mhurhangee/ep-ind-claims huggingface dataset:
A method carried out by a wireless network, comprising: sending to a user equipment, UE, a first indication to cause the UE to maintain using a first set of security keys generated from a parameter specific to a source access node after the UE hands over a cellular link to a target access node without changing a wireless termination, WT, with which the UE is connected via a non-cellular link; and using at least one key of the first set of security keys to maintain the non-cellular link with the UE after the UE hands over the cellular link to the target access node without changing the WT. sending to a user equipment, UE, a first indication to cause the UE to maintain using a first set of security keys generated from a parameter specific to a source access node after the UE hands over a cellular link to a target access node without changing a wireless termination, WT, with which the UE is connected via a non-cellular link; and using at least one key of the first set of security keys to maintain the non-cellular link with the UE after the UE hands over the cellular link to the target access node without changing the WT.
A method of preparing a vinyl chloride-based polymer, the method comprising: polymerizing a vinyl chloride-based monomer in the presence of a carbonate-based metal salt,one or more emulsifiers and a polymerization initiator, wherein a transition metal catalyst is added when a polymerization conversion rate is in a range of 5% to 35% in the step of polymerizing the vinyl chloride-based monomer, the transition metal catalyst is added in an amount of 0.01 ppm to 7.5 ppm based on the weight of the vinyl chloride-based monomer, wherein the carbonate-based metal salt contains carbonate ions (CO 3 2-), and wherein the transition metal catalyst comprises at least one selected from copper sulfate and iron sulfate. polymerizing a vinyl chloride-based monomer in the presence of a carbonate-based metal salt,one or more emulsifiers and a polymerization initiator, wherein a transition metal catalyst is added when a polymerization conversion rate is in a range of 5% to 35% in the step of polymerizing the vinyl chloride-based monomer, the transition metal catalyst is added in an amount of 0.01 ppm to 7.5 ppm based on the weight of the vinyl chloride-based monomer, wherein the carbonate-based metal salt contains carbonate ions (CO 3 2-), and wherein the transition metal catalyst comprises at least one selected from copper sulfate and iron sulfate.
A radio-frequency signal transfer link comprising: a signal transfer link for using amplitude shift keying to transfer radio-frequency data pulses, the link including a receiver circuit and a transmitter circuit, the transmitter circuit having an radio-frequency ON state and an radio-frequency OFF state, characterized in that: the transmitter circuit includes means (505, 506) for reducing the resonant circuit quality factor of the transmitter circuit during said radio-frequency OFF state, relative to the resonant circuit quality factor of the transmitter circuit during said radio-frequency ON state, thereby accelerating decay of radio-frequency amplitude at the receiver circuit during radio-frequency OFF time. a signal transfer link for using amplitude shift keying to transfer radio-frequency data pulses, the link including a receiver circuit and a transmitter circuit, the transmitter circuit having an radio-frequency ON state and an radio-frequency OFF state, characterized in that: the transmitter circuit includes means (505, 506) for reducing the resonant circuit quality factor of the transmitter circuit during said radio-frequency OFF state, relative to the resonant circuit quality factor of the transmitter circuit during said radio-frequency ON state, thereby accelerating decay of radio-frequency amplitude at the receiver circuit during radio-frequency OFF time. the transmitter circuit includes means (505, 506) for reducing the resonant circuit quality factor of the transmitter circuit during said radio-frequency OFF state, relative to the resonant circuit quality factor of the transmitter circuit during said radio-frequency ON state, thereby accelerating decay of radio-frequency amplitude at the receiver circuit during radio-frequency OFF time.
Method for applying double-sided deposition of amorphous hydrogenated carbon onto a silicon wafer, which wafer comprises a first main side with a first bevel on the border of the first main side and a second main side, which has a central area and a second bevel on the border of the second main side surrounding the central area, which second main side is arranged opposite the first main side, comprising the steps of mounting the wafer on an elevated substrate support of a substrate carrier plate, which substrate support is formed such that the wafer is placed on the substrate support only with its central area of the second main side being in contact to the substrate support, and placing the substrate carrier plate with the wafer in a reaction chamber of a plasma reactor, wherein, due to the elevated substrate support, the first and second bevels are exposed simultaneously to a plasma in order to create the deposition, wherein amorphous hydrogenated carbon is applied as the plasma.
A printing method wherein a scanning-type printer is used for printing an image on a substrate in a plurality of adjacent swaths (20, 22; 20a-20e), extending in a main scanning direction (x), characterized by a step of determining positions (p1, p2) of boundaries between the adjacent swaths on the basis of image contents to be printed, wherein a minimum is searched in a curve that describes an optical density of the image to be printed as a function of the position in a direction normal to the main scanning direction (x).
