mhurhangee/patent-ind-claim-en huggingface dataset:
A superconducting power system comprising: a superconducting cable including a former at a center thereof, an inner metallic conduit at an outer side of a cooling channel, and an outer metallic conduit having a vacuum unit at an inner side thereof; a first connection device connected to one end of the superconducting cable; and a second connection device connected to another end of the superconducting cable, wherein at least one suspension section (S, S1, S2, S3) is provided, in which the superconducting cable connecting the first and second connection devices is suspended downward and, wherein the at least one suspension section has a form of a one-period section connecting adjacent highest points among a sine function and a cosine function and, wherein a suspension length (P, P1, P2) corresponding to a period of each of the at least one suspension section and a suspension height (A, A1, A2) corresponding to a maximum deflection of the superconducting cable in each of the at least one suspension section satisfy a range of 16.0<suspension length/suspension height<27.5, wherein the superconducting power system further comprises at least two support members provided at locations spaced apart from each other to support the superconducting cable so as to form the at least one suspension section, wherein the superconducting cable is disposed in a horizontal straight line to form a horizontal section (LI, L2, L3) from each of the first and second connection device to a support member adjacent thereto. a superconducting cable including a former at a center thereof, an inner metallic conduit at an outer side of a cooling channel, and an outer metallic conduit having a vacuum unit at an inner side thereof; a first connection device connected to one end of the superconducting cable; and a second connection device connected to another end of the superconducting cable, wherein at least one suspension section (S, S1, S2, S3) is provided, in which the superconducting cable connecting the first and second connection devices is suspended downward and, wherein the at least one suspension section has a form of a one-period section connecting adjacent highest points among a sine function and a cosine function and, wherein a suspension length (P, P1, P2) corresponding to a period of each of the at least one suspension section and a suspension height (A, A1, A2) corresponding to a maximum deflection of the superconducting cable in each of the at least one suspension section satisfy a range of 16.0<suspension length/suspension height<27.5, wherein the superconducting power system further comprises at least two support members provided at locations spaced apart from each other to support the superconducting cable so as to form the at least one suspension section, wherein the superconducting cable is disposed in a horizontal straight line to form a horizontal section (LI, L2, L3) from each of the first and second connection device to a support member adjacent thereto.
A device for preparing a coffee beverage, comprising a brewing unit with a brewing chamber which is closable by a lid , in which chamber coffee powder after being poured in is compressed by a plunger driven by an electric actuating drive by way of a gear mechanism , and the compressed coffee powder is percolated by heated water introduced into the brewing chamber by an electric pump , which water emerges from an outlet of the brewing chamber , and also with an electronic control means which controls the electric actuating drive dependent on the signals of a rotary encoder which is associated therewith such that the plunger is moved out of a filling position (A) for the coffee powder, compressing the coffee powder , into a brewing position (B), and is moved from there into an ejection position (C) for the coffee puck formed by the brewing operation in the brewing chamber , characterised in that the electronic control means first moves the plunger against a stop in the ejection position (C) in order to calibrate the rotary encoder , then moves the plunger from this ejection position (C) by a predetermined distance in a downwards direction into the filling position (A), the length of which distance corresponds to a first number of pulses of the rotary encoder which number is stored in an electronic memory of the electronic control means , in that the electronic control means moves the plunger after a predetermined filling time by a second distance in an upwards direction into the brewing position (B), the length of which distance corresponds to the number of a second number of pulses of the rotary encoder stored in the memory , and in that the electronic control means moves the plunger after a predetermined brewing duration back out of the brewing position (B) by a predetermined third distance into the ejection position (A), in which after the lid has been opened the puck is removed from the plunger by an ejection mechanism.
