mhurhangee/ep-ind-claims huggingface dataset:
Plant-based frozen confection comprising: • fat in an amount of 1 to 15 wt%; • sugars in an amount of 10 to 30 wt%; and • plant protein in an amount of 0.4 to 10 wt%; wherein the frozen confection does not contain 6 wt% to 10 wt% of inclusions which comprise cocoa solids and have a size distribution such that at least 90 wt% of the inclusions have a size of at least 4.76 mm and 100 wt% of the inclusions have a size of less than 19 mm; and wherein the plant protein comprises soy protein and fava bean protein in a weight ratio ( S:F) of 1:1 to 1:4. • fat in an amount of 1 to 15 wt%; • sugars in an amount of 10 to 30 wt%; and • plant protein in an amount of 0.4 to 10 wt%; wherein the frozen confection does not contain 6 wt% to 10 wt% of inclusions which comprise cocoa solids and have a size distribution such that at least 90 wt% of the inclusions have a size of at least 4.76 mm and 100 wt% of the inclusions have a size of less than 19 mm; and wherein the plant protein comprises soy protein and fava bean protein in a weight ratio ( S:F) of 1:1 to 1:4.
A bending machine with a work area image capturing device, wherein the bending machine has a machine frame, a longitudinally extended machine table fixed in place, and a longitudinally extended press beam, which press beam is guided in the machine frame and held by a drive means, so as to be movable relative to the latter, and wherein the machine frame furthermore has two side parts, which are spaced apart from one another by a machine width in the direction of the longitudinal extension of the machine table, and wherein the longitudinal extension and the direction of movement of the press beam define a working plane, and the working plane establishes a front working and manipulation space and a rear machine space, which is distinguished from the former and, in particular, closed off, and wherein the image capturing device has two image capturing means, and that a capturing region of the image capturing device is oriented in the direction of the machine table, and that each image capturing means captures a partial section in the direction of the machine table, and wherein the image capturing device is connected with a display means, characterized in that the image capturing device is disposed in the working and manipulation space above the machine table, in a center section of the longitudinal extension of the press beam, in a press beam casing, and that the display means is configured for representation of the captured image of the capture region, and the optical centers of the two image capturing means coincide in comparison with the longitudinal extension of the machine table, in particular are disposed at a distance from one another of less than 10 cm.
A method for one-step fluorescent quantitative PCR, comprising: 1) mixing a sample releasing agent, an upstream and downstream primer pair, a fluorescent probe, a PCR amplification reagent, and a sample; and 2) carrying out the fluorescent quantitative PCR, wherein the fluorescent probe has two quenching groups, in which a first quenching group is located at a 3' end and a second quenching group is labeled on a T base and is 10-15 nt apart from the first quenching group, wherein additional additives are also mixed in step 1) of the method, wherein the additional additives are formamide, SDS, and a Proclin antibiotic, and wherein the method does not comprise purification and/or extraction steps of nucleic acid. 1) mixing a sample releasing agent, an upstream and downstream primer pair, a fluorescent probe, a PCR amplification reagent, and a sample; and 2) carrying out the fluorescent quantitative PCR, wherein the fluorescent probe has two quenching groups, in which a first quenching group is located at a 3' end and a second quenching group is labeled on a T base and is 10-15 nt apart from the first quenching group, wherein additional additives are also mixed in step 1) of the method, wherein the additional additives are formamide, SDS, and a Proclin antibiotic, and wherein the method does not comprise purification and/or extraction steps of nucleic acid. wherein the fluorescent probe has two quenching groups, in which a first quenching group is located at a 3' end and a second quenching group is labeled on a T base and is 10-15 nt apart from the first quenching group, wherein additional additives are also mixed in step 1) of the method, wherein the additional additives are formamide, SDS, and a Proclin antibiotic, and wherein the method does not comprise purification and/or extraction steps of nucleic acid.
