mhurhangee/ep-ind-claims huggingface dataset:
A carbonated beverage maker comprising: a water reservoir configured to hold ice water, the water reservoir having a first impeller and a shroud surrounding the first impeller; a carbon dioxide creation chamber containing chemical elements and configured to receive warm water, wherein the chemical elements are configured to react with each other to create carbon dioxide when the warm water is introduced to the carbon dioxide creation chamber; and a carbonation chamber connected to the water reservoir and the carbon dioxide creation chamber, the carbonation chamber having a second impeller, wherein the second impeller comprises a stem portion and blades, the stem portion and the blades defining conduits therein, and wherein the blades are configured to create a low pressure region in a lower portion of the carbonation chamber such that carbon dioxide from the carbon dioxide creation chamber flows through the conduits to the low pressure region. a water reservoir configured to hold ice water, the water reservoir having a first impeller and a shroud surrounding the first impeller; a carbon dioxide creation chamber containing chemical elements and configured to receive warm water, wherein the chemical elements are configured to react with each other to create carbon dioxide when the warm water is introduced to the carbon dioxide creation chamber; and a carbonation chamber connected to the water reservoir and the carbon dioxide creation chamber, the carbonation chamber having a second impeller, wherein the second impeller comprises a stem portion and blades, the stem portion and the blades defining conduits therein, and wherein the blades are configured to create a low pressure region in a lower portion of the carbonation chamber such that carbon dioxide from the carbon dioxide creation chamber flows through the conduits to the low pressure region.
Method for actuating personal safety means in the case of a side impact for a vehicle, wherein the actuation takes place as a function of a determination of crash type, wherein the crash type is determined by means of at least two signals (S1 to S4) of differently installed sensors (S1 to S4), wherein the determination takes place as a function of at least one difference between the at least two signals (S1, S2), characterized in that a maximum signal is determined by means of a maximum searcher, and at least one differentiating element (Diff) forms differences between the maximum signal and all the other signals, and forms the at least one difference therefrom.
Valve control device - having a housing which has a first vacuum chamber and a first atmospheric pressure chamber, which first vacuum chamber and first atmospheric pressure chamber are separated from one another in a gas-tight fashion by a spring-loaded first diaphragm; and - having a regulating rod for regulating the position of a shut-off element of a bypass valve, with the regulating rod being operatively connected to the first diaphragm, - with a second vacuum chamber being provided which is flow-connected to the first vacuum chamber, and - with a second spring-loaded diaphragm being provided which is arranged in the second vacuum chamber and which is coupled pneumatically to the first diaphragm, with the regulating rod being fastened to the second diaphragm, characterized - in that the flow connection between the first and second vacuum chambers (3, 8) takes place by means of a hollow screw which is securely connected to the regulating rod, with the hollow screw having flow slots predominantly at the lower end in the region of the vacuum chamber. - having a housing which has a first vacuum chamber and a first atmospheric pressure chamber, which first vacuum chamber and first atmospheric pressure chamber are separated from one another in a gas-tight fashion by a spring-loaded first diaphragm; and - having a regulating rod for regulating the position of a shut-off element of a bypass valve, with the regulating rod being operatively connected to the first diaphragm, - with a second vacuum chamber being provided which is flow-connected to the first vacuum chamber, and - with a second spring-loaded diaphragm being provided which is arranged in the second vacuum chamber and which is coupled pneumatically to the first diaphragm, with the regulating rod being fastened to the second diaphragm, - in that the flow connection between the first and second vacuum chambers (3, 8) takes place by means of a hollow screw which is securely connected to the regulating rod, with the hollow screw having flow slots predominantly at the lower end in the region of the vacuum chamber.
Method for preparing a foodstuff in a food processing system, the system comprising solid state radio frequency cooking means that transmits an electromagnetic wave to a food substrate and a cavity where the food is cooked, the method monitoring the return power losses, which are the difference between the power emitted by the solid state radio frequency cooking means and the reflected power in the cavity, for optimising the delivery of the radio frequency power to the food substrate by controlling and adjusting at least two parameters: the emitted frequency of the solid state radio frequency cooking means and the distance of the cooking means to the food substrate.
