mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a semiconductor device, comprising: providing a substrate comprising a first dielectric layer; forming a lower gate material layer on the first dielectric layer; patterning the lower gate material layer to form gate lines; depositing a second dielectric layer on the first dielectric layer and the gate lines to cover the gate lines; planarizing the second dielectric layer to expose upper surfaces of the gate lines; forming an insulating buffer material layer on the second dielectric layer and the gate lines; patterning the insulating buffer material layer to form a patterned insulating buffer layer comprising multiple separate portions, each portion extending to intersect one or more gate lines; selectively growing a graphene layer on the the separate portions of the patterned insulating buffer layer; forming a third dielectric layer to cover the graphene layer and the second dielectric layer; and forming an upper gate electrode layer on the third dielectric layer. providing a substrate comprising a first dielectric layer; forming a lower gate material layer on the first dielectric layer; patterning the lower gate material layer to form gate lines; depositing a second dielectric layer on the first dielectric layer and the gate lines to cover the gate lines; planarizing the second dielectric layer to expose upper surfaces of the gate lines; forming an insulating buffer material layer on the second dielectric layer and the gate lines; patterning the insulating buffer material layer to form a patterned insulating buffer layer comprising multiple separate portions, each portion extending to intersect one or more gate lines; selectively growing a graphene layer on the the separate portions of the patterned insulating buffer layer; forming a third dielectric layer to cover the graphene layer and the second dielectric layer; and forming an upper gate electrode layer on the third dielectric layer.
A tension or pipe clamp with a deformable housing (22; 142; 162; 192) having at least one longitudinal slit, wherein the areas of the housing (22; 142; 162; 192) lying opposite each other on the longitudinal slit are designed as bent flaps (24, 26; 144, 146; 164; 166), and with a tensioning mechanism (32; 62; 88; 112; 172; 202) for tensioning the housing (22; 142; 162; 192), wherein the tensioning mechanism (32; 62; 88; 112; 172; 202) comprises a first bolt (33; 63; 113; 173) and a second bolt (35; 65; 115; 175), which each are provided in the flaps (24, 26; 144, 147; 164, 166), and at least one tensioning means (36; 186) that transversely intersects the first bolt (33; 63; 113; 173), which is held in or on the first bolt (33; 63; 113; 173) and can be pivoted relative to the second bolt (35; 65; 115; 174), wherein the tensioning mechanism (32; 62; 88; 112; 172; 202) further comprises a spacer part (42; 72; 82; 122; 212), wherein the spacer part has a support section (43; 83; 213), wherein the support section can be made to abut against a support area (40; 70) of the second bolt (35; 65; 115; 174) in the tensioned state of the tension or pipe clamp (21; 51; 101; 141; 161; 191), and wherein the spacer part has a passage opening for the tensioning means, wherein the passage opening is spaced apart from the support section (43; 83; 213) of the spacer part (42; 72; 82; 122; 212), characterized in that the tensioning mechanism (62; 88; 112; 172) comprises at least two tensioning means (36; 186) arranged next to each other in the direction of the longitudinal slit, wherein the spacer part (72; 82; 122) is provided at least on one of the tensioning means.
A method comprising: receiving from a radio network controller information at a base station for a plurality of user equipment in one frame, said information comprising data for the plurality of user equipment, said data to be transmitted in a same scheduling interval; said information comprises scheduling information identifying said scheduling interval; said frame comprises a plurality of parts which are associated with respective ones of said user equipment, each of said parts associated with a respective one of said user equipment comprising information indicating if there is a subsequent part containing data to be transmitted in the same scheduling interval; and causing said data to be transmitted in the same scheduling interval. receiving from a radio network controller information at a base station for a plurality of user equipment in one frame, said information comprising data for the plurality of user equipment, said data to be transmitted in a same scheduling interval; said information comprises scheduling information identifying said scheduling interval; said frame comprises a plurality of parts which are associated with respective ones of said user equipment, each of said parts associated with a respective one of said user equipment comprising information indicating if there is a subsequent part containing data to be transmitted in the same scheduling interval; and causing said data to be transmitted in the same scheduling interval.
