mhurhangee/ep-ind-claims huggingface dataset:
Metal junction part for the assembly of a construction structure unit, said part strictly comprising three fastening flanks (11a, 11b, 11c; 11da, 11db, 11dc; 52a, 52b, 52c; 11dc, 80b, 11db) able to ensure the fastening of three panels (15, 16, 35a; 56, 53, 62, 81, 82) to said junction part (11, 11d, 52, 75), and each provided with at least one smooth or tapped drill hole (11a', 11b', 11c'; 11da', 11db', 11dc'; 52a', 52b', 52c', 80a', 11dc', 80b', 11db') which defines a fastening axis (X, Y, Z; X, Y1, Z1, X, Y2, Z2, X3, Y3, Z3) by clamped fastening of the flank in question (11a, 11b, 11c; 11da, 11db, 11dc; 52a, 52b, 52c; 80a, 11dc, 80b, 11db) against one of the three panels (15, 16, 35a; 56, 53, 62, 81, 82), the three fastening flanks (11a, 11b, 11c; 11da, 11db, 11dc; 52a, 52b, 52c; 80a, 11dc, 80b, 11db) comprising a first fastening flank or central base (11a, 11da, 52a) able to bear with clamped fastening against a first panel (35a, 53), a second fastening flank (80b, 11db) or first fastening tongue (11b, 11db, 52b) able to bear with clamped fastening against a second panel (15, 62) and comprising a tapped drill hole (11b', 11db'; 52b', 52b"; 11db'), and a third fastening flank (lldc) or second fastening tongue (11c, 11dc, 52c), able to bear with clamped fastening against a third panel (16, 56), the three fastening axes (X, Y, Z; X, Y1, Z1) defined by the drill holes (11a', 11b', 11c'; 11da', 11db', 11dc'; 52a', 52b', 52c') of the three fastening flanks (11a, 11b, 11c; 11da, 11db, 11dc; 52a, 52b, 52c) being orthogonal in pairs, the part being characterized in that the third fastening flank or second fastening tongue (11c, 11dc, 52c) comprises a smooth drill hole (11c', 11dc', 52c', 52c", 11dc').
Method for the automatic discrimination and enumeration of particles, such as cells or fat globules, in milk of any animal, using high-frequency impedance measurements in a range between 0.1 and 30 MHz in a micro fluidic device, comprising: - passing of raw milk through a filter to avoid clogging of the micro fluidic device; - determining the impedance value of the milk and calibrating the micro fluidic device on said impedance value, if necessary, - counting the particles and measuring the impedance components of each particle; - determining from one of these components a trigger level suitable for noise extraction and particle recognition, respectively; - determining from one impedance component a trigger level for discrimination of cells from non-cellular milk particles; - analysing the impedance values depending on the amplitude values and the phase angle values; and - discriminating and enumerating the cells from non-cellular milk particles according to their amplitude and/or phase angle values. - passing of raw milk through a filter to avoid clogging of the micro fluidic device; - determining the impedance value of the milk and calibrating the micro fluidic device on said impedance value, if necessary, - counting the particles and measuring the impedance components of each particle; - determining from one of these components a trigger level suitable for noise extraction and particle recognition, respectively; - determining from one impedance component a trigger level for discrimination of cells from non-cellular milk particles; - analysing the impedance values depending on the amplitude values and the phase angle values; and - discriminating and enumerating the cells from non-cellular milk particles according to their amplitude and/or phase angle values.
