mhurhangee/patent-ind-claim-en huggingface dataset:
An FM-CW radar using frequency modulation based on an FM-CW scheme, the FM-CW radar comprising: a high frequency circuit configured to receive a reflected wave from a target; and a signal processing unit configured to convert an analog signal generated by the high frequency circuit into a digital signal and detect at least a distance to the target and velocity of the target, wherein the high frequency circuit includes a voltage control oscillator configured to generate a frequency-modulated high frequency signal in response to receiving a modulation voltage from the signal processing unit , the signal processing unit includes a look up table configured to store default modulation control data, and the signal processing unit is configured to calculate an initial frequency value and an initial voltage value from a voltage-frequency characteristic, to generate modulation control data of the voltage control oscillator that is corrected by fixing a voltage increment and varying a time increment and updates the data stored in the look up table , the voltage-frequency characteristic being manifested by application of a default chirp data as the modulation control data of the voltage control oscillator , the default chirp data having a linear characteristic in time-voltage plane defined by time and voltage axes. a high frequency circuit configured to receive a reflected wave from a target; and a signal processing unit configured to convert an analog signal generated by the high frequency circuit into a digital signal and detect at least a distance to the target and velocity of the target, wherein the high frequency circuit includes a voltage control oscillator configured to generate a frequency-modulated high frequency signal in response to receiving a modulation voltage from the signal processing unit , the signal processing unit includes a look up table configured to store default modulation control data, and the signal processing unit is configured to calculate an initial frequency value and an initial voltage value from a voltage-frequency characteristic, to generate modulation control data of the voltage control oscillator that is corrected by fixing a voltage increment and varying a time increment and updates the data stored in the look up table , the voltage-frequency characteristic being manifested by application of a default chirp data as the modulation control data of the voltage control oscillator , the default chirp data having a linear characteristic in time-voltage plane defined by time and voltage axes.
Use of a duct for casting into a wall element and leading through a line , wherein the duct comprises a fold section which i.) is folded in during the casting of the duct , and ii.) is folded out after casting of the duct , wherein subsequently iii.) a protective tube is pushed into the folded out fold section , in which protective tube the line is laid, characterized in that the protective tube is pushed in to such an extent in the step according to item iii.) that the end of the protective tube then lies inside the wall element with respect to a longitudinal direction of the line and the wall element assumes a support function for the pushed in protective tube . wherein the duct comprises a fold section which i.) is folded in during the casting of the duct , and ii.) is folded out after casting of the duct , wherein subsequently iii.) a protective tube is pushed into the folded out fold section , i.) is folded in during the casting of the duct , and ii.) is folded out after casting of the duct , wherein subsequently iii.) a protective tube is pushed into the folded out fold section , in which protective tube the line is laid, characterized in that the protective tube is pushed in to such an extent in the step according to item iii.) that the end of the protective tube then lies inside the wall element with respect to a longitudinal direction of the line and the wall element assumes a support function for the pushed in protective tube .
A battery capacity tracking method, wherein the method is applied to an electronic device, the electronic device comprises a coulomb counter chip, and a first battery and a second battery that are connected in series, the coulomb counter chip is connected to two ends of the second battery in parallel, and the method comprises: obtaining (S301) a first remaining capacity change value corresponding to the first battery when the first battery is switched between a fully charged state and a fully discharged state; obtaining (S302) a second remaining capacity change value corresponding to the second battery when the second battery is switched between a fully charged state and a fully discharged state; and determining (S303) a full charge capacity of the first battery based on the first remaining capacity change value, the second remaining capacity change value, and a full charge capacity of the second battery, wherein the full charge capacity of the second battery is directly obtained by using the coulomb counter chip. obtaining (S301) a first remaining capacity change value corresponding to the first battery when the first battery is switched between a fully charged state and a fully discharged state; obtaining (S302) a second remaining capacity change value corresponding to the second battery when the second battery is switched between a fully charged state and a fully discharged state; and determining (S303) a full charge capacity of the first battery based on the first remaining capacity change value, the second remaining capacity change value, and a full charge capacity of the second battery, wherein the full charge capacity of the second battery is directly obtained by using the coulomb counter chip.
