mhurhangee/ep-ind-claims huggingface dataset:
A laminate electrical insulation part for an electrical device comprising: a thermoplastic film positioned between, adjacent to, and attached to two nonwoven sheets, each of the nonwoven sheets consisting of multicomponent polymeric fibers comprising: at least a first polymer and a second polymer, the first polymer having a melting point that is at least 15 degrees Celsius lower than both the melting point of the second polymer and the melting point of the thermoplastic film; the thermoplastic film attached to the nonwoven sheets by the first polymer in the nonwoven sheets, and wherein, the electrical insulation part has a breakdown voltage of at least 3 kilovolts as measured in accordance with ASTM D 149-97, and a surface having a dynamic frictional coefficient of 0.25 or less as measured in accordance with ASTM D1894, and wherein the multicomponent polymeric fibers are bicomponent fibers having a sheath/core construction with the sheath including the first polymer and the core including the second polymer or having a side-by-side construction with one side including the first polymer and the other side including the second polymer. a thermoplastic film positioned between, adjacent to, and attached to two nonwoven sheets, each of the nonwoven sheets consisting of multicomponent polymeric fibers comprising: at least a first polymer and a second polymer, the first polymer having a melting point that is at least 15 degrees Celsius lower than both the melting point of the second polymer and the melting point of the thermoplastic film; the thermoplastic film attached to the nonwoven sheets by the first polymer in the nonwoven sheets, and wherein, the electrical insulation part has a breakdown voltage of at least 3 kilovolts as measured in accordance with ASTM D 149-97, and a surface having a dynamic frictional coefficient of 0.25 or less as measured in accordance with ASTM D1894, and wherein the multicomponent polymeric fibers are bicomponent fibers having a sheath/core construction with the sheath including the first polymer and the core including the second polymer or having a side-by-side construction with one side including the first polymer and the other side including the second polymer. at least a first polymer and a second polymer, the first polymer having a melting point that is at least 15 degrees Celsius lower than both the melting point of the second polymer and the melting point of the thermoplastic film; the thermoplastic film attached to the nonwoven sheets by the first polymer in the nonwoven sheets, and wherein, the electrical insulation part has a breakdown voltage of at least 3 kilovolts as measured in accordance with ASTM D 149-97, and a surface having a dynamic frictional coefficient of 0.25 or less as measured in accordance with ASTM D1894, and wherein the multicomponent polymeric fibers are bicomponent fibers having a sheath/core construction with the sheath including the first polymer and the core including the second polymer or having a side-by-side construction with one side including the first polymer and the other side including the second polymer.
Automatic door system having at least two movable door leaves (2a, 2b, 2c, 2d), having a drive device for driving the door leaves (2a, 2b, 2c, 2d), having a control device for controlling the drive device, and having at least two sensors (15a, 15b, 15c, 15d, 17a, 17b), which are provided to detect obstacles in different regions of the door system at least partly not overlapping one another, the control device being designed such that when an obstacle is detected, a safety reaction of the door system is carried out, the door system being designed as a carousel door system, the control device being designed such that the serviceability of the sensors (15a, 15b, 15c, 15d, 17a, 17b) is checked in regular test cycles, by the control device generating test signals for the sensors (15a, 15b, 15c, 15d, 17a, 17b), the test cycle for at least one first sensor (15a, 15b, 15c, 15d) assigned to a specific area of the door system differing from the test cycle for at least one further, second sensor (17a, 17b) assigned to an at least partly different area of the door system, the different test cycles of the individual sensors (15a, 15b, 15c, 15d, 17a, 17b) each being matched to the movement sequence of the door system, characterized in that the test cycles of the first and second sensors (15a, 15b, 15c, 15d, 17a, 17b) correspond to specific time periods, wherein the at least one first sensor (15a, 15b, 15c, 15d) is provided to detect obstacles in the movement area of the door leaves (2a, 2b, 2c, 2d), and wherein the at least one second sensor (17a, 17b) is provided to detect obstacles in the area of a closing edge (7a, 7b) of the door system.
