mhurhangee/ep-ind-claims huggingface dataset:
A lithium ion secondary battery comprising a positive electrode and a negative electrode, wherein the positive electrode comprises a lithium nickel manganese oxide represented by the following formula Li x Ni a M1 b Mn 2-a-b O 4 wherein in formula, M1 represents at least one selected from the group consisting of Ti, Si, Co, Fe, Cr, Al, Mg, B and Li; 0 < x ≤ 1; 0.4 ≤ a ≤ 0.6; and 0 < b ≤ 0.4, and having a specific surface area of 0.2 m 2 g -1 or more and 1 m 2 g -1 or less; and wherein the negative electrode comprises a lithium titanium oxide represented by the following formula Li y Ti 5/3-c M2 c O 4 wherein in formula, M2 represents at least one selected from the group consisting of Ta, Zr, and Cr; 4/3 ≤ y ≤ 7/3 and 0 < c < 0.1, and having a specific surface area of 4 m 2 g -1 or more and 20 m 2 g -1 or less. wherein the positive electrode comprises a lithium nickel manganese oxide represented by the following formula Li x Ni a M1 b Mn 2-a-b O 4 wherein in formula, M1 represents at least one selected from the group consisting of Ti, Si, Co, Fe, Cr, Al, Mg, B and Li; 0 < x ≤ 1; 0.4 ≤ a ≤ 0.6; and 0 < b ≤ 0.4, and having a specific surface area of 0.2 m 2 g -1 or more and 1 m 2 g -1 or less; and wherein the negative electrode comprises a lithium titanium oxide represented by the following formula Li y Ti 5/3-c M2 c O 4 wherein in formula, M2 represents at least one selected from the group consisting of Ta, Zr, and Cr; 4/3 ≤ y ≤ 7/3 and 0 < c < 0.1, and having a specific surface area of 4 m 2 g -1 or more and 20 m 2 g -1 or less.
A method of automatically fabricating a work glove by mounting a glove in a mold, the method comprising: (a) preparing pre-treatment solution consisting of methanol and a calcium nitrate or methanol and an acid-based material; (b) depositing the glove into the prepared pre-treatment solution and drying the glove; (c) coating resin on a portion of a surface of the dried glove, wherein the resin includes a waterborne polyurethane dispersion foam, and the coating of the resin on the portion of the surface of the dried glove comprises dipping the portion of the surface of the dried glove into the resin; (d) applying a surface-treatment powder to the coated portion of the glove through spraying and drying the coated portion of the glove, wherein the surface-treatment powder includes halite having a rectangular shape, and one side of the halite has a length in a range of 90 μm to 170 μm; (e) cleaning the glove, which is dried together with the surface-treatment powder, using air bubbles having a temperature in a range of 40 °C to 60 °C; and (f) dipping the glove, from which the halite is cleaned, into neutralization liquid, which is formed by dissolving sodium bicarbonate in water, such that the remaining calcium nitrate and acid-based material included in the pre-treatment solution are neutralized, wherein the drying of the coated portion of the glove is performed by hot air having a temperature in a range of 80 °C to 100 °C for time in a range of 10 minutes to 15 minutes. (a) preparing pre-treatment solution consisting of methanol and a calcium nitrate or methanol and an acid-based material; (b) depositing the glove into the prepared pre-treatment solution and drying the glove; (c) coating resin on a portion of a surface of the dried glove, wherein the resin includes a waterborne polyurethane dispersion foam, and the coating of the resin on the portion of the surface of the dried glove comprises dipping the portion of the surface of the dried glove into the resin; (d) applying a surface-treatment powder to the coated portion of the glove through spraying and drying the coated portion of the glove, wherein the surface-treatment powder includes halite having a rectangular shape, and one side of the halite has a length in a range of 90 μm to 170 μm; (e) cleaning the glove, which is dried together with the surface-treatment powder, using air bubbles having a temperature in a range of 40 °C to 60 °C; and (f) dipping the glove, from which the halite is cleaned, into neutralization liquid, which is formed by dissolving sodium bicarbonate in water, such that the remaining calcium nitrate and acid-based material included in the pre-treatment solution are neutralized,