A container comprising: a housing, comprising: a stackable, machine-manipulable rigid portion ; and an expandable membrane sealingly attached to the stackable, machine-manipulable rigid portion to form an internal volume within the housing, the internal volume configured to store at least one crystalline hydration chemical and at least one crystalline therapeutic drug ; a first port in the housing, the first port configured to receive sterile water for reconstitution of the at least one crystalline hydration chemical and the at least one crystalline therapeutic drug ; and a second port in the housing, the second port configured to receive an intravenous set connector for delivery of a medical fluid formed from the at least one crystalline hydration chemical , the at least one crystalline therapeutic drug , and the sterile water, characterized in that wherein the stackable, machine-manipulable rigid portion includes at least one feature configured to engage with a corresponding feature of a second stackable, machine-manipulable container for stacking of the container and the second stackable, machine-manipulable container. a housing, comprising: a stackable, machine-manipulable rigid portion ; and an expandable membrane sealingly attached to the stackable, machine-manipulable rigid portion to form an internal volume within the housing, the internal volume configured to store at least one crystalline hydration chemical and at least one crystalline therapeutic drug ; a stackable, machine-manipulable rigid portion ; and an expandable membrane sealingly attached to the stackable, machine-manipulable rigid portion to form an internal volume within the housing, the internal volume configured to store at least one crystalline hydration chemical and at least one crystalline therapeutic drug ; a first port in the housing, the first port configured to receive sterile water for reconstitution of the at least one crystalline hydration chemical and the at least one crystalline therapeutic drug ; and a second port in the housing, the second port configured to receive an intravenous set connector for delivery of a medical fluid formed from the at least one crystalline hydration chemical , the at least one crystalline therapeutic drug , and the sterile water, characterized in that wherein the stackable, machine-manipulable rigid portion includes at least one feature configured to engage with a corresponding feature of a second stackable, machine-manipulable container for stacking of the container and the second stackable, machine-manipulable container.
A cord having a core-sheath structure , comprising: a core ; and a braided sheath of strands surrounding the core , the braided sheath comprising strands having a braid angle of 5° or more in a relaxed state, characterized in that : the strands having the braid angle of 5° or more in the relaxed state include at least one shaped strand of filaments ; the shaped strand of filaments is an untwisted strand having a twist level of less than 1 turn per meter; a cross-sectional aspect ratio of the shaped strand of filaments is at least 3:1, as measured in the braided sheath ; a thickness of at least a portion of the braided sheath ranges from about 20 to about 200 μm; and the braided sheath comprises a synthetic fiber having a tensile strength of greater than 12 cN/dtex, wherein the tensile strength of the synthetic fiber, the thickness of the core and braided sheath , and thereby the cross-sectional aspect ratio of the shaped strand of filaments , are determined in accordance with the methods described in ASTM D855/D885M-10A . a core ; and a braided sheath of strands surrounding the core , the braided sheath comprising strands having a braid angle of 5° or more in a relaxed state, the strands having the braid angle of 5° or more in the relaxed state include at least one shaped strand of filaments ; the shaped strand of filaments is an untwisted strand having a twist level of less than 1 turn per meter; a cross-sectional aspect ratio of the shaped strand of filaments is at least 3:1, as measured in the braided sheath ; a thickness of at least a portion of the braided sheath ranges from about 20 to about 200 μm; and the braided sheath comprises a synthetic fiber having a tensile strength of greater than 12 cN/dtex, wherein the tensile strength of the synthetic fiber, the thickness of the core and braided sheath , and thereby the cross-sectional aspect ratio of the shaped strand of filaments , are determined in accordance with the methods described in ASTM D855/D885M-10A .
A nucleic acid miR-9 inhibitor comprising the nucleic acid sequence of SEQ ID NO: 3 wherein the nucleic acid miR-9 inhibitor does not bind directly to miR-9 but instead binds to a miR-9 mRNA target site in the ANO1 nucleic acid sequence.
A spray ionization device , comprising: a first tube including a first channel through which a liquid can flow, the first tube including a first outlet for ejecting the liquid at one end and an opposite supply end; a second tube surrounding the first tube with a gap and including a second channel through which a gas can flow, the second tube including a second outlet at the one end, the second channel being defined by an outer circumferential surface of the first tube and an inner circumferential surface of the second tube ; and an electrode that can contact the liquid flowing through the first channel , the electrode being provided further toward the supply end than the first outlet of the first tube , and capable of applying voltage to the liquid by way of a power source connected to the electrode , wherein the electrode includes an annular member arranged inside the first channel , and is configured such that the liquid can flow through an inside of the annular member , at the one end, the second outlet is arranged further toward a tip than the first outlet, at least a portion of the inner circumferential surface of the second tube has a diameter that progressively decreases toward the second outlet, and a diameter of the inner circumferential surface of the second outlet is equal to or greater than an opening diameter of the first outlet, and electrically charged droplets of the liquid can be ejected from the second outlet. a first tube including a first channel through which a liquid can flow, the first tube including a first outlet for ejecting the liquid at one end and an opposite supply end; a second tube surrounding the first tube with a gap and including a second channel through which a gas can flow, the second tube including a second outlet at the one end, the second channel being defined by an outer circumferential surface of the first tube and an inner circumferential surface of the second tube ; and an electrode that can contact the liquid flowing through the first channel , the electrode being provided further toward the supply end than the first outlet of the first tube , and capable of applying voltage to the liquid by way of a power source connected to the electrode , wherein the electrode includes an annular member arranged inside the first channel , and is configured such that the liquid can flow through an inside of the annular member , at the one end, the second outlet is arranged further toward a tip than the first outlet, at least a portion of the inner circumferential surface of the second tube has a diameter that progressively decreases toward the second outlet, and a diameter of the inner circumferential surface of the second outlet is equal to or greater than an opening diameter of the first outlet, and electrically charged droplets of the liquid can be ejected from the second outlet.
