mhurhangee/patent-ind-claim-en huggingface dataset:
A heat exchanger tube block configured to be stacked on another heat exchanger tube block in an upper-lower direction and connected to the another heat exchanger tube block, the heat exchanger tube block comprising: a duct casing in which exhaust gas containing dust can flow in the upper-lower direction; a heat exchanger tube located in the duct casing and extending in a horizontal direction; an inlet header connected to an inlet of the heat exchanger tube; an outlet header connected to an outlet of the heat exchanger tube; and a vibration transmitting member configured to transmit vibration, applied to an upper end part of the vibration transmitting member, to the heat exchanger tube to make the dust accumulating on the heat exchanger tube fall, wherein upper and lower surfaces of the duct casing are open; the duct casing is formed in a tubular shape having a substantially rectangular section; a lower end of the duct casing is formed horizontally; an upper end of the duct casing is formed horizontally; the inlet header is located higher than the lower end of the duct casing; and the outlet header is located higher than the lower end of the duct casing. a duct casing in which exhaust gas containing dust can flow in the upper-lower direction; a heat exchanger tube located in the duct casing and extending in a horizontal direction; an inlet header connected to an inlet of the heat exchanger tube; an outlet header connected to an outlet of the heat exchanger tube; and a vibration transmitting member configured to transmit vibration, applied to an upper end part of the vibration transmitting member, to the heat exchanger tube to make the dust accumulating on the heat exchanger tube fall, wherein upper and lower surfaces of the duct casing are open; the duct casing is formed in a tubular shape having a substantially rectangular section; a lower end of the duct casing is formed horizontally; an upper end of the duct casing is formed horizontally; the inlet header is located higher than the lower end of the duct casing; and the outlet header is located higher than the lower end of the duct casing.
A four-layer-structured water passing device, comprising: an elastic inner tube and an outer cloth sheath , characterized in that the exterior of the elastic inner tube is sleeved with a first sleeve , the exterior of the first sleeve is sleeved with a second sleeve , and the outer cloth sheath is sleeved on the exterior of the second sleeve, both the elastic inner tube and the first sleeve are made of an elastic material, the second sleeve and the outer cloth sheath are synchronously extended and synchronously folded, and a gap existed between the second sleeve and the first sleeve; an inner-core cone connector and a first conical sleeve chuck are disposed at both ends of the elastic inner tube, the inner-core cone connector has a water passing hole, one end of the inner-core cone connector is inserted into the inner cavity of the elastic inner tube, the first conical sleeve chuck is sleeved on the exterior of the first sleeve, the inner cone connector cooperates with the first conical sleeve chuck to enable clamping of the elastic inner tube and the first sleeve, a second conical sleeve chuck is sleeved on the exteriors of the second sleeve and the outer cloth sheath, a union is sleeved on the exterior of the second conical sleeve chuck, and the second conical sleeve chuck cooperates with the union to enable tight pressing of the second sleeve and the outer cloth sheath onto the first conical sleeve chuck; and two ends of the elastic inner tube are respectively provided with a first joint and a second joint , the first joint and the second joint are respectively sleeved on the exterior of the inner-core cone connector, the first joint and the second joint each has a through hole which is communicated with the water passing hole, the first joint and the second joint are respectively threaded-connected to the union, and the first joint and the second joint are respectively connectable to an external water source and a water utilization component.
A method, comprising: monitoring, at a digital phase detector, a sequentially sampled input signal for sample transition information between the samples of the input signal: storing the sample transition information; determining, using the stored sample transition information, whether a first predetermined number of sequential samples have the same value or whether a second predetermined number of sequential samples have an alternating value; in response to said determining that a first predetermined number of consecutive signal samples of the received signal having a same value, reducing the sampling rate frequency of the received signal, and in response to said determining that a second predetermined number of consecutive signal samples of the received signal having an alternating value, increasing the sampling rate frequency of the received signal in response. storing the sample transition information; determining, using the stored sample transition information, whether a first predetermined number of sequential samples have the same value or whether a second predetermined number of sequential samples have an alternating value; in response to said determining that a first predetermined number of consecutive signal samples of the received signal having a same value, reducing the sampling rate frequency of the received signal, and in response to said determining that a second predetermined number of consecutive signal samples of the received signal having an alternating value, increasing the sampling rate frequency of the received signal in response.