An electrode assembly comprising a stack of unit cells, each of the unit cells comprising at least one negative electrode and at least one positive electrode, alternately stacked, wherein at least one separator is placed on each of both sides of the electrodes (20, 30), and further comprising at least one single electrode having negative or positive polarity, characterised in that: at least one of the unit cells has an area different from that of an adjacent unit cell to form at least one stepped portion on the electrode assembly, in that: the single electrode is placed on an upper side or lower side of the electrode assembly in a stacking direction of the unit cells, and the single electrode forms a stepped portion together with an adjacent unit cell, and in that: at least one of the unit cells and the unit cell adjacent thereto have mutually-facing electrodes, and one of the mutually-facing electrodes having a relatively large area is a single negative electrode. at least one of the unit cells has an area different from that of an adjacent unit cell to form at least one stepped portion on the electrode assembly, in that: the single electrode is placed on an upper side or lower side of the electrode assembly in a stacking direction of the unit cells, and the single electrode forms a stepped portion together with an adjacent unit cell, and in that: at least one of the unit cells and the unit cell adjacent thereto have mutually-facing electrodes, and one of the mutually-facing electrodes having a relatively large area is a single negative electrode. the single electrode is placed on an upper side or lower side of the electrode assembly in a stacking direction of the unit cells, and the single electrode forms a stepped portion together with an adjacent unit cell, and in that: at least one of the unit cells and the unit cell adjacent thereto have mutually-facing electrodes, and one of the mutually-facing electrodes having a relatively large area is a single negative electrode. at least one of the unit cells and the unit cell adjacent thereto have mutually-facing electrodes, and one of the mutually-facing electrodes having a relatively large area is a single negative electrode.
A telescopic insertion instrument for inserting a deformable ring for anchoring a suture into a bone, the insertion instrument having a body (509, 511) extending from a proximal end to a distal end and comprising first and second coupling members (520, 522) extending transversely therefrom, the first and second coupling members (520, 522) adapted to be removably couplable to a deformable ring, and being movable relative to one another along a longitudinal axis of the insertion instrument to move the deformable ring between an unstressed state and a compressed state, wherein the telescopic insertion instrument further comprises a drill bit located adjacent its distal end.
A stretched multilayer thermoplastic resin film which comprises layers containing a thermoplastic resin on both surfaces of a layer that contains a thermoplastic resin and elastic particles, wherein: respective intrinsic birefringences of the thermoplastic resin and the thermoplastic resin, calculated as disclosed in the description, are within the range of from -0.005 to 0.005; a content ratio of the elastic particles in the whole layer containing the thermoplastic resin and the elastic particles is 5 to 40% by weight; a glass transition temperature of the thermoplastic resin, determined as disclosed in the description, is 110°C or higher; and a saturated water absorption rate of the thermoplastic resin, determined as disclosed in the description, is less than 1.1 wt%; and wherein the thermoplastic resin comprises a (meth)acrylic acid ester structural unit (a) represented by general formula below: (wherein R1 represents a hydrogen atom or a methyl group, and R2 represents a C 1 -C 16 hydrocarbon group), and an aliphatic vinyl structural unit (b) represented by general formula below: (wherein R3 represents a hydrogen atom or a methyl group, and R4 represents a cyclohexyl group or a cyclohexyl group having a C 1 -C 4 hydrocarbon substituent), and wherein a ratio of the sum of the (meth)acrylic acid ester structural unit (a) and the aliphatic vinyl structural unit (b) is 90 to 100 mol% relative to the sum of all the structural units in the thermoplastic resin, and wherein a molar ratio between the (meth)acrylic acid ester structural unit (a) and the aliphatic vinyl structural unit (b) is 55:45 to 85:15. respective intrinsic birefringences of the thermoplastic resin and the thermoplastic resin, calculated as disclosed in the description, are within the range of from -0.005 to 0.005; a content ratio of the elastic particles in the whole layer containing the thermoplastic resin and the elastic particles is 5 to 40% by weight; a glass transition temperature of the thermoplastic resin, determined as disclosed in the description, is 110°C or higher; and a saturated water absorption rate of the thermoplastic resin, determined as disclosed in the description, is less than 1.1 wt%; and wherein the thermoplastic resin comprises a (meth)acrylic acid ester structural unit (a) represented by general formula below: (wherein R1 represents a hydrogen atom or a methyl group, and R2 represents a C 1 -C 16 hydrocarbon group), and an aliphatic vinyl structural unit (b) represented by general formula below: (wherein R3 represents a hydrogen atom or a methyl group, and R4 represents a cyclohexyl group or a cyclohexyl group having a C 1 -C 4 hydrocarbon substituent), and wherein a ratio of the sum of the (meth)acrylic acid ester structural unit (a) and the aliphatic vinyl structural unit (b) is 90 to 100 mol% relative to the sum of all the structural units in the thermoplastic resin, and wherein a molar ratio between the (meth)acrylic acid ester structural unit (a) and the aliphatic vinyl structural unit (b) is 55:45 to 85:15.