Method for securing an electronic device (SC) against side-channel attacks when the electronic device (SC) implements a Montgomery ladder in order to calculate the element A ⊥ A ⊥ ... ⊥ A where A appears k times, A being an element of an abelian group provided with an operation ⊥ , and k a natural number, the method comprising a modified implementation of the Montgomery ladder comprising: /a/ a determination (DET_r1), by a determination circuit of the electronic device (SC), of a first natural number r1; /b/ a calculation (CALC_R1), by a calculation circuit of the electronic device (SC), of a first parameter R1=A ⊥ A ⊥ ... ⊥ A where A appears r1 times; /c/ a determination (DET_r2), by a determination circuit of the electronic device (SC), of a second natural number r2, r2 and r1 being non-zero and distinct; /d/ a calculation (CALC_R2), by a calculation circuit of the electronic device (SC), of a second parameter R2=A ⊥ A ⊥ ... ⊥ A where A appears r2 times; /e/ a calculation (CALC_k'), by a calculation circuit of the electronic device (SC), of a natural number k' on the basis of the natural number k, the first natural number r1 and the second natural number r2; k' being the division of k-2 n' .r1 by the quantity r2-r1, where n' is a positive integer and N the cardinal of the abelian group, /f/ an implementation (M_ML), by a calculation circuit of the electronic device (SC), of the Montgomery ladder, modified by using the natural number k' instead of the natural number k, the first parameter R1=A ⊥ A ⊥ ... ⊥ A where A appears r1 times instead of a parameter R1=1 and the second parameter R2=A ⊥ A ⊥ ... ⊥ A where A appears r2 times instead of a parameter R2=A. /a/ a determination (DET_r1), by a determination circuit of the electronic device (SC), of a first natural number r1; /b/ a calculation (CALC_R1), by a calculation circuit of the electronic device (SC), of a first parameter R1=A ⊥ A ⊥ ... ⊥ A where A appears r1 times; /c/ a determination (DET_r2), by a determination circuit of the electronic device (SC), of a second natural number r2, r2 and r1 being non-zero and distinct; /d/ a calculation (CALC_R2), by a calculation circuit of the electronic device (SC), of a second parameter R2=A ⊥ A ⊥ ... ⊥ A where A appears r2 times; /e/ a calculation (CALC_k'), by a calculation circuit of the electronic device (SC), of a natural number k' on the basis of the natural number k, the first natural number r1 and the second natural number r2; k' being the division of k-2 n' .r1 by the quantity r2-r1, where n' is a positive integer and N the cardinal of the abelian group, /f/ an implementation (M_ML), by a calculation circuit of the electronic device (SC), of the Montgomery ladder, modified by using the natural number k' instead of the natural number k, the first parameter R1=A ⊥ A ⊥ ... ⊥ A where A appears r1 times instead of a parameter R1=1 and the second parameter R2=A ⊥ A ⊥ ... ⊥ A where A appears r2 times instead of a parameter R2=A.
A method of providing a deluge system to create a water barrier on a burner boom comprising a walkway whilst flaring, the burner boom being provided with oil and gas pipework , the deluge system comprising a base unit , a stanchion , and a nozzle apparatus , wherein the stanchion is attached to the base unit and moveable relative thereto, from a stowed position to an operative position; the method comprising attaching the deluge system to the burner boom adjacent the walkway with the base unit secured to at least one of a single lateral side and a handrail support of the burner boom, such that there remains a width of at least 30cm clear on the burner boom's walkway width after the deluge system has been attached; using the burner boom for a well-flaring operation at the end of the boom by supplying oil and gas through the oil and gas pipework, and thereby generating a heat source at the end of the boom; creating the water barrier with a screen of water using the deluge system, to mitigate heat transfer from the heat source.