Awning cloth having a cloth web which in a longitudinal direction (L) has two lateral peripheries , two longitudinal strips which along the lateral peripheries in a respective cloth peripheral region are connected to the cloth web , and guide elements which for guiding the awning cloth on both sides in guide rails of a shading device run at a spacing from the lateral peripheries , characterized in that the longitudinal strips across the entire width thereof are transversely elastic, and the guide elements are fastened to the longitudinal strips along a respective free strip periphery .
A rotor for a crushing machine , the rotor being formed by a rotor shaft having support discs disposed so as to be spaced apart in the axial direction of the rotor shaft, the rotor comprising a first fastener which serves for rotationally mounting blow tools between the support discs of the rotor, the rotor comprising a second fastener which serves for fixedly holding blow bars on the support discs of the rotor, the rotor comprising blow tools and/or blow bars, the second fastener forming a receiving groove for the blow bar , the second fastener being formed by two profile elements , the profile elements forming the receiving groove for the blow bar, characterized in that the blow bar is substituted by a covering bar, the covering bar closing the receiving groove without the covering bar projecting beyond the receiving groove in the radial direction.
A method for manufacturing a sheet, the method comprising: receiving a supply of an elastic polymer material and a binding material and a fabric sheet ; and forming a material sheet comprising: a first layer comprising the elastic polymer material , a second layer comprising the binding material , an intermediate layer , between the first layer and the second layer, the intermediate layer comprising a mixture of the elastic polymer material and the binding material, and a fabric layer comprising the fabric sheet bonded to the second layer , characterised in that the elastic polymer material is PVC or TPU and the binding material is a polyurethane reactive hot-melt adhesive. receiving a supply of an elastic polymer material and a binding material and a fabric sheet ; and forming a material sheet comprising: a first layer comprising the elastic polymer material , a second layer comprising the binding material , an intermediate layer , between the first layer and the second layer, the intermediate layer comprising a mixture of the elastic polymer material and the binding material, and a fabric layer comprising the fabric sheet bonded to the second layer , characterised in that the elastic polymer material is PVC or TPU and the binding material is a polyurethane reactive hot-melt adhesive. a first layer comprising the elastic polymer material , a second layer comprising the binding material , an intermediate layer , between the first layer and the second layer, the intermediate layer comprising a mixture of the elastic polymer material and the binding material, and a fabric layer comprising the fabric sheet bonded to the second layer , characterised in that the elastic polymer material is PVC or TPU and the binding material is a polyurethane reactive hot-melt adhesive.
One or more computer-readable media having computer-executable instructions embodied thereon that, when executed, perform a method for metering various data flows of packets originating from a plurality of virtual machines, VMs, instantiated on a single physical node , the method comprising: inspecting one or more quality of service, QoS, policies written to a contract, wherein the contract governs allocation of network resources to a first client; depositing tokens into a first token-bucket queue based, in part, on the one or more QoS policies of the first-client contract, wherein the first token-bucket queue is assigned to a first VM instantiated on the physical node; detecting the first VM is in an active state based on a depletion of the deposited tokens from the first token-bucket queue, wherein, when the first VM is in the active state, a portion of the deposited tokens are withdrawn from the first token-bucket queue as a function of a rate of the data flow from the first VM; and reloading tokens into the first token-bucket queue based, in part, on the one or more QoS policies and a portion of the deposited tokens remaining in the first token-bucket queue. inspecting one or more quality of service, QoS, policies written to a contract, wherein the contract governs allocation of network resources to a first client; depositing tokens into a first token-bucket queue based, in part, on the one or more QoS policies of the first-client contract, wherein the first token-bucket queue is assigned to a first VM instantiated on the physical node; detecting the first VM is in an active state based on a depletion of the deposited tokens from the first token-bucket queue, wherein, when the first VM is in the active state, a portion of the deposited tokens are withdrawn from the first token-bucket queue as a function of a rate of the data flow from the first VM; and reloading tokens into the first token-bucket queue based, in part, on the one or more QoS policies and a portion of the deposited tokens remaining in the first token-bucket queue.
