mhurhangee/patent-ind-claim-en huggingface dataset:
A sensor node , comprising: an acceleration sensor configured for measuring a vibration characteristic of a monitoring target; a memory configured for storing data measured by the acceleration sensor ; a sensor node radio communicator configured for communicating with a command center ; and a sensor node controller configured for controlling the acceleration sensor, the memory, and the sensor node radio communicator, wherein the sensor node controller is configured for sending a detection signal indicating a detection of an abnormal vibration via the sensor node radio communicator to the command center immediately after the acceleration sensor detects the abnormal vibration, after sending the detection signal, causing the acceleration sensor to newly measure the vibration characteristic of the monitoring target and for storing the measured acceleration data as stored data in the memory, and in response to a stored data transfer request from the command center , transferring the stored data via the sensor node radio communicator to the command center. an acceleration sensor configured for measuring a vibration characteristic of a monitoring target; a memory configured for storing data measured by the acceleration sensor ; a sensor node radio communicator configured for communicating with a command center ; and a sensor node controller configured for controlling the acceleration sensor, the memory, and the sensor node radio communicator, wherein the sensor node controller is configured for sending a detection signal indicating a detection of an abnormal vibration via the sensor node radio communicator to the command center immediately after the acceleration sensor detects the abnormal vibration, after sending the detection signal, causing the acceleration sensor to newly measure the vibration characteristic of the monitoring target and for storing the measured acceleration data as stored data in the memory, and in response to a stored data transfer request from the command center , transferring the stored data via the sensor node radio communicator to the command center. sending a detection signal indicating a detection of an abnormal vibration via the sensor node radio communicator to the command center immediately after the acceleration sensor detects the abnormal vibration, after sending the detection signal, causing the acceleration sensor to newly measure the vibration characteristic of the monitoring target and for storing the measured acceleration data as stored data in the memory, and in response to a stored data transfer request from the command center , transferring the stored data via the sensor node radio communicator to the command center.
A transmit end device , wherein the transmit end device comprises: a generation module , configured to generate precoding configuration information, wherein the precoding configuration information is used to configure a width of a frequency band for same precoding; and a sending module , configured to send the precoding configuration information, characterized in that the precoding configuration information comprises a width update parameter, wherein the width update parameter is used to update a current width of the frequency band for same precoding, wherein update content is expressed in a form of a calculation formula as defined in the following table, wherein the width update parameter is represented as CASE, a current width of the frequency band for same precoding is represented as P, an updated width of the frequency band is represented as P*, and a frequency bandwidth of a system bandwidth is expressed in a quantity N RB DL of physical resource blocks, PRBs, the updated width that is corresponding to the system bandwidth and that is of the frequency band for same precoding is determined based on a value of the width update parameter CASE: P* (PRBs) System bandwidth N RB DL CASE = 0 CASE = 1 ≤10 P* =P + 1 P* = P - 1 11-26 P* = P + 2 P* = P 27-63 P* = P × 2 P* = P/2 64-110 P* = P P* = P a generation module , configured to generate precoding configuration information, wherein the precoding configuration information is used to configure a width of a frequency band for same precoding; and a sending module , configured to send the precoding configuration information, characterized in that the precoding configuration information comprises a width update parameter, wherein the width update parameter is used to update a current width of the frequency band for same precoding, wherein update content is expressed in a form of a calculation formula as defined in the following table, wherein the width update parameter is represented as CASE, a current width of the frequency band for same precoding is represented as P, an updated width of the frequency band is represented as P*, and a frequency bandwidth of a system bandwidth is expressed in a quantity N RB DL of physical resource blocks, PRBs, the updated width that is corresponding to the system bandwidth and that is of the frequency band for same precoding is determined based on a value of the width update parameter CASE: P* (PRBs) System bandwidth N RB DL CASE = 0 CASE = 1 ≤10 P* =P + 1 P* = P - 1 11-26 P* = P + 2 P* = P 27-63 P* = P × 2 P* = P/2 64-110 P* = P P* = P
A method for controlling downlink power, comprising: according to a current downlink load condition of a cell, adopting a corresponding power control manner to control transmitting power of a Downlink Dedicated Physical Channel, DL_DPCH, of a base station (S103), wherein the power control manner comprises setting a time interval during which received Transmitting Power Control, TPC, commands are merged into one final TPC command which takes effect at the end of the interval, further comprising: setting in advance a corresponding relationship between a proportion of a carrier transmitting power of the at least one non-High speed channel of the cell to a maximum transmitting power of the cell and the power control manner; determining the corresponding power control manner according to a proportion of a current carrier transmitting power of the at least one non-High speed channel of the cell to the maximum transmitting power of the cell, to control the transmitting power of the DL_DPCH of the base station, wherein the corresponding power control manner comprises: setting the time interval, wherein the time interval increases with the proportion of the carrier transmitting power of the at least one non-High speed channel of the cell to the maximum transmitting power of the cell, and the time interval is adapted to comprise an odd number of time slots; and taking as the one final TPC command which takes effect at the end of the interval a most repeated TPC bit from the received TPC commands in the time interval. setting in advance a corresponding relationship between a proportion of a carrier transmitting power of the at least one non-High speed channel of the cell to a maximum transmitting power of the cell and the power control manner; determining the corresponding power control manner according to a proportion of a current carrier transmitting power of the at least one non-High speed channel of the cell to the maximum transmitting power of the cell, to control the transmitting power of the DL_DPCH of the base station, wherein the corresponding power control manner comprises: setting the time interval, wherein the time interval increases with the proportion of the carrier transmitting power of the at least one non-High speed channel of the cell to the maximum transmitting power of the cell, and the time interval is adapted to comprise an odd number of time slots; and taking as the one final TPC command which takes effect at the end of the interval a most repeated TPC bit from the received TPC commands in the time interval.
