mhurhangee/ep-ind-claims huggingface dataset:
A water-based ink for ink-jet recording comprising: a pigment, a surfactant, and water; wherein a slope value of the water-based ink at an evaporation rate of 0% is not more than 15%/hour, and a slope value of the water-based ink at an evaporation rate of 30% is not less than 9%/hour, the slope value of the water-based ink being measured by a centrifugal transmission sedimentation method; the average particle size of the pigment is in a range of 140 nm to 160 nm, the average particle size being measured by using a dynamic light scattering particle size distribution measuring apparatus LB-550 manufactured by HORIBA, Ltd. so as to obtain the intensity of scattered light as the reference for the average particle size; and the solid content blending amount of the pigment in the entire amount of the water-based ink is in a range of 8% by weight to 10% by weight. a pigment, a surfactant, and water; wherein a slope value of the water-based ink at an evaporation rate of 0% is not more than 15%/hour, and a slope value of the water-based ink at an evaporation rate of 30% is not less than 9%/hour, the slope value of the water-based ink being measured by a centrifugal transmission sedimentation method; the average particle size of the pigment is in a range of 140 nm to 160 nm, the average particle size being measured by using a dynamic light scattering particle size distribution measuring apparatus LB-550 manufactured by HORIBA, Ltd. so as to obtain the intensity of scattered light as the reference for the average particle size; and the solid content blending amount of the pigment in the entire amount of the water-based ink is in a range of 8% by weight to 10% by weight.
In particular mobile suction-extraction device, provided with multiple radial fans, for particles or other foreign bodies, wherein the respective radial fan is provided with an intake opening for sucking-in of the particles removed during a machining operation and with an outlet opening for discharge of the particles into a collecting device, and wherein the radial fan has a fan wheel which is driven so as to be rotatable about an axis of rotation and which has a circumferential surface and which has an impact surface, facing the intake opening, for radially deflecting the particles or foreign bodies that strike the impact surface, characterized in that that the suction-extraction device has at least two radial fans having at least one collecting channel which sectionally surrounds the respective fan wheel over the circumference, wherein the fan wheels of adjacent radial fans of the suction-extraction device delimit a roller gap by way of their respective circumferential surfaces, and in that the respective collecting channel of the different adjacent fan wheels opens out into said roller gap.
A method for distributing a number of utilities to drivable mobile systems of a flexible manufacturing system within a manufacturing environment for building at least a portion of an aircraft fuselage, the number of utilities including at least one of: power; air; hydraulic fluid; communications; and water, the method comprising: coupling the number of utilities between a number of utility sources and a utility fixture, the utility fixture being embedded in a floor of manufacturing environment, mounted to a wall in manufacturing environment, mounted to a ceiling of manufacturing environment, or mounted to a surface of a structure in manufacturing environment; coupling the number of utilities between the utility fixture and a first mobile system of the drivable mobile systems; coupling the number of utilities between the first mobile system and a second mobile system of the drivable mobile systems, and thereby distributing the number of utilities downstream from the number of utility sources, through the utility fixture, to the mobile systems. coupling the number of utilities between a number of utility sources and a utility fixture, the utility fixture being embedded in a floor of manufacturing environment, mounted to a wall in manufacturing environment, mounted to a ceiling of manufacturing environment, or mounted to a surface of a structure in manufacturing environment; coupling the number of utilities between the utility fixture and a first mobile system of the drivable mobile systems; coupling the number of utilities between the first mobile system and a second mobile system of the drivable mobile systems, and thereby distributing the number of utilities downstream from the number of utility sources, through the utility fixture, to the mobile systems.
A mounting device for mounting an object on a circuit board, wherein the object has a through hole and the circuit board has at least one plated hole; the mounting device comprising: a penetrating portion configured to pass through the through hole of the object and having two ends; the penetrating portion comprising: two surfaces; a groove recessed on one of the surfaces of the penetrating portion; and a protrusion protruding out of the other surface of the penetrating portion; an abutting portion disposed on one of the ends of the penetrating portion and being capable of abutting an edge of an opening of the through hole of the object; and a pin portion disposed on the other end, opposite the abutting portion, of the penetrating portion, the pin portion comprising: at least one pin configured to pass through the at least one plated hole of the circuit board and be soldered in the at least one plated hole, the mounting device being characterized in that the groove and the protrusion extend to the pin portion, and the groove and the protrusion correspond to each other in location. a penetrating portion configured to pass through the through hole of the object and having two ends; the penetrating portion comprising: two surfaces; a groove recessed on one of the surfaces of the penetrating portion; and a protrusion protruding out of the other surface of the penetrating portion; two surfaces; a groove recessed on one of the surfaces of the penetrating portion; and a protrusion protruding out of the other surface of the penetrating portion; an abutting portion disposed on one of the ends of the penetrating portion and being capable of abutting an edge of an opening of the through hole of the object; and a pin portion disposed on the other end, opposite the abutting portion, of the penetrating portion, the pin portion comprising: at least one pin configured to pass through the at least one plated hole of the circuit board and be soldered in the at least one plated hole, the mounting device being characterized in that the groove and the protrusion extend to the pin portion, and the groove and the protrusion correspond to each other in location.
