mhurhangee/ep-ind-claims huggingface dataset:
A moulding apparatus for manufacturing agglomerated cork stoppers, comprising: mould transportation means to at least one moulding station; said mould comprising a pair of fixed plates (11, 12) parallel and spaced in a height direction, distributions of holes formed in said plates and adapted to become mutually centered between plate and plate, a plurality of cylindrical moulding bushes defining respective seats, in a number that corresponds to the number of said holes and arranged between the fixed plates with respective axes parallel with said height direction, said bushes being made mutually integral by a central plate adapted to displace the bushes along a direction of actuation orthogonal with the height direction for a relative run between an opening position, in which an alignment between the holes of the fixed plates and the seats of the bushes is obtained, and a closure position in which said seats of the bushes become shut by the fixed plates, the mould further comprising an adjustment plate in contact with either of the fixed plates, having in turn a distribution of holes matching the distribution of holes in said fixed plate and adapted to be displaced along said direction of actuation for a run from a first to a second position corresponding to the relative run between the central plate and the fixed plates, whereby said bushes abut at an axial end on said adjustment plate and at the opposite end on a fixed plate, the adjustment plate being free to slide in said direction of actuation from the first to the second position independently from said central plate to keep its holes disaligned or aligned to the seats of the bushes and consequently define in either case a moulding space with greater or lower height; agglomerated cork loading means for loading the cork in said mould arranged in said moulding station; wherein said moulding station further provides drive means (6, 7, 8, 9) of at least said central plate and said adjustment plate, comprising thrust means adapted to push the plates at respective ends according to said direction of actuation to displace them accordingly, and adapted to be configured in a first configuration, for obtaining stoppers of greater height, in which the thrust on said central plate from said opening position to said closing position carries along also said adjustment plate from the first to the second position, whereby the moulding space is defined between the two fixed plates (11, 12), and in a second configuration, for obtaining stoppers of reduced height, in which the thrust on said central plate from said opening position to said closing position does not affects said adjustment plate that remains in the first position, whereby the molding space is defined between a fixed plate and the same adjustment plate, the apparatus further comprising control means programmed to control at least said drive means (6, 7, 8, 9) according to respective different operating sequences depending on the fact that the same drive means are configured in either said first or said second configuration.
Connection system, having a housing and a nut which can be arranged on the housing, characterized in that the nut is formed from an elastic material and latching elements are formed on the nut, which latching elements can be latched to mating latching elements which are formed on the housing, wherein an annular element is formed on an outer circumferential surface of the housing, which annular element projects from the outer circumferential surface of the housing and forms a collar or step on which the nut rests and is supported when it is attached to the housing, wherein the annular element has a circumferential outer edge, wherein the mating latching elements are arranged on an inner surface, which faces in the direction of the thread, of the edge.
A method for communicating between a local device having a first clock, a low-frequency, LF, transmitter and a high-frequency, HF, transceiver, and a remote device having a second clock, an LF receiver and an HF transceiver, the method comprising: transmitting an LF signal from the local device to the remote device; at the remote device, synchronizing the second clock based on the LF signal, and transmitting a first HF signal to the local device using the synchronized second clock and a first predetermined time delay relative to receipt of the LF signal at the remote device; at the local device, synchronizing the first clock based on the first HF signal, and transmitting a second HF signal to the remote device using the first clock and a second predetermined time delay relative to receipt of the first HF signal at the local device; and at the remote device, re-synchronizing the second clock based on the second HF signal and while accounting for a trip time for at least one of communicating the first HF signal from the remote device to the local device, and communicating the second HF signal from the local device to the remote device. transmitting an LF signal from the local device to the remote device; at the remote device, synchronizing the second clock based on the LF signal, and transmitting a first HF signal to the local device using the synchronized second clock and a first predetermined time delay relative to receipt of the LF signal at the remote device; at the local device, synchronizing the first clock based on the first HF signal, and transmitting a second HF signal to the remote device using the first clock and a second predetermined time delay relative to receipt of the first HF signal at the local device; and at the remote device, re-synchronizing the second clock based on the second HF signal and while accounting for a trip time for at least one of communicating the first HF signal from the remote device to the local device, and communicating the second HF signal from the local device to the remote device.