An agricultural vehicle, comprising: a bale chamber configured to form a bale therein; a pickup comprising a plurality of tines configured to pickup and convey crop material rearwardly during rotation of the pickup; a rotatable rotor comprising a plurality of teeth configured to convey crop material rearwardly toward the bale chamber through a feeding mouth during rotation of the rotor; a wrapping system comprising a material roll configured to hold wrapping material fed to the bale; and a bale chamber roller disposed adjacent to the feeding mouth and defining a last roller of the bale chamber relative to the material roll; at least one wrap material knife comprising at least one severing edge disposed between the bale chamber roller and the rotor, characterized in that said knife is configured to sever wrapping material pulled forwardly by the rotor during rotation of the rotor. a bale chamber configured to form a bale therein; a pickup comprising a plurality of tines configured to pickup and convey crop material rearwardly during rotation of the pickup; a rotatable rotor comprising a plurality of teeth configured to convey crop material rearwardly toward the bale chamber through a feeding mouth during rotation of the rotor; a wrapping system comprising a material roll configured to hold wrapping material fed to the bale; and a bale chamber roller disposed adjacent to the feeding mouth and defining a last roller of the bale chamber relative to the material roll; at least one wrap material knife comprising at least one severing edge disposed between the bale chamber roller and the rotor, characterized in that said knife is configured to sever wrapping material pulled forwardly by the rotor during rotation of the rotor.
A method carried out on user equipment 'UE' for identifying Bluetooth interference in the UE, the UE comprising a Long Term Evolution 'LTE' radio component and a Bluetooth radio component on a single platform, the method comprising: detecting signal interference at the LTE radio component; measuring received signal power at the LTE radio component at predetermined time intervals to generate a plurality of measurement values corresponding to subframes during a Bluetooth Synchronous Connection Oriented 'SCO' transmission or Extended Synchronous Connection Oriented 'eSCO' transmission; and sending an in-device coexistence indicator message from the LTE radio component if each of the plurality of measurement values exceeds a threshold power value to indicate SCO or eSCO interference from the Bluetooth radio component. detecting signal interference at the LTE radio component; measuring received signal power at the LTE radio component at predetermined time intervals to generate a plurality of measurement values corresponding to subframes during a Bluetooth Synchronous Connection Oriented 'SCO' transmission or Extended Synchronous Connection Oriented 'eSCO' transmission; and sending an in-device coexistence indicator message from the LTE radio component if each of the plurality of measurement values exceeds a threshold power value to indicate SCO or eSCO interference from the Bluetooth radio component.
A set of synthetic nutritional compositions for infants or young children wherein the first composition comprises: a. 1.0-1.2 g/100ml protein, and b. 3.8-4.6 g/100ml lipid, and the second composition comprises: a. 0.7-0.9 g/100ml protein, and b. 4.2-5.2 g/100ml lipid, wherein the first composition is especially adapted to the nutritional needs of an infant of less than three months old and the second composition is especially adapted to the nutritional needs of infants or young children more than three months old, and wherein the quantities of all the nutrients expressed as mg/100ml or g/100ml reflect the amounts of nutrients present in the final liquid product, to be consumed by the infant or young child, wherein the first and second compositions are an infant formula in the form of a liquid, wherein the first composition comprises, in addition, any one or a mixture of phospholipids c.-e.: c. 5.4-6.6 mg/100ml of phosphatidylcholine, d. 6.0-7.5 mg/100ml of phosphatidylethanolamine, and e. 1.0-1.2 mg/100ml of phosphatidylinositol, and the second composition comprises, in addition, any one or a mixture of phospholipids c.-e.: c. 4.4-5.4 mg/100ml of phosphatidylcholine, d. 7.3-8.9 mg/100ml of phosphatidylethanolamine, and e. 1.5-1.9 mg/100ml of phosphatidylinositol. a. 1.0-1.2 g/100ml protein, and b. 3.8-4.6 g/100ml lipid, a. 0.7-0.9 g/100ml protein, and b. 4.2-5.2 g/100ml lipid, c. 5.4-6.6 mg/100ml of phosphatidylcholine, d. 6.0-7.5 mg/100ml of phosphatidylethanolamine, and e. 1.0-1.2 mg/100ml of phosphatidylinositol, c. 4.4-5.4 mg/100ml of phosphatidylcholine, d. 7.3-8.9 mg/100ml of phosphatidylethanolamine, and e. 1.5-1.9 mg/100ml of phosphatidylinositol.
