mhurhangee/ep-ind-claims huggingface dataset:
A method for manipulating packs (10, 30, 34) of interconnected lottery tickets (12, 32, 36), wherein each individual lottery ticket pack is wrapped with a wrapping material and a label is adhered to the wrapping material, characterised in that the label includes a first portion permanently adhered to the wrapping material and a second portion having a releasable adhesive applied to a surface thereof, the method comprising: grasping and pulling the label away from the ticket pack in a manner that causes the permanently adhered first portion of the label to tear the wrapping material from the ticket pack; manually removing all of the wrapping material from the ticket pack; and using the second portion of the label to connect the last ticket in the ticket pack to a first ticket in a separate unwrapped ticket pack by pressing the side of the second portion containing the releasable adhesive across aligned ends of the adjacent tickets (12, 32, 36). grasping and pulling the label away from the ticket pack in a manner that causes the permanently adhered first portion of the label to tear the wrapping material from the ticket pack; manually removing all of the wrapping material from the ticket pack; and using the second portion of the label to connect the last ticket in the ticket pack to a first ticket in a separate unwrapped ticket pack by pressing the side of the second portion containing the releasable adhesive across aligned ends of the adjacent tickets (12, 32, 36).
A stent graft comprising a tubular body of a biocompatible graft material and a side arm extending therefrom, the side arm extending from an ostium in the tubular body and at least partially along the tubular body to an open end of the side arm and a temporary tie down arrangement for the side arm at least adjacent to the open end, whereby to hold flat the open end of the side arm during loading of the stent graft into a deployment device to ensure the side arm is retained in its position with respect to the tubular body, characterised in that the temporary tie down arrangement comprises a tie down wire stitched into the graft material adjacent to the side arm and through the side arm to hold the side arm against the tubular body.
A method of wireless communication, comprising: determining a number of component carriers, CCs, configured for a user equipment, UE; and identifying, within the number of CCs, a first set of CCs comprising a number of component carriers subject to clear channel assessment, CCA, operation; and determining for partitioning a soft buffer based at least in part on the number of CCs and the number of CCs subject to CCA operation. determining a number of component carriers, CCs, configured for a user equipment, UE; and identifying, within the number of CCs, a first set of CCs comprising a number of component carriers subject to clear channel assessment, CCA, operation; and determining for partitioning a soft buffer based at least in part on the number of CCs and the number of CCs subject to CCA operation.
A method for the controlled sintering of a ceramic or powder metallurgical component, comprising the following steps: - arranging the ceramic or powder metallurgical component on a motor-driven rotary table in a high-temperature furnace; - heating the high-temperature furnace and sintering the ceramic or powder metallurgical component in the high-temperature furnace; - rotating the ceramic or powder metallurgical component by means of the motor-driven rotary table; - creating a geometric surface profile of at least a subregion of the ceramic or powder metallurgical component during the sintering of the ceramic or powder metallurgical component rotated by means of the motor-driven rotary table, by: - irradiating the ceramic or powder metallurgical component rotated by means of the motor-driven rotary table with light from a light source; and - detecting the light scattered by the rotated ceramic or powder metallurgical component by means of a detector; and - determining the geometric surface profile from the detected light, wherein the irradiation includes an expansion of a light beam of the light source so as to form a line, and the light source and the detector are designed as a light section sensor. - arranging the ceramic or powder metallurgical component on a motor-driven rotary table in a high-temperature furnace; - heating the high-temperature furnace and sintering the ceramic or powder metallurgical component in the high-temperature furnace; - rotating the ceramic or powder metallurgical component by means of the motor-driven rotary table; - creating a geometric surface profile of at least a subregion of the ceramic or powder metallurgical component during the sintering of the ceramic or powder metallurgical component rotated by means of the motor-driven rotary table, by: - irradiating the ceramic or powder metallurgical component rotated by means of the motor-driven rotary table with light from a light source; and - detecting the light scattered by the rotated ceramic or powder metallurgical component by means of a detector; and - determining the geometric surface profile from the detected light, - irradiating the ceramic or powder metallurgical component rotated by means of the motor-driven rotary table with light from a light source; and - detecting the light scattered by the rotated ceramic or powder metallurgical component by means of a detector; and - determining the geometric surface profile from the detected light,
An in-wheel motor driving device comprising a casing (22a, 22b) encasing therein: a motor section for generation of a driving force; and a speed reducer section for reducing speed of rotation generated by the motor section and then transmitting the rotation to a wheel hub bearing section connected to a wheel; the device being characterized by further comprising a casing immobilizing member fixed to an inner surface of the casing; and a housing immobilizing member fixed to an outer surface of a speed reducer section housing; the casing immobilizing member and the housing immobilizing member being disposed between the casing and the speed reducer section housing and immobilized from rotation, via an elastic member.
