mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing comprising: forming a fiber layer and a porous thermoplastic bonding layer to form a unidirectional lay-up of fibers, wherein the fiber layer of the unidirectional composite tape is spread out to create gaps or slits between adjacent fiber tows within a desired range; heating the layup of fibers under pressure to form a unidirectional composite tape (314, 410) to substantially maintain the fibers in a desired configuration; building a first layer from the composite tape; building a second layer from the composite tape on the first layer at a predetermined angle from the first layer; and consolidating the first and second layers to form a composite fabric (322, 416). forming a fiber layer and a porous thermoplastic bonding layer to form a unidirectional lay-up of fibers, wherein the fiber layer of the unidirectional composite tape is spread out to create gaps or slits between adjacent fiber tows within a desired range; heating the layup of fibers under pressure to form a unidirectional composite tape (314, 410) to substantially maintain the fibers in a desired configuration; building a first layer from the composite tape; building a second layer from the composite tape on the first layer at a predetermined angle from the first layer; and consolidating the first and second layers to form a composite fabric (322, 416).
Hand tool, in particular hammer drill, percussion hammer or saw, having a drive (3, 14, 16, 17) and having a stroke-generating element, wherein the drive (3, 14, 16, 17) is configured to move the stroke-generating element in particular periodically in a reciprocating movement along a translation axis, and having a receiving device for a tool, said receiving device being operatively connected to the stroke-generating element, wherein the hand tool has at least one counterweight which is operatively connected to the drive (3, 14, 16, 17) such that forces caused at least indirectly at least by the reciprocating movement can be at least partially compensated, wherein the counterweight is mounted so as to be movable in a reciprocating movement along the translation axis, wherein the counterweight is operatively engaged with a guide curve formed in a rotatably mounted rotary body and the guide curve is configured such that the counterweight can be oscillated in a reciprocating movement when the rotary body rotates, characterized in that a rotation axis of the rotary element extends coaxially with the translation axis.
An electronic smoking article comprising an atomizer including an electrically resistive heater formed of a porous carbon having a plurality of pores, wherein the electrically resistive heater has a first end and a second, opposing end adapted for electrical connection with an electrical power source, and wherein a majority of the pores in the porous carbon are closed pores.
A polyoxyalkylene oxide hemoglobin conjugate having a P50 ranging from 2 to 10 mmHg as measured at 37 °C and pH 7.4, wherein the hemoglobin conjugate has the structure wherein: Hb is hemoglobin, N is an amino group of the hemoglobin, L is a linker -C -(CH 2) p -, X is a terminal group, PAO is a polyethylene glycol, m is the average number of activated-PEG polymers conjugated to the hemoglobin and is from 6 to 10, n is the average number of oxyethylene units of a PEG having an average molecular weight of from 4,000 to 6,000 Daltons, p is an integer from 2 to 6, and the hemoglobin is optionally intramolecularly-crosslinked. Hb is hemoglobin, N is an amino group of the hemoglobin, L is a linker -C -(CH 2) p -, X is a terminal group, PAO is a polyethylene glycol, m is the average number of activated-PEG polymers conjugated to the hemoglobin and is from 6 to 10, n is the average number of oxyethylene units of a PEG having an average molecular weight of from 4,000 to 6,000 Daltons, p is an integer from 2 to 6, and the hemoglobin is optionally intramolecularly-crosslinked.
A magnetic bearing, which has an inner ring and an outer ring arranged concentric to the inner ring, wherein the inner ring and the outer ring are mounted rotatably relative to each other by means of axial and radial magnets (11, 12), wherein the magnetic bearing has a back-up bearing with a first back-up bearing part and a second back-up bearing part (3"), wherein the second back-up bearing part (3") is integrated into the outer ring, characterized in that the first back-up bearing part is integrated into the inner ring, wherein the first back-up bearing part and the second back-up bearing part (3") are designed in such a way that the first back-up bearing part and the second back-up bearing part (3") lie opposite each other both along the axial direction and along the radial direction.