Connecting device for connecting a first suction conduit to a second suction conduit, in particular a suction hose of a vacuum cleaner with a handle tube or a suction piece, which connecting device comprises a first connecting part and a second connecting part that is oriented coaxially to said first connecting part in relation to a connecting axis, on which connecting parts the first suction conduit and the second suction conduit, respectively, are fixed or fixable, a support part that is held on the first connecting part so as to be rotatable about the connecting axis, as well as at least one first locking element that is arranged on the support part and at least one second locking element that is arranged on the second connecting part, wherein the connecting parts (16, 18) are connectable to one another in a connecting direction and the locking elements (60, 80), in the connected state of the connecting parts (16, 18), are in positive-locking and/or force-locking engagement, characterized in that arranged on the support part is at least one first alignment element, which cooperates with at least one second alignment element on the second connecting part upon connecting the connecting parts (16, 18) to one another, in order to align the support part and the second connecting part in a relative position to one another in which the locking elements (60, 80) can couple to one another, and in that the at least one first locking element and the at least one first alignment element are arranged on the support part on behind the other along the connecting axis.
A chimeric protein comprising at least one polypeptide consisting of an extracellular portion of the p55 TNF receptor, said polypeptide being connected to a Pseudomonas exotoxin fragment, wherein the Pseudomonas exotoxin fragment is a 40 kDa fragment containing Pseudomonas exotoxin domains II, Ib and III, and wherein said extracellular portion of the p55 TNF receptor binds TNF alpha.
A composite passive armor protection having geometric solids embedded in a matrix, wherein the armor protection comprises parallel non-adjacent plates and, wherein the upper plate has grooves, in which are resting the geometric solids embedded in a light alloy matrix to a level above one half of their total height leaving a part of the geometric solids protruding, while the space between the parallel plates is a layer of light alloy.
A method, comprising: receiving a single-carrier frequency division multiple access, SC-FDMA, signal comprising a plurality of data signals on a plurality of frequency bands, each data signal associated with a different user; computing a Fourier transform for the received SC-FDMA signal and separating the data signals of different users in a frequency domain after the Fourier transform; performing an equalization of each of said separated data signals of the different users; performing a frequency offset error estimation for each of the separated data signals, thereby obtaining estimated frequency offset correction factors, and correcting the estimated frequency offset error of each of the equalized data sequences in a time domain by weighting samples of each of the equalized data sequences with each corresponding estimated frequency offset correction factor. receiving a single-carrier frequency division multiple access, SC-FDMA, signal comprising a plurality of data signals on a plurality of frequency bands, each data signal associated with a different user; computing a Fourier transform for the received SC-FDMA signal and separating the data signals of different users in a frequency domain after the Fourier transform; performing an equalization of each of said separated data signals of the different users; performing a frequency offset error estimation for each of the separated data signals, thereby obtaining estimated frequency offset correction factors, and correcting the estimated frequency offset error of each of the equalized data sequences in a time domain by weighting samples of each of the equalized data sequences with each corresponding estimated frequency offset correction factor.
A magnetic resonance imaging system, comprising: - a magnetic resonance scanner with a radio frequency receiver for acquiring compressed magnetic resonance data, - a sequence control unit configured to control the magnetic resonance scanner to repeatedly acquire the compressed magnetic resonance data from an imaged region of a subject to which a contrast agent has been injected by fully sampling a central region of k-space and partially sampling a peripheral region of k-space; - a sampling unit (1, 26) configured to repeatedly determine a change in concentration of the contrast agent in the image region of the subject from the acquired compressed magnetic resonance data; and - a control unit ( 2, 24) configured to dynamically adjust a degree of compression of the acquired magnetic resonance data by controlling the sequence control unit to adjust a proportion of k-space which is fully sampled in subsequent acquisitions of the compressed magnetic resonance data, based on the change in concentration of the contrast agent determined by the sampling unit. - a magnetic resonance scanner with a radio frequency receiver for acquiring compressed magnetic resonance data, - a sequence control unit configured to control the magnetic resonance scanner to repeatedly acquire the compressed magnetic resonance data from an imaged region of a subject to which a contrast agent has been injected by fully sampling a central region of k-space and partially sampling a peripheral region of k-space; - a sampling unit (1, 26) configured to repeatedly determine a change in concentration of the contrast agent in the image region of the subject from the acquired compressed magnetic resonance data; and - a control unit ( 2, 24) configured to dynamically adjust a degree of compression of the acquired magnetic resonance data by controlling the sequence control unit to adjust a proportion of k-space which is fully sampled in subsequent acquisitions of the compressed magnetic resonance data, based on the change in concentration of the contrast agent determined by the sampling unit.
