mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for mineralising an area or interest in a biological material, the apparatus comprising: a probe electrode for receiving a mineralisation agent; a counter electrode; a modulator adapted to produce an electrical input signal in a circuit formed from the probe electrode and the counter electrode and to cause transfer of the mineralisation agent from the probe electrode to the biological material under action of the electrical input signal; and a controller; characterized in that the apparatus further comprises a detector for detecting an electrical response of the circuit; and in that the controller is adapted to receive the detected electrical response of the circuit and to control the modulator so as to modify a waveform of the electrical input signal in response to the detected electrical response of the circuit, the controller comprises a first software module having a dataset which describes the characteristic electrical response of a sample biological material at various stages of mineralisation, and a second software module which compares said dataset with the detected electrical response to determine any modification required to the waveform of the electrical input signal. a probe electrode for receiving a mineralisation agent; a counter electrode; a modulator adapted to produce an electrical input signal in a circuit formed from the probe electrode and the counter electrode and to cause transfer of the mineralisation agent from the probe electrode to the biological material under action of the electrical input signal; and a controller; characterized in that the apparatus further comprises a detector for detecting an electrical response of the circuit; and in that the controller is adapted to receive the detected electrical response of the circuit and to control the modulator so as to modify a waveform of the electrical input signal in response to the detected electrical response of the circuit, the controller comprises a first software module having a dataset which describes the characteristic electrical response of a sample biological material at various stages of mineralisation, and a second software module which compares said dataset with the detected electrical response to determine any modification required to the waveform of the electrical input signal.
A fully human HER2 antibody, wherein the amino acid sequence of the heavy chain variable region and the amino acid sequence of the light chain variable region of the antibody are respectively SEQ ID NO: 10 and SEQ ID NO: 2; SEQ ID NO: 11 and SEQ ID NO: 2; or SEQ ID NO: 12 and SEQ ID NO: 2.
A device for weighing slaughter products, comprising a guide which extends along a conveying path, product carriers which can be moved along the guide and which are configured for suspending slaughter products therefrom, and weighing means comprising a weighbridge (3, 15), each product carrier comprising four runners (10, 11), two of which runners being provided behind the other two runners, seen in the direction of movement, wherein the four runners are configured to roll over the weighbridge along tracks (20a, 20b, 21a, 21b) during a weighing interval upon movement of the product carrier, characterised in that the four runners are configured to roll over the weighbridge along four respective tracks during the weighing interval upon movement of the product carrier which four tracks are on four rolling surface parts (22a, 22b, 23a, 23b) which surface parts are comprised by the weighbridge (3, 15) and which four tracks extend parallel to each other, the rolling surface parts (22a, 22b, 23a, 23b) being located on the upper sides of two outer rolling surface bodies (24a, 24b) of the weighbridge (3, 15) and of a central rolling surface body of the weighbridge and the weighbridge and the four runners are configured such that the runners will roll simultaneously onto the weighbridge and simultaneously off the weighbridge.
A nutritional composition containing - a spray-dried powder, wherein said spray-dried powder contains at least 80 %-wt. 3-fucosyllactose which has been produced by microbial fermentation, is free of genetically-engineered microorganisms and nucleic acid molecules derived from genetically-engineered microorganisms, and contains ≤ 15 %-wt. of water; - at least one probiotic microorganism; and - tyndalized probiotic bacteria. - a spray-dried powder, wherein said spray-dried powder contains at least 80 %-wt. 3-fucosyllactose which has been produced by microbial fermentation, is free of genetically-engineered microorganisms and nucleic acid molecules derived from genetically-engineered microorganisms, and contains ≤ 15 %-wt. of water; - at least one probiotic microorganism; and - tyndalized probiotic bacteria.
