mhurhangee/ep-ind-claims huggingface dataset:
Vibro-acoustic insulating module device (100; 200; 300; 400), comprising: six mass elements (101; 201; 301; 401) respectively adjacent, juxtaposed and near to each other but not realized in a single piece and there is discontinuity of material between mass elements (101; 201; 301; 401) adjacent to each other, wherein gaps are present between said mass elements (101; 201; 301; 401) so that said six mass elements (101; 201; 301; 401) are not joined, wherein said mass elements (101; 201; 301; 401) have a substantially pyramid-shape or substantially truncated pyramid-shape or substantially cone-shape or substantially truncated cone-shape, defining a substantially cubic or parallelepiped structure of said module device (100; 200; 300; 400), said mass elements (101; 202; 301; 401) being preferably alike; at least twelve stiffness elements (102; 202; 302; 402) configured for mechanically interconnecting said six mass elements (101; 201; 301; 401) in said module device (100; 200; 300; 400); wherein each mass element (101; 201; 301; 401) among said six mass elements (101; 201; 301; 401) comprises at least four anchor elements (103; 203; 303; 403) for respective at least four stiffness elements (102; 202; 302; 402) among said at least twelve stiffness elements (102; 202; 302; 402); and wherein each of said at least four stiffness elements (102; 202; 302; 402) respectively connects said each mass element (101; 201; 301; 401) to four mass elements (101; 201; 301; 401) of said six mass elements (101; 201; 301; 401), said four mass elements (101; 201; 301; 401) being adjacent to said each mass element (101; 201; 301; 401). six mass elements (101; 201; 301; 401) respectively adjacent, juxtaposed and near to each other but not realized in a single piece and there is discontinuity of material between mass elements (101; 201; 301; 401) adjacent to each other, wherein gaps are present between said mass elements (101; 201; 301; 401) so that said six mass elements (101; 201; 301; 401) are not joined, wherein said mass elements (101; 201; 301; 401) have a substantially pyramid-shape or substantially truncated pyramid-shape or substantially cone-shape or substantially truncated cone-shape, defining a substantially cubic or parallelepiped structure of said module device (100; 200; 300; 400), said mass elements (101; 202; 301; 401) being preferably alike; at least twelve stiffness elements (102; 202; 302; 402) configured for mechanically interconnecting said six mass elements (101; 201; 301; 401) in said module device (100; 200; 300; 400); wherein each mass element (101; 201; 301; 401) among said six mass elements (101; 201; 301; 401) comprises at least four anchor elements (103; 203; 303; 403) for respective at least four stiffness elements (102; 202; 302; 402) among said at least twelve stiffness elements (102; 202; 302; 402); and wherein each of said at least four stiffness elements (102; 202; 302; 402) respectively connects said each mass element (101; 201; 301; 401) to four mass elements (101; 201; 301; 401) of said six mass elements (101; 201; 301; 401), said four mass elements (101; 201; 301; 401) being adjacent to said each mass element (101; 201; 301; 401).
Document, comprising: - a stack of layers comprising at least one upper layer, one lower layer and one inner layer which is interposed between the upper layer and the lower layer, the inner layer being transparent or translucent so as to form a waveguide to guide light in a first wavelength spectrum through the inner layer, the inner layer forming, collectively with the upper layer and the lower layer, an edge which delimits an outline of the stack; and - an array of lenses; the document being characterized in that the lenses are formed on at least part of the edge of the stack, said lenses being positioned along the edge in order to make the light in the first wavelength spectrum converge or diverge when it propagates through the inner layer until it emerges from the document through said edge, so as to make a series of coloured zones (Z1, Z2) of at least two distinct colours (C1, C2, C4) appear on the edge. - a stack of layers comprising at least one upper layer, one lower layer and one inner layer which is interposed between the upper layer and the lower layer, the inner layer being transparent or translucent so as to form a waveguide to guide light in a first wavelength spectrum through the inner layer, the inner layer forming, collectively with the upper layer and the lower layer, an edge which delimits an outline of the stack; and - an array of lenses; - an array of lenses; the document being characterized in that the lenses are formed on at least part of the edge of the stack, said lenses being positioned along the edge in order to make the light in the first wavelength spectrum converge or diverge when it propagates through the inner layer until it emerges from the document through said edge, so as to make a series of coloured zones (Z1, Z2) of at least two distinct colours (C1, C2, C4) appear on the edge.
