mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing an antenna, the method comprising: providing a plurality of extended length nanotubes having a length ranging from a few nanometers to over 40 centimeters or more; aggregating the plurality of nanotubes and forming a malleable mass comprising an aggregate of extended length nanotubes bonded to one another, so as to provide a plurality of contact points between adjacent nanotubes to permit transmission of electromagnetic radiation while reducing resistivity at high frequency; and manipulating the malleable mass into a desirable shape for use as an antenna. providing a plurality of extended length nanotubes having a length ranging from a few nanometers to over 40 centimeters or more; aggregating the plurality of nanotubes and forming a malleable mass comprising an aggregate of extended length nanotubes bonded to one another, so as to provide a plurality of contact points between adjacent nanotubes to permit transmission of electromagnetic radiation while reducing resistivity at high frequency; and manipulating the malleable mass into a desirable shape for use as an antenna.
A mobile communication system comprising a terminal, User Equipment, UE,, a Mobility Management Entity, MME, and a Mobile Switching Center/Visitor Location Register, MSC/VLR; wherein the terminal is configured to perform a handover procedure from a Long Term Evolution, LTE, wireless area to a 3G wireless area or a 2G wireless area, the terminal being located in the LTE wireless area and whose location is managed by the MME,; and wherein the MME is configured to: receive a paging request message, for the terminal, from the MSC/VLR, over an SGs interface between the MME and MSC/VLR; and discard the paging request message and perform no further action in response to the reception of the paging request message if the handover procedure of the terminal is ongoing when the MME receives the paging request message. wherein the terminal is configured to perform a handover procedure from a Long Term Evolution, LTE, wireless area to a 3G wireless area or a 2G wireless area, the terminal being located in the LTE wireless area and whose location is managed by the MME,; and wherein the MME is configured to: receive a paging request message, for the terminal, from the MSC/VLR, over an SGs interface between the MME and MSC/VLR; and discard the paging request message and perform no further action in response to the reception of the paging request message if the handover procedure of the terminal is ongoing when the MME receives the paging request message. receive a paging request message, for the terminal, from the MSC/VLR, over an SGs interface between the MME and MSC/VLR; and discard the paging request message and perform no further action in response to the reception of the paging request message if the handover procedure of the terminal is ongoing when the MME receives the paging request message.
Industrial truck, in particular reach truck, having a lifting frame and an actuator element for moving the lifting frame relative to a vehicle frame of the industrial truck, wherein at least one sensor (10, 14) is provided for detecting elastic oscillation of the lifting frame, which sensor (10, 14) is operatively connected to an electronic control device with which the actuator element can be actuated to move the lifting frame, characterized in that when oscillation of the lifting frame is detected, the oscillation of the lifting frame is counteracted by an active compensation movement of the actuator element.
An electric converter system for supplying energy to at least one low energy consumption light comprising at least one magnet and at least one coil, said converter further comprising at least two storage media comprising a primary storage medium which is a capacitor and a secondary storage medium for storing electric energy generated as a result of the one or more magnet(s) passing the one or more coil(s), wherein the primary and secondary storage media have different storage capacities, characterized in that the primary storage medium to be charged first has the shortest charging time for being fully charged, and in that the purpose of the secondary storage medium is to store energy for use when the amount discharged from the primary storage medium is insufficient for the actual purpose.
A method of making an RFID tag, the method including: laminating plural layers to a carrier material, the plural layers including a web containing a plurality of RFID devices (42, 150) between a cardstock or paper layer having preprinted generic information, said cardstock or paper layer facing the carrier material, and a printable facestock; cutting the plural layers to produce plural tags on the carrier material; and separating the tags from the carrier material. laminating plural layers to a carrier material, the plural layers including a web containing a plurality of RFID devices (42, 150) between a cardstock or paper layer having preprinted generic information, said cardstock or paper layer facing the carrier material, and a printable facestock; cutting the plural layers to produce plural tags on the carrier material; and separating the tags from the carrier material.