Transfer device for transferring a plurality of first tire components from a first container and a plurality of second tire components from a second container to a servicer, wherein the transfer device comprises a first station and a second station for receiving the first container and the second container, respectively, wherein the transfer device further comprises a base and a take-out member that is mounted to said base and that is movable with respect to said base in a lateral direction towards the first station and the second station for picking-up and taking-out one of the first tire components from the first container at said first station and for picking-up and taking-out one of the second tire components from the second container at said second station, respectively, and characterized in that the first station and the second station are arranged at the same side of the base in the lateral direction.
A method of detecting RNA in a biological sample that contains RNA, the biological sample containing lactoferrin, the method comprising: - pretreating the biological sample by adding an inhibitor of RNA degradation activity due to lactoferrin to the biological sample, wherein the inhibitor of RNA degradation activity due to lactoferrin comprises an iron ion agent and a carbonate ion agent; and - detecting RNA in the pretreated biological sample by amplification. - pretreating the biological sample by adding an inhibitor of RNA degradation activity due to lactoferrin to the biological sample, wherein the inhibitor of RNA degradation activity due to lactoferrin comprises an iron ion agent and a carbonate ion agent; and - detecting RNA in the pretreated biological sample by amplification.
A titanium alloy comprised of: aluminum from 5.0 to 6.0% by weight; zirconium from 3.75 to 4.75% by weight; vanadium from 5.2 to 6.2% by weight; molybdenum from 1.0 to 1.7% by weight; iron from 0.10 to 0.25% by weight; one of palladium from 0.04 to 0.20% by weight and ruthenium from 0.06 to 0.20% by weight; by weight no more than 0.13% oxygen, 0.05% nitrogen, 0.03% carbon, 0.015% hydrogen, and 0.015% boron; by weight 0-2.0% tantalum; by weight 0-2.0% niobium; by weight 0-1.0% tin; by weight 0-1.0 % hafnium; by weight 0-0.50% tungsten; by weight 0-0.25% chromium and/or manganese; by weight 0-0.20% yttrium; by weight 0-0.20% zinc; by weight 0-0.20% copper; by weight 0-0.20% nickel; by weight 0-0.20% cobalt; by weight 0-0.20% cerium; by weight 0-0.10% Si; by weight no more than 1.0% of total amount of any single element other than titanium, aluminum, zirconium, vanadium, molybdenum, iron, oxygen, nitrogen, carbon, hydrogen, palladium, and/or ruthenium, and the balance to 100% of the total by weight being titanium, wherein the titanium alloy has a molybdenum equivalency in a range of 5.0 to 5.9, wherein the molybdenum equivalency = molybdenum weight % in the alloy + (0.67)(vanadium weight % in the alloy) + (2.5)(iron weight % in the alloy); the titanium alloy has an aluminum equivalency in a range of 6.5 to 7.5, wherein the aluminum equivalency = aluminum weight % in the alloy + (0.33)(tin weight % in the alloy) + (0.17)(zirconium weight % in the alloy) + (10.0)(oxygen weight % in the alloy). aluminum from 5.0 to 6.0% by weight; zirconium from 3.75 to 4.75% by weight; vanadium from 5.2 to 6.2% by weight; molybdenum from 1.0 to 1.7% by weight; iron from 0.10 to 0.25% by weight; one of palladium from 0.04 to 0.20% by weight and ruthenium from 0.06 to 0.20% by weight; by weight no more than 0.13% oxygen, 0.05% nitrogen, 0.03% carbon, 0.015% hydrogen, and 0.015% boron; by weight 0-2.0% tantalum; by weight 0-2.0% niobium; by weight 0-1.0% tin; by weight 0-1.0 % hafnium; by weight 0-0.50% tungsten; by weight 0-0.25% chromium and/or manganese; by weight 0-0.20% yttrium; by weight 0-0.20% zinc; by weight 0-0.20% copper; by weight 0-0.20% nickel; by weight 0-0.20% cobalt; by weight 0-0.20% cerium; by weight 0-0.10% Si; by weight no more than 1.0% of total amount of any single element other than titanium, aluminum, zirconium, vanadium, molybdenum, iron, oxygen, nitrogen, carbon, hydrogen, palladium, and/or ruthenium, and the balance to 100% of the total by weight being titanium, wherein the titanium alloy has a molybdenum equivalency in a range of 5.0 to 5.9, wherein the molybdenum equivalency = molybdenum weight % in the alloy + (0.67)(vanadium weight % in the alloy) + (2.5)(iron weight % in the alloy); the titanium alloy has an aluminum equivalency in a range of 6.5 to 7.5, wherein the aluminum equivalency = aluminum weight % in the alloy + (0.33)(tin weight % in the alloy) + (0.17)(zirconium weight % in the alloy) + (10.0)(oxygen weight % in the alloy).