A method of resolving defined known or suspected allergens in a complex mixture of perfume ingredients using two-dimensional gas chromatography (2D-GC), wherein the combination of first and second stationary phases is selected on the basis of a clustering analysis of defined known or suspected allergens providing a Separation Efficiency parameter (SE 2D) of 94% or greater wherein SE 2 D = 100 n + m × n + ∑ i = 1 m ∏ j = 1 o Rs 2 D, ij and wherein RS 2D is the two-dimensional resolution between two neighbouring peaks (a) and (b), corresponding to two different defined known or suspected allergens on a 2D-GC contour plot, given by the formula: Rs 2 D = 2 × Δ 1 tr 2 × M r + 1 × P M 2 + 2 × Δ 2 tr 2.55 × F 2 WHH a + F 2 WHH b 2 and wherein M r is the average number of time each peak is sampled by the modulator, rounded to the upper value, P M is the 2D-GC modulation period in seconds, Δ 1 tr is the difference of retention times between two neighbouring peaks (a) and (b) on the first dimension (x-axis); Δ 2 tr is the difference of retention times between the same two neighbouring peaks (a) and (b) on the second dimension (y-axis); 2 FWHH α is the second dimension peak width of a peak (a) at half height and 2 FWHH b is the second dimension peak width of a peak (b) at half height; two defined known or suspected allergens having an RS 2D value of 1 or higher are well separated and are referred to as Singletons; and two defined known or suspected allergens having an RS 2D value of less than 1 are a cluster; and wherein n is the number of Singletons; m is the number of defined known or suspected allergens belonging to a cluster; o is the number of clusters for a given known or suspected allergens; and Rs 2 D,ij is the Rs2D value for a defined analytical target i in a given cluster j. M r is the average number of time each peak is sampled by the modulator, rounded to the upper value, P M is the 2D-GC modulation period in seconds, Δ 1 tr is the difference of retention times between two neighbouring peaks (a) and (b) on the first dimension (x-axis); Δ 2 tr is the difference of retention times between the same two neighbouring peaks (a) and (b) on the second dimension (y-axis); 2 FWHH α is the second dimension peak width of a peak (a) at half height and 2 FWHH b is the second dimension peak width of a peak (b) at half height; two defined known or suspected allergens having an RS 2D value of 1 or higher are well separated and are referred to as Singletons; and two defined known or suspected allergens having an RS 2D value of less than 1 are a cluster; and wherein n is the number of Singletons; m is the number of defined known or suspected allergens belonging to a cluster; o is the number of clusters for a given known or suspected allergens; and Rs 2 D,ij is the Rs2D value for a defined analytical target i in a given cluster j.
A method of manufacturing an antenna, comprising: providing a sheet of metallic material; performing a first stamping of the sheet of metallic material to form at least one antenna, the at least one antenna including traces, contacts, a carrier connected to the traces, and at least one tie-bar connected between the traces; providing a pad with at least one pressure sensitive adhesive area, the at least one pressure sensitive adhesive area provided on the pad in substantially the same shape as the traces of the at least one antenna; aligning the at least one pressure sensitive adhesive area with the traces of the at least one antenna after the at least one antenna has been stamped for a first time; bonding the at least one pressure sensitive adhesive area to the traces of the at least one antenna after the at least one antenna has been stamped for a first time and the at least one pressure sensitive adhesive area has been aligned with the traces of the at least one antenna; and performing a second stamping of the at least one antenna and the at least one pressure sensitive adhesive area to remove the at least one carrier and the at least one tie-bar connected to the traces. providing a sheet of metallic material; performing a first stamping of the sheet of metallic material to form at least one antenna, the at least one antenna including traces, contacts, a carrier connected to the traces, and at least one tie-bar connected between the traces; providing a pad with at least one pressure sensitive adhesive area, the at least one pressure sensitive adhesive area provided on the pad in substantially the same shape as the traces of the at least one antenna; aligning the at least one pressure sensitive adhesive area with the traces of the at least one antenna after the at least one antenna has been stamped for a first time; bonding the at least one pressure sensitive adhesive area to the traces of the at least one antenna after the at least one antenna has been stamped for a first time and the at least one pressure sensitive adhesive area has been aligned with the traces of the at least one antenna; and performing a second stamping of the at least one antenna and the at least one pressure sensitive adhesive area to remove the at least one carrier and the at least one tie-bar connected to the traces.
