mhurhangee/ep-ind-claims huggingface dataset:
A label production method for producing labels using one label substrate, comprising: simultaneously passing, through a laminating device, a preceding label substrate passing through the laminating device for the second time and a succeeding label substrate passing through the laminating device for the first time; pseudo-adhering the preceding label substrate to the succeeding label substrate by the laminating device with a release agent applied to one of the preceding and succeeding label substrates and an adhesive applied to the other of the preceding and succeeding label substrates being joined together by the simultaneous passing through the laminating device of the preceding label substrate and the succeeding label substrate; and punching out a single label from the preceding label substrate by a cutting tooth of a punching device in the pseudo-adhered state while using the succeeding label substrate as a seat in the punching of the preceding label substrate. simultaneously passing, through a laminating device, a preceding label substrate passing through the laminating device for the second time and a succeeding label substrate passing through the laminating device for the first time; pseudo-adhering the preceding label substrate to the succeeding label substrate by the laminating device with a release agent applied to one of the preceding and succeeding label substrates and an adhesive applied to the other of the preceding and succeeding label substrates being joined together by the simultaneous passing through the laminating device of the preceding label substrate and the succeeding label substrate; and punching out a single label from the preceding label substrate by a cutting tooth of a punching device in the pseudo-adhered state while using the succeeding label substrate as a seat in the punching of the preceding label substrate.
A method for generating micro-nano bubbles, wherein the method uses water hammering power to generate micro-nano bubbles, having a diameter of 60μm or smaller, wherein micro-nano bubbles are generated by a mutual collision of jets of a dissolved liquid of a gas-liquid mixture state; the collision of jets is created inside a hollow cylinder having two or more small through-holes with a diameter of 0.1 to 6.0 mm, arrayed in the circumferential direction thereof with such a configuration that the respective openings of such two or more small through-holes are arranged facing each other in the same plane; and the jets of the dissolved liquid are produced by injecting the liquid from the outside of the hollow cylinder via the small through-holes in the hollow cylinder at a pressure higher than the atmospheric pressure; wherein the dissolved liquid of a gas-liquid mixture state is prepared by a method comprising: a sucking process that sucks gas and liquid; a pressurization process that pressurizes gas and liquid; and a dissolved gas enriching process that mixes the pressurized gas-including liquid with another new gas, wherein, in order to essentially maintain an inflow direction of the dissolved liquid unchanged until reaching the inlet position of the small through-holes, the hollow cylinder having such two or more small through-holes arrayed in the circumferential direction thereof is arranged in parallel to the inflow direction of the dissolved liquid wherein the hollow cylinder further has one end formed into a closed tube-like shape and an outer wall with a smaller cross sectional area than that of an introduction opening of the dissolved liquid, which faces the outer wall of the closed end formed into the closed tube-like shape, wherein the hollow cylinder is provided inside a nozzle case for feeding the dissolved liquid to the hollow cylinder; and wherein two or more hollow cylinders are aligned in parallel, in a plane perpendicular to the inflow direction. a sucking process that sucks gas and liquid; a pressurization process that pressurizes gas and liquid; and a dissolved gas enriching process that mixes the pressurized gas-including liquid with another new gas, wherein, in order to essentially maintain an inflow direction of the dissolved liquid unchanged until reaching the inlet position of the small through-holes, the hollow cylinder having such two or more small through-holes arrayed in the circumferential direction thereof is arranged in parallel to the inflow direction of the dissolved liquid wherein the hollow cylinder further has one end formed into a closed tube-like shape and an outer wall with a smaller cross sectional area than that of an introduction opening of the dissolved liquid, which faces the outer wall of the closed end formed into the closed tube-like shape, wherein the hollow cylinder is provided inside a nozzle case for feeding the dissolved liquid to the hollow cylinder; and wherein two or more hollow cylinders are aligned in parallel, in a plane perpendicular to the inflow direction.