An apparatus comprising: a physically-discrete sign component including: an internally-electrically-illuminated alphabetic character having a front-facing profile; at least one connecting bar disposed at least substantially horizontally with respect to the front-facing profile of the alphabetic character and at least partially within the front-facing profile of the alphabetic character, the apparatus characterised in that the connecting bar is configured to attach directly to the connecting bar of an adjacent one of the physically discrete sign components to thereby form a multi-component sign. a physically-discrete sign component including: an internally-electrically-illuminated alphabetic character having a front-facing profile; at least one connecting bar disposed at least substantially horizontally with respect to the front-facing profile of the alphabetic character and at least partially within the front-facing profile of the alphabetic character, the apparatus characterised in that the connecting bar is configured to attach directly to the connecting bar of an adjacent one of the physically discrete sign components to thereby form a multi-component sign. an internally-electrically-illuminated alphabetic character having a front-facing profile; at least one connecting bar disposed at least substantially horizontally with respect to the front-facing profile of the alphabetic character and at least partially within the front-facing profile of the alphabetic character, the apparatus characterised in that the connecting bar is configured to attach directly to the connecting bar of an adjacent one of the physically discrete sign components to thereby form a multi-component sign.
An arrangement for electrochemically measuring biochemical reactions, with: - a base plate, - a sensor array with at least two sensors which are formed on a first surface of the base plate and comprise active surfaces for detecting the biochemical reactions, - a coating of the first surface of the base plate, wherein the active surfaces of the sensors are at least partially or fully free from the coating and regions of the base plate neighbouring the sensors are covered by the coating, - a sealing film comprising at least one opening, through which a flow cell is formed above the sensor array, in mechanical connection with the base plate and/or the coating of the base plate, and with - at least one inflow and outflow of the flow cell, characterised in that the inflow and the outflow are formed as through-openings in the base plate, and that the active surfaces of the sensors and the coating of the base plate have a separation from each other, such that trenches are formed around the sensors. - a base plate, - a sensor array with at least two sensors which are formed on a first surface of the base plate and comprise active surfaces for detecting the biochemical reactions, - a coating of the first surface of the base plate, wherein the active surfaces of the sensors are at least partially or fully free from the coating and regions of the base plate neighbouring the sensors are covered by the coating, - a sealing film comprising at least one opening, through which a flow cell is formed above the sensor array, in mechanical connection with the base plate and/or the coating of the base plate, and with - at least one inflow and outflow of the flow cell,
A method for use in a device, the method comprising: receiving broadcast system information from a node indicating one or more priority transmission configurations for high priority devices; determining that the device is enabled for at least one of the priority transmission configurations based at least in part on the broadcasted system information and a status of the device, wherein the at least one priority transmission configuration indicates a transmit power for random access procedure physical uplink shared channel, PUSCH, transmissions by high priority devices; and sending a random access procedure PUSCH transmission using the transmit power indicated by the at least one priority transmission configuration. receiving broadcast system information from a node indicating one or more priority transmission configurations for high priority devices; determining that the device is enabled for at least one of the priority transmission configurations based at least in part on the broadcasted system information and a status of the device, wherein the at least one priority transmission configuration indicates a transmit power for random access procedure physical uplink shared channel, PUSCH, transmissions by high priority devices; and sending a random access procedure PUSCH transmission using the transmit power indicated by the at least one priority transmission configuration.
