mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a backscatter device comprising: an antenna configured to backscatter a protocol specific carrier signal having a first frequency; baseband circuitry configured to provide data for transmission; a waveform generator configured to provide a square wave having a second frequency, wherein the second frequency is a difference between the first frequency and a third frequency; a sub-carrier phase modulator coupled to the baseband circuitry and the waveform generator, the sub-carrier phase modulator configured to shift the square wave in accordance with the data to provide an output signal; and a switch coupled to the antenna, the switch configured to control the antenna to backscatter the carrier signal in accordance with the output signal such that the first frequency is mixed with the second frequency to transmit the data in a backscatter signal at the third frequency, wherein the backscatter signal is arranged in accordance with a wireless communication protocol implementing phase-shift keying; a helper device configured to transmit a carrier signal including the first frequency, wherein the first frequency is in an adjacent band of an 802.11 protocol band; and a receiver configured to receive the backscatter signal at the third frequency, wherein the helper device and the receiver are separate electronic devices, wherein the receiver is configured to receive signals in accordance with 802.11 protocols, and wherein the receiver is further configured to be tuned to a center frequency that is different from a center frequency of the helper device. an antenna configured to backscatter a protocol specific carrier signal having a first frequency; baseband circuitry configured to provide data for transmission; a waveform generator configured to provide a square wave having a second frequency, wherein the second frequency is a difference between the first frequency and a third frequency; a sub-carrier phase modulator coupled to the baseband circuitry and the waveform generator, the sub-carrier phase modulator configured to shift the square wave in accordance with the data to provide an output signal; and a switch coupled to the antenna, the switch configured to control the antenna to backscatter the carrier signal in accordance with the output signal such that the first frequency is mixed with the second frequency to transmit the data in a backscatter signal at the third frequency, wherein the backscatter signal is arranged in accordance with a wireless communication protocol implementing phase-shift keying; a helper device configured to transmit a carrier signal including the first frequency, wherein the first frequency is in an adjacent band of an 802.11 protocol band; and a receiver configured to receive the backscatter signal at the third frequency, wherein the helper device and the receiver are separate electronic devices, wherein the receiver is configured to receive signals in accordance with 802.11 protocols, and wherein the receiver is further configured to be tuned to a center frequency that is different from a center frequency of the helper device.
A composition comprising an oxime or pharmaceutically acceptable salt thereof for use as a medicament for inducing neuromuscular blockade in surgical anesthesia, wherein said oxime is selected from one or more of: (methoxime or "MMB4"); (trimedoxime or "TMB-4" or 1,3-bis(5-hydroxyiminomethylpyridinium)-propane bromide)); (pralidoxime or "2-PAM" or 2-hydroxyiminomethyl-1-methylpyridinium chloride); (obidoxime or [1,3-bis(4-hydroxyimino-methylpyridinium)-2-oxapropane); ("HI-6" or [1-(2-hydroxyiminomethylpyridinium)-3-(4-carbamoylpryidinium)-2-oxapropane chloride], ("HLo-7" or (1-[2,4-bis(hydroxyiminomethylpyridinium)]-3-(4-carbamoylpyridinium)-2-oxapropane chloride); ("K027" or [1-(4-hydroxyiminomethylpyridinium)-3(4-carbamoylpyridinium)-propane bromide]; and pharmaceutically acceptable salts thereof.
A composition comprising a variant lactonase enzyme comprising an amino acid substitution as compared to SEQ ID NO:1, wherein said amino acid substitution is selected from L17V, F32L, D34A, D34E, D34G, D34K, D34Q, D34S, G35S, V41F, A50P, T62A, D66E, L68V, A69C, A69I, A69K, A69Q, A69T, A69V, Q70S, Q70Y, V76K, V76N, V76R, V76S, I77V, G79A, E80G, L81P, V83I, I84V, Q114H, G120H, G120P, G120S, V122I, Q123K, G127A, A132E, L136V, H139K, H139T, A155D, S162C, S162N, R164K, A184N, A185E, S188D, S188N, S188R, G189R, R192M, I193V, E195A, E218A, E218M, E218N, E218T, Q221H, A222T, E244H, E244K, E244R, and E244S; wherein said variant lactonase enzyme is at least 95% identical to SEQ ID NO:1; and wherein said variant lactonase enzyme has at least 1.1 fold better thermostability as compared to SEQ ID NO:1 under a condition selected from the group consisting of thermostability at 55°C, thermostability at 55.5 °C, and thermostability at 58°C.