A tilting device comprising: a base; an object that tilts relative to the base; and a tilt mechanism operable to cause the object to tilt relative to the base; wherein the tilt mechanism comprises: a flexible link extending from the base to the object to create a first separation between the base and object; a support extending from the base to the object via a joint to create a second separation between the base and object, wherein the flexible link meets the object in a position displaced from where the support meets the object; and an actuator joined to the flexible link that is operable to deform the flexible link thereby varying the first separation between the base and the object such that the object tilts about a first axis of rotation of the joint; characterized in that, in the or each tilt mechanism, the actuator comprises a lead screw joined to the flexible link by a threaded nut. a base; an object that tilts relative to the base; and a tilt mechanism operable to cause the object to tilt relative to the base; wherein the tilt mechanism comprises: a flexible link extending from the base to the object to create a first separation between the base and object; a support extending from the base to the object via a joint to create a second separation between the base and object, wherein the flexible link meets the object in a position displaced from where the support meets the object; and an actuator joined to the flexible link that is operable to deform the flexible link thereby varying the first separation between the base and the object such that the object tilts about a first axis of rotation of the joint; a flexible link extending from the base to the object to create a first separation between the base and object; a support extending from the base to the object via a joint to create a second separation between the base and object, wherein the flexible link meets the object in a position displaced from where the support meets the object; and an actuator joined to the flexible link that is operable to deform the flexible link thereby varying the first separation between the base and the object such that the object tilts about a first axis of rotation of the joint; characterized in that, in the or each tilt mechanism, the actuator comprises a lead screw joined to the flexible link by a threaded nut.
Transmitter for a media converter for transmitting data via different media, comprising. - an input for receiving a data signal via a first medium formed as a wired data network in accordance with a first network protocol used on the first wired data network; - a converter that is set up to convert the received data signal into a sequence of bits, the sequence of bits representing data to be transmitted on the physical layer of a second protocol, which is based on a second medium present at the output side of the converter; - a modulator that is set up to modulate a wireless transmission signal in a predetermined frequency band using the sequence of bits supplied by the converter; and an antenna for emitting the wireless transmission signal characterized in that the converter - is set up to perform the conversion continuously and independently of frames or packets and - further set up to embed synchronization information in the sequence of bits. - an input for receiving a data signal via a first medium formed as a wired data network in accordance with a first network protocol used on the first wired data network; - a converter that is set up to convert the received data signal into a sequence of bits, the sequence of bits representing data to be transmitted on the physical layer of a second protocol, which is based on a second medium present at the output side of the converter; - a modulator that is set up to modulate a wireless transmission signal in a predetermined frequency band using the sequence of bits supplied by the converter; and an antenna for emitting the wireless transmission signal characterized in that the converter - is set up to perform the conversion continuously and independently of frames or packets and - further set up to embed synchronization information in the sequence of bits.
Valve device having at least - one tank pressure port (118; 218; 318; 418; 618; 818); - a first pressure port (112; 212; 312; 412; 612; 812); - a second pressure port (114; 214; 314; 414; 614; 814); - a pressure shut-off valve (124; 224; 324; 424; 624; 824), which is switched between the individual ports and has at least two valve components (126, 128; 226, 228; 326, 328; 426, 428; 626, 628; 826, 828), wherein the first pressure port (112; 212; 312; 412; 612; 812) can be connected to the tank pressure port (118; 218; 318; 418; 618; 818) by means of the first valve component (126; 226; 326; 426; 626; 826) upon reaching a pre-definable pressure cut-off value and the second pressure port (114; 214; 314; 414; 614; 814) can be separated from the first pressure port (112; 212; 312; 412; 612; 812) by means of the second valve component (128; 228; 328; 428; 628; 828) if the fluid pressure at the second pressure port (114; 214; 314; 414; 614; 814) is higher that at the first pressure port (112; 212; 312; 412; 612; 812), wherein both valve components (126, 128; 226, 228; 326, 328; 426, 428; 626, 628; 826, 828) are combined to form a tradable structural unit and wherein both valve components (126, 128; 226, 228; 326, 328; 426, 428; 626, 628; 826, 828) are integrated in a common valve housing (230; 330; 430; 630; 830) for this purpose, wherein the first valve component (126; 226; 326; 426; 626; 826) is a pressure-limiting valve, wherein the second valve component (128; 228; 328; 428; 628; 828) is a non-return valve that opens in the direction of the second pressure port (114; 214; 314; 414; 614; 814), and wherein a pressure-limiting valve piston (236; 336; 436; 636; 836) of the pressure-limiting valve (226; 326; 426; 626; 826), said piston being mounted such as to be longitudinally movable in the valve housing (230; 330; 430; 630; 830), can be controlled on its one side (238; 338; 438; 638; 838) by a pressure-limiting valve energy accumulator (240; 340; 440; 640; 840) and on its other side (242; 342; 442; 642; 842) by the fluid pressure at the second pressure port (214; 314; 414; 614; 814) by means of a control piston (244; 344; 444; 644; 844) which at least comes into contact with the pressure-limiting valve piston (236; 336; 436; 636; 836), wherein a non-return valve piston (272; 372; 472; 672; 872) of the non-return valve (228; 328; 428; 628; 828) is controlled by a non-return valve energy accumulator (282; 382; 482; 682; 882) and held in its closing position on a non-return valve seat (274; 374; 474; 674; 874), wherein the non-return valve piston (272; 372; 10 472; 672; 872) is designed as a hollow piston and guided by the control piston (244; 344; 444; 644; 844). - one tank pressure port (118; 218; 318; 418; 618; 818); - a first pressure port (112; 212; 312; 412; 612; 812); - a second pressure port (114; 214; 314; 414; 614; 814); - a pressure shut-off valve (124; 224; 324; 424; 624; 824), which is switched between the individual ports and has at least two valve components (126, 128; 226, 228; 326, 328; 426, 428; 626, 628; 826, 828),
A method, in a radio communication system, for initiating data transmission on a user plane between user equipment, UE, in dual connectivity with a primary node and a secondary node of the system after bearer modification, comprising: transmitting a request for traffic offloading from the primary node to the secondary node in order to offload traffic from the secondary node to the primary node; and, in response to the request: ceasing transmission to the UE from the secondary node in response to a predefined action at the secondary node, the action indicative of the UE being reconfigured to receive data from the primary node; and initiating data transmission to the UE from the primary node over a radio interface of the system in response to a predefined action at the primary node, the action indicative of the UE being reconfigured to receive data from the primary node. ceasing transmission to the UE from the secondary node in response to a predefined action at the secondary node, the action indicative of the UE being reconfigured to receive data from the primary node; and initiating data transmission to the UE from the primary node over a radio interface of the system in response to a predefined action at the primary node, the action indicative of the UE being reconfigured to receive data from the primary node.
A method of wireless communication performed by a base station in which a user plane and a control plane are logically separated, comprising: receiving, by the user plane of the base station from a user equipment, a data packet on a default data radio bearer, DRB, wherein the data packet includes a quality of service flow indicator, QFI; sending, by the user plane to the control plane of the base station, a message that includes the QFI that identifies a Quality of Service, QoS, flow in response to an absence of mapping between the QoS flow and a DRB at the user plane of the base station for the control plane of the base station to determine a mapping relationship between the QoS flow and the DRB for uplink communication; receiving, by the user plane, another message from the control plane of the base station that indicates the mapping relationship between the QoS flow and the DRB; storing, by the user plane, the mapping relationship; and using, by the user plane, the mapping relationship for a subsequent uplink packet that includes the QFI. receiving, by the user plane of the base station from a user equipment, a data packet on a default data radio bearer, DRB, wherein the data packet includes a quality of service flow indicator, QFI; sending, by the user plane to the control plane of the base station, a message that includes the QFI that identifies a Quality of Service, QoS, flow in response to an absence of mapping between the QoS flow and a DRB at the user plane of the base station for the control plane of the base station to determine a mapping relationship between the QoS flow and the DRB for uplink communication; receiving, by the user plane, another message from the control plane of the base station that indicates the mapping relationship between the QoS flow and the DRB; storing, by the user plane, the mapping relationship; and using, by the user plane, the mapping relationship for a subsequent uplink packet that includes the QFI.
A barcode scanner comprising: a photo detector; a variable focus element situated such that light incident on the photo detector passes through the variable focus element; a processor coupled to the photo detector to process an image of a barcode captured by the photo detector to at least partially deblur the image, characterized in that the processor is adapted to: control a focal point of the variable focus element, sweep the focal point of the variable focus element from a first focal point to a second focal point while continuously exposing the photo detector to the light incident thereon, and capture a single image with the photo detector while the photo detector is exposed during the sweep. a photo detector; a variable focus element situated such that light incident on the photo detector passes through the variable focus element; a processor coupled to the photo detector to process an image of a barcode captured by the photo detector to at least partially deblur the image, characterized in that the processor is adapted to: control a focal point of the variable focus element, sweep the focal point of the variable focus element from a first focal point to a second focal point while continuously exposing the photo detector to the light incident thereon, and capture a single image with the photo detector while the photo detector is exposed during the sweep. control a focal point of the variable focus element, sweep the focal point of the variable focus element from a first focal point to a second focal point while continuously exposing the photo detector to the light incident thereon, and capture a single image with the photo detector while the photo detector is exposed during the sweep.
