mhurhangee/ep-ind-claims huggingface dataset:
A computer system comprising: a first transaction accelerator operatively connected to a Wide Area Network, WAN (103; 203), the transaction accelerator to service a first plurality of Local Area Networks, LANs (101, 102; 201, 202); and a second transaction accelerator operatively connected to the WAN (103; 203) and to the first transaction accelerator, the second transaction accelerator to service a second plurality of LANs (104; 204), and the first transaction accelerator, the first transaction accelerator and the second transaction accelerator both including a provider edge, PE, router and a WAN optimization device, characterized by the PE router of the first transaction accelerator and the WAN optimization device operatively connected through an 802.1Q trunk, the PE router of the first transaction accelerator comprises a VRFin table, the PE router being arranged to look up a destination address contained within the VRFin table based on a header of a Transmission Control Protocol/Internet Protocol, TCP/IP, based data packet, the PE router of the first transaction accelerator being arranged to apply a Virtual LAN, VLAN, header comprising a VLAN identifier, ID, based on the result of the VRFin table lookup to the TCP/IP based data packet, and then transmit the TCP/IP based data packet to the WAN optimization device via the 802.1Q trunk, the WAN optimization device of the first transaction accelerator being arranged to optimize the TCP/IP based data packet prior to routing the TCP/IP based data packet to the second transaction accelerator via the WAN (103; 203). a first transaction accelerator operatively connected to a Wide Area Network, WAN (103; 203), the transaction accelerator to service a first plurality of Local Area Networks, LANs (101, 102; 201, 202); and a second transaction accelerator operatively connected to the WAN (103; 203) and to the first transaction accelerator, the second transaction accelerator to service a second plurality of LANs (104; 204), and the first transaction accelerator, the first transaction accelerator and the second transaction accelerator both including a provider edge, PE, router and a WAN optimization device, characterized by the PE router of the first transaction accelerator and the WAN optimization device operatively connected through an 802.1Q trunk, the PE router of the first transaction accelerator comprises a VRFin table, the PE router being arranged to look up a destination address contained within the VRFin table based on a header of a Transmission Control Protocol/Internet Protocol, TCP/IP, based data packet, the PE router of the first transaction accelerator being arranged to apply a Virtual LAN, VLAN, header comprising a VLAN identifier, ID, based on the result of the VRFin table lookup to the TCP/IP based data packet, and then transmit the TCP/IP based data packet to the WAN optimization device via the 802.1Q trunk, the WAN optimization device of the first transaction accelerator being arranged to optimize the TCP/IP based data packet prior to routing the TCP/IP based data packet to the second transaction accelerator via the WAN (103; 203).
A method for operating a round baler, comprising - providing a nonstop baler type machine; - feeding of crop into a prechamber and a main bale forming chamber; and - providing, by a binding unit, a binding material to the main bale forming chamber for wrapping a bale formed in the main bale forming chamber, comprising - in a first mode of operation, providing a stretching apparatus in contact with the binding material, the stretching apparatus comprising a first stretching roller in contact with the binding material and a second stretching roller that is in contact with the binding material, thereby, applying a first compressive force to the binding material by the first stretching roller and a second compressive force to the binding material by the second stretching roller for stretching the binding material; and - in a second mode of operation, providing the stretching apparatus free of contact with the binding material, characterized in that the method comprises providing a compressive force by a braking element against at least one of a surface of the first stretching roller and a surface of the second stretching roller. - providing a nonstop baler type machine; - feeding of crop into a prechamber and a main bale forming chamber; and - providing, by a binding unit, a binding material to the main bale forming chamber for wrapping a bale formed in the main bale forming chamber, comprising - in a first mode of operation, providing a stretching apparatus in contact with the binding material, the stretching apparatus comprising a first stretching roller in contact with the binding material and a second stretching roller that is in contact with the binding material, thereby, applying a first compressive force to the binding material by the first stretching roller and a second compressive force to the binding material by the second stretching roller for stretching the binding material; and - in a second mode of operation, providing the stretching apparatus free of contact with the binding material,