A thermal insulation composition, wherein the thermal insulation composition comprises a composite of an aerogel material and an organic resin, and the composite mass ratio of the aerogel material to the organic resin is 5wt%:95wt% to 50wt%:50wt%; the porosity of the aerogel material is greater than 95%, the pore size of the aerogel material is less than or equal to 100 nm, and the particle size of each particle of the aerogel material is 5 nm to 20 nm, said particle size being measured according to a method disclosed in the description; the pores of the aerogel material are filled with the organic resin; characterized in that the organic resin is any one or two of polypropylene carbonate and polypropylene carbonate modified with a functional group. the porosity of the aerogel material is greater than 95%, the pore size of the aerogel material is less than or equal to 100 nm, and the particle size of each particle of the aerogel material is 5 nm to 20 nm, said particle size being measured according to a method disclosed in the description; the pores of the aerogel material are filled with the organic resin; characterized in that the organic resin is any one or two of polypropylene carbonate and polypropylene carbonate modified with a functional group.
A blanket sleeve, to be drawn over a rotary support in order to define a blanket cylinder of an indirect or offset printing machine, this blanket cylinder to cooperate with a lithographic plate cylinder from which the blanket cylinder receives the inked data to be printed and with a substrate onto which said inked data are to be transferred as said substrate moving between the blanket cylinder and a pressure cylinder, the blanket sleeve consisting essentially of: an inner cylindrical portion configured to be drawn over the rotary support and defining an outer surface, at least one intermediate bridge section having an inner surface contacting said outer surface of said inner cylindrical portion and having a cylindrically shaped exterior surface, at least a first portion (31,231a) of said intermediate bridge section being formed of polyurethane having a Shore D hardness of about 80; and characterized in that a single blanket layer is formed on said cylindrically shaped exterior surface of said intermediate bridge section, said single blanket layer being formed at least partly of polyurethane material and defining an exterior surface configured to cooperate with the lithographic plate and with the substrate to be printed wherein microspheres constituting no less than about 0.6 percent by weight and no more than about 4.4 percent by weight are uniformly dispersed throughout the single blanket layer. an inner cylindrical portion configured to be drawn over the rotary support and defining an outer surface, at least one intermediate bridge section having an inner surface contacting said outer surface of said inner cylindrical portion and having a cylindrically shaped exterior surface, at least a first portion (31,231a) of said intermediate bridge section being formed of polyurethane having a Shore D hardness of about 80; and characterized in that a single blanket layer is formed on said cylindrically shaped exterior surface of said intermediate bridge section, said single blanket layer being formed at least partly of polyurethane material and defining an exterior surface configured to cooperate with the lithographic plate and with the substrate to be printed wherein microspheres constituting no less than about 0.6 percent by weight and no more than about 4.4 percent by weight are uniformly dispersed throughout the single blanket layer.
