mhurhangee/ep-ind-claims huggingface dataset:
User equipment to be used in a mobile communication system, the user equipment comprising: a generation unit (21, 22, 23) configured to provide an uplink reference signal, an uplink data signal, and an uplink control signal; a setting unit (25, 26, 27) configured to set an uplink reference signal transmission power of the uplink reference signal, an uplink data signal transmission power of the uplink data signal, and an uplink control signal transmission power of the uplink control signal; a transmission unit configured to wirelessly transmit the uplink reference signal having the uplink reference signal transmission power, the uplink data signal having the uplink data signal transmission power, and the uplink control signal having the uplink control signal transmission power, wherein the setting unit (25, 26, 27) is configured to set the uplink data signal transmission power of the uplink data signal in association with the uplink reference signal transmission power of the uplink reference signal, and wherein the transmission unit is configured to transmit the uplink control signal using only allocated specific resource blocks and the uplink reference signal across a wide bandwidth using multiple resource blocks and wherein the uplink reference signal is a signal allowing a base station apparatus to determine uplink channel quality, characterized in that the transmission unit is configured to transmit the uplink reference signal at a transmission cycle which is different from a transmission cycle of the uplink data signal and the uplink control signal. a generation unit (21, 22, 23) configured to provide an uplink reference signal, an uplink data signal, and an uplink control signal; a setting unit (25, 26, 27) configured to set an uplink reference signal transmission power of the uplink reference signal, an uplink data signal transmission power of the uplink data signal, and an uplink control signal transmission power of the uplink control signal; a transmission unit configured to wirelessly transmit the uplink reference signal having the uplink reference signal transmission power, the uplink data signal having the uplink data signal transmission power, and the uplink control signal having the uplink control signal transmission power, wherein the setting unit (25, 26, 27) is configured to set the uplink data signal transmission power of the uplink data signal in association with the uplink reference signal transmission power of the uplink reference signal, and wherein the transmission unit is configured to transmit the uplink control signal using only allocated specific resource blocks and the uplink reference signal across a wide bandwidth using multiple resource blocks and wherein the uplink reference signal is a signal allowing a base station apparatus to determine uplink channel quality, characterized in that the transmission unit is configured to transmit the uplink reference signal at a transmission cycle which is different from a transmission cycle of the uplink data signal and the uplink control signal.
A staple cartridge for use with a surgical stapling apparatus, the staple cartridge comprising: a cartridge body including a tissue contacting surface defining a plurality of staple retaining slots and having a central longitudinal slot having edges; a surgical buttress releasably disposed on the tissue contacting surface of the cartridge body; and an adhesive member disposed over the central longitudinal slot of the cartridge body and configured to retain the surgical buttress atop the tissue contacting surface of the cartridge body, wherein the adhesive member is an adhesive tape which is secured to the tissue contacting surface of each of the staple cartridge surrounding the edges of the central longitudinal slot, wherein the surgical buttress is secured to the adhesive tape; the staple cartridge being characterized in that: the adhesive tape does not extend over the staple retaining slots.
A hybrid method of video and vision based access control for parking occupancy determination, said method comprising: defining at least two regions of interest (34, 36) with respect to a parking area of interest, wherein a first region of interest among said at least two regions of interest is smaller than a second region of interest among said at least two regions of interest; acquiring image frames of said parking area of interest, the acquired image frames including said at least two regions of interest (34, 36); performing a video-based analysis to analyse said at least two regions of interest (34, 36) defined within said parking area of interest for motion detection or content change detection; performing a vision-based image content classification operation with respect to the first region of interest when a change of image content in the first region of interest is detected in the video-based analysis; and performing an object tracking operation with respect to the second region of interest if a result of said vision-based image content classification operation indicates a presence of an object of interest within said first region of interest to thereafter determine the access type based on the tracking result of the object of interest to thereafter determine parking occupancy. defining at least two regions of interest (34, 36) with respect to a parking area of interest, wherein a first region of interest among said at least two regions of interest is smaller than a second region of interest among said at least two regions of interest; acquiring image frames of said parking area of interest, the acquired image frames including said at least two regions of interest (34, 36); performing a video-based analysis to analyse said at least two regions of interest (34, 36) defined within said parking area of interest for motion detection or content change detection; performing a vision-based image content classification operation with respect to the first region of interest when a change of image content in the first region of interest is detected in the video-based analysis; and performing an object tracking operation with respect to the second region of interest if a result of said vision-based image content classification operation indicates a presence of an object of interest within said first region of interest to thereafter determine the access type based on the tracking result of the object of interest to thereafter determine parking occupancy.
