mhurhangee/ep-ind-claims huggingface dataset:
A method of coordinating control commands in a medical device system comprising a medical device for a patient, and a plurality of wireless controller devices for the medical device, each of the wireless controller devices being capable of independently issuing control commands for the medical device, the method comprising: wirelessly broadcasting a lockout message from a first controller device of the plurality of wireless controller devices, the lockout message being formatted to disable at least one function of a second controller device of the plurality of wireless controller devices upon receipt of the lockout message at the second controller device; thereafter, wirelessly transmitting a control command from the first controller device, the control command being formatted to control a function of the medical device upon receipt of the control command by the medical device; and thereafter, wirelessly broadcasting an unlock message from the first controller device, the unlock message being formatted to clear the lockout message at the second controller device upon receipt of the unlock message at the second controller device. wirelessly broadcasting a lockout message from a first controller device of the plurality of wireless controller devices, the lockout message being formatted to disable at least one function of a second controller device of the plurality of wireless controller devices upon receipt of the lockout message at the second controller device; thereafter, wirelessly transmitting a control command from the first controller device, the control command being formatted to control a function of the medical device upon receipt of the control command by the medical device; and thereafter, wirelessly broadcasting an unlock message from the first controller device, the unlock message being formatted to clear the lockout message at the second controller device upon receipt of the unlock message at the second controller device.
A method for producing a fluorohydrocarbon represented by a structural formula comprising bringing a secondary or tertiary ether compound represented by a structural formula into contact with an acid fluoride represented by a structural formula in a hydrocarbon having 5 to 8 carbon atoms as a solvent in the presence of a boron trifluoride complex, wherein each of R 1 and R 2 independently represents an alkyl group having 1 to 3 carbon atoms, R 3 represents a hydrogen atom, a methyl group, or an ethyl group, and R 4 represents a methyl group or an ethyl group, provided that R 1 and R 2 are optionally bonded to each other to form a ring structure, R 5 -COF wherein R 5 represents a methyl group or an ethyl group, wherein R 1 to R 3 are the same as defined above.
A personal care article in the form of a porous dissolvable solid structure, comprising: (a) from 1% to 75% by weight surfactant; (b) from 15% to 70% by weight polymeric structurant, wherein said polymeric structurant has a weighted average molecular weight of from 40,000 to 500,000, wherein the weighted average molecular weight is computed by summing the average molecular weights of each polymer structurant multiplied by their respective relative weight percentages by weight of the total weight of polymers present within the porous solid; and (c) from 1% to 30% by weight plasticizer; wherein the article is an open celled foam with a % open cell of from 80% to 100% and, wherein the article has a top and a bottom, and wherein the top comprises an Acquisition Region wherein the pores in the Acquisition Region have an average diameter of from 0.125 to 0.850 mm and wherein the bottom has pores having an average diameter of from 0.020 to 0.125 mm, wherein the average diameters of the pores of the top and the bottom of the Article are measured according to a weighted radius which is calculated from the three dimensional data from a microcomputed tomography as disclosed herein, wherein the Article has a concave area for receiving water, wherein the concave area is located at the Acquisition Region. (a) from 1% to 75% by weight surfactant; (b) from 15% to 70% by weight polymeric structurant, wherein said polymeric structurant has a weighted average molecular weight of from 40,000 to 500,000, wherein the weighted average molecular weight is computed by summing the average molecular weights of each polymer structurant multiplied by their respective relative weight percentages by weight of the total weight of polymers present within the porous solid; and (c) from 1% to 30% by weight plasticizer;
Single-fluted gun drill having at least one cutting edge for complete drilling, comprising a drill head arranged on a shaft and a chip removal channel extending substantially along the axis of the drill head and the shaft and arranged in both the drill head and the shaft, and at least one guiding element (170, 171, 172, 173) arranged on the periphery of the drill head, characterised in that at least one part of the at least one guiding element is arranged in such a way that a predeterminable angular range of the guiding element is covered, wherein the predeterminable angular range extends beyond an angular range greater than 245° against the rotational direction of the single lip drill measured from the cutting edge arranged at 0°, and the outer surface, which faces towards the bore, of the at least one guiding element in an angular range greater than 245° has a smaller radial distance from the tool central axis than the distance from the outer surface(s), which face(s) towards the bore, of the guiding element/guiding elements in an angular range smaller than 245°.
