mhurhangee/ep-ind-claims huggingface dataset:
Self-foaming composition comprising benzoyl peroxide which is intended for a rinse-off topical application, comprising: - at least one intermediate composition B which comprises a gas-generating agent chosen from sodium bicarbonate, potassium bicarbonate, sodium carbonate, potassium carbonate and their mixtures, - at least one intermediate composition A which comprises an agent which activates the gas-generating agent chosen from an acid, a partially salified polyacid salt, a buffer solution of weak acid and of its conjugate base, and the mixtures of these compounds, and - benzoyl peroxide present in at least one of said intermediate compositions A and B. - at least one intermediate composition B which comprises a gas-generating agent chosen from sodium bicarbonate, potassium bicarbonate, sodium carbonate, potassium carbonate and their mixtures, - at least one intermediate composition A which comprises an agent which activates the gas-generating agent chosen from an acid, a partially salified polyacid salt, a buffer solution of weak acid and of its conjugate base, and the mixtures of these compounds, and - benzoyl peroxide present in at least one of said intermediate compositions A and B.
A method to design a motor drive power system comprising: determining a motor drive system that includes a motor controller, an electric motor and a feeder that couples the motor controller to the electric motor; determining a resonant point for the motor drive system; the method being characterized in that it further comprises: shifting the resonant point for the motor drive system to a shifted resonant point that is at a higher frequency as compared to a frequency associated with the resonant point; and designing a passive EMI filter for the shifted resonance point that is included in the motor drive system; selecting an interleaved motor controller or an active EMI noise cancellation mechanism in response to determining that a weight of the motor drive system that includes the passive EMI filter designed for the shifted resonant point does not meet specified conditions. determining a motor drive system that includes a motor controller, an electric motor and a feeder that couples the motor controller to the electric motor; determining a resonant point for the motor drive system; the method being characterized in that it further comprises: shifting the resonant point for the motor drive system to a shifted resonant point that is at a higher frequency as compared to a frequency associated with the resonant point; and designing a passive EMI filter for the shifted resonance point that is included in the motor drive system; shifting the resonant point for the motor drive system to a shifted resonant point that is at a higher frequency as compared to a frequency associated with the resonant point; and designing a passive EMI filter for the shifted resonance point that is included in the motor drive system; selecting an interleaved motor controller or an active EMI noise cancellation mechanism in response to determining that a weight of the motor drive system that includes the passive EMI filter designed for the shifted resonant point does not meet specified conditions.
A method for moving a fluid substance between chambers of a receptacle having a plurality of interconnected chambers, the method comprising the steps of: (a) combining in a sample processing chamber of the receptacle a fluid sample and a combination including a sample processing reagent comprising dispersible solid supports in a liquid medium and an immiscible liquid, wherein the solid supports are magnetically responsive particles or beads and adapted to immobilize an analyte suspected of being present in the sample and wherein the ratio of the immiscible liquid to the combined liquid medium and fluid sample is from 1:10 to 10:1; (b) moving a fluid volume containing one or more non-analyte components of the sample from the sample processing chamber to a waste chamber of the receptacle through a connection, and (c) during step (b), exposing the solid supports in the sample processing chamber to a magnetic field to retain the solid supports in the sample processing chamber, wherein the presence of the immiscible liquid during step (a) hinders the solid supports from obstructing movement of the fluid volume through the connection, and wherein the receptacle comprises opposed members configured to define the sample processing and waste chambers and the connection, and the sample processing chamber comprises a flexible portion that is at least partially compressed by one or more compressive forces applied to the flexible portion during step (b). (a) combining in a sample processing chamber of the receptacle a fluid sample and a combination including a sample processing reagent comprising dispersible solid supports in a liquid medium and an immiscible liquid, wherein the solid supports are magnetically responsive particles or beads and adapted to immobilize an analyte suspected of being present in the sample and wherein the ratio of the immiscible liquid to the combined liquid medium and fluid sample is from 1:10 to 10:1; (b) moving a fluid volume containing one or more non-analyte components of the sample from the sample processing chamber to a waste chamber of the receptacle through a connection, and (c) during step (b), exposing the solid supports in the sample processing chamber to a magnetic field to retain the solid supports in the sample processing chamber,
