mhurhangee/ep-ind-claims huggingface dataset:
A hinged device testing system, comprising: a first plate comprising a first surface configured to hold stationary a first portion of a hinged device under test; a second plate comprising a second surface configured to hold a second portion of the hinged device under test, the second portion of the hinged device coupled to the first portion via a first hinge having a first folding radius; a third plate comprising a third surface configured to hold a third portion of the hinged device under test, the third portion of the hinged device coupled to the first portion via a second hinge having a second folding radius; a first cam follower coupled to the second plate; a first drive arm configured to move the first cam follower to cause the second plate to rotate about a first hinge pivot axis of the first hinge; a first actuator configured to rotate the first drive arm; a second cam follower coupled to the third plate; a second drive arm configured to move the second cam follower to cause the third plate to rotate about a second hinge pivot axis of the second hinge; a second actuator configured to rotate the second drive arm; and a load cell configured to measure first loads on the first plate while the first actuator moves the second plate and to measure second loads on the first plate while the second actuator moves the third plate. a first plate comprising a first surface configured to hold stationary a first portion of a hinged device under test; a second plate comprising a second surface configured to hold a second portion of the hinged device under test, the second portion of the hinged device coupled to the first portion via a first hinge having a first folding radius; a third plate comprising a third surface configured to hold a third portion of the hinged device under test, the third portion of the hinged device coupled to the first portion via a second hinge having a second folding radius; a first cam follower coupled to the second plate; a first drive arm configured to move the first cam follower to cause the second plate to rotate about a first hinge pivot axis of the first hinge; a first actuator configured to rotate the first drive arm; a second cam follower coupled to the third plate; a second drive arm configured to move the second cam follower to cause the third plate to rotate about a second hinge pivot axis of the second hinge; a second actuator configured to rotate the second drive arm; and a load cell configured to measure first loads on the first plate while the first actuator moves the second plate and to measure second loads on the first plate while the second actuator moves the third plate.
Method for marking an object for traceability, authentication and anti-counterfeiting purposes, comprising the grafting by sol-gel process of a fluorescent, virtually indelible and solvent-insensitive identification marker onto said object, characterized in that it comprises the steps of: - spray deposition on at least part of the surface of said object of an ink comprising a fluorescent sol-gel precursor hydrolyzable by catalysis with a photogenerated acid, and an acid photogenerator, - polymerization by exposure to ultraviolet light of at least part of said deposited sol-gel precursor, by hydrolysis-polycondensation catalyzed by the acid photogenerator, so as to form a predetermined shape marker grafted onto said object, characterized in that the shape of the grafted marker comprises any of the following markings: alphanumeric characters, bar code, DotMatrix code, DataMatrix code, QR code, logo, Braille code. - spray deposition on at least part of the surface of said object of an ink comprising a fluorescent sol-gel precursor hydrolyzable by catalysis with a photogenerated acid, and an acid photogenerator, - polymerization by exposure to ultraviolet light of at least part of said deposited sol-gel precursor, by hydrolysis-polycondensation catalyzed by the acid photogenerator, so as to form a predetermined shape marker grafted onto said object,
Steering control system for a vessel including a set of propulsion units including at least two propulsion units (6,7) pivotally arranged in relation to the hull of the vessel for generating a driving thrust of said vessel in a desired direction, said control system including a steering control instrument (10,11) for generating input signals for control of a desired route of the vessel, and a control unit complex (8,9) controlling the angular position of said propulsion units (6,7), said control unit complex being arranged for receiving input signals from said steering control instrument (10,11), which input signals represent a general direction of movement of the vessel and thus a general desired angular position (β1, β2) of each propulsion unit (6,7), characterized i n that said control unit complex (8,9) furthermore contains a feed forward pivot angle correction control block, which feed forward pivot angle correction control block is arranged to generate actual desired angular positions (s1, s2) of the propulsion units by adding a correction value (v1, v2) to the general desired angular position (β1, β2) of the propulsion units (6,7), wherein the feed forward pivot angle correction control block is arranged to generate individual correction values (v1, v2) for the propulsion units (6,7) included in said set of propulsion units (6,7).
A gas adsorbent, comprising copper-exchanged ZSM-5 zeolite, characterized in that crystallinity of the copper-exchanged ZSM-5 zeolite is set to at least 40% and up to 80%, wherein the crystallinity of the copper-exchanged ZSM-5 zeolite is calculated using a ratio of peak intensity of the copper-exchanged ZSM-5 zeolite to peak intensity of Na-, H-, or NH4-ZSM-5 zeolite having a Si/AI ratio substantially equal to a Si/AI ratio of the copper-exchanged ZSM-5 zeolite, where the peak intensity of Na-, H-, or NH4-ZSM-5 zeolite having the Si/AI ratio substantially equal to the Si/AI ratio of the copper-exchanged ZSM-5 zeolite is defined as 100%, the peak intensity being intensity of a peak having highest intensity among peaks detected at 2θ = 22.8° to 23.8° in X-ray diffraction of each of the copper-exchanged ZSM-5 zeolite and the Na-, H-, or NH4-ZSM-5 zeolite having the Si/AI ratio substantially equal to the Si/AI ratio of the copper-exchanged ZSM-5 zeolite.