A flexible dressing for wound care management comprising: a three-dimensional compressible body of loose glass-based fibers comprising from 40 to 80 wt.% B 2 O 3 ; wherein at least 25 wt. % of the fibers have a diameter between 200 nm and 4000 nm, and a length:diameter aspect ratio of at least 10. a three-dimensional compressible body of loose glass-based fibers comprising from 40 to 80 wt.% B 2 O 3 ; wherein at least 25 wt. % of the fibers have a diameter between 200 nm and 4000 nm, and a length:diameter aspect ratio of at least 10.
A vaporizer, comprising: a sleeve having a cavity for receiving vaporizable materials; and a heating element , manufactured by metal materials; the heating element comprises a plurality of through holes , configured for adjusting resistance of the heating element such that the heating element generates heat evenly; the heating element comprises at least one heating area extending along an axial direction of the heating element , and each heating area comprises an electrode connecting part ; the heating area comprises a plurality sets of through holes , each set comprises a plurality of through holes arrayed along an axial direction of the heating element ; characterized in that , the heating element sleeves outside the sleeve for heating the sleeve ; the sleeve is made by metal materials; when the heating element heats the sleeve , the sleeve allows for an even heat conduction from the heating element to the cavity. a sleeve having a cavity for receiving vaporizable materials; and a heating element , manufactured by metal materials; the heating element comprises a plurality of through holes , configured for adjusting resistance of the heating element such that the heating element generates heat evenly; the heating element comprises at least one heating area extending along an axial direction of the heating element , and each heating area comprises an electrode connecting part ; the heating area comprises a plurality sets of through holes , each set comprises a plurality of through holes arrayed along an axial direction of the heating element ; characterized in that , the heating element sleeves outside the sleeve for heating the sleeve ; the sleeve is made by metal materials; when the heating element heats the sleeve , the sleeve allows for an even heat conduction from the heating element to the cavity.
A method for producing a transparent outsole by injection moulding or casting, wherein plastics material is introduced into a cavity defined by at least one first tool part , such as a top punch or displacer, and a second tool part , such as a bottom or lower punch, wherein the first tool part has, in its face which defines the cavity , suction openings which are connectable to at least one negative-pressure source, in that a flat material offering individualisation or personalisation is placed only on the face or a sub-region of the face and is fixed in place via suction openings supplied with negative pressure and in that the outsole is then produced in an injection moulding or casting tool comprising the first and second tool parts , wherein the flat material is applied to the face of the produced outsole which is remote from the outer face of the outsole.