A sheet manufacturing method comprising: a mixing step of mixing fiber and resin powder in air, wherein the resin powder contains a BPA-free polyester resin; and a sheet forming step of forming a sheet by laying and heating the mixture mixed in the mixing step; the grindability index of the resin contained in the resin powder being 0.8 or less, wherein the grindability index is measured as described in paragraph of the foregoing description. a mixing step of mixing fiber and resin powder in air, wherein the resin powder contains a BPA-free polyester resin; and a sheet forming step of forming a sheet by laying and heating the mixture mixed in the mixing step; the grindability index of the resin contained in the resin powder being 0.8 or less, wherein the grindability index is measured as described in paragraph of the foregoing description.
Use of at least one solvent selected from the group consisting of N-methylformamide, N,N-dimethylpropionamide, N,N-dimethylisobutylamide, and tetramethylurea to improve the light transmittance of a polyimide film, wherein the polyimide film is produced by applying a polyamic acid solution composition which comprises a polyamic acid and said solvent to a substrate; and then imidizing the polyamic acid by subjecting the composition to heat treatment under the conditions that the highest heating temperature is 200°C or higher.
Method of capturing and evaluating sensor data while riding an at least partially muscle-powered bicycle on a path and in particular a road, with at least two sensors , wherein the following steps are carried out: - capturing an air pressure signal on the bicycle for the ambient pressure by means of at least one barometric pressure sensor during the ride; - capturing a stagnation pressure value by means of at least one stagnation pressure sensor system on the bicycle during the ride; characterized by the step: - deriving a corrected ambient pressure value , taking into account the stagnation pressure value . - capturing an air pressure signal on the bicycle for the ambient pressure by means of at least one barometric pressure sensor during the ride; - capturing a stagnation pressure value by means of at least one stagnation pressure sensor system on the bicycle during the ride; - deriving a corrected ambient pressure value , taking into account the stagnation pressure value .
A composition comprising at least the following: A) an olefin multi-block copolymer; B) a silicone rubber; C) a tackifier; wherein the olefin multi-block copolymer of component A is present in an amount ≥ 50 wt%, based on the weight of the composition. A) an olefin multi-block copolymer; B) a silicone rubber; C) a tackifier;
A communication device scheduling method, suitable for a scheduling server for managing a plurality of communication devices (11, 12, ..., 1N, 31, 32, ..., 3M), the method comprising: assigning a first transmission time (T1), a second transmission time (T2), and a first scheduling channel (F1) to a first communication device among the communication devices (11, 12, ..., 1N, 31, 32, ..., 3M) and controlling the first communication device to respectively transmit first data (D 1) and second data (D2) at the first transmission time (T1) and the second transmission time (T2) by using the first scheduling channel (F1), wherein the second transmission time (T2) occurs after the first transmission time (T1); in response to receiving the first data (D1) at a first receiving time, calculating a first time offset according to the first receiving time, comprising: estimating a specific estimation time corresponding to the first transmission time (T1), and calculating the first time offset by subtracting the specific estimation time from the first receiving time, wherein the specific estimation time is a time when the scheduling server estimates to receive the first data (D1); and adjusting the second transmission time (T2) based on the first time offset and controlling the first communication device to transmit the second data (D2) by using the first scheduling channel (F 1) at the adjusted second transmission time (T2'), wherein the adjusted second transmission time T2' is obtained by subtracting the first time offset from the second transmission time (T2). assigning a first transmission time (T1), a second transmission time (T2), and a first scheduling channel (F1) to a first communication device among the communication devices (11, 12, ..., 1N, 31, 32, ..., 3M) and controlling the first communication device to respectively transmit first data (D 1) and second data (D2) at the first transmission time (T1) and the second transmission time (T2) by using the first scheduling channel (F1), wherein the second transmission time (T2) occurs after the first transmission time (T1); in response to receiving the first data (D1) at a first receiving time, calculating a first time offset according to the first receiving time, comprising: estimating a specific estimation time corresponding to the first transmission time (T1), and calculating the first time offset by subtracting the specific estimation time from the first receiving time, wherein the specific estimation time is a time when the scheduling server estimates to receive the first data (D1); and adjusting the second transmission time (T2) based on the first time offset and controlling the first communication device to transmit the second data (D2) by using the first scheduling channel (F 1) at the adjusted second transmission time (T2'), wherein the adjusted second transmission time T2' is obtained by subtracting the first time offset from the second transmission time (T2).
