mhurhangee/ep-ind-claims huggingface dataset:
A substantially homogeneous particle mixture, comprising: a plurality of derivatized nanodiamond particles comprising a plurality of first functional groups, wherein said derivatized nanodiamond particles have an average particle size of less than 1 μm; a plurality of microdiamond particles having an average size of greater than or equal to 1 μm; and a plurality of derivatized metal solvent-catalyst particles; wherein the average size of the microdiamonds is at least 10 times greater than the average particle size of the derivatized nanodiamonds. a plurality of derivatized nanodiamond particles comprising a plurality of first functional groups, wherein said derivatized nanodiamond particles have an average particle size of less than 1 μm; a plurality of microdiamond particles having an average size of greater than or equal to 1 μm; and a plurality of derivatized metal solvent-catalyst particles; wherein the average size of the microdiamonds is at least 10 times greater than the average particle size of the derivatized nanodiamonds.
A method for producing methionine and/or 2-hydroxy-4-(methylthio)butanoic acid, comprising contacting an oxide catalyst containing cerium, 3-(methylthio)propionaldehyde, a compound containing cyanide ion, ammonia or a compound containing ammonium ion, and water with each other.
A semiconductor device, comprising: a semiconductor substrate comprising a front surface; an LDMOS transistor structure in the front surface; a conductive interconnection structure arranged on the front surface; and a cavity arranged in the front surface and including air or a vacuum, wherein the cavity comprises a plurality of trenches formed in the semiconductor substrate coupled by a connecting cavity formed on the front surface and defined by an insulating layer on the front surface. a semiconductor substrate comprising a front surface; an LDMOS transistor structure in the front surface; a conductive interconnection structure arranged on the front surface; and a cavity arranged in the front surface and including air or a vacuum,
Bed with an approximately box-shaped bed frame and a lying surface (28, 31) arranged therein, wherein the bed frame consists of at least a head part, a foot part and two side parts (32, 33) and is supported on a base and the inclination of the lying surface (28, 31) arranged therein is designed so as to be adjustable and lockable, wherein the inclination of the lying surface (28, 31) is adjustable and lockable, in that an inner frame, on which the lying surface (28, 31) is arranged, is mounted in the bed frame so as to be able to pivot in a horizontal axis, characterised in that the inner frame has at least one internally disposed mounting rail for the support of a sprung carrying frame or for the support of a sprung lamellar grating.
An intelligent safety power tap for use in a safety network system, comprising: a circuit board; a safety core on the circuit board, the safety core comprising one or more microcontrollers (112, 113), wherein the safety core is capable of obtaining a safety message from the safety network system; a physical layer network interface connected to the safety core and the safety network system; and a safety switch (126, 136) controlled by the safety core, wherein the switch (126, 136) is capable of shutting off power for at least one of a network power zone and a switched power zone in the safety network system, wherein the safety core is configured to at least one of: send a broadcast safety message to all power taps in the safety network system so that all power taps shut off network power to all network power zones in the safety network system; send a broadcast safety message to all power taps in the safety network system so that all power taps shut off switched power to all switched power zones in the safety network system; and receive a broadcast safety message to shut off at least one of network power and switched power to all devices powered by or downstream of the intelligent safety power tap. a circuit board; a safety core on the circuit board, the safety core comprising one or more microcontrollers (112, 113), wherein the safety core is capable of obtaining a safety message from the safety network system; a physical layer network interface connected to the safety core and the safety network system; and a safety switch (126, 136) controlled by the safety core, wherein the switch (126, 136) is capable of shutting off power for at least one of a network power zone and a switched power zone in the safety network system, wherein the safety core is configured to at least one of: send a broadcast safety message to all power taps in the safety network system so that all power taps shut off network power to all network power zones in the safety network system; send a broadcast safety message to all power taps in the safety network system so that all power taps shut off switched power to all switched power zones in the safety network system; and receive a broadcast safety message to shut off at least one of network power and switched power to all devices powered by or downstream of the intelligent safety power tap. send a broadcast safety message to all power taps in the safety network system so that all power taps shut off network power to all network power zones in the safety network system; send a broadcast safety message to all power taps in the safety network system so that all power taps shut off switched power to all switched power zones in the safety network system; and receive a broadcast safety message to shut off at least one of network power and switched power to all devices powered by or downstream of the intelligent safety power tap.