A two-part epoxy based composition comprising: (a) a first part comprising at least one epoxy resin; (b) a second part comprising: (i) from 5 to 75% by weight of the second part of at least one epoxy resin curing agent; and (ii) from 25 to 95% by weight of the second part of at least one acrylamide compound represented by the following general formula: wherein R 1, R 2 and R 3 are identical or different, and independently represent hydrogen atoms, and optionally substituted univalent organic groups; and wherein at least one of R 2 and R 3 is a hydrogen atom. (a) a first part comprising at least one epoxy resin; (b) a second part comprising: (i) from 5 to 75% by weight of the second part of at least one epoxy resin curing agent; and (ii) from 25 to 95% by weight of the second part of at least one acrylamide compound represented by the following general formula: wherein R 1, R 2 and R 3 are identical or different, and independently represent hydrogen atoms, and optionally substituted univalent organic groups; and wherein at least one of R 2 and R 3 is a hydrogen atom. (i) from 5 to 75% by weight of the second part of at least one epoxy resin curing agent; and (ii) from 25 to 95% by weight of the second part of at least one acrylamide compound represented by the following general formula: wherein R 1, R 2 and R 3 are identical or different, and independently represent hydrogen atoms, and optionally substituted univalent organic groups; and wherein at least one of R 2 and R 3 is a hydrogen atom. wherein R 1, R 2 and R 3 are identical or different, and independently represent hydrogen atoms, and optionally substituted univalent organic groups; and wherein at least one of R 2 and R 3 is a hydrogen atom.
Arrangement through which a process fluid is able to flow along a main flow direction, comprising an impeller which is rotatable about an axis in a direction of rotation, and an upright diffuser which is situated downstream of the impeller and is equipped with guide vanes, wherein the impeller has an inlet for a substantially axial inflow and has an outlet for a substantially radial outflow, wherein radially and axially extending rotor blades are arranged between a wheel disc and a cover disc of the impeller and delimit impeller channels with respect to one another in a circumferential direction, wherein the diffuser extends substantially radially along a main flow direction, wherein the diffuser has an axial cover disc side and an axial wheel disc side, which delimit between them an axial channel width of the diffuser, wherein the diffuser has a diffuser inlet for a substantially radial inflow and has a diffuser outlet, wherein guide vanes extending axially along a vane height direction and radially along a throughflow direction are arranged between the wheel disc side and the cover disc side of the diffuser and delimit guide vane channels with respect to one another in a circumferential direction, characterized in that a profile curvature angle, which is an angle between a tangent to a mean line in the inlet edge region and a tangent to the mean line in the outlet edge region, is smaller on the cover disc side than on the wheel disc side, wherein the profile curvature angle is measured in the mathematically positive sense, proceeding from the tangent to the mean line in the inlet edge region. comprising an impeller which is rotatable about an axis in a direction of rotation, and an upright diffuser which is situated downstream of the impeller and is equipped with guide vanes, wherein the impeller has an inlet for a substantially axial inflow and has an outlet for a substantially radial outflow, wherein radially and axially extending rotor blades are arranged between a wheel disc and a cover disc of the impeller and delimit impeller channels with respect to one another in a circumferential direction, wherein the diffuser extends substantially radially along a main flow direction, wherein the diffuser has an axial cover disc side and an axial wheel disc side, which delimit between them an axial channel width of the diffuser, wherein the diffuser has a diffuser inlet for a substantially radial inflow and has a diffuser outlet, wherein guide vanes extending axially along a vane height direction and radially along a throughflow direction are arranged between the wheel disc side and the cover disc side of the diffuser and delimit guide vane channels with respect to one another in a circumferential direction, characterized in that a profile curvature angle, which is an angle between a tangent to a mean line in the inlet edge region and a tangent to the mean line in the outlet edge region, is smaller on the cover disc side than on the wheel disc side, wherein the profile curvature angle is measured in the mathematically positive sense, proceeding from the tangent to the mean line in the inlet edge region.
An independent carrier (100, 430) for use in transport of a patient sample in an in vitro diagnostic system, the carrier comprising: an onboard power source; the patient sample; an onboard electrical control system electrically connected to the onboard power source for controlling movement and for making instantaneous direction and trajectory decisions of the carrier in response to wirelessly received routing instructions; and an onboard propulsion system electrically connected to the onboard power source for propelling the carrier and electrically connected to the onboard electrical system for receiving a command to control the movement of the carrier. an onboard power source; the patient sample; an onboard electrical control system electrically connected to the onboard power source for controlling movement and for making instantaneous direction and trajectory decisions of the carrier in response to wirelessly received routing instructions; and an onboard propulsion system electrically connected to the onboard power source for propelling the carrier and electrically connected to the onboard electrical system for receiving a command to control the movement of the carrier.