mhurhangee/ep-ind-claims huggingface dataset:
A method of receiving communications at a receiving node that communicates with a transmitting node over a first communication channel and a second communication channel, the method comprising: receiving, at the receiving node, a request-to-send message from the transmitting node over the first communication channel, the request-to-send message indicating that the transmitting node has data to be transmitted to the receiving node over the second communication channel; in response to receiving the request-to-send message, determining (102, 104) at the receiving node, whether the second communication channel is available for reception of the data, wherein transmissions on the first communication channel are synchronized by frames and subframes, and wherein determining (102, 104) the availability of the second communication channel for the reception of the data comprises determining whether the second communication channel is available, for the reception of the data, just before a subframe boundary on the first communication channel; in response to determining (102, 104) that the second communication channel is available for the reception of the data, reserving the second communication channel for use by the transmitting node; and receiving, at the receiving node, the data from the transmitting node over the second communication channel. receiving, at the receiving node, a request-to-send message from the transmitting node over the first communication channel, the request-to-send message indicating that the transmitting node has data to be transmitted to the receiving node over the second communication channel; in response to receiving the request-to-send message, determining (102, 104) at the receiving node, whether the second communication channel is available for reception of the data, wherein transmissions on the first communication channel are synchronized by frames and subframes, and wherein determining (102, 104) the availability of the second communication channel for the reception of the data comprises determining whether the second communication channel is available, for the reception of the data, just before a subframe boundary on the first communication channel; in response to determining (102, 104) that the second communication channel is available for the reception of the data, reserving the second communication channel for use by the transmitting node; and receiving, at the receiving node, the data from the transmitting node over the second communication channel.
A surface treated intraocular lens, comprising: a) the product of a reaction mixture comprising a platinum catalyst, a silicon-hydride cross-linker, and a polymer having formula: wherein: the sum of m and n is x; x is from 0 to 5000; y is from 0 to 500; z is from 0 to 500; the sum of x, y, and z is at least 1; R 1 -R 8 are each independently selected from the group consisting of hydrogen, -CH 3, -C 6 H 5 and -CH=CH 2; wherein at least one of R 1, R 2 and R 3 is -CH=CH 2; wherein at least one of R 6, R 7, or R 8 is -CH=CH 2; and b) a surface treatment consisting essentially of a compound comprising at least one Si-H bond. a) the product of a reaction mixture comprising a platinum catalyst, a silicon-hydride cross-linker, and a polymer having formula: wherein: the sum of m and n is x; x is from 0 to 5000; y is from 0 to 500; z is from 0 to 500; the sum of x, y, and z is at least 1; R 1 -R 8 are each independently selected from the group consisting of hydrogen, -CH 3, -C 6 H 5 and -CH=CH 2; wherein at least one of R 1, R 2 and R 3 is -CH=CH 2; wherein at least one of R 6, R 7, or R 8 is -CH=CH 2; and the sum of m and n is x; x is from 0 to 5000; y is from 0 to 500; z is from 0 to 500; the sum of x, y, and z is at least 1; R 1 -R 8 are each independently selected from the group consisting of hydrogen, -CH 3, -C 6 H 5 and -CH=CH 2; wherein at least one of R 1, R 2 and R 3 is -CH=CH 2; wherein at least one of R 6, R 7, or R 8 is -CH=CH 2; and b) a surface treatment consisting essentially of a compound comprising at least one Si-H bond.
A method of indicating a system timing of an access point, comprising: determining a subframe index value of a particular subframe, SF, relative to the system timing of the access point; determining a subframe offset value based on the subframe index value; indicating the subframe offset value using a Discovery Reference Signal, DRS; and transmitting the DRS to at least one access terminal during the particular SF, wherein the DRS includes a Physical Broadcast Channel, PBCH, payload that is configured to be generated in accordance with a plurality of redundancy versions, each redundancy version of the plurality of redundancy versions being associated with a particular redundancy version value, and indicating the subframe offset value using the DRS comprises: selecting a redundancy version value that is equal to the subframe offset value; and generating a redundancy version of the PBCH payload based on the selected redundancy version value. determining a subframe index value of a particular subframe, SF, relative to the system timing of the access point; determining a subframe offset value based on the subframe index value; indicating the subframe offset value using a Discovery Reference Signal, DRS; and transmitting the DRS to at least one access terminal during the particular SF, wherein the DRS includes a Physical Broadcast Channel, PBCH, payload that is configured to be generated in accordance with a plurality of redundancy versions, each redundancy version of the plurality of redundancy versions being associated with a particular redundancy version value, and indicating the subframe offset value using the DRS comprises: selecting a redundancy version value that is equal to the subframe offset value; and generating a redundancy version of the PBCH payload based on the selected redundancy version value. selecting a redundancy version value that is equal to the subframe offset value; and generating a redundancy version of the PBCH payload based on the selected redundancy version value.