System (Sys) for automatic rectification of a short circuit in an energy bus via which a decentralizes functional unit arranged in an industrial facility is being supplied with electric energy, wherein: a) a subordinate control system is provided, exchanging information about a data bus (CB, NB1, NB2) with the decentralized functional units by means of a data telegram, b) network node units (SND, SND1 to SND7) are arranged sequentially between two feeding points (PS1, PS2) of an energy bus having an annular form, providing the decentralized functional units with access to the energy bus and optionally also to the data bus, c) the network node units have a controllable switch module comprising a first switch and a second switch, wherein an access to the two feeding points (PS1, PS2) is switchable by means of the two switches (S1, S2), characterized in that d) an evaluation module (CPU, SL) is provided that evaluates the measured voltage and/or the measured electricity within a network node unit and/or among adjacent network node units and/or in at least one of the two feeding points (PS1, PS2) upon a short circuit of the energy bus, wherein in the case of a detection of a short circuit a temporarily graduated shutdown is executable of at least one part of the network node units of the energy bus by opening the first or the second switch (S1, S2); und e) a shutdown time is provided for each network node unit dependent on an electric current direction prevailing in the network node unit and on the position of the network node unit in the energy bus. a) a subordinate control system is provided, exchanging information about a data bus (CB, NB1, NB2) with the decentralized functional units by means of a data telegram, b) network node units (SND, SND1 to SND7) are arranged sequentially between two feeding points (PS1, PS2) of an energy bus having an annular form, providing the decentralized functional units with access to the energy bus and optionally also to the data bus, c) the network node units have a controllable switch module comprising a first switch and a second switch, wherein an access to the two feeding points (PS1, PS2) is switchable by means of the two switches (S1, S2), characterized in that d) an evaluation module (CPU, SL) is provided that evaluates the measured voltage and/or the measured electricity within a network node unit and/or among adjacent network node units and/or in at least one of the two feeding points (PS1, PS2) upon a short circuit of the energy bus, wherein in the case of a detection of a short circuit a temporarily graduated shutdown is executable of at least one part of the network node units of the energy bus by opening the first or the second switch (S1, S2); und e) a shutdown time is provided for each network node unit dependent on an electric current direction prevailing in the network node unit and on the position of the network node unit in the energy bus.
A method of processing video data, the method comprising: obtaining the video data; using frame rate up-conversion bilateral matching coding mode for a block of the video data, wherein using the frame rate up-conversion bilateral matching coding mode includes: using a translational motion model to derive translational motion information; using the derived translational motion information as an input into an affine motion model to derive affine motion information, the affine motion information including first affine motion information for a first reference picture and second affine motion information for a second reference picture; and determining at least one prediction for the block using the first affine motion information and the second affine motion information. obtaining the video data; using frame rate up-conversion bilateral matching coding mode for a block of the video data, wherein using the frame rate up-conversion bilateral matching coding mode includes: using a translational motion model to derive translational motion information; using the derived translational motion information as an input into an affine motion model to derive affine motion information, the affine motion information including first affine motion information for a first reference picture and second affine motion information for a second reference picture; and determining at least one prediction for the block using the first affine motion information and the second affine motion information. using a translational motion model to derive translational motion information; using the derived translational motion information as an input into an affine motion model to derive affine motion information, the affine motion information including first affine motion information for a first reference picture and second affine motion information for a second reference picture; and determining at least one prediction for the block using the first affine motion information and the second affine motion information.
A pressure reducer for delivering drugs to a patient, suitable for allowing the delivery of a certain fixed nominal flow rate of a drug, comprising: [a] a duct with an inlet and an outlet, said duct being suitable for being traversed by said drug, [b] a first body with a first surface, and [c] a second body with a second surface, where said first body and said second body define an assembled position in which said first surface is substantially facing said second surface, and where at least one of said surfaces (5, 6) has at least one recess such that said duct is formed in said assembled position, characterized in that said second body directly contacts said first body, such that said duct is defined between said second surface and said first surface, and in that said first body and said second body are attached to one another by means of at least one continuous attachment line running on both sides of said duct from said inlet to said outlet.