A polymer composition comprising a treated inorganic particle having improved photostability and improved anti-microbial properties, wherein the treated inorganic particle comprises: a. an inorganic core particle; b. a first treatment of a silicon compound, wherein the silicon compound is added in a single step; and c. a second treatment comprising a co-precipitated zinc oxide and alumina. a. an inorganic core particle; b. a first treatment of a silicon compound, wherein the silicon compound is added in a single step; and c. a second treatment comprising a co-precipitated zinc oxide and alumina.
Moulded housing (1, 100) for a machine with a shaft, especially for an electric machine with a shaft, - wherein the moulded housing has a first region, a second region (32, 132) and a third region one after another in an axial direction, - wherein the moulded housing includes a first passage for the shaft and a second passage, - wherein the first passage has a first moulded edge and the second passage has a second moulded edge, - wherein the second passage has a reinforcement element, - wherein the reinforcement element runs from a first connection point with the second moulded edge to an opposite second connection point with the second moulded edge, - wherein the second moulded edge has a first securing device at a third connection point and a second securing device at a fourth connection point, - wherein the second passage has an opening in a wall of the moulded housing, - wherein a projection of an imaginary line connecting the third connection point to the fourth connection point into the opening intersects with a projection of the reinforcement element into the opening, - wherein the projection of the imaginary connecting line intersects with the projection of the reinforcement element at an acute angle, characterised in that - a further reinforcement element runs from the third connection point to the fourth connection point, wherein the further reinforcement element is fastened to the first securing device and to the second securing device. - wherein the moulded housing has a first region, a second region (32, 132) and a third region one after another in an axial direction, - wherein the moulded housing includes a first passage for the shaft and a second passage, - wherein the first passage has a first moulded edge and the second passage has a second moulded edge, - wherein the second passage has a reinforcement element, - wherein the reinforcement element runs from a first connection point with the second moulded edge to an opposite second connection point with the second moulded edge, - wherein the second moulded edge has a first securing device at a third connection point and a second securing device at a fourth connection point, - wherein the second passage has an opening in a wall of the moulded housing, - wherein a projection of an imaginary line connecting the third connection point to the fourth connection point into the opening intersects with a projection of the reinforcement element into the opening, - wherein the projection of the imaginary connecting line intersects with the projection of the reinforcement element at an acute angle, characterised in that - a further reinforcement element runs from the third connection point to the fourth connection point, wherein the further reinforcement element is fastened to the first securing device and to the second securing device.
Sensor unit for a surface plasmon resonance unit, comprising: - a transparent sensor substrate forming at least one wall of a cavity, the wall being defined by a concave inner surface and a convex outer surface; wherein - the inner surface is provided with a layer of a conductive material capable of supporting a surface plasmon; the sensor unit being characterized in that the radius of said concave inner surface is larger than 3 mm and smaller than 20 mm, and in that - said sensor unit further comprises a flow structure (600; 610; 620) in said cavity so as to form at least one compartment for a sample between the flow structure (600; 610; 620) and the substrate of the cavity, where the flow structure (600; 610; 620) can either be a. a bob, which is rotatable relative to said inner surface, or b. an insert (610; 620) comprising grooves forming channels (615; 625) when said insert (610; 620) rests against the concave inner surface of the wall, whereby the height of a flow cell thus provided by the insert (610;620) is between 10 and 100 micrometers, said flow cell controlling the sample flow rate across the concave inner surface. - a transparent sensor substrate forming at least one wall of a cavity, the wall being defined by a concave inner surface and a convex outer surface; wherein - the inner surface is provided with a layer of a conductive material capable of supporting a surface plasmon; the sensor unit being characterized in that the radius of said concave inner surface is larger than 3 mm and smaller than 20 mm, and in that - said sensor unit further comprises a flow structure (600; 610; 620) in said cavity so as to form at least one compartment for a sample between the flow structure (600; 610; 620) and the substrate of the cavity, where the flow structure (600; 610; 620) can either be a. a bob, which is rotatable relative to said inner surface, or b. an insert (610; 620) comprising grooves forming channels (615; 625) when said insert (610; 620) rests against the concave inner surface of the wall, a. a bob, which is rotatable relative to said inner surface, or b. an insert (610; 620) comprising grooves forming channels (615; 625) when said insert (610; 620) rests against the concave inner surface of the wall,
A method for analyzing effects of electrical perturbations on equipment in an electrical system, comprising: processing energy-related signals from at least one intelligent electronic device in the electrical system to identify an electrical perturbation in the electrical system; determining an end time of the electrical perturbation; analyzing electrical measurement data from prior to, during and/or after the end time of the electrical perturbation to identify and quantify the effects of the electrical perturbation on equipment in the electrical system; and taking one or more actions to reduce the effects of the electrical perturbation and extend the life of the equipment, the actions including at least one of communicating equipment restarts/re-energizations and controlling at least one component in the electrical system; the method being characterised in that the effects are including the equipment restarts/re-energizations due to the electrical perturbation. processing energy-related signals from at least one intelligent electronic device in the electrical system to identify an electrical perturbation in the electrical system; determining an end time of the electrical perturbation; analyzing electrical measurement data from prior to, during and/or after the end time of the electrical perturbation to identify and quantify the effects of the electrical perturbation on equipment in the electrical system; and taking one or more actions to reduce the effects of the electrical perturbation and extend the life of the equipment, the actions including at least one of communicating equipment restarts/re-energizations and controlling at least one component in the electrical system; the method being characterised in that the effects are including the equipment restarts/re-energizations due to the electrical perturbation.