A method for producing a sealing component comprising a body made of a superalloy covered with a new coating formed from a mixing between an alloy and boron, and which can be so positioned as to contact a blade end of a gas turbine, characterized in that it comprises the following steps: - a) said new coating is obtained by moulding, said alloy in the mixing being of a Cobalt-Nickel-Chrome-Aluminium-Yttrium (CoNiCrAlY) type, and said boron being contained in an amount between 1.7% to 2.5% by weight (wt%), - b) and the body made of superalloy and said new coating are brazed together so as to obtain said sealing component. - a) said new coating is obtained by moulding, said alloy in the mixing being of a Cobalt-Nickel-Chrome-Aluminium-Yttrium (CoNiCrAlY) type, and said boron being contained in an amount between 1.7% to 2.5% by weight (wt%), - b) and the body made of superalloy and said new coating are brazed together so as to obtain said sealing component.
Harvesting machine, in particular in the form of a baling press, with a feed rotor formed as an overhead conveyor for the conveying of harvested material through a conveying channel into a material collecting chamber, as well as a return channel for the returning harvested material exiting from the material collection chamber back into the conveying channel, wherein a return conveyor is provided for the returning of the harvested material out of the return channel into the conveyor channel, characterized in that the return channel opens from above into the conveying channel led over the feed rotor and the return conveyor comprises a return feed rotor which can be driven in a circumferentially-rotating manner, which feeds the harvested material out of the return channel and into the conveying channel.
A baggage cart for security inspection in an airport, comprising: a cart body, comprising at least one compartment (115, 125) having a door; and a locking device (140, 150), coupled to the compartment (115, 125) and configured to lock the compartment (115, 125) in response to receiving an indication signal, characterized by an X-ray detection device, comprising: at least one X-ray source point; a detector configured to receive an X-ray; a controller configured to control the X-ray source point to emit the X-ray in response to the door of the compartment (115, 125) being closed, and control the detector to receive the X-ray penetrating through the baggage and generate an electrical signal based on the received X-ray; and a collecting device, coupled to the detector and configured to convert the electrical signal into a digital signal. a cart body, comprising at least one compartment (115, 125) having a door; and a locking device (140, 150), coupled to the compartment (115, 125) and configured to lock the compartment (115, 125) in response to receiving an indication signal, characterized by an X-ray detection device, comprising: at least one X-ray source point; a detector configured to receive an X-ray; a controller configured to control the X-ray source point to emit the X-ray in response to the door of the compartment (115, 125) being closed, and control the detector to receive the X-ray penetrating through the baggage and generate an electrical signal based on the received X-ray; and a collecting device, coupled to the detector and configured to convert the electrical signal into a digital signal. at least one X-ray source point; a detector configured to receive an X-ray; a controller configured to control the X-ray source point to emit the X-ray in response to the door of the compartment (115, 125) being closed, and control the detector to receive the X-ray penetrating through the baggage and generate an electrical signal based on the received X-ray; and a collecting device, coupled to the detector and configured to convert the electrical signal into a digital signal.
A hitch device for a motor vehicle comprising a cross member, the opposite ends of which each comprise fixing means intended to be fixed to the lower part of the rear face of the body shell of the vehicle, an arm bearing the ball of the hitch device, the opposite end of this arm to the ball being connected by connecting means to a mount which is fixed to the middle of the cross member, said connecting means allowing said arm to be mounted on and removed from said mount along an axis (X-X') which is substantially vertical when the hitch device is fixed to the vehicle, said support being incorporated into the middle region of the cross member and said connecting means being arranged in such a way that said axis (X-X') passes through this middle region of the cross member, the cross-member being constituted by two half cross members (10a, 10b), said mount being fixed between these two half cross members (10a, 10b) and in a sleeve such that said axis (X-X') for mounting and dismantling of the arm bearing the ball is perpendicular to the axis of said sleeve, each of the two opposite ends (13a, 13b) of this sleeve being connected axially to one of the two half cross members (10a, 10b), characterized in that said mount is engaged in two openings formed on two opposite lateral walls of the sleeve.