A security device comprising a light deflection structure having a first side and a second opposing side, a colourshifting layer applied to the first side of the light deflection structure and a reflection layer applied to at least a first region of the second side of the light deflection structure so as to provide a strong reflection in a direction substantially parallel to the incident light source when the direction of the incident light is at an angle away from the normal to the security device, characterised in that, the security device having at least one second region in which the reflection layer is absent, said first and second regions defining indicia.
An electronic device for wireless communication, comprising: a processing circuitry configured to in a case where a user equipment obtains a communication service from a current cell via a current relay equipment, acquire by an acquiring unit information related to candidate links comprising a cellular link to another cell and a relay link via another relay equipment, wherein the information comprises information related to remaining battery level of the user equipment; and select by a selecting unit a communication link to be applied to the user equipment from the candidate links by determining priorities of the candidate links based on the information and selecting the communication link from the candidate links based on the determined priorities, wherein the determination of the priorities comprises: in a case where the battery level of the user equipment is lower than a predetermined level, making a candidate relay equipment having a higher quality of cellular link have a higher priority. in a case where a user equipment obtains a communication service from a current cell via a current relay equipment, acquire by an acquiring unit information related to candidate links comprising a cellular link to another cell and a relay link via another relay equipment, wherein the information comprises information related to remaining battery level of the user equipment; and select by a selecting unit a communication link to be applied to the user equipment from the candidate links by determining priorities of the candidate links based on the information and selecting the communication link from the candidate links based on the determined priorities, wherein the determination of the priorities comprises: in a case where the battery level of the user equipment is lower than a predetermined level, making a candidate relay equipment having a higher quality of cellular link have a higher priority.
A process for producing 2,3,3,3-tetrafluoropropene comprising reacting 2-chloro-3,3,3-trifluoropropene with hydrogen fluoride in the presence of oxygen and a catalyst comprising chromium oxide represented by a composition formula: CrOm (1.5<m<3), or fluorinated chromium oxide obtained by fluorinating the chromium oxide.
A method of over-the-air testing of a transmission equipment, the method comprising: transmitting a transmission signal from the transmission equipment, wherein the transmission signal as transmitted comprises emissions in an in-band domain and emissions in an unwanted domain; arranging a frequency selective surface to receive the transmission signal, wherein the frequency selective surface attenuates the transmission signal in the in-band domain of the transmission signal, and wherein the frequency selective surface allows propagation of the transmission signal in the unwanted domain of the transmission signal, and measuring in a measuring equipment a parameter of the transmission signal in the unwanted domain, wherein the frequency selective surface is arranged between the transmission equipment and the measuring equipment. transmitting a transmission signal from the transmission equipment, wherein the transmission signal as transmitted comprises emissions in an in-band domain and emissions in an unwanted domain; arranging a frequency selective surface to receive the transmission signal, wherein the frequency selective surface attenuates the transmission signal in the in-band domain of the transmission signal, and wherein the frequency selective surface allows propagation of the transmission signal in the unwanted domain of the transmission signal, and wherein the frequency selective surface attenuates the transmission signal in the in-band domain of the transmission signal, and wherein the frequency selective surface allows propagation of the transmission signal in the unwanted domain of the transmission signal, and measuring in a measuring equipment a parameter of the transmission signal in the unwanted domain, wherein the frequency selective surface is arranged between the transmission equipment and the measuring equipment.
