mhurhangee/patent-ind-claim-en huggingface dataset:
A waste heat discharge system, characterized in that it comprises a flow control device, a heat exchange device and a temperature buffer tank , wherein the heat exchange device and the temperature buffer tank are sequentially connected in series with a steam generator , the heat exchange device , the temperature buffer tank , and the steam generator sequentially decreasing in height; the flow control device comprises a first pressure sensor , a second pressure sensor , a temperature sensor , a flow control valve , and a controller , wherein the first pressure sensor , the second pressure sensor , the temperature sensor , and the flow control valve are disposed in a return line of a condensate liquid; the first pressure sensor and the second pressure sensor are disposed sequentially along a return direction of the condensate liquid, and the first pressure sensor , the second pressure sensor , and the temperature sensor are disposed upstream of the flow control valve ; the first pressure sensor , the second pressure sensor , the temperature sensor , and the flow control valve are each communicatively connected to the controller ; and the first pressure sensor is provided on a first pipeline connecting the heat exchange device and the temperature buffer tank , and the second pressure sensor , the temperature sensor , and the flow control valve are all provided on a second pipeline connecting the temperature buffer tank and a main feedwater line . the flow control device comprises a first pressure sensor , a second pressure sensor , a temperature sensor , a flow control valve , and a controller , wherein the first pressure sensor , the second pressure sensor , the temperature sensor , and the flow control valve are disposed in a return line of a condensate liquid; the first pressure sensor and the second pressure sensor are disposed sequentially along a return direction of the condensate liquid, and the first pressure sensor , the second pressure sensor , and the temperature sensor are disposed upstream of the flow control valve ; the first pressure sensor , the second pressure sensor , the temperature sensor , and the flow control valve are each communicatively connected to the controller ; and the first pressure sensor is provided on a first pipeline connecting the heat exchange device and the temperature buffer tank , and the second pressure sensor , the temperature sensor , and the flow control valve are all provided on a second pipeline connecting the temperature buffer tank and a main feedwater line .
An air conditioner or refrigerator subassembly comprising: a first hose fitting ; a second hose fitting ; a bracket ; and a fastener , characterized by each of the first and second hose fittings comprising a cutout (160, 162; 310, 312; 410, 411; 822, 823) having a border (162, 164; 182, 184), at least two points on the border defining a radius of curvature, the first and second hose fittings being couplable to the bracket such that the first and second cutouts define a recess for receiving the fastener, the recess having a central axis aligned with a longitudinal dimension of the fastener, the central axis being coaxial with a center of the radius of curvature of each of the cutouts. a first hose fitting ; a second hose fitting ; a bracket ; and a fastener , characterized by each of the first and second hose fittings comprising a cutout (160, 162; 310, 312; 410, 411; 822, 823) having a border (162, 164; 182, 184), at least two points on the border defining a radius of curvature, the first and second hose fittings being couplable to the bracket such that the first and second cutouts define a recess for receiving the fastener, the recess having a central axis aligned with a longitudinal dimension of the fastener, the central axis being coaxial with a center of the radius of curvature of each of the cutouts.
Method for spatially manipulating a microscopic object , said method comprising the steps of: providing a cantilever having a tip with an opening and a microchannel extending through the cantilever in its longitudinal direction, said microchannel being fluidly connected to the opening at the tip of the cantilever ; providing a probeholder attached to a micro-manipulating mechanism of an Atomic Force Microscope AFM for holding the cantilever and spatially moving the cantilever along a predetermined spatial path; providing pressurizing means for applying a predetermined pressure to the microchannel within the cantilever; moving the cantilever with its tip to the microscopic object to be spatially manipulated, such that the opening of the tip is adjacent to the microscopic object ; picking up, with said cantilever , the microscopic object as a whole by reducing the pressure within the microchannel relative to the pressure outside the tip of the cantilever , wherein a corresponding deflection (d) of the cantilever , which is due to an adhesion force acting between said microscopic object and the surface supporting said microscopic object , is used to calculate said adhesion force ; and wherein during picking up, the impedance through the opening of the cantilever is measured in order to characterize the tightness of the microscopic object closing the opening and moving said microscopic object as a whole in the x-y plane parallel to the surface along a predetermined spatial path by means of the cantilever after lift-off of the microscopic object.