A semiconductor device comprising: at least one memory cell, the at least one memory cell comprising: a magnetic cell core disposed between a conductive material above the magnetic cell core and another conductive material below the magnetic cell core, the magnetic cell core comprising a free region exhibiting strain effecting a vertical magnetization orientation; and at least one stressor structure external to the magnetic cell core and applying stress to the magnetic cell core, the at least one stressor structure at least partially overlapped by the conductive material above, the at least one stressor structure physically isolated from each of the magnetic cell core, the conductive material, and the another conductive material by an insulative material; characterised in that the at least one stressor structure at least partially overlaps the conductive material below. at least one memory cell, the at least one memory cell comprising: a magnetic cell core disposed between a conductive material above the magnetic cell core and another conductive material below the magnetic cell core, the magnetic cell core comprising a free region exhibiting strain effecting a vertical magnetization orientation; and at least one stressor structure external to the magnetic cell core and applying stress to the magnetic cell core, the at least one stressor structure at least partially overlapped by the conductive material above, the at least one stressor structure physically isolated from each of the magnetic cell core, the conductive material, and the another conductive material by an insulative material; characterised in that the at least one stressor structure at least partially overlaps the conductive material below. a magnetic cell core disposed between a conductive material above the magnetic cell core and another conductive material below the magnetic cell core, the magnetic cell core comprising a free region exhibiting strain effecting a vertical magnetization orientation; and at least one stressor structure external to the magnetic cell core and applying stress to the magnetic cell core, the at least one stressor structure at least partially overlapped by the conductive material above, the at least one stressor structure physically isolated from each of the magnetic cell core, the conductive material, and the another conductive material by an insulative material;
Method for controlling a cutting extraction machine used in coal mining, which can be moved in a longwall along a working font, in which method the heat radiation of the working face newly exposed by the extraction machine, in each instance, is observed by creating heat images with the help of at least one infrared camera arranged on the machine body of the extraction machine, whereby at the end of each extraction run the progression of a key bed package is detected with reference to the upper and/or lower delimination surface of the seam by means of heat images of the working face taken during this extraction run, and control data for the next extraction run of the extraction machine are generated on base of the progression of the key bed package, characterised in, a.) that the flow of heat from the warm rock body into the longwall space is measured at the working face, and that by means of this flow of heat a key bed package is detected consisting of macerals with a characteristic sequence of border layers between macerals having different heat conductivity, b.) and that of the observation of the heat radiation from the working face is executed perpendicular to the working face, whereby the infrared camera is so arranged on the machine body of the extraction machine, that the measurement field of the infrared camera has in the longitudinal direction of the longwall the greatest possible distance from the cutting tools (7,8) of the extraction machine. a.) that the flow of heat from the warm rock body into the longwall space is measured at the working face, and that by means of this flow of heat a key bed package is detected consisting of macerals with a characteristic sequence of border layers between macerals having different heat conductivity, b.) and that of the observation of the heat radiation from the working face is executed perpendicular to the working face, whereby the infrared camera is so arranged on the machine body of the extraction machine, that the measurement field of the infrared camera has in the longitudinal direction of the longwall the greatest possible distance from the cutting tools (7,8) of the extraction machine.
Mounting system mountable on a bicycle luggage carrier, comprising a clamping system for clamping on the bicycle luggage carrier and a carrier coupling part mountable on the clamping system and configured to cooperate with a corresponding luggage coupling part of a bicycle accessory, wherein the clamping system comprises at least two clamping sets, each clamping set including a first clamping hook and a second clamping hook each arranged to clamp a longitudinal rod of the bicycle luggage carrier, the clamping set further including an adjustment member extending between said first clamping hook and said second clamping hook such that a distance between said first and second clamping hook (6,7) is adjustable, wherein a shoulder of each of said first clamping hook and of said second clamping hook includes an upper coupling part contact surface, characterised in that said shoulder includes a lower rod contact surface, wherein the shoulder of said first and second clamping hook (6.7) is arranged to receive said adjustment member between said upper coupling part contact surface and said lower rod contact surface.
An upper frame for a crusher, comprising a central hub for receiving a main shaft of the crusher; an upper rim; a spider arm having inner walls and outer walls and a bottom (18,58a,58b); and a u-shaped cavity extending towards a lower flange from the upper rim; characterized in that the u-shaped cavity is defined in the spider arm by the inner walls and the bottom (18,58a,58b) and extends from the central hub at least below the upper rim. a central hub for receiving a main shaft of the crusher; an upper rim; a spider arm having inner walls and outer walls and a bottom (18,58a,58b); and a u-shaped cavity extending towards a lower flange from the upper rim; characterized in that the u-shaped cavity is defined in the spider arm by the inner walls and the bottom (18,58a,58b) and extends from the central hub at least below the upper rim.
A user apparatus adapted to communicate with a base station apparatus, the user apparatus comprising: a reception unit configured to receive, from the base station apparatus, an indication for an individual random access preamble, information indicating that a non-contention based random access procedure is enabled, and a random access response; a transmission unit configured to transmit the individual random access preamble to the base station apparatus; and a control unit configured, in response to receiving the random access response to the individual random access preamble, to determine whether the random access procedure is successfully completed based on the information indicating that the non-contention based random access procedure is enabled, the random access response being transmitted from the base station apparatus, wherein the information indicating that the non-contention based random access procedure is enabled, is information transmitted via an individual RRCConnectionReconfiguration message. a reception unit configured to receive, from the base station apparatus, an indication for an individual random access preamble, information indicating that a non-contention based random access procedure is enabled, and a random access response; a transmission unit configured to transmit the individual random access preamble to the base station apparatus; and a control unit configured, in response to receiving the random access response to the individual random access preamble, to determine whether the random access procedure is successfully completed based on the information indicating that the non-contention based random access procedure is enabled, the random access response being transmitted from the base station apparatus, wherein the information indicating that the non-contention based random access procedure is enabled, is information transmitted via an individual RRCConnectionReconfiguration message.