A method of manufacturing a pouch-type lithium secondary battery comprising: providing an electrode assembly having a first electrode tab and a second electrode tab, the first electrode tab including a first member that is coupled to the electrode assembly and extends in a first direction, and a second member that extends substantially perpendicular to the first direction, wherein the second member defines an engagement surface that extends for a first length in the second direction; providing a pouch for accommodating the electrode assembly; coupling a variable electrode tab to the first electrode tab, wherein the variable electrode tab comprises a bent portion that extends about the engagement surface to permit movement of the variable electrode tab with respect to the engagement surface; adjusting a relative position of the variable electrode tab and the first electrode tab so as to position the variable electrode tab at a location along the first length of the engagement surface; fixing the variable electrode tab and the first electrode tab at said location along the first length of the engagement surface. providing an electrode assembly having a first electrode tab and a second electrode tab, the first electrode tab including a first member that is coupled to the electrode assembly and extends in a first direction, and a second member that extends substantially perpendicular to the first direction, wherein the second member defines an engagement surface that extends for a first length in the second direction; providing a pouch for accommodating the electrode assembly; coupling a variable electrode tab to the first electrode tab, wherein the variable electrode tab comprises a bent portion that extends about the engagement surface to permit movement of the variable electrode tab with respect to the engagement surface; adjusting a relative position of the variable electrode tab and the first electrode tab so as to position the variable electrode tab at a location along the first length of the engagement surface; fixing the variable electrode tab and the first electrode tab at said location along the first length of the engagement surface.
A resin composition comprising: a bismaleimide compound comprising a constituent unit represented by the following formula, and maleimide groups at both ends of the molecular chain; at least one resin or compound selected from the group consisting of a cyanate compound, a benzoxazine compound, an epoxy resin, a carbodiimide compound, and a compound having more than one ethylenically unsaturated groups in a molecule; and a photo initiator: wherein R 1 represents a linear or branched alkylene group having 1 to 16 carbon atoms, or a linear or branched alkenylene group having 2 to 16 carbon atoms; R 2 represents a linear or branched alkylene group having 1 to 16 carbon atoms, or a linear or branched alkenylene group having 2 to 16 carbon atoms; each R 3 independently represents a hydrogen atom, a linear or branched alkyl group having 1 to 16 carbon atoms, or a linear or branched alkenyl group having 2 to 16 carbon atoms; and each n independently represents an integer of 1 to 10. a bismaleimide compound comprising a constituent unit represented by the following formula, and maleimide groups at both ends of the molecular chain; at least one resin or compound selected from the group consisting of a cyanate compound, a benzoxazine compound, an epoxy resin, a carbodiimide compound, and a compound having more than one ethylenically unsaturated groups in a molecule; and a photo initiator: wherein R 1 represents a linear or branched alkylene group having 1 to 16 carbon atoms, or a linear or branched alkenylene group having 2 to 16 carbon atoms; R 2 represents a linear or branched alkylene group having 1 to 16 carbon atoms, or a linear or branched alkenylene group having 2 to 16 carbon atoms; each R 3 independently represents a hydrogen atom, a linear or branched alkyl group having 1 to 16 carbon atoms, or a linear or branched alkenyl group having 2 to 16 carbon atoms; and each n independently represents an integer of 1 to 10.