A computer-implemented method of evaluating the robustness of a radiotherapy treatment plan comprising a number of treatment fractions, comprising the steps of a. Obtaining a plan to be evaluated; b. Defining a scenario comprising one or more errors for each fraction; c. Calculating a dose distribution resulting from the plan under the scenario, wherein the contribution from each beam to the total dose distribution resulting from a scenario is approximated by a single beam dose calculation; d. Repeating steps b. and c. for a number of different scenarios; e. Evaluating the robustness of the plan by comparing the calculated dose distribution for each scenario with a set of clinical goals, based on at least one of the following: i. the probability of fulfilling the set of clinical goals estimated as the clinical goal fulfilment over the scenarios; ii. the range of DVH values over the scenarios; iii. dose statistics for dose distributions defined as voxel-wise aggregates over the scenario doses. a. Obtaining a plan to be evaluated; b. Defining a scenario comprising one or more errors for each fraction; c. Calculating a dose distribution resulting from the plan under the scenario, wherein the contribution from each beam to the total dose distribution resulting from a scenario is approximated by a single beam dose calculation; d. Repeating steps b. and c. for a number of different scenarios; e. Evaluating the robustness of the plan by comparing the calculated dose distribution for each scenario with a set of clinical goals, based on at least one of the following: i. the probability of fulfilling the set of clinical goals estimated as the clinical goal fulfilment over the scenarios; ii. the range of DVH values over the scenarios; iii. dose statistics for dose distributions defined as voxel-wise aggregates over the scenario doses. i. the probability of fulfilling the set of clinical goals estimated as the clinical goal fulfilment over the scenarios; ii. the range of DVH values over the scenarios; iii. dose statistics for dose distributions defined as voxel-wise aggregates over the scenario doses.
Valve for controlling a fluid, in particular for controlling a gas, comprising a valve housing (14, 25, 31, 61, 112) and an actuating unit for a valve closing member which is guided in the valve housing (14, 25, 31, 61, 112) and interacts with a valve seat, with the result that a fluid flow from an inflow side to an outflow side of the valve can be controlled, a gas deflection and/or distribution device (17, 17', 17", 17"', 70, 70', 70", 70"', 117, 117', 117", 117"') being provided on the outflow side of the valve, characterized in that the gas deflection and/or distribution device (117", 117"') is formed from a pipe piece which is fastened to the valve housing, the axis of the pipe piece coinciding with the axis of the gas injection valve, and the pipe piece being closed by way of a planar end side which runs perpendicularly with respect to the axis of the pipe piece and having at least one outflow opening (121, 121') on its side wall, the pipe piece (117", 117"') being placed onto an outflow-side stub of the valve housing and having an internal diameter which corresponds with the external diameter of the stub, and the valve seat being arranged in the region within the stub.
An oxygen-absorbing composition comprising 100 parts by weight of a carrier and 210 parts by weight or more of an easily oxidizable organic composition carried on the carrier by impregnating the dried carrier with the easily oxidizable organic composition in liquid form, in which the dried carrier is a granulate prepared by granulating a mixture comprising 100 parts by weight of a calcium silicate compound and 0.01 to 20 parts by weight of a binder, and by drying the obtained granulated mixture subsequently; the calcium silicate compound being represented by the following formula: CaO • m SiO 2 • n H 2 O wherein m is a number from 2 to 2.5 and n is a number of 1 to 1.5; and the carrier having crystal structures constituted by the aggregation of curved plate crystals comprising gyrolite calcium silicate and amorphous silicon dioxide.
Apparatus for forming hollow containers, suitable to contain in particular one or more liquid or semi-liquid food products, starting from parisons made of thermoplastic material, wherein the apparatus comprises a matrix defined by a pair of molds cooperating with each other to define a cavity shaped like the container to be formed, and a support channel, configured to form an additional portion of said container intended to be removed to allow said container to be filled, said support channel being connected to said cavity in correspondence with a connection zone and being provided with an aperture, on the opposite side with respect to said cavity, in communication with the outside; and a forming punch configured to thrust and blow one of said parisons against the walls of said cavity to form said container, and against the walls of said support channel to form said additional portion, said forming punch having an extension in the direction of a longitudinal axis and being operatively mobile, in a direction parallel to said longitudinal axis, through said support channel to enter into/exit from said cavity, wherein said forming punch comprises a thrusting end portion configured to be introduced into said cavity and to contact said container, in the process of being formed, at least in correspondence with said connection zone, so as to confer a desired size on it, and said forming punch further comprises a cutting portion, positioned upstream of said thrusting end portion to delimit said parison in correspondence with said aperture, and an auxiliary portion, interposed between said thrusting end portion and said cutting portion, and configured to allow said thrusting portion to reach and contact said connection zone.