A battery module, characterized in comprising: a plurality of battery units connected in series; at least two electrode output connecting pieces each disposed at an output end of the battery module; a plurality of bridging busbars, each of plurality of bridging busbars connecting two battery units spaced by another battery unit or more battery units among the plurality of battery units, wherein the plurality of bridging busbars is provided with a protective sleeve made of an insulating material to prevent the plurality of bridging busbars from contacting corresponding battery units bridged by the plurality of bridging busbars; and an adjacent busbar connecting two adjacent battery units among the plurality of battery units, wherein an electrical connection path is formed in the battery module by the at least two electrode output connecting pieces, the bridging busbars and the adjacent busbar. a plurality of battery units connected in series; at least two electrode output connecting pieces each disposed at an output end of the battery module; a plurality of bridging busbars, each of plurality of bridging busbars connecting two battery units spaced by another battery unit or more battery units among the plurality of battery units, wherein the plurality of bridging busbars is provided with a protective sleeve made of an insulating material to prevent the plurality of bridging busbars from contacting corresponding battery units bridged by the plurality of bridging busbars; and an adjacent busbar connecting two adjacent battery units among the plurality of battery units, wherein an electrical connection path is formed in the battery module by the at least two electrode output connecting pieces, the bridging busbars and the adjacent busbar.
A device for transferring labels (E, E') in a labeling machine with at least two retaining elements for holding labels (E, E'), wherein the retaining elements are mounted offset in the circumferential direction around a gripper cylinder axle of a gripper cylinder, and wherein the device comprises mechanical control means which are configured to change the relative speed between the retaining elements in the circumferential direction of the gripper cylinder; characterized in that the radial distance from the central axle of the gripper cylinder remains unchanged for each of the retaining elements.
A method for recovering acrylic acid from a mixture containing acrylic acid, acrylic acid dimer and impurities with high boiling point, wherein the mixture is obtained from the bottom of a separation tower for separating impurities with high boiling point, which comprises the steps of: introducing the mixture into an acrylic acid recovering device comprising an acrylic acid distillation unit integrated with an acrylic acid dimer pyrolysis tank, wherein the acrylic acid distillation unit is a thin film evaporator, and wherein a tray distillation column whose theoretical plate number is 1-5 is added to the top of the acrylic acid recovering device; carrying out decomposition of acrylic acid dinner under reduced pressure at a lower part of the acrylic acid recovering device, while recovering acrylic acid by distillation under reduced pressure from a top of the acrylic acid recovering device, wherein the acrylic acid recovering device is operated under reduced pressure ranging from 0.67 to 21.33 kPa (5 to 160 mmHg), and retention time at the bottom of the acrylic acid recovering device is 10 to 30 hours; and recycling the stream which is recovered from the top of the acrylic acid recovering device to the separation tower, and wherein the pyrolysis tank is disposed at the lower part of the acrylic acid recovering device and the evaporator is disposed at the upper part of the acrylic acid recovering device.
A method of measuring ion production within a sample fluid due to a chemical reaction, the method relying upon sigma delta modulation and comprising the steps of: exposing a chemical sensor to the sample to provide an electrical output signal representing an ion concentration within the sample; calculating, from said electrical output signal, a delta feedback value representing a change rate of ion concentration of the sample; providing the delta feedback value to a titrator exposed to the sample to release or absorb a quantity of ions to the sample fluid, whereby the sigma modulator is established by the ion concentration profile of the sample fluid; and deriving an ion production result from said electrical output signal. exposing a chemical sensor to the sample to provide an electrical output signal representing an ion concentration within the sample; calculating, from said electrical output signal, a delta feedback value representing a change rate of ion concentration of the sample; providing the delta feedback value to a titrator exposed to the sample to release or absorb a quantity of ions to the sample fluid, whereby the sigma modulator is established by the ion concentration profile of the sample fluid; and deriving an ion production result from said electrical output signal.