A transmitter for a wireless communication system, configured to stop a transmission of a first downlink burst (410, 610) such that the first downlink burst ends before a predetermined gap interval (430, 630), wherein the predetermined gap interval is before a downlink subframe (422, 622), wherein the downlink subframe (422, 622) is contained within a Discovery signal Measurement Timing Configuration, DMTC, window (420, 550, 620) of the wireless communication system; and wherein the downlink subframe (422, 622) is one of: a first subframe in the DMTC window (420, 550, 620) and a candidate transmit interval for a discovery signal in the DMTC window (420, 550, 620); wherein the transmitter is further configured to transmit a second downlink burst in the DMTC window using listen-before-talk, LBT, based on Load Based Equipment, LBE, wherein a transmission of the second downlink burst within the DMTC window (420, 620) is started time-aligned or subframe-aligned with a discovery signal transmission interval; wherein the transmitter is configured to use LBE based LBT in the DMTC window (420, 620) with a first defer period and LBE Based LBT outside of the DMTC window with a second defer period, wherein the first and second defer period are derived differently, the first defer period is derived to align the start position of the second downlink burst with the Discovery Reference Signal, DRS, pattern, while the second defer period is derived to align the start position of a third downlink burst with the start position of a transmission outside of the DMTC window if it is determined that a discovery signal has not already been transmitted in the DMTC window. a first subframe in the DMTC window (420, 550, 620) and a candidate transmit interval for a discovery signal in the DMTC window (420, 550, 620); wherein the transmitter is further configured to transmit a second downlink burst in the DMTC window using listen-before-talk, LBT, based on Load Based Equipment, LBE, wherein a transmission of the second downlink burst within the DMTC window (420, 620) is started time-aligned or subframe-aligned with a discovery signal transmission interval; wherein the transmitter is configured to use LBE based LBT in the DMTC window (420, 620) with a first defer period and LBE Based LBT outside of the DMTC window with a second defer period, wherein the first and second defer period are derived differently, the first defer period is derived to align the start position of the second downlink burst with the Discovery Reference Signal, DRS, pattern, while the second defer period is derived to align the start position of a third downlink burst with the start position of a transmission outside of the DMTC window if it is determined that a discovery signal has not already been transmitted in the DMTC window.
A cooking device with at least one cooking region comprising: a control unit configured to be coupled with a communication interface for receiving voice signals as control commands from a user, wherein the control unit is configured for controlling a power supply to the at least one cooking region, wherein the control unit is configured to accept commands from the communication interface only upon recognition of the presence of the user, wherein the control unit is configured to access a list of passwords, and to select one of said list of passwords at a time, and wherein the control unit is configured to compare a signal, received from the communication interface, with said password, characterized in that the control unit is configured to select the password from the list of passwords in a randomized manner and display said password on a display of the cooking device to a user and in that, if the received signal is representative and/or can be assigned to said displayed selected password of the list of passwords, a respective command to change the cooking region or a function of the cooking device is executed. a control unit configured to be coupled with a communication interface for receiving voice signals as control commands from a user, wherein the control unit is configured for controlling a power supply to the at least one cooking region, wherein the control unit is configured to accept commands from the communication interface only upon recognition of the presence of the user, wherein the control unit is configured to access a list of passwords, and to select one of said list of passwords at a time, and wherein the control unit is configured to compare a signal, received from the communication interface, with said password, characterized in that the control unit is configured to select the password from the list of passwords in a randomized manner and display said password on a display of the cooking device to a user and in that, if the received signal is representative and/or can be assigned to said displayed selected password of the list of passwords, a respective command to change the cooking region or a function of the cooking device is executed.
Method for characterizing a target product comprising the following steps: 1. Generating a bank of spectral data containing samples, their spectra and their measured characteristics "CAR", for example the property "P", 2. Spectrally analyzing the target product and comparing the obtained spectrum (Spectrum PC) with the spectral data of the databank, 3. Identifying "near-neighbour" points of the target product, and 4. Computing by topology the characteristic of the target product CARpc/top, for example the property Ppc/top, depending on the corresponding characteristics of the near-neighbour points, characterized in that the computation of step 4 is based on a weighting related to the inverse of the distance between the target product and the near-neighbour points. 1. Generating a bank of spectral data containing samples, their spectra and their measured characteristics "CAR", for example the property "P", 2. Spectrally analyzing the target product and comparing the obtained spectrum (Spectrum PC) with the spectral data of the databank, 3. Identifying "near-neighbour" points of the target product, and 4. Computing by topology the characteristic of the target product CARpc/top, for example the property Ppc/top, depending on the corresponding characteristics of the near-neighbour points, characterized in that the computation of step 4 is based on a weighting related to the inverse of the distance between the target product and the near-neighbour points.
A specific binding member that binds carbonic anhydrase IX (CAIX), wherein the specific binding member comprises a VH domain and a VL domain, wherein the VH domain has the amino acid sequence set forth in SEQ ID NO: 7, and the VL domain has the amino acid sequence set forth in SEQ ID NOs 20 or 8.