A method of performing, by a user equipment, UE, uplink transmission in a wireless communication system, the method comprising: receiving, from a base station, BS, first radio resource control, RRC, configuration information for a configured grant-based physical uplink shared channel, PUSCH; receiving, from the BS, second RRC configuration information for a dynamic grant-based PUSCH; receiving, from the BS, a first downlink control information, DCI, that is scrambled by a configured scheduling, CS,-radio network temporary identifier, RNTI; validating the first DCI as a valid activation or a valid release of the configured grant-based PUSCH; applying parameters of the first RRC configuration information to the first DCI, according to a DCI format of the first DCI, for a configured grant-based PUSCH transmission; performing the configured grant-based PUSCH transmission to the BS; receiving, from the BS, a second DCI that is scrambled by the CS-RNTI; and based on a new data indicator, NDI, field of the second DCI indicating a PUSCH re-transmission: (i) applying parameters of the second RRC configuration information to the second DCI, according to the same DCI format as the first DCI, for the PUSCH re-transmission, and (ii) performing the PUSCH re-transmission to the BS, wherein at least one field of the first DCI that is scrambled by the CS-RNTI comprises zero-padding to have a same size as each corresponding at least one field of a third DCI that is scrambled by a cell-RNTI, C-RNTI, and wherein the third DCI has the same DCI format as the first DCI. receiving, from a base station, BS, first radio resource control, RRC, configuration information for a configured grant-based physical uplink shared channel, PUSCH; receiving, from the BS, second RRC configuration information for a dynamic grant-based PUSCH; receiving, from the BS, a first downlink control information, DCI, that is scrambled by a configured scheduling, CS,-radio network temporary identifier, RNTI; validating the first DCI as a valid activation or a valid release of the configured grant-based PUSCH; applying parameters of the first RRC configuration information to the first DCI, according to a DCI format of the first DCI, for a configured grant-based PUSCH transmission; performing the configured grant-based PUSCH transmission to the BS; receiving, from the BS, a second DCI that is scrambled by the CS-RNTI; and based on a new data indicator, NDI, field of the second DCI indicating a PUSCH re-transmission: (i) applying parameters of the second RRC configuration information to the second DCI, according to the same DCI format as the first DCI, for the PUSCH re-transmission, and (ii) performing the PUSCH re-transmission to the BS, wherein at least one field of the first DCI that is scrambled by the CS-RNTI comprises zero-padding to have a same size as each corresponding at least one field of a third DCI that is scrambled by a cell-RNTI, C-RNTI, and wherein the third DCI has the same DCI format as the first DCI.
A hair styling device, comprising: a two-dimensional array of elements to bring hair at a styling temperature, wherein the elements produce optical radiation energy; and characterized by: sensors to obtain an areal light absorption measurement opposed to the two-dimensional array of elements, and a control unit for individually controlling the elements in dependence of the measurement. sensors to obtain an areal light absorption measurement opposed to the two-dimensional array of elements, and a control unit for individually controlling the elements in dependence of the measurement.