A biomolecule detection method comprising: causing a reaction between a detection target biomolecule (101; 701; 801, 802), a first charge carrier (107; 704; 804) with a surface having a first antibody against the biomolecule (101; 701; 801, 802), and a second charge carrier (107; 704; 804) with a surface having a second antibody against the biomolecule (101; 701; 801, 802) to form a dimer (109; 707; 808) containing the target biomolecule (101; 701; 801, 802) sandwiched by the first and second charge carriers (107; 704; 804); moving a reaction liquid containing the dimer (109; 707; 808) and reaction products other than the dimer through a pore (118, 206) of a substrate (119, 208) that has a first flat surface having a source (116, 203) and a drain (117, 204), and the pore (118, 206) penetrating through the substrate (119, 208) from the first flat surface to a second flat surface of the substrate (119, 208); and counting the dimers (109; 707; 808) passing through the pore (118, 206) by measuring the amount of current changes between the source (116, 203) and the drain (117, 204). causing a reaction between a detection target biomolecule (101; 701; 801, 802), a first charge carrier (107; 704; 804) with a surface having a first antibody against the biomolecule (101; 701; 801, 802), and a second charge carrier (107; 704; 804) with a surface having a second antibody against the biomolecule (101; 701; 801, 802) to form a dimer (109; 707; 808) containing the target biomolecule (101; 701; 801, 802) sandwiched by the first and second charge carriers (107; 704; 804); moving a reaction liquid containing the dimer (109; 707; 808) and reaction products other than the dimer through a pore (118, 206) of a substrate (119, 208) that has a first flat surface having a source (116, 203) and a drain (117, 204), and the pore (118, 206) penetrating through the substrate (119, 208) from the first flat surface to a second flat surface of the substrate (119, 208); and counting the dimers (109; 707; 808) passing through the pore (118, 206) by measuring the amount of current changes between the source (116, 203) and the drain (117, 204).
A method for making 3,3'-diallyl-biphenyl-2,2'-diol or 3,3'-dipropyl-biphenyl-2,2'-diol, comprising heating neat 2,2'-di(allyloxy)-biphenyl at a temperature of 210°C for a period of four to six hours until it is substantially converted to 3,3'-diallyl-biphenyl-2,2'-diol, and optionally hydrogenating the 3,3'-diallyl-biphenyl-2,2'-diol to obtain 3,3'-dipropyl-biphenyl-2,2'-diol.
A process for producing thermoplastic polyoxazolidinonescomprising copolymerization of a diisocyanate compound with a bisepoxide compound in the presence of a catalyst and a compound in a solvent characterized in that, the catalyst is selected from the group consisting of alkali halogenides and earth alkali halogenides, and transition metal halogenides, compound is selected from the group consisting of monofunctional isocyanate, monofunctional epoxide, and wherein the process comprises the following steps (α) placing the solvent and the catalyst in a reactor to provide a mixture, and (β) adding the diisocyanate compound, the bisepoxide compound and the compound to the mixture resulting from step (α). (α) placing the solvent and the catalyst in a reactor to provide a mixture, and (β) adding the diisocyanate compound, the bisepoxide compound and the compound to the mixture resulting from step (α).
A method for activating a secondary battery, the method comprising: a primary charging step of charging a secondary battery including a positive electrode, a negative electrode, a separator and an electrolyte; a room temperature aging step of storing the secondary battery having gone through the primary charging step at a room temperature; and a high temperature aging step of storing the secondary battery having gone through the primary charging step at a room temperature, wherein at an end of the primary charging step, charging and discharging are performed by alternately applying + current and - current to the secondary battery, characterized in that the room temperature aging step is performed for 6 hours or less, a charging voltage in the primary charging step is 3.0 to 4.0 V, C-rate is 0.1 to 3.0 C, and changing is performed at 20 to 40% of a state of charge of the secondary battery, wherein charging and discharging performed at an end of the primary charging step is performed within 3 to 10% of the SOC, wherein C-rate of charging and discharging performed at an end of the primary charging step is 0.1 to 2.0 C and wherein the high temperature aging step is performed for 12 to 36 hours at 40 to 80°C, and wherein a number of times of charging and discharging performed at an end of the primary charging step is 1 to 5. a primary charging step of charging a secondary battery including a positive electrode, a negative electrode, a separator and an electrolyte; a room temperature aging step of storing the secondary battery having gone through the primary charging step at a room temperature; and a high temperature aging step of storing the secondary battery having gone through the primary charging step at a room temperature, wherein at an end of the primary charging step, charging and discharging are performed by alternately applying + current and - current to the secondary battery, characterized in that the room temperature aging step is performed for 6 hours or less, a charging voltage in the primary charging step is 3.0 to 4.0 V, C-rate is 0.1 to 3.0 C, and changing is performed at 20 to 40% of a state of charge of the secondary battery, wherein charging and discharging performed at an end of the primary charging step is performed within 3 to 10% of the SOC, wherein C-rate of charging and discharging performed at an end of the primary charging step is 0.1 to 2.0 C and wherein the high temperature aging step is performed for 12 to 36 hours at 40 to 80°C, and wherein a number of times of charging and discharging performed at an end of the primary charging step is 1 to 5.