A light fixture, preferably for stage, comprising: - a source assembly, configured to emit at least one light beam along an emission direction; - a mixing assembly arranged downstream of the source assembly along the emission direction and configured to mix at least one light beam emitted by the source assembly; - a colour assembly comprising at least one colour device (45a, 45b, 45c) configured to selectively colour the light beam passing through it; the colour assembly being arranged between the source assembly and the mixing assembly; the light fixture being characterized in that the mixing assembly comprises an optical mixing element comprising a plurality of square or hexagonal lenses arranged side by side so as to form a matrix. - a source assembly, configured to emit at least one light beam along an emission direction; - a mixing assembly arranged downstream of the source assembly along the emission direction and configured to mix at least one light beam emitted by the source assembly; - a colour assembly comprising at least one colour device (45a, 45b, 45c) configured to selectively colour the light beam passing through it; the colour assembly being arranged between the source assembly and the mixing assembly;
Method for renovating a line conducting a liquid or gaseous medium, where a first flexible lining tube formed from overlap-wound fibre tapes saturated with a curable liquid reactive resin are drawn into the line, the flexible lining tube is expanded by introducing compressed air and the reactive resin is hardened, characterized in that after the hardening of the reactive resin a second flexible lining tube is introduced by inversion-insertion into the hardened first flexible lining tube, the said second flexible lining tube comprising a circumferentially continuous internal film ply and, laminated onto the said ply, a nonwoven ply saturated with a further liquid reactive resin, where the second flexible lining tube is expanded and the further reactive resin is hardened.
A reflow soldering system comprising a plurality of individually heatable soldering process zones (11, 12, 13) comprising at least one condensation process zone and at least one convection process zone (11, 13), characterized by a conveyor comprising a plurality of segments (31, 32, 33), and a control unit that is able to control the segments (31, 32, 33) of the conveyor individually for conveying the workpiece through the soldering process zones and from one soldering process zone to the next, and to control the reflow soldering system such that it selectively allows the following modes of operation: mode 1: mere convection soldering system with the condensation process zone switched off, mode 2: mere condensation soldering system with the convection process zone (11, 13) switched off, and mode 3: combined soldering system with an arbitrary combination of components of the convection process zone (11, 13) and the condensation process zone, so as to implement complex soldering profiles, so that the reflow soldering system is configured to supply heat to a workpiece selectively through condensation or through convection or as a combination of convection and condensation. a conveyor comprising a plurality of segments (31, 32, 33), and a control unit that is able to control the segments (31, 32, 33) of the conveyor individually for conveying the workpiece through the soldering process zones and from one soldering process zone to the next, and to control the reflow soldering system such that it selectively allows the following modes of operation: mode 1: mere convection soldering system with the condensation process zone switched off, mode 2: mere condensation soldering system with the convection process zone (11, 13) switched off, and mode 3: combined soldering system with an arbitrary combination of components of the convection process zone (11, 13) and the condensation process zone, so as to implement complex soldering profiles, mode 1: mere convection soldering system with the condensation process zone switched off, mode 2: mere condensation soldering system with the convection process zone (11, 13) switched off, and mode 3: combined soldering system with an arbitrary combination of components of the convection process zone (11, 13) and the condensation process zone, so as to implement complex soldering profiles, so that the reflow soldering system is configured to supply heat to a workpiece selectively through condensation or through convection or as a combination of convection and condensation.
An apparatus for monitoring blood coagulation comprising: a main body; a test chamber for receiving a fluid sample; and a rotor disposed within the test chamber centralised between a lower pivot point and an upper pivot point, but not tethered to these pivot points, wherein the rotor comprises a buoyancy chamber for reducing the apparent weight of the rotor when fluid is arranged within the test chamber, the main body and test chamber form a capsule characterized in that the main body comprises an inlet connected to a feeder channel leading into a lower channel via which the fluid sample can be inserted into the test chamber and in that the main body further comprises, at the top of the test chamber, a ventilation aperture leading to a short ventilation gallery comprising a vertical shaft leading to an upper substantially horizontal channel via which excess fluid sample and air can exit the test chamber into an overflow reservoir. a main body; a test chamber for receiving a fluid sample; and a rotor disposed within the test chamber centralised between a lower pivot point and an upper pivot point, but not tethered to these pivot points, wherein the rotor comprises a buoyancy chamber for reducing the apparent weight of the rotor when fluid is arranged within the test chamber, the main body and test chamber form a capsule characterized in that the main body comprises an inlet connected to a feeder channel leading into a lower channel via which the fluid sample can be inserted into the test chamber and in that the main body further comprises, at the top of the test chamber, a ventilation aperture leading to a short ventilation gallery comprising a vertical shaft leading to an upper substantially horizontal channel via which excess fluid sample and air can exit the test chamber into an overflow reservoir.