An intraocular lens (10, 53, 70, 78, 100) having an optical axis extending in an anterior-posterior direction and an equator extending in a plane substantially perpendicular to the optical axis, the IOL (10, 53, 70, 78, 100) comprising: an elastic anterior face (14, 62) located anterior to the equator; a posterior face (22, 48, 64, 84) located posterior to the equator, wherein the anterior face (14, 62), the posterior face (22, 48, 64, 84), or both comprises a poly(dimethylsiloxane) elastomer having a durometer between about 30 Shore A to about 50 Shore A; and a chamber (32, 94) located between the anterior face (14, 62) and the posterior face (22, 48, 64, 84) and comprising a silicone oil comprising polysiloxanes comprising diphenyl siloxane and dimethyl siloxane units, the silicone oil having a maximum viscosity of about 700 mm 2 /s at 25°C and having a mean molecular weight of between about 1,000 Daltons to about 3000 Daltons. an elastic anterior face (14, 62) located anterior to the equator; a posterior face (22, 48, 64, 84) located posterior to the equator, wherein the anterior face (14, 62), the posterior face (22, 48, 64, 84), or both comprises a poly(dimethylsiloxane) elastomer having a durometer between about 30 Shore A to about 50 Shore A; and a chamber (32, 94) located between the anterior face (14, 62) and the posterior face (22, 48, 64, 84) and comprising a silicone oil comprising polysiloxanes comprising diphenyl siloxane and dimethyl siloxane units, the silicone oil having a maximum viscosity of about 700 mm 2 /s at 25°C and having a mean molecular weight of between about 1,000 Daltons to about 3000 Daltons.
An X-ray apparatus including an X-ray tube including a cathode part with a filament and an anode part with a target, a power source (8, 11) that supplies electricity to the X-ray tube, and a controlling mechanism that performs control involving controlling a filament current flowing through the filament to maintain constant a tube current flowing through the X-ray tube, characterized in that the X-ray apparatus comprises: a current monitoring mechanism that monitors a current value of at least one of the filament current and the tube current; a detecting mechanism that detects a mode of change in the current value acquired by the current monitoring mechanism, the mode of change including at least a frequency of a waveform which is generated by a time-series change in the current value; a determining mechanism that determines that a sign of breakage of the filament is present in case the frequency of the mode of change in the current value detected by the detecting mechanism is less than a predetermined threshold; and a warning mechanism that issues a warning based on the determination by the determining mechanism. a current monitoring mechanism that monitors a current value of at least one of the filament current and the tube current; a detecting mechanism that detects a mode of change in the current value acquired by the current monitoring mechanism, the mode of change including at least a frequency of a waveform which is generated by a time-series change in the current value; a determining mechanism that determines that a sign of breakage of the filament is present in case the frequency of the mode of change in the current value detected by the detecting mechanism is less than a predetermined threshold; and a warning mechanism that issues a warning based on the determination by the determining mechanism.
An integrated circuit to control a process, the process comprising: mapping sounding reference signals, SRSs, to frequency resources; and transmitting the mapped SRSs, characterized in that each of the frequency resources has a fixed bandwidth regardless of variation of a SRS transmission bandwidth in a system bandwidth, to both ends of which control channels are mapped, the SRS transmission bandwidth covers a frequency band subject to estimation of channel quality information, and the SRS transmission bandwidth is uniformly divided into the frequency resources. mapping sounding reference signals, SRSs, to frequency resources; and transmitting the mapped SRSs, characterized in that each of the frequency resources has a fixed bandwidth regardless of variation of a SRS transmission bandwidth in a system bandwidth, to both ends of which control channels are mapped, the SRS transmission bandwidth covers a frequency band subject to estimation of channel quality information, and the SRS transmission bandwidth is uniformly divided into the frequency resources.