Transparent microcrystalline glass, comprising: SiO 2 whose mass percentage is 55% to 80%, Al 2 O 3 whose mass percentage is 5% to 20%, Na 2 O whose mass percentage is 3%-7%, MgO whose mass percentage does not exceed 10%, TiO 2 whose mass percentage does not exceed 6%, K 2 O whose mass percentage does not exceed 5%, Li 2 O whose mass percentage does not exceed 10%, ZrO 2 whose mass percentage does not exceed 5%, and P 2 O 5 whose mass percentage does not exceed 5%, wherein a volume percentage of a glass phase in the microcrystalline glass is 25% to 95%, and a volume percentage of an MgAl 2 O 4 crystal is 5% to 75%; wherein the sum of the mass percentage of SiO 2 and the mass percentage of Li 2 O is 7 to 9 times the mass percentage of Al 2 O 3 ; and the sum of the mass percentage of Al 2 O 3 and the mass percentage of Li 2 O is 10 to 13 times the mass percentage of P 2 O 5 . a volume percentage of a glass phase in the microcrystalline glass is 25% to 95%, and a volume percentage of an MgAl 2 O 4 crystal is 5% to 75%; wherein the sum of the mass percentage of SiO 2 and the mass percentage of Li 2 O is 7 to 9 times the mass percentage of Al 2 O 3 ; and the sum of the mass percentage of Al 2 O 3 and the mass percentage of Li 2 O is 10 to 13 times the mass percentage of P 2 O 5 .
An image capturing system comprising: an image capturing apparatus including a plurality of photoelectric converters and configured to generate a pixel signal, the image capturing apparatus being configured to output a temperature signal representing a temperature and a reference signal used to correct the temperature signal in accordance with a predetermined equation; an image preprocessor configured to process the pixel signal output from the image capturing apparatus and generate an image signal; and a calculator configured to receive the temperature signal output from the image capturing apparatus and the reference signal output from the image capturing apparatus, and correct the temperature signal based on the reference signal and the predetermined equation to obtain a corrected temperature, wherein temperature dependency of the reference signal is lower than temperature dependency of the temperature signal; wherein the calculator is configured to obtain the corrected temperature based on a ratio of the temperature signal to the reference signal. an image capturing apparatus including a plurality of photoelectric converters and configured to generate a pixel signal, the image capturing apparatus being configured to output a temperature signal representing a temperature and a reference signal used to correct the temperature signal in accordance with a predetermined equation; an image preprocessor configured to process the pixel signal output from the image capturing apparatus and generate an image signal; and a calculator configured to receive the temperature signal output from the image capturing apparatus and the reference signal output from the image capturing apparatus, and correct the temperature signal based on the reference signal and the predetermined equation to obtain a corrected temperature, wherein temperature dependency of the reference signal is lower than temperature dependency of the temperature signal; wherein the calculator is configured to obtain the corrected temperature based on a ratio of the temperature signal to the reference signal.