A fluid connector assembly comprising: a connector body having a female end portion and a male end portion , said male end portion having an outer diameter that is smaller than an outer diameter of said female end portion ; said female end portion including an internal bore having threaded surfaces extending through said female end portion from an annular opening to an inner seat , said inner seat having a portion defining a concave frustoconical surface; said male end portion including an internal bore axially aligned with said female internal bore and extending from a first opening from a head end of said male end portion to a second opening at the female end portion inner seat ; and an elongated tube having a concave flared end , said elongated tube extending through said male internal bore from said first opening with said flared end resting on said inner seat ; characterized in that said internal bore of said female end portion has a larger internal diameter than the internal bore of said male end portion . a connector body having a female end portion and a male end portion , said male end portion having an outer diameter that is smaller than an outer diameter of said female end portion ; said female end portion including an internal bore having threaded surfaces extending through said female end portion from an annular opening to an inner seat , said inner seat having a portion defining a concave frustoconical surface; said male end portion including an internal bore axially aligned with said female internal bore and extending from a first opening from a head end of said male end portion to a second opening at the female end portion inner seat ; and an elongated tube having a concave flared end , said elongated tube extending through said male internal bore from said first opening with said flared end resting on said inner seat ; characterized in that said internal bore of said female end portion has a larger internal diameter than the internal bore of said male end portion .
An antigen recognizing construct which specifically and/or selectively binds to a MAGEA1 antigenic peptide of SEQ ID NO: 133 when said antigen is presented by HLA, wherein said antigen recognizing construct comprises the complementary determining regions (CDRs) CDR1, CDR2 and CDR3 sequences having the amino acid sequence of SEQ ID NO: 49, SEQ ID NO: 50 and SEQ ID NO: 51, respectively, and the CDR1, CDR2 and CDR3 sequences having the amino acid sequence of SEQ ID NO: 55, SEQ ID NO: 56 and SEQ ID NO: 57, respectively, wherein said antigen recognizing construct comprises the respective CDR amino acid sequences with not more than one modified amino acid, wherein said modified amino acid is preferably the first or last amino acid of the respective CDR and the modification is a conservative substitution, and wherein said antigen recognizing construct does not selectively bind any of the peptides of SEQ ID NO: 143 to 152.
Apparatus for treating a patent foramen ovale, the apparatus comprising: an elongate catheter body having a proximal end and a distal end; and at least one energy transmission member located adjacent the distal portion of the catheter body for transmitting energy to contact tissue of the patent foramen ovale to close the patent foramen ovale, wherein the at least one energy transmission member comprises one or more needles configured to be inserted across or through tissue adjacent the patent foramen ovale, wherein the one or more needles are configured to draw the tissue of the patent foramen ovale together, the apparatus characterised in that the one or more needles are serrated. an elongate catheter body having a proximal end and a distal end; and at least one energy transmission member located adjacent the distal portion of the catheter body for transmitting energy to contact tissue of the patent foramen ovale to close the patent foramen ovale, wherein the at least one energy transmission member comprises one or more needles configured to be inserted across or through tissue adjacent the patent foramen ovale, wherein the one or more needles are configured to draw the tissue of the patent foramen ovale together, the apparatus characterised in that the one or more needles are serrated.