A guide assembly (10a, 10b) for a disc brake comprising: a guide pin, the guide pin having a monolithic body comprising a mounting portion and a guiding portion; and a brake carrier comprising a retaining bore, wherein the retaining bore is configured to receive the guide pin and retain the mounting portion; whereby the guiding portion protrudes from an inboard-side of the brake carrier and is configured to slidably support a brake caliper; characterised in that the retaining bore is a through-hole extending through the brake carrier; and wherein the retaining bore is configured to slidably receive the guide pin from the inboard-side of the brake carrier and from the outboard-side of the brake carrier. a guide pin, the guide pin having a monolithic body comprising a mounting portion and a guiding portion; and a brake carrier comprising a retaining bore, wherein the retaining bore is configured to receive the guide pin and retain the mounting portion; whereby the guiding portion protrudes from an inboard-side of the brake carrier and is configured to slidably support a brake caliper; characterised in that the retaining bore is a through-hole extending through the brake carrier; and wherein the retaining bore is configured to slidably receive the guide pin from the inboard-side of the brake carrier and from the outboard-side of the brake carrier.
A network comprising: a first access area comprising one or more transmission/receive points, TRPs, wherein at least one transmission/receive point is adapted to support wireless radio access to one or more user equipments, UEs,; characterized in that the network further comprising: means for configuring a first dedicated connection signature, DCS, to be assigned to a first UE, wherein said first DCS is used to provide active access for said first UE to any TRP of the at least one TRPs in said first access area providing wireless radio access to a communications network, the means for configuring being adapted to assign the first DCS to the first UE for decoupling the first UE from any TRP of the at least one TRPs in the first access area. a first access area comprising one or more transmission/receive points, TRPs, wherein at least one transmission/receive point is adapted to support wireless radio access to one or more user equipments, UEs,; characterized in that the network further comprising: means for configuring a first dedicated connection signature, DCS, to be assigned to a first UE, wherein said first DCS is used to provide active access for said first UE to any TRP of the at least one TRPs in said first access area providing wireless radio access to a communications network, the means for configuring being adapted to assign the first DCS to the first UE for decoupling the first UE from any TRP of the at least one TRPs in the first access area.
Method for preventing stress cracking corrosion in tubes of erected and installed tube wall regions or tube wall segments of a steam generator wall of a steam generator or steam boiler of a power station fired with carbon-containing fuel, wherein the tubes of the tube wall regions or tube wall segments are composed of one of the steels T22, T23 or T24, and wherein an inert gas or an inert gas mixture is introduced into the tubes of the tube wall regions or tube wall segments which are composed of one of the steels T22, T23, T24, through which boiler water or steam formed therefrom flows when the power station is in operation, for reducing the oxygen content in the flow volume formed by the tubes before filling or refilling the steam generator or steam boiler with boiler water or steam, in a way to displace gaseous oxygen present in the respective flow volume of the tubes in the form of atmospheric oxygen.
A method for creating a morphing object (100; 200; 300; 500; 510; 520; 530; 700; 800; 1100; 1302; 1304), the method comprising: creating one or more heating elements (502; 512; 522; 532; 1121) on a substrate (110; 410; 501; 511; 521; 531; 701; 801; 913; 1120; 1202; 1204; 1206; 1208; 1210) by applying one or more conductive traces (120; 421; 422; 503; 504; 523; 524; 533; 534; 1123; 1224) onto at least one of a first surface of the substrate or a second surface of the substrate opposite the first surface, wherein applying the one or more conductive traces comprises printing, by an inkjet printer (911; 1010), a conductive ink (420; 611; 621; 641; 1015) on the at least one first surface or second surface; forming a hydrogel pattern (610; 620; 630; 640; 1122) on the first surface of the substrate by printing, by the inkjet printer, a hydrogel ink (430; 612; 622; 914; 1014) on the first surface of the substrate based on a predefined pattern; and forming an encapsulation layer over the hydrogel pattern by printing, by the inkjet printer, encapsulation ink (440; 915) over the printed hydrogel ink. creating one or more heating elements (502; 512; 522; 532; 1121) on a substrate (110; 410; 501; 511; 521; 531; 701; 801; 913; 1120; 1202; 1204; 1206; 1208; 1210) by applying one or more conductive traces (120; 421; 422; 503; 504; 523; 524; 533; 534; 1123; 1224) onto at least one of a first surface of the substrate or a second surface of the substrate opposite the first surface, wherein applying the one or more conductive traces comprises printing, by an inkjet printer (911; 1010), a conductive ink (420; 611; 621; 641; 1015) on the at least one first surface or second surface; forming a hydrogel pattern (610; 620; 630; 640; 1122) on the first surface of the substrate by printing, by the inkjet printer, a hydrogel ink (430; 612; 622; 914; 1014) on the first surface of the substrate based on a predefined pattern; and forming an encapsulation layer over the hydrogel pattern by printing, by the inkjet printer, encapsulation ink (440; 915) over the printed hydrogel ink.
