mhurhangee/ep-ind-claims huggingface dataset:
An inductive rotational speed sensor assembly comprising: a first PCB including a transmitter coil printed thereon and configured to convert an alternating electrical input into an alternating magnetic field and a receiver coil (15; 15, 15A) printed thereon and separate from the transmitter coil; a second PCB operatively connected to the first PCB for relative rotation about an axis of rotation, wherein the second PCB includes a at least two resonance coils (25, 25A) printed thereon and configured to couple to the alternating magnetic field of the first PCB to output a modulating position signal, wherein the second PCB further comprises a resonant capacitor; wherein each one of the resonance coils (25,25A) and the receiver coil is non-axisymmetric relative said axis of rotation; wherein said resonance coils (25, 25A) are evenly distributed around said axis of rotation so as to allow detection of the rotational speed with increased precision; and wherein said receiver coil is configured to receive the modulating position signal and to output a signal indicative of rotational speed of the second PCB relative to the first PCB, and wherein the assembly is configured to convert the output signal to an angular frequency ω = 360° / nT, where ω is the angular speed in degrees per second, n is the number of signal peaks of the outputted signal per revolution, and T is the period of the outputted signal. a first PCB including a transmitter coil printed thereon and configured to convert an alternating electrical input into an alternating magnetic field and a receiver coil (15; 15, 15A) printed thereon and separate from the transmitter coil; a second PCB operatively connected to the first PCB for relative rotation about an axis of rotation, wherein the second PCB includes a at least two resonance coils (25, 25A) printed thereon and configured to couple to the alternating magnetic field of the first PCB to output a modulating position signal, wherein the second PCB further comprises a resonant capacitor; wherein each one of the resonance coils (25,25A) and the receiver coil is non-axisymmetric relative said axis of rotation; wherein said resonance coils (25, 25A) are evenly distributed around said axis of rotation so as to allow detection of the rotational speed with increased precision; and wherein said receiver coil is configured to receive the modulating position signal and to output a signal indicative of rotational speed of the second PCB relative to the first PCB, and wherein the assembly is configured to convert the output signal to an angular frequency ω = 360° / nT, where ω is the angular speed in degrees per second, n is the number of signal peaks of the outputted signal per revolution, and T is the period of the outputted signal.
A pixel defining structure comprising: a first pixel defining layer with a first opening, located on a substrate, wherein the first pixel defining layer comprises a first portion formed by a first hydrophilic-hydrophobic material and a second portion formed by a second hydrophilic-hydrophobic material, projections of the first portion and the second portion on a surface of the substrate are not overlapped, a side surface of the first pixel defining layer facing the first opening comprises a first side surface formed by the first hydrophilic-hydrophobic material and a second side surface formed by the second hydrophilic-hydrophobic material, and the first hydrophilic-hydrophobic material and the second hydrophilic-hydrophobic material are of different hydrophilicity-hydrophobicity, characterized in that the first portion is a lyophilic portion, the second portion is a lyophobic portion, a side of the lyophilic portion close to the first opening comprises a tooth-shaped structure, the lyophobic portion is located between teeth of the tooth-shaped structure, and the lyophobic portion does not extend beyond the lyophilic portion in an extending direction of the teeth. a first pixel defining layer with a first opening, located on a substrate, wherein the first pixel defining layer comprises a first portion formed by a first hydrophilic-hydrophobic material and a second portion formed by a second hydrophilic-hydrophobic material, projections of the first portion and the second portion on a surface of the substrate are not overlapped, a side surface of the first pixel defining layer facing the first opening comprises a first side surface formed by the first hydrophilic-hydrophobic material and a second side surface formed by the second hydrophilic-hydrophobic material, and the first hydrophilic-hydrophobic material and the second hydrophilic-hydrophobic material are of different hydrophilicity-hydrophobicity, characterized in that the first portion is a lyophilic portion, the second portion is a lyophobic portion, a side of the lyophilic portion close to the first opening comprises a tooth-shaped structure, the lyophobic portion is located between teeth of the tooth-shaped structure, and the lyophobic portion does not extend beyond the lyophilic portion in an extending direction of the teeth.
A process for making a polyester preform, comprising feeding a molten or solid bulk polyester and a liquid, molten or solid polyester concentrate composition to a machine for manufacturing the preform, the polyester concentrate composition comprising titanium nitride particles having a median particle size from 1 nm to 1,000 nrn, to obtain a preform having from 1 ppm to 100 ppm titanium nitride particles, based on the weight of the polyester preform.