A method of performing a HARQ, Hybrid Automatic Repeat reQuest, operation in a user equipment of a 3GPP wireless communication system, the method comprising: - starting a Time Alignment Timer, TAT, when a Timing Advance Command, TAC, is received, wherein the TAT is used to control how long a User Equipment, UE, is considered to have an uplink time aligned, and the TAC is time alignment information for an uplink time alignment; - attempting to decode received data in a buffer; - generating a positive acknowledgement, ACK, if the received data in the buffer is successfully decoded or a negative acknowledgement, NACK, if the received data in the buffer is not successfully decoded; wherein the generated ACK or NACK is not provided to a base station if the TAT is expired or stopped. - starting a Time Alignment Timer, TAT, when a Timing Advance Command, TAC, is received, wherein the TAT is used to control how long a User Equipment, UE, is considered to have an uplink time aligned, and the TAC is time alignment information for an uplink time alignment; - attempting to decode received data in a buffer; - generating a positive acknowledgement, ACK, if the received data in the buffer is successfully decoded or a negative acknowledgement, NACK, if the received data in the buffer is not successfully decoded;
A filter for producing a water composition containing silicic acid and hydrogen gas ; characterized by a carrier and a nano silicon material supported on said carrier , said nano silicon material is present in an amount not lower than 10 wt% based on the weight of said filter .
A method of wireless communication by a transmitting device, comprising: bundling a demodulation reference signal, DMRS, associated with at least eight orthogonal DMRS ports across a plurality of slots including at least a first slot and a second slot, the first slot having a single symbol for a first set of the DMRS ports and a plurality of additional symbols for data, the second slot having a single symbol for a second set of the DMRS ports and a plurality of additional symbols for data; transmitting the bundled DMRS in the single symbol of the first slot for the first set of DMRS ports and in the single symbol of the second slot for the second set of DMRS ports; and transmitting data in other symbols of the plurality of additional symbols of the first slot and the plurality of additional symbols of the second slot. bundling a demodulation reference signal, DMRS, associated with at least eight orthogonal DMRS ports across a plurality of slots including at least a first slot and a second slot, the first slot having a single symbol for a first set of the DMRS ports and a plurality of additional symbols for data, the second slot having a single symbol for a second set of the DMRS ports and a plurality of additional symbols for data; transmitting the bundled DMRS in the single symbol of the first slot for the first set of DMRS ports and in the single symbol of the second slot for the second set of DMRS ports; and transmitting data in other symbols of the plurality of additional symbols of the first slot and the plurality of additional symbols of the second slot.
Vacuum cleaner comprising a drive unit container and a separator container having a carrying handle , the drive unit container and the separator container being detachably connected and the carrying handle being rotatably movably arranged on the separator container such that when the carrying handle is raised in a rotational manner, the separator container is detached from the drive unit container and can be removed upwards, relative to a direction of travel of the vacuum cleaner, characterised in that the drive unit container comprises guideways along which the separator container is guided when the carrying handle is raised in a rotational manner.
A method in a radio network device (10; 11) of utilizing the same receiver circuitry to receive signals in both cellular and non-cellular radio access technologies, wherein both the cellular and non-cellular radio access technologies are deployed in non-licensed spectrum, the radio network device (10; 11) being connected to a cellular radio access technology in License Assisted Access, LAA, extension to the Long Term Evolution, LTE, protocol, the method comprising: detecting a need to send data or measure on a non-cellular radio access technology requiring use of shared receiver circuitry ; sending an exclusion request for LAA Secondary Cell exclusion to a serving network node of the cellular radio access technology, wherein the exclusion request comprises a throttling request or a deactivation request, the throttling request requesting that no cellular traffic be scheduled to the radio network device (10; 11) for at least a first duration and the deactivation request requesting that cellular traffic to the radio network device (10; 11) be suspended; receiving an exclusion request acknowledgement from the serving network node ; entering a sharing mode; and in the sharing mode, utilizing the shared receiver circuitry to access the non-cellular radio access technology at least part of the time. detecting a need to send data or measure on a non-cellular radio access technology requiring use of shared receiver circuitry ; sending an exclusion request for LAA Secondary Cell exclusion to a serving network node of the cellular radio access technology, wherein the exclusion request comprises a throttling request or a deactivation request, the throttling request requesting that no cellular traffic be scheduled to the radio network device (10; 11) for at least a first duration and the deactivation request requesting that cellular traffic to the radio network device (10; 11) be suspended; receiving an exclusion request acknowledgement from the serving network node ; entering a sharing mode; and in the sharing mode, utilizing the shared receiver circuitry to access the non-cellular radio access technology at least part of the time.
A thermoformable water-based printing ink or coating composition comprising: a) 1 wt% to 60 wt% one or more acrylic emulsions; b) 5 wt% to 15 wt% one or more styrene acrylic emulsions; c) 0.1 wt% to 10 wt% adhesion promoter; and d) water. a) 1 wt% to 60 wt% one or more acrylic emulsions; b) 5 wt% to 15 wt% one or more styrene acrylic emulsions; c) 0.1 wt% to 10 wt% adhesion promoter; and d) water.