A method for performing partial combining of a desired multimedia broadcast/multicast service, MBMS, service by a user equipment (161, 162, 163, 171, 172), UE, in a mobile communication system supporting MBMS service, the method comprising: receiving MCCH information including combinable period information from a primary cell where the UE is currently located and information to determine an S-CCPCH of the primary cell; receiving scheduling information on a MBMS scheduling channel, MSCH, mapped onto a secondary common control physical channel, S-CCPCH, of a current cell, at a reception timing acquired from the MCCH information; receiving a neighboring cell information containing combining information, which indicate at least one time period when the partial combining is applicable between said S-CCPCH transmitted in the current cell and a S-CCPCH transmitted in a concerned neighboring cell; receiving MBMS service signals of at least one of MBMS service through a MBMS traffic channel in the S-CCPCH transmitted in the current cell and a MBMS traffic channel in the S-CCPCH transmitted in the concerned neighboring cell at the at least one time period; and partial combining the received MBMS service signals, wherein the neighboring cell information is included in the MCCH information related to the at least one of MBMS service. receiving MCCH information including combinable period information from a primary cell where the UE is currently located and information to determine an S-CCPCH of the primary cell; receiving scheduling information on a MBMS scheduling channel, MSCH, mapped onto a secondary common control physical channel, S-CCPCH, of a current cell, at a reception timing acquired from the MCCH information; receiving a neighboring cell information containing combining information, which indicate at least one time period when the partial combining is applicable between said S-CCPCH transmitted in the current cell and a S-CCPCH transmitted in a concerned neighboring cell; receiving MBMS service signals of at least one of MBMS service through a MBMS traffic channel in the S-CCPCH transmitted in the current cell and a MBMS traffic channel in the S-CCPCH transmitted in the concerned neighboring cell at the at least one time period; and partial combining the received MBMS service signals, wherein the neighboring cell information is included in the MCCH information related to the at least one of MBMS service.
An image forming apparatus comprising: a sheet feed type document feeder to automatically feed an original document; a platen type document feeder to fix the original document onto a platen glass; a time delay integration image sensor to scan the original document and read image data; and a controller to activate a time delay integration function of the time delay integration image sensor when the platen type document feeder is used, wherein, when the sheet feed type document feeder is used, the document is moved over a sensing surface of the image sensor so that movement of the image sensor relative to the document is in a first direction, and wherein, when the platen type document feeder is used, the image sensor is moved over a surface of the fixed original document, so that movement of the image sensor relative to the document is in a second direction, opposite to the first direction, characterised in that the controller is operable to deactivate the time delay integration function of the time delay integration image sensor when the sheet feed type document feeder is used, so that no time delay integration function is used when the sheet feed type document feeder is used. a sheet feed type document feeder to automatically feed an original document; a platen type document feeder to fix the original document onto a platen glass; a time delay integration image sensor to scan the original document and read image data; and a controller to activate a time delay integration function of the time delay integration image sensor when the platen type document feeder is used, wherein, when the sheet feed type document feeder is used, the document is moved over a sensing surface of the image sensor so that movement of the image sensor relative to the document is in a first direction, and