Device for controlling fluid media in the form of a 3/2-way valve with three connections (40, 42, 44), comprising a molded part made from an elastomeric material, two line sections (36, 38) which connect the three connections (40, 42, 44) to one another, between which two flow paths (46, 48) extend, and a control unit comprising an electromagnetic actuator that is coupled to two blocking elements (56, 58), wherein the two blocking elements (56, 58) are arranged to be displaced by the actuator between a blocking position and a release position, wherein the actuator is coupled to the two blocking elements (56, 58) to selectively block or enable a respective flow path (46; 48) of the two flow paths (46, 48), wherein a coupling mechanism is provided, which is arranged to be driven by the actuator, wherein the coupling mechanism mechanically couples the first blocking element and the second blocking element to each other, wherein the first blocking element is in the blocking position when the second blocking element is in the release position, and wherein the first blocking element is in the release position when the second blocking element is in the blocking position, characterized in that the first blocking element (56, 58) in the blocking position deforms a first line section (36, 38) to block the first flow path (46, 48), in that the second blocking element (56, 58) in the blocking position deforms a second line section (36, 38), in order to block the second flow path (46, 48), in that the two line sections (36, 38) are formed in the molded part, in that the molded part has three connections (40, 42, 44) between which the two flow paths (46, 48) extend, in that the molded part is arranged as an exchangeable insert on which grommets are integrally formed, which are adjacent to the connections (40, 42, 44), and which ensure the alignment of the molded part on the device, and in that the first blocking element and the second blocking element are coupled to each other in such a way that the first blocking element and the second blocking element simultaneously block the flow paths (46, 48) assigned thereto, at least in an intermediate position between the blocking position of the first blocking element and the blocking position of the second blocking element.
Method for the manufacture of a plurality of seals in a common mould, wherein each seal comprises a sealing ring and a sliding ring, wherein the sliding ring is arranged on that side of the sealing ring which faces a surface to be sealed, and wherein the sealing ring and the sliding ring are formed as a single piece, characterized in that, in a first method step, a cylindrical tube section made from the polymeric material of the sliding ring is placed into the mould cavity of a manufacturing mould and held in its position, wherein the mould cavity has partial cavities (6.1, 6.2,...) which correspond to the number of seals to be produced, are arranged axially adjacent to one another and are connected in a flow-conducting manner to one another, wherein the tube section divides all of the partial cavities (6.1, 6.2,...) in the radial direction in each case into a sliding ring hollow space and into a sealing ring hollow space, which hollow spaces are assigned to each other adjacently in the radial direction, wherein the tube section has an axial width which substantially corresponds to the axial extent of the mould cavity and the sum of the axial width of all of the seals to be manufactured in the partial cavities (6.1, 6.2,...), in that, in a second method step, elastomeric material is pressed into the sealing ring hollow spaces in such a manner that the elastomeric material completely fills the sealing ring hollow spaces and deforms the tube section radially into the sliding ring hollow spaces until the tube section comes into contact in a close-fitting manner with the walls bounding the sliding ring hollow spaces, in that, subsequently, in a third method step, the seals which are still joined together after the second method step because of the manufacturing process are removed together from the manufacturing mould and, in a fourth method step, are separated from one another.
A container manufacturing method, comprising: forming a double-walled container having a plenum enclosed between an inner body and an outer body; creating a vacuum at least partially in the plenum using a seal having a first melt point; applying a water-based paint coating to an inside surface of the inner body after creating the vacuum characterised by, the paint coating having a drying temperature at about 300 to 320°C; and the method comprising curing the paint coating with a temperature level, the temperature level being about 300 to 320°C and being below the first melt point. forming a double-walled container having a plenum enclosed between an inner body and an outer body; creating a vacuum at least partially in the plenum using a seal having a first melt point; applying a water-based paint coating to an inside surface of the inner body after creating the vacuum characterised by, the paint coating having a drying temperature at about 300 to 320°C; and the method comprising curing the paint coating with a temperature level, the temperature level being about 300 to 320°C and being below the first melt point.
An exhaust purification system for an internal combustion engine in which fuel is burned under an oxygen excess, in which a wall flow type particulate filter for trapping particulate matter in the exhaust gas is arranged inside of an exhaust passage, and in which ash is trapped along with particulate matter by the particulate filter, the exhaust purification system characterized in that the particulate filter carries an ash atomization agent, the ash atomization agent having a plurality of acid points which have the property of releasing hydrogen ions and atomizing the ash and receiving ash ions and holding the ash ions on the particulate filter in the state where a concentration of oxygen in the exhaust gas which flows into the particulate filter is lowered and a temperature of the particulate filter is raised and of releasing the held atomized ash ions in the state where the exhaust gas which flows into the particulate filter under an oxidizing atmosphere contains SOx, and the exhaust purification system is provided with an ash atomizing means temporarily performing ash atomization processing which renders the state of the particulate filter a state where the concentration of oxygen in the exhaust gas which flows into the particulate filter is lowered and the temperature of the particulate filter is raised to remove ash from the particulate filter.