A sequential combustor arrangement comprising a first burner, a first combustion chamber, a mixer for admixing a dilution gas to the hot gases leaving the first combustion chamber during operation, a second burner, and a second combustion chamber arranged sequentially in a fluid flow connection, wherein the mixer is adapted to guide combustion gases in a hot gas flow path extending between the first combustion chamber and the second burner comprising a duct having an inlet at an upstream end adapted for connection to the first combustion chamber and an outlet at a downstream end adapted for connection to the second burner, and wherein the mixer comprises at least one group of injection tubes (115, 115a) pointing inwards from the side wall of the mixer for admixing the dilution gas to cool the hot flue gases leaving the first combustion chamber wherein the injection tubes (115, 115a) are arranged circumferentially distributed along the side wall of the mixer, a duct wall at least partly encloses the side wall delimiting a connecting duct for feeding dilution gas to the injection tubes (115, 115a); wherein a flow guide (114, 115b) is arranged in the connecting duct and/or the injection tubes (115, 115a) for guiding the dilution gas flow into the injection tubes (115, 115a) and comprises a deflector disposed in the connection duct above the inlet of an injection tube (115, 115a), wherein the deflector comprises a single collar-like body which spans around the mixer in circumferential direction; characterized in that downstream of the flow guide (114, 115b) the side wall of the mixer is enclosed by an end wall forming an annular end duct for cooling the inlet section of the mixer wherein the ratio of the radial height (w 3) of the end duct to the diameter of the injection tube (115, 115a) is in the range of 0.025 to 0.2.
A method comprising, at a first endpoint device configured to communicate with a second endpoint device in a network: requesting from a relay server in the network an address and a port assignment on the relay server; obtaining the address and port assignment from the relay server; sending a probing packet at a first time instance to the relay server at an address and a port corresponding to the address and port assignment, wherein the first time instance is stored in a timestamp field of the probing packet; receiving a response packet responsive to the probing packet from the address and port on the relay server at a second time instance; storing the second time instance in a timestamp field of the response packet; and wherein sending comprises periodically sending successive probing packets to the relay server, wherein each of the successive probing packets comprises a payload having a different payload size from an immediately preceding probing packet. requesting from a relay server in the network an address and a port assignment on the relay server; obtaining the address and port assignment from the relay server; sending a probing packet at a first time instance to the relay server at an address and a port corresponding to the address and port assignment, wherein the first time instance is stored in a timestamp field of the probing packet; receiving a response packet responsive to the probing packet from the address and port on the relay server at a second time instance; storing the second time instance in a timestamp field of the response packet; and wherein sending comprises periodically sending successive probing packets to the relay server, wherein each of the successive probing packets comprises a payload having a different payload size from an immediately preceding probing packet.
A four-wave mixing radio frequency transmission line including: an input (15, 17, 19) arranged to receive: a first pump signal having a first pump frequency; a second pump signal, having a second pump frequency, different to the first pump frequency; and an input signal to be amplified; a non-linear medium having an intrinsic dispersion relationship, the medium arranged to allow interaction between the input signal, the first pump signal and the second pump signal, such that the input signal is amplified and an idler signal is generated and amplified; and a plurality of dispersion control elements (31, 33, 49) arranged periodically along the transmission line, the dispersion control elements (31, 33, 49) arranged to alter the dispersion relationship of the medium to asymptotically diverge from the intrinsic dispersion relationship at a first frequency, and at a second frequency such that there are stopbands at the first and second frequencies, wherein the first pump frequency is near the first frequency and the second pump frequency is near the second frequency, such that the total phase difference between the input signal, the first pump signal, the second pump signal and the idler signal is kept at zero or substantially zero as the first pump signal, the second pump signal, the input signal and the idler signal propagate down the transmission line. an input (15, 17, 19) arranged to receive: a first pump signal having a first pump frequency; a second pump signal, having a second pump frequency, different to the first pump frequency; and an input signal to be amplified; a first pump signal having a first pump frequency; a second pump signal, having a second pump frequency, different to the first pump frequency; and an input signal to be amplified; a non-linear medium having an intrinsic dispersion relationship, the medium arranged to allow interaction between the input signal, the first pump signal and the second pump signal, such that the input signal is amplified and an idler signal is generated and amplified; and a plurality of dispersion control elements (31, 33, 49) arranged periodically along the transmission line, the dispersion control elements (31, 33, 49) arranged to alter the dispersion relationship of the medium to asymptotically diverge from the intrinsic dispersion relationship at a first frequency, and at a second frequency such that there are stopbands at the first and second frequencies, wherein the first pump frequency is near the first frequency and the second pump frequency is near the second frequency, such that the total phase difference between the input signal, the first pump signal, the second pump signal and the idler signal is kept at zero or substantially zero as the first pump signal, the second pump signal, the input signal and the idler signal propagate down the transmission line.