Flap valve, comprising a seal (34a; 34b; 34c) having an annular seal body of an elastomer material, and an annular groove for receiving the seal (34a; 34b; 34c), wherein the seal body has, with respect to a longitudinal axis (16a;16b;16c) of the seal body, a radially inner wall section (36a; 36b; 36c) having a seal surface (46a; 46b; 46c) and a radially outer wall section (38a; 38b; 38c) having a larger longitudinal extension in direction of the longitudinal axis (16a; 16b; 16c) than the radially inner wall section (36a; 36b; 36c), wherein the radially outer wall section (38a; 38b; 38c) forms a step (40a; 40b; 40c) with the radially inner wall section (36a; 36b; 36c), and wherein the radially outer wall section (38a; 38b; 38c) is received in a radially outer groove section of the groove in form-fit manner so that longitudinal ends (42a, 44a; 42b, 44b; 42c, 44c) of the radially outer wall section (38a; 38b; 38c) are held in the radially outer groove section, wherein the radially outer wall section (38a; 38b; 38c) has a reinforcement (50a; 50b; 50c) from a material being stiffer than the elastomer material, wherein the reinforcement (50a; 50b; 50c) axially supports the radially outer wall section (38a; 38b; 38c), characterized in that the reinforcement (50a; 50b) is formed by at least two reinforcement elements (60a, 60'a; 60b, 60'b) separated in circumferential direction, each of which extends over a partial circumference of the radially outer wall section (38a; 38b), wherein the reinforcement elements (60a, 60'a; 60b, 60'b) are configured as annular band sections or small plates, and that the reinforcement elements (60; 60a, 60'a; 60b, 60'b; 60c) are configured as inlay pieces each of which being inlaid in a respective recess (70a, 70'a; 70b, 70'b; 70c) on the radially outer side of the radially outer wall section (38a; 38b; 38c).
An electrode composite (10, 10A, 10B, 10C, 10D) comprising: a negative electrode active material-containing layer comprising negative electrode active material secondary particles having an average secondary particle size of from 1 μm to 30 μm, the average secondary particle size being determined according to the method described in the section of the specification titled "Observation of Negative Electrode Active Material-Containing Layer", and the negative electrode active material secondary particles comprising titanium-containing oxide particles; and an insulating particle layer provided on the negative electrode active material-containing layer and comprising inorganic compound particles, wherein the insulating particle layer comprises a first surface and a second surface opposed to the first surface, the first surface is in contact with the negative electrode active material-containing layer, and the second surface has a surface roughness of 0.1 μm or less, the surface roughness being determined according to the method described in the section of the specification titled "Method of Measuring Surface Roughness of Insulating Particle Layer". a negative electrode active material-containing layer comprising negative electrode active material secondary particles having an average secondary particle size of from 1 μm to 30 μm, the average secondary particle size being determined according to the method described in the section of the specification titled "Observation of Negative Electrode Active Material-Containing Layer", and the negative electrode active material secondary particles comprising titanium-containing oxide particles; and an insulating particle layer provided on the negative electrode active material-containing layer and comprising inorganic compound particles, wherein the insulating particle layer comprises a first surface and a second surface opposed to the first surface, the first surface is in contact with the negative electrode active material-containing layer, and the second surface has a surface roughness of 0.1 μm or less, the surface roughness being determined according to the method described in the section of the specification titled "Method of Measuring Surface Roughness of Insulating Particle Layer".
A display device comprising: a first substrate comprising a display area and a pad area; a data conductive layer on the first substrate and comprising voltage lines (VL1, VL2), which are in the display area, and a wire pad, which is in the pad area; a first planarization layer on the data conductive layer in the display area; first banks on the first substrate in the display area, and spaced apart from each other; first and second electrodes (21, 22) on the first banks in the display area; a pad electrode base layer (PAD_R) in the pad area to cover the wire pad; a first insulating layer on the first electrode, the second electrode, and the pad electrode base layer (PAD_R) and defining openings; light-emitting elements on the first insulating layer, between the first banks, and having respective ends on the first and second electrodes (21, 22); first and second contact electrodes (CNE1, CNE2) on the first and second electrodes (21, 22) in the display area, and contacting first ends of the light-emitting elements; and a pad electrode upper layer (PAD_C) on the first insulating layer in the pad area, and directly contacting the pad electrode base layer (PAD_R), wherein the first insulating layer is located on the first planarization layer and covers the first banks, the first and the second electrodes (21, 22) and part of the wire pad in the pad area. a first substrate comprising a display area and a pad area; a data conductive layer on the first substrate and comprising voltage lines (VL1, VL2), which are in the display area, and a wire pad, which is in the pad area; a first planarization layer on the data conductive layer in the display area; first banks on the first substrate in the display area, and spaced apart from each other; first and second electrodes (21, 22) on the first banks in the display area; a pad electrode base layer (PAD_R) in the pad area to cover the wire pad; a first insulating layer on the first electrode, the second electrode, and the pad electrode base layer (PAD_R) and defining openings; light-emitting elements on the first insulating layer, between the first banks, and having respective ends on the first and second electrodes (21, 22); first and second contact electrodes (CNE1, CNE2) on the first and second electrodes (21, 22) in the display area, and contacting first ends of the light-emitting elements; and a pad electrode upper layer (PAD_C) on the first insulating layer in the pad area, and directly contacting the pad electrode base layer (PAD_R), wherein the first insulating layer is located on the first planarization layer and covers the first banks, the first and the second electrodes (21, 22) and part of the wire pad in the pad area.
