effect an adaptation of a ventilation rate (RR, RRmin) as a function of the captured volume flow and as a function of the captured carbon dioxide concentration.
A pouch-shaped battery case shaping apparatus comprising: a punch configured to press a laminate sheet, in which a resin layer having thermal fusibility and a metal layer are stacked, in order to shape a pouch-shaped battery case; a die in which an accommodation portion is formed, the accommodation portion having a size corresponding to an electrode assembly receiving portion that is shaped by the punch; and a holder configured to fix an outer periphery of the laminate sheet, wherein a means configured to generate an electromagnetic field is added to the punch, and wherein a surface of the punch configured to press the laminate sheet extends and protrudes outwardly from a center of the punch. a punch configured to press a laminate sheet, in which a resin layer having thermal fusibility and a metal layer are stacked, in order to shape a pouch-shaped battery case; a die in which an accommodation portion is formed, the accommodation portion having a size corresponding to an electrode assembly receiving portion that is shaped by the punch; and a holder configured to fix an outer periphery of the laminate sheet, wherein a means configured to generate an electromagnetic field is added to the punch, and wherein a surface of the punch configured to press the laminate sheet extends and protrudes outwardly from a center of the punch.
A method for determining mechanical parameters of a cement system of initial composition C 0 and of fineness Φ, as a function of time, and as a function of the fineness of the cement system, pressure and/or temperature, comprising the following steps: determining the degree of hydration of the cement system as a function of time α(t) from the velocity of the compression waves as a function of time V p (t) measured in a specimen of the cement system, at a pressure P 1 and a temperature T 1; determining the degree of hydration α(t) as a function of desired values of fineness Φ n of the cement system, of pressure P n and/or of temperature T n; determining the composition of the cement system as a function of time C(t) and as a function of desired values of fineness Φ n of the cement system, of pressure P n and/or of temperature T n, from the degree of hydration α(t) determined in step B; determining at least one mechanical parameter of the cement system as a function of time, and as a function of the desired values of fineness Φ n of the cement system, of pressure P n and/or of temperature T n, from the composition of the cement system C(t) determined in step C; wherein the fineness of the cement system is defined as the fineness of grinding of a cement expressed by its specific surface measured using apparatus of the Blaine type according to standard NF EN 196-6, said specific surface being defined as the developed surface per unit mass. determining the degree of hydration of the cement system as a function of time α(t) from the velocity of the compression waves as a function of time V p (t) measured in a specimen of the cement system, at a pressure P 1 and a temperature T 1; determining the degree of hydration α(t) as a function of desired values of fineness Φ n of the cement system, of pressure P n and/or of temperature T n; determining the composition of the cement system as a function of time C(t) and as a function of desired values of fineness Φ n of the cement system, of pressure P n and/or of temperature T n, from the degree of hydration α(t) determined in step B; determining at least one mechanical parameter of the cement system as a function of time, and as a function of the desired values of fineness Φ n of the cement system, of pressure P n and/or of temperature T n, from the composition of the cement system C(t) determined in step C;
An FMCW LiDAR distance measurement apparatus comprising: a light source, in particular a laser, which generates a frequency modulated transmission light beam as a transmission signal having a predetermined frequency deviation and transmits said frequency modulated transmission light beam into a measurement zone; a light receiver (17, 54) which is configured to receive light reflected by objects in the measurement zone as a reception signal; and a mixer (18, 54) which is configured to mix at least a portion of the transmission signal with the reception signal and with an oscillator frequency to generate a mixed signal, wherein the distance measurement apparatus is configured to adapt the oscillator frequency to a desired measurement zone, characterized in that the mixer (18, 54) comprises an avalanche photodiode, APD, which is configured to perform the mixing of at least a portion of the transmission signal and the reception signal and a bias voltage of the APD acted on by the oscillator frequency. a light source, in particular a laser, which generates a frequency modulated transmission light beam as a transmission signal having a predetermined frequency deviation and transmits said frequency modulated transmission light beam into a measurement zone; a light receiver (17, 54) which is configured to receive light reflected by objects in the measurement zone as a reception signal; and a mixer (18, 54) which is configured to mix at least a portion of the transmission signal with the reception signal and with an oscillator frequency to generate a mixed signal, wherein the distance measurement apparatus is configured to adapt the oscillator frequency to a desired measurement zone, characterized in that the mixer (18, 54) comprises an avalanche photodiode, APD, which is configured to perform the mixing of at least a portion of the transmission signal and the reception signal and a bias voltage of the APD acted on by the oscillator frequency.