A method to communicate audio data between vehicles in a vehicle data communication system comprising a server, the method comprising: receiving, by a network interface (142, 148) of the server, a transmission request from a client device in a first vehicle, the transmission request being a request to transmit selected audio data (110, 114) to the client device, the selected audio data (110, 114) being currently played in a second vehicle and selected by voting data received by the network interface (142, 148) from the first vehicle and indicating a selection of the audio data by the first vehicle; receiving, by the network interface (142, 148), a data stream from the second vehicle, the data stream including the selected audio data (110, 114) being currently played in the second vehicle; receiving, by the network interface (142, 148), client information from the client device, wherein the client device is connected to the first vehicle and the client information includes at least one of a vehicle make, occupant seat position information, and interior information of the first vehicle, and at least two of speaker information, amplifier information, and a list of audio decoders supported; processing, by a processor, of the server, the selected audio data (110, 114) received in the data stream, the processing based on the client information and wherein the processing includes equalization of the processed audio data in accordance with the client information; and transmitting by the server, to the client device, the processed audio data. receiving, by a network interface (142, 148) of the server, a transmission request from a client device in a first vehicle, the transmission request being a request to transmit selected audio data (110, 114) to the client device, the selected audio data (110, 114) being currently played in a second vehicle and selected by voting data received by the network interface (142, 148) from the first vehicle and indicating a selection of the audio data by the first vehicle; receiving, by the network interface (142, 148), a data stream from the second vehicle, the data stream including the selected audio data (110, 114) being currently played in the second vehicle; receiving, by the network interface (142, 148), client information from the client device, wherein the client device is connected to the first vehicle and the client information includes at least one of a vehicle make, occupant seat position information, and interior information of the first vehicle, and at least two of speaker information, amplifier information, and a list of audio decoders supported; processing, by a processor, of the server, the selected audio data (110, 114) received in the data stream, the processing based on the client information and wherein the processing includes equalization of the processed audio data in accordance with the client information; and transmitting by the server, to the client device, the processed audio data.
A lithium metal-skeleton carbon composite, comprising a porous carbon material carrier and lithium metal formed in pores of the carbon material carrier, wherein the porous carbon material carrier is a porous carbon nanotube microsphere material, said carbon nanotube microsphere material being spherical or spheroidal particles each of which is composed of carbon nanotubes, wherein a large number of nanoscale pores are formed by interlaced carbon nanotubes inside the particle, and the spherical or spheroidal particles have an average diameter of 1 μm to 100 μm.
A window arrangement comprising a plurality of neighbouring window systems, each window system comprising at least a frame structure (1; 101) including a plurality of frame members (2, 3; 102, 105) including a pair of opposed side frame members (3; 105), a sash structure carrying a pane element (21; 121) and including a plurality of sash members (12, 13; 112, 115), wherein each side frame member (3; 105) of said pair of opposed side frame members comprises at least one groove (50; 150) formed by a first protruding flange portion (51; 151) extending into a free edge, a second flange portion (52; 152) and a bridging portion (53; 153) between the first and the second flange portions, and wherein the at least one groove (50; 150) of each side frame member is provided in a face of the side frame member facing away from the pane element (21; 121), such that two grooves of juxtaposed side frame members of two neighbouring window systems form a track, characterized in that the window arrangement further comprises at least one accessory element (200, 300, 400, 500, 600), and in that the at least one accessory element is connected to the window systems by means of said track.
An apparatus for enhancing privacy of a data packet stream transmitted between a first network node and a second network node over a channel having a total bandwidth, the apparatus comprising: a control processor, coupled to the first network node, the control processor configured to determine a current bandwidth used by the data packet stream and the total bandwidth of the channel (170A, 170B, 170C); a spoof packet generator (164, 214), coupled to the first network node, the spoof packet generator configured to generate a plurality of spoof packets having content and headers that mimic the content and headers of the data packet stream; and an interleaver (164, 217), coupled to the spoof packet generator (164, 214) and configured to receive the data packet stream, the interleaver (164, 217) configured to interleave at least some of the spoof packets and the packets of the data packet stream to generate an interleaved packet stream having a bandwidth that is greater than the current bandwidth and less than the total bandwidth. a control processor, coupled to the first network node, the control processor configured to determine a current bandwidth used by the data packet stream and the total bandwidth of the channel (170A, 170B, 170C); a spoof packet generator (164, 214), coupled to the first network node, the spoof packet generator configured to generate a plurality of spoof packets having content and headers that mimic the content and headers of the data packet stream; and an interleaver (164, 217), coupled to the spoof packet generator (164, 214) and configured to receive the data packet stream, the interleaver (164, 217) configured to interleave at least some of the spoof packets and the packets of the data packet stream to generate an interleaved packet stream having a bandwidth that is greater than the current bandwidth and less than the total bandwidth.