Polymer composition comprising an ethylene homopolymer and an ethylene copolymer comprising a comonomer in an amount of at least 0.55 mol% with respect to the total amount of monomer in the ethylene copolymer, wherein the ethylene copolymer has a higher weight average molecular weight than the ethylene homopolymer, the polymer composition has a density in the range of 0.950-0.965 g/cm 3 measured according to ASTM D 1505, a melt flow rate MFR 2 of at least 0.3 g/10 minutes measured according to ASTM D 1238, a weight average molecular weight of at least 100,000 g/mol, a viscosity at an angular frequency of 0.01 [1/s], η 0.01 , of at least 20,000 Pa.s measured using controlled stress rheometer model MCR-301 from Anton-Paar with the geometry being plate-plate 25 mm diameter at the measurement gap 1 mm, the dynamic oscillatory shear performing at angular frequence 0.01-600 rad/s at 190°C under nitrogen atmosphere, the sample preparation being performed to circular disk 25 mm by compression molding at 190°C and the viscosity at 0,01 [1/s] being obtained from complex viscosity at a specific shear rate of 0.01 [1/s]; wherein the polymer composition has an Isothermal Crystallization Half-Time, which is less than 10 minute at 123°C,wherein the Isothermal Crystallization Half-Time at 123°C is measured by DSC is measured under the following conditions: heating the sample from 30°C to 200°C at a heating rate of 50°C/min and holding for 5 min, then cooling down to 123°C at a cooling rate of 50°C/min and holding for 60 min; and a Full Notch Creep Test of at least 60 hours according to ISO 16770; the comonomer is selected from the group consisting of C4-10 alpha-olefins, preferably 1-butene, 1-pentene, 1-hexene, 1-heptene, 1-octene or mixtures thereof; wherein the amount of co-monomer is in the range of 0.55 mol% to 1.5 mol, % with respect to the total amount of monomer in the ethylene copolymer; wherein the melt flow rate MFR2 of the polymer composition is in the range of 0.3-2.0 g/10 minutes. the polymer composition has an Isothermal Crystallization Half-Time, which is less than 10 minute at 123°C,wherein the Isothermal Crystallization Half-Time at 123°C is measured by DSC is measured under the following conditions: heating the sample from 30°C to 200°C at a heating rate of 50°C/min and holding for 5 min, then cooling down to 123°C at a cooling rate of 50°C/min and holding for 60 min; and a Full Notch Creep Test of at least 60 hours according to ISO 16770; the comonomer is selected from the group consisting of C4-10 alpha-olefins, preferably 1-butene, 1-pentene, 1-hexene, 1-heptene, 1-octene or mixtures thereof; wherein the amount of co-monomer is in the range of 0.55 mol% to 1.5 mol, % with respect to the total amount of monomer in the ethylene copolymer; wherein the melt flow rate MFR2 of the polymer composition is in the range of 0.3-2.0 g/10 minutes.
A run- flat radial tire comprising: a carcass that straddles between a pair of bead portions; side-reinforcing rubber that is provided at a tire side portion , and that extends in a tire radial direction along an inner face of the carcass ; a belt layer that includes at least two layers and that is provided at a tire radial direction outer side of the carcass , each layer including a cord extending in a direction inclined with respect to a tire circumferential direction such that the cords of the belt layer intersect each other as viewed along the tire radial direction; and a tread that is provided at the tire radial direction outer side of the belt layer ; a tire cross-section height SH satisfying SH ≥ 145 mm, a ground contact width TW of the tread and a maximum tire width direction width B of the belt layer satisfying TW < B, wherein the tire dimensions are as measured in a state in which the tire has been assembled to the standard rim and inflated to the standard pressure, and wherein the "standard rim" referred to here is a standard rim of the applicable size as specified in the 2015 edition of the Year Book of the Japan Automobile Tire Manufacturers Association (JATMA), and the "standard pressure" is the air pressure corresponding to the maximum load (namely, maximum load capacity) of a single wheel as specified in the same Year Book and characterized in that : in a tire width direction cross-section view, an angle θ formed between a tire outer face and the tire width direction at a position at 0.8SH toward the tire radial direction outer side of a bead base portion of the bead portions being no less than 60°. a carcass that straddles between a pair of bead portions; side-reinforcing rubber that is provided at a tire side portion , and that extends in a tire radial direction along an inner face of the carcass ; a belt layer that includes at least two layers and that is provided at a tire radial direction outer side of the carcass , each layer including a cord extending in a direction inclined with respect to a tire circumferential direction such that the cords of the belt layer intersect each other as viewed along the tire radial direction; and a tread that is provided at the tire radial direction outer side of the belt layer ; a tire cross-section height SH satisfying SH ≥ 145 mm, a ground contact width TW of the tread and a maximum tire width direction width B of the belt layer satisfying TW < B, wherein the tire dimensions are as measured in a state in which the tire has been assembled to the standard rim and inflated to the standard pressure, and wherein the "standard rim" referred to here is a standard rim of the applicable size as specified in the 2015 edition of the Year Book of the Japan Automobile Tire Manufacturers Association (JATMA), and
