mhurhangee/ep-ind-claims huggingface dataset:
Radically polymerizable compound of the formula I: x A( TG) m where SG = -OPO 3 R 1 2 or -PO 3 R 1 2; R 1 = each independently H, C 1 -C 7 -alkyl or monovalent cation; x = 2; A: hydrocarbon group having 1 to 30 carbon atoms which may comprise silicon, halogen, nitrogen, phosphorus, oxygen and sulfur; SK = H, C 1 -C 20 -alkyl, aryl, alkyl-aryl, - NR 3 R 4, - NR 3 R 4, - OR 3, - R 3 or -(SO 2)R 3; R 3, R 4 = each independently H, alkyl, aryl and/or alkyl-aryl, which may comprise halogen, nitrogen, phosphorus, oxygen and sulfur, or alkenyl; n = 2 - 100; TG = H, -NR 6 R 7, -N 3, -OR 6, -SR 6, cycloalkenes, - CR 6 R 7 R 8, -OCOR 9 or -NR 6 COR 9; R 6, R 7, R 8 = H, C 1 to C 20 -alkyl, aryl and/or alkyl-aryl, which may comprise halogen, nitrogen, phosphorus, oxygen and sulfur; a radically polymerizable group, which may comprise halogen, nitrogen, phosphorus, oxygen and sulfur; wherein R 6 and R 7, with inclusion of the nitrogen atom, may form a ring having 5 to 7 ring atoms, which may comprise heteroatoms; R 9 = alkyl, aryl, alkyl-aryl or alkenyl; wherein PEI comprises two or more radically polymerizable groups and TG optionally comprises at least one radically polymerizable group; m = 1, 2 or 3. SG = -OPO 3 R 1 2 or -PO 3 R 1 2; R 1 = each independently H, C 1 -C 7 -alkyl or monovalent cation; x = 2; A: hydrocarbon group having 1 to 30 carbon atoms which may comprise silicon, halogen, nitrogen, phosphorus, oxygen and sulfur; SK = H, C 1 -C 20 -alkyl, aryl, alkyl-aryl, - NR 3 R 4, - NR 3 R 4, - OR 3, - R 3 or -(SO 2)R 3; R 3, R 4 = each independently H, alkyl, aryl and/or alkyl-aryl, which may comprise halogen, nitrogen, phosphorus, oxygen and sulfur, or alkenyl; n = 2 - 100; TG = H, -NR 6 R 7, -N 3, -OR 6, -SR 6, cycloalkenes, - CR 6 R 7 R 8, -OCOR 9 or -NR 6 COR 9; R 6, R 7, R 8 = H, C 1 to C 20 -alkyl, aryl and/or alkyl-aryl, which may comprise halogen, nitrogen, phosphorus, oxygen and sulfur; a radically polymerizable group, which may comprise halogen, nitrogen, phosphorus, oxygen and sulfur; wherein R 6 and R 7, with inclusion of the nitrogen atom, may form a ring having 5 to 7 ring atoms, which may comprise heteroatoms; R 9 = alkyl, aryl, alkyl-aryl or alkenyl; wherein PEI comprises two or more radically polymerizable groups and TG optionally comprises at least one radically polymerizable group; m = 1, 2 or 3.
Heat cell with a fuel-operated burner, a fuel gas metering device, a control pressure line, wherein the burner is supplied with fuel gas from the fuel gas metering device depending on the pressure in the control pressure line, a heat exchanger for transferring thermal energy of the exhaust gas of the burner to a heat sink, and a housing with an opening and a removable burner door, wherein the opening can be closed by the removable burner door, wherein the burner is mounted on one side of the burner door and the other side of the burner door is connected to a supply of fuel gas and air for supplying a fuel gas and air mixture, characterised in that the control pressure line is arranged between the housing and the burner door.