A rivet, especially a self-piercing rivet, comprising the following features: a head and a shank as well as a pre-punched two-dimensional element (30; 30') which is arranged on the shank and which protrudes radially at least partly beyond a head radius (R K) with respect to the head, characterized in that the pre-punched two-dimensional element (30, 30') is arranged captively on the shank between the head and an end of the shank facing away from the head before the rivet is joint. a head and a shank as well as a pre-punched two-dimensional element (30; 30') which is arranged on the shank and which protrudes radially at least partly beyond a head radius (R K) with respect to the head, characterized in that the pre-punched two-dimensional element (30, 30') is arranged captively on the shank between the head and an end of the shank facing away from the head before the rivet is joint.
A two-part curable adhesive composition, comprising: a main agent containing a urethane prepolymer; and a curing agent containing a non-crystalline polyol compound and a polyamine compound, the urethane prepolymer being obtained by reacting a raw polyisocyanate and a crystalline polyol compound having a number average molecular weight of 500 or greater and having at least two hydroxyl groups per molecule in such a manner that an equivalent ratio of an isocyanate group in the raw polyisocyanate to the hydroxyl group in the crystalline polyol compound is from 2.05 to 12 and all of the crystalline polyol compounds are monomer units of the urethane prepolymer, the main agent further containing, in addition to the urethane prepolymer, a remaining polyisocyanate that is a remainder of the raw polyisocyanate not having been reacted with the crystalline polyol compound, the non-crystalline polyol compound being a compound having a number average molecular weight of 1000 or greater and having at least two hydroxyl groups per molecule, the equivalent ratio of the isocyanate group in the main agent to an amino group in the polyamine compound being from 1.2 to 6, and the equivalent ratio of the isocyanate group in the main agent to the hydroxyl group in the non-crystalline polyol compound being from 2 to 12. a main agent containing a urethane prepolymer; and a curing agent containing a non-crystalline polyol compound and a polyamine compound, the urethane prepolymer being obtained by reacting a raw polyisocyanate and a crystalline polyol compound having a number average molecular weight of 500 or greater and having at least two hydroxyl groups per molecule in such a manner that an equivalent ratio of an isocyanate group in the raw polyisocyanate to the hydroxyl group in the crystalline polyol compound is from 2.05 to 12 and all of the crystalline polyol compounds are monomer units of the urethane prepolymer, the main agent further containing, in addition to the urethane prepolymer, a remaining polyisocyanate that is a remainder of the raw polyisocyanate not having been reacted with the crystalline polyol compound, the non-crystalline polyol compound being a compound having a number average molecular weight of 1000 or greater and having at least two hydroxyl groups per molecule, the equivalent ratio of the isocyanate group in the main agent to an amino group in the polyamine compound being from 1.2 to 6, and the equivalent ratio of the isocyanate group in the main agent to the hydroxyl group in the non-crystalline polyol compound being from 2 to 12.
A method of operating a wind turbine having a plurality of blades, said method comprising the steps of: attaching a respective sensor (22a, 22b) to each of the blades (step 304); repeatedly taking first measurements of a structural characteristic of each of the blades, the measurements being taken by use of the sensors (step 306); establishing a tolerance band for the measurements based on initial said first measurements of the structural characteristic (step 308); wirelessly transmitting signals indicative of the first measurements only if the first measurements are outside of the tolerance band (step 310); receiving the transmitted signals at a controller (step 312); sending an actuator signal from the controller to at least one actuator associated with the turbine, the sending being in response to the receiving of the transmitted signals (step 314); performing an action associated with the turbine dependent upon the actuator signal, the action being performed by the at least one actuator (step 316); repeatedly taking second measurements of the structural characteristic of each of the blades, the measurements being taken by use of the sensors after the actuating step (step 318); and repeating the wirelessly transmitting, receiving, sending and performing steps for the second measurements (step 320). attaching a respective sensor (22a, 22b) to each of the blades (step 304); repeatedly taking first measurements of a structural characteristic of each of the blades, the measurements being taken by use of the sensors (step 306); establishing a tolerance band for the measurements based on initial said first measurements of the structural characteristic (step 308); wirelessly transmitting signals indicative of the first measurements only if the first measurements are outside of the tolerance band (step 310); receiving the transmitted signals at a controller (step 312); sending an actuator signal from the controller to at least one actuator associated with the turbine, the sending being in response to the receiving of the transmitted signals (step 314); performing an action associated with the turbine dependent upon the actuator signal, the action being performed by the at least one actuator (step 316); repeatedly taking second measurements of the structural characteristic of each of the blades, the measurements being taken by use of the sensors after the actuating step (step 318); and repeating the wirelessly transmitting, receiving, sending and performing steps for the second measurements (step 320).