Tyre module for vehicle tyres with a tread, sidewalls and a tyre inner side, the tyre module having a container for receiving and protecting an electronics module, the separate electronics module comprising a multiplicity of integrated electronic components, the tyre module being arranged freely movably in the tyre cavity of the vehicle tyre and in the normal state lying against the tyre inner side, the container having an underside as a standing area in relation to the tyre inner side and this underside lying fixed in a position against the tyre inner side in a stable position of the tyre module and when there is movement of the vehicle tyre, the container having a short transverse axis and a long longitudinal axis with at least one wing-shaped extension (7, 8), the tyre module in a stable position aligning itself with its short transverse axis in the circumferential direction of the vehicle tyre and with its long longitudinal axis perpendicularly to the circumferential direction of the vehicle tyre on the tyre inner side, characterized in that the antenna in the tyre module is aligned substantially perpendicularly to the long longitudinal axis and points in the circumferential direction in relation to the vehicle tyre.
A fluid connector assembly comprising: a connector body having a female end portion and a male end portion, said male end portion having an outer diameter that is smaller than an outer diameter of said female end portion; said female end portion including an internal bore having threaded surfaces extending through said female end portion from an annular opening to an inner seat, said inner seat having a portion defining a concave frustoconical surface; said male end portion including an internal bore axially aligned with said female internal bore and extending from a first opening from a head end of said male end portion to a second opening at the female end portion inner seat; and an elongated tube having a concave flared end, said elongated tube extending through said male internal bore from said first opening with said flared end resting on said inner seat; characterized in that said internal bore of said female end portion has a larger internal diameter than the internal bore of said male end portion. a connector body having a female end portion and a male end portion, said male end portion having an outer diameter that is smaller than an outer diameter of said female end portion; said female end portion including an internal bore having threaded surfaces extending through said female end portion from an annular opening to an inner seat, said inner seat having a portion defining a concave frustoconical surface; said male end portion including an internal bore axially aligned with said female internal bore and extending from a first opening from a head end of said male end portion to a second opening at the female end portion inner seat; and an elongated tube having a concave flared end, said elongated tube extending through said male internal bore from said first opening with said flared end resting on said inner seat; characterized in that said internal bore of said female end portion has a larger internal diameter than the internal bore of said male end portion.
Method for producing a thruster nozzle from composite material, the method comprising at least the following steps: - forming a fiber preform of the nozzle to be obtained impregnated with a pre-polymerized phenolic resin, the pre-polymerized phenolic resin being obtained by pre-polymerizing a mono-aromatic aldehyde compound with a phenolic compound different from a hydroxybenzyl alcohol, the mono-aromatic aldehyde compound having the following formula: formula wherein n1 is an integer comprised between 1 and 3, n2 is an integer comprised between 0 and 5 and, when n2 is greater than or equal to 2, the substituents R are the same or different, formula wherein R is selected from: -COOH, -O-Alk groups where Alk denotes a substituted or unsubstituted alkyl chain of 1 to 4 carbon atoms, the hydrocarbon chains containing between 1 and 20 carbon atoms, saturated or unsaturated, substituted or unsubstituted and optionally having one or more carbonyl or carboxylic acid functions, and - heating the impregnated fiber preform so as to cross-link the pre-polymerized phenolic resin and obtain the thruster nozzle. - forming a fiber preform of the nozzle to be obtained impregnated with a pre-polymerized phenolic resin, the pre-polymerized phenolic resin being obtained by pre-polymerizing a mono-aromatic aldehyde compound with a phenolic compound different from a hydroxybenzyl alcohol, the mono-aromatic aldehyde compound having the following formula: formula wherein n1 is an integer comprised between 1 and 3, n2 is an integer comprised between 0 and 5 and, when n2 is greater than or equal to 2, the substituents R are the same or different, formula wherein R is selected from: -COOH, -O-Alk groups where Alk denotes a substituted or unsubstituted alkyl chain of 1 to 4 carbon atoms, the hydrocarbon chains containing between 1 and 20 carbon atoms, saturated or unsaturated, substituted or unsubstituted and optionally having one or more carbonyl or carboxylic acid functions, and - heating the impregnated fiber preform so as to cross-link the pre-polymerized phenolic resin and obtain the thruster nozzle.