A steel wire material consisting of: C: 0.05-1.2% ("%" means "% by mass", hereinafter the same for chemical components); Si: 0.01-0.7%; Mn: 0.1-1.5%; P: 0.02% or less (not including 0%); S: 0.02% or less (not including 0%); and N: 0.005% or less (not including 0%); optionally Cr: 0.3% or less and/or Ni: 0.3% or less; optionally Cu: 0.3% or less; optionally at least one element selected from a group consisting of Nb, V, Ti, Hf and Zr by 0.1% or less in total; optionally Al: 0.1% or less; optionally B: 0.005% or less; and optionally Ca: 0.01% or less and/or Mg: 0.01% or less; with the remainder being iron and unavoidable impurities, wherein a scale with 6.0 μm or more and 20 μm or less thickness is included, and holes of an equivalent circle diameter of 1 μm or less in the scale occupy 10% or less by area. C: 0.05-1.2% ("%" means "% by mass", hereinafter the same for chemical components); Si: 0.01-0.7%; Mn: 0.1-1.5%; P: 0.02% or less (not including 0%); S: 0.02% or less (not including 0%); and N: 0.005% or less (not including 0%); optionally Cr: 0.3% or less and/or Ni: 0.3% or less; optionally Cu: 0.3% or less; optionally at least one element selected from a group consisting of Nb, V, Ti, Hf and Zr by 0.1% or less in total; optionally Al: 0.1% or less; optionally B: 0.005% or less; and optionally Ca: 0.01% or less and/or Mg: 0.01% or less; with the remainder being iron and unavoidable impurities, wherein a scale with 6.0 μm or more and 20 μm or less thickness is included, and holes of an equivalent circle diameter of 1 μm or less in the scale occupy 10% or less by area.
A window-type construction element comprising a repeater system configured to relay the exchanges between a base station of a mobile telecommunications network and a user terminal, the repeater system comprising: an internal antenna configured to communicate with the user terminal; an external antenna configured to communicate with the base station; re-transmitting means connected to the external antenna, the construction element comprising an optically transparent panel and an opaque frame; the re-transmitting means being intended to form the interface between the external antenna and the internal antenna in order to re-transmit, after amplification and/or regeneration, the signals received from one of the antennas for the other antenna, the external antenna being an optically transparent planar antenna integrated into said optically transparent panel configured to be used for the interior lighting of a space; the external antenna comprising a ground plane and a radiation plane in the form of one or several radiating elements, the ground plane, the radiating elements each being formed of an optically transparent conductive material, a part of the panel being interposed between the ground plane and the radiation plane to form a dielectric substrate of the external antenna; the external antenna having feed means arranged in the frame. an internal antenna configured to communicate with the user terminal; an external antenna configured to communicate with the base station; re-transmitting means connected to the external antenna, the construction element comprising an optically transparent panel and an opaque frame; the re-transmitting means being intended to form the interface between the external antenna and the internal antenna in order to re-transmit, after amplification and/or regeneration, the signals received from one of the antennas for the other antenna, the external antenna being an optically transparent planar antenna integrated into said optically transparent panel configured to be used for the interior lighting of a space; the external antenna comprising a ground plane and a radiation plane in the form of one or several radiating elements, the ground plane, the radiating elements each being formed of an optically transparent conductive material, a part of the panel being interposed between the ground plane and the radiation plane to form a dielectric substrate of the external antenna; the external antenna having feed means arranged in the frame.