A fuel cell system , comprising: a fuel cell configured to generate electricity using a fuel gas and an oxygen-containing gas; an oxygen-containing gas supply configured to supply the oxygen-containing gas to the fuel cell ; a power level regulator configured to regulate a power level of the fuel cell ; and a controller configured to control the oxygen-containing gas supply and the power level regulator , wherein the controller controls the oxygen-containing gas supply and the power level regulator to cause the power level of the fuel cell controllable by the power level regulator and an oxygen-containing gas utilization (Ua) to have an increase-control section in which the oxygen-containing gas utilization (Ua) increases in accordance with an increase in the power level of the fuel cell , a first section in which the oxygen-containing gas utilization (Ua) is constant against an increase in the power level of the fuel cell , and a decrease-control section in which the oxygen-containing gas utilization (Ua) decreases in accordance with an increase in the power level of the fuel cell , in this order, and the oxygen-containing gas utilization (Ua) is a ratio of an amount of the oxygen-containing gas used by the fuel cell for power generation to an amount of the oxygen-containing gas supplied to the fuel cell . a fuel cell configured to generate electricity using a fuel gas and an oxygen-containing gas; an oxygen-containing gas supply configured to supply the oxygen-containing gas to the fuel cell ; a power level regulator configured to regulate a power level of the fuel cell ; and a controller configured to control the oxygen-containing gas supply and the power level regulator , wherein the controller controls the oxygen-containing gas supply and the power level regulator to cause the power level of the fuel cell controllable by the power level regulator and an oxygen-containing gas utilization (Ua) to have an increase-control section in which the oxygen-containing gas utilization (Ua) increases in accordance with an increase in the power level of the fuel cell , a first section in which the oxygen-containing gas utilization (Ua) is constant against an increase in the power level of the fuel cell , and a decrease-control section in which the oxygen-containing gas utilization (Ua) decreases in accordance with an increase in the power level of the fuel cell , in this order, and the oxygen-containing gas utilization (Ua) is a ratio of an amount of the oxygen-containing gas used by the fuel cell for power generation to an amount of the oxygen-containing gas supplied to the fuel cell .
Quinolone antibiotic of the general formula I, II, III or IV: wherein R 1 in formula I and formula IV is H, halogen, or NH 2 , R 1 in formula II and formula III is halogen, or NH 2 , R 2 is halogen, or H, R 3 is or the residue of an amino acid after amidic bonding to the quinolone basic skeleton, wherein the carbonyl group adjacent to R 3 is derived from the acid function of the amino acid; wherein the amino acid is selected from: R 4 is H, OCH 3 , OCHF 2 , CN, C 1-6 alkoxy, halogen, or NH 2 R 5 is H and R 6 is selected from Cyclopropyl Cyclobutyl Ethyl Propyl Methyl for use in the treatment of bacterial infections. R 1 in formula I and formula IV is H, halogen, or NH 2 , R 1 in formula II and formula III is halogen, or NH 2 , R 2 is halogen, or H, R 3 is or the residue of an amino acid after amidic bonding to the quinolone basic skeleton, wherein the carbonyl group adjacent to R 3 is derived from the acid function of the amino acid; wherein the amino acid is selected from: R 4 is H, OCH 3 , OCHF 2 , CN, C 1-6 alkoxy, halogen, or NH 2 R 5 is H and R 6 is selected from Cyclopropyl Cyclobutyl Ethyl Propyl Methyl for use in the treatment of bacterial infections.
Electrically controllable interference colour filter, comprising at least two transparent electrodes , two orientation layers as well as a nematic liquid crystal layer between both transparent electrodes and orientation layers , wherein the nematic liquid crystal layer and the two orientation layers being in direct contact for orientation of the liquid crystals, wherein by applying an electrical field between both transparent electrodes the transmission wavelength range of the interference colour filter is displaceable by reorientation of the liquid crystals, wherein the nematic liquid crystal layer has a layer thickness in the range of 100 nm to 1,000 nm, wherein the interference colour filter has two dielectric reflective layers , one each on the side of the orientation layers opposite to the liquid crystal layer , wherein the two orientation layers are monomolecular and bonded chemically covalently to the two dielectric reflective layers and wherein the base structures of the two orientation layers are selected from the group of photo reactive ethane groups consisting of coumar-, phenylacryl-, 3-(2-furyl)acryl, 3-(2-thienyl)acryl- and trans-stilbene derivatives.