Process for preparing metal hydroxides or basic metal carbonates by anodic dissolution of corresponding metals and precipitation of the hydroxides or basic carbonates in an aqueous medium, characterized in that the anodic dissolution of the metal component is effected in the anode chamber of a three-chamber electrolysis cell, an aqueous auxiliary salt solution is fed continuously into the intermediate chamber which is arranged between anode chamber and cathode chamber and is separated from these by porous membranes, an at least nonalkaline metal salt solution is taken off continuously from the anode chamber, an alkaline auxiliary salt solution is taken off continuously from the cathode chamber and the at least nonalkaline metal salt solution and the alkaline auxiliary salt solution are combined outside the electrolysis cell to precipitate metal hydroxides or basic metal carbonates.
An inspection device, comprising: - a support element for supporting a material on the top side of said support element, - at least one oscillator connected to the support element, wherein the oscillation frequency and amplitude generated by the oscillator are selected to keep the material hovering over the support element, characterised in that the inspection device further comprises - at least one optical sensor, wherein - the support element is made of a transparent material and - the optical sensor is arranged underneath the support element. - a support element for supporting a material on the top side of said support element, - at least one oscillator connected to the support element, wherein the oscillation frequency and amplitude generated by the oscillator are selected to keep the material hovering over the support element, characterised in that the inspection device further comprises - at least one optical sensor, - the support element is made of a transparent material and - the optical sensor is arranged underneath the support element.
Log processing head having: a) a structure; b) feed means and delimbing and/or debarking means, movably connected to said structure and adjustable by means of actuators, c) a knife connected to said structure by means allowing a determined movement due to the impact by a log, d) a pin on the structure or on the knife, characterized by e) an arm, opposite the log contact area, on the knife, movably receiving a pivot joint, f) the pivot joint pivoting in a lateral direction between the knife and the structure retained on said pin; g) and being configured to tilt laterally with respect to a centerline of the knife. a) a structure; b) feed means and delimbing and/or debarking means, movably connected to said structure and adjustable by means of actuators, c) a knife connected to said structure by means allowing a determined movement due to the impact by a log, d) a pin on the structure or on the knife, characterized by e) an arm, opposite the log contact area, on the knife, movably receiving a pivot joint, f) the pivot joint pivoting in a lateral direction between the knife and the structure retained on said pin; g) and being configured to tilt laterally with respect to a centerline of the knife.
An operation support system for confirming a surgical site and a surgical position, wherein the operation support system includes: an input unit configured to input surgery information including an operative procedure, a surgery on right side or left side and the surgical position, a model image forming unit configured to apply a mark to the surgical site of the corresponding surgical position in accordance with the operative procedure, the surgery on right side or left side and the surgical position included in the inputted surgery information to form a human body model image comprising the mark; a display unit configured to display the inputted surgery information and the human body model image; and a display control unit configured to display the human body model image formed by the model image forming unit on the display unit. an input unit configured to input surgery information including an operative procedure, a surgery on right side or left side and the surgical position, a model image forming unit configured to apply a mark to the surgical site of the corresponding surgical position in accordance with the operative procedure, the surgery on right side or left side and the surgical position included in the inputted surgery information to form a human body model image comprising the mark; a display unit configured to display the inputted surgery information and the human body model image; and a display control unit configured to display the human body model image formed by the model image forming unit on the display unit.