Process for preparing a foaming slag former for electric arc furnaces, with at least 20 wt. % of solid slag particles, which foaming slag former comprises carbonates, characterised in that said slag particles contain at least 3 wt. % of γ-dicalcium silicate and the process comprises the steps of: aggregating said solid slag particles into grains which are coarser than said solid slag particles to form a granular material, and carbonating said particles, before or after they are aggregated in said aggregation step, to produce said slag former, and wherein during said carbonation step at least 2 wt. %, more preferably at least 3 wt. % of carbonates are produced. aggregating said solid slag particles into grains which are coarser than said solid slag particles to form a granular material, and carbonating said particles, before or after they are aggregated in said aggregation step, to produce said slag former, and wherein during said carbonation step at least 2 wt. %, more preferably at least 3 wt. % of carbonates are produced.
A positive electrode material, comprising a substrate, wherein a general formula of the substrate is Li x Ni y Co z M k Me p O r A m, wherein 0.95≤x≤1.05, 0.5≤y≤1, 0≤z≤1, 0≤k≤1, 0≤p≤0.1, 1≤r≤5.2, 0≤m≤2, m+r≤2, M is selected from Mn and/or Al, Me is selected from one or more of Zr, Zn, Cu, Cr, Mg, Fe, V, Ti, Sr, Sb, Y, W, and Nb, and A is selected from one or more of N, F, S, and Cl; and an oxygen defect level of the positive electrode material satisfies condition and optionally condition: 1.77 ≤ OD1 ≤ 1.90, wherein OD1 = (I 101 /I 012) 0.5, I 101 represents XRD diffraction peak intensity of the crystal plane of the positive electrode material in an XRD pattern, and I 012 represents diffraction peak intensity of the crystal plane of the positive electrode material in the XRD pattern; and 0.69 ≤ OD2 ≤ 0.74, wherein OD2 = (I 101 /I 104) 0.5, I 101 represents the XRD diffraction peak intensity of the crystal plane of the positive electrode material in the XRD pattern, and I 104 represents diffraction peak intensity of the crystal plane of the positive electrode material in the XRD pattern. 1.77 ≤ OD1 ≤ 1.90, wherein OD1 = (I 101 /I 012) 0.5, I 101 represents XRD diffraction peak intensity of the crystal plane of the positive electrode material in an XRD pattern, and I 012 represents diffraction peak intensity of the crystal plane of the positive electrode material in the XRD pattern; and 0.69 ≤ OD2 ≤ 0.74, wherein OD2 = (I 101 /I 104) 0.5, I 101 represents the XRD diffraction peak intensity of the crystal plane of the positive electrode material in the XRD pattern, and I 104 represents diffraction peak intensity of the crystal plane of the positive electrode material in the XRD pattern.
Overvoltage protection device, based on spark gaps, in particular for low voltage applications, comprising at least two main electrodes arranged in a pressure-tight housing, as well as at least one auxiliary ignition electrode, wherein a functional assembly is accommodated in the housing volume for reducing the response voltage of the spark gap, which functional assembly is associated with one of the main electrodes and the auxiliary ignition electrode, wherein the functional assembly for reducing the response voltage of the spark gap is comprised of a series connection of a voltage-switching element, an impedance and a separating gap (e 2), which series connection is completely integrated in the housing and located outside the arc combustion chamber, wherein the separating gap (e 2) is formed by the distance of the auxiliary ignition electrode to the nearest main electrode, so that, when an overvoltage arises which exceeds the sum of the response voltages of the switching element and the separating gap (e 2), a current flows from the first main electrode to the second main electrode with the effect that the arc bridging the separating gap (e 2) provides charge carriers for the immediate ionization of the separating gaps between the main electrodes (1, 2), whereby the withstand voltage of this separating gap is reduced and, due to the voltage drop at the impedance increasing with the rising current strength, an excess of the reduced withstand voltage of the separating gap between the main electrodes occurs, whereby the desired ignition of the spark gap takes place, moreover means for flushing the electric arc with hard gas and for generating the hard gas, a hard gas emitting material surrounds at least portions of the arc combustion chamber, wherein the hard gas emitting material in addition has conductive properties so as to lead the potential of one of the main electrodes to the spark gap of the auxiliary ignition electrode, at least one pressure compensation opening being provided for preventing a pressure increase accumulating with time, wherein the pressure compensation opening is formed by housing and electrode materials that are gas permeable.