A method for obtaining transfer factor, comprising: non-invasively exposing a non-mammalian source animal to at least one antigenic agent of a mammalian pathogen that will cause said non-mammalian source animal to elicit a T-cell mediated immune response; permitting said non-mammalian source animal to elicit said T-cell mediated immune response to said at least one antigenic agent; collecting at least one egg from said non-mammalian source animal following said T-cell mediated immune response, said at least one egg including transfer factor that transfers cellular immunity to a mammal in vivo and that includes transfer factor molecules having molecular weights of 4,000 Da to 5,000 Da; and collecting said transfer factor molecules from said at least one egg. non-invasively exposing a non-mammalian source animal to at least one antigenic agent of a mammalian pathogen that will cause said non-mammalian source animal to elicit a T-cell mediated immune response; permitting said non-mammalian source animal to elicit said T-cell mediated immune response to said at least one antigenic agent; collecting at least one egg from said non-mammalian source animal following said T-cell mediated immune response, said at least one egg including transfer factor that transfers cellular immunity to a mammal in vivo and that includes transfer factor molecules having molecular weights of 4,000 Da to 5,000 Da; and collecting said transfer factor molecules from said at least one egg.
An ion detector system for a mass spectrometer, wherein said ion detector system is arranged and adapted to correct for tilt and/or one or more non-linear aberrations in an isochronous plane of ions, wherein said isochronous plane is the plane of best fit of ions having a particular mass to charge ratio at a particular point in time; wherein said ion detector system comprises an ion detector comprising a 1 D or 2D array of detector elements; and wherein said ion detector system is characterised in that it is arranged and adapted: (i) to generate separate first mass spectral data sets for each detector element; (ii) to apply a calibration coefficient to each of said first mass spectral data sets to produce a plurality of second calibrated mass spectral data sets; and (iii) to combine said plurality of second calibrated mass spectral data sets to form a composite mass spectral data set. (i) to generate separate first mass spectral data sets for each detector element; (ii) to apply a calibration coefficient to each of said first mass spectral data sets to produce a plurality of second calibrated mass spectral data sets; and (iii) to combine said plurality of second calibrated mass spectral data sets to form a composite mass spectral data set.
A plurality of particles each of which including: a. a core comprising safinamide or a pharmaceutically acceptable salt thereof and a binder; b. a polymer composition which forms a coating on said core. a. a core comprising safinamide or a pharmaceutically acceptable salt thereof and a binder; b. a polymer composition which forms a coating on said core.
Process for the manufacturing of a mouldable plastic coating, characterised in that it provides for a step of mixing of a polymeric matrix selected from polybutylene terephthalate and polyethylene terephthalate together with a filler constituted by layered silicate with application of a shear stress, after said step of mixing said polymeric matrix with said filler constituted by layered silicate, the obtained mixture being dispersed in Milli-Q water in a concentration of 0,1% by weight; synthetic salt of quaternary ammonium, 0,03% by weight and synthetic resin of acrylic nature, 20% by weight are added to the mixture under vigorous stirring; the suspension is kept under stirring for 15 min and supplemented with 10-15% by weight of a mixture of mineral pigments.
A heater unit comprising: a first substrate and a second substrate joined together; a groove arranged on at least one join surface of the first substrate and the second substrate; and a sheath heater arranged inside the groove; wherein the sheath heater comprises, a metal sheath, a heating wire arranged with a gap within the metal sheath so as to rotate with respect to an axis direction of the metal sheath, an insulating material arranged in the gap, and characterized in that the heating wire has a band shape, and both ends of the heating wire are arranged at one end of the metal sheath, and in that the connection terminals are arranged at one end of the metal sheath, the connection terminals electrically connected with both ends of the heating wire respectively. a first substrate and a second substrate joined together; a groove arranged on at least one join surface of the first substrate and the second substrate; and a sheath heater arranged inside the groove; wherein the sheath heater comprises, a metal sheath, a heating wire arranged with a gap within the metal sheath so as to rotate with respect to an axis direction of the metal sheath, an insulating material arranged in the gap, and characterized in that the heating wire has a band shape, and both ends of the heating wire are arranged at one end of the metal sheath, and in that the connection terminals are arranged at one end of the metal sheath, the connection terminals electrically connected with both ends of the heating wire respectively. a metal sheath, a heating wire arranged with a gap within the metal sheath so as to rotate with respect to an axis direction of the metal sheath, an insulating material arranged in the gap, and characterized in that the heating wire has a band shape, and both ends of the heating wire are arranged at one end of the metal sheath, and in that the connection terminals are arranged at one end of the metal sheath, the connection terminals electrically connected with both ends of the heating wire respectively.