Method for moving a vehicle out of a parking space at a level which is raised at a kerb compared to a current ground level, comprising the steps: determining a trajectory for moving the vehicle out of a parking space, moving the vehicle along the trajectory, detecting a kerb edge when the kerb edge is reached by a first wheel in a direction of movement of the vehicle which is defined by the trajectory, and when it is detected that the kerb edge has been reached with the first wheel, braking the vehicle in order to conclude the process of moving out of a parking space, characterized in that the step of detecting a kerb edge when the kerb edge is reached with a first wheel in a direction of movement of the vehicle which is defined by the trajectory comprises detecting the spinning of the first wheel at the kerb edge. determining a trajectory for moving the vehicle out of a parking space, moving the vehicle along the trajectory, detecting a kerb edge when the kerb edge is reached by a first wheel in a direction of movement of the vehicle which is defined by the trajectory, and when it is detected that the kerb edge has been reached with the first wheel, braking the vehicle in order to conclude the process of moving out of a parking space, characterized in that the step of detecting a kerb edge when the kerb edge is reached with a first wheel in a direction of movement of the vehicle which is defined by the trajectory comprises detecting the spinning of the first wheel at the kerb edge.
An LED lamp single live wire intelligent control device for connection to an AC power supply, comprising: at least one LED lamp half-wave driving member, a single live wire control circuit connected in series with the at least one LED lamp half-wave driving member on an AC loop; and at least one control output circuit connected in series with the single live wire control circuit on the same AC loop; wherein the at least one LED lamp half-wave driving member comprises a DC driver and a first rectifier diode connected in parallel with the DC driver of a LED lamp; wherein the single live wire control circuit comprises a half-wave DC power supply circuit and a CPU control circuit; characterised in that the half-wave DC power supply circuit comprises a DC power circuit and a second rectifier diode connected in parallel with the DC power circuit; a conduction direction of the second rectifier diode in the same AC loop is opposite to the conduction direction of the first rectifier diode of the at least one LED lamp half-wave driving member in the same AC loop; and in that the at least one control output circuit comprises at least one switch element and a third rectifier diode connected in parallel with the at least one switch element; the CPU control circuit is connected with the DC power circuit and the at least one switch element; and a conduction direction of the third rectifier diode in the same AC loop is the same as the conduction direction of the first rectifier diode of the at least one LED lamp half-wave driving member in the same AC loop. at least one LED lamp half-wave driving member, a single live wire control circuit connected in series with the at least one LED lamp half-wave driving member on an AC loop; and at least one control output circuit connected in series with the single live wire control circuit on the same AC loop; wherein the at least one LED lamp half-wave driving member comprises a DC driver and a first rectifier diode connected in parallel with the DC driver of a LED lamp; wherein the single live wire control circuit comprises a half-wave DC power supply circuit and a CPU control circuit; characterised in that the half-wave DC power supply circuit comprises a DC power circuit and a second rectifier diode connected in parallel with the DC power circuit; a conduction direction of the second rectifier diode in the same AC loop is opposite to the conduction direction of the first rectifier diode of the at least one LED lamp half-wave driving member in the same AC loop; and in that the at least one control output circuit comprises at least one switch element and a third rectifier diode connected in parallel with the at least one switch element; the CPU control circuit is connected with the DC power circuit and the at least one switch element; and a conduction direction of the third rectifier diode in the same AC loop is the same as the conduction direction of the first rectifier diode of the at least one LED lamp half-wave driving member in the same AC loop.
A packet sending method, wherein the method comprises: receiving (401, 1003), by a first edge network device, a first packet comprising a target segment identifier from an ingress provider edge device in a first network, generating (402, 1004), by the first edge network device based on the first packet, a second packet comprising a first label, wherein there is a mapping relationship between the first label and the target segment identifier; and sending (403, 1005), by the first edge network device, the second packet to a customer edge device in a second network; wherein the first edge network device is an egress provider edge, PE, device in the first network in a carrier's carrier, CSC, system, the CSC system further comprises the second network, the first network is an Internet Protocol version 6 segment routing, SRv6 network, the second network accesses the first network in a multiprotocol label switching, MPLS manner, the first network is a network of a tier-1 carrier, and the second network is a network of a tier-2 carrier. receiving (401, 1003), by a first edge network device, a first packet comprising a target segment identifier from an ingress provider edge device in a first network, generating (402, 1004), by the first edge network device based on the first packet, a second packet comprising a first label, wherein there is a mapping relationship between the first label and the target segment identifier; and sending (403, 1005), by the first edge network device, the second packet to a customer edge device in a second network; wherein the first edge network device is an egress provider edge, PE, device in the first network in a carrier's carrier, CSC, system, the CSC system further comprises the second network, the first network is an Internet Protocol version 6 segment routing, SRv6 network, the second network accesses the first network in a multiprotocol label switching, MPLS manner, the first network is a network of a tier-1 carrier, and the second network is a network of a tier-2 carrier.