A wireless communication device configured to operate in a IEEE 802.11 system, comprising: a transmission control unit configured to transmit to a second wireless communication device , by using any band of two or more bands, a setup signal containing setting information and to transmit to the second wireless communication device a data signal containing data by using each of the two or more bands, wherein the setting information regards a notification method to be used by the second wireless communication device; the notification method relates to a reception result that is transmitted by the second wireless communication device in response to the second wireless communication device receiving the data signal on the two or more bands; the data signal is transmitted containing a second communication information regarding communication of the data signal using the two or more bands and regarding notification of the reception result; the setting information is first communication information regarding communication and retransmission between the wireless communication device and the second wireless communication device; and the first communication information is contained in at least either one of a field of Retry Limit containing information regarding the maximum number of retransmissions of the data signal transmitted by the first wireless communication device and received by the second wireless communication device, or a field of Life Time containing information regarding time until the data is discarded. a transmission control unit configured to transmit to a second wireless communication device , by using any band of two or more bands, a setup signal containing setting information and to transmit to the second wireless communication device a data signal containing data by using each of the two or more bands, wherein the setting information regards a notification method to be used by the second wireless communication device; the notification method relates to a reception result that is transmitted by the second wireless communication device in response to the second wireless communication device receiving the data signal on the two or more bands; the data signal is transmitted containing a second communication information regarding communication of the data signal using the two or more bands and regarding notification of the reception result; the setting information is first communication information regarding communication and retransmission between the wireless communication device and the second wireless communication device; and the first communication information is contained in at least either one of a field of Retry Limit containing information regarding the maximum number of retransmissions of the data signal transmitted by the first wireless communication device and received by the second wireless communication device, or a field of Life Time containing information regarding time until the data is discarded.
A compound represented by Formula : wherein two R 1 s are the same or different from each other and are each a hydrogen atom or an alkyl group having 1 to 6 carbon atoms; As are the same or different from each other and are each a substituent comprising an amino group, a hydroxy group, an epoxy group, or a (meth)acryloyl group; X is a single bond, an oxygen atom, or a group represented by -COO-, -OOC-, -CONH-, -NH-, -NHCO-, -NR 3 -, or -CH 2 O-; Y is a single bond or an oligooxyalkylene group; two R 2 s are the same or different from each other and are each an alkyl group having 1 to 6 carbon atoms; R 3 is an alkyl group having 1 to 6 carbon atoms; m is an integer of 1 to 10; and n is an integer of 2 to 10.
A compound of formula (I): wherein: X 1 and X 2 are each independently selected from N and CH, wherein at least one of X 1 and X 2 is N; either Y 1 is sulfonyl and Y 2 is hydrogen, or Y 2 is sulfonyl and Y 1 is hydrogen; and each R 1 is independently selected from hydrogen, alkyl, substituted alkyl, alkenyl, substituted alkenyl, alkynyl, substituted alkynyl, cycloalkyl, substituted cycloalkyl, heterocyclyl, substituted heterocyclyl, aryl, substituted aryl, heteroaryl, substituted heteroaryl and R 15 , wherein R 15 comprises a linking group and a compound of formula (I); or a salt or stereoisomer thereof. X 1 and X 2 are each independently selected from N and CH, wherein at least one of X 1 and X 2 is N; either Y 1 is sulfonyl and Y 2 is hydrogen, or Y 2 is sulfonyl and Y 1 is hydrogen; and each R 1 is independently selected from hydrogen, alkyl, substituted alkyl, alkenyl, substituted alkenyl, alkynyl, substituted alkynyl, cycloalkyl, substituted cycloalkyl, heterocyclyl, substituted heterocyclyl, aryl, substituted aryl, heteroaryl, substituted heteroaryl and R 15 , wherein R 15 comprises a linking group and a compound of formula (I);
An oral pouched nicotine product comprising a filling material and a saliva-permeable pouch of a packaging material enclosing the filling material, said filling material comprising: (a) tobacco-free nicotine-containing particles formed from a carrier material, said carrier material comprising microcrystalline cellulose, said tobacco-free nicotine-containing particles comprising a nicotine source, said tobacco-free nicotine-containing particles having a sphericity from 0.8 to 1.0, and a diameter from 0.1 mm to 2.0 mm, and (b) optionally a tobacco material present in an amount within the range of from 0.05 wt% to 10 wt%, based on the total weight of said filling material with the proviso that said oral pouched nicotine product is free from or substantially free from a constituent comprising a coating comprising a nicotine source and a binder. said filling material comprising: (a) tobacco-free nicotine-containing particles formed from a carrier material, said carrier material comprising microcrystalline cellulose, said tobacco-free nicotine-containing particles comprising a nicotine source, said tobacco-free nicotine-containing particles having a sphericity from 0.8 to 1.0, and a diameter from 0.1 mm to 2.0 mm, and (b) optionally a tobacco material present in an amount within the range of from 0.05 wt% to 10 wt%, based on the total weight of said filling material (a) tobacco-free nicotine-containing particles formed from a carrier material, said carrier material comprising microcrystalline cellulose, said tobacco-free nicotine-containing particles comprising a nicotine source, said tobacco-free nicotine-containing particles having a sphericity from 0.8 to 1.0, and a diameter from 0.1 mm to 2.0 mm, and said carrier material comprising microcrystalline cellulose, said tobacco-free nicotine-containing particles comprising a nicotine source, said tobacco-free nicotine-containing particles having a sphericity from 0.8 to 1.0, and a diameter from 0.1 mm to 2.0 mm, and (b) optionally a tobacco material present in an amount within the range of from 0.05 wt% to 10 wt%, based on the total weight of said filling material with the proviso that said oral pouched nicotine product is free from or substantially free from a constituent comprising a coating comprising a nicotine source and a binder.