A method of preparation of a liquid pharmaceutical formulation, said formulation comprising a meglumine salt of the metal complex Gd-DOTA, together with DOTA in uncomplexed form in an amount in the range 0.002 and 0.4 mol/mol % of said Gd-DOTA complex, said process comprising the following steps: (i) reaction of either: (a) an aqueous solution of a 1:1 molar ratio of DOTA and meglumine with an excess of Gd 2 O 3, whereby all the DOTA reacts to give Gd-DOTA; or (b) an aqueous solution of DOTA with a deficiency of Gd 2 O 3 at pH 2.0 to 6.0 whereby all the gadolinium reacts to give Gd-DOTA, followed by the addition of meglumine to raise the pH to 6.5 to 8.0, and then addition of an excess of Gd 2 O 3; or (c) an aqueous solution of DOTA with an excess of meglumine at pH 6.5 to 8.0, with an excess of Gd 2 O 3, whereby all the DOTA reacts to give Gd-DOTA; whereby (a), (b) or (c) gives a first solution of Gd-DOTA containing excess undissolved Gd 2 O 3; (ii) filtration of the first solution from step (i) to remove the excess undissolved Gd 2 O 3, giving a second solution which comprises Gd-DOTA free from excess Gd 2 O 3; (iii) addition of DOTA in uncomplexed form in the range 0.002 and 0.4 mol/mol % to said second solution from step (ii) to give said liquid pharmaceutical formulation; wherein said DOTA in uncomplexed form is free of coordinated metal ions. (i) reaction of either: (a) an aqueous solution of a 1:1 molar ratio of DOTA and meglumine with an excess of Gd 2 O 3, whereby all the DOTA reacts to give Gd-DOTA; or (b) an aqueous solution of DOTA with a deficiency of Gd 2 O 3 at pH 2.0 to 6.0 whereby all the gadolinium reacts to give Gd-DOTA, followed by the addition of meglumine to raise the pH to 6.5 to 8.0, and then addition of an excess of Gd 2 O 3; or (c) an aqueous solution of DOTA with an excess of meglumine at pH 6.5 to 8.0, with an excess of Gd 2 O 3, whereby all the DOTA reacts to give Gd-DOTA; whereby (a), (b) or (c) gives a first solution of Gd-DOTA containing excess undissolved Gd 2 O 3; (a) an aqueous solution of a 1:1 molar ratio of DOTA and meglumine with an excess of Gd 2 O 3, whereby all the DOTA reacts to give Gd-DOTA; or (b) an aqueous solution of DOTA with a deficiency of Gd 2 O 3 at pH 2.0 to 6.0 whereby all the gadolinium reacts to give Gd-DOTA, followed by the addition of meglumine to raise the pH to 6.5 to 8.0, and then addition of an excess of Gd 2 O 3; or (c) an aqueous solution of DOTA with an excess of meglumine at pH 6.5 to 8.0, with an excess of Gd 2 O 3, whereby all the DOTA reacts to give Gd-DOTA; (ii) filtration of the first solution from step (i) to remove the excess undissolved Gd 2 O 3, giving a second solution which comprises Gd-DOTA free from excess Gd 2 O 3; (iii) addition of DOTA in uncomplexed form in the range 0.002 and 0.4 mol/mol % to said second solution from step (ii) to give said liquid pharmaceutical formulation;
Flexible spline element for a gear, the flexible spline element comprising - an elastic ring (304-Fig.45,46; and - a multitude of cylindrical pins (305-Fig.46) wherein the cylindrical pins of the multitude of cylindrical pins stand proud of a first axial surface of the spline element in a first axial direction and of a second axial surface of the spline element in a second axial direction, the second axial direction being opposite to the first axial direction, and the multitude of cylindrical pins being coaxially arranged with the flexible spline element, characterized in that an inner surface of the elastic ring (304-Fig.45,46) is provided for supporting a deformable race ball bearing, the inner surface being flat in a cross-section perpendicular to the axial direction of the flexible spline element and being circular when viewed in an axial direction of the flexible spline element. - an elastic ring (304-Fig.45,46; and - a multitude of cylindrical pins (305-Fig.46) wherein the cylindrical pins of the multitude of cylindrical pins stand proud of a first axial surface of the spline element in a first axial direction and of a second axial surface of the spline element in a second axial direction, the second axial direction being opposite to the first axial direction, and the multitude of cylindrical pins being coaxially arranged with the flexible spline element, characterized in that an inner surface of the elastic ring (304-Fig.45,46) is provided for supporting a deformable race ball bearing, the inner surface being flat in a cross-section perpendicular to the axial direction of the flexible spline element and being circular when viewed in an axial direction of the flexible spline element.