A method comprising: a Service Centralized and Continuity Application Server, SCC AS, establishing a collaborative session control with a first wireless transmit/receive unit, WTRU,, wherein the first WTRU is associated with a first subscription, wherein the first WTRU is receiving a media flow from a remote party; the SCC AS receiving, from a second WTRU, a collaborative session request to replicate the media flow to the second WTRU; the SCC AS authorizing the received collaborative session request; the SCC AS allocating a media resource at a media resource function, MRF, for the media flow; the SCC AS transmitting, to the second WTRU, a response for the second WTRU to receive the requested replicated media flow from the MRF; the SCC AS updating an access leg on a first WTRU for the first WTRU to then receive the media flow from the MRF; and the SCC AS updating a remote leg to communicate the replicated media flow to the MRF, wherein the media flow then flows from the remote party to the MRF, from the MRF to the first WTRU, and from the MRF to the second WTRU. a Service Centralized and Continuity Application Server, SCC AS, establishing a collaborative session control with a first wireless transmit/receive unit, WTRU,, wherein the first WTRU is associated with a first subscription, wherein the first WTRU is receiving a media flow from a remote party; the SCC AS receiving, from a second WTRU, a collaborative session request to replicate the media flow to the second WTRU; the SCC AS authorizing the received collaborative session request; the SCC AS allocating a media resource at a media resource function, MRF, for the media flow; the SCC AS transmitting, to the second WTRU, a response for the second WTRU to receive the requested replicated media flow from the MRF; the SCC AS updating an access leg on a first WTRU for the first WTRU to then receive the media flow from the MRF; and the SCC AS updating a remote leg to communicate the replicated media flow to the MRF, wherein the media flow then flows from the remote party to the MRF, from the MRF to the first WTRU, and from the MRF to the second WTRU.
A machine for preparing beverages comprising a front wall, a rest base for containers positioned in front of said front wall and a temperature detection probe immersible in a comestible liquid contained in a container positioned on said rest base, said front wall having a beverage dispenser and a steam dispenser positioned above said rest base for containers, wherein said front wall supports a first antenna and said temperature detection probe comprises a second antenna interacting with said first antenna for wireless transmission of the detected temperature of the liquid in the container, said temperature detection probe comprising a longitudinal body which incorporates a temperature sensor, a microprocessor and a passive transponder including said second antenna, said longitudinal body having magnetic or mechanical support means for supporting said temperature detection probe engageable with said front wall, said support means disengageably hooking manually to said front wall, said support means being configured to position said second antenna outside said container and facing said first antenna when said_temperature detection probe is in use.
An electronic device comprising: a touch screen; a communication circuitry; a memory; a power input unit; a battery; and a processor comprising a power management module, wherein the power management module comprises a watch-dog timer, wherein the power management module is configured to: control the power input unit to supply power to the battery, the touch screen and the communication circuitry in a normal operation state; control the battery to supply the power to the touch screen and the communication circuitry in an abnormal operation state, wherein the abnormal operation state comprises one of an overcurrent condition, an overheating condition and a system lock-up condition; control the watch-dog timer to monitor whether the processor identifies a register bit within a predetermined time; when the processor does not identify the register bit within the predetermined time, control the watch-dog timer to determine that the processor is in the abnormal operation state; and in response to determining that the processor is in the abnormal operation state, block power supplied through the power input unit being supplied to the battery, the touch screen and the communication circuitry. a touch screen; a communication circuitry; a memory; a power input unit; a battery; and a processor comprising a power management module, wherein the power management module comprises a watch-dog timer, wherein the power management module is configured to: control the power input unit to supply power to the battery, the touch screen and the communication circuitry in a normal operation state; control the battery to supply the power to the touch screen and the communication circuitry in an abnormal operation state, wherein the abnormal operation state comprises one of an overcurrent condition, an overheating condition and a system lock-up condition; control the power input unit to supply power to the battery, the touch screen and the communication circuitry in a normal operation state; control the battery to supply the power to the touch screen and the communication circuitry in an abnormal operation state, wherein the abnormal operation state comprises one of an overcurrent condition, an overheating condition and a system lock-up condition; control the watch-dog timer to monitor whether the processor identifies a register bit within a predetermined time; when the processor does not identify the register bit within the predetermined time, control the watch-dog timer to determine that the processor is in the abnormal operation state; and in response to determining that the processor is in the abnormal operation state, block power supplied through the power input unit being supplied to the battery, the touch screen and the communication circuitry.