A multilayer damping laminate comprising: a first damping layer having a first glass transition temperature measured by dynamic mechanical analysis in the linear viscoelastic regime, and a first damping layer thickness (H 1); a second damping layer having a second glass transition temperature measured by dynamic mechanical analysis in the linear viscoelastic regime, and a second damping layer thickness (H 2); an internal constraining layer, at least a portion of which is disposed between the first damping layer and the second damping layer; and an external constraining layer, wherein at least a portion of the second damping layer is disposed between the internal constraining layer and the external constraining layer, wherein the damping layers of the laminate have a decreasing glass transition temperature profile beginning at the first damping layer, wherein the multilayer damping laminate has a composite loss factor at 200 Hz determined according to ASTM E 756-98 that is greater than 0.05 over a temperature range of at least 20°C, wherein the difference between the first glass transition temperature and the second glass transition temperature ranges from 5 °C to 35 °C, and wherein the internal constraining layer and the external constraining layer each independently comprise a metal. a first damping layer having a first glass transition temperature measured by dynamic mechanical analysis in the linear viscoelastic regime, and a first damping layer thickness (H 1); a second damping layer having a second glass transition temperature measured by dynamic mechanical analysis in the linear viscoelastic regime, and a second damping layer thickness (H 2); an internal constraining layer, at least a portion of which is disposed between the first damping layer and the second damping layer; and an external constraining layer, wherein at least a portion of the second damping layer is disposed between the internal constraining layer and the external constraining layer, wherein the damping layers of the laminate have a decreasing glass transition temperature profile beginning at the first damping layer, wherein the multilayer damping laminate has a composite loss factor at 200 Hz determined according to ASTM E 756-98 that is greater than 0.05 over a temperature range of at least 20°C, wherein the difference between the first glass transition temperature and the second glass transition temperature ranges from 5 °C to 35 °C, and wherein the internal constraining layer and the external constraining layer each independently comprise a metal.
Hinge comprising an inner hinge part and an inner fastening part connected thereto, an outer hinge part and an outer fastening part connected thereto, and a central part connecting the two hinge parts (2, 3), the inner hinge part and the central part being rotatably connected to one another by an inner hinge pin in order to form an inner axis of rotation, and the outer hinge part and the central part being rotatably connected to one another by an outer hinge pin in order to form an outer axis of rotation, characterized in that the two hinge parts (2, 3) are each axially stepped in the region of the axis of rotation 7, 8 in order to form two axially offset end faces (23, 25), the two axially offset end faces (23, 25) being connected to one another by a sliding surface and the sliding surface being inclined at an angle (α) with respect to the relevant axis of rotation (7, 8), in that the central part is axially stepped in the region of the axis of rotation 7, 8 in order to form at least two counter end faces (20, 22), the two axially offset counter end faces (20, 22) being connected to one another by a counter sliding surface and the counter sliding surface being aligned opposite the sliding surface, in that the sliding surface and the counter sliding surface are arranged so as to rest against one another and slide on one another in an interactive manner, in that a gap is provided in each case between the two end faces (23, 25) and the two counter end faces (20, 22) in a zero position of the hinge, in that, in the zero position, the central part is in contact with the outer hinge part or the outer fastening part and the central part is in contact with the inner hinge part or the inner fastening part, or, on the hinge parts (2, 3), the two axially offset end faces (23, 25) are each connected to one another by a connecting surface which is spaced apart from the sliding surface and which form a stop and, on the central part, the two axially offset counter end faces (20, 22) are each connected to one another by connecting surfaces which are spaced apart from the counter sliding surface and which form a counter stop, and the stops and counter stops are in contact in the zero position, whereas an angle between the end faces (23, 25) and the stop is selected such that a further rotational movement about the respective axis of rotation (7, 8) is inhibited in the zero position, and in that, in the zero position, in the case of a continuous rotational movement about the entire pivoting range of the hinge, there is a change in the axes of rotation (7, 8) about which the rotational movement takes place.