A hard coat layer-forming composition used to form a hard coat layer on a plastic base, the hard coat layer-forming composition comprising: metal oxide particles; a component X that is at least one selected from the group consisting of an organic silicon compound represented by Formula : (R A -L A ) n -Si-(X) 4-n Formula [where R A denotes an epoxy group; L A denotes an alkylene group that has 5 or less total carbon atoms and that optionally includes a heteroatom; X denotes a hydrolyzable group; and n denotes an integer of 1 to 3], a hydrolysate thereof and a hydrolyzed condensate thereof; and a component Y that is at least one selected from the group consisting of an organic silicon compound represented by Formula : (R B -L B ) m -Si-(X) 4-m Formula [where R B denotes an epoxy group; L B denotes an alkylene group that has 6 or more total carbon atoms and that optionally includes a heteroatom; X denotes a hydrolyzable group; and m denotes an integer of 1 to 3], a hydrolysate thereof and a hydrolyzed condensate thereof. metal oxide particles; a component X that is at least one selected from the group consisting of an organic silicon compound represented by Formula : (R A -L A ) n -Si-(X) 4-n Formula [where R A denotes an epoxy group; L A denotes an alkylene group that has 5 or less total carbon atoms and that optionally includes a heteroatom; X denotes a hydrolyzable group; and n denotes an integer of 1 to 3], a hydrolysate thereof and a hydrolyzed condensate thereof; and a component Y that is at least one selected from the group consisting of an organic silicon compound represented by Formula : (R B -L B ) m -Si-(X) 4-m Formula [where R B denotes an epoxy group; L B denotes an alkylene group that has 6 or more total carbon atoms and that optionally includes a heteroatom; X denotes a hydrolyzable group; and m denotes an integer of 1 to 3], a hydrolysate thereof and a hydrolyzed condensate thereof.
A refrigerant system comprising: two compression chambers, said two compression chambers (44,46;54,56;64,66;84,86) being for compressing a refrigerant; a downstream heat rejection heat exchanger ; a refrigerant line passing from the heat rejection heat exchanger into an economizer cycle; a main refrigerant line passing from the economizer cycle through a main expansion device and to a heat accepting heat exchanger ; a suction line downstream of said heat accepting heat exchanger and extending to at least a first one of the two compression chambers, which is hence a dedicated main refrigerant compressor chamber (46;54;64;86); a return line being returned from the economizer cycle to a second of the two compression chambers, which is hence a dedicated economizer compressor chamber (44;54;64;84); and a bypass line communicating the return line and the suction line; wherein the dedicated main refrigerant compressor chamber and dedicated economizer compressor chamber are for receiving parallel inlet refrigeration streams. two compression chambers, said two compression chambers (44,46;54,56;64,66;84,86) being for compressing a refrigerant; a downstream heat rejection heat exchanger ; a refrigerant line passing from the heat rejection heat exchanger into an economizer cycle; a main refrigerant line passing from the economizer cycle through a main expansion device and to a heat accepting heat exchanger ; a suction line downstream of said heat accepting heat exchanger and extending to at least a first one of the two compression chambers, which is hence a dedicated main refrigerant compressor chamber (46;54;64;86); a return line being returned from the economizer cycle to a second of the two compression chambers, which is hence a dedicated economizer compressor chamber (44;54;64;84); and a bypass line communicating the return line and the suction line; wherein the dedicated main refrigerant compressor chamber and dedicated economizer compressor chamber are for receiving parallel inlet refrigeration streams.
A field positioning equipment for determining a position and orientation of a cardiac catheter with respect to a reference system, comprising at least one field generating device , which, under the excitation of a drive signal, generates distinguishable fields; at least one field sensor located in said cardiac catheter for detecting the distinguishable fields to generate a sensor signal; a positioning signal processing device for transmitting the drive signal to said field generating device and detecting an output of said field sensor signal so as to generate data of five-dimensional position and orientation coordinates of the position on said cardiac catheter where the sensor is located, each group of obtained data of position coordinates is calibrated for offset amount before being used to simulate a cavity inner wall so as to remove the error caused by a distance between the place where the sensor is located and the tip of said cardiac catheter.