Process for making an electrode active material wherein said process comprises the following steps: (a) Providing a hydroxide TM 2 or an oxyhydroxide of TM wherein TM is one or more metals and contains Mn and, optionally, Co, and from 85 to 95 mol% Ni, referring to the sum of Ni, Co and Mn, (b) Drying said hydroxide TM 2 or oxyhydroxide of TM at a temperature in the range of from 400 to 600°C, thereby obtaining an oxide or oxyhydroxide of TM with a residual moisture content of from 200 to 500 ppm, (c) mixing said oxide or oxyhydroxide from step (b) with a source of lithium and with at least one compound of Mg or Al and with at least one compound of Ti or Zr, (d) treating the mixture obtained from step (c) thermally at a temperature in the range of from 550 to 875°C. (a) Providing a hydroxide TM 2 or an oxyhydroxide of TM wherein TM is one or more metals and contains Mn and, optionally, Co, and from 85 to 95 mol% Ni, referring to the sum of Ni, Co and Mn, (b) Drying said hydroxide TM 2 or oxyhydroxide of TM at a temperature in the range of from 400 to 600°C, thereby obtaining an oxide or oxyhydroxide of TM with a residual moisture content of from 200 to 500 ppm, (c) mixing said oxide or oxyhydroxide from step (b) with a source of lithium and with at least one compound of Mg or Al and with at least one compound of Ti or Zr, (d) treating the mixture obtained from step (c) thermally at a temperature in the range of from 550 to 875°C.
A system (601, 703) configured to generate a wideband output audio signal from a narrow band input audio signal, wherein the system (601, 703) is configured to: receive the narrow band input audio signal; generate, by an analysis filterbank, a plurality of low frequency audio subband signals from the narrow band input audio signal; receive a set of target energies, each target energy covering a different target interval within the high frequency interval and being indicative of the desired energy of one or more high frequency audio subband signals lying within the target interval; generate a plurality of high frequency audio subband signals from the plurality of low frequency audio subband signals and from a plurality of spectral gain coefficients associated with the plurality of low frequency audio subband signals, respectively; adjust the energy of the plurality of high frequency audio subband signals using the set of target energies; combine the low frequency audio subband signals and the energy-adjusted high frequency audio subband signals; and generate, by a synthesis filterbank, the wideband output audio signal from the combined audio subband signals; wherein the sample rate of the wideband output audio signal is twice the sample rate of the narrow band input audio signal. receive the narrow band input audio signal; generate, by an analysis filterbank, a plurality of low frequency audio subband signals from the narrow band input audio signal; receive a set of target energies, each target energy covering a different target interval within the high frequency interval and being indicative of the desired energy of one or more high frequency audio subband signals lying within the target interval; generate a plurality of high frequency audio subband signals from the plurality of low frequency audio subband signals and from a plurality of spectral gain coefficients associated with the plurality of low frequency audio subband signals, respectively; adjust the energy of the plurality of high frequency audio subband signals using the set of target energies; combine the low frequency audio subband signals and the energy-adjusted high frequency audio subband signals; and generate, by a synthesis filterbank, the wideband output audio signal from the combined audio subband signals; wherein the sample rate of the wideband output audio signal is twice the sample rate of the narrow band input audio signal.
A method for automatic pelvis unfolding from a 3D medical image, comprising: a) receiving a 3D medical image; b) segmenting pelvis anatomy in the 3D medical image; and c) reformatting the 3D medical image to visualize an unfolded pelvis based on the segmented pelvis anatomy; wherein d) the segmenting of the pelvis anatomy in the 3D medical image comprises extracting a mesh slab fit to the pelvis in the 3D medical image by segmenting a mesh of the whole pelvis anatomy and extracting the mesh slab from the mesh of the whole pelvis anatomy including performing a homotopy-preserving thinning on the pelvis mesh resulting in a thin-plate structure, extending the edges of the thin-plate structure to reach just outside of the pelvis, converting the thin-plate structure into a mesh and adding layers of uniformly placed points to thicken the mesh; characterized in that e) the reformatting the 3D medical image to visualize the unfolded pelvis based on the segmented pelvis anatomy comprises re-sampling the 3D medical image over the mesh slab by sampling points of the 3D medical image that intersect with the 3D mesh slab