mhurhangee/ep-ind-claims huggingface dataset:
A machine for single-dose production and distribution of an ice-cream product, said machine comprising: - a base/additive product feeding unit, said feeding unit comprising: - a plurality of storage tanks (Sb1, Sb2, Sb3, Sbn, Sba) containing respective base/additive products, arranged side by side and adapted to contain and deliver predetermined quantities of base/additive products; - collecting means for receiving said predetermined quantities of said base/additive products necessary to produce at least one dose of an ice cream product, said collecting means being constituted by one or more intake(s), at least one (Sba) of said storage tanks (Sb1, Sb2, Sb3, Sbn) being situated above another one of said storage tanks (Sb1, Sb2, Sb3, Sbn), wherein each intake has two side inputs connected to a related group of said storage tanks (Sb1, Sb2) in order to receive said predetermined quantities of base/additive product from said storage tanks (Sb1, Sb2), and having at least one additional input connected to said one (Sba) of said storage tanks (Sb1, Sb2, Sb3, Sbn) situated above said other one of said storage tanks (Sb1, Sb2, Sb3, Sbn); and wherein said intake comprises a removable cover in which a hole is provided constituting said additional input, the machine further comprising at least one batch freezing chamber, provided with a stirrer and heat treatment means, operatively connected to the said storage tanks (Sb1, Sb2, Sb3, Sbn, Sba) by means of the related collecting means for receiving said predetermined quantities of said base/additive products necessary to produce at least one dose of an ice cream product. - a base/additive product feeding unit, said feeding unit comprising: - a plurality of storage tanks (Sb1, Sb2, Sb3, Sbn, Sba) containing respective base/additive products, arranged side by side and adapted to contain and deliver predetermined quantities of base/additive products; - collecting means for receiving said predetermined quantities of said base/additive products necessary to produce at least one dose of an ice cream product, said collecting means being constituted by one or more intake(s), at least one (Sba) of said storage tanks (Sb1, Sb2, Sb3, Sbn) being situated above another one of said storage tanks (Sb1, Sb2, Sb3, Sbn), wherein each intake has two side inputs connected to a related group of said storage tanks (Sb1, Sb2) in order to receive said predetermined quantities of base/additive product from said storage tanks (Sb1, Sb2), and having at least one additional input connected to said one (Sba) of said storage tanks (Sb1, Sb2, Sb3, Sbn) situated above said other one of said storage tanks (Sb1, Sb2, Sb3, Sbn); and wherein said intake comprises a removable cover in which a hole is provided constituting said additional input, the machine further comprising at least one batch freezing chamber, provided with a stirrer and heat treatment means, operatively connected to the said storage tanks (Sb1, Sb2, Sb3, Sbn, Sba) by means of the related collecting means for receiving said predetermined quantities of said base/additive products necessary to produce at least one dose of an ice cream product.
A method of electrically characterizing a composite material for manufacturing an aircraft, wherein: - compressing two spacers against at least one test piece (18; 18a, 18b) made of a composite material by implementing a tight fit between at least one of the spacers and an orifice in the or each test piece (18a, 18b); - determining an electrical resistance value (R; R1, R2) for the assembly formed by the spacers and the test piece; and - deducing from said electrical resistance value a value (R, R1, R2) for the electrical resistance (R CFRP) of the composite material. - compressing two spacers against at least one test piece (18; 18a, 18b) made of a composite material by implementing a tight fit between at least one of the spacers and an orifice in the or each test piece (18a, 18b); - determining an electrical resistance value (R; R1, R2) for the assembly formed by the spacers and the test piece; and - deducing from said electrical resistance value a value (R, R1, R2) for the electrical resistance (R CFRP) of the composite material.