A method of controlling a plurality of light sources (140, 142) based on a source image, the method comprising: - controlling a first light source of the plurality of light sources (140, 142) according to a first light setting based on a first color of the source image, characterized in that the method comprises further: - receiving an input indicative of a change of color of the first light setting of the first light source, - determining a color of the changed first light setting, - modifying the source image by modifying the first color in the source image based on the color of the changed light setting, and - rendering the modified image on a display. - controlling a first light source of the plurality of light sources (140, 142) according to a first light setting based on a first color of the source image, - receiving an input indicative of a change of color of the first light setting of the first light source, - determining a color of the changed first light setting, - modifying the source image by modifying the first color in the source image based on the color of the changed light setting, and - rendering the modified image on a display.
A machine (1, 101) for preparing beverages, preferably for preparing espresso coffee, comprising a base (2, 102) and a head (3, 103) for dispensing the beverage that is provided with an extraction chamber adapted to accommodate a portion of at least one ingredient of the beverage, such as a dose of roasted and ground coffee, and connected to a water reservoir (4, 104) by means of a pump (5, 105), said machine (1, 101) comprising a support (6, 106) for a container of the beverage dispensed by said dispensing head (3, 103), in which said support (6, 106) of the container of the beverage is interposed axially between said dispensing head (3, 103) and said reservoir (4, 104), so that said dispensing head (3, 103), said support (6, 106) of the beverage container and said reservoir (4, 104) are crossed by an axis (A, A') that is substantially perpendicular to said base (2, 102), characterized in that said water reservoir (4, 104) can move with respect to said base (2, 102) between at least two positions in which said reservoir (4, 104) remains in fluid connection with said pump (5, 105), said at least two positions comprising a top-up position in which said reservoir (4, 104) provides on the outside of said machine (1, 101) an opening (43, 143) for introducing water in said reservoir (4, 104).
A composition, comprising: a pigment; and an organic group bonded to the pigment, wherein the organic group is: a pigment; and an organic group bonded to the pigment, wherein the organic group is:
A composition comprising: a) a polyamidoamine-epihalohydrin polymer having a molecular weight of between as indicated in 2,000 - 100,000 g/mol, measured using Size Exclusion Chromatography, the description and b) a protein, in which the weight ratio of a) to b) is between 100: 0.1 and 0.1: 100. a) a polyamidoamine-epihalohydrin polymer having a molecular weight of between as indicated in 2,000 - 100,000 g/mol, measured using Size Exclusion Chromatography, the description and b) a protein, in which the weight ratio of a) to b) is between 100: 0.1 and 0.1: 100.
A contactless identification smart card, comprising: a primary RFID tag in an active state, disposed inside the smart card having at least one line for separating the card into fragments, an additional RFID tag having at least one shunt circuit in the form of an electrical conductor, contactingly connected to an antenna of the additional RFID tag or contactingly connected to the terminals of an integral microcircuit of the additional RFID tag, and regions of said shunt circuit passing through two adjacent fragments (3,6,10,11) of the card and being structurally connected to the card so that when the card is in an ordinary, whole, state this shunt circuit is in a state of working contact, and when said adjacent fragments are in a separated state, the shunt circuit is in a state of broken contact, wherein when the shunt circuit of the additional RFID tag is in a state of working contact, the additional RFID tag is in an inactive state, and when said shunt circuit is in a state of broken contact, the additional RFID tag is in an active state as an additional RFID tag.
Assembly for a household appliance for handling items to be washed, with at least one washing drum for receiving items to be washed, and with at least one annular imbalance compensation device (13, 14), which is inserted into a surrounding receptacle of the washing drum, characterised in that the washing drum has a coupling area for coupling with the imbalance compensation device (13, 14), which coupling area has two abutting walls (28, 29) arranged at an angle to one another, and the imbalance compensation device (13, 14) has a housing with a first housing wall on which at least one coupling element projecting in a radial direction in a raised manner over the first housing wall is embodied, which coupling element has two coupling webs (32, 33) oriented at an angle (β) to one another, wherein one coupling web (32, 33) in each case abuts one abutting wall (28, 29).