A method carried out by an election server for identifying the election server to a voter over a network, the method comprising: generating first and second credentials for the voter; providing the first and second credentials to the voter with verification data unique to the voter using a secure channel; requesting the first and second credentials from the voter; presenting the verification data to the voter if the voter supplies the credentials in response to the request, wherein the verification data comprises a token; receiving, from the voter, acknowledgement data unique to the voter to indicate that the correct token has been presented to the voter after the voter has supplied the credentials altering the verification data using the received acknowledgement data so that the altered verification data comprises an altered token including the acknowledgement data; and identifying the election server to the voter by presenting the altered verification data to the voter over the network, wherein: the identifying comprises embedding the altered token in a validation page sent to a voting terminal during an electronic election, wherein: the validation page comprises graphical content associated with at least one of the voter or a vote associated with a retrieved electronic ballot; and the validation page provides confirmation to the voter of the vote associated with the retrieved electronic ballot, based on at least the graphical content. generating first and second credentials for the voter; providing the first and second credentials to the voter with verification data unique to the voter using a secure channel; requesting the first and second credentials from the voter; presenting the verification data to the voter if the voter supplies the credentials in response to the request, wherein the verification data comprises a token; receiving, from the voter, acknowledgement data unique to the voter to indicate that the correct token has been presented to the voter after the voter has supplied the credentials altering the verification data using the received acknowledgement data so that the altered verification data comprises an altered token including the acknowledgement data; and identifying the election server to the voter by presenting the altered verification data to the voter over the network, wherein: the identifying comprises embedding the altered token in a validation page sent to a voting terminal during an electronic election, wherein: the validation page comprises graphical content associated with at least one of the voter or a vote associated with a retrieved electronic ballot; and the validation page provides confirmation to the voter of the vote associated with the retrieved electronic ballot, based on at least the graphical content. the validation page comprises graphical content associated with at least one of the voter or a vote associated with a retrieved electronic ballot; and the validation page provides confirmation to the voter of the vote associated with the retrieved electronic ballot, based on at least the graphical content.
A solder supply device (26, 200) comprising: a solder container housing liquid solder that is tubular and open at one end; a nozzle (88, 208), for ejecting solder from the solder container, that is inserted into the solder container; a piston (90, 210) that is fixedly provided on an outer circumferential section of the nozzle (88, 208), such as to be integrated with the nozzle (88, 208), and that is engaged inside of the solder container from the opening of the solder container; and a holding member forming an inner tube of the solder supply device (26, 200), an end of which removably holds the nozzle (88, 208) and the piston (90, 210) at one end, and the other end of which extends from the opening of the solder container, wherein at least a portion of an outer edge section of the piston (90, 210) is formed from an elastically deformable material, the piston (90, 210) being engaged inside the solder container with at least its portion of the outer edge section in an elastically deformed state, wherein the elastic force arising between the outer edge section of the piston (90, 210) and an inside section of the solder container is smaller than the holding force of the nozzle (88, 208) and the piston (90, 210) provided by the holding member. a solder container housing liquid solder that is tubular and open at one end; a nozzle (88, 208), for ejecting solder from the solder container, that is inserted into the solder container; a piston (90, 210) that is fixedly provided on an outer circumferential section of the nozzle (88, 208), such as to be integrated with the nozzle (88, 208), and that is engaged inside of the solder container from the opening of the solder container; and a holding member forming an inner tube of the solder supply device (26, 200), an end of which removably holds the nozzle (88, 208) and the piston (90, 210) at one end, and the other end of which extends from the opening of the solder container, wherein at least a portion of an outer edge section of the piston (90, 210) is formed from an elastically deformable material, the piston (90, 210) being engaged inside the solder container with at least its portion of the outer edge section in an elastically deformed state, wherein the elastic force arising between the outer edge section of the piston (90, 210) and an inside section of the solder container is smaller than the holding force of the nozzle (88, 208) and the piston (90, 210) provided by the holding member.