A start-up system mixing element comprising: a spherical body defining an internal cavity; a first inlet port disposed in the body and configured to provide a feed water to the cavity; a second inlet port disposed in the body and configured to provide a saturated water being relatively hot compared with the feed water to the cavity; an outlet port disposed in the body and configured to remove the feed-water and the saturated water from the cavity; and an internal distribution pipe disposed in the first inlet port, wherein the internal distribution pipe is configured to provide the feed-water to the cavity via a plurality of holes directed toward a center of the cavity such that the feed-water and the saturated water are combined in the center of the cavity prior to feed water contacting an interior surface of the body. a spherical body defining an internal cavity; a first inlet port disposed in the body and configured to provide a feed water to the cavity; a second inlet port disposed in the body and configured to provide a saturated water being relatively hot compared with the feed water to the cavity; an outlet port disposed in the body and configured to remove the feed-water and the saturated water from the cavity; and an internal distribution pipe disposed in the first inlet port,
A method for detecting fetal DNA in a plasma or serum sample from a pregnant woman, comprising the steps of: (a) treating the sample with an agent that differentially modifies methylated and unmethylated DNA; and (b) detecting methylated DNA sequence of RARB in the sample, wherein the presence of the methylated DNA sequence indicates the presence of fetal DNA in the sample, and the absence of the methylated DNA sequence indicates the absence of fetal DNA in the sample. (a) treating the sample with an agent that differentially modifies methylated and unmethylated DNA; and (b) detecting methylated DNA sequence of RARB in the sample, wherein the presence of the methylated DNA sequence indicates the presence of fetal DNA in the sample, and the absence of the methylated DNA sequence indicates the absence of fetal DNA in the sample.
A sprinkler comprising: a sprinkler body; a nozzle assembly configured to rise from and lower within said sprinkler body; a cover; and a latching mechanism located beneath said cover; wherein said latching mechanism is configured to selectively engageand disengage said cover from a top of said nozzle assembly; and wherein said latching mechanism is configured to be user-actuated from beneath said cover. a sprinkler body; a nozzle assembly configured to rise from and lower within said sprinkler body; a cover; and a latching mechanism located beneath said cover; wherein said latching mechanism is configured to selectively engageand disengage said cover from a top of said nozzle assembly; and wherein said latching mechanism is configured to be user-actuated from beneath said cover.
A thermodynamic system comprising: a heat pump; a cooling circuit adapted to circulate a heat-transferring fluid in heat exchange relationship with a cold side of the heat pump; a heating circuit adapted to circulate a heat-transferring fluid in heat exchange relationship with a hot side of the heat pump; wherein the heat pump is adapted to transfer heat from the cooling circuit to the heating circuit; wherein ➢ the cooling circuit is connected to an auxiliary circuit of the thermodynamic system, to exchange a flow of heat-transferring fluid with the auxiliary circuit; wherein a first flow control valve is provided in the auxiliary circuit for regulating the flow from the auxiliary circuit to the cooling circuit; ➢ the heating circuit is connected to said auxiliary circuit to exchange a flow of heat-transferring fluid with the auxiliary circuit; wherein a second flow control valve is provided in the auxiliary circuit for regulating the flow from the auxiliary circuit to the heating circuit; wherein the flow of heat-transferring fluid from the auxiliary circuit to the heating circuit and the flow of heat-transferring fluid from the auxiliary circuit to the cooling circuit represent respective fictive thermal loads on the hot side and on the cold side of the heat pump, the modulation of said thermal loads allowing thermal balancing of the heating circuit and of the cooling circuit; wherein the cooling circuit is fluidly connected to the auxiliary circuit through a removal connection, for removing heat-transferring fluid from the cooling circuit and transfer heat-transferring fluid to the auxiliary circuit, and a heat-transfer delivery connection, for delivering heat-transferring fluid from the auxiliary circuit to the cooling circuit; and wherein the heating circuit is fluidly connected to the auxiliary circuit through a removal connection, for removing heat-transferring fluid from the heating circuit and transfer heat-transferring fluid to the auxiliary circuit, and a heat-transfer delivery connection, for delivering heat-transferring fluid from the auxiliary circuit to the heating circuit; and wherein a circulation pump is provided in the auxiliary circuit to facilitate circulation of the heat-transferring fluid in the auxiliary circuit. ➢ the cooling circuit is connected to an auxiliary circuit of the thermodynamic system, to exchange a flow of heat-transferring fluid with the auxiliary circuit; wherein a first flow control valve is provided in the auxiliary circuit for regulating the flow from the auxiliary circuit to the cooling circuit; ➢ the heating circuit is connected to said auxiliary circuit to exchange a flow of heat-transferring fluid with the auxiliary circuit; wherein a second flow control valve is provided in the auxiliary circuit for regulating the flow from the auxiliary circuit to the heating circuit;
A protective layer transfer sheet comprising a substrate, and a transfer layer provided on a surface of the substrate; wherein a protective layer, which is nearest the substrate among layers constituting the transfer layer, comprises an acrylic resin having a glass transition temperature (Tg) of not less than 100 °C, the glass transition temperature denoting a temperature of degree Celsius that is converted from a temperature of Kelvin obtained by calculating in accordance with the Fox theoretical equation, a copolymer of methyl methacrylate and styrene monomers in addition to the acrylic resin having a glass transition temperature (Tg) of not less than 100 °C, and talc.