Humidifying apparatus comprising: a base comprising air flow generating means for generating a first air flow; a nozzle comprising at least one first air outlet for emitting the first air flow, the nozzle defining an opening through which air from outside the humidifying apparatus is drawn by air emitted from said at least one first air outlet; humidifying means for humidifying a second air flow; at least one second air outlet for emitting the second air flow; and a water tank characterized in that said water tank is mounted on the base, and in that said water tank has an upwardly curved upper surface and the nozzle is mounted on the apparatus so that the upper surface of the water tank at least partially covers a lower section of an external surface of the nozzle. a base comprising air flow generating means for generating a first air flow; a nozzle comprising at least one first air outlet for emitting the first air flow, the nozzle defining an opening through which air from outside the humidifying apparatus is drawn by air emitted from said at least one first air outlet; humidifying means for humidifying a second air flow; at least one second air outlet for emitting the second air flow; and a water tank characterized in that said water tank is mounted on the base, and in that said water tank has an upwardly curved upper surface and the nozzle is mounted on the apparatus so that the upper surface of the water tank at least partially covers a lower section of an external surface of the nozzle.
A process for preparing a cooked restructured meat product, comprising the steps of: hydrating under vacuum at least one vegetable protein mixed with water and at least one colorant; mixing at least one meat product with the mixture of hydrated and colored vegetable protein; mixing texturised units with the mixture of meat products and hydrated and colored vegetable protein obtaining a prepared paste; cooking the prepared paste; and forming the cooked paste in a desired shape; the process is characterized in that the step of cooking the prepared paste includes the steps of: (a) portioning the prepared paste in portions from 50 to 150 grams, rolling the portions and cooking the portions in a simultaneous and homogeneous manner on its upper and lower surface in an oven including an upper heating panel and a lower heating panel, both panels being in contact with said paste at a temperature from 100 to 150 °C; or (b) stuffing the prepared paste in a natural or artificial wrapping; and cooking it in an oven or cook kettle until that the prepared paste reaches an internal temperature from 70 to 80 °C; or (c) cooking the prepared paste in a cooking pot while stirring the prepared paste until that the prepared paste reaches an internal temperature from 70 to 80 °C. hydrating under vacuum at least one vegetable protein mixed with water and at least one colorant; mixing at least one meat product with the mixture of hydrated and colored vegetable protein; mixing texturised units with the mixture of meat products and hydrated and colored vegetable protein obtaining a prepared paste; cooking the prepared paste; and forming the cooked paste in a desired shape; the process is characterized in that the step of cooking the prepared paste includes the steps of: (a) portioning the prepared paste in portions from 50 to 150 grams, rolling the portions and cooking the portions in a simultaneous and homogeneous manner on its upper and lower surface in an oven including an upper heating panel and a lower heating panel, both panels being in contact with said paste at a temperature from 100 to 150 °C; or (b) stuffing the prepared paste in a natural or artificial wrapping; and cooking it in an oven or cook kettle until that the prepared paste reaches an internal temperature from 70 to 80 °C; or (c) cooking the prepared paste in a cooking pot while stirring the prepared paste until that the prepared paste reaches an internal temperature from 70 to 80 °C. (a) portioning the prepared paste in portions from 50 to 150 grams, rolling the portions and cooking the portions in a simultaneous and homogeneous manner on its upper and lower surface in an oven including an upper heating panel and a lower heating panel, both panels being in contact with said paste at a temperature from 100 to 150 °C; or (b) stuffing the prepared paste in a natural or artificial wrapping; and cooking it in an oven or cook kettle until that the prepared paste reaches an internal temperature from 70 to 80 °C; or (c) cooking the prepared paste in a cooking pot while stirring the prepared paste until that the prepared paste reaches an internal temperature from 70 to 80 °C.
A method of forming a polymer, comprising (a) providing a reaction mixture at pH 3 to 7.5 comprising (i) one or more vinyl monomers (ii) one or more nitrite salts or one or more derivatives of nitrite salts (iii) one or more initiators (iv) water (b) establishing conditions in said reaction mixture such that a free radical polymerization of said vinyl monomer occurs at a location, and (c) after steps (a) and (b) and prior to completion of said free radical polymerization, adding a base compound to raise the pH of said reaction mixture to above 7.5 to increase the rate of generation of said free radical polymerization at the location of said free radical polymerization. (a) providing a reaction mixture at pH 3 to 7.5 comprising (i) one or more vinyl monomers (ii) one or more nitrite salts or one or more derivatives of nitrite salts (iii) one or more initiators (iv) water (i) one or more vinyl monomers (ii) one or more nitrite salts or one or more derivatives of nitrite salts (iii) one or more initiators (iv) water (b) establishing conditions in said reaction mixture such that a free radical polymerization of said vinyl monomer occurs at a location, and (c) after steps (a) and (b) and prior to completion of said free radical polymerization, adding a base compound to raise the pH of said reaction mixture to above 7.5 to increase the rate of generation of said free radical polymerization at the location of said free radical polymerization.