A memory system comprising: a memory vault included in a plurality of memory vaults of the memory system, the plurality of memory vaults included in stacked memory dies, each of the stacked memory dies being portioned into memory tiles (205A, 205B, 205C), wherein a stack of memory tiles (212B, 212C, 212D) shares common control circuitry and constitutes one of the plurality of memory vaults; and a memory vault controller, MVC, located on a logic die stacked with the memory dies and communicatively coupled to the memory vault to provide control associated with the memory vault; characterised in that the MVC comprises a vault timing module to provide control of a memory array timing parameter associated with memory array access, and the vault timing module includes an array timing control module and the memory vault includes an array timing module communicatively coupled to the array timing control module to receive an array timing control command from the array timing control module and to adjust at least one memory array timing parameter according to the array timing control command. a memory vault included in a plurality of memory vaults of the memory system, the plurality of memory vaults included in stacked memory dies, each of the stacked memory dies being portioned into memory tiles (205A, 205B, 205C), wherein a stack of memory tiles (212B, 212C, 212D) shares common control circuitry and constitutes one of the plurality of memory vaults; and a memory vault controller, MVC, located on a logic die stacked with the memory dies and communicatively coupled to the memory vault to provide control associated with the memory vault;
A method for forming a pattern in a solder mask layer of ultraviolet curable material on a printed circuit to expose selected portions of the printed circuit, the method comprising: determining a mask pattern for a mask to be applied to the layer; forming the mask based on the mask pattern by printing the mask on the solder mask layer wherein printing comprises emitting drops of wax material on the solder mask layer in a half-tone pattern; exposing the solder mask layer and the mask to ultraviolet light; and, developing a pattern in the solder mask layer such that the mask and corresponding underlying material are removed during the developing to expose the selected portions of the printed circuit, characterized in that the developing further comprises removing portions of the solder mask layer immediately adjacent the underlying material, by tuning the ratio between a thickness of the solder mask layer and the spacing between the wax drops. determining a mask pattern for a mask to be applied to the layer; forming the mask based on the mask pattern by printing the mask on the solder mask layer wherein printing comprises emitting drops of wax material on the solder mask layer in a half-tone pattern; exposing the solder mask layer and the mask to ultraviolet light; and, developing a pattern in the solder mask layer such that the mask and corresponding underlying material are removed during the developing to expose the selected portions of the printed circuit, the developing further comprises removing portions of the solder mask layer immediately adjacent the underlying material, by tuning the ratio between a thickness of the solder mask layer and the spacing between the wax drops.
A golf ball comprising a golf ball body having a cover, and a paint film covering the golf ball body, wherein a 10% elastic modulus of the paint film is 75 kgf/cm 2 or less, a storage modulus (E' 150) at 150 °C of the paint film obtained by measuring dynamic viscoelasticity of the paint film is 1.0×10 7 Pa or more, an indentation depth of the paint film measured with a nanoindenter in a state that the paint film is formed on the surface of the golf ball body is 1250 nm or more, and a material hardness of the cover is less than 50 in Shore D hardness, wherein for the measurement of the indentation depth, a) the golf ball was cut to obtain a hemisphere, b) on the hemisphere, a cross section passing through the central point of the golf ball was exposed, wherein the cross section includes a cross section of the paint film, c) the cross section of the hemisphere was made horizontal by a cryo-microtome, d) an indenter of a nanoindenter was brought into contact with the cross section of the paint film and pressed in a direction perpendicular to the cross section, and wherein the measuring conditions of the indentation depth of the paint film measured with the nanoindenter are: Nanoindenter: "ENT-2100" available from ELIONIX Inc., Temperature: 30 °C, Indenter: Berkovich indenter (65.03° As (h) = 26.43 h2), Number of partitions: 500 steps, Step interval: 20 msec (100 mgf), and wherein the indentation depth is the advancing distance of the indenter in nm when the load is 30 mgf. a) the golf ball was cut to obtain a hemisphere, b) on the hemisphere, a cross section passing through the central point of the golf ball was exposed, wherein the cross section includes a cross section of the paint film, c) the cross section of the hemisphere was made horizontal by a cryo-microtome, d) an indenter of a nanoindenter was brought into contact with the cross section of the paint film and pressed in a direction perpendicular to the cross section, and wherein the measuring conditions of the indentation depth of the paint film measured with the nanoindenter are: Nanoindenter: "ENT-2100" available from ELIONIX Inc., Temperature: 30 °C, Indenter: Berkovich indenter (65.03° As (h) = 26.43 h2), Number of partitions: 500 steps, Step interval: 20 msec (100 mgf), and wherein the indentation depth is the advancing distance of the indenter in nm when the load is 30 mgf. Nanoindenter: "ENT-2100" available from ELIONIX Inc., Temperature: 30 °C, Indenter: Berkovich indenter (65.03° As (h) = 26.43 h2), Number of partitions: 500 steps, Step interval: 20 msec (100 mgf), and wherein the indentation depth is the advancing distance of the indenter in nm when the load is 30 mgf.