A self-moving robot system, comprising: a self-moving robot , configured to automatically move and automatically work in a working area; a signal line , comprising an antenna, defining a border of the working area or/and defining a returning path of the self-moving robot; a signal generating device , configured to generate a preset signal suitable to be radiated to a free space in a radio wave manner, the preset signal comprising a modulated signal having a characteristic frequency and a carrier signal having a carrier frequency; a signal detecting device , configured to detect the preset signal existing in the free space in the radio wave manner and recognize the modulated signal by the characteristic frequency, thereby generating a detection result; and a control unit , disposed in the self-moving robot, configured to receive the detection result and to judge a distance between the self-moving robot and the signal line according to the detection result and to control the self-moving robot to move according to the detection result, wherein the signal generating device comprises an electric loop per se, and this electric loop is configured to generate the modulated signal and the carrier signal, one end of the signal line is connected to the signal generating device and the signal line is configured to radiate the preset signal to the free space in the radio wave manner; and the signal line unidirectionally extends from the one end to constitute an open circuit. a self-moving robot , configured to automatically move and automatically work in a working area; a signal line , comprising an antenna, defining a border of the working area or/and defining a returning path of the self-moving robot; a signal generating device , configured to generate a preset signal suitable to be radiated to a free space in a radio wave manner, the preset signal comprising a modulated signal having a characteristic frequency and a carrier signal having a carrier frequency; a signal detecting device , configured to detect the preset signal existing in the free space in the radio wave manner and recognize the modulated signal by the characteristic frequency, thereby generating a detection result; and a control unit , disposed in the self-moving robot, configured to receive the detection result and to judge a distance between the self-moving robot and the signal line according to the detection result and to control the self-moving robot to move according to the detection result, wherein the signal generating device comprises an electric loop per se, and this electric loop is configured to generate the modulated signal and the carrier signal, one end of the signal line is connected to the signal generating device and the signal line is configured to radiate the preset signal to the free space in the radio wave manner; and the signal line unidirectionally extends from the one end to constitute an open circuit.
A sunscreen composition, comprising: a primary UV-absorbing agent in an amount effective to absorb ultraviolet light, wherein said primary UV-absorbing agent is disodium phenyldibenzimidazole tetrasulfonate, and wherein the concentration of said primary UV-absorbing agent is 1.0% by weight of the composition or more; and 0.5 to 1% by weight of the composition of a visible light absorbing agent, wherein said visible light absorbing agent comprises inorganic pigment particles, and wherein said visible light absorbing agent comprises a silica-containing coating. a primary UV-absorbing agent in an amount effective to absorb ultraviolet light, wherein said primary UV-absorbing agent is disodium phenyldibenzimidazole tetrasulfonate, and wherein the concentration of said primary UV-absorbing agent is 1.0% by weight of the composition or more; and 0.5 to 1% by weight of the composition of a visible light absorbing agent, wherein said visible light absorbing agent comprises inorganic pigment particles, and wherein said visible light absorbing agent comprises a silica-containing coating.
An apparatus to control temperature of an integrated circuit, IC, the apparatus comprising: a plurality of thermal sensors, each of the plurality of thermal sensors to be located in an area in the IC to record a die temperature at a location in its associated area; and a thermal controller coupled to the plurality of thermal sensors to perform thermal throttling of the IC to reduce the temperature of the IC in response to the die temperature recorded by any one thermal sensor of the plurality of thermal sensors being greater than an individual temperature threshold for said any one thermal sensor, the individual temperature threshold for each thermal sensor being based on a maximum temperature allowed for the area in the IC in which said each thermal sensor is to be located and power supplied to a plurality of areas of the IC ; an update module to be coupled to a memory (501; 630), the update module to update the individual temperature threshold for each of the plurality of thermal sensors if the power supplied to one or more areas of the plurality of areas changes; wherein the individual temperature threshold for each thermal sensor is based on a difference between the maximum temperature allowed for the area in the IC in which said each thermal sensor is to be located and a sum of a product of each power supplied to each area of the plurality of areas and a weighting factor associated with said each power supplied to each area. a plurality of thermal sensors, each of the plurality of thermal sensors to be located in an area in the IC to record a die temperature at a location in its associated area; and a thermal controller coupled to the plurality of thermal sensors to perform thermal throttling of the IC to reduce the temperature of the IC in response to the die temperature recorded by any one thermal sensor of the plurality of thermal sensors being greater than an individual temperature threshold for said any one thermal sensor, the individual temperature threshold for each thermal sensor being based on a maximum temperature allowed for the area in the IC in which said each thermal sensor is to be located and power supplied to a plurality of areas of the IC ; an update module to be coupled to a memory (501; 630), the update module to update the individual temperature threshold for each of the plurality of thermal sensors if the power supplied to one or more areas of the plurality of areas changes; wherein the individual temperature threshold for each thermal sensor is based on a difference between the maximum temperature allowed for the area in the IC in which said each thermal sensor is to be located and a sum of a product of each power supplied to each area of the plurality of areas and a weighting factor associated with said each power supplied to each area.