A vascular baroreflex-related sympathetic activity detection device that detects vascular baroreflex-related sympathetic activity which is vascular sympathetic nervous activity involved in a baroreflex function based on pulse-wave data of a biological artery and a beat interval corresponding to the pulse-wave data, the beat interval being an time interval equivalent to one beat of pulsation, the beat interval corresponding to the pulse-wave data being a beat interval in the same time zone as the time zone in which the pulse-wave data is acquired, or a beat interval delaying by one beat from the time zone in which the pulse-wave data is acquired, the device comprising: a VBRSA-series detecting unit that detects a series in which a correlation coefficient between the beat interval and the pulse-wave data is greater than any positive threshold up to an (n-1)-th beat and the correlation coefficient falls to or below the threshold at an n-th beat among the series, the beat interval of which increases or decreases by n (n is a natural number of 3 or more) beats consecutively as a vascular baroreflex-related sympathetic activity series (VBRSA-series) indicating the vascular baroreflex-related sympathetic activity, the pulse-wave data being any one of a photoelectric volume pulse wave, a normalized pulse-wave volume which is the normalized photoelectric volume pulse wave or the normalized pulse-wave volume converted to a logarithmic value.
Method of separating a cast strip or an intermediate strip by means of shears, comprising the following steps: a) feeding a part of the fully hardened cast strip or intermediate strip in conveying direction of the cast strip or intermediate strip to in front of the shears; b) placing a first shears knife of the shears on one surface of the cast strip or intermediate strip and placing a second shears knife of the shears on the other surface of the cast strip or intermediate strip and performing a cut by execution of a relative motion of the two shears knives (3, 5), wherein at least one of the shears knives is disposed in a forwardly displaced position; c) upsetting or upsetting with stamping a wedge-shaped contour at that end of the cast strip or intermediate strip which is disposed in front of the shears in the conveying direction in that an upsetting or an upsetting-and-stamping tool (7, 5) is pressed onto both surfaces (4, 6) of the cast strip or intermediate strip so that the thickness (d) of the start of the cast strip or intermediate strip is reduced relative to the thickness of the cast strip or intermediate strip, wherein a part of the upsetting tool or an upsetting-and-stamping tool is formed by one of the shears knives, wherein a separate adjustment possibility of tool and knife is provided, whereby the upsetting or upsetting-and-stamping function can be switched on and off so that the shears are also usable just for cutting. a) feeding a part of the fully hardened cast strip or intermediate strip in conveying direction of the cast strip or intermediate strip to in front of the shears; b) placing a first shears knife of the shears on one surface of the cast strip or intermediate strip and placing a second shears knife of the shears on the other surface of the cast strip or intermediate strip and performing a cut by execution of a relative motion of the two shears knives (3, 5), wherein at least one of the shears knives is disposed in a forwardly displaced position; c) upsetting or upsetting with stamping a wedge-shaped contour at that end of the cast strip or intermediate strip which is disposed in front of the shears in the conveying direction in that an upsetting or an upsetting-and-stamping tool (7, 5) is pressed onto both surfaces (4, 6) of the cast strip or intermediate strip so that the thickness (d) of the start of the cast strip or intermediate strip is reduced relative to the thickness of the cast strip or intermediate strip, wherein a part of the upsetting tool or an upsetting-and-stamping tool is formed by one of the shears knives,
Box body formed by a profile having an inverted U-shaped geometry in cross section, comprising a crown wall (Pv) extended at its two longitudinal edges respectively by two lateral walls (Pl1, Pl2) which extend in the same direction and perpendicularly or in a virtually perpendicular manner to the crown wall (Pv), these three walls delimiting between them a longitudinal recess (Ev) for receiving a shielding member, a first transverse slot passing at least locally through the crown wall (Pv), characterized in that said first transverse slot joins up with a second slot which sinks transversely into a lateral wall from its inner face (Fi).