An optical element for use in a camera system for the inspection of wellbore passageways, the element comprising an optical layer having opposing first and second end faces, and the optical layer comprising: - a first optical portion arranged to transmit light into a camera, the first optical portion having opposing front and rear faces ; - a second optical portion arranged to transmit light emitted from a light source, said second optical portion located adjacent said first optical portion and said second optical portion having opposing front and rear faces , the front faces of the first and second optical portions being co-planar and forming said first end face of the optical layer , and the rear faces of the first and second optical portions being co-planar and forming said second end face of the optical layer ; and - barrier means arranged to prevent light being transmitted from said second optical portion into said first optical portion , characterised in that the optical element further comprises a base plate made of titanium attached to said second end face of the optical layer and the first and second optical portions are bonded to the base plate by diffusion bonding. - a first optical portion arranged to transmit light into a camera, the first optical portion having opposing front and rear faces ; - a second optical portion arranged to transmit light emitted from a light source, said second optical portion located adjacent said first optical portion and said second optical portion having opposing front and rear faces , the front faces of the first and second optical portions being co-planar and forming said first end face of the optical layer , and the rear faces of the first and second optical portions being co-planar and forming said second end face of the optical layer ; and - barrier means arranged to prevent light being transmitted from said second optical portion into said first optical portion , characterised in that the optical element further comprises a base plate made of titanium attached to said second end face of the optical layer and the first and second optical portions are bonded to the base plate by diffusion bonding.
A method for a gNB-distributed unit, gNB-DU, in a wireless communication system, the method comprising: establishing (S1201) an F1 interface between the gNB-DU and a gNB-central unit, gNB-CU; receiving (S1202) a radio resource control, RRC, connection request message from a wireless device; forwarding (S1203) the RRC connection request message to the gNB-CU via the F1 interface between the gNB-DU and the gNB-CU; receiving a first message comprising a signaling radio bearer, SRB, identity, ID, from the gNB-CU; establishing (S1206) an SRB related to the received SRB ID; and transmitting (S1207) a second message comprising an SRB ID related to the established SRB. establishing (S1201) an F1 interface between the gNB-DU and a gNB-central unit, gNB-CU; receiving (S1202) a radio resource control, RRC, connection request message from a wireless device; forwarding (S1203) the RRC connection request message to the gNB-CU via the F1 interface between the gNB-DU and the gNB-CU; receiving a first message comprising a signaling radio bearer, SRB, identity, ID, from the gNB-CU; establishing (S1206) an SRB related to the received SRB ID; and transmitting (S1207) a second message comprising an SRB ID related to the established SRB.
A composition comprising one or more ethylcellulose polymer(s), one or more oil(s), and stearic acid, wherein the stearic acid is present in an amount of 0.5% to 15% by weight based on the weight of the composition, with the proviso that, if any surfactants other than stearic acid are present in the composition, the surfactants other than stearic acid are present in a total amount of 1% or less, by weight based on the weight of the composition.
A bias tyre for a two-wheel vehicle , the tyre comprising: a tread portion defining a pair of tread edges (Te), the tread edges (Te) being outermost edges of the tread portion in the tyre axial direction; a pair of sidewall portions ; a carcass having a bias structure; a pair of sidewall rubber portions forming an outer surface of the pair of sidewall portion ; and a tread rubber forming an outer surface of the tread portion and connected to the pair of sidewall rubber portions to form a pair of boundary surfaces therebetween, outer end portions in the tyre axial direction of the tread rubber being connected to the sidewall rubber portions via the boundary surfaces , wherein outermost ends in a tyre axial direction of the pair of boundary surfaces are located on an outer surface of the tyre and inwardly in a tyre radial direction of the respective tread edges (Te), characterized in that innermost ends in the tyre axial direction of the boundary surfaces are located outwardly in the tyre radial direction of the tread edges (Te). a tread portion defining a pair of tread edges (Te), the tread edges (Te) being outermost edges of the tread portion in the tyre axial direction; a pair of sidewall portions ; a carcass having a bias structure; a pair of sidewall rubber portions forming an outer surface of the pair of sidewall portion ; and a tread rubber forming an outer surface of the tread portion and connected to the pair of sidewall rubber portions to form a pair of boundary surfaces therebetween, outer end portions in the tyre axial direction of the tread rubber being connected to the sidewall rubber portions via the boundary surfaces , wherein outermost ends in a tyre axial direction of the pair of boundary surfaces are located on an outer surface of the tyre and inwardly in a tyre radial direction of the respective tread edges (Te), characterized in that innermost ends in the tyre axial direction of the boundary surfaces are located outwardly in the tyre radial direction of the tread edges (Te).