An information processing apparatus comprising: an identification information acquisition unit configured to acquire predetermined identification information in association with an IP address of a target terminal, from the target terminal; a data acquisition unit configured to acquire a MAC address of the target terminal in association with the IP address of the target terminal, from a control apparatus for a base station to which the target terminal is connected; a storage control unit configured to store the predetermined identification information and the MAC address of the target terminal in association with each other; and a position information provision unit configured to, when acquiring a position estimation request including the predetermined identification information from the target terminal, provide position information of the target terminal corresponding to the MAC address of the target terminal associated with the predetermined identification information, to the target terminal. an identification information acquisition unit configured to acquire predetermined identification information in association with an IP address of a target terminal, from the target terminal; a data acquisition unit configured to acquire a MAC address of the target terminal in association with the IP address of the target terminal, from a control apparatus for a base station to which the target terminal is connected; a storage control unit configured to store the predetermined identification information and the MAC address of the target terminal in association with each other; and a position information provision unit configured to, when acquiring a position estimation request including the predetermined identification information from the target terminal, provide position information of the target terminal corresponding to the MAC address of the target terminal associated with the predetermined identification information, to the target terminal.
A method for headphone equalization, comprising - regularizing an inversion of a headphone frequency response H(ω) containing peaks and notches due to resonances and scattering produced inside the volume bound by the headphone and an ear of a listener, wherein the method comprises: - measuring the headphone frequency response H ( ω), and - equalizing said measured headphone frequency response H ( ω) using a regularized inverse filter H RI − 1 = H * ω H ω 2 + β ^ ω D ω where H ∗ (ω) is the complex conjugate of the headphone frequency response H(ω), D ( ω) is a delay filter introduced to produce a causal filter, and β̂ ( ω) is a frequency-dependent parameter, characterized in that the frequency dependent parameter β̂ ( ω) is defined as β ^ ω = α ω + σ 2 ω where the parameter σ(ω) is a regularization factor, determined as the negative deviation of the measured headphone frequency response H ( ω) from a smoothed version Ĥ(ω) of the headphone frequency response H ( ω): σ ω = { H ω − H ^ ω, if H ^ ω ≥ H ω 0, if H ^ ω < H ω and where, in a first alternative, the headphone reproduction bandwidth is known and α(ω) is defined using an unity gain filter, W ( ω), as α ω = 1 W ω 2 − 1 wherein the flat passband of W ( ω) corresponds to the headphone reproduction bandwidth, and, in a second alternative, the noise power spectrum | N ( ω)| 2 estimate of the headphone reproduction bandwidth is available and α ( ω) is defined as α ω = 1 SNR ω = N ω 2 H ω 2. - regularizing an inversion of a headphone frequency response H(ω) containing peaks and notches due to resonances and scattering produced inside the volume bound by the headphone and an ear of a listener, - measuring the headphone frequency response H ( ω), and - equalizing said measured headphone frequency response H ( ω) using a regularized inverse filter H RI − 1 = H * ω H ω 2 + β ^ ω D ω where H ∗ (ω) is the complex conjugate of the headphone frequency response H(ω), D ( ω) is a delay filter introduced to produce a causal filter, and β̂ ( ω) is a frequency-dependent parameter, where H ∗ (ω) is the complex conjugate of the headphone frequency response H(ω), D ( ω) is a delay filter introduced to produce a causal filter, and β̂ ( ω) is a frequency-dependent parameter,
A method of secure printing characterized by the steps of: a) sending a print job to a print server together with a user identifier, b) An RFID reader reading a user print credential from an RFID device or mobile device, c) transmitting by the RFID reader the user print credential together with its own unique reader identifier to the print server or an assignment server, d) selecting by the print server at least one print job based on the user print credential with at least one matching user identifier, e) selecting by the print server a network printer based on a previously established assignment between the unique reader identifier and the network printer, f) sending the selected print job by the print server to the selected network printer. a) sending a print job to a print server together with a user identifier, b) An RFID reader reading a user print credential from an RFID device or mobile device, c) transmitting by the RFID reader the user print credential together with its own unique reader identifier to the print server or an assignment server, d) selecting by the print server at least one print job based on the user print credential with at least one matching user identifier, e) selecting by the print server a network printer based on a previously established assignment between the unique reader identifier and the network printer, f) sending the selected print job by the print server to the selected network printer.