- A device for extracting a large-caliber projectile jammed in a barrel of a weapon, the device comprising a solid body of a diameter smaller than the caliber of the barrel and intended to be introduced into the barrel at a muzzle of the latter and then to be released in the barrel in order to impact by inertia the jammed projectile , the device being characterised in that it comprises at least two radially expandable locking means , each able to move between a locked position in which it is applied radially against an inner wall of the barrel and a released position in which it is not applied against the barrel , the passage of the locking means from one position to the other being provided by an expansion means , the device comprising a translation means enabling a first locking means to be translated axially with respect to a second locking means .
A laundry detergent composition comprising: (i) from 4 to 50 wt% of an anionic charged surfactant, other than an alkoxylated polyarylphenol; (ii) from 0.5 to 20 wt% of an alkoxylated polyarylphenol having an average of 5 to 70 alkoxy groups, wherein the alkoxylated polyarylphenol dispersant is: wherein n is selected from 5 to 70; (iii) from 0.0005 to 0.5 wt % of a lipase enzyme; and, (iv) from 0.0005 to 0.2 wt% of a protease enzyme. (i) from 4 to 50 wt% of an anionic charged surfactant, other than an alkoxylated polyarylphenol; (ii) from 0.5 to 20 wt% of an alkoxylated polyarylphenol having an average of 5 to 70 alkoxy groups, wherein the alkoxylated polyarylphenol dispersant is: wherein n is selected from 5 to 70; (iii) from 0.0005 to 0.5 wt % of a lipase enzyme; and, (iv) from 0.0005 to 0.2 wt% of a protease enzyme.
A negative electrode for an energy storage device, comprising a negative substrate and a negative active material layer layered directly or indirectly on at least one surface of the negative substrate, wherein the negative active material layer contains: solid graphite particles that have a median diameter D1; hollow graphite particles that have a larger median diameter D2 than the solid graphite particles; and a conductive agent, and wherein the conductive agent is fibrous carbon. wherein the negative active material layer contains: solid graphite particles that have a median diameter D1; hollow graphite particles that have a larger median diameter D2 than the solid graphite particles; and a conductive agent, and wherein the conductive agent is fibrous carbon.