Use of a photocationically polymerizable adhesive composition, comprising 75 to 99.8 parts by weight of (a) at least one compound selected from the group consisting of aliphatic epoxy, alicyclic epoxy, oxetane and vinyl ether compounds, 0.1 to 5 parts by weight of (b) a titanate coupling agent, and 0.1 to 20 parts by weight of (c) a photopolymerization initiator, the sum of the weights of (a), (b) and (c) being 100 parts by weight. wherein the titanate coupling agent (b) is a compound represented by Formula: wherein R 1, R 2, R 3 and R 4 are each independently a group selected from the group consisting of a dimer of the compound of Formula, or a coordination compound of the compound of Formula with Formula: and wherein the viscosity of the adhesive composition is 200 mPa·s or below (25 °C) and where the photopolymerization initiator is selected from the compounds (a) to (o): Ar 2 I + · X 1 - (a) Ar 3 S + · X 1 - (b) wherein each Ar represents an aryl group, for example, a phenyl group, and X 1 - represents BF 4 -, PF 6 -, SbF 6 - or AsF 6 -; wherein X 1 - represents PF 6 -, SbF 6 - or AsF 6 -, X 2 represents a C 1 -C 12 alkyl or C 1 -C 12 alkoxy group, and r is an integer from 0 to 3; wherein Y - represents PF 6 -, SbF 6 -, AsF 6 - or SbF 5 -; wherein X 1 - represents PF 6 -, SbF 6 - or AsF 6 -; wherein X 1 - represents PF 6 -, SbF 6 - or AsF 6 -; wherein X 1 - represents PF 6 -, SbF 6 - or AsF 6 -; wherein X 1 - represents PF 6 -, SbF 6 - or AsF 6 -, X 3 represents a C 1 -C 7 hydrocarbon or hydroxyphenyl group, X 4 represents a C 7 -C 15 aralkyl or C 3 -C 9 alkenyl group, and X 5 represents a C 1 -C 5 alkyl group optionally containing an oxygen or sulfur atom; wherein X 6 and X 7 are each independently a C 1 -C 12 alkyl or C 1 -C 12 alkoxy group; wherein X 6 and X 7 are each independently a C 1 -C 12 alkyl group or a C 1 -C 12 alkoxy group; and for for the adhesion between a protective film and a polarizer of a polarizing plate. 0.1 to 5 parts by weight of (b) a titanate coupling agent, and 0.1 to 20 parts by weight of (c) a photopolymerization initiator, the sum of the weights of (a), (b) and (c) being 100 parts by weight.
Method for producing a shaped steel body, more particularly a component for example for common-rail injection valves, comprising the following method steps: - forming an iron oxide-based powderous composition from solid oxide particles with addition of carbon and of at least one microalloying element in order to set a bainitic microstructure, wherein the base composition required for this purpose, starting from the iron oxide basis, has a manganese content of 0.8 to 1.9 %, a silicon content of 0.2 to 1.5 % a chromium content of 0.1 to 1.2 %, a nickel content of 0.2 to 1.5 %, and a molybdenum content of 0.1 to 0.5 %, where the addition of carbon takes place with a final content in the range between about 0.15 to 0.3 % and wherein the powderous composition based on iron oxide has microalloying elements added to it, including aluminium with an amount of 0.01 to 0.04 %, and/or boron with an amount of ≤ 0.0025 % and/or vanadium with an amount of 0.05 to 0.20 %, - heating the powderous composition to sintering temperature, - reducing the shaped body obtained by sintering, and - cooling the sintered shaped body to room temperature. - forming an iron oxide-based powderous composition from solid oxide particles with addition of carbon and of at least one microalloying element in order to set a bainitic microstructure, wherein the base composition required for this purpose, starting from the iron oxide basis, has a manganese content of 0.8 to 1.9 %, a silicon content of 0.2 to 1.5 % a chromium content of 0.1 to 1.2 %, a nickel content of 0.2 to 1.5 %, and a molybdenum content of 0.1 to 0.5 %, where the addition of carbon takes place with a final content in the range between about 0.15 to 0.3 % and wherein the powderous composition based on iron oxide has microalloying elements added to it, including aluminium with an amount of 0.01 to 0.04 %, and/or boron with an amount of ≤ 0.0025 % and/or vanadium with an amount of 0.05 to 0.20 %, - heating the powderous composition to sintering temperature, - reducing the shaped body obtained by sintering, and - cooling the sintered shaped body to room temperature.
A compound for use in treating myeloid/lymphoid neoplasms in a patient in need thereof, wherein the compound is Compound 1 having the formula: wherein the myeloid/lymphoid neoplasms is 8p11 myeloproliferative syndrome.