A Raman spectroscopic system comprising, a spectrograph outputting Raman spectra in a near-infrared optical range, a detector configured to receive the Raman spectra and output electrical signals representative of the Raman spectra with an operational wavelength range, wherein the detector is disposed in a radiation shield (100,200,400) the radiation shield, comprising: a chamber (112,212,412) including an aperture and a near-infrared detector having at least one detector element, the chamber composed of a thermally conductive material having a thermal conductivity greater than 30 Watts per meter-Kelvin, the detector disposed within the chamber and opposite the aperture; and a cooling device (120,220,420) in thermal contact with the chamber and the detector, the cooling device structured to lower the temperature of the chamber to reduce the emission from the chamber of unwanted thermal radiation incident upon the detector, wherein the aperture is configured to enable the detector to receive electromagnetic signals in a desired operational wavelength range from a spectrograph, wherein the desired operational wavelength range is 0.4 to 2.5 microns, and the electromagnetic signals are Raman signals, wherein the cooling device is configured to lower the temperature of the chamber to a temperature, so that the unwanted thermal radiation emitted or reflected from the chamber is sufficiently low so as to not significantly elevate the inherent detector dark current generated by the detector, thereby improving the signal to noise ratio of the detector. a chamber (112,212,412) including an aperture and a near-infrared detector having at least one detector element, the chamber composed of a thermally conductive material having a thermal conductivity greater than 30 Watts per meter-Kelvin, the detector disposed within the chamber and opposite the aperture; and a cooling device (120,220,420) in thermal contact with the chamber and the detector, the cooling device structured to lower the temperature of the chamber to reduce the emission from the chamber of unwanted thermal radiation incident upon the detector, wherein the aperture is configured to enable the detector to receive electromagnetic signals in a desired operational wavelength range from a spectrograph, wherein the desired operational wavelength range is 0.4 to 2.5 microns, and the electromagnetic signals are Raman signals, wherein the cooling device is configured to lower the temperature of the chamber to a temperature, so that the unwanted thermal radiation emitted or reflected from the chamber is sufficiently low so as to not significantly elevate the inherent detector dark current generated by the detector, thereby improving the signal to noise ratio of the detector.
Substrate carrier for disposing in a CVD or PVD reactor, in particular for separating carbon nanotubes and graphene, having a first broadside face for receiving a substrate to be coated and a second broadside face facing away from the first broadside face, wherein the first broadside face and the second broadside face in each case include one substrate-receiving zone (4, 5) in which fixing elements (14, 14', 15) are provided, by way of which in each case one substrate or portions of a substrate is/are fastenable on the broadside face (2, 3), wherein the substrate-receiving zone (4, 5) has two first peripheries that face away from one another, and two second peripheries that extend so as to be transverse to the first peripheries, with one handling portion of which protrusions, that each protrude beyond the second periphery, are formed, Characterized in that the substrate carrier is a flat body and the protrusions built by handling portions adjoining to the first peripheries are guiding portions, which engage with guiding elements of the CVD or PVD reactor.
Piston-type fuel pump for an internal combustion engine, having a pump cylinder and having a pump piston received in displaceable fashion in the pump cylinder, characterized in that said piston-type fuel pump has a mounting and sealing arrangement for the pump piston, which mounting and sealing arrangement comprises a guide region for the axial guidance of the pump piston in the pump cylinder and comprises a sealing region which has a sealing lip, characterized in that the mounting and sealing arrangement is of unipartite form.
A wound closure device comprising: a filamentary element having a proximal end and a distal end; a stop element, in the form of a tab, coupled to the distal end of the filamentary element, the stop element having a leading edge area defined by thickness and a width, the leading edge area facing substantially perpendicular to a longitudinal axis of the filamentary element, and a total surface area; wherein the ratio of the leading edge area to the total surface area is less than 10%, and wherein the leading edge thickness includes a maximum thickness at a center and at first and second outer edges, and a minimum thickness at a location between the center and the first outer edge and between the center and the second outer edge. a filamentary element having a proximal end and a distal end; a stop element, in the form of a tab, coupled to the distal end of the filamentary element, the stop element having a leading edge area defined by thickness and a width, the leading edge area facing substantially perpendicular to a longitudinal axis of the filamentary element, and a total surface area; wherein the ratio of the leading edge area to the total surface area is less than 10%, and wherein the leading edge thickness includes a maximum thickness at a center and at first and second outer edges, and a minimum thickness at a location between the center and the first outer edge and between the center and the second outer edge.