A molded product manufacturing system comprising: a molding machine , an apparatus for taking out a molded product, and one or more peripheral devices arranged around the apparatus for taking out a molded product to operate together during operation of the apparatus , the apparatus including a control device and a communication device operable to transmit internal data to an external server via the control device and a communication network , and the control device having a function of receiving molding machine temperature information transmitted from the molding machine , characterized in that : the communication device has a function of transmitting the molding machine temperature information to the external server before control operation is started, when the control device receives the molding machine temperature information from the molding machine before starting the control operation. a molding machine , an apparatus for taking out a molded product, and one or more peripheral devices arranged around the apparatus for taking out a molded product to operate together during operation of the apparatus , the apparatus including a control device and a communication device operable to transmit internal data to an external server via the control device and a communication network , and the control device having a function of receiving molding machine temperature information transmitted from the molding machine , characterized in that : the communication device has a function of transmitting the molding machine temperature information to the external server before control operation is started, when the control device receives the molding machine temperature information from the molding machine before starting the control operation.
A pieces separator configured to receive and separate pieces at the output of a machine tool, comprising: - a belt conveyor , on which the pieces are received at the outlet of the machine tool, - at least two locations for receptacles in which the received pieces are intended to be distributed, characterised in that it comprises at least one ejector , comprising: * at least one bracket with two side walls substantially longitudinal and perpendicular to the belt conveyor , * actuators , configured to translate the bracket transversely between a central rest position, in which the lateral walls of the bracket are located on either side of the belt of the conveyor , and two ejection positions, in which the bracket is located laterally out of plumb of the belt of the conveyor , so as to drive by means of its lateral walls a piece during its translation between the rest position and an ejection position, and to eject the piece on the side of the belt of the conveyor , the pieces ejected from one side of the belt of the conveyor being able to be collected in one of the receptacles , the pieces ejected from the other side of the conveyor belt being able to be collected in the other receptacle . - a belt conveyor , on which the pieces are received at the outlet of the machine tool, - at least two locations for receptacles in which the received pieces are intended to be distributed, characterised in that it comprises at least one ejector , comprising: * at least one bracket with two side walls substantially longitudinal and perpendicular to the belt conveyor , * actuators , configured to translate the bracket transversely between a central rest position, in which the lateral walls of the bracket are located on either side of the belt of the conveyor , and two ejection positions, in which the bracket is located laterally out of plumb of the belt of the conveyor , so as to drive by means of its lateral walls a piece during its translation between the rest position and an ejection position, and to eject the piece on the side of the belt of the conveyor , the pieces ejected from one side of the belt of the conveyor being able to be collected in one of the receptacles , * at least one bracket with two side walls substantially longitudinal and perpendicular to the belt conveyor , * actuators , configured to translate the bracket transversely between a central rest position, in which the lateral walls of the bracket are located on either side of the belt of the conveyor , and two ejection positions, in which the bracket is located laterally out of plumb of the belt of the conveyor , so as to drive by means of its lateral walls a piece during its translation between the rest position and an ejection position, and to eject the piece on the side of the belt of the conveyor , the pieces ejected from one side of the belt of the conveyor being able to be collected in one of the receptacles , the pieces ejected from the other side of the conveyor belt being able to be collected in the other receptacle .