A method of forming a coating on an article, the method comprising: forming a coating (704;804;904) comprising an emitting layer, the emitting layer comprising elemental isotopes with a known property that can be measured by a spectroscopic method, the elemental isotopes providing a distinguishing identification tag for the coating, and the coating providing a layer of protection to the substrate; wherein the elemental isotopes are a blend of stable and unstable isotopes of an element that differs from a natural abundance; and wherein the distinguishing identification tag is an isotopic signature made unique and identifiable by the ratio of the stable and unstable isotopes; and depositing the coating on a surface of a substrate of the article. forming a coating (704;804;904) comprising an emitting layer, the emitting layer comprising elemental isotopes with a known property that can be measured by a spectroscopic method, the elemental isotopes providing a distinguishing identification tag for the coating, and the coating providing a layer of protection to the substrate; wherein the elemental isotopes are a blend of stable and unstable isotopes of an element that differs from a natural abundance; and wherein the distinguishing identification tag is an isotopic signature made unique and identifiable by the ratio of the stable and unstable isotopes; and depositing the coating on a surface of a substrate of the article.
A chimeric Newcastle Disease Virus, comprising a packaged genome comprising a nucleotide sequence encoding an HN-fusion protein having the transmembrane and cytoplasmic domains of an HN protein and at least one epitope of an ectodomain of a protective antigen of an infectious agent or an antigen associated with a disease that is anchored by the N-terminus, so that the HN-fusion protein is expressed and incorporated into the chimeric NDV, wherein the antigen is not derived from a paramyxovirus, and wherein the function of the HN protein is supplied by the HN-fusion protein or by the native HN protein.
An apparatus for the high pressure polymerization of ethylene which comprises: a high pressure reactor; a conduit for the supply of ethylene to the reactor, the conduit being provided with a preheater for heating the ethylene; a waste heat boiler for the production of medium pressure steam; a source of high pressure steam; and a steam distribution system comprising a medium pressure steam net for the distribution of medium pressure steam from the waste heat boiler, in which the preheater comprises first, second and third sections and the steam distribution system is such that the first section of the preheater can be supplied with steam from the medium pressure steam net, the second section of the preheater can be supplied with steam from the medium pressure steam net or with high pressure steam and the third section of the preheater can be supplied with high pressure steam. a high pressure reactor; a conduit for the supply of ethylene to the reactor, the conduit being provided with a preheater for heating the ethylene; a waste heat boiler for the production of medium pressure steam; a source of high pressure steam; and a steam distribution system comprising a medium pressure steam net for the distribution of medium pressure steam from the waste heat boiler, in which the preheater comprises first, second and third sections and the steam distribution system is such that the first section of the preheater can be supplied with steam from the medium pressure steam net, the second section of the preheater can be supplied with steam from the medium pressure steam net or with high pressure steam and the third section of the preheater can be supplied with high pressure steam.