A process for preparing a Al/TiC nanocomposite material comprising an aluminum matrix in which nano-sized particles comprising TiC are dispersed, said process comprising the following steps of: a) preparing a first powder mixture by contacting a graphite powder with a titanium aluminide powder of the formula Al 3 Ti, both powders having micro- or higher sized particles; b) preparing a second powder mixture by mechanosynthesis of the first powder mixture, the second powder mixture being formed in all or part by particles comprising both titanium aluminide and graphite; c) compressing the second powder mixture to obtain one or more greens; d) reactively sintering the green(s), thereby the Al/TiC nanocomposite material is obtained. a) preparing a first powder mixture by contacting a graphite powder with a titanium aluminide powder of the formula Al 3 Ti, both powders having micro- or higher sized particles; b) preparing a second powder mixture by mechanosynthesis of the first powder mixture, the second powder mixture being formed in all or part by particles comprising both titanium aluminide and graphite; c) compressing the second powder mixture to obtain one or more greens; d) reactively sintering the green(s), thereby the Al/TiC nanocomposite material is obtained.
An authentication device configured to execute authentication based on an image, the authentication device comprising: a visual-line detecting unit configured to detect a visual line direction of a subject photographed in the image; an authentication-permission visual-line direction setting unit configured to set a visual line direction for permitting authentication; and an authentication executing unit configured to execute authentication by deciding whether a visual line direction detected by the visual-line detecting unit is an authentication permission visual-line direction set by the authentication-permission visual-line direction setting unit; characterized in that the authentication device comprises a display control unit configured to cause a display unit to display an image showing a type of a visual line direction when setting an authentication permission visual-line direction by the authentication-permission visual-line direction setting unit, and configured to cause the display unit not to display the image when executing authentication by the authentication executing unit. a visual-line detecting unit configured to detect a visual line direction of a subject photographed in the image; an authentication-permission visual-line direction setting unit configured to set a visual line direction for permitting authentication; and an authentication executing unit configured to execute authentication by deciding whether a visual line direction detected by the visual-line detecting unit is an authentication permission visual-line direction set by the authentication-permission visual-line direction setting unit; characterized in that the authentication device comprises a display control unit configured to cause a display unit to display an image showing a type of a visual line direction when setting an authentication permission visual-line direction by the authentication-permission visual-line direction setting unit, and configured to cause the display unit not to display the image when executing authentication by the authentication executing unit.
Device for position-resolved temperature measurement, comprising - at least one optical fibre for the position-resolved temperature measurement, - at least one laser light source, the light of which can be injected into the optical fibre, whereas the components (12, 12a, 12b) of the light generated by the laser light source, which are scattered back in the optical fibre, can be extracted from the optical fibre and be detected. - optical modulator means, which allow modulation of the light to be injected into the optical fibre, - filtering and spectral splitting means, as well as injection means, via which the modulated light can be injected into the optical fibre, - optical demodulator means, which allow demodulation of the components (12, 12a, 12b) of the light which are extracted from the optical fibre, characterised in that the demodulator means comprise sensor means (7, 8) and means for generating an additional light signal, which can be detected by the sensor means (7, 8) together with the components (12, 12a, 12b) of the light which are extracted from the optical fibre, the components (12a, 12b) of the light which emerge from the filtering and spectral splitting means striking the sensor means (7, 8) directly, and the additional modulated light signal being split into two parts, which likewise strike the sensor means (7, 8). - at least one optical fibre for the position-resolved temperature measurement, - at least one laser light source, the light of which can be injected into the optical fibre, whereas the components (12, 12a, 12b) of the light generated by the laser light source, which are scattered back in the optical fibre, can be extracted from the optical fibre and be detected. - optical modulator means, which allow modulation of the light to be injected into the optical fibre, - filtering and spectral splitting means, as well as injection means, via which the modulated light can be injected into the optical fibre, - optical demodulator means, which allow demodulation of the components (12, 12a, 12b) of the light which are extracted from the optical fibre,
A composite oxide black pigment having characteristics to absorb visible rays and near infrared rays and composed of an oxide of main constituent metals comprising copper, manganese and iron, wherein: in a wavelength region of 400 to 1,000 nm, the composite oxide black pigment has a minimum wavelength, at which a transmittance becomes minimum, in a wave length region of 600 to 800 nm, and a molar ratio of manganese/iron is 3/1 to 30/1, and a molar ratio of copper/(manganese + iron) is 1/2 to 1.2/2, and at least one divalent metal of calcium and magnesium has been incorporated in a proportion of 2 to 10 mol% relative to the copper. in a wavelength region of 400 to 1,000 nm, the composite oxide black pigment has a minimum wavelength, at which a transmittance becomes minimum, in a wave length region of 600 to 800 nm, and a molar ratio of manganese/iron is 3/1 to 30/1, and a molar ratio of copper/(manganese + iron) is 1/2 to 1.2/2, and at least one divalent metal of calcium and magnesium has been incorporated in a proportion of 2 to 10 mol% relative to the copper.