A device for a safety belt of a car and/or child seat for partially absorbing a belt force occurring in cases of restraint having two deflecting elements (3, 4) having a first spacing from each other in the longitudinal direction of the device, and by means of which the safety belt provided for the same can be deflected when the device is used properly, such that a belt reserve of the safety belt for disposing between the two deflecting elements (3, 4) has a greater length in comparison with the first spacing, having a destructible element connecting the two deflecting elements (3, 4) to each other, and having a force transmitting means implemented such that the belt force can be transferred to the destructible element so that the destructible element is destructible when a belt force threshold is exceeded and thereby the first spacing between the two deflecting elements (3, 4) can be expanded to a second spacing, characterized in that the force transmitting means is implemented such that the destructible element can be loaded in tension by means of the force transmitting means and the belt force is applied thereto in the longitudinal direction of the device.
A method for preparing galacto-oligosaccharides from lactose, comprising (i) contacting a lactose feed with immobilized beta-galactosidase (EC 3.2.1.23) and (ii) allowing for GOS synthesis, wherein said lactose feed is an aqueous slurry of crystalline lactose.
Method for measuring parameters of an optical beam emitted by a LIDAR, said method comprising: - calculating a position and a direction of an attachment zone of a movement system on which an optical device is attached, such that an alignment axis of the attachment zone coincides with an expected emission axis of the optical beam, the calculation being carried out based on data relating to a direction of emission of the beam emitted by the LIDAR, - positioning the attachment zone, with respect to the LIDAR, in the calculated position, - measuring one or more parameters of the optical beam by the optical device. - calculating a position and a direction of an attachment zone of a movement system on which an optical device is attached, such that an alignment axis of the attachment zone coincides with an expected emission axis of the optical beam, the calculation being carried out based on data relating to a direction of emission of the beam emitted by the LIDAR, - positioning the attachment zone, with respect to the LIDAR, in the calculated position, - measuring one or more parameters of the optical beam by the optical device.
A digital communications receiver for receiving a vestigial sideband, VSB, signal representing a sequence of encoded symbols each representative of a plurality of data bits, the receiver comprising: an input configured to receive a VSB signal from a communications channel; an amplification and filtration device (40, 42, 44) coupled to the input and configured to adjust a magnitude of, and to filter, the VSB signal to produce a scaled and filtered VSB signal; and a virtual sub-carrier estimator coupled to the amplification and filtration device (40, 42, 44) and configured to process the scaled and filtered VSB signal to estimate a matrix of virtual sub-carriers such that the matrix of virtual sub-carriers is conjugate symmetric about half the symbol rate of the VSB signal; wherein the matrix of virtual sub-carriers is a Fourier transform of a matrix of symbols and each element of the matrix of symbols has a real value. an input configured to receive a VSB signal from a communications channel; an amplification and filtration device (40, 42, 44) coupled to the input and configured to adjust a magnitude of, and to filter, the VSB signal to produce a scaled and filtered VSB signal; and a virtual sub-carrier estimator coupled to the amplification and filtration device (40, 42, 44) and configured to process the scaled and filtered VSB signal to estimate a matrix of virtual sub-carriers such that the matrix of virtual sub-carriers is conjugate symmetric about half the symbol rate of the VSB signal; wherein the matrix of virtual sub-carriers is a Fourier transform of a matrix of symbols and each element of the matrix of symbols has a real value.
Process for coating a surface of a substrate with a seed film of a metallic material, said surface being an electrically conductive or semiconductive surface and having recesses and/or projections, said process comprising the following steps: - an organic film is placed on said surface, said film adhering to said surface and having a thickness such that the free face of this film conformally follows the recesses and/or projections of said electrically conductive or semiconductive surface on which it is placed; - a precursor of the metallic material is inserted within said organic film placed on said surface, at the same time as, or after, the step consisting in placing said organic film on said surface; and - said precursor of the metallic material inserted within said organic film is converted into said metallic material so that this metallic material forms conformally at said recesses and/or projections of said surface to be coated and within said organic film in order to form, with the latter, said seed film. - an organic film is placed on said surface, said film adhering to said surface and having a thickness such that the free face of this film conformally follows the recesses and/or projections of said electrically conductive or semiconductive surface on which it is placed; - a precursor of the metallic material is inserted within said organic film placed on said surface, at the same time as, or after, the step consisting in placing said organic film on said surface; and - said precursor of the metallic material inserted within said organic film is converted into said metallic material so that this metallic material forms conformally at said recesses and/or projections of said surface to be coated and within said organic film in order to form, with the latter, said seed film.