A method for measuring the thickness of a boiler water tube which measures the thickness of a boiler water tube by irradiating an inner circumferential surface of the boiler water tube with an ultrasonic wave from an ultrasonic probe while moving the ultrasonic probe inserted into the boiler water tube, the method comprising: forming an inspection hole on a side surface of the boiler water tube in a longitudinal direction, and connecting a base side of a guide pipe to the inspection hole; attaching a closing member to the guide pipe; releasing the closing member from the guide pipe; inserting the ultrasonic probe into the boiler water tube from a tip side of the guide pipe, and moving the ultrasonic probe in the boiler water tube when the thickness of the boiler water tube is measured; extracting the ultrasonic probe from the boiler water tube after measuring the thickness of the boiler water tube; and attaching the closing member to the tip end of the guide pipe after extracting the ultrasonic probe from the boiler water tube, wherein the boiler water tube is oriented vertically, horizontally or in an inclined state, the base side of the guide pipe is connected by being inclined in an angular range of 5 degrees to 60 degrees with respect to an axial center of the boiler water tube, the closing member is a long bolt member screwed into the guide pipe from the tip end thereof so as to fit with an inner circumference of the guide pipe, and the length of the closing member is set so that a part of a tip of the bolt member attached to the guide pipe is in contact with an edge of the inspection hole on an inner circumferential surface of the boiler water tube, whereby an air pocket is not formed in the base end of the guide pipe. forming an inspection hole on a side surface of the boiler water tube in a longitudinal direction, and connecting a base side of a guide pipe to the inspection hole; attaching a closing member to the guide pipe; releasing the closing member from the guide pipe; inserting the ultrasonic probe into the boiler water tube from a tip side of the guide pipe, and moving the ultrasonic probe in the boiler water tube when the thickness of the boiler water tube is measured; extracting the ultrasonic probe from the boiler water tube after measuring the thickness of the boiler water tube; and attaching the closing member to the tip end of the guide pipe after extracting the ultrasonic probe from the boiler water tube, wherein the closing member is a long bolt member screwed into the guide pipe from the tip end thereof so as to fit with an inner circumference of the guide pipe, and the length of the closing member is set so that a part of a tip of the bolt member attached to the guide pipe is in contact with an edge of the inspection hole on an inner circumferential surface of the boiler water tube, whereby an air pocket is not formed in the base end of the guide pipe.
A method for correcting, by a processor with a memory, consumption measurements taken at time intervals by a set of meters presumed to be connected to a same network, the method comprising the steps of: (i) collecting (53, 54) the consumption measurements and storing them in the memory in a form of a set of samples time-classified according to the time intervals of taking the consumption measurements by the meters; (ii) validating, by the processor, the samples in memory according to predetermined validation criteria; (iii) determining, by the processor, electrical quantities in relation with currents and voltages respectively relating to the meters for each time interval from the samples considered to be valid; (iv) selecting, by the processor, a group of retained samples among the samples considered to be valid, that correspond to a load range or a range of load variation ratio carried by the network based on the electrical quantities determined in (iii); (v) defining, by the processor, correction functions of the consumption measurements by determining, for each meter, from the group of retained samples selected in (iv), a voltage correction coefficient applicable to a voltage measured by the meter from the consumption measurements of the meter, the voltage correction coefficient corresponding to a sum of voltage differences between an average voltage over the set of meters and the voltage of the meter, said sum being divided by the sum of said voltages of the meter; and (vi) adapting, by the processor, the consumption measurements according to the correction coefficients defined in (v). (i) collecting (53, 54) the consumption measurements and storing them in the memory in a form of a set of samples time-classified according to the time intervals of taking the consumption measurements by the meters; (ii) validating, by the processor, the samples in memory according to predetermined validation criteria; (iii) determining, by the processor, electrical quantities in relation with currents and voltages respectively relating to the meters for each time interval from the samples considered to be valid; (iv) selecting, by the processor, a group of retained samples among the samples considered to be valid, that correspond to a load range or a range of load variation ratio carried by the network based on the electrical quantities determined in (iii); (v) defining, by the processor, correction functions of the consumption measurements by determining, for each meter, from the group of retained samples selected in (iv), a voltage correction coefficient applicable to a voltage measured by the meter from the consumption measurements of the meter, the voltage correction coefficient corresponding to a sum of voltage differences between an average voltage over the set of meters and the voltage of the meter, said sum being divided by the sum of said voltages of the meter; and (vi) adapting, by the processor, the consumption measurements according to the correction coefficients defined in (v).