A method for use in a first node for a wireless access communication system, comprising the steps of: • controlling traffic to and from users, UEs, within a cell in the system; • employing a variety of multi antenna transmit modes, comprising transmit diversity and spatial multiplexing, for down link transmissions, by use of a plurality of transmit antennas (111,113); • receiving, over a random access channel, from a UE that lacks a dedicated up link resource for transmission to the first node, a random access preamble that has been selected among a number of preambles available for contention based random access; • transmitting, in response to the random access preamble being received, and on a downlink shared channel by use of a predefined one among said multi antenna transmit modes, a random access response including an initial grant, a temporary Cell Radio Network Temporary Identifier, C-RNTI, and a time alignment update; • receiving, from the UE according to the initial grant, a third message and that uniquely identifies the UE; • transmitting, by use of the one predetermined among said multi antenna transmit modes, a contention resolution message. • controlling traffic to and from users, UEs, within a cell in the system; • employing a variety of multi antenna transmit modes, comprising transmit diversity and spatial multiplexing, for down link transmissions, by use of a plurality of transmit antennas (111,113); • receiving, over a random access channel, from a UE that lacks a dedicated up link resource for transmission to the first node, a random access preamble that has been selected among a number of preambles available for contention based random access; • transmitting, in response to the random access preamble being received, and on a downlink shared channel by use of a predefined one among said multi antenna transmit modes, a random access response including an initial grant, a temporary Cell Radio Network Temporary Identifier, C-RNTI, and a time alignment update; • receiving, from the UE according to the initial grant, a third message and that uniquely identifies the UE; • transmitting, by use of the one predetermined among said multi antenna transmit modes, a contention resolution message.
A nanoparticle generator comprising: means for heating a source; a housing for said heating means; and a passage (11; 21; 31) passing through said housing, said heating means comprising: an insulator configured with a recess for receiving and contacting the source, said recess opening into said passage such that, when the source is received in the heating means, at least a portion of the source is open to the passage; and a heater disposed in the insulator and configured to provide at least one side of the recess, the heater comprising a heating wire. means for heating a source; a housing for said heating means; and a passage (11; 21; 31) passing through said housing, said heating means comprising: an insulator configured with a recess for receiving and contacting the source, said recess opening into said passage such that, when the source is received in the heating means, at least a portion of the source is open to the passage; and a heater disposed in the insulator and configured to provide at least one side of the recess, the heater comprising a heating wire. an insulator configured with a recess for receiving and contacting the source, said recess opening into said passage such that, when the source is received in the heating means, at least a portion of the source is open to the passage; and a heater disposed in the insulator and configured to provide at least one side of the recess, the heater comprising a heating wire.