A fuse module (10, 100, 200, 300, 400) comprising: a mounting block (12, 112, 212, 312, 412) formed of an electrically insulating material; a fuse plate (16, 116, 216, 316, 416a, 416b) comprising: a fusible element (36, 136); a fuse terminal (32, 132) electrically connected to the fusible element (36, 136) and extending along rear and top surfaces of the mounting block (12, 112, 212, 312, 412); an input terminal (34, 134, 234, 334, 434a, 434b) electrically connected to the fusible element (36, 136); and an electrically conductive terminal post (14, 114, 214, 314, 414a, 414b) extending from a top surface of the mounting block (12, 112, 212, 312, 412) through the fuse terminal (32, 132) for facilitating connection to an electrical component; characterized in that: the fusible element (36, 136) is disposed on a bottom surface of the mounting block (12, 112, 212, 312, 412) directly below a trough in the bottom surface; and in that the input terminal (34, 134, 234, 334, 434a, 434b) extends from a front surface of the mounting block (12, 112, 212, 312, 412). a mounting block (12, 112, 212, 312, 412) formed of an electrically insulating material; a fuse plate (16, 116, 216, 316, 416a, 416b) comprising: a fusible element (36, 136); a fuse terminal (32, 132) electrically connected to the fusible element (36, 136) and extending along rear and top surfaces of the mounting block (12, 112, 212, 312, 412); an input terminal (34, 134, 234, 334, 434a, 434b) electrically connected to the fusible element (36, 136); and an electrically conductive terminal post (14, 114, 214, 314, 414a, 414b) extending from a top surface of the mounting block (12, 112, 212, 312, 412) through the fuse terminal (32, 132) for facilitating connection to an electrical component; characterized in that: the fusible element (36, 136) is disposed on a bottom surface of the mounting block (12, 112, 212, 312, 412) directly below a trough in the bottom surface; and in that the input terminal (34, 134, 234, 334, 434a, 434b) extends from a front surface of the mounting block (12, 112, 212, 312, 412). a fusible element (36, 136); a fuse terminal (32, 132) electrically connected to the fusible element (36, 136) and extending along rear and top surfaces of the mounting block (12, 112, 212, 312, 412); an input terminal (34, 134, 234, 334, 434a, 434b) electrically connected to the fusible element (36, 136); and an electrically conductive terminal post (14, 114, 214, 314, 414a, 414b) extending from a top surface of the mounting block (12, 112, 212, 312, 412) through the fuse terminal (32, 132) for facilitating connection to an electrical component; characterized in that: the fusible element (36, 136) is disposed on a bottom surface of the mounting block (12, 112, 212, 312, 412) directly below a trough in the bottom surface; and in that the input terminal (34, 134, 234, 334, 434a, 434b) extends from a front surface of the mounting block (12, 112, 212, 312, 412).
A communication system of an electronic wearable device comprising: a radio receiver arranged within an electrically conductive enclosure and configured to receive a communication signal at a predetermined target frequency; electrically coupled to the radio receiver via a coaxial cable, an over-resonant antenna conductor arranged outside of the enclosure, in a band of the wearable device, configured to resonate at a native frequency above an associated target frequency, wherein the antenna conductor is arranged in an inverted-L or meandered configuration, wherein the radio receiver is housed in an enclosure formed of conductive material, and wherein the coaxial cable is configured to traverse a pass-through structure pressed into an opening in an outer wall of the enclosure, and further wherein the coaxial cable is grounded at the pass-through structure; and a capacitor electrically coupled to the over-resonant antenna conductor, the capacitor being of such capacitance as to bring the antenna conductor into resonance at the predetermined target frequency. a radio receiver arranged within an electrically conductive enclosure and configured to receive a communication signal at a predetermined target frequency; electrically coupled to the radio receiver via a coaxial cable, an over-resonant antenna conductor arranged outside of the enclosure, in a band of the wearable device, configured to resonate at a native frequency above an associated target frequency, wherein the antenna conductor is arranged in an inverted-L or meandered configuration, wherein the radio receiver is housed in an enclosure formed of conductive material, and wherein the coaxial cable is configured to traverse a pass-through structure pressed into an opening in an outer wall of the enclosure, and further wherein the coaxial cable is grounded at the pass-through structure; and a capacitor electrically coupled to the over-resonant antenna conductor, the capacitor being of such capacitance as to bring the antenna conductor into resonance at the predetermined target frequency.