A method for making high-strength ultra-high molecular weight polyethylene (UHMWPE) composite fibers by a gel-spinning process comprising steps of • Preparing a spin mixture comprising a) UHMWPE having IV of between 5 and 40 dL/g; b) bioceramic particles with particle size D50 of 0.01-10 μm when dispersed in decalin; c) optionally other additives; and d) a spin solvent; • Spinning the spin mixture through a multiple orifice die plate to form solvent-containing composite fibers; • Drawing the solvent-containing composite fibers in at least one drawing step; and • Removing at least partly the spin solvent from the solvent-containing composite fibers before, during or after drawing the fibers. • Preparing a spin mixture comprising a) UHMWPE having IV of between 5 and 40 dL/g; b) bioceramic particles with particle size D50 of 0.01-10 μm when dispersed in decalin; c) optionally other additives; and d) a spin solvent; a) UHMWPE having IV of between 5 and 40 dL/g; b) bioceramic particles with particle size D50 of 0.01-10 μm when dispersed in decalin; c) optionally other additives; and d) a spin solvent; • Spinning the spin mixture through a multiple orifice die plate to form solvent-containing composite fibers; • Drawing the solvent-containing composite fibers in at least one drawing step; and • Removing at least partly the spin solvent from the solvent-containing composite fibers before, during or after drawing the fibers.
Seat structure having a seat back and/or a seat part, wherein the seat back and/or the seat part comprises at least one planar element formed as a main body (12, 22) and a frame that stiffens the at least one main body, wherein the respective at least one frame is made from profile steel and the at least one main body (12, 22) is made from a lightweight structural material, wherein the at least one frame and the at least one main body (12, 22) are connected to one another by means of at least one adhesive connection, characterized in that the adhesive connection is formed as a profile-like raised portion in the manner of an adhesive bead into which the frame is plunged, whereby it is possible, by means of the adhesive connection, to create a durable connection and to take up crash forces in the manner of a deformation element.
Method for production of an oscillating signal which indicates an oscillation in an electrical power supply system, in which - measured values which characterize the current and voltage at a measurement point in the electrical power supply system are detected and are converted to digital current and voltage vector measured values; and - impedance values, which lie on the complex number plane, are calculated from the current vector measured values and the voltage vector measured values; and - a curve profile which is formed by the impedance values is considered, and the oscillating signal is produced using characteristic properties of the curve profile; characterized in that - a first oscillation suspicion signal is produced if the separation of the impedance values from an oscillation center point remains substantially constant; - a second oscillation suspicion signal is produced if the rate at which the impedance values progress on the curve profile remains substantially constant; and - the oscillation signal is produced if both the first and the second oscillation suspicion signals are present. - measured values which characterize the current and voltage at a measurement point in the electrical power supply system are detected and are converted to digital current and voltage vector measured values; and - impedance values, which lie on the complex number plane, are calculated from the current vector measured values and the voltage vector measured values; and - a curve profile which is formed by the impedance values is considered, and the oscillating signal is produced using characteristic properties of the curve profile; characterized in that - a first oscillation suspicion signal is produced if the separation of the impedance values from an oscillation center point remains substantially constant; - a second oscillation suspicion signal is produced if the rate at which the impedance values progress on the curve profile remains substantially constant; and - the oscillation signal is produced if both the first and the second oscillation suspicion signals are present.
An orthopaedic device comprising: (a) a threaded shaft comprising at least two portions, wherein the threads of a first portion are in reverse orientation to the threads of a second or subsequent portion; and (b) at least two bodies mountable to the threaded shaft; wherein a first mountable body of the at least two bodies mountable to the threaded shaft is a coupling comprising an annular body having an internal threaded surface comprising at least two sections (14, 16), wherein the threads of a first section are in reverse orientation to the threads of a second or subsequent section wherein the at least two sections (14, 16) are spaced apart, contiguous sections; and at least one of the at least two sections of the annular body is shaped and dimensioned to engage with at least part of the threaded shaft; wherein the orthopaedic device further comprises a reversibly expandable section operable between a contracted position and an expanded position; wherein a second mountable body of the at least two bodies mountable to the threaded shaft, defines a portion of and is integral with the expandable section, wherein the second mountable body comprises a screw thread; and wherein the screw thread of the second mountable body and the thread of the first section of the first mountable body are configured to engage with the respective screw threaded portions (22, 24) of the threaded shaft. (a) a threaded shaft comprising at least two portions, wherein the threads of a first portion are in reverse orientation to the threads of a second or subsequent portion; and (b) at least two bodies mountable to the threaded shaft;
Method for protecting a packet flow in a network composed of router nodes (R1-R4) routing packets and of transmitter and receiver nodes (C1-C3) transmitting and receiving the flow, the receiver node being connected to a router node processing the routing of a packet destined for the receiver node on the basis of an expected value of a protection parameter contained in at least one field of a packet of the flow, the method being implemented by a device associated with the receiver node and comprising: • transmitting a message comprising the expected value of the protection parameter, destined for the router node connected to the receiver node. • transmitting a message comprising the expected value of the protection parameter, destined for the router node connected to the receiver node.