A filter element for use in a filter disc, wherein a plurality of filter elements are arranged on a rotor shaft in a manner allowing liquid communication between the inside of the filter elements and an inside of the rotor shaft, wherein each filter element has at least one passage in an edge structure for liquid communication between the inside of an adjacent filter element when the filter elements are assembled forming a filter disc, characterized in that the passage has an elevated retention edge extending along at least one edge of the passage inwards towards the inside of the filter element.
A method comprising: receiving, by a wireless device, an uplink grant comprising a listen-before-talk, LBT, type field indicating at least one of a first LBT type or a second LBT type for a subframe of an unlicensed cell; determining, at least based on uplink transmissions by the wireless device in a preceding adjacent subframe to the subframe, to continue transmitting uplink signals in the subframe without performing the at least one of the first LBT type or the second LBT type for the subframe indicated by the LBT type field; and transmitting the uplink signals in the subframe. receiving, by a wireless device, an uplink grant comprising a listen-before-talk, LBT, type field indicating at least one of a first LBT type or a second LBT type for a subframe of an unlicensed cell; determining, at least based on uplink transmissions by the wireless device in a preceding adjacent subframe to the subframe, to continue transmitting uplink signals in the subframe without performing the at least one of the first LBT type or the second LBT type for the subframe indicated by the LBT type field; and transmitting the uplink signals in the subframe.
A method for testing phlebotomical, surgical or orthopedic instrumentation and/or practicing a phlebotomical, surgical or orthopedic procedure, wherein the testing of the phlebotomical, surgical or orthopedic instrumentation or the practicing of the phlebotomical, surgical or orthopedic procedure is performed on a medical device comprising: a collagen-cellulose material comprising 1.0-9.0 wt. % of a collagen, based on a total weight of the collagen-cellulose material; 0.2-3.0 wt. % of cellulose or a derivative thereof, based on the total weight of the collagen-cellulose material; 0.5-6.5 wt. % of at least one acid selected from the group consisting of an inorganic acid, an organic acid, and mixtures thereof, based on the total weight of the collagen-cellulose material; and water; and wherein the collagen-cellulose material is in a form of an artificial blood vessel, an artificial tissue, and/or an artificial bone.
Power generating equipment comprising: a support structure adapted to be disposed on the bed of a body of water; a buoyant power generating apparatus having a centre of buoyancy; a winching device releasably engageable with the power generating apparatus, and operable to pay out and to retract a flexible winch tether; and a flexible winch tether, characterised in that the flexible winch tether comprises: a first elongate portion which extends from a first end (6a1) of the first elongate portion to a second end (6a2) of the first elongate portion, the first end (6a1) of the first elongate portion being connectable to the support structure; a second elongate portion which extends from a first end (6b1) of the second elongate portion to a second end (6b2) of the second elongate portion, the first end (6b1) of the second elongate portion being attached to the winching device; and a coupling device operable to connect releasably the second end (6a2) of the first elongate portion of the winch tether with the second end (6b2) of the second elongate portion of the winch tether, wherein the winching device is operable to retract the flexible winch tether following attachment of the first end (6a1) of the first elongate portion (6a1) of the winch tether to the support structure, and to pay out the winch tether following release of the winching device from the power generating apparatus, thereby allowing the winching device to separate from the power generating apparatus. a support structure adapted to be disposed on the bed of a body of water; a buoyant power generating apparatus having a centre of buoyancy; a winching device releasably engageable with the power generating apparatus, and operable to pay out and to retract a flexible winch tether; and a flexible winch tether, a first elongate portion which extends from a first end (6a1) of the first elongate portion to a second end (6a2) of the first elongate portion, the first end (6a1) of the first elongate portion being connectable to the support structure; a second elongate portion which extends from a first end (6b1) of the second elongate portion to a second end (6b2) of the second elongate portion, the first end (6b1) of the second elongate portion being attached to the winching device; and a coupling device operable to connect releasably the second end (6a2) of the first elongate portion of the winch tether with the second end (6b2) of the second elongate portion of the winch tether, wherein the winching device is operable to retract the flexible winch tether following attachment of the first end (6a1) of the first elongate portion (6a1) of the winch tether to the support structure, and to pay out the winch tether following release of the winching device from the power generating apparatus, thereby allowing the winching device to separate from the power generating apparatus.