An absorbent article comprising an absorbent core sandwiched between a liquid-permeable topsheet and a liquid-impermeable backsheet, the article having a longitudinal direction along a central longitudinal axis and a transverse direction along a central transverse axis extending perpendicular to the longitudinal axis, the absorbent article having a front end edge extending in the transverse direction and a back end edge extending in the transverse direction and a first side edge extending in the longitudinal direction and a second side edge extending in the longitudinal direction, the absorbent article comprising a front portion, a back portion and a crotch portion located between the front portion and the back portion, wherein the absorbent core comprises an absorbent component, the absorbent component being enclosed by a core cover (11, 12), the absorbent component comprising a coherent area, the coherent area having an extension in the longitudinal direction in at least the front portion and the crotch portion of the absorbent article and having an extension in the transverse direction over a full width of the absorbent component inside the core cover, the coherent area having a front edge and a back edge, wherein the absorbent component comprises high density areas of absorbent material alternating with low density areas of absorbent material, the high density areas of absorbent material and the low density areas of absorbent material extending in the longitudinal direction of the absorbent article, in the front portion and/or in the crotch portion of the absorbent article, wherein the back portion of the absorbent article comprises a conformance zone, and wherein the coherent area and the conformance zone are separated vertically by an area substantially free from absorbent material, characterized in that the conformance zone does not comprise areas being free from absorbent material, wherein the absorbent material in the conformance zone has a lower basis weight than the absorbent material in the high density areas in the coherent area.
An electroluminescent device, comprising a first electrode; a hole transport layer disposed on the first electrode; a first emission layer disposed on the hole transport layer, the first emission layer comprising a first light emitting particle on which a first ligand having a hole transporting property is attached; a second emission layer disposed on the first emission layer, the second emission layer comprising a second light emitting particle on which a second ligand having a electron transporting property is attached; an electron transport layer disposed on the second emission layer; and a second electrode disposed on the electron transport layer, wherein a solubility of the first ligand in a solvent is different than a solubility of the second ligand in the solvent, and characterized in that at least one of the first ligand or the second ligand independently comprises a ligand compound derived from an alkyl-based compound, and wherein the first ligand comprises an oleic acid. a hole transport layer disposed on the first electrode; a first emission layer disposed on the hole transport layer, the first emission layer comprising a first light emitting particle on which a first ligand having a hole transporting property is attached; a second emission layer disposed on the first emission layer, the second emission layer comprising a second light emitting particle on which a second ligand having a electron transporting property is attached; an electron transport layer disposed on the second emission layer; and a second electrode disposed on the electron transport layer, wherein a solubility of the first ligand in a solvent is different than a solubility of the second ligand in the solvent, and characterized in that at least one of the first ligand or the second ligand independently comprises a ligand compound derived from an alkyl-based compound, and wherein the first ligand comprises an oleic acid.
A method for determining and compensating a proportion of stray light (I S, φ S) of a measuring beam of a 3D laser scanner by which a 3D point cloud (26, 26') of an object to be detected can be generated through phase-based distance measurement, with - a first step sequence via which first parameters (I S, φ S) of the proportion of stray light can be determined independently of the 3D point cloud and - a second step sequence via which second parameters of the proportion of stray light can be determined dependent on the generated 3D point cloud, wherein the method further comprises the following steps: - compensating the proportion of stray light as a function of the first parameters (I S, φ S) and/or of the second parameters - characterized by - a selection of whether the first step sequence or the second step sequence, or both, is or are used to determine the different stray light parameters. - a first step sequence via which first parameters (I S, φ S) of the proportion of stray light can be determined independently of the 3D point cloud and - a second step sequence via which second parameters of the proportion of stray light can be determined dependent on the generated 3D point cloud, wherein the method further comprises the following steps: - compensating the proportion of stray light as a function of the first parameters (I S, φ S) and/or of the second parameters - characterized by - a selection of whether the first step sequence or the second step sequence, or both, is or are used to determine the different stray light parameters. - compensating the proportion of stray light as a function of the first parameters (I S, φ S) and/or of the second parameters - characterized by - a selection of whether the first step sequence or the second step sequence, or both, is or are used to determine the different stray light parameters.