A harvesting header for use with a crop-harvesting machine, the harvesting header comprising: a header frame structured to be coupled to a front of the crop-harvesting machine; at least one harvesting tool carried by the header frame and configured to cut crop material; a rotatable arm coupled to the header frame at a pivot point and extending forward of the at least one harvesting tool when the harvesting header is used to cut crop material; a wheel coupled to the rotatable arm and configured to roll along a soil surface leading the at least one harvesting tool when the harvesting header is used to cut crop material in an agricultural field; and a sensor coupled to the header frame at the pivot point , characterized in that the sensor is configured to provide a signal to the crop-harvesting machine, the signal correlated to the angle of the rotatable arm with respect to the header frame . a header frame structured to be coupled to a front of the crop-harvesting machine; at least one harvesting tool carried by the header frame and configured to cut crop material; a rotatable arm coupled to the header frame at a pivot point and extending forward of the at least one harvesting tool when the harvesting header is used to cut crop material; a wheel coupled to the rotatable arm and configured to roll along a soil surface leading the at least one harvesting tool when the harvesting header is used to cut crop material in an agricultural field; and a sensor coupled to the header frame at the pivot point , characterized in that the sensor is configured to provide a signal to the crop-harvesting machine, the signal correlated to the angle of the rotatable arm with respect to the header frame .
Tile module (2, 2.1, 2.2, 2.3, 2.4), wherein the tile module (2, 2.1, 2.2, 2.3, 2.4) is frameless, wherein the tile module (2, 2.1, 2.2, 2.3, 2.4) comprises: - a top glass layer , - a bottom glass layer , and - a retention system (6, 6.1, 6.2, 6.3, 6.4, 7.1, 7.2) for attaching the tile module (2, 2.1, 2.2, 2.3, 2.4) to a carrying structure, characterized in that the retention system (6, 6.1, 6.2, 6.3, 6.4, 7.1, 7.2) is configured to exercise a force onto the bottom glass layer once the tile module (2, 2.1, 2.2, 2.3, 2.4) is attached to the carrying structure (10.1, 10.2), such that a lamination bow in the tile module (2, 2.1, 2.2, 2.3, 2.4) is essentially suppressed, wherein the retention system (6, 6.1, 6.2, 6.3, 6.4, 7.1, 7.2) comprises a hook (7.1, 7.2). - a top glass layer , - a bottom glass layer , and - a retention system (6, 6.1, 6.2, 6.3, 6.4, 7.1, 7.2) for attaching the tile module (2, 2.1, 2.2, 2.3, 2.4) to a carrying structure,
A geopolymer cement comprising a metakaolin, a non-thermally activated aluminosilicate, and an alkaline silicate solution having a molar ratio M 2 O:SiO 2 comprised in the range from 0.51 to 0.60, preferably from 0.51 to 0.57 and more preferably from 0.53 to 0.57, M representing Na or K; the metakaolin:aluminosilicate weight ratio being comprised in the range from 40:60 to 80:20, preferably in the range from 50:50 to 80:20.
Method for detection of a blocked valve of a coolant compressor having a drive unit and a piston/cylinder unit for cyclical compression of a coolant, wherein the drive unit has an electric motor for drive of the piston/cylinder unit, wherein the speed of rotation ( ω ) of the electric motor is monitored, characterized in that first, a maximal speed of rotation ( ω max ) of the electric motor is detected and that the following steps are carried out, as long as the speed of rotation ( ω ) of the electric motor essentially corresponds to the maximal speed of rotation ( ω max ) : - determination of a maximal value X max of a monitoring parameter (I, T) of the coolant compressor ; - determination of a value X t1 of the monitoring parameter (I, T) after a first time span (t1) after the determination of the maximal value X max ; - detection of a blocked valve, if X t1 is less than X max and (X max - X t1 ) / X max ≥ Δ X holds true, wherein Δ X is predetermined. - determination of a maximal value X max of a monitoring parameter (I, T) of the coolant compressor ; - determination of a value X t1 of the monitoring parameter (I, T) after a first time span (t1) after the determination of the maximal value X max ; - detection of a blocked valve, if X t1 is less than X max and (X max - X t1 ) / X max ≥ Δ X holds true, wherein Δ X is predetermined.