A method for wireless communications by a base station, BS, comprising: randomly selecting at least one parameter used to determine a set of time-frequency resources for transmitting positioning reference signals, PRS; determining the set of time-frequency resources based at least on the at least one parameter; and transmitting PRS on the determined set of time-frequency resources, wherein the at least one parameter is randomly selected using a value generated by a random number generator initialized with a seed value, further comprising providing the seed value to a user equipment, UE, prior to transmitting the PRS. randomly selecting at least one parameter used to determine a set of time-frequency resources for transmitting positioning reference signals, PRS; determining the set of time-frequency resources based at least on the at least one parameter; and transmitting PRS on the determined set of time-frequency resources, wherein the at least one parameter is randomly selected using a value generated by a random number generator initialized with a seed value, further comprising providing the seed value to a user equipment, UE, prior to transmitting the PRS.
Method for conditioning a radio data signal for a broadcast radio receiver, wherein the method has the following steps: reading in the radio data signal and a radio data clock signal; integrating a signal that is dependent on the radio data signal in order to determine an integral value characteristic; decoding radio data signal information from the integral value characteristic by using the radio data clock signal; ascertaining radio data signal quality information, representing a radio data signal quality, by using the radio data signal, wherein the radio data signal quality information represents a creditability of the decoded radio data signal information; and providing the radio data signal information and the radio data signal quality information in order to provide a conditioned radio data signal, characterized in that the integrating step involves the integral value being determined by using a multiplication of the radio data signal by a sine wave of the radio data signal, and the integral value being determined over the duration of one period of the radio data clock signal and, after one period of the radio data clock signal, being set to zero. reading in the radio data signal and a radio data clock signal; integrating a signal that is dependent on the radio data signal in order to determine an integral value characteristic; decoding radio data signal information from the integral value characteristic by using the radio data clock signal; ascertaining radio data signal quality information, representing a radio data signal quality, by using the radio data signal, wherein the radio data signal quality information represents a creditability of the decoded radio data signal information; and providing the radio data signal information and the radio data signal quality information in order to provide a conditioned radio data signal, characterized in that the integrating step involves the integral value being determined by using a multiplication of the radio data signal by a sine wave of the radio data signal, and the integral value being determined over the duration of one period of the radio data clock signal and, after one period of the radio data clock signal, being set to zero.
A referenced full-bridge magnetic field sensor chip comprising: two reference arms (122, 123) and two sensing arms (124, 125) that are spatially interleaved and electrically interconnected to form a Wheatstone bridge, wherein each reference arm (122, 123) includes a string of MTJ or GMR magnetoresistive reference elements, and each sensing arm (124, 125) includes a string of MTJ or GMR magnetoresistive sensing elements, and a set of bond pads arranged to electrically connect said referenced full-bridge sensor chip to an ASIC or to the lead frame of a semiconductor package, characterized by: a relative resistance of the sensing (124, 125) and reference arms (122, 123) being adjustable by varying the number of the MTJ or GMR magnetoresistive sensing elements, wherein each string of magnetoresitive elements is situated between permanent magnets that are tilted at different angles in the reference and sensor arm areas of the bridge so that said sensing elements utilize the portion of a transfer curve that is linearly dependent on an applied magnetic field, and said reference arm sensitivity is less than said sensor arm sensitivity. two reference arms (122, 123) and two sensing arms (124, 125) that are spatially interleaved and electrically interconnected to form a Wheatstone bridge, wherein each reference arm (122, 123) includes a string of MTJ or GMR magnetoresistive reference elements, and each sensing arm (124, 125) includes a string of MTJ or GMR magnetoresistive sensing elements, and a set of bond pads arranged to electrically connect said referenced full-bridge sensor chip to an ASIC or to the lead frame of a semiconductor package, characterized by: a relative resistance of the sensing (124, 125) and reference arms (122, 123) being adjustable by varying the number of the MTJ or GMR magnetoresistive sensing elements, wherein each string of magnetoresitive elements is situated between permanent magnets that are tilted at different angles in the reference and sensor arm areas of the bridge so that said sensing elements utilize the portion of a transfer curve that is linearly dependent on an applied magnetic field, and said reference arm sensitivity is less than said sensor arm sensitivity.