A mixing apparatus comprising two elements (1,5) which are rotatable relative to each other about a predetermined axis, said two elements being an outer and an inner element, whereby said outer element is circumferent about said inner element, and between which is defined a flow path extending between inlet for material to be mixed and an outlet, wherein the flow path is defined between surfaces of the elements (9,11,13,14) each of which surfaces defines a series of annular projections (8;12) centered on the predetermined axis, the surfaces are positioned such that projections defined by one element extend towards spaces between projections defined by the other element, cavities are formed in each surface to define flow passages bridging the projections (8;12), cavities formed in one surface being offset in the axial direction relative to cavities in the other surface, and cavities in one surface overlapping in the axial direction with cavities in the other surface such that material moving between the surfaces from the inlet to the outlet is transferred between the overlapping cavities, wherein the cavities (16,17,18,19, 20,21; 23,24,25,26,27,28) have curved bases, characterized in that the maximum outer diameter of the inner element, as measured in mm, is • greater than 108 plus A, wherein A is the average diameter of the surface area of said cavities times 1.47, and • greater than 8.5 plus B, wherein B is the average diameter of the surface area of said cavities times 3.85, and • smaller than 468, and wherein the diameter, as measured in mm, of the surface area of a cavity, as measured in mm 2, is defined as the diameter being derived from a circle with equal surface area as said cavity and, wherein at least one annular projection does not have cavities and is an annular projection with an above average diameter compared to annular projections as defined by the same surface. • greater than 108 plus A, wherein A is the average diameter of the surface area of said cavities times 1.47, and • greater than 8.5 plus B, wherein B is the average diameter of the surface area of said cavities times 3.85, and • smaller than 468, and wherein the diameter, as measured in mm, of the surface area of a cavity, as measured in mm 2, is defined as the diameter being derived from a circle with equal surface area as said cavity and, wherein at least one annular projection does not have cavities and is an annular projection with an above average diameter compared to annular projections as defined by the same surface.
A method performed at a user equipment, UE, for communicating with a macro cell eNB, MeNB, and a small cell eNB, SeNB, the method comprising: receiving information on a downlink channel from a first primary cell, PCell, of the MeNB, wherein the information includes a first cell radio network temporary identity, C-RNTI; configuring a second PCell of the SeNB based on the information received from the first PCell of the MeNB; activating the second PCell of the SeNB; detecting a C-RNTI collision; receiving a second C-RNTI, corresponding to the first C-RNTI, for the SeNB from the first PCell of the MeNB; treating the second C-RNTI as a temporary C-RNTI for monitoring a physical downlink control channel, PDCCH, order transmitted from the SeNB and transmitting a message 3, Msg 3, to the SeNB; monitoring the PDCCH order transmitted from the SeNB based on the second C-RNTI, wherein the PDCCH order triggers a random access channel, RACH, preamble to the SeNB; transmitting the RACH preamble to the SeNB; and transmitting information on an uplink channel by transmitting the Msg 3 scrambled with the second C-RNTI in a random access procedure to the SeNB. receiving information on a downlink channel from a first primary cell, PCell, of the MeNB, wherein the information includes a first cell radio network temporary identity, C-RNTI; configuring a second PCell of the SeNB based on the information received from the first PCell of the MeNB; activating the second PCell of the SeNB; detecting a C-RNTI collision; receiving a second C-RNTI, corresponding to the first C-RNTI, for the SeNB from the first PCell of the MeNB; treating the second C-RNTI as a temporary C-RNTI for monitoring a physical downlink control channel, PDCCH, order transmitted from the SeNB and transmitting a message 3, Msg 3, to the SeNB; monitoring the PDCCH order transmitted from the SeNB based on the second C-RNTI, wherein the PDCCH order triggers a random access channel, RACH, preamble to the SeNB; transmitting the RACH preamble to the SeNB; and transmitting information on an uplink channel by transmitting the Msg 3 scrambled with the second C-RNTI in a random access procedure to the SeNB.