A spectrometer comprising: a package having a stem and a cap provided with a light entrance part; an optical unit disposed on the stem inside the package; and a fixing member configured to secure the optical unit to the stem , wherein the optical unit includes a dispersive part configured to disperse and reflect light entering the package from the light entrance part, a substrate on which the dispersive part is provided, wherein the dispersive part is provided on a first surface of the substrate , a light detection element having a light detection part configured to detect the light dispersed and reflected by the dispersive part , a support configured to support the light detection element such that a space is formed between the dispersive part and the light detection element; a projection protruding from the support, the fixing member being secured to the projection; the spectrometer being characterized in that the optical unit further includes a second surface of the substrate on the side opposite from the first surface, the second surface being in contact with the stem , the support is fixed to the substrate , and the second surface is not secured to the stem by adhesion, thereby the optical unit is movable with respect to the stem in a contact part of the second surface of the substrate and the stem . a package having a stem and a cap provided with a light entrance part; an optical unit disposed on the stem inside the package; and a fixing member configured to secure the optical unit to the stem , wherein the optical unit includes a dispersive part configured to disperse and reflect light entering the package from the light entrance part, a substrate on which the dispersive part is provided, wherein the dispersive part is provided on a first surface of the substrate , a light detection element having a light detection part configured to detect the light dispersed and reflected by the dispersive part , a support configured to support the light detection element such that a space is formed between the dispersive part and the light detection element; a projection protruding from the support, the fixing member being secured to the projection; the spectrometer being characterized in that the optical unit further includes a second surface of the substrate on the side opposite from the first surface, the second surface being in contact with the stem , the support is fixed to the substrate , and the second surface is not secured to the stem by adhesion, thereby the optical unit is movable with respect to the stem in a contact part of the second surface of the substrate and the stem .
A gas discharge UV light-emitting device comprising: a glass tube having an upper part and a bottom part facing each other on a transverse section thereof, and filled with a discharge gas, the upper part being defined as a light-emitting surface; at least a pair of electrodes disposed at a position facing an outer wall surface of the bottom part of the glass tube , wherein the pair of electrodes has a gap constituting a trigger discharge gap therebetween and extends in a direction away from each other along a longitudinal direction of the glass tube at each side of the gap , and the gas discharge UV light-emitting device further comprises an insulating layer disposed between the electrodes and the outer wall surface of the bottom part of the glass tube , the electrodes and the outer surface of the bottom part of each glass tube being on the insulating layer. a glass tube having an upper part and a bottom part facing each other on a transverse section thereof, and filled with a discharge gas, the upper part being defined as a light-emitting surface; at least a pair of electrodes disposed at a position facing an outer wall surface of the bottom part of the glass tube , wherein the pair of electrodes has a gap constituting a trigger discharge gap therebetween and extends in a direction away from each other along a longitudinal direction of the glass tube at each side of the gap , and the gas discharge UV light-emitting device further comprises an insulating layer disposed between the electrodes and the outer wall surface of the bottom part of the glass tube , the electrodes and the outer surface of the bottom part of each glass tube being on the insulating layer.
A stable liquid formulation, comprising: (A) an antibody or antigen-binding portion thereof comprising a light-chain variable region comprising a CDR1 domain comprising an amino acid sequence of SEQ ID NO:1, a CDR2 domain comprising an amino acid sequence of SEQ ID NO:2, and a CDR3 domain comprising an amino acid sequence of SEQ ID NO:3 and a heavy-chain variable region comprising a CDR1 domain comprising an amino acid sequence of SEQ ID NO:4, a CDR2 domain comprising an amino acid sequence of SEQ ID NO:5, and a CDR3 domain comprising an amino acid sequence of SEQ ID NO:6; (B) an acetate buffer comprising 1 to 25 mM of an acetate; (C) 100 to 300 mM of glycine; and (D) a surfactant, wherein the stable liquid formulation does not comprise sucrose nor trehalose nor mannitol nor sorbitol nor NaCl. (A) an antibody or antigen-binding portion thereof comprising a light-chain variable region comprising a CDR1 domain comprising an amino acid sequence of SEQ ID NO:1, a CDR2 domain comprising an amino acid sequence of SEQ ID NO:2, and a CDR3 domain comprising an amino acid sequence of SEQ ID NO:3 and a heavy-chain variable region comprising a CDR1 domain comprising an amino acid sequence of SEQ ID NO:4, a CDR2 domain comprising an amino acid sequence of SEQ ID NO:5, and a CDR3 domain comprising an amino acid sequence of SEQ ID NO:6; (B) an acetate buffer comprising 1 to 25 mM of an acetate; (C) 100 to 300 mM of glycine; and (D) a surfactant,