A method for configuring, by a user equipment, UE, multimedia broadcast multicast service, MBMS, minimization of drive test, MDT, in a wireless communication system, the method comprising: receiving a representative multicast control channel, MCCH, indicator, which indicates a first MCCH among multiple MCCHs, from a network via a system information block type 13; receiving a MBMS-MDT configuration by reading the first MCCH based on the representative MCCH indicator; performing MBMS-MDT based on the received MBMS-MDT configuration, upon receiving an interested MBMS service from a multicast broadcast single frequency network, MBSFN, area corresponding to a second MCCH among the multiple MCCHs; receiving a MBMS-MDT configuration change notification, which indicates the MBMS-MDT configuration is changed; receiving a new MBMS-MDT configuration by reading the first MCCH; and performing MBMS-MDT reconfiguration according to the new MBMS-MDT configuration. receiving a representative multicast control channel, MCCH, indicator, which indicates a first MCCH among multiple MCCHs, from a network via a system information block type 13; receiving a MBMS-MDT configuration by reading the first MCCH based on the representative MCCH indicator; performing MBMS-MDT based on the received MBMS-MDT configuration, upon receiving an interested MBMS service from a multicast broadcast single frequency network, MBSFN, area corresponding to a second MCCH among the multiple MCCHs; receiving a MBMS-MDT configuration change notification, which indicates the MBMS-MDT configuration is changed; receiving a new MBMS-MDT configuration by reading the first MCCH; and performing MBMS-MDT reconfiguration according to the new MBMS-MDT configuration.
A hot-stamping formed body comprising, as a chemical composition, by mass%: C: 0.15% to 1.00%; Si: 0.50% to 3.00%; Mn: more than 3.00% and 5.00% or less; Al: 0.100% to 3.000%; Co: 0.100% to 3.000%; P: 0.100% or less; S: 0.1000% or less; N: 0.0100% or less; Nb: 0% to 0.15%; Ti: 0% to 0.150%; Mo: 0% to 1.00%; Cr: 0% to 1.00%; Cu: 0% to 1.00%; V: 0% to 1.00%; W: 0% to 1.00%; Ni: 0% to 3.00%; Mg: 0% to 1.00%; Zr: 0% to 1.00%; Sb: 0% to 1.00%; Ca: 0% to 0.10%; REM: 0% to 0.30%; B: 0% to 0.0100%; and a remainder consisting of Fe and impurities; and a microstructure which includes residual austenite of which an area ratio is 10% or more and less than 20%, fresh martensite of which an area ratio is 5% to 15%, bainite and tempered martensite of which a total area ratio is 65% to 85%, and a remainder in microstructure of which an area ratio is less than 5%, measured with the method as in the description, among grain boundaries of crystal grains of the bainite and the tempered martensite, a ratio of a length of a grain boundary having a rotation angle in a range of 55° to 75° to a total length of a grain boundary having a rotation angle in a range of 4° to 12°, a grain boundary having a rotation angle in a range of 49° to 54°, and the grain boundary having a rotation angle in a range of 55° to 75°to the <011> direction as a rotation axis is 30% or more, measured with the method as in the description. C: 0.15% to 1.00%; Si: 0.50% to 3.00%; Mn: more than 3.00% and 5.00% or less; Al: 0.100% to 3.000%; Co: 0.100% to 3.000%; P: 0.100% or less; S: 0.1000% or less; N: 0.0100% or less; Nb: 0% to 0.15%; Ti: 0% to 0.150%; Mo: 0% to 1.00%; Cr: 0% to 1.00%; Cu: 0% to 1.00%; V: 0% to 1.00%; W: 0% to 1.00%; Ni: 0% to 3.00%; Mg: 0% to 1.00%; Zr: 0% to 1.00%; Sb: 0% to 1.00%; Ca: 0% to 0.10%; REM: 0% to 0.30%; B: 0% to 0.0100%; and a remainder consisting of Fe and impurities; and a microstructure which includes residual austenite of which an area ratio is 10% or more and less than 20%, fresh martensite of which an area ratio is 5% to 15%, bainite and tempered martensite of which a total area ratio is 65% to 85%, and a remainder in microstructure of which an area ratio is less than 5%, measured with the method as in the description, among grain boundaries of crystal grains of the bainite and the tempered martensite, a ratio of a length of a grain boundary having a rotation angle in a range of 55° to 75° to a total length of a grain boundary having a rotation angle in a range of 4° to 12°, a grain boundary having a rotation angle in a range of 49° to 54°, and the grain boundary having a rotation angle in a range of 55° to 75°to the <011> direction as a rotation axis is 30% or more, measured with the method as in the description.