Method for creating a recipe for a process-related process plant, which has at least one service, wherein the at least one service is a representation, in terms of automation technology, of concrete physical embodiments of process-related operations of the process-related process plant, characterised in that, to create a precursor of the recipe, firstly, a substitute object assigned to the service is used for each individual service of the at least one service, wherein the substitute object has a parameterisation, by means of which, when merging the created precursor of the recipe and a topology of the process-related process plant, the concrete physical embodiments of the process-related operations of the process-related process plant are incorporated to create the recipe, wherein the substitute object(s) are realised in a programmable logic controller of a control system of the process-related process plant or in a batch system of the control system of the process-related process plant.
A method comprising: providing a release liner having a release surface; printing an ink pattern onto the release surface of the release liner to form a passivation layer, the passivation layer including a pattern of passivation features projecting away from the release surface; and providing a layer of adhesive onto the release surface of the release liner, the passivation layer being sandwiched between the release liner and the layer of adhesive, wherein the passivation features are at least partially embedded in a major surface of the layer of adhesive such that when the release liner is peeled from the layer of adhesive, the passivation layer remains with the layer of adhesive to form one or more selected areas on the major surface of the layer of adhesive, the one or more selected areas having an adhesive functionality different from the remaining areas of the major surface of the layer of adhesive, wherein the passivation features have an exposed surface coplanar with the major surface of the layer of adhesive after the removal of the release liner. providing a release liner having a release surface; printing an ink pattern onto the release surface of the release liner to form a passivation layer, the passivation layer including a pattern of passivation features projecting away from the release surface; and providing a layer of adhesive onto the release surface of the release liner, the passivation layer being sandwiched between the release liner and the layer of adhesive, wherein the passivation features are at least partially embedded in a major surface of the layer of adhesive such that when the release liner is peeled from the layer of adhesive, the passivation layer remains with the layer of adhesive to form one or more selected areas on the major surface of the layer of adhesive, the one or more selected areas having an adhesive functionality different from the remaining areas of the major surface of the layer of adhesive, wherein the passivation features have an exposed surface coplanar with the major surface of the layer of adhesive after the removal of the release liner.
A resource allocation method for a mobile terminal in a wireless communication system, comprising: receiving a Semi-Persistent Scheduling Cell Radio Network Temporary Identifier, SPS C-RNTI, determining that a control message associated with the SPS C-RNTI is received, the control message comprising resource allocation information and a New Data Indicator, NDI; receiving a new data packet transmitted from a base station via a resource indicated by the resource allocation information if the control message associated with the SPS C-RNTI is received and the NDI is equal to 0; and receiving a retransmission data packet transmitted from the base station via a resource indicated by the resource allocation information if the control message associated with the SPS C-RNTI is received and the NDI is equal to 1, and wherein a resource allocation is changed from a resource which is previously allocated to the resource indicated by the resource allocation information, if the resource indicated by another resource allocation information is previously allocated and the NDI is equal to 0. receiving a Semi-Persistent Scheduling Cell Radio Network Temporary Identifier, SPS C-RNTI, determining that a control message associated with the SPS C-RNTI is received, the control message comprising resource allocation information and a New Data Indicator, NDI; receiving a new data packet transmitted from a base station via a resource indicated by the resource allocation information if the control message associated with the SPS C-RNTI is received and the NDI is equal to 0; and receiving a retransmission data packet transmitted from the base station via a resource indicated by the resource allocation information if the control message associated with the SPS C-RNTI is received and the NDI is equal to 1, and wherein a resource allocation is changed from a resource which is previously allocated to the resource indicated by the resource allocation information, if the resource indicated by another resource allocation information is previously allocated and the NDI is equal to 0.