A method for triggering session initiation protocol, SIP, nodes to include signaling system number seven, SS7, routing information in response messages including information requested by SS7 nodes (108, 108, 112, 114), the method comprising: (a) receiving (500, 600), from an SS7 node (106, 108, 112, 114), a first message having SS7 routing information, wherein the SS7 routing information includes message transfer part level 3, MTP3, user adaptation layer, M3UA, network appearance information, network group code information, or an SS7 point code; (b) generating (502, 602) a corresponding SIP message that includes the SS7 routing information and a parameter instructing receiving SIP node to include the SS7 routing information in a SIP response message; and (c) forwarding (504, 604) the corresponding SIP message to a remote SIP node. (a) receiving (500, 600), from an SS7 node (106, 108, 112, 114), a first message having SS7 routing information, wherein the SS7 routing information includes message transfer part level 3, MTP3, user adaptation layer, M3UA, network appearance information, network group code information, or an SS7 point code; (b) generating (502, 602) a corresponding SIP message that includes the SS7 routing information and a parameter instructing receiving SIP node to include the SS7 routing information in a SIP response message; and (c) forwarding (504, 604) the corresponding SIP message to a remote SIP node.
A playback loudness adjustment method, comprising: acquiring, by a terminal, an environment sound signal and an internal sound signal, and acquiring a playback loudness difference value according to the environment sound signal and the internal sound signal; and comparing, by the terminal, the playback loudness difference value with at least one adjustment threshold, and adjusting playback loudness according to a comparison result; wherein acquiring the playback loudness difference value according to the environment sound signal and the internal sound signal comprises: acquiring a loudness value of each sound signal of the environment sound signal, taking the sound signal having the largest loudness value as a main sound signal, and acquiring the playback loudness difference value according to the loudness value of the main sound signal and a loudness value of the internal sound signal. acquiring, by a terminal, an environment sound signal and an internal sound signal, and acquiring a playback loudness difference value according to the environment sound signal and the internal sound signal; and comparing, by the terminal, the playback loudness difference value with at least one adjustment threshold, and adjusting playback loudness according to a comparison result;
A film or foam having a first end and a second end and a length extending between the first and second ends and having a thickness smaller than the length, wherein said film or foam comprises: (a) a matrix comprising a thermoplastic material, (b) at least more than one channel disposed in parallel to the length in said matrix from the first end to the second end of said film, wherein said channels are at least 1 μm apart from each other, and wherein each of said channels have a diameter in the range of at least 1 μm and less than 1998 μm; and (c) one or more functional filler materials inserted in said channels; wherein the thickness is from 2 μm to 2000 μm; and wherein the one or more functional filler materials are selected from the group consisting of bioactive fillers, electrical and/or magnetically active fillers, organic-inorganic hybrids, surface property modifiers, wettability promoters, solid and/or liquid flame retardants and superabsorbent polymers. (a) a matrix comprising a thermoplastic material, (b) at least more than one channel disposed in parallel to the length in said matrix from the first end to the second end of said film, wherein said channels are at least 1 μm apart from each other, and wherein each of said channels have a diameter in the range of at least 1 μm and less than 1998 μm; and (c) one or more functional filler materials inserted in said channels; wherein the thickness is from 2 μm to 2000 μm; and wherein the one or more functional filler materials are selected from the group consisting of bioactive fillers, electrical and/or magnetically active fillers, organic-inorganic hybrids, surface property modifiers, wettability promoters, solid and/or liquid flame retardants and superabsorbent polymers.
A housing for an air filter of an internal combustion engine, the housing comprising a shell having an inlet opening and an outlet opening for the inflow of air to be filtered and the outflow of filtered air, respectively, said inlet opening being associatable with the duct of the intake system of the engine for air intake from the outside and said outlet opening being associatable with the outlet duct of the intake system of the engine for supplying air to the engine, whereby said housing is capable of being included in said intake system of the engine by means of said inlet and outlet openings, said housing further comprising at least one duct associated with said shell; said housing being characterised in that said duct extends between respective opposite ends both of which lead to a circuit other than that of the air intake system of the engine.
Electrical insulation system for a high-voltage rotation machine, having a shell body for a current conductor of the high-voltage rotation machine, wherein the shell body includes a casting resin formulation, a moulding resin formulation and/or polymer formulation as a base resin which is a thermoplastic, thermoset or elastomeric synthetic resin, wherein at least one filler component including nanoparticulate particles has been added to the base resin, the particles of which are anisotropic, and wherein the anisotropic filler component is a sheet silicate in fully exfoliated form in the base resin.