A laminated tube container comprising a tube body that includes a light blocking layer between an innermost layer and an outermost layer made of resin, wherein the tube body has: a butted portion in which both side edges (11a, 11b) of a laminated sheet constituting the tube body are butted against each other; and a reinforcing tape portion provided on an inner surface of the tube body along the butted portion, the reinforcing tape portion including: a pair of resin layers (31, 32); and an intermediate layer that includes an aluminum layer and is disposed between the pair of resin layers (31, 32), characterized by that the intermediate layer includes a polyethylene terephthalate layer. a butted portion in which both side edges (11a, 11b) of a laminated sheet constituting the tube body are butted against each other; and a reinforcing tape portion provided on an inner surface of the tube body along the butted portion, the reinforcing tape portion including: a pair of resin layers (31, 32); and an intermediate layer that includes an aluminum layer and is disposed between the pair of resin layers (31, 32), a pair of resin layers (31, 32); and an intermediate layer that includes an aluminum layer and is disposed between the pair of resin layers (31, 32),
A device for assisting navigation comprising: a body defining a middle portion having a first end and a second end, a handle portion at one of the first or second ends, a holder that is removably mounted with another end of the first or second ends of the body, and a communication module disposed within the holder arranged to facilitate wireless or wire transmission of navigation data, wherein the holder comprises a RFID device arranged to read, transmit or process navigation data, wherein the RFID device comprises a hybrid antenna design that includes at least two jointed antenna structures (307, 308), and wherein the at least two jointed antenna structures have different flexibilities. a body defining a middle portion having a first end and a second end, a handle portion at one of the first or second ends, a holder that is removably mounted with another end of the first or second ends of the body, and a communication module disposed within the holder arranged to facilitate wireless or wire transmission of navigation data, wherein the holder comprises a RFID device arranged to read, transmit or process navigation data, wherein the RFID device comprises a hybrid antenna design that includes at least two jointed antenna structures (307, 308), and wherein the at least two jointed antenna structures have different flexibilities.
A method for automated material testing based on known characteristics of a sample being tested, the steps comprising: providing a material testing apparatus configured to perform a plurality of different types of material tests selected from the group of material tests consisting of: a hardness elastic modulus test, an adhesion strength test, a creep test, and a dynamic mechanical analysis test; wherein said material testing apparatus comprises a processor that is operatively associated with a data storage (420, 425, 440) and is adapted to execute computer implemented instructions to perform said plurality of different material tests; wherein said material testing apparatus performs the following steps: receiving a sample on a table or stage of said material testing apparatus; prompting a user to provide one or more user inputs describing one or more material characteristics of said sample and a type of material test; receiving (225, 230) said one or more user inputs associated with said one or more characteristics of said sample and said type of material test; selecting an indenter based on said received user inputs associated with one or more characteristics of said sample and said type of material test; performing a preliminary test to determine whether one or more testing parameters should be adjusted by contacting a surface of said sample with said selected indenter; contacting said surface of said sample and receiving one or more feedback signals representing measured values from said sample in response to said preliminary test; adjusting said one or more testing parameters based on said one or more feedback signals to create said one or more adjusted testing parameters; and performing at least one primary material test to said sample based on said one or more user inputs, said selected indenter and said one or more adjusted testing parameters. receiving a sample on a table or stage of said material testing apparatus; prompting a user to provide one or more user inputs describing one or more material characteristics of said sample and a type of material test; receiving (225, 230) said one or more user inputs associated with said one or more characteristics of said sample and said type of material test; selecting an indenter based on said received user inputs associated with one or more characteristics of said sample and said type of material test; performing a preliminary test to determine whether one or more testing parameters should be adjusted by contacting a surface of said sample with said selected indenter; contacting said surface of said sample and receiving one or more feedback signals representing measured values from said sample in response to said preliminary test; adjusting said one or more testing parameters based on said one or more feedback signals to create said one or more adjusted testing parameters; and performing at least one primary material test to said sample based on said one or more user inputs, said selected indenter and said one or more adjusted testing parameters.