An analysis method comprising: irradiating, with laser light, an analysis substrate made of a resin material and having a reaction region on which detection target substances and nanoparticles of a metal compound for labeling the detection target substances are captured; extracting, as a substrate signal level, a signal level generated when receiving reflected light from a non-reaction region in the analysis substrate at which the reaction region is not formed; receiving reflected light from the reaction region to generate a light reception level signal; extracting a nanoparticle detection signal having a higher signal level than the substrate signal level from the light reception level signal of the reflected light from the reaction region; and detecting the nanoparticles in accordance with the extracted nanoparticle detection signal, wherein the nanoparticles have a complex refractive index n - ki, where an extinction coefficient k of an imaginary part ki is 0.3 or smaller and a refractive index n of a real part is in a range of 2.1 to 2.5, or where an extinction coefficient k of an imaginary part ki is 0.2 or smaller and a refractive index n of a real part is in a range of 2.1 to 2.6. irradiating, with laser light, an analysis substrate made of a resin material and having a reaction region on which detection target substances and nanoparticles of a metal compound for labeling the detection target substances are captured; extracting, as a substrate signal level, a signal level generated when receiving reflected light from a non-reaction region in the analysis substrate at which the reaction region is not formed; receiving reflected light from the reaction region to generate a light reception level signal; extracting a nanoparticle detection signal having a higher signal level than the substrate signal level from the light reception level signal of the reflected light from the reaction region; and detecting the nanoparticles in accordance with the extracted nanoparticle detection signal,
A computer-implemented method for embedding copyright information in textual content, the method comprising: generating, by a computing device, a unique identifier, ID, based on copyright information associated with the textual content, wherein the copyright information and the textual content are recorded on a blockchain of a blockchain network; identifying, by the computing device, one or more attributes associated with fonts used in the textual content; digitally signing, by the computing device, the unique ID using a private key assigned to a copyright holder; and embedding, by the computing device, the signed unique ID in the textual content by embedding the signed unique ID in at least one bit of a plurality of bits required to change at least one of the one or more attributes associated with the fonts to be representative of the unique ID, wherein the plurality of bits are used to encode the fonts based on variable width character encoding, wherein the embedding produces information-embedded text that enables retrieval of the copyright information from the blockchain based on the unique ID, and wherein a visual difference between the textual content and the information-embedded text is not apparent to an unaided human eye. generating, by a computing device, a unique identifier, ID, based on copyright information associated with the textual content, wherein the copyright information and the textual content are recorded on a blockchain of a blockchain network; identifying, by the computing device, one or more attributes associated with fonts used in the textual content; digitally signing, by the computing device, the unique ID using a private key assigned to a copyright holder; and embedding, by the computing device, the signed unique ID in the textual content by embedding the signed unique ID in at least one bit of a plurality of bits required to change at least one of the one or more attributes associated with the fonts to be representative of the unique ID, wherein the plurality of bits are used to encode the fonts based on variable width character encoding, wherein the embedding produces information-embedded text that enables retrieval of the copyright information from the blockchain based on the unique ID, and wherein a visual difference between the textual content and the information-embedded text is not apparent to an unaided human eye.