A sofa support structure comprising: a footrest link set, a lumbar support set, a transmission rod set and a cushion bracket, the footrest link set, the lumbar support set and the transmission rod set are disposed on the cushion bracket, the transmission rod set is configured for driving the lumbar support set to be gathered and extended, wherein the transmission rod set is a transmission rod, a first end of the transmission rod is rotatably connected to the lumbar support set, and a second end of the transmission rod is pivotally connected to the footrest link set; the lumbar support set comprises a first link assembly, a second link assembly, a third link assembly and a lumbar bracket, wherein the first link assembly is pivotally connected to the transmission rod and the cushion bracket, respectively; the second link assembly is pivotally connected to the cushion bracket and the lumbar bracket, respectively; the third link assembly is pivotally connected to the first link assembly and the second link assembly, respectively; characterized in that the footrest link set comprises: a fifth link, a first end of the fifth link is pivotally connected to the cushion bracket and the transmission rod; a sixth link, a first end of the sixth link is pivotally connected to a second end of the fifth link; a seventh link, a first end of the seventh link is pivotally connected to a second end of the sixth link; an eighth link, a first end of the eighth link is pivotally connected to a second end of the seventh link; a ninth link, a first end of the ninth link is pivotally connected to a second end of the eighth link, a second end of the ninth link is pivotally connected to the cushion bracket, the ninth link is fixedly connected to an external driving device by a first fastener; a footrest bracket pivotally connected to the seventh link; and a tenth link, a first end of the tenth link is pivotally connected to the first end of the eighth link, and a second end of the tenth link is pivotally connected to the footrest bracket. a fifth link, a first end of the fifth link is pivotally connected to the cushion bracket and the transmission rod; a sixth link, a first end of the sixth link is pivotally connected to a second end of the fifth link; a seventh link, a first end of the seventh link is pivotally connected to a second end of the sixth link; an eighth link, a first end of the eighth link is pivotally connected to a second end of the seventh link; a ninth link, a first end of the ninth link is pivotally connected to a second end of the eighth link, a second end of the ninth link is pivotally connected to the cushion bracket, the ninth link is fixedly connected to an external driving device by a first fastener; a footrest bracket pivotally connected to the seventh link; and a tenth link, a first end of the tenth link is pivotally connected to the first end of the eighth link, and a second end of the tenth link is pivotally connected to the footrest bracket.
A floating platform comprising: a) a cover element; b) at least three separate buoyant bodies made of a gas-tight, pressure- and corrosion-resistant, flexible material, which buoyant bodies are open at the bottom and stationarily attached to the bottom of the cover element and which, upon contact with the surface of a liquid, each enclose a closed hollow space with said surface; and c) at least one device for generating pressurized air for generating an overpressure in the individual hollow spaces; characterised in that i) the buoyant bodies each have a circular horizontal cross-section and a vertical cross-sectional profile which essentially corresponds to a U turned upside-down; and ii) the lower edges of the buoyant bodies are loaded with weights. a) a cover element; b) at least three separate buoyant bodies made of a gas-tight, pressure- and corrosion-resistant, flexible material, which buoyant bodies are open at the bottom and stationarily attached to the bottom of the cover element and which, upon contact with the surface of a liquid, each enclose a closed hollow space with said surface; and c) at least one device for generating pressurized air for generating an overpressure in the individual hollow spaces; i) the buoyant bodies each have a circular horizontal cross-section and a vertical cross-sectional profile which essentially corresponds to a U turned upside-down; and ii) the lower edges of the buoyant bodies are loaded with weights.
A sheet-shaped article characterized by containing a water dispersed-type polyurethane that contains both a substance whose molecular weight is 100 to 500 and which has an amide bond and a porous inorganic particle whose average particle size is 1 nm to 10,000 nm, and whose BET specific surface area is 5 m 2 /g to 1000 m 2 /g within a fibrous base material that includes an ultrathin fiber whose average monofilament diameter is 0.3 to 7 μm.
A nacelle for a gas turbine engine, the nacelle comprising: a first door having a first inner diameter cowl connected to a first half of a lower bifurcation; a first latch system mounted on the first inner diameter cowl and spaced along the first inner diameter cowl from the lower bifurcation; a second door having a second inner diameter cowl connected to a second half of between the upper and lower bifurcations; and a second latch system mounted on the second inner diameter cowl and spaced along the second inner diameter cowl between the upper and lower bifurcations; wherein the first latch system comprises a first handle mounted within and pivotal to protrude from the first inner diameter cowl; and wherein the second latch system comprises a second handle mounted within and pivotal to protrude from the second inner diameter cowl. a first door having a first inner diameter cowl connected to a first half of a lower bifurcation; a first latch system mounted on the first inner diameter cowl and spaced along the first inner diameter cowl from the lower bifurcation; a second door having a second inner diameter cowl connected to a second half of between the upper and lower bifurcations; and a second latch system mounted on the second inner diameter cowl and spaced along the second inner diameter cowl between the upper and lower bifurcations; wherein the first latch system comprises a first handle mounted within and pivotal to protrude from the first inner diameter cowl; and wherein the second latch system comprises a second handle mounted within and pivotal to protrude from the second inner diameter cowl.