Process for producing synthesis gas with an apparatus according to any of Claims 5 to 13 from carbonaceous reactants by gasification in a fluidized bed reactor, having the following steps: - heating a first, low-lying fluidized bed region of a fluidized bed of the fluidized bed reactor to a first gasification temperature, where the first gasification temperature is lower than a softening temperature of the reactants or ashes thereof, - heating a second reactor housing section (5; 44) which lies higher than the first fluidized bed region and contains a second fluidized bed region of the fluidized bed of the fluidized bed reactor, where the second fluidized bed region lies higher than and adjoins the first fluidized bed region, to a second gasification temperature, where the second gasification temperature is higher than the first gasification temperature, - feeding the reactants into the first fluidized bed region, - removing the synthesis gas generated. - heating a first, low-lying fluidized bed region of a fluidized bed of the fluidized bed reactor to a first gasification temperature, where the first gasification temperature is lower than a softening temperature of the reactants or ashes thereof, - heating a second reactor housing section (5; 44) which lies higher than the first fluidized bed region and contains a second fluidized bed region of the fluidized bed of the fluidized bed reactor, where the second fluidized bed region lies higher than and adjoins the first fluidized bed region, to a second gasification temperature, where the second gasification temperature is higher than the first gasification temperature, - feeding the reactants into the first fluidized bed region, - removing the synthesis gas generated.
A method for generating m > 0 synthetic images in real time as additional virtual perspectives from a received stereo image of a stereo image sequence in each case comprising two or more partial images of the same scene, which partial images were captured at the same time from different perspectives, the received stereo image being scaled to the processing size G(t), which describes the resolution of the stereo image, so as to obtain a scaled stereo image, characterized in that image regions in one of the two or more partial images of the scaled stereo image are identified in a constancy detector, each of which image regions differs from the same image region of the same partial image from the previous scaled stereo image by less than a value ε to be determined, the information K(i,j) = 1 being saved for each pixel (i,j) if the pixel has changed, otherwise the information K(i,j) = 0 is saved, the values of the disparity map of the relevant pixels calculated using the previous partial image being adopted for the pixels with K(i,j) = 0, the disparity only being calculated for the pixels (i,j) for which the information K(i,j) = 1 was saved, and m > 0 synthetic images being generated from the partial images and the adopted and calculated disparities as additional virtual perspectives and a control unit measuring the processing time at the end of each m synthetic image generation process and comparing said time with prespecified target values, one or more control parameters comprising at least the processing size G(t) and/or the number of pixel features used for disparity estimation and described by the feature vectors F L and F R being altered by means of automatic estimation procedures such that the processing size G(t) and the number of pixel features enable generation of the m synthetic images within the processing time specified as the target value for the next stereo image of the stereo image sequence.
A method of applying a lighting arrangement to a surface, comprising: forming a first conductive layer over the surface, the conductive layer being for connection to a first electrical terminal; applying an array of LED lighting elements over the first conductive layer, each comprising a pad with top and bottom electrical contacts (12,14), wherein the top contact comprises a projecting contact bump, wherein the LED lighting elements are applied such that at least a fraction thereof are upwardly facing with their top contacts (12,16) facing away from the surface; spray paint coating to fill the spaces between the LED lighting elements and cover the LED lighting elements with sprayed paint; removing a top portion of the sprayed paint thereby to reveal the contact bumps for the upwardly facing LED lighting elements and to form light output windows for the upwardly facing LED lighting elements; and forming a second conductive layer over the sprayed paint and the revealed contact bumps, the second conductive layer being for connection to a second electrical terminal. forming a first conductive layer over the surface, the conductive layer being for connection to a first electrical terminal; applying an array of LED lighting elements over the first conductive layer, each comprising a pad with top and bottom electrical contacts (12,14), wherein the top contact comprises a projecting contact bump, wherein the LED lighting elements are applied such that at least a fraction thereof are upwardly facing with their top contacts (12,16) facing away from the surface; spray paint coating to fill the spaces between the LED lighting elements and cover the LED lighting elements with sprayed paint; removing a top portion of the sprayed paint thereby to reveal the contact bumps for the upwardly facing LED lighting elements and to form light output windows for the upwardly facing LED lighting elements; and forming a second conductive layer over the sprayed paint and the revealed contact bumps, the second conductive layer being for connection to a second electrical terminal.
Pharmaceutical composition suitable for use as antiviral composition or antiviral containing extracts of the plant species spiny rush (juncus acutus) or of the plant genera rose, chamomile, lavender, white willow and myrrh as effective ingredients.