A shell handling device for artillery piece comprising a weapon, the handling device comprising an arm hinged in site and in relative bearing and provided with a shell gripping means intended to convey shells from an intermediate area to a loading stretcher, the device being characterised in that the arm can move around the relative bearing axis of the weapon and in that it comprises a shell transferring means comprising a bucket in which a shell is put down, the bucket moving from an initial position to an intermediate position by a translation combined with a rotation of the bucket, the rotation of the bucket being intended to orient the fuze of the shell in a direction adapted for the loading, the translation of the bucket being performed along a rail so as to position the shell on the intermediate position accessible to the gripping means of the hinged arm, wherein the rail comprises a fixed rail portion and a tiltable rail portion so as to be able to tilt the bucket on the intermediate position to arrange the longitudinal axis of the bucket substantially parallel to a longitudinal axis of the gripping means.
A door closing mechanism, consisting of a fixed body, said fixed body also being used as a clamping mechanism for clamping of a door, in combination with a piston performing reciprocating motion within a piston cylinder bearing a coil return spring internally and comprising an elongated groove for door pivot rotation movement, said piston also bearing a housing for supporting of a front bearing and a housing for supporting of a rear pair of bearings located on pins, said bearings (11,12) monitoring the eccentric motion of a cam system tightened onto a six tooth splined shaft by a shaft tightening system, said fixed body comprising holes for mounting of a front cover- around the piston cylinder, said piston bearing a sealing O ring, said door closing mechanism comprising a door speed rotation regulation valve, a non-return valve, a first oil compartment and a second oil compartment, an oil inlet and an oil inlet seal, the front cover and a rear cover with flexible sealing rings, wherein said door closing mechanism further comprises a latching control system being capable of defining latching activation at any degree appropriate, within the arc ranging from 12° to 0°, where said latching control system consists of a round plate bearing a specially designed circular groove of uneven depth engraved in its internal surface, being seated inside the rear cover and fastened onto the piston cylinder with screws, whereby by means of its uneven depth characteristic, said circular groove is being capable of defining latching activation at any degree appropriate within the arc ranging from 12° to 0°, by exercising the push required, depending on each particular door dimensions, this resulting to achievement of effective door closing, while by means of a safety valve bearing a tension regulating screw, a spring, an oil safety ball, a pressure relief shaft and a spring safety pin for prohibiting the dislocation of said round plate towards the oil compartment during latching speed regulation, where by door reaching the appropriate latching activation degree, the oil safety ball is being pushed by means of pressure relief shaft and the safety valve spring is being compressed, thus an oil passage way is being opened through second oil compartment, towards the first oil compartment, whereby the mechanism rotational movement is being accelerated with direction towards the 0° position, i.e. the closed door position, resulting to neutralization of lock tongue obstacle and achievement of smooth door closing.
A foldable electronic device, comprising: a shaft cover and a device body; a first swing arm connecting the shaft cover and the device body and configured to be rotatable around a first axis that is inside the shaft cover, so that the device body is folded or unfolded around the first axis; a second swing arm distributed in parallel to the first swing arm in a direction of the first axis and coupled to a damping component that is inside the shaft cover; and a pin connecting the first swing arm and the second swing arm at an end close to the device body, so that the second swing arm follows the first swing arm to rotate around a second axis that is inside the shaft cover when the first swing arm rotates, and transmits a damping force produced by the damping component to the first swing arm through the pin, wherein the first axis is parallel to the second axis; wherein the first swing arm further comprises an annular groove protruding toward the second swing arm; the second swing arm further comprises a boss protruding toward the first swing arm; and the boss is embedded into the annular groove in an axial direction of the pin, so that the boss and the annular groove bear part of the damping force when the second swing arm follows the first swing arm to rotate. a shaft cover and a device body; a first swing arm connecting the shaft cover and the device body and configured to be rotatable around a first axis that is inside the shaft cover, so that the device body is folded or unfolded around the first axis; a second swing arm distributed in parallel to the first swing arm in a direction of the first axis and coupled to a damping component that is inside the shaft cover; and a pin connecting the first swing arm and the second swing arm at an end close to the device body, so that the second swing arm follows the first swing arm to rotate around a second axis that is inside the shaft cover when the first swing arm rotates, and transmits a damping force produced by the damping component to the first swing arm through the pin, wherein the first axis is parallel to the second axis; wherein the first swing arm further comprises an annular groove protruding toward the second swing arm; the second swing arm further comprises a boss protruding toward the first swing arm; and the boss is embedded into the annular groove in an axial direction of the pin, so that the boss and the annular groove bear part of the damping force when the second swing arm follows the first swing arm to rotate.