A soft contact lens, comprising a silicone hydrogel material obtained by curing a lens-forming material in a mold, wherein the lens-forming material comprises an actinically crosslinkable prepolymer and at least one first hydrophilic vinylic monomer, wherein the prepolymer comprises siloxane units derived from one or more siloxane-containing vinylic monomers and/or one or more siloxane-containing macromers; hydrophilic units derived from one or more second hydrophilic vinylic monomers and/or one or more hydrophilic macromers; chain-extending units having latent UV-activated free radical generating moieties; and ethylenically unsaturated groups, wherein the silicone hydrogel material includes dangling hydrophilic polymer chains each of which is formed from the first hydrophilic vinylic monomer and covalently attached to the polymer matrix of the silicone hydrogel material through a part of the latent UV-activated free radical generating moiety of one of the chain-extending units, wherein the formed soft contact lens has a hydrophilic surface without post-curing surface treatment, characterized in that the chain-extending units containing latent UV-activated free radical generating moieties are derived from one or more vinylic monomer of formula (II) or (III) in which R is H, C 1 -C 12 alkyl, C 1 -C 12 alkoxy, C 1 -C 12 alkyl-NH- or -NR 3 R 4 wherein R 3 and R 4 independent of each other are C 1 -C 8 alkyl; R 1 and R 2 independent of each other are hydrogen, C 1 -C 8 alkyl, C 1 -C 8 cycloalkyl, or C 1 -C 8 aryl, or R 1 and R 2 together are -(CH 2 ) n - where n is an integer from 2 to 6; X is a linkage selected from the group consisting of -O-, -N-, where R 5 is H or C 1 -C 8 alkyl; Y is bivalent -NR 5 - or -O-; L is a divalent radical selected from the group consisting of C 1 -C 12 alkylene radical, C 1 -C 12 substituted alkylene radical, C 1 -C 12 cycloalkylene radical, and C 8 -C 16 arylalkylene radical; and R 6 is H or CH 3 . R is H, C 1 -C 12 alkyl, C 1 -C 12 alkoxy, C 1 -C 12 alkyl-NH- or -NR 3 R 4 wherein R 3 and R 4 independent of each other are C 1 -C 8 alkyl; R 1 and R 2 independent of each other are hydrogen, C 1 -C 8 alkyl, C 1 -C 8 cycloalkyl, or C 1 -C 8 aryl, or R 1 and R 2 together are -(CH 2 ) n - where n is an integer from 2 to 6; X is a linkage selected from the group consisting of -O-, -N-, where R 5 is H or C 1 -C 8 alkyl; Y is bivalent -NR 5 - or -O-; L is a divalent radical selected from the group consisting of C 1 -C 12 alkylene radical, C 1 -C 12 substituted alkylene radical, C 1 -C 12 cycloalkylene radical, and C 8 -C 16 arylalkylene radical; and R 6 is H or CH 3 .
A method for storing configuration data , comprising: determining a number of remote storage units connected to a communication network and at least one surveillance camera ; characterized in comprising the following steps: comparing the number of remote storage units to a threshold number of remote storage units ; and storing configuration data related to a network video recorder in at least one of the remote storage units based on a result of a comparison of the number of remote storage units to the threshold number of remote storage units . comparing the number of remote storage units to a threshold number of remote storage units ; and storing configuration data related to a network video recorder in at least one of the remote storage units based on a result of a comparison of the number of remote storage units to the threshold number of remote storage units .
External part element for a timepiece, comprising: - a frame provided with at least two housings ; - a decorative element housed at least partially in one of the housings ; - a locking system arranged to hold said decorative element in one of the housings; characterized in that said decorative element comprises a first body linked to a second body via at least one elastic link element , each body being situated in a corresponding housing . - a frame provided with at least two housings ; - a decorative element housed at least partially in one of the housings ; - a locking system arranged to hold said decorative element in one of the housings;
An apparatus for closing a tubular structure within a patient's body, comprising: a tubular member comprising a proximal end including a hub , a distal end including a sharpened distal tip to allow insertion into tissue through a tubular structure, and a lumen extending proximally from the distal end ; a clip loaded in the lumen , the clip compressible between a relaxed state in which a plurality of tines of the clip are shaped to engage and close a tubular structure within a patient's body, and a stressed state in which the tines are compressed to allow the clip to be loaded into the lumen , at least one of the tines including an eyelet adjacent a tip thereof; a release wire including first and second ends positioned adjacent the hub and an intermediate region passing through the lumen and the eyelet ; an actuator on the hub ; and a pusher member comprising a proximal end and a distal end sized for advancement within the lumen for at least partially deploying the clip from the distal tip of the tubular member such that the tines engage and close a tubular structure through which the tubular member is directed; wherein one or both ends of the release wire are coupled to the actuator to allow manipulation and release of the release wire. a tubular member comprising a proximal end including a hub , a distal end including a sharpened distal tip to allow insertion into tissue through a tubular structure, and a lumen extending proximally from the distal end ; a clip loaded in the lumen , the clip compressible between a relaxed state in which a plurality of tines of the clip are shaped to engage and close a tubular structure within a patient's body, and a stressed state in which the tines are compressed to allow the clip to be loaded into the lumen , at least one of the tines including an eyelet adjacent a tip thereof; a release wire including first and second ends positioned adjacent the hub and an intermediate region passing through the lumen and the eyelet ; an actuator on the hub ; and a pusher member comprising a proximal end and a distal end sized for advancement within the lumen for at least partially deploying the clip from the distal tip of the tubular member such that the tines engage and close a tubular structure through which the tubular member is directed;