A straight tube LED lamp comprising: a straight tube in which a plurality of light emitting diodes is housed; a first cap for forming a power feeding connection to the plurality of light emitting diodes, said first cap being provided on one axial direction end side of the straight tube; and a second cap for grounding, said second cap being provided on another axial direction end side of the straight tube, wherein a first terminal for forming an electrical connection to a power feeding terminal of a first lamp socket is provided in the first cap, a second terminal for forming an electrical connection to a grounding terminal of a second lamp socket is provided in the second cap, wherein the first terminal comprises two cap pins (142,143,242,243) connected respectively to a positive electrode side and a negative electrode side of a direct current power supply via the first lamp socket, characterized in that latch portions (242b,243b) extending sideward are provided on respective tip ends of the two cap pins (142,143,242,243). a straight tube in which a plurality of light emitting diodes is housed; a first cap for forming a power feeding connection to the plurality of light emitting diodes, said first cap being provided on one axial direction end side of the straight tube; and a second cap for grounding, said second cap being provided on another axial direction end side of the straight tube, wherein a first terminal for forming an electrical connection to a power feeding terminal of a first lamp socket is provided in the first cap, a second terminal for forming an electrical connection to a grounding terminal of a second lamp socket is provided in the second cap, wherein the first terminal comprises two cap pins (142,143,242,243) connected respectively to a positive electrode side and a negative electrode side of a direct current power supply via the first lamp socket, characterized in that latch portions (242b,243b) extending sideward are provided on respective tip ends of the two cap pins (142,143,242,243).
A rubber composition comprising: a conjugated diene rubber which is obtained by polymerizing a conjugated diene compound or polymerizing a conjugated diene compound and an aromatic vinyl compound and has a group having an active hydrogen and a group capable of chemically binding to a silica, a silica, a silane coupling agent capable of reacting with a carbon-carbon double bond of the conjugated diene in the conjugated diene rubber, and a silane coupling agent capable of reacting with the group having an active hydrogen, wherein the group having an active hydrogen in the component is at least one selected from a primary amino group, a secondary amino group, an imino group, a primary phosphino group, a secondary phosphino group, and a thiol group.
A pocketed spring assembly (12, 12a, 12c) for a bedding or seating product, said pocketed spring assembly (12, 12a, 12c) comprising: interior (26b, 26bb, 26cc) and exterior (26a, 26aa, 26c) parallel strings of pocketed springs of approximately the same height, each of the strings being joined to at least one adjacent string, each of the strings comprising a plurality of interconnected pockets (32, 58, 60, 76, 90, 92, 58c, 59c, 60c), each of the pockets (32, 58, 60, 76, 90, 92, 58c, 59c, 60c) containing at least one spring (36, 62, 78, 94) encased in fabric, the fabric being joined to itself along a longitudinal seam and having first and second opposed plies of fabric on opposite sides of the springs (36, 62, 78, 94), the fabric of said first and second plies being joined by transverse seams, characterized in that at least some of the pockets (58, 60, 90, 92, 58c, 59c, 60c) of the interior strings (26b, 26bb, 26cc) have different sizes (H p, H pp) when empty due to different locations of the longitudinal seams of the pockets (58, 60, 90, 92, 58c, 59c, 60c) of the interior strings (26b, 26bb, 26cc), the pockets (58, 60, 90, 92, 58c, 59c, 60c) of the interior strings (26b, 26bb, 26cc) being approximately the same height with springs therein but of different firmness due, at least in part, to different properties of the pocketed springs. interior (26b, 26bb, 26cc) and exterior (26a, 26aa, 26c) parallel strings of pocketed springs of approximately the same height, each of the strings being joined to at least one adjacent string, each of the strings comprising a plurality of interconnected pockets (32, 58, 60, 76, 90, 92, 58c, 59c, 60c), each of the pockets (32, 58, 60, 76, 90, 92, 58c, 59c, 60c) containing at least one spring (36, 62, 78, 94) encased in fabric, the fabric being joined to itself along a longitudinal seam and having first and second opposed plies of fabric on opposite sides of the springs (36, 62, 78, 94), the fabric of said first and second plies being joined by transverse seams, characterized in that at least some of the pockets (58, 60, 90, 92, 58c, 59c, 60c) of the interior strings (26b, 26bb, 26cc) have different sizes (H p, H pp) when empty due to different locations of the longitudinal seams of the pockets (58, 60, 90, 92, 58c, 59c, 60c) of the interior strings (26b, 26bb, 26cc), the pockets (58, 60, 90, 92, 58c, 59c, 60c) of the interior strings (26b, 26bb, 26cc) being approximately the same height with springs therein but of different firmness due, at least in part, to different properties of the pocketed springs.