A device (10, 810) for testing a fluid from a heat exchanger, the device comprising: at least two test heat exchangers, each test heat exchanger comprising a first inlet configured to receive the fluid from the heat exchanger, a first outlet for the fluid to the heat exchanger, a second inlet configured to receive a heat transfer fluid, and, a second outlet for the heat transfer fluid, wherein the fluid from the heat exchanger and the heat transfer fluid are isolated fluidically within each test heat exchanger; and, a heater in communication with at least one of the test heat exchangers, characterized in that a first test heat exchanger has a first end and a second, opposite end, wherein the heater is disposed at at least one of the first ends and the second ends and is configured to heat the heat transfer fluid within the first test heat exchanger, and wherein each heater comprises a rod extending through a T-coupling at the at least one of the first ends and the second ends into an inner tube of the first test heat exchanger. at least two test heat exchangers, each test heat exchanger comprising a first inlet configured to receive the fluid from the heat exchanger, a first outlet for the fluid to the heat exchanger, a second inlet configured to receive a heat transfer fluid, and, a second outlet for the heat transfer fluid, wherein the fluid from the heat exchanger and the heat transfer fluid are isolated fluidically within each test heat exchanger; and, a heater in communication with at least one of the test heat exchangers, characterized in that a first test heat exchanger has a first end and a second, opposite end, wherein the heater is disposed at at least one of the first ends and the second ends and is configured to heat the heat transfer fluid within the first test heat exchanger, and wherein each heater comprises a rod extending through a T-coupling at the at least one of the first ends and the second ends into an inner tube of the first test heat exchanger.
An application programming interface, API, hybrid multi-tenant routing method, comprising: receiving, by an API gateway, an API request message sent by an API caller, wherein the API request message carries an application key, APP key, and the APP key is used to identify the API caller; obtaining the APP key based on the API request message; obtaining, based on the APP key and a multi-tenant routing policy table, an API running instance URL list corresponding to the APP key, wherein the multi-tenant routing policy table is used to store a mapping relationship between the APP key and the API running instance URL list, the API caller belongs to an API tenant, and an API running instance corresponding to the API running instance URL list is configured by the API gateway based on information about an API tenant, wherein if a tenant type of the API tenant is a physical tenant, the API running instance corresponding to the API running instance URL list is an API running instance private to the API tenant, or if a tenant type of the API tenant is a logical tenant, the API running instance corresponding to the API running instance URL list is a shared API running allocated to the API tenant; determining, in the API running instance URL list based on a preconfigured API load balancing policy, an API running instance URL corresponding to the API request message; and returning the API running instance URL to the API caller. receiving, by an API gateway, an API request message sent by an API caller, wherein the API request message carries an application key, APP key, and the APP key is used to identify the API caller; obtaining the APP key based on the API request message; obtaining, based on the APP key and a multi-tenant routing policy table, an API running instance URL list corresponding to the APP key, wherein the multi-tenant routing policy table is used to store a mapping relationship between the APP key and the API running instance URL list, the API caller belongs to an API tenant, and an API running instance corresponding to the API running instance URL list is configured by the API gateway based on information about an API tenant, wherein if a tenant type of the API tenant is a physical tenant, the API running instance corresponding to the API running instance URL list is an API running instance private to the API tenant, or if a tenant type of the API tenant is a logical tenant, the API running instance corresponding to the API running instance URL list is a shared API running allocated to the API tenant; determining, in the API running instance URL list based on a preconfigured API load balancing policy, an API running instance URL corresponding to the API request message; and returning the API running instance URL to the API caller.
Linkage system between a first part and a second part capable of movement relative to each other, incorporating a link capable of transmitting forces between the first and second parts and control means for said link incorporating means of measuring a distance (e) separating the first and second parts (2, 4), a frequency filter for said measurements, said frequency filter letting through the values of said measures in a given frequency band and means for comparing these filtered values with a set point (ec), said control means controlling the link such that it transmits forces only in the given frequency band, characterized in that said control means comprise a first control loop which is a force control loop having a force set point emanating from a second control loop, said second control loop being a speed control loop having a speed set-point emanating from a third control loop controlling the relative position of said third and second part.