A computer implemented method for implementing a coherence protocol, the method comprising: sending, by a requesting processor, a request for data to a remote processor, said request being by a requesting transaction executing on the requesting processor sending the request; receiving, by the requesting processor, a response from the remote processor, the response including a transaction status of a remote transaction on the remote processor, wherein the transaction status received in the response from the remote processor includes: a type of interference at the remote processor caused by the requesting transaction executing on the requesting processor, a number of clock cycles of work having been performed by the remote transaction prior to being aborted on the remote processor, or an indication of whether a rollback was caused on the remote processor by sending the request to the remote processor; and adding, by the requesting processor, the transaction status of the remote transaction on the remote processor in a transaction interference tracking table; wherein the requesting processor is a separate processor from the remote processor. sending, by a requesting processor, a request for data to a remote processor, said request being by a requesting transaction executing on the requesting processor sending the request; receiving, by the requesting processor, a response from the remote processor, the response including a transaction status of a remote transaction on the remote processor, wherein the transaction status received in the response from the remote processor includes: a type of interference at the remote processor caused by the requesting transaction executing on the requesting processor, a number of clock cycles of work having been performed by the remote transaction prior to being aborted on the remote processor, or an indication of whether a rollback was caused on the remote processor by sending the request to the remote processor; and adding, by the requesting processor, the transaction status of the remote transaction on the remote processor in a transaction interference tracking table; wherein the requesting processor is a separate processor from the remote processor.
A process for recovering lithium from a lithium-containing silicate mineral, the process comprising: mixing the silicate mineral with nitric acid; subjecting the mixture to a leaching process having conditions such that lithium values in the silicate mineral are leached into an aqueous phase as lithium nitrate; separating lithium nitrate crystals from the aqueous phase; subjecting the separated lithium nitrate crystals to thermal treatment, at a temperature that causes decomposition of the lithium nitrate into solid lithium oxide, and such that a gaseous stream that comprises oxides of nitrogen is produced; passing the gaseous stream comprising oxides of nitrogen to a nitric acid production stage in which nitric acid is produced for reuse in the leaching process. mixing the silicate mineral with nitric acid; subjecting the mixture to a leaching process having conditions such that lithium values in the silicate mineral are leached into an aqueous phase as lithium nitrate; separating lithium nitrate crystals from the aqueous phase; subjecting the separated lithium nitrate crystals to thermal treatment, at a temperature that causes decomposition of the lithium nitrate into solid lithium oxide, and such that a gaseous stream that comprises oxides of nitrogen is produced; passing the gaseous stream comprising oxides of nitrogen to a nitric acid production stage in which nitric acid is produced for reuse in the leaching process.
A method for a control server (110, 310, 410, 500), for controlling a connection between devices of a wireless communication system providing an IP-based communication service, the method comprising: registering, by the control server (110, 310, 410, 500), at least two devices in a group list classified by user identification information of a control node (100, 300, 400); receiving, by the control server (110, 310, 410, 500), a request from the control node (100, 300, 400) to control any one device included in the group list; checking, by the control server (110, 310, 410, 500) an IP address of the device that is requested to be controlled by the control node (100, 300, 400); and sending, by the control server (110, 310, 410, 500) a control command of the control node (100, 300, 400) to the device, using the IP address, characterised in that the registering of the device comprises: checking registration information of a device requesting registration; if any one device requests a search, checking search request information received from the device requesting the search; and if the registration information is matched with the search request information, adding the device requesting the registration to a group list classified by user identification information of the device requesting the search. registering, by the control server (110, 310, 410, 500), at least two devices in a group list classified by user identification information of a control node (100, 300, 400); receiving, by the control server (110, 310, 410, 500), a request from the control node (100, 300, 400) to control any one device included in the group list; checking, by the control server (110, 310, 410, 500) an IP address of the device that is requested to be controlled by the control node (100, 300, 400); and sending, by the control server (110, 310, 410, 500) a control command of the control node (100, 300, 400) to the device, using the IP address, checking registration information of a device requesting registration; if any one device requests a search, checking search request information received from the device requesting the search; and if the registration information is matched with the search request information, adding the device requesting the registration to a group list classified by user identification information of the device requesting the search.