surface, and unfolding the mesh slab by mapping the sampled points over the mesh slab in the 3D medical image to a flattened 3D volume, wherein the flattened volume is a reformatted volume that includes a number of slices corresponding to the thickness of the mesh slab, and each slice of the reformatted volume provides a visualization of the unfolded mesh slab. a) receiving a 3D medical image; b) segmenting pelvis anatomy in the 3D medical image; and c) reformatting the 3D medical image to visualize an unfolded pelvis based on the segmented pelvis anatomy; wherein d) the segmenting of the pelvis anatomy in the 3D medical image comprises extracting a mesh slab fit to the pelvis in the 3D medical image by segmenting a mesh of the whole pelvis anatomy and extracting the mesh slab from the mesh of the whole pelvis anatomy including performing a homotopy-preserving thinning on the pelvis mesh resulting in a thin-plate structure, extending the edges of the thin-plate structure to reach just outside of the pelvis, converting the thin-plate structure into a mesh and adding layers of uniformly placed points to thicken the mesh; characterized in that e) the reformatting the 3D medical image to visualize the unfolded pelvis based on the segmented pelvis anatomy comprises re-sampling the 3D medical image over the mesh slab by sampling points of the 3D medical image that intersect with the 3D mesh slab surface, and unfolding the mesh slab by mapping the sampled points over the mesh slab in the 3D medical image to a flattened 3D volume, wherein the flattened volume is a reformatted volume that includes a number of slices corresponding to the thickness of the mesh slab, and each slice of the reformatted volume provides a visualization of the unfolded mesh slab.
A method for intra-BS carrier handover, used for the handover of carriers within a base station in a multi-carrier system, wherein the method comprises: a mobile station scanning predetermined carriers within the base station based on predetermined rules; obtaining a scanning report comprising channel quality information of part of or all of the predetermined carriers; and sending the scanning report to the base station; the base station obtaining the channel quality information in the scanning report; selecting a target carrier from the predetermined carriers; and informing the mobile station of the selected target carrier via a message; and the mobile station handing over to the target carrier in a predetermined manner in response to the message; wherein the message is a carrier handover notifying message; characterized in that the carrier handover notifying message carries source carrier information of the mobile station and indication information indicating whether to perform synchronization on the target carrier, moreover, in the case that the target carrier and the source carrier meet a predetermined condition, the carrier handover notification also carries at least one of the followings: a specified ranging code and specified ranging resource information on the target carrier. a mobile station scanning predetermined carriers within the base station based on predetermined rules; obtaining a scanning report comprising channel quality information of part of or all of the predetermined carriers; and sending the scanning report to the base station; the base station obtaining the channel quality information in the scanning report; selecting a target carrier from the predetermined carriers; and informing the mobile station of the selected target carrier via a message; and the mobile station handing over to the target carrier in a predetermined manner in response to the message; wherein the message is a carrier handover notifying message; characterized in that the carrier handover notifying message carries source carrier information of the mobile station and indication information indicating whether to perform synchronization on the target carrier, moreover, in the case that the target carrier and the source carrier meet a predetermined condition, the carrier handover notification also carries at least one of the followings: a specified ranging code and specified ranging resource information on the target carrier.
A condensing heat exchanger of the kind having a primary heat exchanger and a secondary heat exchanger connected downstream of and in series with the primary heat exchanger, in which the secondary heat exchanger is arranged to at least partially condense combustion gases discharged from the primary heat exchanger, wherein the primary heat exchanger comprises a drum having a longitudinal axis and the secondary heat exchanger comprises a plurality of small diameter, relative to the diameter of the drum drawn tubes arranged by the side of the drum and extending parallel with the longitudinal axis of the drum, characterised in that a spiral thread is formed as a recessed formation in an outer surface of each drawn tube, for promoting flow of combustion gases along the tube.