A method of multi-subframe scheduling, comprising: receiving a starting indication of the multi-subframe scheduling from a higher layer signaling; receiving a continuous scheduling indication indicating the number of continuously-scheduled subframes, a Hybrid Automatic Repeat Request, HARQ, process number corresponding to a first scheduled subframe and a scheduling configuration parameter of multi-subframe scheduling sent by a base station; acquiring a HARQ process number corresponding to a currently-scheduling subframe according to the HARQ process number corresponding to the first scheduled subframe and the continuous scheduling indication, and performing a data packet transmission of the corresponding HARQ process number in the currently-scheduling subframe by using the scheduling configuration parameter, wherein the HARQ process number corresponding to the currently-scheduling subframe is selected from currently-available HARQ process numbers according to the continuous scheduling indication; each scheduled subframe of the multi-subframe scheduling carrying one data packet, and each scheduled subframe of the multi-subframe scheduling using the scheduling configuration parameter. receiving a starting indication of the multi-subframe scheduling from a higher layer signaling; receiving a continuous scheduling indication indicating the number of continuously-scheduled subframes, a Hybrid Automatic Repeat Request, HARQ, process number corresponding to a first scheduled subframe and a scheduling configuration parameter of multi-subframe scheduling sent by a base station; acquiring a HARQ process number corresponding to a currently-scheduling subframe according to the HARQ process number corresponding to the first scheduled subframe and the continuous scheduling indication, and performing a data packet transmission of the corresponding HARQ process number in the currently-scheduling subframe by using the scheduling configuration parameter, wherein the HARQ process number corresponding to the currently-scheduling subframe is selected from currently-available HARQ process numbers according to the continuous scheduling indication; each scheduled subframe of the multi-subframe scheduling carrying one data packet, and each scheduled subframe of the multi-subframe scheduling using the scheduling configuration parameter.
Pane, comprising: - a substrate , - on a region of the substrate , an electrically conductive structure , - on a region of the electrically conductive structure , at least one electrical connection element , wherein the electrical connection element has a region crimped around a connection cable , wherein a solder material is disposed between the crimped region and the electrically conductive structure , such that the crimped region of the electrical connection element is directly connected to the electrically conductive structure via the solder material , characterized in that the connection element comprises at least a chromium-containing steel with a chromium proportion greater than or equal to 10.5 wt.-%, and the connection element is implemented i) as a closed crimp having the shape of a sleeve closed all around, or ii) as an open crimp, wherein the connection element has the shape of a B-crimp, an OVL-Crimp, or an O-crimp. - a substrate , - on a region of the substrate , an electrically conductive structure , - on a region of the electrically conductive structure , at least one electrical connection element , i) as a closed crimp having the shape of a sleeve closed all around, or ii) as an open crimp, wherein the connection element has the shape of a B-crimp, an OVL-Crimp, or an O-crimp.
A pharmaceutical composition comprising (a) a cyclodextrin, and (b) a compound of Formula (III) , or a pharmaceutically acceptable salt thereof.
A method of mass spectrometry comprising: providing a first population of ions; identifying the N most relatively abundant or intense species of ions in said first population of ions; selectively attenuating the identified N most relatively abundant or intense species of ions in said first population of ions relative to the other ion species in said first population of ions so as to form a second population of ions; and adjusting or optimising a total ion current of said second population of ions so as to form a third population of ions so that a total ion current of ions received by an ion detector or mass analyser is within a dynamic range of said ion detector or mass analyser, wherein said adjusting or optimising a total ion current comprises attenuating all species of ions substantially equally; wherein the method is iterated by varying the number of relatively abundant or intense species of ions which are selectively attenuated during the course of a time period T, and re-adjusting or optimising the total ion current of the second population of ions after the step of varying the number of relatively abundant or intense species of ions which are selectively attenuated, wherein the time period T is ≤ 10 s. providing a first population of ions; identifying the N most relatively abundant or intense species of ions in said first population of ions; selectively attenuating the identified N most relatively abundant or intense species of ions in said first population of ions relative to the other ion species in said first population of ions so as to form a second population of ions; and adjusting or optimising a total ion current of said second population of ions so as to form a third population of ions so that a total ion current of ions received by an ion detector or mass analyser is within a dynamic range of said ion detector or mass analyser, wherein said adjusting or optimising a total ion current comprises attenuating all species of ions substantially equally; wherein the method is iterated by varying the number of relatively abundant or intense species of ions which are selectively attenuated during the course of a time period T, and re-adjusting or optimising the total ion current of the second population of ions after the step of varying the number of relatively abundant or intense species of ions which are selectively attenuated, wherein the time period T is ≤ 10 s.