Method for determining a jack-knifing angle of an articulated lorry, in which the following steps are carried out: - providing a first wheel speed sensor on a left-hand trailer wheel of a trailer axle of an articulated trailer, - providing a second wheel speed sensor on a right-hand trailer wheel of the trailer axle of the articulated trailer, - outputting speeds of the left-hand trailer wheel and of the right-hand trailer wheel from the wheel speed sensors (RS1, RS2), - linking the speeds from the first wheel speed sensor and from the second wheel speed sensor, and - outputting a jack-knifing angle between a towing vehicle and the articulated trailer, wherein further wheel speed sensors are provided and are used to measure the speed of a right-hand front wheel and of a left-hand front wheel of a front axle of the towing vehicle and/or to measure the speed of a left-hand rear wheel and of a right-hand rear wheel of a rear axle of the towing vehicle, wherein the jack-knifing angle is calculated only after a jack-knifing angle corresponding to a situation in which the articulated lorry is driving straight ahead has been calculated. - providing a first wheel speed sensor on a left-hand trailer wheel of a trailer axle of an articulated trailer, - providing a second wheel speed sensor on a right-hand trailer wheel of the trailer axle of the articulated trailer, - outputting speeds of the left-hand trailer wheel and of the right-hand trailer wheel from the wheel speed sensors (RS1, RS2), - linking the speeds from the first wheel speed sensor and from the second wheel speed sensor, and - outputting a jack-knifing angle between a towing vehicle and the articulated trailer, wherein further wheel speed sensors are provided and are used to measure the speed of a right-hand front wheel and of a left-hand front wheel of a front axle of the towing vehicle and/or to measure the speed of a left-hand rear wheel and of a right-hand rear wheel of a rear axle of the towing vehicle, wherein the jack-knifing angle is calculated only after a jack-knifing angle corresponding to a situation in which the articulated lorry is driving straight ahead has been calculated.
A device for assay determination, comprising: a photoelectric detection circuit; a processor; and an optical detection device for measuring assay signals, provided with a detection zone and a blank zone, wherein the photoelectric detection circuit detects light-reflection intensity signals from the detection zone and the blank zone, and feeds back the detected information to the processor; wherein the processor comprises a time controlling module, a threshold modification module and a datum comparison module which are connected to each other, the time controlling module being connected with the threshold modification module and the photoelectric detection circuit separately, and the threshold modification module and the photoelectric detection circuit being connected with the datum comparison module at the same time; the threshold modification module modifies a threshold value according to signals from the time controlling module and a preset relation of the threshold value variation with time, and the modified threshold value is then sent to the datum comparison module; the photoelectric detection circuit measures a detection value according to the signals from the time controlling module which is then sent to the datum comparison module; and the datum comparison module obtains a determined assay result by calculating the detection value and comparing the same with the corresponding threshold value. a photoelectric detection circuit; a processor; and an optical detection device for measuring assay signals, provided with a detection zone and a blank zone, wherein the photoelectric detection circuit detects light-reflection intensity signals from the detection zone and the blank zone, and feeds back the detected information to the processor; wherein the processor comprises a time controlling module, a threshold modification module and a datum comparison module which are connected to each other, the time controlling module being connected with the threshold modification module and the photoelectric detection circuit separately, and the threshold modification module and the photoelectric detection circuit being connected with the datum comparison module at the same time; the threshold modification module modifies a threshold value according to signals from the time controlling module and a preset relation of the threshold value variation with time, and the modified threshold value is then sent to the datum comparison module; the photoelectric detection circuit measures a detection value according to the signals from the time controlling module which is then sent to the datum comparison module; and the datum comparison module obtains a determined assay result by calculating the detection value and comparing the same with the corresponding threshold value.
A poly(phenylene ether) copolymer comprising 5 to 40 mole percent repeat units derived from 2-phenylphenol and 60 to 95 mole percent repeat units derived from 2,6-dimethylphenol, wherein the poly(phenylene ether) copolymer has a weight average molecular weight of 20,000 to 200,000 atomic mass units, measured by gel permeation chromatography in chloroform using polystyrene standards, wherein the polystyrene molecular weights are converted to poly(2,6-dimethyl-1,4-phenylene ether) molecular weights using the formula: M = 0.3122 × M 1.073, where M is poly(2,6-dimethyl-1,4-phenylene ether) molecular weight and M is polystyrene molecular weight; wherein the poly(phenylene ether) copolymer is prepared by a process comprising oxidatively copolymerizing a monomer mixture comprising 5 to 40 mole percent 2-phenylphenol and 60 to 95 mole percent 2,6-dimethylphenol in the presence of a solvent, molecular oxygen, and a polymerization catalyst comprising a metal ion and at least one amine ligand to form a solution of the poly(phenylene ether) copolymer in the solvent; wherein a ratio of total moles of 2-phenylphenol and 2,6-dimethylphenol to moles of metal ion is 20:1 to 800:1; and wherein a ratio of moles of amine groups in the amine ligands to moles metal ion is 1:10 to 10:1.