An internal combustion engine comprising a crankshaft, at least one cylinder head (100, 200, 300) flowed through, at least approximately in the camshaft axial direction, from an intake manifold (102, 202, 302, 402) to an exhaust manifold (112, 212, 312, 412) and with valves (104, 114, 204, 205, 214, 21!5; 304, 305, 314, 315) for opening and closing the ducts (102, 202, 302, 402, 112, 212, 312, 412) and a first and a second camshaft (126, 226, 227, 326, 327, 426, 427) for actuating the valves (104, 114, 204, 205, 214, 215, 304, 305, 314, 315, 404, 405, 414, 415) wherein the first and the second crankshaft (126, 226, 227, 326, 327, 426, 427) each are associated with an intake valve (104, 204, 205, 304, 305, 404, 405) and an exhaust valve (114, 214, 215, 314, 315, 414, 415) and are disposed at least approximately parallel to the crankshaft, and wherein the valves (104, 114, 204, 205, 214, 215, 304, 305, 314, 315, 404, 405, 414, 415) are directly actuatable by drag levers (108, 118, 208, 209, 218, 219, 308, 318), characterised in that the first and the second camshaft (126, 226, 227, 326, 327, 426, 427) and the drag levers (108, 118, 208, 209, 218, 219, 308, 318, 408,418) and the drag levers (122, 124, 222, 223, 224, 225, 322, 324, 422, 424) are disposed in a spatially separate carrier and the carrier is divided along a partition plane and comprises a bottom part and a top part.
A tunnel air-conditioning and heating apparatus for air-conditioning and heating a movable tunnel connected to a rotunda, the tunnel air-conditioning and heating apparatus comprising: a condenser configured to be provided at the rotunda; a compressor connected with the condenser and configured to be provided at the rotunda; an evaporator configured to be provided at the movable tunnel and connected to each of the condenser and the compressor; connection pipes configured to connect the evaporator with the condenser and the compressor, respectively; and characterised in further comprising a turntable configured to be transversely rotatable at an upper part of the rotunda, and being further characterised in that the condenser and the compressor are provided on the turntable, and the connection pipes include a condenser connection pipe configured to connect the condenser with the evaporator and a compressor connection pipe configured to connect the compressor with the evaporator. a condenser configured to be provided at the rotunda; a compressor connected with the condenser and configured to be provided at the rotunda; an evaporator configured to be provided at the movable tunnel and connected to each of the condenser and the compressor; connection pipes configured to connect the evaporator with the condenser and the compressor, respectively; and characterised in further comprising a turntable configured to be transversely rotatable at an upper part of the rotunda, and being further characterised in that the condenser and the compressor are provided on the turntable, and the connection pipes include a condenser connection pipe configured to connect the condenser with the evaporator and a compressor connection pipe configured to connect the compressor with the evaporator.
A method for the purification of a metal selected from the group consisting of aluminum and aluminum alloys, wherein said method comprises: • heating the metal to a liquid phase; and contacting the liquid metal with a salt flux, wherein said salt flux is a binary mixture of particles of NaCl and particles of MgCl 2, said binary mixture comprising from 40 to 50 % by weight of NaCl and from 50 to 60 % by weight of MgCl 2, or being in the form of particles obtained by grinding a fused salt of NaCl and MgCl 2 said binary mixture comprising from 40 to 50 % by weight of NaCl and from 50 to 60 % by weight of MgCl 2. • heating the metal to a liquid phase; and contacting the liquid metal with a salt flux, wherein said salt flux is a binary mixture of particles of NaCl and particles of MgCl 2, said binary mixture comprising from 40 to 50 % by weight of NaCl and from 50 to 60 % by weight of MgCl 2, or being in the form of particles obtained by grinding a fused salt of NaCl and MgCl 2 said binary mixture comprising from 40 to 50 % by weight of NaCl and from 50 to 60 % by weight of MgCl 2.
Use of a combination of metabolites contained in a blood sample of a mammalian subject, the combination of metabolites comprising at least the amino acids ornithine (Orn), threonine (Thr), and tryptophan (Trp), and at least one acylcarnitine, which is acetylcarnitine (C2 or AC.2.0), in the in vitro or ex vivo diagnosis of primary breast cancer comprising the detection of the presence of the metabolites in said sample and comparing it to a control sample. at least the amino acids ornithine (Orn), threonine (Thr), and tryptophan (Trp), and at least one acylcarnitine, which is acetylcarnitine (C2 or AC.2.0), in the in vitro or ex vivo diagnosis of primary breast cancer comprising the detection of the presence of the metabolites in said sample and comparing it to a control sample.