Mobile charging device for electric bicycles, wherein the charging device comprises: at least one electric output connection configured for connection to at least one charging connection of at least one electric bicycle or having a charger for at least one electric bicycle, a cable with an end which is connected to the output connection, wherein an opposite end of the cable has a power connection element (120; 150) with electric connecting elements which correspond in form and arrangement to connecting elements of a trailer-side electric trailer connection of a motor vehicle combination, characterized in that the power connection element is provided as an intermediate piece, with a first contact side embodied according to a trailer-end electrical trailer connection and an opposite, second contact side embodied according to a motor-vehicle-end electrical trailer connection, wherein the intermediate piece has individual electrical connections which respectively connects trailer-end and motor-vehicle-end contact elements of the intermediate piece to one another, and the intermediate piece also has tapping elements which are connected to the contact elements and which correspond to the earth and positive pole of the on-board power system, wherein the tapping elements are connected to the cable.
Yeast cell producing isobutanol, characterized in that the cell has an increased metabolic flow of material from pyruvate via acetolactate, 2,3-dihydroxy isovalerate, 2-ketoisovalerate, isobutyraldehyde to isobutanol, in that all of the genes which code for the enzymes which are involved in this conversion are over-expressed and with all of these genes being homologous to the said yeast cell, wherein Ilv2 with SEQ ID No. 2 catalyzes the acetolactate synthase reaction from pyruvate to acetolactate, Ilv5 with SEQ ID No. 6 catalyzes the acetohydroxy acid reducto-isomerase reaction from acetolactate to 2,3-dihydroxy isovalerate, Ilv3 with SEQ ID No. 8 catalyzes the dihydroxy acid dehydratase reaction from 2,3-dihydroxy isovalerate to 2-ketoisovalerate, a 2-keto acid decarboxylase catalyzes the reaction from 2-ketoisovalerate to isobutyraldehyde, and an alcohol dehydrogenase catalyzes the reaction from isobutyraldehyde to isobutanol, wherein either at least one of the promoters of these genes is exchanged for at least one stronger promoter or the nucleic acid sequences of these genes are converted into codon-optimized alleles, characterized in that the genes ILV2, ILV5 and ILV3 are overexpressed without the mitochondrial targeting sequence of the enzymes acetolactate synthetase, acetohydroxy acid reducto-isomerase and dihydroxy acid dehydratase or with a destroyed, inactivated mitochondrial targeting sequence, and characterized in that in addition the expression of the genes PDC1 with SEQ ID No. 13, PDC5 with SEQ ID No. 15 and PDC6 with SEQ ID No. 17 or, respectively, the activity of the encoded enzymes is reduced or, respectively, switched off.
A method for producing a 3D item on a receiver plate having an x-y plane by means of fused deposition modelling, the 3D item comprising one or more layers of 3D printed material, a first layer part of the one or more layers comprising a first strand of first 3D printed material in a first plane and a second strand of second 3D printed material in a second plane, the first plane and the second plane being parallel to the x-y-plane of the receiver plate, at least one of the first 3D printed material and the second 3D printed material being transmissive for visible light, wherein the method comprises a 3D printing stage comprising layer-wise depositing 3D printable material to provide the 3D item, wherein, during the 3D printing stage, the first strand of first 3D printed material and the second strand of second 3D printed material are deposited so that at a plurality of positions in a cross-sectional view parallel to the first plane and the second plane, the first strand and the second strand are available in a configuration wherein the first strand and the second strand are next to each other, either in direct contact or at a non-zero distance, and wherein, at one or more first positions within the first layer part, the arrangement of the first strand and the second strand is swapped relative to each other during 3D printing. wherein the method comprises a 3D printing stage comprising layer-wise depositing 3D printable material to provide the 3D item, wherein, during the 3D printing stage, the first strand of first 3D printed material and the second strand of second 3D printed material are deposited so that at a plurality of positions in a cross-sectional view parallel to the first plane and the second plane, the first strand and the second strand are available in a configuration wherein the first strand and the second strand are next to each other, either in direct contact or at a non-zero distance, and wherein, at one or more first positions within the first layer part, the arrangement of the first strand and the second strand is swapped relative to each other during 3D printing.