A process for producing a multimodal polyethylene composition comprising the following steps: i) blending a polyethylene fraction (A-1) having a viscosity average molecular weight Mv of equal to or more than 700 kg/mol to equal to or less than 10,000 kg/mol and a density of equal to or more than 920 kg/m 3 to equal to or less than 960 kg/m 3 and a polyethylene fraction (A-2) having a lower Mw as polyethylene fraction (A-1) of 50 to 500 kg/mol and a density of equal to or more than 910 kg/m 3 to equal to or less than 960 kg/m 3 with a weight ratio of (A-1) to (A-2) of 45:55 to 80:20 to form a first polyethylene resin having a Mw of equal to or more than 200 kg/mol to equal to or less than 1500 kg/mol, a melt flow rate MFR 5 (190°C, 5 kg) of 0.001 to 10 g/10 min and a density of equal to or more than 910 kg/m 3 to equal to or less than 960 kg/m 3, ii) blending the first polyethylene resin with a second polyethylene resin having a Mw of equal to or more than 50 kg/mol to less than 700 kg/mol, and a density of equal to or more than 910 kg/m 3 to equal to or less than 960 kg/m 3 to form the multimodal polyethylene composition, wherein the weight ratio of the first polyethylene resin to the second polyethylene resin in the polyethylene composition is 2:98 to 50:50, and wherein the multimodal polyethylene composition has a melt flow rate MFR 5 (190°C, 5 kg) of 0.01 to 10 g/10 min and a density of equal to or more than 910 kg/m 3 to equal to or less than 970 kg/m 3. i) blending a polyethylene fraction (A-1) having a viscosity average molecular weight Mv of equal to or more than 700 kg/mol to equal to or less than 10,000 kg/mol and a density of equal to or more than 920 kg/m 3 to equal to or less than 960 kg/m 3 and a polyethylene fraction (A-2) having a lower Mw as polyethylene fraction (A-1) of 50 to 500 kg/mol and a density of equal to or more than 910 kg/m 3 to equal to or less than 960 kg/m 3 with a weight ratio of (A-1) to (A-2) of 45:55 to 80:20 to form a first polyethylene resin having a Mw of equal to or more than 200 kg/mol to equal to or less than 1500 kg/mol, a melt flow rate MFR 5 (190°C, 5 kg) of 0.001 to 10 g/10 min and a density of equal to or more than 910 kg/m 3 to equal to or less than 960 kg/m 3, ii) blending the first polyethylene resin with a second polyethylene resin having a Mw of equal to or more than 50 kg/mol to less than 700 kg/mol, and a density of equal to or more than 910 kg/m 3 to equal to or less than 960 kg/m 3 to form the multimodal polyethylene composition, wherein the weight ratio of the first polyethylene resin to the second polyethylene resin in the polyethylene composition is 2:98 to 50:50, and wherein the multimodal polyethylene composition has a melt flow rate MFR 5 (190°C, 5 kg) of 0.01 to 10 g/10 min and a density of equal to or more than 910 kg/m 3 to equal to or less than 970 kg/m 3.
A U-shaped cup seal, the seal comprising an inner wall, an outer wall spaced apart from the inner wall, a base connecting the inner wall and the outer wall, a first end having a tab, and a tab receiving second end, characterised in that the tab receiving second end has a first tab receiving protrusion on one of the inner and outer walls (104, 108), extending toward the other of the inner and outer walls (104, 108).
A homogenizer comprising a piston pump, a homogenizing device, and a pulsation damper configured to reduce pressure variations in a pipe system, said pulsation damper comprising a first pipe section and a second pipe section, said first pipe section being at least partly placed inside said second pipe section, such that a product flow can flow through said first pipe section and through a space formed between said first pipe section and said second pipe section, wherein the second pipe section is made of an elastic material, characterised in that the second pipe section has an elliptical cross section and is arranged to flex towards a more circular cross section with the effect that a larger volume can be held and hence give rise to improved damping efficiency.
An axle unit comprising a stub axle and a tube unit, wherein the stub axle at least in regions is configured rotationally symmetrically about a stub axis and has a channel which extends substantially parallel to the stub axis, wherein the tube unit is configured as a hollow body and extends substantially along a tube axis, wherein the tube unit has a recess running transversely to the tube axis, wherein a line element is provided which can be brought into fluid-tight connection with the channel and can be passed through the recess of the tube unit, characterized in that the line element is a hydraulic line, wherein the tube unit has a first joining region which is configured for creating a connection to the stub axle, and wherein the first joining region forms an overlap with a stub joining region, wherein the overlap has an overlap length (a) which stands in a ratio of 0.05 to 0.4 to the stub length.