Apparatus for providing state information relating to an automatic valet parking system, comprising a plurality of infrastructure components (52, 54) which are outside the vehicle, are arranged in a stationary manner within a parking area assigned to the automatic valet parking system and are configured to output state information relating to the automatic valet parking system, wherein the state information comprises information relating to a current operating state of the automatic valet parking system and the state information comprises information relating to an action that is currently being performed and/or a future action of a vehicle moving in an automated manner within the parking area and the state information comprises information relating to a current position and a current direction of movement of the vehicle moving in an automated manner within the parking area, and wherein the state information is output on selected infrastructure components (52, 54) depending on a current situation in the parking area and the respective position of the infrastructure components (52, 54), wherein a current situation of the automatic valet parking system is captured and analysed by a central parking management device of the automatic valet parking system and its environment monitoring system, with the result that an output is effected only by means of those infrastructure components (52, 54) where this output can be perceived by an addressee. wherein the state information comprises information relating to a current operating state of the automatic valet parking system and the state information comprises information relating to an action that is currently being performed and/or a future action of a vehicle moving in an automated manner within the parking area and the state information comprises information relating to a current position and a current direction of movement of the vehicle moving in an automated manner within the parking area, and wherein the state information is output on selected infrastructure components (52, 54) depending on a current situation in the parking area and the respective position of the infrastructure components (52, 54), wherein a current situation of the automatic valet parking system is captured and analysed by a central parking management device of the automatic valet parking system and its environment monitoring system, with the result that an output is effected only by means of those infrastructure components (52, 54) where this output can be perceived by an addressee.
A method implemented at least in part by a network communication device, the method comprising: obtaining data to be transmitted to a recipient device; determining whether the recipient device is a battery powered recipient device (104, 200B, 504) or a mains powered recipient device (102, 200A, 502); determining a class of information contained in the data; determining a time to transmit the data to the recipient device based at least in part on: the determination of whether the recipient device is a battery powered recipient device (104, 200B, 504) or a mains powered recipient device (102, 200A, 502); and the class of information contained in the data; and transmitting the data to the recipient device at the determined time. obtaining data to be transmitted to a recipient device; determining whether the recipient device is a battery powered recipient device (104, 200B, 504) or a mains powered recipient device (102, 200A, 502); determining a class of information contained in the data; determining a time to transmit the data to the recipient device based at least in part on: the determination of whether the recipient device is a battery powered recipient device (104, 200B, 504) or a mains powered recipient device (102, 200A, 502); and the class of information contained in the data; and the determination of whether the recipient device is a battery powered recipient device (104, 200B, 504) or a mains powered recipient device (102, 200A, 502); and the class of information contained in the data; and transmitting the data to the recipient device at the determined time.
A thermoresponsive ostomy skin barrier appliance, comprising: a moisture sensor disposed between upper and lower hydrocolloid layers, the moisture sensor configured to detect moisture and send an activation signal to a pump containing a flowable substance upon the detection of said moisture; wherein said moisture sensor is configured to detect moisture flow in either of two substantially orthogonal moisture flow directions; and wherein said flowable substance comprises a sealant or a therapeutic compound. a moisture sensor disposed between upper and lower hydrocolloid layers, the moisture sensor configured to detect moisture and send an activation signal to a pump containing a flowable substance upon the detection of said moisture; wherein said moisture sensor is configured to detect moisture flow in either of two substantially orthogonal moisture flow directions; and wherein said flowable substance comprises a sealant or a therapeutic compound.
A stereolithography device having a trough for accommodating free-flowing, photopolymerizable material, which has a transparent trough bottom at least in an exposure region provided for exposures, an exposure unit, which is arranged below the trough, for exposing a surface having a predefined contour for the layer to be formed in each case inside the exposure region, a construction platform suspended above the trough bottom on a lifting unit, on which the first layer cured by exposure is to be formed suspended thereon, a control unit, which is configured to cause successive exposures each having predefined contour by way of the exposure unit and to adapt the position of the construction platform above the trough bottom successively in each case after the exposure of a further layer, and having a heating unit for heating the photopolymerizable material in the trough, characterized in that the heating unit has a transparent, electrically conductive layer, which covers the entire area of at least the exposure region above the trough bottom, and which is provided outside the exposure region on opposing sides of the layer with electrical contacts extended over the opposing sides, which are connected to a controlled electrical supplier to enable heating of the entire area of photopolymerizable material above the trough bottom in the exposure region by current flow through the layer.