A multi-stage stop device for a robotic arm, the device comprising: a frame member configured to mount to one of a first link and a base of a robotic arm, wherein the first link and the base are connected by a rotational joint such that the first link rotates relative to the base, the frame member comprising a first sidewall defining a first opening therethrough; a compressible member positioned within the frame member; and a first pin comprising a first shaft extending from a first head to a first distal end, wherein the first shaft is slidably received within the first opening of the first sidewall and the first head is positioned between the first sidewall and the compressible member, wherein the frame member further comprises a second sidewall defining a second opening therethrough; and the device further comprises a second pin comprising a second shaft extending from a second head to a second distal end, wherein the second shaft is slidably received within the second opening of the second sidewall, characterized in that the second head is positioned between the second sidewall and the compressible member. a frame member configured to mount to one of a first link and a base of a robotic arm, wherein the first link and the base are connected by a rotational joint such that the first link rotates relative to the base, the frame member comprising a first sidewall defining a first opening therethrough; a compressible member positioned within the frame member; and a first pin comprising a first shaft extending from a first head to a first distal end, wherein the first shaft is slidably received within the first opening of the first sidewall and the first head is positioned between the first sidewall and the compressible member, wherein the frame member further comprises a second sidewall defining a second opening therethrough; and the device further comprises a second pin comprising a second shaft extending from a second head to a second distal end, wherein the second shaft is slidably received within the second opening of the second sidewall, characterized in that the second head is positioned between the second sidewall and the compressible member.
A system comprising an implement attachment means adapted to be fitted to a working machine, and further comprising at least one working implement, wherein the implement attachment means includes first locking means and first drive coupling means, wherein the implement includes second locking means and second drive coupling means and wherein the first and second locking means are adapted for mutual co-action in releasably locking the implement to the implement attachment means and the first and second drive coupling means are adapted for mutual co-action in releasably connecting said drive coupling means one to the other, which system further comprises sensor means (115, 202, 210, 217) and detection means (109, 110, 116, 117) adapted for the transfer of information from the sensor means to the detection means, wherein the sensor means (115, 202, 210, 217) include at least one sensor unit mounted on either the implement attachment means or the working implement, and wherein the detection means (109, 110, 116, 117) include at least one detection unit mounted on the other of said implement attachment means or working implement, whereby at least one sensor unit and at least one detection unit is adapted to send information to the effect that the first and the second locking means are in locking engagement with one another, characterised in that at least one sensor unit on the implement and at least one detection unit on the implement attachment means is adapted to send implement identifying information.