A kinase inhibitor, comprising a compound of formula or a pharmaceutically acceptable salt, solvate, ester or acid thereof: wherein, X is selected from the group consisting of CH and N; R 1 and R 2 are each independently selected from the group consisting of hydrogen, halogen, and C 1-6 haloalkyl; R 3 is C 3-8 cycloalkyl; R 4 is selected from the group consisting of hydrogen and C 1-6 alkyl; R 5 is selected from the group consisting of hydrogen, C 1-6 alkyl, C 1-6 alkoxy, C 2-6 alkylamido, and C 1-6 alkylaminoacyl; R 6 is selected from the group consisting of hydrogen, hydroxy, halogen, C 1-6 alkyl, and C 1-6 alkoxy; or R 5 and R 6 together form a phenyl group or a dioxolane group. X is selected from the group consisting of CH and N; R 1 and R 2 are each independently selected from the group consisting of hydrogen, halogen, and C 1-6 haloalkyl; R 3 is C 3-8 cycloalkyl; R 4 is selected from the group consisting of hydrogen and C 1-6 alkyl; R 5 is selected from the group consisting of hydrogen, C 1-6 alkyl, C 1-6 alkoxy, C 2-6 alkylamido, and C 1-6 alkylaminoacyl; R 6 is selected from the group consisting of hydrogen, hydroxy, halogen, C 1-6 alkyl, and C 1-6 alkoxy; or R 5 and R 6 together form a phenyl group or a dioxolane group.
A system for controlling a cooking appliance comprising: a RF (radio frequency) tag for storing food information about foods as integrants of a dish; and a cooking appliance having a RF reader for reading the food information stored in the RF tag, wherein the cooking appliance includes: a cavity; a memory for storing dish information about dishes that can be cooked using the food information; a cooking appliance controller for reading dish information from the memory; and a display unit for displaying at least one of the dish information to a user, wherein the RF reader is disposed at an internal side of the cavity, characterized in that the RF reader is configured to detect the RF tag after the door has been closed, and when the RF reader detects the RF tag in the cavity, the cooking appliance controller is configured to perform operations of a warning mode. a RF (radio frequency) tag for storing food information about foods as integrants of a dish; and a cooking appliance having a RF reader for reading the food information stored in the RF tag, wherein the cooking appliance includes: a cavity; a memory for storing dish information about dishes that can be cooked using the food information; a cooking appliance controller for reading dish information from the memory; and a display unit for displaying at least one of the dish information to a user, wherein the RF reader is disposed at an internal side of the cavity, characterized in that the RF reader is configured to detect the RF tag after the door has been closed, and when the RF reader detects the RF tag in the cavity, the cooking appliance controller is configured to perform operations of a warning mode. a cavity; a memory for storing dish information about dishes that can be cooked using the food information; a cooking appliance controller for reading dish information from the memory; and a display unit for displaying at least one of the dish information to a user, wherein the RF reader is disposed at an internal side of the cavity, characterized in that the RF reader is configured to detect the RF tag after the door has been closed, and when the RF reader detects the RF tag in the cavity, the cooking appliance controller is configured to perform operations of a warning mode.
A display system comprising a communicator and a plurality of remote display modules, the communicator in use transmitting display information to a plurality of remote display modules each of which is adapted in a lower power mode to display information and in a higher power mode periodically to communicate with the communicator to obtain updated display information, each of the display module being adapted automatically to switch between the higher and lower power modes of operation between communications to enable low overall consumption of power by the display module, and moreover wherein each of the remote display modules is assigned one of two or more time slots within which time slot to communicate with the communicator, wherein the communicator transmits a two component signal comprising a synchronisation component containing information related to the synchronisation of communication with a display module and a data component comprising display information for updating the display module, and wherein the synchronisation component comprises two or more synchronisation packets, each synchronisation packet comprising data related to a position of the synchronisation packet within the synchronisation component thereby to enable the display module to determine the accuracy of synchronisation of switching to the higher power mode to receive the transmission from the communicator, based on an offset of the position between one of the two or more synchronisation packets and another of the two or more synchronisation packets, and wherein the display module is adapted automatically to correct the synchronisation of communication with the communicator by determining the clock drift of the display module based on the offset.