Cross lapper for laying a non-woven material from a card web with an upper carriage movable in a transverse direction through which the card web coming from the upper carriage is guided and which serves to deliver the card web onto a delivery transport belt, and at least two card transport belts (20, 22, 24), including a first card transport belt and a second card transport belt, for guiding the card web to the upper carriage and further to the laying carriage, wherein the revolving first card transport belt whose upper side extends from an inlet region of the cross lapper to the upper carriage and serves as a support face for the card web, is designed as a rough card transport belt and through friction forces entrains the card web lying thereon, and wherein above the upper side of the first card transport belt is a cover portion for covering over the top of the card web lying on the upper side of the first card transport belt, wherein the cover portion is designed as a portion of a cover belt or as a portion of a group of linear elements arranged spaced from and parallel to each other, wherein the cover belt or the linear elements are smooth and the card web is moved along on an underside of the cover portion, characterised in that the cover belt or the group of linear elements is connected to the upper carriage in the region of a first end portion of the cover belt or the group of linear elements, and the cross lapper has a compensating mechanism for compensating the length of the cover portion which changes as the upper carriage moves in the transverse direction.
A method executed by a mobile terminal (500, 1404), comprising: signaling to a serving base station a capability to operate in one or more carrier aggregation, CA, configurations each comprising one or more frequency bands supported by one or more receivers of the mobile terminal (500, 1404); providing to the serving base station, for each CA configuration, an indication of measurement gap requirements for a subset of frequency bands supported by the one or more receivers of the mobile terminal (500, 1404) when the mobile terminal (500, 1404) operates in said each CA configuration; receiving from the serving base station a configuration command to select a carrier aggregation configuration from the one or more carrier aggregation configurations; assigning receiver resources to operate on communication bands associated with carriers in the selected carrier aggregation configuration; and signaling to the serving base station inter-frequency measurement gap requirements based on the selected carrier aggregation configuration. signaling to a serving base station a capability to operate in one or more carrier aggregation, CA, configurations each comprising one or more frequency bands supported by one or more receivers of the mobile terminal (500, 1404); providing to the serving base station, for each CA configuration, an indication of measurement gap requirements for a subset of frequency bands supported by the one or more receivers of the mobile terminal (500, 1404) when the mobile terminal (500, 1404) operates in said each CA configuration; receiving from the serving base station a configuration command to select a carrier aggregation configuration from the one or more carrier aggregation configurations; assigning receiver resources to operate on communication bands associated with carriers in the selected carrier aggregation configuration; and signaling to the serving base station inter-frequency measurement gap requirements based on the selected carrier aggregation configuration.
A liquid crystal display device comprising a first substrate, a second substrate, a liquid crystal composition layer sandwiched between the first substrate and the second substrate, an electrode (14, 15) that is disposed on at least one of the first substrate and the second substrate and controls liquid crystal molecules in the liquid crystal composition layer, and a vertical alignment film (16, 17) that is disposed on at least one of the first substrate and the second substrate and controls an alignment direction of liquid crystal molecules in the liquid crystal composition layer so that the alignment direction is substantially vertical to a surface of the first substrate and a surface of the second substrate that are adjacent to the liquid crystal composition layer, wherein the vertical alignment film is formed of a cured product of a polymerizable liquid crystal compound containing a mesogenic moiety and a reactive group, an alignment direction of the polymerizable liquid crystal compound at a surface adjacent to the liquid crystal composition layer is substantially vertical to the surface of the first substrate and the surface of the second substrate that are adjacent to the liquid crystal composition layer, and.a liquid crystal composition constituting the liquid crystal composition layer contains a compound represented by general formula wherein R 1 and R 2 each independently represent an alkyl group having 1 to 8 carbon atoms, an alkenyl group having 2 to 8 carbon atoms, an alkoxy group having 1 to 8 carbon atoms, or an alkenyloxy group having 2 to 8 carbon atoms; A represents a 1,4-phenylene group or a trans-1,4-cyclohexylene group; 1 represents 1 or 2; and when 1 is 2, the two A may be the same or different from each other, and a compound represented by general formula wherein R 3 represents an alkyl group having 1 to 8 carbon atoms, an alkenyl group having 2 to 8 carbon atoms, an alkoxy group having 1 to 8 carbon atoms, or an alkenyloxy group having 2 to 8 carbon atoms; R 4 represents an alkyl group having 1 to 8 carbon atoms, an alkenyl group having 4 to 8 carbon atoms, an alkoxy group having 1 to 8 carbon atoms, or an alkenyloxy group having 3 to 8 carbon atoms; B represents a 1,4-phenylene group or a trans-1,4-cyclohexylene group; m represents 0, 1, or 2; and when m is 2, the two B may be the same or different from each other.