A three-dimensional display apparatus comprising: a display surface that includes a plurality of subpixels arranged in a grid pattern along a first direction (x) corresponding to a horizontal direction and a second direction (y) orthogonal to the first direction (x), an optical element (6, 8) that defines a beam direction of light emitted from the display surface for each of a plurality of strip-shaped regions extending in a direction on the display surface at a predetermined angle other than 0 degrees with respect to the second direction (y); and a controller configured to cause the display surface to display an image, wherein the controller is configured to acquire brightness information and, based on the brightness information, reduce the luminance of at least a subset of binocular subpixels that have a portion included in a first visible region on the display surface for emitting light to a first eye position of a user and a remaining portion included in a second visible region on the display surface for emitting light to a second eye position of the user, and wherein the controller is configured to reduce the luminance of more binocular pixels as the level of brightness becomes lower. a display surface that includes a plurality of subpixels arranged in a grid pattern along a first direction (x) corresponding to a horizontal direction and a second direction (y) orthogonal to the first direction (x), an optical element (6, 8) that defines a beam direction of light emitted from the display surface for each of a plurality of strip-shaped regions extending in a direction on the display surface at a predetermined angle other than 0 degrees with respect to the second direction (y); and a controller configured to cause the display surface to display an image, wherein the controller is configured to acquire brightness information and, based on the brightness information, reduce the luminance of at least a subset of binocular subpixels that have a portion included in a first visible region on the display surface for emitting light to a first eye position of a user and a remaining portion included in a second visible region on the display surface for emitting light to a second eye position of the user, and wherein the controller is configured to reduce the luminance of more binocular pixels as the level of brightness becomes lower.
An oily dispersion comprising only two components: a dispersion medium and a surface-treated inorganic microparticle oxide powder, wherein the dispersion medium is an oil, the surface-treated inorganic microparticle oxide powder is a powder surface-treated with branched fatty acid containing isostearic acid as a primary constituent component or a metal salt containing isostearic acid as a primary constituent component at an amount of 1 to 30% by weight with respect to the powder as a base material, and the surface-treated inorganic microparticle oxide powder has a solid concentration of 25% by weight or more in the oily dispersion, and a viscosity of the prepared oily dispersion using a B-type viscosity meter at 6 rpm or at 60 rpm and at 25°C is 2,000 mPa.s or less, the powder used as a base material has an average particle diameter in the range of 5 to 100 nm, the ratio of inorganic oxide or hydroxide used as a substance for coating the powder as a base material during coating is 1 to 25% by weight in terms of the oxide.
A method for ensuring reliability of message transmission, characterized by comprising the steps of: negotiating, by a sender, a bandwidth saving capability of an IP message with a receiver, so as to determine a type of the IP message; constructing, by the sender, the IP message of the determined type, wherein the IP message comprises at least one IP sub-message which comprises a multiplex header, wherein the multiplex header comprises a source ID for indicating information of the sender and a first indication for indicating length of the IP sub-message; and sending, by the sender, the IP message to the receiver. negotiating, by a sender, a bandwidth saving capability of an IP message with a receiver, so as to determine a type of the IP message; constructing, by the sender, the IP message of the determined type, wherein the IP message comprises at least one IP sub-message which comprises a multiplex header, wherein the multiplex header comprises a source ID for indicating information of the sender and a first indication for indicating length of the IP sub-message; and sending, by the sender, the IP message to the receiver.
A method comprising: sampling, in a first sensor apparatus, received audio at a first rate to produce a first audio signal for a first channel; sampling, in a second sensor apparatus, received audio at the first rate to produce a first audio signal for a second channel; transforming the first audio signals into a sparse domain to produce respective sparse audio signals for the first and second channels; re-sampling the sparse audio signals to produce respective re-sampled sparse audio signals for the first and second channels (9A, 9B) to provide re-sampled sparse audio signals where bandwidth required for accurate audio reproduction is removed but bandwidth required for spatial audio encoding is retained; and providing the re-sampled sparse audio signals for the first and second channels to a server apparatus, and performing, in the server apparatus, spatial audio processing of the re-sampled sparse audio signals for the first and second channels to produce one or more inter-channel spatial audio parameters. sampling, in a first sensor apparatus, received audio at a first rate to produce a first audio signal for a first channel; sampling, in a second sensor apparatus, received audio at the first rate to produce a first audio signal for a second channel; transforming the first audio signals into a sparse domain to produce respective sparse audio signals for the first and second channels; re-sampling the sparse audio signals to produce respective re-sampled sparse audio signals for the first and second channels (9A, 9B) to provide re-sampled sparse audio signals where bandwidth required for accurate audio reproduction is removed but bandwidth required for spatial audio encoding is retained; and providing the re-sampled sparse audio signals for the first and second channels to a server apparatus, and performing, in the server apparatus, spatial audio processing of the re-sampled sparse audio signals for the first and second channels to produce one or more inter-channel spatial audio parameters.