A magnetic flowmeter for measuring flow of a process fluid, comprising: a coil configured to apply a magnetic field to the process fluid; a coil driver configured to apply a coil drive signal to the coil; electrodes arranged to sense a fluid voltage signal related to the applied magnetic field and fluid flow; an analog to digital converter having a digital output comprising a plurality of digitized samples related to the sensed fluid voltage signal, and a digitized signal of the coil drive signal; and digital computation circuitry configured to receive the plurality of digitized samples, filter the samples, and responsively provide an output related to flow, wherein the digital computation circuitry inverts at least a portion of the digitized sensed fluid signal, and wherein the portion comprises a trailing portion of a half cycle of the fluid voltage signal; characterized in that the digital computation circuitry filters the samples in accordance with a non-linear filter; and the digital computation circuitry is adapted to receive the coil drive signal as a reference signal, wherein the digital computation circuitry is adapted to mix the reference signal and the plurality of digitized samples, such demodulation reducing the linear noise at other frequencies than the frequency of the reference signal. a coil configured to apply a magnetic field to the process fluid; a coil driver configured to apply a coil drive signal to the coil; electrodes arranged to sense a fluid voltage signal related to the applied magnetic field and fluid flow; an analog to digital converter having a digital output comprising a plurality of digitized samples related to the sensed fluid voltage signal, and a digitized signal of the coil drive signal; and digital computation circuitry configured to receive the plurality of digitized samples, filter the samples, and responsively provide an output related to flow, wherein the digital computation circuitry inverts at least a portion of the digitized sensed fluid signal, and wherein the portion comprises a trailing portion of a half cycle of the fluid voltage signal; characterized in that the digital computation circuitry filters the samples in accordance with a non-linear filter; and the digital computation circuitry is adapted to receive the coil drive signal as a reference signal, wherein the digital computation circuitry is adapted to mix the reference signal and the plurality of digitized samples, such demodulation reducing the linear noise at other frequencies than the frequency of the reference signal.
Helmet comprising: - at least a cellular energy-absorbing insert; - a foam liner comprising at least one recess shaped to accommodate the at least one cellular energy-absorbing insert; the foam liner also comprises at least one vent for allowing an air transit from outside the helmet to the cellular energy-absorbing insert; and being characterised by - a protective layer attached to the foam liner in correspondence of bottom/s of said recess/es, wherein the protective layer crosses the at least one vent; wherein the protective layer is a protective layer permeable to air which comprises micro-holes in correspondence of the at least one vent, such that the at least one cellular energy-absorbing insert is not visible from outside the helmet through the vent. - at least a cellular energy-absorbing insert; - a foam liner comprising at least one recess shaped to accommodate the at least one cellular energy-absorbing insert; the foam liner also comprises at least one vent for allowing an air transit from outside the helmet to the cellular energy-absorbing insert; and being characterised by - a protective layer attached to the foam liner in correspondence of bottom/s of said recess/es, wherein the protective layer crosses the at least one vent;
An automatic analysis apparatus comprising: a liquid container with a piercing type cap, which contains a liquid; a dispensing nozzle for penetrating the cap and sucking the liquid contained in the liquid container; and a nozzle vertical movement mechanism (8, 9) for moving up and down the dispensing nozzle, and a control device for controlling the nozzle vertical movement mechanism (8, 9) which is configured to lower the moving velocity of the dispensing nozzle in a zone where a tip of the dispensing nozzle passes through the cap is provided, characterized in that the control device comprises a means for measuring height of a cap of each of a plurality of liquid containers set in place and a means for storing a low velocity zone start value and a low velocity zone end value calculated based on the cap height for each of the liquid containers; and the control device is configured to lower the moving velocity during vertical movement of the dispensing nozzle according to the start value and end value for the container concerned. a liquid container with a piercing type cap, which contains a liquid; a dispensing nozzle for penetrating the cap and sucking the liquid contained in the liquid container; and a nozzle vertical movement mechanism (8, 9) for moving up and down the dispensing nozzle, and a control device for controlling the nozzle vertical movement mechanism (8, 9) which is configured to lower the moving velocity of the dispensing nozzle in a zone where a tip of the dispensing nozzle passes through the cap is provided, characterized in that the control device comprises a means for measuring height of a cap of each of a plurality of liquid containers set in place and a means for storing a low velocity zone start value and a low velocity zone end value calculated based on the cap height for each of the liquid containers; and the control device is configured to lower the moving velocity during vertical movement of the dispensing nozzle according to the start value and end value for the container concerned.