Method for using a sonotrode, in a liquid aluminium alloy, including the following steps: a) Providing a tubular sonotrode formed in a material substantially inert to liquid aluminium, such as a ceramic, for example, a silicon oxynitride, the sonotrode comprising a first open end region and a second preferably closed end region, b) Submerging at least partially the open end region of the tubular sonotrode in the liquid aluminium alloy and c) Applying power ultrasound on the liquid aluminium alloy by means of the tubular sonotrode, d) Creating a descending velocity field in the liquid aluminium alloy at the first end region of the tubular sonotrode, so as to generate a descending liquid aluminium alloy flow inside the tubular sonotrode. a) Providing a tubular sonotrode formed in a material substantially inert to liquid aluminium, such as a ceramic, for example, a silicon oxynitride, the sonotrode comprising a first open end region and a second preferably closed end region, b) Submerging at least partially the open end region of the tubular sonotrode in the liquid aluminium alloy and c) Applying power ultrasound on the liquid aluminium alloy by means of the tubular sonotrode, d) Creating a descending velocity field in the liquid aluminium alloy at the first end region of the tubular sonotrode, so as to generate a descending liquid aluminium alloy flow inside the tubular sonotrode.
Pneumatic vehicle tyre of a radial type of construction with a tread having a shoulder-side tread region, which comprises a shoulder-side row of profile blocks and a further row of profile blocks, which are separated from each other by a first circumferential groove, the further row of profile blocks being delimited on the inner side of the tread by a further circumferential groove and being made up of macro blocks following one another over the circumference of the tread, each macro block having at its marginal edge in relation to the further circumferential groove a length of extent (l 1), determined in the circumferential direction, of 80 mm to 180 mm and being provided with a number of transverse grooves, which run from the first circumferential groove into the macro block and end in the macro block in the manner of a dead-end groove, and being delimited with respect to the further circumferential groove by a block flank, which reaches from the surface of the macro block to the groove base, characterized in that the block flank of each macro block is made up of three flank faces (13a, 13b, 13c) adjoining one another in the radial direction, which extend over the entire circumferential extent of the block flank and respectively run at an acute angle (α, β, γ) in relation to the radial direction, the angle (α) of the radially inner flank face and the angle (γ) of the radially outer flank face changing their magnitudes oppositely to one another and continuously over the circumferential extent of their flank faces (13a, 13b), and the middle flank face running at a constant angle (β) in relation to the radial direction.
A waste heat recovery Rankine cycle system comprising: a first Rankine cycle operated with a first working medium; and a second Rankine cycle operated with a second working medium having lower boiling point than the first working medium, wherein the first Rankine cycle has a first condenser in which the first working medium is condensed by the second working medium, the second Rankine cycle has a condensing pump supplying the second working medium to the first condenser, a regulation valve changing a flow rate of the second working medium, and a gas-liquid separation device which separates the second working medium, heated in the first condenser, into a vapor phase and a liquid phase, the vapor phase of the second working medium is supplied to an expander and the liquid phase of the second working medium is supplied to a heat exchanger, 15 characterized in that a controller is programmed to control such that when an amount of heat exchanged between feed water supplied to the heat exchanger and the second working medium is controlled to increase, a driving state of the condensing pump and an opening degree of the regulation valve are controlled so as to increase a flow rate of the second working medium, and when the amount of heat exchanged between the feed water supplied to the heat exchanger and the second working medium is controlled to reduce, the driving state of the condensing pump and the opening degree of the regulation valve are controlled so as to reduce the flow rate of the second working medium. a first Rankine cycle operated with a first working medium; and a second Rankine cycle operated with a second working medium having lower boiling point than the first working medium, wherein the first Rankine cycle has a first condenser in which the first working medium is condensed by the second working medium, the second Rankine cycle has a condensing pump supplying the second working medium to the first condenser, a regulation valve changing a flow rate of the second working medium, and a gas-liquid separation device which separates the second working medium, heated in the first condenser, into a vapor phase and a liquid phase, the vapor phase of the second working medium is supplied to an expander and the liquid phase of the second working medium is supplied to a heat exchanger, 15 characterized in that a controller is programmed to control such that when an amount of heat exchanged between feed water supplied to the heat exchanger and the second working medium is controlled to increase, a driving state of the condensing pump and an opening degree of the regulation valve are controlled so as to increase a flow rate of the second working medium, and when the amount of heat exchanged between the feed water supplied to the heat exchanger and the second working medium is controlled to reduce, the driving state of the condensing pump and the opening degree of the regulation valve are controlled so as to reduce the flow rate of the second working medium.