An adhesive film for encapsulating an organic electronic device, comprising two or more adhesive layers: a first adhesive layer comprising a moisture-absorbent filler; and a second adhesive layer which does not comprise the moisture-absorbent filler, wherein the first adhesive layer has a thickness T1 of 5 μm to 90 μm; wherein the second adhesive layer has a thickness T2 of 3 μm to 20 μm; wherein the ratio T1/T2 is in the range from 1.5 to 10; wherein the sum of thicknesses of the adhesive layers is 100 μm or less; wherein the difference in viscosity between the first adhesive layer and the second adhesive layer at a temperature of 30 °C to 130 °C is 100 Pa·s or less when the first adhesive layer and the second adhesive layer are in an uncured state; and wherein the viscosity is measured using an advanced rheometric expansion system (ARES). a first adhesive layer comprising a moisture-absorbent filler; and a second adhesive layer which does not comprise the moisture-absorbent filler, wherein the first adhesive layer has a thickness T1 of 5 μm to 90 μm; wherein the second adhesive layer has a thickness T2 of 3 μm to 20 μm; wherein the ratio T1/T2 is in the range from 1.5 to 10; wherein the sum of thicknesses of the adhesive layers is 100 μm or less; wherein the difference in viscosity between the first adhesive layer and the second adhesive layer at a temperature of 30 °C to 130 °C is 100 Pa·s or less when the first adhesive layer and the second adhesive layer are in an uncured state; and wherein the viscosity is measured using an advanced rheometric expansion system (ARES).
A refrigeration system including a refrigerant circuit in which a compressor and a cooling heat exchanger for cooling the interior of a cold storage are connected, the refrigeration system operating in a refrigeration cycle by circulating refrigerant through the refrigerant circuit, wherein the refrigeration system further includes a capacity regulator for regulating the cooling capacity of the cooling heat exchanger to bring the internal cold storage temperature to a desired temperature, and the refrigeration system is configured to be capable of energy saving operation including: a first action in which the compressor is driven while the cooling capacity of the cooling heat exchanger is regulated by the capacity regulator; characterized by a second action in which when the internal cold storage temperature is held at the desired temperature during the first action, the cooling capacity of the cooling heat exchanger is increased by the capacity regulator to lower the internal cold storage temperature to a lower limit of a desired temperature range containing the desired temperature and the compressor is then stopped; and a third action in which when the internal cold storage temperature reaches an upper limit of the desired temperature range after the stop of the compressor by the second action, the compressor is activated to restart the first action. a first action in which the compressor is driven while the cooling capacity of the cooling heat exchanger is regulated by the capacity regulator; characterized by a second action in which when the internal cold storage temperature is held at the desired temperature during the first action, the cooling capacity of the cooling heat exchanger is increased by the capacity regulator to lower the internal cold storage temperature to a lower limit of a desired temperature range containing the desired temperature and the compressor is then stopped; and a third action in which when the internal cold storage temperature reaches an upper limit of the desired temperature range after the stop of the compressor by the second action, the compressor is activated to restart the first action.