Phase separation device having a first device housing accommodating at least one coalescing element, comprising - an inlet for supplying an emulsion that flows through the respective coalescing element for separation into at least two of its constituents; - an outlet for a separated constituent; and - a further outlet (22, 64) for another separated constituent, which has a lower density than the first constituent and floats on top of said first constituent, wherein a combination of a coalescing separator and a gravity separator is located in the first device housing and a particulate filter is arranged in a second device housing, said particulate filter being connected upstream of the coalescing and gravity separator in the first device housing as a pre-filter, and wherein at least one filter element (24, 68) is used for particle filtration, said filter element being accommodated in the second device housing, characterised in that the structure of the second device housing corresponds to the greatest possible extent to the structure of the first device housing and in each case has a modular housing structure in the form of a closed pressure vessel. - an inlet for supplying an emulsion that flows through the respective coalescing element for separation into at least two of its constituents; - an outlet for a separated constituent; and - a further outlet (22, 64) for another separated constituent, which has a lower density than the first constituent and floats on top of said first constituent, wherein a combination of a coalescing separator and a gravity separator is located in the first device housing and a particulate filter is arranged in a second device housing, said particulate filter being connected upstream of the coalescing and gravity separator in the first device housing as a pre-filter, and wherein at least one filter element (24, 68) is used for particle filtration, said filter element being accommodated in the second device housing, characterised in that the structure of the second device housing corresponds to the greatest possible extent to the structure of the first device housing and in each case has a modular housing structure in the form of a closed pressure vessel.
A method comprising: receiving, by a mobile computing device, a secret and a password; compressing, by the mobile computing device, the password; during compression of the password, appending a special character to the password to indicate an end of the password and appending a random number of bits to the password after the special character; encrypting, by the mobile computing device, the compressed password using the secret as an encryption key; and storing, by the mobile computing device, the compressed and encrypted password. receiving, by a mobile computing device, a secret and a password; compressing, by the mobile computing device, the password; during compression of the password, appending a special character to the password to indicate an end of the password and appending a random number of bits to the password after the special character; encrypting, by the mobile computing device, the compressed password using the secret as an encryption key; and storing, by the mobile computing device, the compressed and encrypted password.
A medical lumen-expansion balloon including: a generally cylindrical central body between first and second body end portions; a low-profile unexpanded first state; a radially-expanded second state, wherein the first body end portion and second body end portion are substantially non-compliant such that neither will expand further longitudinally and circumferentially, and where the central body and the body end portions comprise at least one layer of elastomeric polymer and at least one layer of inelastic fiber; where the first body end portion and the second body end portion each comprises circumferentially-constraining fiber and longitudinally-constraining fiber in the at least one layer of inelastic fiber; characterised in that the central body comprises circumferentially-constraining inelastic fiber in the at least one layer of fiber and either no longitudinally-constraining fiber or at least one elastic longitudinally-constraining fiber, wherein the central body is circumferentially substantially non-compliant, but is longitudinally compliant, such that it will elongate with increased volume but will not substantially radially expand. a generally cylindrical central body between first and second body end portions; a low-profile unexpanded first state; a radially-expanded second state, wherein the first body end portion and second body end portion are substantially non-compliant such that neither will expand further longitudinally and circumferentially, and where the central body and the body end portions comprise at least one layer of elastomeric polymer and at least one layer of inelastic fiber; where the first body end portion and the second body end portion each comprises circumferentially-constraining fiber and longitudinally-constraining fiber in the at least one layer of inelastic fiber; characterised in that the central body comprises circumferentially-constraining inelastic fiber in the at least one layer of fiber and either no longitudinally-constraining fiber or at least one elastic longitudinally-constraining fiber, wherein the central body is circumferentially substantially non-compliant, but is longitudinally compliant, such that it will elongate with increased volume but will not substantially radially expand.